HomeMy WebLinkAbout3-4-25 PB packet- CU GFR- SEQR Discussion1
PLANNING DEPARTMENT MEMORANDUM
TO: Planning Board Members
FROM: Christine Balestra, Senior Planner
DATE: February 25, 2025
RE: Cornell Game Farm Rd Field Hockey Field – SEQRA Discussion
Enclosed please find additional materials related to the proposed Cornell Game Farm Road Field
Hockey Field project on Game Farm Road, located immediately east of the existing Cornell soccer
fields at the Game Farm Road Athletic Complex (also referenced as the Ellis Hollow Athletic Complex).
The proposal involves constructing new field hockey facilities in two phases, with phase one including
the conversion of the existing natural grass practice field (McGovern Field 3) into a synthetic turf field
along with construction of a new driveway, formalized parking area, pedestrian amenities, and two
support facilities (a 1,700 +/- square foot restroom/team room building, and a 480 +/- square foot
press box). Phase two involves the construction of a clubhouse for the field hockey team, with locker
rooms, meeting rooms, physical therapy rooms, lounge, toilets, showers, and indoor synthetic turf
training space. Phase two is projected to be constructed within five years of the athletic field
installation. The project also includes new lighting, landscaping, stormwater facilities, and other site
improvements.
The enclosures include:
1. Planning staff research, requested by the Planning Board at the January 7, 2025, meeting
2. Additional information from the applicant, requested by the Planning Board at the January 7,
2025, meeting
The Town of Ithaca Planning Board established themselves as the Lead Agency in the
environmental review of the project on January 7, 2025, where they considered the environmental
review process for this project. After a long discussion, the Board asked the applicant and staff to
prepare and provide additional research to assist them in making an environmental determination
(see attachments).
The purpose of the March 4, 2025, Planning Board meeting is for the Board to determine whether
the field hockey field project has the potential for at least one significant adverse environmental
impact, and whether such impact might necessitate an environmental impact statement process.
To that end, the enclosures do not include a completed environmental assessment. Town staff will
provide a completed draft Full EAF at a future meeting, based on the Board’s decision on March
4th.
Please feel free to contact me if you have questions regarding this proposal by phone at 273-1721,
extension 121, or by email at cbalestra@townithacany.gov.
2
Cc: Elisabete Godden, Project Manager, Cornell University, Facilities and Campus Services
Leslie Schill, Director of Campus Planning, Cornell University, Office of the University Architect
Kimberly Van Leeuwen, Director of Landscape Architecture, Fisher Associates
Town of Ithaca Planning sta research on synthetic turf 2025
1
Planning Board requested the following information to make a SEQR
determination for the CU GFR project (from 1-7-25 Planning Board meeting)
1. Cornell’s responses to the Article 87 Meinig lawsuit, insofar as Susan
Brock mentioned at the 12/17/24 PB meeting.
2. Documents that show:
a. Actual turf materials
b. Proposed product manufacturer specifications for proposed turf
c. Chemicals in turf – including, but not limited to, PFAS contents and
components
d. Analysis of what will break down over time and how it will break down
3. Third party interpretation of the documents in #2 – town sta to find the
third party and it cannot be someone from applicant team, Cornell
University, or the public that has commented on the topic.
4. Understanding of how the project will impact the stormwater filtration
system for anything not covered in the SWPPP. What could the new field
produce in sizes and concentrations? What can actually be treated?
Microplastics? PFAS? Other materials in the product list?
5. Someone to review the evidence on human health impacts of synthetic
turf materials. Summarize not just the findings, but the quality of the
evidence (e.g., how rigorous are the studies?) *There is no crumb rubber
in this proposal, so this wouldn’t need to be part of the review. PFAS
would be excluded from the review as the project will comply with NYS
law that comes into e ect in 2026.
Town of Ithaca Planning sta research on synthetic turf 2025
2
Town Planning sta research relative to Planning Board request #3/5 above:
1. Tompkins County Whole Health Director, Liz Cameron – phone conversation (607-
274-6688).
TC Whole Health is “not qualified to do what Planning Board is asking.”
Recommended hiring an independent consultant, particularly for request in #5:
o Liz Moran, Ecologic (Cornell-a iliated)
o Roxy Johnston, City of Ithaca
o O’Brien & Gere
o LaBella
Recommended the town contact NYSDOH, as they have toxicology experts (518-
402-7800). They might be able to assist with #3. But they won’t have the sta to do
#5. See below.
2. Roxy Johnston, City of Ithaca Watershed Coordinator (called 607-273-4680, left
message)
Returned my call and left message: she cannot assist, not qualified. Recommended
contacting Damian Helbling, Cornell, or his assistant, Rassil Sayess, or Susan Allen,
Ithaca College. [did not contact because Cornell/IC a iliated = conflict of interest]
Emailed me NYS research that was done for PFAS in drinking water. NYS research
was rigorous until 2023/2024, when EPA took over. According to phone call with
Roxy, EPA research is not rigorous (emails attached for reference).
3. NYSDOH (518-402-7800), btsa@health.ny.gov – called and emailed on 1/28/25 and
left messages. Called again 2/6/25, left a message. DOH responded via email 2/18/25
(attached)
Cannot endorse or recommend a specific expert. Suggested the town use
environmental or engineering consulting firm.
Department currently reviewing more recent literature and cannot provide a
summary at this time.
Email contains links to April 2024 Federal final report on human exposures and
potential risks to di erent chemicals in artificial turf fields and playgrounds
(primarily focused on recycled tire crumb rubber).
4. NYS DEC Division of Environmental Remediation- phone conversation (518-402-
9543)
Cannot assist. Recommended calling NYS DMM or NYS DOH, and only after
receiving chemical list of materials from Cornell.
5. NYS DEC Division of Solid Waste Management- division that oversees the 2026
carpet law (called and left message 518-402-2724)
Town of Ithaca Planning sta research on synthetic turf 2025
3
Returned my call and left message: requested my email, Conor Shea will email me
back (see email exchanges attached).
Cannot recommend a consultant, no one from his division is qualified to do what
the Planning Board is asking.
Email embedded links to the 2026 carpet law, the NYS Senate Bill 2025-S3797 (if
enacted, would establish a moratorium on installation of synthetic turf), and the
NYSDOH report (email attached).
6. Community Science Institute (607-257-6606) info@communityscience.org –
Left a voicemail and emailed the general email. Email response provided (attached).
The request is outside their scope of expertise.
Recommended contacting Dr. Yuxin Wang, Binghamton University, included links in
email: https://telescopecc.wixsite.com/yuxinw/research-and-facilities. [did not
contact because of potential conflict- Dr. Wang did her postdoc at Cornell]
7. Finger Lakes Institute (315-781-4381, Dr. Lisa Cleckner, Director)
cleckner@hws.edu
Left a voicemail message and emailed Dr. Cleckner directly. Email response
provided (attached). The request is outside their scope of expertise.
Recommended Genoa Warner, NJ Institute of Technology, Dept of Chemistry and
Environmental Science. Published a paper on exact issues faced by the PB.
https://people.njit.edu/profile/grw4 https://genoawarner.com/
o Contacted Ms. Warner – she is not taking outside consulting at this time but
o ered to chat about her research. Email exchange attached. Subsequent
phone conversation was brief but informative:
1) Genoa clarified- she is a chemist, not an epidemiologist.
2) Her experience and research has discovered that there is not enough
rigorous study happening. Also, Federal funding has either been pulled or is at
risk of being pulled (new administration issue).
3) There are lots of studies that prove that synthetic turf chemicals are
harmful. BUT there are no studies about the e ects of that turf specifically on
the human body, on water systems, in soil, etc. Some studies are occurring
now in relation to water, water systems, and soil.
4) There need to be large scale human studies – not “anecdata” – but large
scale human studies. They will definitively inform public health impacts of
synthetic turf, and those studies simply aren’t being done.
5) O ered to speak to the Planning Board via Zoom if necessary. But
cautioned at the end of the phone conversation that she is seen by the turf
industry as the “opposition.” She is personally opposed to synthetic turf and
has protested against it in her community. She is not unbiased personally.
1
Chris Balestra
From:Roxy Johnston <RJohnston@cityofithaca.org>
Sent:Monday, January 27, 2025 9:09 AM
To:Chris Balestra
Subject:PFAs info
Follow Up Flag:Follow up
Flag Status:Flagged
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links, and/or attachments. Any questions please contact the IT department
Easy summary: https://www.exponent.com/article/new-york-state-proposes-new-restrictions-pfas-drinking-
water
New York State Proposes New
Restrictions on PFAS in Drinking Water
Twenty-three per- and polyfluoroalkyl substances are
targeted for expanded analysis. On October 5, the New
York State Department of Health issued a notice of
proposed rulemaking regarding certain per- and
polyfluoroalkyl substances (PFAS) in drinking water.
www.exponent.com
NYS Register - as posted for public comments
https://dos.ny.gov/system/files/documents/2022/10/100522.pdf
Issue 40 REGISTE NEW YORK STATE R - Department of State
KATHY HOCHUL GOVERNOR ROBERT J. RODRIGUEZ SECRETARY OF STATE NEW YORK STATE
DEPARTMENT OF STATE For press and media inquiries call: (518) 486-9844 For State Register production,
scheduling and subscription information call: (518) 474-6957
dos.ny.gov
The video!
https://totalwebcasting.com/view/?func=VOFF&id=nysdoh&date=2024-12-17&seq=1
The video will contain information on any turf compounds that are also included in the proposed NYS drinking
water regulations.
Good luck!
Contact #2- Roxy Johnston, City of Ithaca
2
Roxy
Roxanna Johnston
Watershed Coordinator, City of Ithaca
Laboratory Director, Drinking Water Plant
City of Ithaca Drinking Water Plant
202 Water St. Ithaca NY 14850
Phone: 607-273-4680 x 4619
Email: rjohnston@cityofithaca.org
www.ithacawater.org
1
Chris Balestra
From:doh.sm.BTSA <btsa@health.ny.gov>
Sent:Tuesday, February 18, 2025 8:21 AM
To:Chris Balestra
Subject:RE: Municipal assistance request - Town of Ithaca
Follow Up Flag:Follow up
Flag Status:Flagged
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from address, any URL links, and/or attachments. Any questions please contact
the IT department
Good morning Chris,
As a government agency, we do not imply endorsement or provide recommendations of any specific
expert, but other municipalities and school districts use environmental consulting or engineering firms to
analyze the chemical components of artificial turf. Additionally, we are in the process of reviewing the
more recent literature and cannot provide a summary at this time. Our current website outlines the
health and safety concerns related to artificial turf.
Crumb-Rubber Infilled Synthetic Turf Athletic Fields
In April of 2024, The Federal Research Action Plan on Recycled Tire Crumb Used on Playing Fields and
Playgrounds (FRAP) released their final report. This final report discusses the findings related to human
exposures and potential risks to different chemicals in artificial turf fields and playgrounds (primarily
focused on recycled tire crumb rubber). This report does not discuss other concerns such as injuries,
heat stress and environmental impacts and states there are still exposure uncertainties. Although you
mentioned not using crumb rubber, we would recommend reviewing this report. Their website also lists
other government websites that can be reviewed.
Federal Research on Recycled Tire Crumb Used on Playing Fields and Playgrounds | US
EPA
Synthetic Turf Field Recycled Tire Crumb Rubber Research Under the Federal Research
Action Plan
Government Organization Websites Related to the Use of Tire Crumb on Fields and
Playgrounds | US EPA
Please reach out if you have additional questions.
From: Chris Balestra <CBalestra@townithacany.gov>
Sent: Tuesday, January 28, 2025 3:14 PM
To: doh.sm.BTSA <btsa@health.ny.gov>
Cc: Chris Balestra <CBalestra@townithacany.gov>
Subject: Municipal assistance request - Town of Ithaca
You don't often get email from cbalestra@townithacany.gov. Learn why this is important
Contact #3- NYS DOH
1
Chris Balestra
From:Shea, Conor M (DEC) <Conor.Shea@dec.ny.gov>
Sent:Friday, February 7, 2025 5:20 PM
To:Chris Balestra
Subject:Re: PFAS in Artificial Turf
Follow Up Flag:Follow up
Flag Status:Flagged
Hello Chris - As a state employee, I cannot provide a recommendation on a consultant for this analysis,
and do not think I would fit the profile for a "soil/water/toxicology expert" myself. However, I would like
to point out that the law restricting the sale or offering for sale of carpet that contains or is treated with
PFAS goes into effect December 31, 2026. Artificial turf is included in the definition of carpet, and as
such, is subject to the sales restriction after this date if it contains or is treated with PFAS. While the law
does not place restrictions on the purchaser, it does ensure that any artificial turf sold after that date in
the state will not contain PFAS, so this may be worth considering as a potential purchaser.
Also, regarding recently introduced legislation, NY State Senate Bill 2025-S3797 was reintroduced from
last session. If enacted, it would establish a moratorium on the installation of synthetic turf pending a
comprehensive environmental and public health study by DOH and DEC. The study would investigate
the exposure and contamination potential of synthetic turf, including routes of exposure through the
installation, maintenance, removal, and disposal of synthetic turf, as well as alternatives including
natural turf.
Additionally, I'd like to note that the New York State Department of Health published a report which
evaluated the health and safety issues associated with crumb rubber infilled artificial turf fields. I
understand that the proposed field will not contain crumb rubber infill, however it will still be an
artificial turf playing field, so there may be worthwhile studies that are cited in their report, which would
have been authored by experts on this topic or related topics.
I hope this is helpful.
Thanks,
Conor
From: Chris Balestra <CBalestra@townithacany.gov>
Sent: Wednesday, February 5, 2025 3:20 PM
To: Shea, Conor M (DEC) <Conor.Shea@dec.ny.gov>
Cc: Chris Balestra <CBalestra@townithacany.gov>
Subject: RE: PFAS in Artificial Turf
ATTENTION: This email came from an external source. Do not open attachments or click on links from unknown senders or
unexpected emails.
Contact #5 - NYS DEC Division of Solid Waste
Management, Conor Shea
1
Chris Balestra
From:Community Science Institute <info@communityscience.org>
Sent:Monday, January 27, 2025 1:52 PM
To:Chris Balestra
Cc:CJ Randall
Subject:Re: Municipal assistance request - Town of Ithaca
Follow Up Flag:Follow up
Flag Status:Flagged
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links, and/or attachments. Any questions please contact the IT department
Hello Chris,
Thank you for reaching out to us about this issue! While I wish we could help, I am sorry to say that
a project like this is outside the scope of CSI's capacity and expertise.
I am not sure if you are considering academic experts, but if you are, I have a recommendation for
you. I attended graduate school at Binghamton University where I came to know Dr. Yuxin Wang. I
would consider her an expert on risk assessment of anthropogenic contaminants, particularly PFAS.
Here is a link to her website: https://telescopecc.wixsite.com/yuxinw/research-and-facilities.
However, I just read her bio and saw that she did a postdoc at Cornell so I'm not sure if that would
disqualify her from your consideration. If her former connection would disqualify her as an
impartial expert, she might be able to refer you to a colleague with similar qualifications and
experience as her.
Thank you again for thinking of CSI for this project. I apologize that we are unable to be of more
assistance.
Kind regards,
Grascen
Grascen Shidemantle, Ph.D.
(she/her/hers)
Executive Director
Community Science Institute
gshidemantle@communityscience.org
607-257-6606
On Fri, Jan 24, 2025 at 2:29 PM Chris Balestra <CBalestra@townithacany.gov> wrote:
Good afternoon,
Contact #6 - Community Science Institute
1
Chris Balestra
From:Cleckner, Lisa <CLECKNER@hws.edu>
Sent:Friday, January 24, 2025 11:41 AM
To:Chris Balestra
Cc:CJ Randall
Subject:RE: Municipal assistance request - Town of Ithaca
Attachments:HealthImpactsArtificialTurf.pdf
Follow Up Flag:Follow up
Flag Status:Flagged
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from address, any URL links, and/or attachments. Any questions please contact
the IT department
Hi Chris,
Thank you for sending all of this information and I am sorry that we did not connect by phone earlier this week.
While I appreciate that you reached out to the FLI and I do have my graduate degrees in chemicals and
environmental health sciences, I do not think we are the best to provide the analysis that you are looking for. I can
only imagine the information that you are trying to compare and sort.
I did a short literature search a couple of days ago and found the attached review paper that might be helpful. And,
it looks to me like the corresponding author, Genoa Warner, might be a good person to ask for further help? Here
are a couple of links to her research and institutional info –
https://people.njit.edu/profile/grw4
https://genoawarner.com/
Happy to try to track down other resources that can help with this if you hit a wall.
Thanks again for reaching out.
Best,
Lisa
Lisa B. Cleckner, PhD, MBA (she/her)
Director
Finger Lakes Institute
Hobart and William Smith Colleges
Office: 601 S. Main St
Mailing: 300 Pulteney St
Geneva, NY 14456
315-781-4381 (office)
585-755-3038 (mobile)
315-781-4399 (FAX)
Contact #7- Finger Lakes Institute - Dr. Cleckner
1
Chris Balestra
From:Genoa Warner <grw4@njit.edu>
Sent:Sunday, January 26, 2025 2:51 PM
To:Chris Balestra
Cc:genoa.warner@njit.edu; CJ Randall
Subject:Re: Municipal assistance request - Town of Ithaca
Follow Up Flag:Follow up
Flag Status:Flagged
Hi Chris,
Thanks for reaching out. I am an academic researcher working in this area. My group studies the health
and environmental impacts of plastics, and artificial turf is one of my areas of interest. As a pre-tenure
faculty member, I am not doing outside consulting at this time, but I would be happy to meet with you to
discuss my article and share some thoughts. My article was written to address the exact question the
planning board has asked about health impacts, and I also have research ongoing to measure AT PFAS
content and leaching. This is difficult to measure, which makes me skeptical that you will receive the
data you have requested.
It is great that you are looking for a objective third party to review this because so many communities rely
exclusively on information from manufacturers. I'd be happy to chat informally to see if I can help you.
Best, Genoa
__
Genoa Warner, PhD
Assistant Professor
Department of Chemistry and Environmental Science
New Jersey Institute of Technology
grw4@njit.edu
pronouns: she/her
On Jan 24, 2025, at 2:20 PM, Chris Balestra <CBalestra@townithacany.gov> wrote:
This Message Is From an Untrusted Sender
You have not previously corresponded with this sender.
Good afternoon, Ms. Warner,
I was referred to you by Dr. Lisa Cleckner of the Finger Lakes Institute at Hobart William Smith
Colleges in NY. She came across the attached review paper relative to artificial turf and thought
you/your team might be able to assist us.
I am a senior planner with the Town of Ithaca Planning Department. I’ve been asked by my
Planning Board to find a third-party consultant to review and provide analysis of a Planning
Board project associated with the construction of a synthetic turf field hockey field in the Town
Contact #7- Genoa Warner, Researcher
Game Farm Road Field Hockey Field
Supplemental Materials Submission
Cornell University
Ithaca, NY
January 31, 2025
Cultivating our gifts to create a legacy of infrastructure that improves quality of life.
January 31, 2025
C.J. Randall, Director of Planning
Department of Planning, Town of Ithaca
215 North Tioga Street
Ithaca, NY 14850
Dear Director Randall,
Attached please find additional materials regarding the Game Farm Road Field Hockey Field project for Cornell University. We have
provided information requested by the Town planning board members during the January 7, 2025 meeting and also by the Town
Code Enforcement Department in their project review letter of the same day.
We are looking forward to discussing SEQR at your February 18 meeting.
If you have any questions or require further information, please do not hesitate to call.
Sincerely,
Kimberly Michaels
Director of Landscape Architecture
1001 W Seneca Street, Suite 201 • Ithaca, New York 14850 • 607.277.1400 • fisherassoc.com
TABLE OF CONTENTS
Project Overview .................................................................................................7
Article 78 Lawsuit ...............................................................................................8
Synthetic Turf Details ........................................................................................10
Recycling Plan ..................................................................................................12
Microplastics ....................................................................................................12
Public Health Research Findings .......................................................................13
VOCs and Phthalates .....................................................................................14
Heat Island ....................................................................................................14
FEAF Item Clarification ......................................................................................15
Long-Term Plans ...............................................................................................16
Barn Information ...............................................................................................17
Stream Setback Law ..........................................................................................17
Updated Photometrics Diagram .........................................................................17
Appendices
1. Memorandum of Law in Opposition to Verified Position
2. NCAA Site Selection Process for Division I Field Hockey
3. International Hockey Federation (FIH) Hockey Turf & Field Standards
4. Project Location Exhibit
5. Stream Setback Exhibit
6. Project Lighting Plan - Technical Drawings
7. ECS Compliance Checklist and Memo for Restroom Building
8. ECS Compliance Checklist and Memo for Press Box Building
7
PROJECT OVERVIEW
Cornell University is proposing to construct facilities for varsity field hockey at their Game Farm Road lands utilized for
athletics. Construction of the project is proposed in two phases. Phase one will provide Cornell’s field hockey athletes
a much-needed, NCAA-required synthetic turf field. The field is proposed on the site of an existing lightly utilized grass
athletic field next to two improved grass soccer fields known as McGovern Fields. Phase one will include a field hockey
pitch, a new driveway, formalized parking, pedestrian amenities, and small support facilities. The support facilities
include a four-restroom building and a press box building.
An additional building (phase two) for field hockey is anticipated to move forward within five years of the athletic field
installation. The building will be a single-story clubhouse facility to serve the field hockey team. The clubhouse will
include team locker rooms, offices, meeting rooms, a physical therapy/training room, a lounge, toilets, showers, and
an indoor training space. The indoor training space will have a synthetic turf floor surface that matches the turf used for
the exterior field hockey field and will be used for field hockey practice during inclement weather. The full buildout with
Phase II building is visible on the title page.
The proposed septic system, stormwater management system, and electrical transformer included in the phase one
construction will be sized to accommodate both phase one and phase two development.
Figure: Phase I
8
Information requested by the Town Planning Board and Code Enforcement Department
Per the request of Town Attorney Susan Brock, below please find information about the Article 78 lawsuit brought by
Zero Waste Ithaca (“petitioner”) alleging that the City of Ithaca Planning Board’s negative declaration of environmental
impact pursuant to SEQR for the Meinig Fieldhouse project was arbitrary and capricious and should be rescinded. The
following paragraphs are paraphrased or direct excerpts from Cornell’s 27-page response, which the City of Ithaca
adopted in its own legal filing in the proceeding and is included in this package (see Appendix 1).
THOROUGH REVIEW
Petitioner alleges that the Planning Board failed to take a hard look at several issues tangentially related to the
installation of synthetic turf, such as PFAS, microplastic shedding from the site, air emissions, and VOCs and
phthalates. However, as described in detail in pages 3-8 of Appendix 1 and the 3,762 page certified Record of the
environmental review process filed by the City, the Planning Board considered each of these potential environmental
impacts of synthetic turf in great detail. It received, reviewed, and discussed for hours thousands of pages of scientific
literature, opinions and literature reviews from various consultants, and community feedback on these topics over
the course of a months-long environmental review. It asked questions of Cornell about these issues at every meeting
at which the Project was discussed, and specifically requested and received information from Dr. Frank Rossi, a turf
grass expert independent from the project. Notably, although Dr. Rossi encourages the use of natural turf generally, he
opined that synthetic turf was appropriate for the project, and that the design and product selection specifications were
sufficient to limit any resulting environmental impacts.
The Planning Board entertained a detailed and vigorous debate over the project’s alleged environmental impacts. The
Project was reviewed by the City of Ithaca Planning Board on no fewer than eight occasions: four full Planning Board
meetings, and four Project Review Committee meetings. The Board received over four hundred pages of submissions
from Cornell, heard nearly two hours of public comment and received over six hundred pages of written public
comments, and in addition to the time they spent reviewing the material outside of meetings discussed the issues for
two and a half hours. After this extensive review, the Planning Board unanimously determined that the project would not
have a significant impact on the environment and issued a negative declaration of environmental significance.
SEQRA does not state that no building project can move forward unless the applicant can show that it will have
no impact whatsoever on the environment. Rather, SEQRA’s purpose is to ensure that “[s]ocial, economic, and
environmental factors shall be considered together in reaching decisions on proposed activities.” N.Y. ENVTL.
CONSERV. LAW §8-103(7). “SEQRA seeks to strike a balance between social and economic goals and concerns
about the environment … by requiring an agency to engage in a systematic balancing analysis.” WEOK Broad. Corp.
v. Planning Bd. of Town of Lloyd, 79 N.Y.2d 373, 380-81 (1992) (internal citation and quotations omitted)). “It is not
the intention of SEQR that environmental factors be the sole consideration in decision-making.” 6 NYCRR §617.1(d).
(Appendix 1, p.17.)
Petitioner’s argument is largely built on its repeated refrain that the Project is presumed to have a significant impact
on the environment simply because it is a Type I project. While Type I projects are “likely to have a significant adverse
impact” and are “more likely to require the preparation of an EIS than Unlisted actions,” 6 NYCRR §§617.4(a) and (a)
(1), the lead agency is still charged with assessing potential environmental impacts and determining whether an EIS
is required. “A type I action does not, per se, necessitate the filing of an EIS.” Vill. of Ballston Spa v. City of Saratoga
Springs, 163 A.D.3d 1220, 1223 (3d Dep’t 2018) (affirming dismissal of petition challenging negative declaration
for Type I project). Courts have repeatedly dismissed petitions alleging that a Type I project improperly received a
negative declaration. See, e.g., id.; Briuner v. Town of Schodack Planning Bd., 178 A.D.3d 1181, 1183-84 (3d Dep’t
2019) (affirming dismissal of petition challenging negative declaration for Type I project). The sole issue is whether the
ARTICLE 78 LAWSUIT
Planning Board took the required hard look and issued a reasoned explanation, and it did. (Appendix 1, p.17.)
Importantly, “[a]n agency complying with SEQRA need not investigate every conceivable environmental problem; it
may, within reasonable limits, use its discretion in selecting which ones are relevant.” Save the Pine Bush, Inc., 13
N.Y.3d at 307 (reversing the Appellate Division and dismissing petition). “While it is essential that public agencies
comply with their duties under SEQRA, some common sense in determining the extent of those duties is essential
too.” Id. at 308. And in challenging a lead agency’s determination, a petitioner must come forward with particularized
complaints: basing a determination on “generalized, speculative comments and opinions of local residents and other
agencies, would authorize agencies … to exercise unbridled discretion in making their determinations and would
not fulfill SEQRA’s mandate that a balance be struck between social and economic goals and concerns about the
environment.” WEOK Broad. Corp., 79 N.Y.2d at 384-85 (reversing and dismissing petition).
The potential presence of PFAS in synthetic turf animated a large amount of public comment, written submissions, and
discussion by the Planning Board. Petitioner submitted a number of links to documents that it purported would support
its claim that the presence of PFAS in the proposed synthetic turf field would lead to environmental concerns, primarily
based on studies that have been done of synthetic turf installations at different locations using turf manufactured by
different companies. However, Cornell also submitted expert information from its consultants rebutting these claims,
and the Planning Board decided which authority was more compelling. (Appendix 1, p.20.)
Importantly, the issue of PFAS is a red herring. Cornell voluntarily modified its project proposal to comply with a New
York State law prohibiting the sale of any carpet (including synthetic turf) containing or treated with PFAS substances,
even though that provision of the law does not take effect until December 31, 2026. (N.Y. ENVTL. CONSERV. LAW §27-
3313). Zero Waste Ithaca claimed that Cornell cannot comply with that law, but supported that argument with nothing
but unsubstantiated speculation. The Planning Board was entitled to defer to and rely on a project sponsor’s compliance
with applicable law, and reasonably did so.
Similarly, individuals submitted information that they claimed raised questions about environmental impacts of
microplastic shedding from synthetic turf. Cornell submitted extensive documentation from scientific studies and
consultant analyses addressing the topic of microplastics. Indeed, Dr. Rossi’s analysis—which the Planning Board
specifically requested—indicated that the stormwater management facilities included in the Project were fully
consistent with a recent European study on synthetic turf microplastics. In addition, the Planning Board reasonably
relied on Cornell’s required compliance with a NYSDEC-approved Storm Water Pollution Prevention Plan. (Appendix 1,
p.21.)
9
Several studies have assessed potential health risks resulting from inhalation
exposures to chemicals contained in synthetic turf fields… The air samples were
analyzed for VOCs, SVOCs, and airborne particulate matter. The studies concluded
that inhalation exposures resulting from playing on synthetic turf fields were
insignificant, and not different from inhalation exposures on natural turf fields. The
Connecticut study … authors concluded that, based on their findings, exposure
levels for indoor synthetic turf fields represented only a marginal health risk, but
ventilation of indoor fields was recommended. Several earlier European studies
had similar findings. An Italian study found that inhalation exposures resulting from
playing on synthetic turf are negligible, and that exposures associated with motor
vehicle emissions in the areas near the fields during the same time period were
about ten times higher. Two studies that measured a metabolite of PAHs in the
urine of soccer players after playing on synthetic turf found no measurable uptake
of PAHs resulted from playing on the field.
A 2024 study by the US Environmental Protection Agency found that people using synthetic turf fields are not exposed
to the chemicals contained in them. The Planning Board thus had voluminous, independent evidence in front of it to
support its conclusions on these topics. (Appendix 1, pp.21-22.)
10
SYNTHETIC TURF DETAILS
Planning board members noted during the meeting on January 7 that it would be helpful to hear again if synthetic turf
is necessary for Cornell’s field hockey team and to know which manufacturer(s) and products have been chosen for this
project, along with a list of the product components.
Out of the 82 Division I field hockey teams that competed in the 2024 season, all 82 of them play on synthetic turf. In
accordance with regulations established by the International Field Hockey (FIH) organization, synthetic turf is needed for
NCAA Division I field hockey practices and regular season games, as well as for hosting Ivy League and NCAA Post-
Season competitions. For more information, see highlighted text on pages 6 and 12 in Appendix 2 and highlighted text
on pages 3-7, 11, and 13-14 in Appendix 3.
This proposed turf will not have any infill of any kind. The proposed turf will conform to NYS Department of
Environmental Conservation (DEC) and US Environmental Protection Agency (EPA) established regulations and
will comply with the requirements of the New York State Carpet Collection Program Law Article 27, Title 33 of the
Environmental Conservation Law that requires all carpets – including turf carpets – to be recycled. Additionally, Cornell
proposes to comply (in advance) with the addition to this law which goes into effect in 2026: Section 27-3313.[2]
which states that “no carpet sold or offered for sale in the state shall contain or be treated with PFAS substances for any
purpose”.
The project team has taken all currently available measures for reducing environmental impacts by choosing a
manufacturer that produces PFAS-free synthetic turf and incorporates recycled content into their products. The
manufacturer is TenCate, a company that removed intentionally-added-PFAS from their manufacturing process in
October 2023. TenCate sends out materials for third-party testing to ensure suppliers and products remain PFAS-free.
Cornell is committed to having the product 3rd party tested prior to leaving the manufacturer (pre-shipment) as well.
The turf product chosen is the GreenFields TX Pro Plus. A section of the turf profile is included below. This non-infilled
synthetic turf is comprised of TenCate’s U.V.-resistant polyethylene monofilament fibers looped through a woven
backing cloth that provides strength and dimensional stability. For the shock pad, GreenFields’ EcoCept base layer
was chosen. This product, which is designed to aid in field safety and performance, is comprised of recycled plastics,
recycled rubber, and a binder material.
Per the FIH (International Hockey Federation) Quality Programme for Hockey Turf, an FIH Certified Field is independently
tested by an FIH accredited Test Institute “To ensure that field hockey fields are being built to the highest standard and
that FIH Approved Products are being installed correctly”. Tests include measurements of how the ball interacts with the
playing surface; verifies adequate comfort, well-being, and performance for the players; and ensures that the field has
been built to the dimensions, line marking, slope and surface drainage requirements. Field Certification also includes
a comprehensive series of quality control checks to ensure the installed Hockey Turf product is the same as the FIH
Approved Product; ensuring manufacturing and installation mistakes do not go undetected.
11
The Field Hockey Field proposed to be installed at Cornell shall meet FIH Global Turf Category 2 and be required to
meet the following criteria:
Figure: Synthetic Turf Profile Section
GreenFields TX Pro Plus
TECHNICAL DATA
COLOR
Type Non-fill synthetic grass carpet,
3/16” gauge tufted, straight stitch pattern
Pile Content 100% polyethylene monofilament, U.V.- resistant,
Diamond shape, 7,200/10 dTex, LSR texturized, 150 microns
Primary Backing 7.5 oz/yd2; TenCate K29 Backing
Double Layer Thiobac, black, U.V. stabilized
Layer 1: 100% PP / Layer 2: PET/PP blend
Secondary Backing 20 oz/yd2; Polyurethane coating with drainage holes
Pile Height 1/2 inch +/-10%
Stitch Rate per lm (length) 360 +/-10%
Pile Weight 56 oz/yd2 +/-10%
Roll Width According to seaming Roll Length According to seaming
Standard dark green; optional colors field/olive duotine, clay red, reflex blue, white and yellow for line markings.
ve
r
s
i
o
n
1
.
1
1
1
/
1
0
/
2
0
2
3
(855)-773-6668 | INFO@GREENFIELDSUSA.COM | WWW.GREENFIELDSUSA.COM
All data shown are typical values based on tests believed to be reliable by TenCate. All technical data provided herein are subject to change without prior noti-
fication. TenCate assumes no obligation or liability for the information in this document. No express warranties are given exceptfor any applicable written war-
ranties specifically provided by TenCate. All implied warranties including those of merchantability and fitness for a particular purpose are expressly excluded.
MOSTFIFACERTIFIED FIELDSWORLDWIDE
FIFA
INTERNATIONAL
HOCKER FEDERATION
WORLD RUGBY
PREFERRED SUPPLIER FOR
FIELDS INSTALLED WORLDWIDE
O VER3500
12
RECYCLING PLAN
During the January 7 meeting, Town Planning Board members stated that they wanted to know the recycling plan for this
artificial turf at the end of its usefulness for field hockey play.
New York State has enacted a Carpet Collection Program (NY Environmental Conservation Law Title 33, Article 27).
The law includes synthetic turf in the definition of carpet (Environmental Conservation Law §27-3301(2)). Under the
law, no later than 12/31/2025, every producer of carpet that is sold or distributed in the state must submit a plan for
NYSDEC approval to establish a satisfactory carpet collection program. §27-3303(1). A compliant plan must provide for
a program, convenient and at no cost to consumers, to collect carpet for recycling or reuse, with at least one collection
site located in every municipality with at least 10,000 residents. §27-3303(4)(d). The law contains numerous additional
details about plan requirements, including the percentage of carpets that are actually recycled over time and certain
targets specifically for closed-loop recycling. §27.3303(4)(e)-(k). It is NYS law that recycling activities for carpet,
including synthetic turf, increase.
Cornell is fully committed to recycling the turf at the end of its useful life (typically 10 to 12 years). Possible facilities
that are being considered for recycling the turf that are in operation at this time are: Turf Recyclers (Rockland, MA,
opening May 2025), re[TURN] Reclamation Program (Dalton, GA). It is expected that, as a result of the NYS law, more
recycling facilities will be available by the time the turf reaches the end of its useful life. Cornell will investigate and
select the most environmentally responsible option available at that time.
MICROPLASTICS
Several planning board members mentioned that it would be helpful to know the size and quantity of particles that are
likely to be shed from the synthetic turf field and to understand how these particles will be captured.
All water falling on the synthetic turf field hockey field will infiltrate through the layers of the field system – first through
the turf and shock pad, then through the porous asphalt and drainage stone, down to a panel drain. Once in the panel
drain, runoff will be routed through a proprietary stormwater filter practice. The filter practice uses a series of high
surface area membrane filter cartridges capable of capturing physical particulates of 0.025 millimeter (25 micrometer
(µm)).
The United States Environmental Protection Agency defines microplastics as plastic particles smaller in size than 5
millimeters (mm). With the size classification of five millimeters or less, microplastics can vary greatly in size, with
larger microplastics above 1 mm visible to the naked eye, and smaller microplastics requiring the use of a microscope
to view. Review of analytical methods for detecting microplastics indicates that most methods (other than the naked
eye) can reliably detect microplastic particles as small as 20 to 50 micrometers (µm)10.
Therefore, the proposed stormwater system will capture microplastics to a size that is consistent with what is
measurable, which will therefore remove detectable microplastics from storm water runoff from the field.
We could not identify information concerning how much the turf blades from the selected turf product may shed during
the use of the field. However, two recent studies provide some insight into the potential for microplastics to be released
from synthetic turf fields.
One study was conducted in Spain which looked at the contribution of turf fibers to water in a river and water in the
ocean near Barcelona11. Water samples were collected in a river and the sea surface and were evaluated for the presence
of plastics. Synthetic turf fibers were identified in 50% of the water samples that were collected and represented 0.3%
of the microplastics identified in river water samples and 1.2% of the microplastics identified in sea surface water
samples. This study has been cited by others as demonstrating that synthetic turf accounted for 15% of the plastics
found in the water samples. The value of 15% is the amount of synthetic turf-related microplastics found in some of the
417 water samples that were collected. The data provided in this study show that microplastics shed from the synthetic
turf fields would be captured by the filter practice that will be installed at the proposed field.
In another study, the release of microplastics from urban sources was modelled (i.e., no samples were collected)9.
The study concluded that synthetic turf fields are large sources of microplastics in urban environments due to the loss
of crumb rubber infill that can occur through field use. The paper noted that loss of crumb rubber from synthetic turf
fields could be eliminated through use of microplastics capture technology. Although this study evaluated rubber infill
as the source of microplastics, which is not applicable to the proposed hockey field, the study recommends use of
microplastics filters to control the potential loss of microplastics from synthetic turf fields, which is the approach that is
being implemented at the proposed field.
13
PUBLIC HEALTH RESEARCH FINDINGS
During the meeting, planning board members asked for a summary of the evidence regarding the public health impacts
of synthetic turf materials as well as a review of the quality of that evidence.
A synthetic turf field typically consists of a turf carpet (the green blades) and infill material. The proposed synthetic
turf field for field hockey will not use infill materials. Instead, it will use the turf carpet with a shock pad that is placed
beneath the carpet to provide cushioning. Studies that have evaluated the possibility that chemicals contained in
synthetic turf may cause potential health concerns, have evaluated fields that are made using crumb rubber infill.
Regulatory agencies have concluded that there is a negligible health concern related to crumb rubber infill. Therefore,
since the hockey field will not use crumb rubber infill (or other types of infill), it can also be concluded that the turf
fibers alone would not pose a health concern.
Specifically, the turf blades in the product specified for the project (Greenfields TX Pro Plus) are 100% linear low-
density polyethylene. Low density polyethylene is also used for food packaging, packaging film, squeezable bottles,
pipes/tubing, and medical/health care items.1,2 Since polyethylene is made from a polymer that is stable at high
temperatures, it is inert and is not associated with any known health effects, nor is it considered to be carcinogenic
by national and world health agencies. In other words, skin contact with the turf cannot result in exposure to the
polyethylene, and if pieces of grass blades are ingested, they cannot be digested and no exposure to polyethylene will
occur (polyethylene cannot leach out of the plastic and get be absorbed), just as no exposure to polyethylene occurs
when drinking from a bottle made from polyethylene. The conditions where exposure to polyethylene could potentially
occur would be associated with the manufacturing of polyethylene products, when polyethylene is in powder form or
when it’s heated to very high temperatures.3
The turf product specified for this project also contains additives that include heavy metal-free pigments, dulling agents,
and UV stabilizers which are encapsulated in the polymer, meaning that exposure to them does not occur and they
therefore do not pose a health concern. Historically, some older synthetic turf blades contained lead. Synthetic turf now
needs to comply with consumer product safety requirements, which means that turf blades no longer contain lead.
Some synthetic turf has been manufactured using polyvinylidene difluoride (PVDF) as a processing agent. PVDF is a
material that fits within the definition of per- and poly-fluoroalkyl substances (PFAS) as defined in the New York Carpet
Collection Program (NY Environmental Conservation Law Title 33, Section 27-3301 and 27-3315)4. That law requires
that carpets (including synthetic turf) sold in New York State after December 31, 2026, not contain PFAS. The turf
product that will be supplied for this project will comply with the law.
As mentioned above, most of the studies that have evaluated health effects related to synthetic turf have focused
on infill that is made from crumb rubber, because crumb rubber contains many chemicals. Scientific articles and
other publications that draw conclusions about the chemical composition or health effects of synthetic turf, based on
presence of crumb rubber, are not applicable to the proposed field hockey project because the hockey field will not use
any infill material. Nonetheless, the New York State Department of Health concluded that synthetic turf fields that use
crumb rubber infill pose a low concern regarding health risks5. Similarly, extensive evaluation of crumb rubber by the
United States Environmental Protection Agency (USEPA) supports a conclusion that potential exposure to crumb rubber
used as infill material poses negligible concerns to athletes who use synthetic turf fields6.
14
VOCs and Phthalates
Inquiries were made concerning the potential for synthetic turf to off-gas volatile organic compounds (VOCs) and
phthalate compounds.
The potential source of VOC emissions and phthalate compounds is related to crumb rubber infill8. Since the proposed
hockey field does not use crumb rubber infill and is made of polyethylene, which is inert, there is a very low concern
about VOC emissions and phthalate compounds at the proposed hockey field. For information, the following information
is provided concerning VOC emissions and phthalate compounds in crumb rubber.
The release of VOCs from synthetic turf has been studied by researchers and municipalities. The New York State
Department of Health (NYSDOH) developed a summary of potential health risks resulting from inhalation exposures
to chemicals contained in synthetic turf fields7. The summary, which included review of studies completed by health
agencies in New York, New York City, and Connecticut, concluded that inhalation exposures to chemicals in synthetic
turf fields were insignificant, and not different from those associated with athletic play on natural turf fields.
Testing performed by the United States Environmental Protection Agency (USEPA) evaluated the occurrence of
phthalates crumb rubber infill8. The testing performed by the USEPA, which is the most comprehensive assessment of
crumb rubber performed in the United States to date, evaluated 40 crumb rubber samples collected from synthetic turf
fields. Two phthalate compounds (dibutyl phthalate and bis(2-ethylhexyl) phthalate) were detected in testing of crumb
rubber. Phthalate compounds do not occur in polyethylene turf blades.
Heat Island
Synthetic turf does not retain heat. Since the synthetic turf field proposed for field hockey use will not contain infill, it is
anticipated that surface temperatures of the field will be lower than those typically associated with synthetic turf fields12.
While synthetic turf field surfaces do get warmer than natural turf field surfaces, air temperatures above synthetic turf
surfaces warm only marginally more than those above natural turf field surfaces, and synthetic field surfaces do not
retain heat once daytime heating is discontinued. These differences are substantially minimized on cloudy days and do
not exist on overcast days13. In that respect, synthetic turf fields are different than urban systems (aggregate buildings,
roof tops, and pavement) which are associated with contributing to Heat Island effects because those materials continue
to release heat well into the nighttime hours.
1 https://www.xometry.com/resources/materials/polyethylene/
2 https://en.wikipedia.org/wiki/Low-density_polyethylene
3 Safety Data Sheet (SDS) for polyethylene. SDS are required by the Occupational Safety and Health Administration
(OSHA) to communicate potential hazards of chemicals to downstream users of the chemicals (example at: chrome-
extension://efaidnbmnnnibpcajpcglclefindmkaj/https://korellis.com/wp-content/uploads/2016/01/POLYETHYLENE.pdf)
4 https://www.nysenate.gov/legislation/laws/ENV/A27T33
5 New York State Department of Health (NYSDOH). 2018. Information About Crumb-Rubber Infilled Synthetic Turf
Athletic Fields. September. https://www.health.ny.gov/environmental/outdoors/synthetic_turf/crumb-rubber_infilled/
fact_sheet.htm
6 United States Environmental Protection Agency (USEPA). Synthetic Turf Field Recycled Tire Crumb Rubber Research
Under the Federal Research Action Plan (Final Report, Part 1 [2019] and Part 2 [2024]) https://www.epa.gov/chemical-
research/federal-research-recycled-tire-crumb-used-playing-fields-and-playgrounds
7 New York State Department of Health (NYSDOH). 2018. Information About Crumb-Rubber Infilled Synthetic Turf
Athletic Fields. September. https://www.health.ny.gov/environmental/outdoors/synthetic_turf/crumb-rubber_infilled/
fact_sheet.htm
8 United States Environmental Protection Agency (USEPA). Synthetic Turf Field Recycled Tire Crumb Rubber Research
Under the Federal Research Action Plan (Final Report, Part 1 [2019])
9 Zhu, Zia; Matthew J. Hoffman, Chelsea M. Rochman (2024). “A City-Wide Emissions Inventory of Plastic Pollution”
Environ. Sci. Technol. 58, 3375-3385.
10 Interstate Technology Regulatory Council (ITRC). 2023. “Microplastics”. https://mp-1.itrcweb.org/.
11 Haan, William P., Rocio Quintana, Cesar Vilas, Andres Cozar, Miquel Canals, Oriol Uviedo, Anna Sanchez-Vidal. 2023.
“The Dark Side of Artificial Greening: Plastic Turfs as Widespread Pollutants of Aquatic Environments.” Environmental
Pollution. 334 (2023) 122094. https://www.sciencedirect.com/journal/environmental-pollution
12 Petrass, Lauren; Dara Twomey; Jack Harvey “Understanding how the components of a synthetic turf system contribute
to increased surface temperature” Procedia Engineering 72 (2-14) 943-948).
13 Jim, C. Y. 2017. “Intense Summer Heat Fluxes in Artificial Turf Harm People and Environment”. Landscape and Urban
Planning 157 (January): 561–76. https://doi.org/10.1016/j.landurbplan.2016.09.012.
15
FEAF ITEM CLARIFICATION
A Town Planning Board member brought up that on page 12 of the FEAF provided with the October 2024 materials
submission, item E.3.b. “Are agricultural lands consisting of highly productive soils present?” is checked “Yes” but
acreage is not provided.
Although it is true that the NRCS Web Soil Survey (WSS) map notes “highly productive soils” in this area, the
information supporting this classification has not been updated since 2003. According to USDA soil mapping, the soil
in this area is Erie Channery Silt Loam (EbB) and Chenango Gravelly Loam (CdC). While these soils do not meet the
USDA criteria for Prime Farmland they are classified as Farmland of Statewide Importance.
The project site was last in agricultural production (hay field) more than 20 years ago. Neither the project site nor
any adjacent Cornell lands in the vicinity are located within an Agricultural District or Farmland Protection Zone. The
existing project site consists of a previously developed grass soccer field and a gravel drive lane; is adjacent to two
other improved soccer fields; and is currently characterized by mowed grass, surrounded by fallow fields. The project
will disturb approximately 0.40 acres of previously undeveloped land.
16
LONG-TERM PLANS
At the December 17, 2024 Town Planning Board meeting, the Cornell team presented an overview of the past, present,
and future growth projections for the Game Farm Road site. Below is a brief history of how long-term plans for the Game
Farm Road lands have evolved.
Beginning in 2003/4, Cornell began working with the Town of Ithaca seek approvals for the development of McGovern
Fields and Fieldhouse: 4 grass soccer fields at Game Farm Road, a small support building, athletic lighting, and a
new driveway with parking. That project was completed in 2006. At that time, Cornell’s 2008 Campus Master Plan was
kicking off, and that plan expanded this new athletic use at Game Farm Road, imagining a new athletics complex hosting
8 field and facility-based sports, alongside open space and housing. In 2015, as development pressure on campus -
particularly on Alumni Fields – was increasing, a further in-depth build out and capacity analysis was completed by
Stantec on behalf of Cornell, yielding the Game Farm Road Master Plan. This plan identified environmental and physical
attributes, required infrastructure and utilities, as well as enabling projects and siting work needed. This 2015 plan
sought to determine what the maximum athletic development at Game Farm Road might be, totaling 10+ field sports
(including Field Hockey), a large indoor facility, a complete road and parking system, alongside a small residential area
and open space. These plans helped the University understand the true costs and logistics required with moving field
sports from main campus.
Both planning efforts advanced the vision for how the Game Farm Road site might evolve into an athletics complex over
time. Each plan deepened knowledge about the long-term potential of the site and, more importantly, its constraints:
natural and physical characteristics, existing and required infrastructure, and true costs of athletic facility and
infrastructure development. The Game Farm Road site is expected to grow slowly and incrementally, one sport at a time
(as has happened to date), rather than as a fully built-out development.
In 2021, Cornell launched a project to find a new home for its varsity baseball team and immediately looked to Game
Farm Road. The previous two plans envisioned baseball would relocate to this area, but the siting of the field and
facilities was updated to bring it toward the center of the development site, providing a connection via Ellis Hollow
Road. Booth Baseball field, batting facility, and team facility were completed in 2023.
In 2023, a new Athletics Director at Cornell refined the vision for Game Farm Road, focusing future development on
single-use fields supporting varsity sports. In 2024, Cornell proposed another project to come to Game Farm Road:
varsity field hockey. This current field has been expected to move to Game Farm Road for approximately 10 years,
as shown in the 2015 Game Farm Road Master Plan. At this time, the team reviewed and revised projected build-out
at the site for the next 10-20 years to reflect the new athletics vision, showing a maximum development potential of
seven total fields at the entire Game Farm Road site: four grass and three turf, along with two connected roads, support
buildings and code-required parking. For comparison, today there are three grass fields and one synthetic turf field, and
there is one proposed synthetic turf field hockey field in project review.
For a site that exceeds 105+ acres, this is a low-density athletics complex that will continue to fit into its local
suburban and farm field environs.
17
BARN INFORMATION
The Town of Ithaca Code Enforcement Department requested more information regarding a structure that is on the
easternmost project parcel.
This existing building is an 854-square foot wood barn referred to as the “Casey Tract 2” barn. It is a 1950 structure
located south of the NYSEG overhead transmission lines and easement area and is more than 230 feet from the project
limit line/nearest area of project disturbance (septic field). The barn will not be impacted by the project. A project
location exhibit map that includes all three parcels that are part of the project site as well as the Casey Tract 2 barn’s
location relative to the project area is provided (see Appendix 4).
STREAM SETBACK LAW
The Town of Ithaca Code Enforcement Department also noted in their project review letter that “according to the steam
setback map of the Town of Ithaca, this parcel appears to be impacted by a 100’ stream setback that needs to be
identified on the plans submitted. The “bank full run” need to be established and then the stream setback needs to be
delineated to determine what impact this project will have on the stream setback”.
Per the Town of Ithaca law, Cascadilla Creek has a drainage area of 1,500 acres or greater and therefore requires a
minimum stream setback width of 100’, inclusive of Zones 1 and 2. Additionally, when streamside wetlands or slopes
25% or greater are present, the Zone 1 setback width must be adjusted for these physical conditions. Using publicly
available wetlands mapping and LiDAR contour data, these conditions and resulting Zones 1 and 2 boundaries are
depicted on the Stream Setback Exhibit. The source of this data and delineation of the Zone 1 and 2 setbacks were
reviewed with the Town CEO on January 17, 2025.
No part of the project falls within Zone 1. A small area (approximately 1,800 sf) of the proposed extended detention
shallow wetland falls within Zone 2. The land disturbing activity associated with the proposed stormwater wetland is
allowed within Zone 2 per Town Code. Please see the Stream Setback Exhibit included in this package for a detailed
diagram (Appendix 5).
UPDATED PHOTOMETRICS DIAGRAM
Two photometrics diagrams were provided with the October 2024 materials submission; one for the field athletic
lighting and one for the pedestrian site lighting. In their project review letter, the Town of Ithaca Code Enforcement
Department requested drawings with all the project lighting calculated on one photometric plan and the planning board
members echoed this sentiment during their meeting.
Lighting for pedestrians will include twenty-two 20’ pole-mounted fixtures. These fixtures will be dark sky compliant
with color a temperature of 3,000K. Site lighting levels have been designed for safety and security connecting primary
pedestrian paths to the facilities and parking areas.
For the athletic field lighting, four 70’ tall light poles are proposed. The fixtures will have sharp cut off features and will
be fully shielded, per Ithaca lighting code, thereby projecting light below a horizontal plane through the luminaire’s
lowest light-emitting part. Per NCAA requirements for safety, playability, and recording, they will have a color
temperature of 5,700K.
18
A diagram of the photometrics is included below. The technical photometric plan sheets are included in this
submission (see Appendix 6). Additionally, we have provided 1 full-size copy of the photometrics drawings for the town
code officials to review.
Figure: Combined Photometrics Diagram
19
ENERGY CODE CHECKLIST
In their project review letter, the Town of Ithaca Code Enforcement Department asked that the Ithaca Energy Code
checklist be submitted.
The design of the phase I buildings includes heat pumps with all components within the thermal envelope of the
building. Cornell will allocate 4,800 kWh of its renewable energy portfolio annually to be in compliance with IECS for
the press box building. For the restroom/team room building, Cornell will allocate 18,996 kWh of its renewable energy
portfolio annually.
The project will comply with the Ithaca Energy Code Supplement (IECS). As there are two buildings planned for Phase
I of this project, there are two checklists and respective memos provided with this submission – one for the restroom
building (Appendix 7) and one for the press box building (Appendix 8).
A checklist for the Phase II building has not been provided since it has yet to be designed. The phase II building will
also comply with the Ithaca Energy Code supplement.
21
Appendices
23
Appendix 1:
Memorandum of Law in Opposition to Verified Position
25
STATE OF NEW YORK
SUPREME COURT : COUNTY OF TOMPKINS
_________________________________________
ZERO WASTE ITHACA,
Petitioner, Index No. EF2024-0816
v. Justice Mark G. Masler
ITHACA CITY PLANNING & DEVELOPMENT
BOARD AND CORNELL UNIVERSITY,
Respondents.
__________________________________________
MEMORANDUM OF LAW IN OPPOSITION TO
VERIFIED PETITION
JARED M. PITTMAN, ESQ.
ADAM G. PENCE, ESQ.
Attorneys for Respondent Cornell University
Office and Post Office Address
Cornell University
Sage House
118 Sage Place
Ithaca, New York 14850
(607) 255-5124
CI2025-01699 Index # : EF2024-0816
FILED: TOMPKINS COUNTY CLERK 01/17/2025 02:16 PM INDEX NO. EF2024-0816
NYSCEF DOC. NO. 43 RECEIVED NYSCEF: 01/17/2025
1 of 30
26
TABLE OF CONTENTS
PRELIMINARY STATEMENT .......................................................................................................1
STATEMENT OF FACTS ...............................................................................................................2
I. Cornell’s Application ...........................................................................................................2
II. Extensive Planning Board Review Focuses on Specific Environmental Concerns .............3
A. Cornell Submits Information Responding to Environmental Concerns .......................4
B. Planning Board Receives Independent Expert Analysis ..............................................6
III. The Negative Declaration ....................................................................................................6
IV. The Planning Board Issues Preliminary and Final Site Plan Approval ...............................8
ARGUMENT ...................................................................................................................................9
I. Petitioner Lacks Standing and Capacity to Bring this Proceeding ......................................9
A. Petitioner Lacks Standing Because Its Members Have
Suffered No Injury Differentiated from the General Public .........................................9
B. Petitioner’s Status as an Unincorporated Association With Limited
Capacity To File Suit Should Not Be Excused, Particularly in
Light of Its Attempt To Seek Injunctive Relief ..........................................................14
II. The City Planning Board Took the Required “Hard Look”
at Potential Environmental Impacts ...................................................................................16
A. Standard of Review ......................................................................................................16
B. The Planning Board Took a Hard Look and
Issued a Reasoned Determination ................................................................................17
C. The Negative Declaration Was Not Conditional ..........................................................22
CONCLUSION ..............................................................................................................................24
CI2025-01699 Index #: EF2024-0816
FILED: TOMPKINS COUNTY CLERK 01/17/2025 02:16 PM INDEX NO. EF2024-0816
NYSCEF DOC. NO. 43 RECEIVED NYSCEF: 01/17/2025
2 of 30
27
TABLE OF AUTHORITIES
Cases Pages
Bonded Concrete, Inc. v. Town of Saugerties,
42 A.D.3d 852 (3d Dep’t 2007) ...............................................................................................15
Briuner v. Town of Schodack Planning Bd.,
178 A.D.3d 1181 (3d Dep’t 2019) ...........................................................................................17
Cathedral Church of St. John the Divine v. Dorm. Auth. of State of N.Y.,
224 A.D.2d 95 (3d Dep’t 1996) ...............................................................................................22
Citizens Emerg. Comm. to Pres. Preservation v. Tierney,
70 A.D.3d 576 (1st Dept 2010) ................................................................................................12
Clean Air Action Network of Glens Falls, Inc. v. Town of Moreau Planning Bd.,
79 Misc 3d 1219(A) (Sup. Ct. Saratoga Cnty. 2023).........................................................19, 20
Clean Water Advocates of New York, Inc. v. New York State Dep’t of Envtl. Conserv.,
103 A.D.3d 1006 (3d Dep’t 2013) .......................................................................................9, 13
Cmty. Bd. 7 of Borough of Manhattan v. Schaffer,
84 N.Y.2d 148 (1994) ..............................................................................................................14
Elizabeth Street Garden, Inc. v. City of New York,
42 N.Y.3d 992 (2024) ..............................................................................................................16
Ellsworth v. Town of Malta,
16 A.D.3d 948 (3d Dep’t 2005) ...............................................................................................19
Finger Lakes Zero Waste Coal., Inc. v. Martens,
95 A.D.3d 1420 (3d Dep’t 2012) ...............................................................................................9
Friends of the Shawnagunks v. Town of Gardiner Planning Bd.,
224 A.D.3d 961 (3d Dep’t 2024) .............................................................................................12
Gallahan v. Planning Bd. of City of Ithaca,
307 A.D.2d 684 (3d Dep’t 2003) .............................................................................................13
Gladstone v. Zoning Bd. of Appeals of Inc. Vil. of Southampton,
13 A.D.3d 445 (2d Dep’t 2004) ...............................................................................................18
Heritage Coal., Inc. v. City of Ithaca Planning and Dev. Bd.,
228 A.D.2d 862 (3d Dep’t 1996) .............................................................................................13
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Hohman v. Town of Poestenkill,
179 A.D.3d 1172 (3d Dep’t 2020) .....................................................................................10, 13
Martin v. Curran,
303 N.Y. 276 (1951) ................................................................................................................14
Matter of Pelham Council of Governing Bds. v. City of Mount Vernon Indus. Dev. Agency,
187 Misc.2d 444 (Sup. Ct. Westchester Cnty. 2001) ...............................................................14
Merson v. McNally,
90 N.Y.2d 742 (1997) ........................................................................................................22, 23
New York City Coal. for the Preserv. of Gardens v. Giuliani,
246 A.D.2d 399 (1st Dep’t 1998) ........................................................................................9, 12
Niagara Preserv. Coal., Inc. v. New York Power Auth.,
121 A.D.3d 1507 (4th Dep’t 2014) ..........................................................................................12
Powers v. de Groodt,
43 A.D.3d 509 (3d Dep’t 2007) .................................................................................................9
Rourke Devs. Inc. v. Cottrell-Hajeck Inc.,
285 A.D.2d 805 (3d Dep’t 2001) .............................................................................................15
Save Our Main St. Bldgs. v. Greene County Legis.,
293 A.D.2d 907 (3d Dep’t 2002) ...........................................................................10, 11, 12, 13
Save the Pine Bush, Inc. v. Common Council of City of Albany,
13 N.Y.3d 297 (2009) ..................................................................................................10, 12, 18
Save the Pine Bush, Inc. v. Town of Guilderland,
205 A.D.3d 1120 (3d Dep’t 2022) ...............................................................................16, 18, 20
Soc’y of Plastics Indus., Inc. v. County of Suffolk,
77 N.Y.2d 761 (1991) ..........................................................................................................9, 10
Sunrise Plaza Assocs. v. Int’l Equities Corp.,
212 A.D.2d 690 (2d Dep’t 1995) .............................................................................................15
Toll Land Ltd. P’ship v. Planning Bd. of Vill. of Tarrytown,
12 N.Y.S.3d 874 (Sup. Ct. Westchester Cnty. 2015) ...............................................................15
Town of Mamakating v. Vill. Of Bloomingburg,
174 A.D.3d 1175 (3d Dep’t 2019) ...........................................................................................19
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Van Dyk v. Town of Greenfield Planning Bd.,
190 A.D.3d 1048 (3d Dep’t 2021) ...........................................................................................21
Vill. of Ballston Spa v. City of Saratoga Springs,
163 A.D.3d 1220 (3d Dep’t 2018) ...........................................................................................17
W. Beekmantown Neigh. Ass’n, Inc. v. Zoning Bd. of Appeals of Town of Beekmantown,
53 A.D.3d 954 (3d Dep’t 2008) ...............................................................................................23
WEOK Broad. Corp. v. Planning Bd. of Town of Lloyd,
79 N.Y.2d 373 (1992) ........................................................................................................17, 18
Statutes Pages
CPLR Rule 6312(b) .......................................................................................................................15
6 NYCRR §§617.4(a) and (a)(1) ...................................................................................................17
6 NYCRR §617.1(d) ......................................................................................................................17
6 NYCRR §617.7(d) ......................................................................................................................22
N.Y. Envtl. Conserv. Law §8-103(7) .............................................................................................17
N.Y. Envtl. Conserv. Law §27-3313(2) .........................................................................................20
N.Y. Gen. Ass’ns Law §12 ............................................................................................................14
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PRELIMINARY STATEMENT
At numerous public meetings held over the course of eight months, the City of Ithaca
Planning and Development Board (“Planning Board”) conducted environmental quality and site
plan review of Cornell University’s proposed Meinig Fieldhouse project (“Project”) in full
compliance with State and City law. The Project—located on Cornell’s central campus and
composed of an indoor athletic field, as well as a general purpose outdoor athletic field, both
synthetic turf playing surfaces—is located on previously existing athletic fields, including a
synthetic turf field hockey field, reserved for the use of Cornell’s Department of Athletics and
Physical Education.
The Planning Board entertained a vigorous debate over the Project’s environmental
impacts. The Record in this case is over 3,500 pages. The Planning Board heard nearly two hours
of public comment, received over six hundred pages of written comments, and discussed the issues
for two and a half hours at meetings (in addition to the time they spent reviewing the material in
advance of meetings). They also considered comments from the Town of Ithaca Planning Board.
After extensive review, the Planning Board unanimously determined that the project would not
have a significant impact on the environment and issued a negative declaration of environmental
significance.
As an initial matter, Petitioner lacks standing to bring this proceeding. New York courts
have held consistently that a petitioner must allege an actual injury sufficiently distinct from that
of the general public in order to challenge a State Environmental Quality Review Act (“SEQRA”)
determination. Petitioner’s only alleged injury is that two of its “members” work in office locations
near the project site and enjoy a connection to “nature” provided by viewing athletic fields when
they occasionally take breaks in the area. This is plainly insufficient and fatal to Petitioner’s case.
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On the merits, Petitioner vociferously disagrees with the Planning Board’s determination
that the Project would not have a significant environmental impact. However, weighing the
information submitted, determining which issues require analysis, taking a hard look, and
providing a reasoned explanation is the province of the Planning Board alone—and it did exactly
that. The negative declaration was not arbitrary and capricious, and the Petition should be
dismissed with prejudice.
STATEMENT OF FACTS
I. Cornell’s Application
In December 2023, Cornell first proposed the Project to greatly expand access for
recreation, physical education, club team, and intercollegiate athletic activities throughout the year
to nearly 5,000 students per year. (Record (“R”) 0047-0162; R3487.) The fieldhouse would contain
an indoor, synthetic turf field, with an adjacent outdoor synthetic turf field, to be “manufactured
without PFAS.” (R0049, R0051, R0095.) The entire proposed Project site was previously
developed as an outdoor sports complex with natural grass and synthetic turf fields, and spectator
viewing areas surrounded by a black chain link fence and a parking lot. (R0003, R0012.) Further,
the area was for authorized athletics use only, with signage by the secured entrance stating:
“ATHLETIC DEPARTMENT USE ONLY – NO UNAUTHORIZED ACTIVITIES
PERMITTED”. (Affirmation of Asa J. Schindler, ¶¶4-6 & Ex.A.) This portion of central campus
is highly developed: the site is “bounded by Tower Road on the north, Weill Hall on the west,
Bartels Hall and parking lot to the south, and the Robert J. Kane Sports Complex Field on the
east.” (R0003.) There are natural green spaces nearby, “including Cornell Botanic Gardens, Minns
Garden, Rockwell Azalea Garden, Libe Sope, and other green spaces on campus” including the
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Arts Quad and Ag Quad. (R0003; R0060-0061.) The Project was a Type I action for SEQRA1
purposes, and Cornell included a Full Environmental Assessment Form (“FEAF”) with its initial
application in December 2023. (R0027-0039.) The Planning Board served as lead agency for
SEQRA review. (R3121.)
In early 2024, Cornell revised the Project proposal to include a general purpose, synthetic
turf athletic field that would allow for use by a greater number of Cornell community members,
rather than a new field hockey field. (R0184-0185.) The synthetic turf proposed was based on
independent, international standards for such surfaces. (R0193-0194.) The use of synthetic turf is
mandatory for the indoor field in the fieldhouse, and the decision to propose synthetic turf for the
outdoor field was informed by the local climate, recreational and athletics use needs, and the
simple fact that grass in Ithaca has little potential for growth from November to April—most of
the academic year. (R0194-0195.)
II. Extensive Planning Board Review Focuses on Specific Environmental Concerns
The Planning Board reviewed the Project on eight occasions: four full Planning Board
meetings (R00043-0679), and four Project Review Committee meetings (R1533-1632). At these
meetings, the Project consumed nearly 20% of the Planning Board’s total time. The Planning
Board held a 47-minute public hearing on June 25, 2024 (R0834), and heard additional public
comment at other meetings. The Board’s review largely focused on the use of synthetic turf.
Indeed, on January 23, 2024—the first time that the project was discussed by the Planning Board
at a full meeting—the members asked Cornell to provide more information about synthetic turf
(R0718-0719), and followed this up with additional questions and discussion at every meeting
thereafter. (See, e.g., R0833-0835; R0842-0843.)
1. For this proceeding’s purposes, there are no substantive differences between SEQRA and the City of Ithaca
Environmental Quality Review Ordinance. Accordingly, this brief simply refers to SEQRA.
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A. Cornell Submits Information Responding to Environmental Concerns
In April 2024, Cornell submitted a memorandum from engineering and geology firm Haley
Aldrich discussing issues raised by the community and Planning Board regarding synthetic turf.
(R.0205-0216.) As detailed there:
• There are no federal or state laws that prohibit the installation or use of synthetic
turf. (R0206.)
• “Over 100 scientific, peer-reviewed, published studies have been performed
worldwide evaluating the potential health risks associated with turf fields that use
crumb rubber. We are not aware of any peer-reviewed scientific studies which draw
an association between adverse health effects and use of crumb rubber. Similarly,
the New York State Department of Health concluded that synthetic turf fields that
use crumb rubber infill pose a low concern regarding health risks.” (R0208.) After
additional pages discussing research on this topic, the memo concluded that “the
chemicals that are in crumb rubber infill are unlikely to come out of the materials
at concentrations that would harm people or the environment.” (R0211.)
• The scientific literature also indicated that synthetic turf is not a significant source
of PFAS in the environment. Indeed, although PFAS is “present in the environment
(soil, surface water, groundwater, air, and even rainwater) as a background
condition” (R0213), the literature indicated that “fewer PFAS compounds were
detected in synthetic turf, and at lower concentrations, than those that are present
as a background condition in soil.” (R0214.)
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• Testing of synthetic turf indicated that “[m]ost SVOCs [semi-volatile organic
compounds] were not detected, and those that were detected were below standards
and screening levels.” (R0212.)
Cornell also submitted additional information responding to concerns raised by the public.
(R0217-R0223.) For instance, “[e]missions of VOCs (volatile organic compounds) from synthetic
turf into the atmosphere were generally not detectable at 77F, and only increased slightly at 140F.”
(R0218.) With respect to PFAS, the consultants clarified that “PFAS is not a chemical that is
added to synthetic turf components.” (R0219.) The Planning Board also considered numerous
other scientific studies that had analyzed potential health concerns related to synthetic turf, and
found those concerns unfounded, including an April 2024 report from the United States
Environmental Protection Agency (R1648-2826), addressing inter alia VOC emissions from
synthetic turf fields, and a 2018 study by the New York State Department of Health on a variety
of alleged synthetic turf impacts. (R3148-R3159.)
On May 21, 2024, the Planning Board approved the FEAF Part 2, which identified several
environmental areas on which the Project could potentially have a moderate to large impact
(R0017-0026), including stormwater discharge and construction impacts. This guided the Planning
Board’s further environmental review.
At various times throughout the environmental review process, certain individuals
submitted a lengthy, self-proclaimed “bibliography” to the Planning Board, purportedly supporting
their claims of significant environmental impacts. (R0899-0948.) In addition to the other
information it had provided, Cornell submitted specific responses to portions of the
“bibliography,” noting that those studies were irrelevant to the proposed Project, did not support
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the assertions made by the submitters, or were contradicted by other research identified for the
Planning Board. (R0637-0644.)
B. Planning Board Receives Independent Expert Analysis
The Planning Board also specifically requested independent analysis of the proposal from
Dr. Frank Rossi, a New York State Extension Turfgrass Specialist and The Richard C. Call
Director of the Agricultural Sciences Major at Cornell, regarding the various alleged impacts and
the feasibility of a non-synthetic turf installation. Dr. Rossi submitted an August 29, 2024 letter
to the Planning Board that specifically addressed several topics raised by community members,
including PFAS and microplastic shedding. (R0622-0623.) In particular, Dr. Rossi detailed that
eliminating crumb rubber infill addressed most of the PFAS concerns, and that the Project’s
proposed stormwater management practices that would filter out particles down to 0.212
millimeters were substantially similar to the types of practices recommended in recent European
research and otherwise adequate. (Id.)
III. The Negative Declaration
The culmination of this intense review was the Planning Board’s September 3, 2024
meeting. (https://www.youtube.com/live/-BwHQb6DYuI?t=12135.)2 During its presentation at
this meeting, Cornell once again addressed the various potential impacts identified by the FEAF:
• Cornell confirmed that the selected synthetic turf product would comply with New
York Environmental Conservation Law regarding PFAS in carpets.
• The university stated that the synthetic turf outdoor field would use plant-based
infill, instead of crumb rubber infill as originally proposed.
2. The Record includes links to these recordings. (R1532.) Cornell includes timestamped links for the Court’s
convenience.
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• Cornell and its consultants explained how the stormwater filtering system was
designed to restrict the migration of microplastics off the site.
After the presentation, the Planning Board spent thirty minutes asking additional questions
and discussing the issues. In its discussions and the drafting of the negative declaration, the
Planning Board thoroughly evaluated the various potential impacts from the installation of
synthetic turf, including information from the public, government agencies, and experts on PFAS,
microplastics, and human health aspects of the use of synthetic turf. (Id.) The Planning Board chair
stated, “We have the whole project team here with us. Let’s take advantage of that and ask as many
questions as we need to work through SEQRA tonight.” The Planning Board members asked
questions and explained their reasoning for finding that the project would not have a significant
adverse effect on the environment. One Board member explained that he had thought a lot about
the project, reading the materials submitted, and that his concerns had boiled down to PFAS and
crumb rubber infill, and that Cornell’s presentation had addressed his concerns.
(https://www.youtube.com/live/-BwHQb6DYuI?t=13401.)
A second Board member found the presentation and written submissions helpful, and was
pleased that the synthetic turf would comply with the upcoming New York State law regarding
PFAS, and stated that the additional information regarding the microplastic filtering provided by
the stormwater management system answered his concerns. (https://www.youtube.com/live/-
BwHQb6DYuI?t=13693.) A third Board member asked follow-up questions about heat island
effects (https://www.youtube.com/live/-BwHQb6DYuI?t=13917), which Cornell answered with
information from its previous submissions about the limited impact of synthetic turf on urban heat
islands, and also clarified that the use of plant-based infill has been shown to reduce heat impacts
from synthetic turf.
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Finally, the Board chair stated that she felt the use of synthetic turf was the best option for
the Project, and that the voluntary switch to plant-based infill addressed the concerns she had about
the use of crumb rubber infill (https://www.youtube.com/live/-BwHQb6DYuI?t=14087). Cornell’s
civil engineer answered her questions about drainage patterns and the stormwater treatment
practices on the site that would prevent migration of microplastics larger than .212 millimeters,
and that this would capture most microplastics that could otherwise migrate in stormwater. This
was confirmed by the letter from Dr. Rossi, who also endorsed the stormwater management
approach being used with reference to international studies. (R0622-0623.) The Planning Board
also asked follow-up questions throughout the discussion about whether this would also be
effective against microplastics from the synthetic turf blades, which Cornell answered.
Following that lengthy discussion, the Planning Board spent almost half an hour revising
the FEAF Part 3 and negative declaration to reflect the information and discussions from that
evening, including specifically PFAS, plant-based infill, and microplastic shedding.
(https://www.youtube.com/live/-BwHQb6DYuI?t=14612s.) The Planning Board unanimously
approved the negative declaration resolution. (R0001-0002.)
IV. The Planning Board Issues Preliminary and Final Site Plan Approval
On September 26, 2024, the Planning Board issued preliminary and final site plan approval
for the Project. (R0040-0042.) That site plan approval requires Cornell to obtain third-party testing
of the selected synthetic turf product for PFAS and submit the results. (R0041.)
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ARGUMENT
I. Petitioner Lacks Standing and Capacity to Bring this Proceeding
A. Petitioner Lacks Standing Because Its Members Have
Suffered No Injury Differentiated from the General Public
Petitioner’s failure to allege any injury different from what the general public would suffer
as a result of the Negative Declaration mandates dismissal. For organizational standing, Petitioner
foundationally must prove (among other things) that “one or more of its members would have
standing to sue. Soc’y of Plastics Indus., Inc. v. County of Suffolk, 77 N.Y.2d 761, 775 (1991).
Petitioner must “factually demonstrate a specific, actual and concrete injury,” Powers v. de Groodt,
43 A.D.3d 509, 513 (3d Dep’t 2007) (affirming dismissal of SEQRA petition for lack of standing),
suffered by its member(s) that “is distinct from harm experienced by the general public.” Finger
Lakes Zero Waste Coal., Inc. v. Martens, 95 A.D.3d 1420, 1422 (3d Dep’t 2012) (affirming
dismissal of SEQRA petition for lack of standing). “It is now settled that standing to assert a claim
based upon an impact upon a natural or cultural resource ‘require[es] a demonstration that a[n
individual’s] use of a resource is more than that of the general public.’” Clean Water Advocates of
New York, Inc. v. New York State Dep’t of Envtl. Conserv., 103 A.D.3d 1006, 1008-09 (3d Dep’t
2013) (affirming dismissal of SEQRA petition because petitioner did not allege members used
resource more than the general public) (internal citation omitted).
Additionally, a petitioner must have a legal right to use the natural resource in question to
have standing. In New York City Coal. for the Preserv. of Gardens v. Giuliani, 246 A.D.2d 399 (1st
Dep’t 1998), aff’g 670 N.Y.S.2d 654, the Court dismissed a SEQRA petition on standing even
though the petitioners had maintained community gardens on the sites pursuant to revocable
licenses for a substantial time period. “[W]here petitioners have no legal right to be present on
property, that is, where they lack license, lease or other evidence of legal claim or right to use the
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property in question, they are without standing to challenge administrative decisions affecting that
property.” 670 N.Y.S.2d at 659 (emphasis in original). Notably, proximity alone is insufficient even
if an individual owns nearby property. Hohman v. Town of Poestenkill, 179 A.D.3d 1172, 1174 (3d
Dep’t 2020) (affirming dismissal of SEQRA based on standing; immediately adjacent property
owners failed to allege unique or distinct injury); Save Our Main St. Bldgs. v. Greene County
Legis., 293 A.D.2d 907, 908 (3d Dep’t 2002) (affirming dismissal of SEQRA petition based on
standing) (“[W]hen no zoning-related issue is involved, there is no presumption of standing to
raise a SEQRA challenge based on a party’s close proximity alone.”). Standing in SEQRA cases
is not “automatic, [n]or can [it] be met by perfunctory allegations of harm. Plaintiffs must not only
allege, but if the issue is disputed must prove, that their injury is real and different from the injury
most members of the public face.” Save the Pine Bush, Inc. v. Common Council of City of Albany,
13 N.Y.3d 297, 306 (2009).
Standing requirements are “particularly meaningful in SEQRA litigation, where challenges
unrelated to environmental concerns can generate interminable delay and interference.” Soc’y of
Plastics Indus., Inc., 77 N.Y.2d at 774. Allowing “everyone to seek [SEQRA] review could work
against the welfare of the community by proliferating litigation, especially at the instance of special
interest groups, and by unduly delaying final dispositions.” Id. at 779 (internal quotations and
citation omitted) (“Citizens have an interest in efficient governmental action as well as … adequate
environmental review.”).
Petitioner submits two affirmations from “members” in an attempt to manufacture
standing; both fail to allege a specific, actual, and concrete harm or injury differentiated from that
of the general public. First, Emily Jernigan alleges that: (i) she is a full-time staff member at
Cornell; (ii) “My office is close to the proposed site for the construction;” (iii) she “sometimes
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take[s] breaks in the area”; and (iv) the installation of a synthetic turf field “will negatively impact
my mental health and sense of well-being.” (NYSCEF Doc. 10, ¶¶4-5.) Second, Amina Mohamed,
a graduate student at Cornell (NYSCEF Doc. 11, ¶4), alleges that: (i) “My office is right next to
the proposed site for the construction, and we will lose precious true green space;” (ii) she “often
take[s] breaks in the area;” and (iii) the Project will “impact my mental health and sense of well-
being” because synthetic turf “will diminish the sense of calm and connection to nature that” the
project site currently provides. (Id. ¶ 6.) These affirmations fall well short of the mark.
First, like the general rule that residential proximity is not sufficient for standing, an
individual’s place of work being located near a project site has little relevance alone. Save Our
Main Street Blds., 293 A.D.2d at 908-09 (holding petitioner’s business location two blocks from
project site was inadequate to establish standing). And, even if it were relevant, Ms. Jernigan’s
office is not “close” to the site. Her office is located in Comstock Hall, which is over 560 feet from
the nearest boundary of the proposed construction site, and is separated from the site by several
multistory buildings that block any view of the Project. (Affirmation of Leslie F. Schill, ¶4.)
Similarly, despite Ms. Mohamed’s claim that her office is “right next” to the proposed site, her
office is located in Corson Hall, approximately 265 feet from any portion of the Project site, and
similarly is blocked from a view of the Project by an existing multistory building. (Id. ¶5.) The
affiants have no property interest either in their current office locations or the use of the Project
site, which is limited to authorized athletics uses only. (Schindler Aff., ¶¶4-5.)
Second, the affiants’ choices to “take breaks in the area” either “sometimes” or “often,”
and alleged mental health effects of the Project, are insufficient for standing. They do not allege
that they ever actually used either the synthetic turf or natural grass fields that already existed;
indeed, because the use of the fields was restricted, they had no legal right to do so. Even where a
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petitioner has actually used a project site for years pursuant to a license from the owner, revocation
of that permission deprives a petitioner of standing. New York City Coal. for the Preserv. of
Gardens, 670 N.Y.S.2d at 658-59 (finding no standing despite the “extraordinary efforts made by
community members and others to establish and maintain the gardens in question”). The affiants’
alleged injuries are indistinguishable from those of any member of the Cornell community or
general public who walks on a nearby sidewalk or drives along Tower Road.
This is significant. The cases finding an individual’s regular and repeated recreational use
of a natural area sufficient for standing focused on actual use or enjoyment of unique attributes of
the actual location that exceed that of the general public. Compare Niagara Preserv. Coal., Inc. v.
New York Power Auth., 121 A.D.3d 1507, 1510 (4th Dep’t 2014) (affirming dismissal of SEQRA
petition because organization “failed to establish an injury distinct from members of the public
who use the gorge trail to access the ruins of the former hydroelectric plant”) and Citizens Emerg.
Comm. to Pres. Preservation v. Tierney, 70 A.D.3d 576, 576 (1st Dept 2010) (affirming dismissal
of Article 78 petition; “A general—or even special—interest in the subject matter is insufficient to
confer standing”) with Save the Pine Bush, Inc., 13 N.Y.3d at 306 (finding standing where
petitioners alleged they regularly “use the Pine Bush for recreation and to study and enjoy the
unique habitat found there” and their “use of [the] resource is more than that of the general public”)
and Friends of the Shawnagunks v. Town of Gardiner Planning Bd., 224 A.D.3d 961, 963 (3d Dep’t
2024) (finding that petitioner had organizational standing where two members regularly hiked in
Shawangunk Ridge Preservation District and had interest in flora and fauna “specific to the area”).
Petitioner’s affiants do not allege they ever used the Project site a single time; they only
assert that they take breaks on an infrequent basis near or around the project site, a standing
argument the Third Department has rejected. Save Our Main Street Bldgs., 293 A.D.2d at 908
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(individual lacked standing even though she “regularly conducts educational walks through [an
area] to highlight the historic and aesthetic qualities”). Petitioner fails to include allegations, let
alone factual evidence, that these two members’ use of the area around the project site “is more
than that of the general public.” Clean Water Advocates, 103 A.D.3d at 1008-09; cf. Heritage
Coal., Inc. v. City of Ithaca Planning and Dev. Bd., 228 A.D.2d 862, 864-65 (3d Dep’t 1996)
(affirming dismissal of SEQRA petition based on standing, and holding “the diminution of [an
individual’s] appreciation” of building was not sufficient injury).
Finally, despite the conclusory allegations that the installation of a synthetic turf field in
this location will affect the affiants’ mental health and diminish their “sense of calm and connection
to nature,” this is already a developed and disturbed site. In Hohman, the Third Department held
that the petitioner’s allegations of harm were speculative and conjectural where the proposed
project did not involve a “change in the use or character of the nature preserve.” 179 A.D.3d at
1174-75. Not only did Alumni Fields already contain a synthetic turf field; the remainder of the
site consisted of regularly mowed natural grass athletic fields with soccer goals and goalposts
surrounded by several multi-story buildings, a busy campus road, and a separate outdoor track and
field complex. (R0001; R0058-0061.) The affiants do not allege that they can even see the Project
site from their offices (because they cannot), and even if they could this is hardly the stuff of an
alteration to a unique scenic nature preserve, aesthetic viewshed, or other natural resource that
could support a finding of standing. Save Our Main St. Bldgs., 293 A.D.2d at 909 (affirming
dismissal of petition where individuals could not see project site from their residence or business);
Gallahan v. Planning Bd. of City of Ithaca, 307 A.D.2d 684, 685 (3d Dep’t 2003) (affirming
dismissal of SEQRA petition where individual lived 700 feet from project site, separated by
commercial buildings and roads; even though petitioner could see project site from her residence,
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the project site located on abandoned landfill was not a “scenic view”). If affiants desire a
“connection to nature” they, like everyone else, can take a short walk to the nearby Cornell Botanic
Gardens and F.R. Newman Arboretum, which provide the general public 175 acres of green space.
B. Petitioner’s Status as an Unincorporated Association With Limited Capacity To File
Suit Should Not Be Excused, Particularly in Light of Its Attempt To Seek Injunctive
Relief
Petitioner also lacks legal capacity to maintain this special proceeding. Petitioner is a
“fiscally sponsored organization” (NYSCEF Doc. 9 ¶6). Upon information and belief, and
according to Petitioner’s website, Petitioner is an informal association of individuals, not a legal
entity. Accordingly, Petitioner is an unincorporated association lacking capacity to sue in its own
name.
“A voluntary, unincorporated membership association is neither a partnership nor a
corporation. It is not an artificial person, and has no existence independent of its members.” Martin
v. Curran, 303 N.Y. 276, 280 (1951). Unincorporated associations are “voluntary congregate
entities … accorded the capacity to bring suit through their presidents or treasurers by statute.”
Cmty. Bd. 7 of Borough of Manhattan v. Schaffer, 84 N.Y.2d 148, 155 (1994) (emphasis added)
(reversing and dismissing petition due to petitioner’s lack of capacity); N.Y. GEN. ASS’NS LAW
§12. “Capacity, in contrast [to standing], concerns a litigant’s power to appear and bring its
grievance before the court.” Cmty. Bd. 7 at 155 (internal quotations and citations omitted). Where
an organization has no president or treasurer—and ZWI does not allege that it has either—“the
court must examine the organization’s structure to determine if the person who commenced the
action is an elected or de facto officer performing equivalent functions and responsibilities.”
Matter of Pelham Council of Governing Bds. v. City of Mount Vernon Indus. Dev. Agency, 187
Misc.2d 444, 447 (Sup. Ct. Westchester Cnty. 2001) (internal citations omitted). Koizumi asserts
she is Petitioner’s founder (NYSCEF Doc. 9 ¶2) but offers no details about her organizational role
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or who performs the “equivalent functions and responsibilities” of president or treasurer. And, she
is not a named petitioner.
Granted, courts can excuse an unincorporated association’s lack of capacity in the absence
of prejudice to other litigating parties. E.g., Toll Land Ltd. P’ship v. Planning Bd. of Vill. of
Tarrytown, 12 N.Y.S.3d 874, 883 (Sup. Ct. Westchester Cnty. 2015) (holding that unincorporated
association lacked capacity “to sue in its own name”, but providing time to cure due to lack of
prejudice). Here, however, Cornell is prejudiced. Once already Petitioner has moved by Order to
Show Cause for a temporary restraining order and preliminary injunction to halt construction of
the Project during this litigation. (NYSCEF Docs. 28-30.) The Court denied the motion, but
permitted Petitioner to seek injunctive relief in the future. (NYSCEF Doc. 32.) CPLR Rule 6312(b)
requires that a successful movant for a preliminary injunction post an undertaking set by the Court
to protect the enjoined party from financial damages if the enjoined party is ultimately successful
in the litigation. This undertaking is mandatory, Rourke Devs. Inc. v. Cottrell-Hajeck Inc., 285
A.D.2d 805, 805 (3d Dep’t 2001) (modifying preliminary injunction to require movant to give
undertaking), and limits the amount of damages that can be attributed to the injunction. Bonded
Concrete, Inc. v. Town of Saugerties, 42 A.D.3d 852, 854 (3d Dep’t 2007).
Upon information and belief, the sole petitioner in this proceeding is an unincorporated
association of individuals that does not appear willing or able to give an undertaking. This would
have significant prejudice to Cornell, which would conservatively incur construction escalation
costs exceeding $300,000 per month if construction were halted. See Sunrise Plaza Assocs. v. Int’l
Equities Corp., 212 A.D.2d 690, 691 (2d Dep’t 1995) (damages for erroneously granted
preliminary injunctions include increased construction costs). Accordingly, Petitioner’s lack of
capacity should not be excused, and the Petition should be dismissed.
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II. The City Planning Board Took the Required “Hard Look” at Potential
Environmental Impacts
Even if Petitioner had standing and capacity, on this record the petition is meritless. The
Planning Board received a litany of documentation, heard hours of public comments, and engaged
in hours more of deliberation (including extensive questioning of Cornell and requests for
additional information) before reaching its conclusion. The negative declaration and the
underlying record reflect the Planning Board’s careful assessment of which potential
environmental impacts to review and the information it received on those impacts and the benefits
of the Project—from (i) Cornell and its consultants; (ii) Petitioner and other community activists
generally opposed to any installation of synthetic turf; (iii) independent experts; and (iv) student-
athletes. No matter how much Petitioner disagrees with the Planning Board’s conclusion,
Petitioner cannot establish that the Planning Board acted in an arbitrary and capricious manner.
This failure requires dismissal of the Petition.
A. Standard of Review
Respectfully, this Court’s role in this proceeding is limited. The lead agency’s
determination may not be disturbed “so long as [it] identified the pertinent areas of environmental
concern, took a ‘hard look’ at them, and made a ‘reasoned elaboration’ of the basis for its
determination.” Elizabeth Street Garden, Inc. v. City of New York, 42 N.Y.3d 992, 994 (2024)
(affirming dismissal of SEQRA challenge). As the Third Department has explained, “[o]ur sole
function, in short, is to assure that the agency has satisfied SEQRA, procedurally and substantively,
and we neither can nor will evaluate data de novo, weigh the desirability of any particular action,
choose among alternatives or otherwise substitute [our] judgment for that of the agency.” Save the
Pine Bush, Inc. v. Town of Guilderland, 205 A.D.3d 1120, 1123 (3d Dep’t 2022) (affirming
dismissal of petition) (internal citations and quotations omitted, alteration in original).
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Petitioner’s argument is largely built on its repeated refrain that the Project is presumed to
have a significant impact on the environment simply because it is a Type I project. (See, e.g.,
NYSCEF Doc. 25 at 6-7). While Type I projects are “likely to have a significant adverse impact”
and are “more likely to require the preparation of an EIS than Unlisted actions,” 6 NYCRR
§§617.4(a) and (a)(1), the lead agency is still charged with assessing potential environmental
impacts and determining whether an EIS is required. “A type I action does not, per se, necessitate
the filing of an EIS.” Vill. of Ballston Spa v. City of Saratoga Springs, 163 A.D.3d 1220, 1223 (3d
Dep’t 2018) (affirming dismissal of petition challenging negative declaration for Type I project).
Courts have repeatedly dismissed petitions alleging that a Type I project improperly received a
negative declaration. See, e.g., id.; Briuner v. Town of Schodack Planning Bd., 178 A.D.3d 1181,
1183-84 (3d Dep’t 2019) (affirming dismissal of petition challenging negative declaration for Type
I project). The sole issue is whether the Planning Board took the required hard look and issued a
reasoned explanation. It did, and the Petition should be dismissed.
B. The Planning Board Took a Hard Look and Issued a Reasoned Determination
SEQRA does not state that no building project can move forward unless the applicant can
show that it will have no impact whatsoever on the environment. Rather, SEQRA’s purpose is to
ensure that “[s]ocial, economic, and environmental factors shall be considered together in reaching
decisions on proposed activities.” N.Y. ENVTL. CONSERV. LAW §8-103(7). “SEQRA seeks to strike
a balance between social and economic goals and concerns about the environment … by requiring
an agency to engage in a systematic balancing analysis.” WEOK Broad. Corp. v. Planning Bd. of
Town of Lloyd, 79 N.Y.2d 373, 380-81 (1992) (internal citation and quotations omitted)). “It is not
the intention of SEQR that environmental factors be the sole consideration in decision-making.” 6
NYCRR §617.1(d).
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Importantly, “[a]n agency complying with SEQRA need not investigate every
conceivable environmental problem; it may, within reasonable limits, use its discretion in selecting
which ones are relevant.” Save the Pine Bush, Inc., 13 N.Y.3d at 307 (reversing the Appellate
Division and dismissing petition). “While it is essential that public agencies comply with their
duties under SEQRA, some common sense in determining the extent of those duties is essential
too.” Id. at 308. A petitioner’s disagreement with a planning board’s assessment of conflicting
studies does not entitle it to relief. Save the Pine Bush, Inc., 205 A.D.3d at 1125 (“Although
petitioner continues to argue that the studies upon which the Planning Board based its findings
were incomplete and inaccurate, we cannot conclude that its decision to rely upon them was
irrational, nor may we substitute our judgment as to the accuracy of the data presented.”);
Gladstone v. Zoning Bd. of Appeals of Inc. Vil. of Southampton, 13 A.D.3d 445, 445-46 (2d Dep’t
2004) (affirming denial of petition; “The record contains conflicting expert opinions regarding the
environmental impact of the proposed project, and the Board was entitled to credit the findings of”
the experts it relied on). A petitioner must come forward with particularized complaints: an
agency’s reliance on “generalized, speculative comments and opinions of local residents and other
agencies, would authorize agencies … to exercise unbridled discretion in making their
determinations and would not fulfill SEQRA’s mandate that a balance be struck between social
and economic goals and concerns about the environment.” WEOK Broad. Corp., 79 N.Y.2d at 384-
85 (reversing and dismissing petition).
Further, the lead agency need not itemize in a negative declaration every piece of
information it relied upon, considered, or rejected;. a reviewing court can look to the information
in the record to supplement its review. “[E]ven if we agreed with petitioners that the reasoning
provided by the Village Board of Trustees was not sufficiently elaborate, the ‘record is adequate
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for us to exercise our supervisory review to determine that [it] strictly complied with SEQRA
procedures.’” Town of Mamakating v. Vill. Of Bloomingburg, 174 A.D.3d 1175, 1179 (3d Dep’t
2019) (affirming dismissal of petition, and quoting Ellsworth v. Town of Malta, 16 A.D.3d 948 (3d
Dep’t 2005)); see also Clean Air Action Network of Glens Falls, Inc. v. Town of Moreau Planning
Bd., 79 Misc 3d 1219(A) at *22 (Sup. Ct. Saratoga Cnty. 2023) (dismissing petition with prejudice)
(“Based on the Court’s review of the record, the Court finds that the Planning Board was fully
aware of the manufacturing process and the potential environmental risks associated with the
facility, but nonetheless considered those risks as insignificant based on the circumstances
presented. Accordingly, the Court finds that the Planning Board provided a reasoned elaboration
of the basis of its determination”). “[T]he Legislature has left the agencies with considerable
latitude in determining environmental impacts.” Ellsworth, 16 A.D.3d at 950.
Petitioners allege that the Planning Board failed to take a hard look at several issues
tangentially related to the installation of synthetic turf, such as PFAS (NYSCEF Doc. 25, pp.8-9),
microplastic shedding from the site (id., pp.9-10), air emissions (id., p.11), and VOCs and
phthalates (id., p.13). However, as described in substantial detail above (supra, pp.3-8), the Record
demonstrates that the Planning Board considered each of these potential environmental impacts of
synthetic turf in great detail. It received, reviewed, and discussed thousands of pages of scientific
literature, opinions and literature reviews from various consultants, and community feedback on
these topics over the course of a months-long environmental review. It asked questions of Cornell
about these issues at every meeting at which the Project was discussed, and specifically requested
and received information from Dr. Frank Rossi, a turf grass expert independent from the project.
Notably, although Dr. Rossi encourages the use of natural turf generally, he opined that synthetic
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turf was appropriate for the Project, and that the design and product selection specifications were
sufficient to limit any resulting environmental impacts.
1. PFAS
The potential presence of PFAS in synthetic turf animated a large amount of public
comment, written submissions, and discussion by the Planning Board. Petitioner submitted a
number of links to documents that it purported would support its claim that the presence of PFAS
in the proposed synthetic turf field would lead to environmental concerns, primarily based on
studies that have been done of synthetic turf installations at different locations using turf
manufactured by different companies. (R0899-0948.) However, Cornell also submitted expert
information from its consultants rebutting these claims (supra, pp.4-5), and the Planning Board
decided which authority was more compelling. Under Save the Pine Bush, Inc., 205 A.D.3d at
1123, the Court must defer to the Planning Board’s judgment about which experts it credited at the
conclusion of its review.
Furthermore, the issue of PFAS is a red herring. Cornell voluntarily modified its project
proposal to comply with a New York State law prohibiting the sale of any carpet (including
synthetic turf) containing or treated with PFAS substances, even though that law does not take
effect until December 31, 2026. N.Y. ENVTL. CONSERV. LAW §27-3313(2); see Clean Air Action
Network of Glens Falls, Inc., 79 Misc 3d 1219(A) at *22 (holding that planning board rationally
relied on project’s compliance with state regulatory requirements in issuing negative declaration).
Petitioner claims that Cornell cannot comply, but supports that argument with nothing but
unsubstantiated speculation. The Planning Board is entitled to defer to and rely on a project
sponsor’s compliance with applicable law, and reasonably did so here.
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2. Microplastic Shedding
Similarly, individuals submitted information that they claimed raised questions about
environmental impacts of microplastic shedding from synthetic turf. As detailed above (supra,
pp.4-5), Cornell submitted extensive documentation from scientific studies and consultant
analyses addressing the topic of microplastics. Indeed, Dr. Rossi’s analysis—which the Planning
Board specifically requested—indicated that the stormwater management facilities included in the
Project were fully consistent with a recent European study on synthetic turf microplastics. (R0622-
0623.) In addition, the Planning Board reasonably relied on Cornell’s required compliance with a
NYSDEC-approved Storm Water Pollution Prevention Plan. (R0006-0007.) Van Dyk v. Town of
Greenfield Planning Bd., 190 A.D.3d 1048 (3d Dep’t 2021). Petitioner’s mere disagreement with
the Planning Board’s reasoned determination is insufficient to vacate the Negative Declaration.
3. Air Emissions, VOCs, and Pthalates
Contrary to Petitioner’s claims, the Record is replete with scientific information
demonstrating that there is little to no impact for emissions and VOCs from synthetic turf fields.
(Supra, pp.3-8.) For example, in a 2018 guidance document, the New York State Department of
Health reviewed several studies from around the world, and concluded that there was no to little
risk of exposure with regard to VOCs, SVOCs, or airborne particulates:
Several studies have assessed potential health risks resulting from
inhalation exposures to chemicals contained in synthetic turf
fields… The air samples were analyzed for VOCs, SVOCs, and
airborne particulate matter. The studies concluded that inhalation
exposures resulting from playing on synthetic turf fields were
insignificant, and not different from inhalation exposures on natural
turf fields. The Connecticut study … authors concluded that, based
on their findings, exposure levels for indoor synthetic turf fields
represented only a marginal health risk, but ventilation of indoor
fields was recommended. Several earlier European studies had
similar findings. An Italian study found that inhalation exposures
resulting from playing on synthetic turf are negligible, and that
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exposures associated with motor vehicle emissions in the areas near
the fields during the same time period were about ten times higher.
Two studies that measured a metabolite of PAHs in the urine of
soccer players after playing on synthetic turf found no measurable
uptake of PAHs resulted from playing on the field.
(R3152; emphasis added.) The 2024 EPA study similarly found minimal health risks. (R1648-
2826.) The Planning Board thus had voluminous, independent evidence in front of it to support its
conclusions on these topics.
C. The Negative Declaration Was Not Conditional
Finally, Petitioner incorrectly asserts that the Planning Board’s imposition of certain
conditions on the Project in the final site plan approval resolution retroactively transformed the
negative declaration into a “conditional negative declaration.” (See, e.g., Petition, ¶ 52; NYSCEF
Doc. 25, p.15.) While Petitioner correctly cites the background principle that conditioned negative
declarations are not permitted for Type I actions (6 NYCRR §617.7(d)), it fails to cite or discuss
the relevant case law that is fatal to its argument. “[A] project, especially a large undertaking such
as a Type I action, usually undergoes modifications from its initial specifications. Modifications
made to a project during the review process should not necessarily be characterized as
impermissible ‘conditions.’” Merson v. McNally, 90 N.Y.2d 742, 755 (1997) (reversing Appellate
Division, and holding no conditional negative declaration had been issued). “Indeed, the SEQRA
regulations themselves help to show that the purpose of identifying ‘potentially large’
environmental impacts in the midst of the EAF process is to allow a developer the opportunity to
address those potential impacts in the project proposal.” Id.
A conditional negative declaration occurs only where “conditions or mitigation measures
[are] identified and required by [the lead agency] so that no significant adverse environmental
conditions would occur.” Cathedral Church of St. John the Divine v. Dorm. Auth. of State of N.Y.,
224 A.D.2d 95, 102-03 (3d Dep’t 1996) (affirming dismissal of petition). SEQRA permits project
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modifications that result from “an open and deliberative process … as part of the ‘give and take’
of the application process” and result in a reasoned determination by the lead agency that a finding
of nonsignificance is appropriate. Merson, 90 N.Y.2d at 753. Where “the modifications are
voluntarily made to mitigate public concerns, no additional environmental review is required,” if
the lead agency is satisfied that there is no potentially significant adverse impact. W. Beekmantown
Neighborhood Ass’n, Inc. v. Zoning Bd. of Appeals of Town of Beekmantown, 53 A.D.3d 954, 957
(3d Dep’t 2008) (affirming dismissal of petition).
Here, the negative declaration contains no conditions. (R0001-0002.) Cornell and the
Planning Board had extensive back-and-forth discussions throughout the months-long
environmental review process. In response to Planning Board questions and some public concern,
Cornell voluntarily modified its proposal to eliminate crumb-rubber infill on the outdoor field and
agreed to comply with the New York State law regarding PFAS in carpets, even though that law
does not take effect until December 31, 2026. These modifications—presented to the Planning
Board at the September 3, 2024 meeting—resulted in a lengthy discussion about the impact of
those changes, with the Board rationally concluding that a negative declaration was appropriate.
These voluntary commitments by Cornell, and the process leading to them, are completely
consistent with Merson and Beekmantown.
Following the conclusion of environmental review on September 3, the Planning Board
continued to address site plan approval on September 24. The Planning Board did include
conditions that Cornell must satisfy to receive a certificate of occupancy. (R0040-0042.) Imposing
such conditions is within the purview of the Board during site plan review, and the relevant changes
to the project embodied in the conditions were made voluntarily by Cornell in an open,
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deliberative, back-and-forth discussion with the Planning Board. Accordingly, the unconditional
negative declaration complied with SEQRA.
CONCLUSION
Cornell respectfully requests that the Court dismiss the Petition with prejudice and grant
such other and further relief as is just and proper.
Dated: January 17, 2025
/s/ Jared M. Pittman
JARED M. PITTMAN
ADAM G. PENCE
Attorneys for Respondent Cornell University
Office and Post Office Address
Sage House
118 Sage Place
Ithaca, New York 14850
(607) 255-5124
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202.8-b CERTIFICATION
I hereby certify that the foregoing document is 6,998 words and in compliance with
22 NYCRR 202.8-b(c).
Dated: January 17, 2025 /s/ Jared M. Pittman
JARED M. PITTMAN, ESQ.
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Appendix 2:
NCAA Site Selection Process for Division I Field Hockey
This page has been intentionally left blank.
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2026 & 2027
DIVISION I FIELD HOCKEY CHAMPIONSHIP
SPORT SPECIFIC INFORMATION
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Table of Contents
IN THE EVENT OF ANY CONFLICT OR INCONSISTENCY BETWEEN THE SPECIFICATIONS THAT FOLLOW
AND ANY SUCH SPECIFICATIONS IN THE GENERAL BID SPECIFICATIONS DOCUMENT, THE FORMER SHALL PREVAIL AND GOVERN THE MATTER.
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SECTION I: INTRODUCTION
The National Collegiate Athletic Association (“NCAA” and/or “Association”) is pleased to provide to member
institutions/conferences the opportunity to submit a proposal to host one or more NCAA championships.
The information contained in this document and the accompanying attachments provides the minimum bid
specifications for hosting any of these championships, as well as essential information that will provide
assistance in the development of a creative, comprehensive and competitive bid proposal. The NCAA awards
the privilege of hosting an NCAA championship several years in advance so those communities may work
collaboratively with the NCAA to create positive experiences for its student-athletes, participating institutions,
fans and the community.
A member institution or member conference of the NCAA must be designated as the host
institution/conference for the championship. The administration of the championship is under the authority of
the respective sports committee subject to final authority fr om the NCAA Division I Competition Oversight
Committee and Division II and Division III Championships Committees. All activities and events associated
with the championship are to be approved by the sports committee.
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SECTION II: CHAMPIONSHIP STRUCTURE
PLEASE NOTE:
Please indicate the year(s) in which you are interested in serving as host. Preference will be given to prospective hosts
that bid for two years in a row.
_____ November 20 & 22, 2026
The championship provides for a field of 18 teams. Two opening round games will occur on the Wednesday preceding
the first and second rounds at non-predetermined campus sites at the site of two of the first- and second-rounds. Four
first- and second-round games will be played at non-predetermined campus sites, with winners advancing to the
semifinals. The semifinals and final will be held Friday and Sunday preceding Thanksgiving at a pre-determined site.
Competition will be single elimination.
Additionally, if an agency is interested in hosting the Divisions I, II and III Field Hockey Championships at a common
site please use the Division I field hockey bid document to bid. A proposed schedule of events is included as Appendix
A for entities interested in hosting all divisions. With the need for two venues, the field surface must be similar at both
venues.
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SECTION III: GENERAL FACILITY REQUIREMENTS
1. The host and sponsoring agency agree that the facility shall be available for the exclusive use of the
NCAA starting at 6 a.m. Wednesday preceding the competition through the conclusion of the final
game for the purpose of preparing for, practicing for and conducting the competition. During that period
of time, the facility will be clean and accessible, and playing conditions must be safe and of
championships caliber. The sponsoring agency must agree that throughout the championship
weekend, the facility will be lighted and heated in the standard manner, and that the scoreboards and
public-address system will be in good working order.
2. The NCAA specifically disclaims any responsibility to investigate the safety or code compliance of the
facility and parking lots or the component products, equipment, materials, designs and constructions.
3. The game field shall be arranged in accordance with the International Field Hockey Rules (FIH) as
modified by the NCAA Division I Field Hockey Committee as far in advance as possible but in no event
later than the Wednesday prior to competition.
4. The facility must have a comprehensive security and evacuation plan in case of emergencies.
5. All seats in the facility shall be under the control of the NCAA for its exclusive use during the
championship. Seating capacity must be at least 1,500.
6. The facility must provide the following additional space, at its expense, with all areas subject to the
approval of the NCAA:
a. An athletic training area adequately staffed and large enough to accommodate the four
participating teams.
b. A minimum of two spacious locker rooms, with shower, toilet facilities and towels available for
teams. It is recommended that four separate locker rooms be available. Signs with the teams’
names must be affixed to each respective locker room door.
c. Locker room space for a minimum of five umpires.
d. Media workspace for 25 with appropriate lighting, heat, air conditioning and toilet facilities.
e. Interview area for 25 with dais, podium and audio equipment.
f. One area of private office space for 10 people with Internet access for use by the NCAA is
preferred.
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g. A media coordination work area containing one photocopy machine with capability of
reproducing statistics and other material on bond paper with a minimum per -copy speed of 40
per minute. The facility shall be responsible for the installation, service cost s and paper for this
machine during the championship. The machine also shall include a collator and automatic
stapler.
h. Two separate rooms for drug testing, each with a waiting area, toilet facilities and a minimum of
500-square feet of space.
i. A hospitality area for student-athletes, coaches, NCAA committee, media and workers. These
areas can be separated out as necessary.
7. The facility shall provide, at its expense, tables, chairs, skirting, pipe -and-drape and platforms for all
areas described herein as required by the NCAA.
8. The facility shall provide complimentary parking spaces for the participating teams, NCAA
representatives and umpires in prime locations.
9. The facility shall provide, at no cost to the NCAA, sufficient electric power and a sufficient number of
power outlets in broadcasting booths, in press locations and in identified working press areas for the
operation and transmission of color television a nd radio broadcasts and for the operation of computer
terminals used by the working press.
9. If broadcast rights are obtained in the future, the NCAA will work with future hosts on the details of the
requirements. For broadcast specific details please reference the General Section, Broadcast, Media
and Internet. Please complete the power verification form and attach it with your bid (available in the
bid portal).
10. The facility and host shall be responsible for the removal and/or covering of any existing signage at the
discretion of the NCAA.
11. The facility shall provide at least one main scoreboard and sound system. The facility, at its own
expense, shall provide access to any video boards, LED boards or matrix boards in the facility. In
addition, the facility, at its own expense, shall provide a full in-venue production for all NCAA event
days (e.g. game days, open practice days and other NCAA event days – example: fan/sponsor events
at the venue). This production shall include a fully staffed and operational in -venue broadcast/video
board control room on all event days including cameras and their operators. In addition, the production
shall include access and use of control room equipment and personnel prior to event days for any pre -
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production/loading needed the week of the event (e.g. editing suites, play back equipment, video
storage and editing systems).
12. A visible clock should be provided.
13. Benches for a minimum of 30 people per team should be set up on either side of the scorer’s table.
14. The NCAA owns the exclusive rights to broadcast the games on television and radio, to record the
competition and broadcasts thereof for albums and tapes, and to photograph the games by means of
still, videotape or other motion-picture cameras. The NCAA shall have the sole right and authority to
designate usage of all broadcast, telecast and press locations, tables and work areas. The venue must
meet and abide by all television guidelines as indicated in the Championships Bid Specifications
document.
The prospective host that is bidding on this championship agrees to all terms and conditions as outlined
above in this Championship Bid Specifications Agreement. We agree to comply with all the requirements
listed in this document and to administer the designated championship in accordance with the policies of
the NCAA and the applicable NCAA sports committee. Prospective hosts that agree with all the
requirements listed in this document for the designated championship shall signify agreement by selecting
“Yes” below.
YES NO NO with Exception
Prospective hosts who do not agree with all requirements in this document shall select either “No” or “No with Exception” and declare any issues and/or exceptions regarding the aforementioned terms. Please note:
any proposed revisions to the language in this document must be specified in the bidding portal to be considered.
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SECTION IV: EVENT HISTORY
The chart below contains information on previous hosts, attendance and ticket price history since the 2017-18
season.
Year Host Attendance Ticket Prices
-Session Student: $15
Single Session Adult: $15
Single Session Student: $10
2019 Wake Forest University 1,822 All-Session Adult: $25
All-Session Student: $15
Single Session Adult: $15
Single Session Student: $10
2020 University of North Carolina at Chapel
Hill
450 All-Session Adult: $25
All-Session Student/Senior: $15
Single Session Adult: $15
Single Session Student/Senior: $10
2021 University of Michigan 2,612 All-Session Adult: $25
All-Session Student: $20
Single Session Adult: $15
Single Session Student: $12
2022 University of Connecticut 3,399
All-Session Adult: $25
All-Session Child: $20
All-Session Student: $20
Single Session Adult: $15
Single Session Student: $12
2023 University of North Carolina, Chapel
Hill
2024 University of Michigan
2025 Duke University
2026 TBD
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SECTION V: LODGING
The NCAA has partnered with On Location to manage the NCAA Championship Housing Program and all
championship housing needs. On Location serves as the housing partner for hundreds of events annually
and, through strong relationships with various hotel brands, can deliver the appropriate mix of amenities,
location and price for hundreds of thousands of room nights each year. Utilizing their expertise, On Location
will be responsible for managing the selection and contracting process for all championship housing
accommodations.
Housing will be required for all participating teams, NCAA staff, committee members, media, game officials,
and other special guests as designated by the NCAA. Separate hotels are needed for the NCAA, media,
officials, and participating teams unless specified otherwise by the NCAA. It may be permissible for the media
or game officials to be assigned to the same property as the NCAA headquarters hotel. (Game officials and
teams may not stay in the same hotel.) Efforts will be made to provide some preference to the official
corporate champion/partner in the hotel category (should one exist at the time of contracting) of the NCAA.
While hotels are the primary housing offerings that will be contracted, alternative options may be considered
in certain situations.
Bids will be awarded contingent upon the successful negotiation of housing needs at reasonable rates.
Failure to secure such reasonable rates and properties may result in rescinding of the bid award.
The host institution/conference or sponsoring agency must guarantee sufficient housing is available to meet
the room block needs identified in the sport specific bid specification. Properties must meet the required
service levels and be in reasonable proximity to the event venues. Rooms should not be secured or
contracted nor should rates be discussed with specific properties, unless requested to do so by the NCAA.
Bid responses may highlight any recommended properties On Location should consider when contracting.
Specifications should also disclose any special relationships, agreements and/or financial arrangements you
may have in place with the recommended properties. On Location will take into consideration all
recommendations when selecting hotels; however, guarantees cannot be made that contracts will be secured
with these properties.
All hotels contracted must have experience with and understand the needs of large sports related groups.
For certain championship events, additional room blocks may be required for fan travel.
The NCAA or its designees shall have the exclusive right to sell products licensed by the Association for
merchandising at the selected hotels (inside and outside the premises controlled by the hotels). The hotel
will provide adequate space in its lobby for such sales.
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Contracted properties will be responsible for complying will all requirements in the contract terms as
presented in the sample contract.
Hotel Room Block:
Each team hotel should have a minimum of 25 double/double non-smoking sleeping rooms reserved. Additionally,
each team should receive an upgrade for two sleeping rooms to one-bedroom suites for the head coach and the
administrator at the team rate. Complimentary meeting space to accommodate 35 people per team must also be
granted.
The host institution is financially responsible for the game official accommodations to be reimbursed by the NCAA.
All hotels shall be in close proximity (ideally within walking distance) from the competition venue. The team
hotel(s) must be of comparable quality and distance from the competition venue.
The prospective host that is bidding on this championship agrees to all terms and conditions as outlined
above in this Championship Bid Specifications Agreement. We agree to comply with all the requirements listed in this document and to administer the designated championship in accordance with the policies of
the NCAA and the applicable NCAA sports committee. Prospective hosts that agree with all the
requirements listed in this document for the designated championship shall signify agreement by selecting “Yes” below.
YES NO NO with Exception
Prospective hosts who do not agree with all requirements in this document shall select either “No” or “No
with Exception” and declare any issues and/or exceptions regarding the aforementioned terms. Please note:
any proposed revisions to the language in this document must be specified in the bidding portal to be considered.
Number of Hotels Service Level Wed. Thurs Fri. Sat. Sun. Notes
Teams 4 Full 100 100 100 50 c/o should hold 25 d/d
Headquarters 1 Full 8 18 18 18 c/o
Total
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SECTION VI: NCAA/HOST RESPONSIBILITY
NCAA PROVIDES:
1. Transportation and per diem reimbursement for the participating teams.
2. Transportation, lodging (room and tax), per diem and game fee for all officials.
3. Transportation, lodging (room and tax) and per diem for the NCAA field hockey committee.
4. Awards for the participating teams.
5. Official souvenir program and merchandise.
6. Credentials.
7. Hydration product (e.g., water, electrolyte solution, coolers, etc.).
8. Participation award to the official traveling parties of the participating teams.
9. Volunteer apparel.
10. Promotional assistance, including NCAA signage.
11. Game and practice balls (host must provide additional 100 practice balls and ball bins).
HOST INSTITUTION/CONFERENCE AND/OR SPONSORING AGENCY PROVIDES:
1. Facilities. The mandatory playing surface for the semifinals and finals is a “non-filled” watered artificial surface
which meets Level I (global) (Global – FIH Competition) FIH performance requirements for synthetic pitches.
2. Key personnel – all workers and other volunteers.
3. Public relations/media coordination.
4. First aid/medical services/AED on-site/ambulance on-site.
5. Championships hospitality.
6. Food/beverage concessions.
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7. Public address system and announcer.
8. Support personnel – ushers, ticket takers, ticket sellers, media runners, etc.
9. Security.
10. Media room (fully equipped and with internet access).
11. Media seating/work area with constant refreshments.
12. Tickets and ticket operations.
13. All computers, printers, video equipment, telephone lines, DSL lines, etc. necessary to administer the
championships, and as may be required by the NCAA.
14. Appropriate directional signage within and outside the venue.
15. Head table personnel (e.g., public address announcer, official scorer, timer, etc.).
16. Athletic training staff.
17. Banquet venue.
18. Other items as later requested by the NCAA.
The prospective host that is bidding on this championship agrees to all terms and conditions as outlined
above in this Championship Bid Specifications Agreement. We agree to comply with all the requirements listed in this document and to administer the designated championship in accordance with the policies of
the NCAA and the applicable NCAA sports committee. Prospective hosts that agree with all the requirements listed in this document for the designated championship shall signify agreement by selecting
“Yes” below.
YES NO NO with Exception
Prospective hosts who do not agree with all requirements in this document shall select either “No” or “No
with Exception” and declare any issues and/or exceptions regarding the aforementioned terms. Please note:
any proposed revisions to the language in this document must be specified in the bidding portal to be considered.
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SECTION VII: TRANSPORTATION
There are no additional transportation requirements from the host for the Division I Field Hockey Championships
outside of the parking requirements listed in Section III.
SECTION VIII: MARKETING REQUIREMENTS
1. Marketing Plans. Upon selection, the host is required to submit a marketing plan for review and approval prior to
activation by the NCAA marketing staff. Please refer to the appropriate marketing plan template as a guide.
2. Budgets. When the proposed budget is submitted, a minimum of $4,000 should be allocated for these purposes.
The marketing budget should only include items needed for: marketing, advertising, printing costs, grassroots
opportunities and promotions.
3. Creative Process. A creative marketing assistance website is available to the host for their marketing needs. This
marketing website, NCAAChampsPromotion.com, is a comprehensive tool designed to help hosts create
marketing pieces which will generate awareness and promote tickets and or attendance for the championship.
Hosts should customize and download all necessary artwork to promote the championship. Every effort should be
made to use the online marketing templates, produce the items locally and obtain reimbursement for production
costs, up to the reimbursable allocation provided.
All artwork and reimbursement requests must be approved by the NCAA prior to proceeding with production.
Artwork requests and approvals will be managed through the website. Should you not have a local vendor, a list
of preferred NCAA vendors is available on the website.
4. Radio/TV. The NCAA will provide the following television and radio elements to assist in promoting and selling
tickets to the championship. Several formats will be provided in order to allow for use over a variety of platforms
(e.g., websites, tv commercials, videoboards). All spots will be made available for download via the online
marketing website NCAAChampsPromotion.com.
5. Support Documents. Hosts should refer to the following support documents when developing marketing plans
and budgets: NCAA Ticket Promotional Use Guidelines, NCAA Sales Commission Guidelines, and NCAA Micro -
Site Guidelines.
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The prospective host that is bidding on this championship agrees to all terms and conditions as outlined above in this Championship Bid Specifications Agreement. We agree to comply with all the requirements
listed in this document and to administer the designated championship in accordance with the policies of the NCAA and the applicable NCAA sports committee. Prospective hosts that agree with all the
requirements listed in this document for the designated championship shall signify agreement by selecting
“Yes” below.
YES NO NO with Exception
Prospective hosts who do not agree with all requirements in this document shall select either “No” or “No
with Exception” and declare any issues and/or exceptions regarding the aforementioned terms. Please note: any proposed revisions to the language in this document must be specified in the bidding portal to be
considered.
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SECTION IX: TENTATIVE SCHEDULE OF EVENTS
Wednesday
Noon NCAA staff and committee arrival
3 p.m. NCAA staff and committee facility walk-through with host staff
Thursday
8 a.m. Administrative meeting
9 a.m. – 3:45 p.m. Practices (each team gets 90 minutes)
6 p.m. Championship banquet
Friday
8 – 10:30 a.m. Practices (each team gets 30 minutes)
1 p.m. Semi-final game 1
Post-game press conference
3:45 p.m. Semi-final game 2
Post-game press conference
Evening NFHCA Senior game
Saturday
10 a.m. – 1:15 p.m. Practices (each team gets 90 minutes)
11:35 a.m. Coaches meeting
Sunday
8:30 – 9:45 a.m. Practices (each team gets 30 minutes)
1 p.m. Championship game
Awards ceremony
Post-game press conference
Schedule subject to change.
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SECTION X: ANCILLARY EVENTS
Banquet
Arrangements should be made for a banquet to be held Thursday evening for the official travel parties (28) for each of
the four participating teams. Other people who should be on the guest list include members of the NCAA Division I
Field Hockey Committee, NCAA championship administrator, additional host institution personnel (i.e. president, faculty
athletics representative and workers greatly involved in the conduct of the championship). A budget of $50 per person
is typical for this event.
Officials working the game should not be invited.
Also, if room and arrangements can be made easily, the host may consider having banquet tickets for sale to each
team for additional team personnel. Cost of the ticket should be based on the cost per plate. (Typically, the host has
between 5-10 tickets available for sale for each team, depending on space.)
The format of the banquet has called for short welcome statements by representatives of the host institution and/or
community, dinner, highlight video, guest speaker and Elite 90 awards presentation.
Coaches Association
The National Field Hockey Association (NFHCA) is involved with the various activities during the championship week,
i.e., the NFHCA Senior Game. All coaches association activities held in conjunction with the championship are
conducted at the discretion of the NCAA and are subject to NCAA approval.
The prospective host that is bidding on this championship agrees to all terms and conditions as outlined above in this Championship Bid Specifications Agreement. We agree to comply with all the requirements
listed in this document and to administer the designated championship in accordance with the policies of the NCAA and the applicable NCAA sports committee. Prospective hosts that agree with all the
requirements listed in this document for the designated championship shall signify agreement by selecting “Yes” below.
YES NO NO with Exception
Prospective hosts who do not agree with all requirements in this document shall select either “No” or “No with Exception” and declare any issues and/or exceptions regarding the aforementioned terms. Please note:
any proposed revisions to the language in this document must be specified in the bidding portal to be
considered.
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SECTION XI: VOLUNTEER NEEDS
The host will be responsible for securing volunteers/personnel for the following areas:
• Minimum of six, adult ball people per game.
• Media runners.
• Spotters.
• Merchandise sales.
• Hospitality coordinator.
• National anthem singers.
• Ticket sellers/takers/ushers.
The prospective host that is bidding on this championship agrees to all terms and conditions as outlined
above in this Championship Bid Specifications Agreement. We agree to comply with all the requirements listed in this document and to administer the designated championship in accordance with the policies of
the NCAA and the applicable NCAA sports committee. Prospective hosts that agree with all the
requirements listed in this document for the designated championship shall signify agreement by selecting “Yes” below.
YES NO NO with Exception
Prospective hosts who do not agree with all requirements in this document shall select either “No” or “No
with Exception” and declare any issues and/or exceptions regarding the aforementioned terms. Please note:
any proposed revisions to the language in this document must be specified in the bidding portal to be considered.
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SECTION XII: BUDGET HISTORY
The chart below contains the three-year average of expenditures for the championships.
Expenditures Three-Year Average
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Appendix 3:
International Field Hockey Federation Hockey Turf & Field Standards
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79
Hockey Turf & Field Standards
PART 1 – FIH APPROVED
HOCKEY TURFS
Performance & quality requirements
VER. 2.1
FÉDÉRATION INTERNATIONALE DE HOCKEY
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1
Foreword
Hockey is the world’s third most popular team sport; the 2018 Global Hockey Survey
conducted by the FIH, showed that there are now over 30 million people playing hockey.
Fast, technically skilful, and requiring good levels of personal fitness, the sport is renowned
for its social inclusiveness, gender equality, and ability to attract players of all ages.
During much of the 20th century, hockey was played on natural grass, and even today this is
till the surface used by many. In 1976, however, our sport was transformed when elite level
hockey was played on synthetic turf for the first time.
Today synthetic turf, and especially the versions produced specifically for hockey (which we
now call hockey turf) has allowed the game to develop into the fast, technically skilful, and
exciting sport we know today.
Not all hockey turfs are the same and selecting the most appropriate type for the grades of
hockey that will take place on a field is important. Therefore, to help guide those planning a
new hockey facility we have produced our Facilities Guidance – Outdoor Hockey Surfaces,
which may be downloaded at www.fih/ch/qp.
When determining which form of surface is the most appropriate for a specific facility it is
very important that the requirements of the various competitions that will be held on it are
considered, as well as the policies and recommendations of the National Hockey
Association.
FIH Quality Programme
People need suitable facilities to play, but these require major investment, so it is very
important that hockey courts are designed and constructed correctly. To help ensure this
occurs, the FIH has developed its FIH Quality Programme. The programme provides
guidance and quality assurance through internationally recognised standards. These are
based on over 40 years’ experience and have been developed to ensure the appropriate
levels of performance and durability are achieved by a facility, irrespective of whether it is
intended for community hockey, international competition, or anything in between.
The FIH Quality Programme also endorses companies that manufacture high quality hockey
surfaces, and contractors that have a proven ability to build great hockey facilities.
FIH Preferred Suppliers are companies that manufacture hockey turf products and build
hockey courts allowing customers to benefit from a one-stop approach to the construction
of their new hockey facility. FIH Preferred Suppliers have a global commitment to work with
the FIH to provide high-quality hockey facilities suitable for international, national, club, and
development hockey.
FIH Certified Manufacturers are companies that specialise in the manufacturing of hockey
turfs. These companies have a proven ability to produce surfaces to the standards the
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2
game requires, whilst operating quality management systems that ensure consistency in
their products.
FIH Certified Field Builders are companies that specialise in building hockey fields. Due to
the nature of hockey, a small ball moving quickly across the surface, the tolerance to which
a facility needs to be constructed are much more demanding than those required by large-
ball sports. FIH Certified Field Builders have a proven ability to construct fields, and
HOCKEY5s courts, to the standards the game requires.
The FIH recommends that whenever you are planning a new hockey field or HOCKEY5s
court you always:
• select an FIH approved hockey turf
• appoint either an FIH Preferred Supplier or FIH Certified Field Builder to design and
build the field or court.
Details of FIH Approved Products, FIH Preferred Suppliers and FIH Certified Field Builders
can be found at www.fih.ch/qp.
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1 Introduction & scope
This document is Part 1 of the FIH Hockey Turf and Field Standards. It specifies the
performance and durability requirements for FIH approved hockey turf products. It
supersedes the 2017 edition. The requirements have been established after consultation
with National Hockey Associations, members of the FIH Quality Programme, and our FIH
accredited laboratories.
For a hockey turf to be approved it must be manufactured by a FIH Preferred Supplier or
Certified Manufacturer and meet the requirements of this Standard.
The principal changes to the 2017 edition of this Standard are:
• New classification of hockey turfs
• Revisions to the definitions of the different types of synthetic turf used for hockey
• Enhanced minimum transversal tensile strength requirement for homogenous
shockpads more than 25 mm thick
• Revised particle grading range for sand infills
• Additional toxicology requirements for polymeric infill materials
• Revised tensile strength requirements for fibres used in textile hockey surfaces
2 Definitions
Approved product – a hockey turf surface that has been tested and certified in accordance
with this Standard.
Dressed synthetic turf or textile surface - a surface that is only partly filled with sand or
other particulate material, so that the infill depth does not exceed 75% of the pile height.
Dry test specimen - a test specimen to which no water has been applied.
EN - Standard published by the European Standards Organisation (CEN).
FIFA TM - test method specified by FIFA in their Handbook of Test Methods for Football
Turf.
Filled synthetic turf or textile surface - synthetic turf or textile surface whose pile is filled
(>75%) with an unbound particulate material, typically sand.
Free pile height – the height of the pile above any infill or the carpet backing.
Hockey turf - a synthetic turf or textile sports surface designed to have the quality and
performance characteristics required to allow the game of hockey to be played.
Irrigated test specimen - a test specimen watered to simulate the controlled application of
water by a field irrigation system. Normally only required for Global category products.
ISO - Standard published by the International Standards Organisation.
Long pile synthetic turf surface - synthetic turf surface whose un-stretched pile length is
greater than 30 mm.
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4
Non-filled synthetic turf - synthetic turf surface that does not contain any form of unbound
particulate fill within the carpet pile.
Playing surface - the synthetic turf or textile surface forming the upper surface of the
hockey turf.
Shockpad or elastic layer - prefabricated foam or elastomeric sheets, rolls, tiles or insitu
laid elastomeric granulate and binder mixes, laid beneath the synthetic turf or textile
surface and designed to aid the provision of the required sport’s performance.
Short pile synthetic turf - synthetic turf surface whose un-stretched pile length is 30 mm or
less.
Synthetic turf surface – a carpet designed for sports use, having a tufted, knitted, or woven
construction.
Textile sports surface – a carpet designed for sports use, having a needle-punched or fibre
bonded construction.
Trimmed mean - a method of averaging test results that removes a small, designated
percentage of the largest and smallest values before calculating the mean.
Wet test specimen - a test specimen that has been soaked in water to replicate the
conditions of the surface after rain.
3 Classification
Based on the performance of the hockey turf (as defined in Section 4) and the type of playing
surface and shockpad on which it is laid, the hockey turf shall be classified as follows:
FIH Global
Intended use: Tier 1 international and national competitions and training
Type of carpet Non-filled short pile synthetic turf
Irrigation Required
FIH National
Intended use: Tier 2 international, national & local competitions and training
Types of carpet Sand-dressed short pile synthetic turf, Non-
synthetic turf
Irrigation Optional
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5
FIH Community – Hockey Plus multi-sport
Intended use: Community and school competitions, and training.
Types of carpet
Hockey friendly synthetic turf or textile multi-sports surfaces on
levels of community and school competition.
Irrigation Not required
FIH Community - Gen 2 multi-sport
Intended use:
Hockey friendly multi-sport surfaces intended for fields on which
sports such as recreational tennis, netball, and futsal, etc are also
played.
Community and school competitions, and training.
Types of carpet Sand-dressed short pile synthetic turf, Textile sport surface, Non-
filled short pile synthetic turf.
Irrigation Not required
FIH Community - 3G Multi-sport
Intended use: Community and school competitions, and training.
Type of carpet
Longer pile synthetic turfs primary intended for large ball sports,
with hockey being a secondary sport.
Playing characteristics similar to natural grass.
Irrigation Not required
Note:
The use of long-pile synthetic turfs in national/regional/local hockey competitions is prohibited in
some countries
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The type of playing surface used in a hockey turf shall be described as follows:
Carpet type Synthetic turf Synthetic turf Synthetic turf
Non-filled Dressed Filled
Pile height 10 mm – 18 mm 12 mm – 22 mm 18 mm – 30 mm
Free pile above infill N/A > 25% <25%
Requires irrigation Yes Optional No
Requires a shockpad Yes Yes Yes
Carpet type Synthetic turf Synthetic turf
Non-filled / semi filled Semi-filled Non-filled
Pile height (2) ≥ 30 mm ≥ 30 mm
Free pile above infill ≥ 30% N/A
Requires irrigation No No
Requires a shockpad Optional Yes
Filled Textile Dressed Textile Unfilled Textile
Carpet type Textile surface Textile surface Textile surface
Filled Dressed Non-filled
Pile height 12 mm – 25 mm 12 mm – 25 mm 12 mm – 25 mm
Free pile above infill <25% > 25% N/A
Requires irrigation No No No
Requires a shockpad Yes Yes Yes
The FIH do not wish to stifle innovation by being unnecessarily restrictive so if a new type of
hockey turf is found not to comply with these descriptions the FIH should be consulted.
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4 Requirements
To be approved by the FIH a hockey turf must comply with the appropriate requirements of
Clauses 4.1 – 4.7 of this Standard. In addition, the components that form the tested hockey
turf shall be characterised using the test methods detailed in Section 4.2 and the results
obtained shall comply with the manufacturer’s product declaration, subject to the
tolerances specified in Section 4.2.
Tests shall be undertaken by an FIH Accredited Test Institute (see www.fih.ch/qp for
details) using the test methods specified in this Standard.
When components in a hockey turf surface (e.g., pile yarns or fibres, shockpads, etc.) have
been tested previously by a FIH Test Institute, the results may be carried forward for
inclusion in a test report providing the Test Institute can confirm the component is the same
as that previously tested.
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fih.ch/qp 8 INTERNATIONAL HOCKEY FEDERATION
FÉDÉRATION INTERNATIONALE DE HOCKEY
4.1 Performance requirements
Property Unit Test condition Global National
Community
Hockey Plus Gen 2 3G
Dry 100 – 425 100 – 450 ≤ 500 ≥ 75
Wet 100 – 400 100 – 425 100 – 450 ≤ 500 ≥ 75
Irrigation + 15 100 – 400 - - - -
100 – 400 - - - -
After simulated 100 – 400 100 – 425 100 – 450 ≤ 500 ≥ 75
Hockey ball roll &
consistency between
directions of test
m % Dry ≥ 9.0 ≤ ± 20 ≥ 8.0 ≤ ± 20 ≥ 8.0 ≤ ± 20 ≥ 5.0 ≤ ± 20
Wet ≥ 10.0 ≤ ± 10 ≥ 9.0 ≤ ± 20 ≥ 8.0 ≤ ± 20 ≥ 8.0 ≤ ± 20 ≥ 5.0 ≤ ± 20
≥ 10.0 ≤ ± 10 - - - -
≥ 10.0 ≤ ± 10 - - - -
deviation Dry ≤ 0.45 @ 8.5 m ≤ 0.40 @ 7.5 m ≤ 0.40 @ 7.5 m -
Wet ≤ 0.50 @ 9.5 m ≤ 0.45 @ 8.5 m ≤ 0.40 @ 7.5 m ≤ 0.40 @ 7.5 m -
Irrigation + 15
minutes ≤ 0.50 @ 9.5 m - - - -
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fih.ch/qp 9 INTERNATIONAL HOCKEY FEDERATION
FÉDÉRATION INTERNATIONALE DE HOCKEY
Property Unit Test condition Global National
Community
Hockey Plus Gen 2 3G
Dry - 40 - 65 40 - 70 30 - 60 55 - 70
Wet 45 – 60 40 - 65 40 - 70 30 - 60 55 - 70
45 – 60 - - - -
45 – 60 40 - 65 40 - 70 30 - 60 55 - 70
Surface deformation mm Dry - 4 – 9 4 - 10 2 - 9 4 - 12
Wet 4 – 9 4 – 9 4 - 10 2 - 9 4 - 12
4 – 9 - - - -
After simulated 4 – 9 4 – 9 4 - 10 2 - 9 4 - 12
Dimple test sole Dry - 25 - 45 25 - 45 25 - 45 25 - 50
Wet 25 - 45 25 – 45 25 – 45 25 – 45 25 - 50
25 – 45 - - - -
25 - 45 25 – 45 25 – 45 25 – 45 25 - 50
Skin – surface friction ʯ ≤ 0.75 - - - -
Water permeability mm/h Wet ≥ 150 mm/h ≥ 150 mm/h ≥ 150 mm/h ≥ 150 mm/h ≥ 150 mm/h
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fih.ch/qp 10 INTERNATIONAL HOCKEY FEDERATION
FÉDÉRATION INTERNATIONALE DE HOCKEY
Additional multi-sport performance requirements for Gen 2 hockey turfs
Property Unit Test condition Requirement
% Dry ≥ 80
Wet ≥ 80
Tennis pace
Pa
c
e
cl
a
s
s
i
f
i
c
a
t
i
o
n
Dry
≤ 29 Category 1 Slow
30 - 34 Category 2 Medium-slow
35 – 39 Category 3 Medium
40 – 44 Category 4 Medium-fast
≥ 45 Category 5 Fast
PTV ≥ 75
Wet ≥ 75
After simulated ≥ 75
Rotational Resistance
(smooth rubber test sole)
Nm Dry 15 - 45
Wet 15 - 45
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fih.ch/qp 11 INTERNATIONAL HOCKEY FEDERATION
FÉDÉRATION INTERNATIONALE DE HOCKEY
4.2 Hockey turf product component characterisation
Notes
1 The number of filaments per square metre shall be calculated by multiplying the number of tufts per square metre by the number of filaments per
tuft; this figure being the mean value of 20 tufts extracted at random from a 200mm x 200mm sample.
2 If it is not possible to extract tufts from the carpet backing (e.g., when there is an integral shockpad or the carpet is of a knitted construction, etc.) the
pile weight per unit area above the substrate shall be determined in accordance with ISO 8543. This shall be noted in the test report
Component Characteristic Test Method
Properties of
synthetic turf carpet
(see also section 4.3)
Pile height above backing ISO 2549 + 10%
Tufts per unit area ISO 1763 + 10%
Filaments/m2 See note 1 + 10%
Pile weight ISO 8543 – see note 2 + 10%
Pile dtex FIFA TM 23 + 10%
Pile Thickness FIFA TM 25 > 90%
Pile Profile FIFA TM 25 Same profile
Pile polymer characterisation FIFA TM 22 Same profile + 3 °C (mean peak)
Carpet mass per unit area ISO 8543 + 10%
Water permeability of carpet FIFA TM 24 > 90%
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fih.ch/qp 12 INTERNATIONAL HOCKEY FEDERATION
FÉDÉRATION INTERNATIONALE DE HOCKEY
Component Characteristic Test Method Tolerance compared to
Properties of inlaid /
tufted line markings
Colour RAL Classic Same as approved product
Polymer characterisation FIFA TM 22 Same profile + 3 °C (mean peak)
Properties of
shockpads and elastic
layers
(see also section 4.5)
Thickness EN 1969 90% - 130%
Mass per unit area ISO 8543 + 10%
Shock Absorption EN TS 16717 + 5% SA
Water permeability FIFA TM 244 > 90%
Properties of infills
(see also section 4.6)
Particle Grading EN 933-1 / FIFA TM 20 90% between d and D
Particle Shape EN 14955 Similar shape
Bulk density EN 1097-3 + 15%
FIFA TM 11 Same polymer type, ± 15% of TGA value
Properties of textile
carpets
(see also section 4.7)
Thickness of pile above substrate ISO 1766 < 10 %
Fibre polymer characterization FIFA TM 22 Same profile + 3 °C (mean peak)
Carpet mass per unit area ISO 8543 < 10 %
Water permeability FIFA TM 24 > 90%
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4.3 Synthetic turf carpets
4.3.1 Abrasion Resistance of non-filled short pile and sand dressed carpets
When tested in accordance with EN 13672 the maximum pile weight loss after 2000
cycles shall be < 350 mg. Sand dressed carpets shall be tested without any infill.
4.3.2 Carpet Strength
Synthetic turf carpets having a mass per unit area of less than 3.5kg/m2 shall be
tested in accordance with EN ISO 13934-1 and the tensile strength of the carpet shall
be > 15N/mm. If the tensile strength in either the direction of manufacture or at 90⁰ to
the direction of manufacture is < 20 N/mm the maximum percentage variation
between the two directions shall be < 30% of higher value.
Note: experience has shown carpets with a mass per unit area of 3.5kg/m2 or greater
have adequate tensile properties, meaning there is no need to measure this property.
4.3.3 Tuft Bind
When tested in accordance with ISO 4919 the tuft withdrawal force for the tuft bundle
shall be > 25N.
Following immersion in hot water, in accordance with EN 13744, the tuft withdrawal
force shall be at least 75% of the unaged value and equal to or greater than 25N.
4.3.4 Joint Strength
4.3.4.1 Stitched and bonded joints
When tested in accordance with Method 1 of EN 12228, the unaged tensile strength of
stitched and bonded joints shall be equal to or greater than 1000 N/100 mm.
Following immersion in hot water, in accordance with EN 13744, the tensile strength of
the joints shall be at least 75% of the unaged value and equal to or greater than 1000
N/100 mm.
4.3.4.2 Bonded joints
When tested in accordance with Method 2 of EN 12228 the unaged peel strength of
bonded joints shall be equal to or greater than 50 N/100 mm.
Following immersion in hot water in accordance with EN 13744, the peel strength of
bonded joints shall be at least 75% of the unaged value and equal to or greater than
50 N/100mm.
4.3.5 Dimensional Stability
When tested in accordance with EN 13746 the dimensional stability of the hockey
turf surface shall be ≤± 0.5% after each stage of the test.
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This requirement does not apply to:
• hockey turf carpets having a mass per unit area > 3.5kg/m2
• hockey turf carpets that are intended to be fully bonded to a shockpad
• hockey turf carpets containing at least 15 kg/m2 of infill
Note: experience has shown that hockey turf carpets satisfying these criteria have
acceptable dimensional stability.
4.4 Synthetic turf pile yarns
4.4.1 Toxicology and Environmental Properties
The yarns used in the hockey turf carpet shall either satisfy the requirements of
Table 2 Category III of EN 71-3, or the requirements of ASTM 3188 -16.
Notes: In addition to satisfying the requirements of this clause, a hockey turf surface should
comply with all toxicology and environmental regulations applicable in the country in which it is
being sold. Certification to this requirement does not form part of FIH Approval.
4.4.2 Tensile strength of pile yarn
When tested in accordance with EN 13864, the minimum tensile strength of the yarn(s)
used to form the pile of a synthetic turf shall be:
• 5N for monofilament yarns
• 30N for fibrillated yarns
Monofilament yarns shall be tested as individual ribbons or strands.
4.4.3 Resistance of pile yarns to ultraviolet degradation
4.4.3.1 General
Tests shall be undertaken on each colour of hockey turf being offered for the field
of play, perimeter run-offs, line markings and any logos located within the field of
play or inner run-offs.
Results obtained previously on a family of yarns may be carried forward providing the
tests were undertaken by an FIH Accredited Test Institute and the following conditions
are met:
1. The Differential Scanning Calorimetry trace of the yarn, when tested in
accordance with FIFA TM 22 shows the same profile. The main points of
reference when comparing yarns shall be obtained from the second heating of
the polymer sample and comprise the peak temperature, peak area and
overall curve shape, all of which should be similar (peak temperature ± 3o).
2 The thickness of the yarn shall be at least 90% of the previously tested yarn,
when tested in accordance with FIFA TM 25.
3 The shape of the yarn is the same.
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4.4.3.2 Artificial weathering test method
Pile yarns shall be artificially weathered in accordance with EN 14836 Method 2
(9600±125 kJ/m2/340nm).
4.4.3.3 Requirements
Following artificial weathering, the strength of the pile yarn shall be greater than:
• 5N for monofilament yarns
• 30N for fibrillated yarns
Additionally, the losses in strength and tenacity after artificial weathering shall be no
greater than 50% of the strength and tenacity of the unaged yarn.
4.5 Shockpads
4.5.1 Shockpads and elastic layers less than 25mm thick
When tested in accordance with EN 12230 the minimum tensile strength of the
shockpad or elastic layer shall be 0.15 MPa.
Following air ageing in accordance with EN 13817 the minimum tensile strength shall be
0.15 MPa and the loss in tensile strength shall be no greater than 25% of the
tensile strength of the unaged shockpad or elastic layer.
4.5.2 Shockpads and elastic layers 25mm or thicker
When measured in accordance with DIN 18035-7: 2014 (and summarized below) the
minimum transverse tensile strength of the shockpad or elastic layer shall be 0.10
MPa.
The test specimens, of dimensions 100 mm x 100 mm, should be cut out and glued
between two plates (metal, hardwood, or the like) arranged so that their top and
bottom sides are parallel, as illustrated in the pictures below:
View of test specimen and mounting plates Suitable adhesive
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Application of adhesive (approx. 15g adhesive used per surface)
Clamping test specimen as the adhesive Test specimen with test machine
Test specimen under test Test specimen after test
A minimum of five test specimens shall be tested using a tensile testing machine
compliant with Clause 5 of EN 12330.
The test specimens shall be conditioned immediately prior to test in a
standard atmosphere of 23 ± 2°C and 50 ± 5%RH for a period of not less
than 24h.
The test specimens shall be clamped in the testing machine and a tensile force applied
at a speed of 50 ± 5 mm/min until failure.
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The transverse tensile strength is calculated using
formula: ðQZ = FB / A
ðQZ = transverse tensile strength in N/mm2
FB = force in N exerted on the test piece at the point of
failure A = the stressed area of the test piece in mm2.
Following air ageing in accordance with EN 13817 the minimum tensile strength of a
shockpad or elastic layer shall be 0.10 MPa and the loss in transverse tensile strength
shall be no greater than 25% of the tensile strength of the unaged shockpad or elastic
layer.
4.5.3 Shockpad with channels and slots
When tested in accordance with EN 12230 but using a test specimen as shown in the
figure below, the minimum tensile strength of the shockpad or elastic layer shall be
0.10 MPa. The test specimens shall be cut from the shockpad roll/tile to ensure that
they contain the maximum number of channels or slots.
Following air ageing in accordance with EN 13817 the minimum tensile strength shall be
0.10 MPa and the loss in tensile strength shall be no greater than 25% of the
tensile strength of the unaged shockpad or elastic layer.
Dimensions of test specimen
dumbbell
4.5.4 Loss of shock absorption due to ageing
Following air ageing in accordance with EN 13817 the shock absorption of the
shockpad or elastic layer shall be ± 5% SA (absolute) of the unaged shockpad or
elastic layer.
4.5.5 Resistance to Dynamic Fatigue
Following dynamic fatigue conditioning in accordance with EN 17324 the shockpad
or elastic layer shall satisfy the following requirements:
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When tested in accordance with EN TS 16717 the change in shock absorption shall not
exceed ± 5% FR (absolute) of the unaged specimen.
When tested in accordance with EN 1969 the thickness of the shockpad or elastic
layer shall be > 85% of unaged specimen.
There shall be no tearing, splitting or delamination of the shockpad.
4.5.6 Dimensional stability
When tested in accordance with EN 17326 the maximum bowing or curling recorded shall
be 5mm.
4.6 Infill materials
4.6.1 Dust content
When measured in accordance with EN 15051 the Inhalable Dust Content of the infill shall be
classified as Very Low or Low
4.6.2 Sand infills
Sands used as infill shall satisfy the following requirements:
4.6.2.1 Particle grading
The particle grading of the infill shall be in the range 0.2 mm – 1.0 mm. The grading shall be
determined in accordance with EN 933-1 using a range of sieves that have aperture sizes
between d and D of the designated product size, and shall include 0.00, mm, 0.150 mm,
0.200 mm, 0.250 mm, 0.315 mm, 0.500 mm, 0.630 mm, 0.800 mm, 1.00 mm and 1.25 mm
sieves. The apertures shall be as specified in EN 933-2 and conform to the requirements of
ISO 3310-1 and ISO 3310-2.
The sieves shall be mounted in a mechanical device that applies a 3-dimentional vibrating
movement. The equipment shall have a timer and amplitude settings; the amplitude shall
be set at 1.5 mm. The duration of the sieving operation shall be 12 min ± 15 s.
4.6.2.2 Particle shape
When tested in accordance with EN 14955 the particle shape shall be classified as rounded
or sub-rounded; classes C1 – C3.
4.6.2.3 Water permeability
When tested in accordance with EN 12616 the water infiltration rate of a 20 ± 2 mm depth of
the infill shall be ≥ 150 mm/h.
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4.6.3 Polymeric infills
Polymeric infills shall satisfy the following requirements:
4.6.3.1 Particle grading
The particle grading of the infill shall be in the range 0.3 mm – 3.0 mm. The particle grading
shall be determined in accordance with FIFA TM 20.
4.6.3.2 Water permeability
When tested in accordance with EN 12616 the water infiltration rate of a 20 ± 2 mm depth of
the infill shall be ≥ 150 mm/h.
4.6.3.3 Resistance to weathering
Following artificial weathered in accordance with EN 14836 Method 2 (9600±125
kJ/m2/340nm), the infill shall not have agglomerated or show a significant change in colour.
4.6.3.4 Polycyclic Aromatic Hydrocarbon (PAH) content
When tested using the procedure described in AfPS GS 2019:01 PAK, published by the
German Federal Institute for Occupational Safety and Health, the sum of the eight PAHs
listed below shall be ≤ 20.0 mg/kg:
PAH CAS PAH CAS
Benzo[a]pyrene (BaP) 50-32-8 Benzo[b]fluoranthene (BbFA) 205-99-2
Benzo[e]pyrene (BeP) C 192-97-2 Benzo[j]fluoranthene (BjFA) 205-82-3
Benzo[a]anthracene (BaA) 56-55-3 Benzo[k]fluoranthene (BkFA) 207-08-9
Chrysen (CHR) 218-01-9 Dibenzo[a,h]anthracene
(DBAhA) 53-70-3
Prior to chemical analysis to verify compliance, samples shall be prepared in accordance
with Appendix A of EN 17409.
Testing to demonstrate compliance with this requirement should be undertaken by an
independent test laboratory accredited to ISO 17025 for this test.
Notes:
1 Compliance with legal regulations (laws) shall always take precedence over FIH Standards.
2 For infills manufactured from end of life products (tyres, etc) compliance with this requirement
will be depend on the polymer composition of the product and this may vary production-
batch to production-batch. Therefore, testing to verify compliance with this requirement is
also recommended when a field is initially tested.
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4.7 Textile sports surfaces
4.7.1 Abrasion resistance
When tested in accordance with EN 13672 but modified so that each wheel is acting
under a load of 250 g, the maximum percentage weight loss after 2000 cycles shall be
2%.
4.7.2 Carpet strength
When tested in accordance with EN ISO 13934-1 the tensile strength of the carpet shall be
> 7.5 N/mm.
4.7.3 Joint Strength
As detailed in clause 4.3.4
4.7.4 Dimensional Stability
As detailed in clause 4.3.5
4.7.5 Toxicology and environmental properties
As detailed in clause 4.4.1
4.7.6 Tensile Strength of pile fibres
4.7.6.1 Surfaces intended to form the field of play
When tested in accordance with EN ISO 5079, the minimum tensile strength of at least
70% of fibres used to form the pile of the textile surface shall be 3N.
4.7.6.2 Surfaces intended to form line markings and perimeter run-offs
When tested in accordance with EN ISO 5079, the minimum tensile strength of at least
70% of fibres used to form the pile of the textile surface shall be 2N.
4.7.7 Resistance of Pile Fibres to Ultraviolet Degradation
4.7.7.1 General
As per clause 4.4.3.
4.7.7.2 Artificial weathering test method
Fibres shall be artificially weathered in accordance with EN 14836 Method 1
(irradiation of 4896 ± 125 kJ/m2/340nm).
4.7.7.3 Pile fibres for surfaces intended to form the field of play
Following artificial weathering, the strength of the pile yarn shall still be greater than 2.0N.
Additionally, the loss in strength after artificial weathering shall be no greater than 35% of
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the strength of the unaged yarn.
4.7.7.4 Pile fibres for surfaces intended to form line markings and perimeter run-offs
Following artificial weathering, the strength of the pile yarn shall still be greater than 1.5N.
Additionally, the loss in strength after artificial weathering shall be no greater than 50% of
the strength of the unaged yarn.
5 Product assessment test methods
5.1 Test methods
The following test methods shall be used to assess the performance of hockey turfs
seeking FIH Approval:
5.1.1 Hockey ball rebound
Tests shall be made in accordance with EN 12335 made using an acoustic timer and
an FIH Approved Hockey Ball. When tested on concrete the ball shall have a rebound
of 800 ± 50 mm.
5.1.2 Hockey ball roll
Tests shall be made in accordance with EN 12334 using an FIH Approved Hockey Ball.
Three tests shall be made in each direction and the mean calculated.
For Global, National, Community and Gen 2 hockey turfs, two test specimens are required.
The first shall be taken in the direction of manufacture (to simulate a ball rolling across a
field). The second shall be taken at 90° to the direction of manufacture and be made from
a series of carpet rolls joined together to form the test specimen (to simulate a ball rolling
along a field).
For 3G Multi-Sport hockey turfs only one test specimen, taken in the direction of
manufacture, is required.
The length of the test specimen shall be approximately 1m longer than the anticipated ball
roll length. If this is not known, the length shall be 18m for all categories other than MS3,
which should be 10m long. All test specimens shall be at least 1m wide.
Tests shall be undertaken from either end of each test specimen and the following
calculated:
• overall mean ball roll (each direction and each test specimen);
• consistency between mean result in each direction and the overall mean;
• for Global category surfaces, consistency between overall mean results 15 minutes
and 45 minutes after irrigation
Note: If a hockey turf has been tested previously the results may be carried forward for reuse
providing the free pile height is the same (±1mm).
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5.1.3 Ball roll deviation
Whilst undertaking ball roll tests in accordance with EN 12234 using an FIH Approved
Hockey Ball place a graduated gate over the test specimen at the distance detailed in the
table below, measured from the point at which the ball first meets the test specimen.
The gate shall allow the ball to roll unimpeded underneath it. It shall be graduated
in at least 1cm increments with 0cm being at its mid-point.
Figure 1 Distance as detailed in the Table below
Measurement distance from end of ball roll ramp
Global National Community Gen 2 3G
9.5 ± 0.01m 8.5 ± 0.01m 7.5 ± 0.01m 7.5 ± 0.01m
As the ball rolls under the graduated gate record the deviation from the mid-point
(0cm) of the centre-line of the ball
From the three ball roll tests in each direction/test specimen calculate the mean
deviation and report to 0.01m.
5.1.4 Shock Absorption and Vertical Deformation
Shock Absorption and Vertical Deformation shall be measured in accordance with
EN TS 16717.
5.1.5 Shoe – surface friction
Shoe-Surface Friction shall be measured in accordance with EN 15301-1 using the
dimpled test sole. On Gen 2 Multi-sports surfaces tests shall also be made with the smooth
rubber test sole.
The test specimen shall measure at least 1m x 1m. Tests shall be made in three locations
each at least 0.3m apart and at least 0.25m from the edge of the test specimen.
5.1.6 Skin friction
The value of Surface Friction shall be determined using the procedure specified in FIFA TM
08. Prior to test the surface shall be irrigated in accordance with the manufacturer’s
instructions and all three tests shall be made between 40 and 45 minutes after irrigation.
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Note: If the synthetic skin is torn from the test foot during the test meaning a result cannot be
obtained the result shall be expressed as being > 0.75 and classified as a failure.
5.1.7 Water Permeability
Water permeability shall be measured in accordance with FIFA TM 24. Tests shall be made
on the complete hockey turf (including any infill and shockpad) shall be at least 150mm/h.
5.2 Test conditions
Hockey is played under a number of different conditions depending on the category of
surface. Potentially all surfaces will be played on when wet due to rain. Therefore, all
surfaces need to have acceptable performance under wet conditions.
The FIH currently requires Category 1 and 2 fields to be irrigated before play to ensure
acceptable performance. The amount of water required will depend on the particular
hockey turf and this shall be determined by the hockey turf manufacturer and accredited
test institute. To ensure uniform and adequate wetting the quantity of water shall be no
less than 1l/m2 (1mm).
Players expect consistent performance from Category 1 and 2 fields. As some properties
change as a surface dries, it is important that this does not occur too quickly. Therefore,
certain characteristics are measured 15 and 45 minutes after watering.
If a Global Category hockey turf is to also be used on national or multi-sports fields
without watering, the surface shall also be tested in dry conditions.
Test
conditions
Hockey turf classification
Global
National
Community Gen 2 Multi-
sport
3G Multi-
Sport
Irrigated
Wet
Dry
Laboratory tests and sample conditioning shall be undertaken at a controlled
laboratory temperature of 23 ± 2ºC and relative humidity of 50 ± 20%RH.
5.3 Preparation of test specimens
5.3.1 General
Test specimens of the size specified in the appropriate test method must be prepared in
accordance with the manufacturer’s instructions and EN 12229.
If the hockey turf carpet is intended to be bonded to a shockpad during field installation the
test specimens for ball rebound, shock absorption, vertical deformation, rotational
resistance, and water permeability shall be formed in the same way. The preparation of
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these samples should be undertaken by the manufacturer prior to them being sent to the
Test Institute.
5.3.2 Preparation of wet test specimens
The test specimen shall be wetted by evenly applying a volume of water, using a hose
fitted with a spray nozzle, that thoroughly soaks the specimen (if in doubt this should be at
least equal to the volume of the test specimen). Tests shall commence 5 ± 1 minutes after
the application of the water
All tests shall be completed within 15 minutes of the application of water. If required, the
wetting procedure shall be repeated to allow further testing.
5.3.3 Preparation of dry test specimens
Dry tests shall be undertaken on test specimens that have not been subjected to any form
of watering prior to test.
5.3.4 Preparation of irrigated test specimens
The test specimen shall be mounted on a free draining sub-structure and irrigated using
the procedure specified by the manufacturer. The quantity of water applied to the test
specimen shall be specified in terms of millimetres’ depth or litres per metre squared. The
water shall be uniformly applied to the test specimen.
Following watering the test specimen shall be allowed to drain for the time specified for
the property being measured (15 ± 1 or 45 ± 1 minutes), before testing begins.
If required by the test method, the test specimen shall be moved onto a suitable rigid
unyielding test platform prior to being tested.
All tests shall be completed within 15 minutes of the tests commencing (i.e., all tests
commencing 15 minutes after the application of water shall be completed within 30
minutes from the application of water). If required, the irrigation procedure shall be
repeated on a new (dry) test specimen to allow further testing.
5.4 Effects of simulated wear
5.4.1 General
Test specimens shall comprise the synthetic turf or textile surface, shockpad and any infill.
They shall be subjected to simulated wear conditioning for the specified number of cycles
on a Lisport simulated wear machine in accordance with EN 15306 and the conditioning
roller specified below. The simulated wear conditioning shall be undertaken on a dry test
specimen. Infill replacement during the conditioning shall be undertaken as specified in EN
15306.
Following simulated wear conditioning, the test specimen shall be tested in the following
order:
1. microscopic examination & photographs
2. ball rebound
3. shock absorption & vertical deformation
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4. rotational resistance
5. Netball slip resistance (Community Gen 2 surfaces only)
Note: When moving dressed or filled test specimens from the Lisport machine and undertaking the
various performance tests and microscopic examinations, care shall be taken to minimise
disturbing the infill and relieving any infill compaction that has occurred.
For Global, National, Community and Gen 2 Multi-Sport hockey turfs the Lisport rollers
shall be covered with a profiled rubber sheet made from vulcanised styrene butadiene
rubber (SBR). The test sole shall have a wave profile on one face and comply with the
following requirements:
Thickness (mm) 2.5 ± 0.3
Hardness (Shore A) 90 ± 3
Wavelength (mm) 13.0 ± 0.5
Amplitude (mm) 2.0 ± 0.3
Profile height (mm) 0.6 ± 0.1
Note: The test sole is available from TQS Belgium BVBA, Hofveldstraat 13, 9688 Maarkedal,
Belgium (reference Lisson test sole; EN 1963).
The test specimen shall be subjected to 10,200 Lisport cycles.
3G Multi-Sport category MS3 hockey turfs shall be tested using the studded
roller specified in accordance EN 15306. Test specimens shall be subjected to
20,200 Lisport cycles.
5.4.2 Photographic examination of pile yarns
Before and after simulated wear conditioning a sample area measuring 150mm x 150mm
in the centre of the Lisport test specimen shall be examined for signs of damage to the
pile using a Dino-lite Edge Type AM4815ZT Digital Microscope. Using the microscope’s
extended depth of field (EDOF) function and using 20x and 100x magnification, any
splitting, cracking, tearing or other damage to the pile yarns shall be recorded and
reported. This shall include an estimate of the percentage of the yarns affected.
Photographs showing the test specimen before and after simulated wear conditioning
shall be reported. The photographs below illustrate the types of photograph required.
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x 20
x 100
Sample after 10,200 cycles of simulated wear conditioning
x 20
x 100
Notes:
1 Note: If the FIH considers a product to show very poor resistance to simulated use they
reserve the right to not grant it FIH Approved Product status.
2 As experience is gained with this test, the FIH plan to introduce a classification of fibre wear
and maximum limits of damage. At this initial stage, it is intended that by requiring all
products to be tested and reported consumers will be able to compare the wear resistance
of different hockey turf products.
5.4.3 Performance requirements after simulated wear conditioning
As the size of the test specimens produced by the apparatus described in EN 15306 is
smaller than the test specimens specified in EN 12235, EN TS 16717 and EN 15301-1, the
test pieces used shall conform to the requirements given in EN 15306. No test shall be
carried out within 50 mm of the edge of the test piece or within 50 mm of where another
test has been carried out.
Global category hockey turfs shall be irrigated in accordance with manufacturer’s
requirements following the simulated wear conditioning and prior to the measurements of
ball rebound, shock absorption & vertical deformation and rotational resistance. The tests
shall be made 15 minutes after irrigation.
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Netball slip resistance on Community Gen 2 hockey turfs shall be measured in dry and wet
conditions.
Use of this Standard
Whilst every effort has been made to ensure the accuracy of the information
contained in this publication, any party who makes use of any part of the Standard in
the development of a hockey facility shall indemnify the International Hockey
Federation (FIH), its servants, consultants or agents against all claims, proceedings,
actions, damages, costs, expenses and any other liabilities for loss or damage to any
property, or injury or death to any person that may be made against or incurred by
the FIH arising out of or in connection with such use.
Compliance with the requirements detailed in this Standard by a User does not of
itself confer on that User immunity from their legal obligations but does constitute
acceptance of the terms of this disclaimer by that User.
FIH reserve the right to amend, update or delete sections of this Standard at any
time, as they deem necessary.
Any questions about this Standard should be addressed to facilities@fih.ch
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This Standard is part of a series of facilities documents produced by the FIH. Other
information that might assist you is available at www.fih.ch/qp. It includes:
• Facilities Guidance - Outdoor Hockey Facilities
• Facilities Guidance - GEN 2 multi-sports areas
• Facilities Guidance - HOCKEY5s Courts
• Facilities Guidance - Sports Lighting for Non-Televised Outdoor Hockey
• Facilities Guidance - Sports Lighting for Televised Outdoor Hockey
• Facilities Guidance - Hockey Field Irrigation
• Facilities Guidance - Indoor Hockey
• Hockey Turf and Field Standards – Part 1 FIH Approved Hockey Turfs
• Hockey Turf and Field Standards – Part 2 - 11 a-side hockey fields
• Hockey Turf and Field Standards – Part 3 – HOCKEY5s courts
• Hockey Turf and Field Standards – Part 4 – Temporary Overlay Pitches (TOPS)
• FIH Approved Field Equipment – Hockey Goals
• FIH Approved Field Equipment – HOCKEY5s Rebound Boards
• FIH Approved Field Equipment – Team Shelters
• FIH Approved Field Equipment – Technical Officials Booths
• FIH Approved Field Equipment – Indoor Hockey goals
• FIH Approved Field Equipment – Indoor Hockey side-board
108
Rue du Valentin 61
1004 Lausanne
Switzerland
www.fih.ch
109
Appendix 4:
Project Location Exhibit
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Appendix 5:
Stream Setback Exhibit
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Appendix 6:
Project Lighting Plan - Technical Drawings
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0.00.00.10.1
0.00.10.10.20.30.40.71.21.93.15.49.716.526.639.854.366.075.882.184.682.581.580.079.577.877.278.079.782.885.185.585.486.888.483.1
0.00.00.10.10.20.30.50.91.42.33.86.411.519.730.242.557.972.082.186.586.385.183.982.379.776.675.976.678.381.384.786.787.187.888.287.480.267.151.036.624.415.18.64.93.01.91.10.70.40.30.20.10.10.0
0.00.10.10.10.20.40.61.01.72.74.47.613.021.131.244.060.675.485.089.088.987.486.082.578.776.074.675.076.879.583.887.489.388.989.288.182.169.152.837.726.116.79.95.83.52.11.30.80.50.30.20.10.10.00.0
0.00.10.10.20.20.40.71.11.83.05.18.413.921.531.244.460.475.085.389.691.489.686.382.478.275.474.174.475.978.882.587.490.592.191.088.881.469.053.338.326.517.710.86.53.92.31.40.90.50.30.20.10.10.10.0
0.00.10.10.20.30.40.71.11.93.25.49.214.522.032.245.760.875.885.290.492.190.785.982.178.775.574.274.676.078.883.287.191.194.794.089.882.570.154.439.927.518.411.77.14.22.51.50.90.60.30.20.10.10.10.0
0.00.10.10.20.30.40.71.22.03.45.79.514.822.632.946.260.874.182.688.690.889.086.082.478.976.274.574.276.479.883.787.891.693.693.388.381.369.955.541.128.619.012.27.54.42.71.60.90.60.40.20.20.10.10.0
0.00.10.10.20.30.40.71.22.03.55.89.714.922.933.046.560.873.081.787.289.888.286.482.378.876.374.674.576.880.183.988.291.492.892.587.680.869.455.841.329.119.112.47.64.62.71.60.90.60.40.20.20.10.10.0
0.00.10.10.20.30.40.71.22.03.45.79.514.822.632.946.260.874.282.788.790.989.186.082.478.976.274.574.376.479.883.787.891.693.793.488.481.469.955.441.128.619.012.27.54.42.61.60.90.60.40.20.20.10.10.0
0.00.10.10.20.30.40.71.11.93.25.49.114.522.032.145.660.775.885.390.592.190.785.982.178.775.574.174.676.078.883.287.191.194.793.989.882.670.154.439.927.518.411.77.14.22.51.50.90.60.30.20.10.10.10.0
0.00.10.10.20.20.40.71.11.83.05.08.413.921.531.244.460.475.085.389.691.489.686.482.478.275.474.174.575.978.982.587.590.591.990.988.781.368.953.338.326.517.710.86.53.92.31.40.90.50.30.20.10.10.10.0
0.00.10.10.10.20.40.61.01.62.74.47.513.021.131.244.060.675.485.089.088.787.485.982.578.776.074.675.176.979.583.887.589.388.889.088.182.269.252.837.826.116.79.85.83.52.11.30.80.50.30.20.10.10.00.0
0.00.00.10.10.20.30.50.91.42.33.76.411.419.630.142.557.871.781.986.486.284.983.982.279.776.776.076.778.481.484.886.787.087.988.287.480.067.051.036.624.415.08.64.93.01.81.10.70.40.30.20.10.10.0
0.00.10.10.20.30.40.71.21.93.15.49.616.426.539.654.265.975.782.084.582.481.479.979.577.977.278.079.782.985.185.485.386.888.482.975.563.947.932.720.812.57.14.12.51.50.90.60.30.20.10.10.10.0
0.00.00.10.10.20.30.50.91.52.54.48.014.123.035.049.362.671.775.979.679.378.378.579.678.477.478.380.383.585.183.983.685.182.280.272.858.942.328.417.710.46.03.32.01.20.70.40.30.20.10.10.00.0
0.00.10.10.10.20.40.61.11.93.56.711.819.930.944.259.771.574.575.777.377.478.479.578.577.377.680.083.385.284.082.781.780.178.469.152.336.824.514.98.84.82.61.50.90.50.30.20.10.10.00.0
0.00.00.10.10.20.30.40.71.42.85.59.817.429.343.457.371.475.676.177.676.476.878.078.777.677.980.282.982.482.082.380.879.177.765.650.635.722.012.67.34.02.11.10.60.40.30.20.10.10.0
0.00.00.10.10.20.20.40.61.12.55.08.816.533.844.956.069.976.375.377.877.377.178.279.077.677.479.982.782.081.982.178.877.476.063.952.042.321.811.76.83.71.80.90.60.40.20.20.10.10.0
0.00.00.10.10.20.30.40.71.12.55.08.715.832.242.354.269.479.480.983.181.180.581.081.279.378.981.384.584.684.785.381.879.975.963.952.744.122.411.97.03.91.91.10.70.50.30.20.10.10.00.0
0.00.10.10.10.20.40.71.01.62.95.69.115.225.738.153.172.888.294.194.288.685.283.882.980.880.482.585.787.088.892.691.887.881.766.352.137.822.512.97.74.42.41.71.10.70.40.30.10.10.10.0
0.00.00.10.10.20.40.61.11.72.43.66.110.015.824.938.156.078.293.3103.2102.795.890.085.682.079.479.381.685.690.894.498.8100.994.586.370.053.137.923.614.48.75.33.42.41.61.00.60.30.20.10.10.0
0.00.10.10.10.20.40.71.32.03.14.76.910.816.926.442.362.279.993.5104.3101.494.787.180.976.574.574.476.179.384.891.397.5104.098.686.672.656.539.024.715.29.36.24.22.81.81.10.60.40.20.10.10.0
0.00.10.10.10.20.40.81.32.23.45.27.711.217.627.744.561.175.283.588.788.984.676.670.266.665.365.766.868.772.579.989.091.888.980.871.856.640.324.715.49.96.84.63.01.91.20.70.40.20.10.10.0
0.00.00.10.10.20.40.71.32.13.24.97.110.215.523.937.452.064.667.366.167.167.361.956.754.154.254.955.255.658.163.968.469.167.869.465.449.734.321.714.09.26.34.22.81.81.10.60.40.20.10.10.0
0.00.10.10.20.40.61.11.72.53.85.68.112.218.227.538.548.150.748.147.947.445.943.441.842.242.342.642.943.846.347.346.848.252.550.038.826.417.311.47.55.13.32.21.40.90.50.30.20.10.10.0
0.00.10.10.20.30.40.71.11.72.53.85.78.411.917.624.631.334.533.831.832.031.830.930.530.931.431.631.430.931.330.629.930.934.232.325.317.612.18.35.43.52.31.50.90.60.40.20.10.10.00.0
0.00.00.10.10.20.30.40.61.01.52.23.35.07.010.214.118.521.220.720.320.321.021.321.422.022.322.422.021.419.918.417.517.618.317.214.110.37.25.03.32.11.40.90.60.40.20.10.10.10.0
0.00.00.10.10.20.20.40.50.81.21.82.63.75.57.69.811.111.512.012.213.013.714.815.215.615.515.414.412.410.29.08.58.68.06.85.33.82.71.81.20.70.50.30.20.10.10.10.00.0
0.00.00.10.10.10.20.30.40.71.01.42.02.93.94.85.66.16.36.97.58.89.710.410.510.610.19.17.76.24.54.03.83.53.02.41.81.30.90.60.40.30.20.10.10.00.00.0
0.00.00.10.10.10.20.30.40.60.81.21.62.12.52.83.13.33.64.55.46.26.77.06.96.45.74.83.72.82.11.81.61.41.00.80.60.40.30.20.10.10.10.00.0
0.00.00.10.10.10.20.30.40.50.70.91.21.31.41.61.82.12.73.33.84.14.34.23.93.52.92.31.81.31.00.90.70.60.40.30.20.20.10.10.10.00.0
0.00.00.10.10.10.20.20.30.40.50.70.80.80.91.01.31.61.92.32.42.62.52.42.11.81.41.10.90.70.60.50.30.30.20.10.10.10.10.00.0
0.00.00.10.10.10.10.20.20.30.40.50.50.50.60.81.01.11.31.51.51.51.41.21.10.90.70.60.50.40.30.20.20.10.10.10.00.00.0
0.00.00.10.10.10.10.10.20.20.30.30.30.40.50.60.70.80.80.90.90.80.80.70.60.50.40.40.30.20.10.10.10.10.00.0
0.00.00.00.10.10.10.10.20.20.20.20.30.30.30.40.40.50.50.50.50.50.40.30.30.30.20.20.10.10.10.10.00.0
0.00.00.00.10.10.10.10.10.10.20.20.20.20.30.30.30.30.30.30.20.20.20.20.10.10.10.10.10.00.0
0.00.00.10.10.10.10.10.10.10.10.10.20.20.20.20.20.20.10.10.10.10.10.10.10.00.00.0
0.00.00.00.00.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.00.00.0
0.00.00.00.00.00.00.00.10.10.10.10.10.10.10.10.00.00.00.00.0
0.00.00.00.00.00.00.00.00.00.0
Calculation Summary
Grid Name Calculation Metric Units Avg Max Min Avg/Min Max/Min
Field Hockey Horizontal Illuminance Fc 81.86 97 74 1.11 1.32
Plot Date: 1/24/2025 File: G:\38145.00\3.0_Working\3.9_CAD\1_SheetFiles\PERMITTING\L6-01_LIGHTING PLAN.dwg Saved By: arenaud
Seal
Drawing No.
Drawing Title:
Key Map
Project Title:
Client Project No:
Drawn By:
Checked By:
Approved By:
Issue Date:11.25.2024
TS
AR, TS
AG, ZC
DRAWING ISSUE & REVISION HISTORY
No.Description Date
Sasaki Project No:
NOT FOR CONSTRUCTION
13800
38145.02
ARCHITECT + LANDSCAPE ARCHITECT
SASAKI
110 Chauncy Street
Boston, MA 02111
TEL. 617.926.3300
www.sasaki.com
CIVIL
TG MILLER
605 West State Street, Suite A
Ithaca, NY 14850
TEL. 607.272.6477
www.tgmillerpc.com
STRUCTURAL
LEMESSURIER
1380 Soldiers Field Road
Boston, MA 02135
TEL. 617.868.1200
www.lemessurier.com
MEP/FP
RFS ENGINEERING
71 Water Street
Laconia, NH 03246
TEL. 603.524.4647
www.rfsengineering.com
BUILDING AND FIRE CODE
HOWE ENGINEERS
141 Longwater Drive, Suite 110
Norwell, MA 02061
TEL. 781.878.3500
www.howeengineers.com
11/25/2024
ISSUE FOR PERMIT
Game Farm Road
Field Hockey Field
Game Farm Road | Ithaca, NY 14853
Cornell University
North Scale: 1" = 30'
FIELD HOCKEY IRRIGATION
IRRIGATION CONSULTING, INC.
30 Merritt Parkway, 2nd Floor
Nashua, NH 03062
TEL. 978.433.8972
www.irrigationconsulting.com
Feet
60300
SYMBOL DESCRIPTION
LIMIT OF WORK (LOW)
LEGEND
SPORTS LIGHT POLE, MUSCO
'LIGHT-STRUCTURE SYSTEM'
70' MOUNTING HEIGHT
SITE LIGHT POLE,
LEOTEK ARIETA LUMINAIRE,
20' MOUNTING HEIGHT
11.8 ILLUMINATION LEVEL
(FOOTCANDLE)
PROJECT LIGHTING PLAN 1
1" = 20'
4020
MATCHLINE SEE SHEET 01
MATCHLINE SEE SHEET 02
Luminaire Schedule
Symbol Qty Description Catalog #Tag Mounting
Height (ft)
5 SITE LIGHT POLE, TYPE 2 DISTRIBUTION AR13-48N-MV-NW-2-BK-040-BLS EP1 20
8 AR13-48N-MV-NW-4-BK-080-BLS EP2 20
1 AR13-48N-MV-NW-5-BK-055-BLS EP3 20
4 AR13-48N-MV-NW-4-BK-080-BLS EP4 20
SITE LIGHT POLE, TYPE 4 DISTRIBUTION
SITE LIGHT POLE, TYPE 5 DISTRIBUTION
SITE DOUBLE HEAD POLE, TYPE 4 DIST.
4 TLC-LED-550 / TLC-LED-1500 F1-F4 70ATHLETIC FIELD LIGHTING
01/31/2025
01.31.2025
MATCHLINE SEE SHEET 01
MATCHLINE SEE SHEET 02
120
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121
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH E
OH E
G
G
G
G
G
G
G
G
G
G
G
G
G
G
ST
ST
ST
GA
M
E
F
A
R
M
R
O
A
D
PHASE 2
TEAM FACILITY
5,000 SF.
PHASE 2
INDOOR TURF FACILITY
9,400 SF.
ST
O
P
LI
M
I
T
O
F
W
O
R
K
LIMIT OF WORK
EP4
EP3
EP2
EP2 EP2 EP2
EP1
EP1
EP2
EP4 EP4 EP4
BUS PARKING
BUS PARKING
F1 F3
0.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.0
0.00.00.00.00.00.00.00.00.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.1
0.00.00.10.10.10.10.00.00.00.10.10.10.10.20.20.20.20.10.10.10.10.10.20.20.20.20.20.10.10.10.10.10.20.20.20.20.10.10.10.10.10.10.20.20.20.20.10.1
0.00.10.10.20.20.30.20.10.10.10.20.20.30.30.30.30.30.20.20.20.20.20.30.30.30.30.30.20.20.20.20.20.30.30.30.30.30.20.20.20.20.20.30.30.30.30.30.2
0.00.00.10.20.30.30.50.60.30.20.20.30.40.50.60.70.60.50.40.30.30.30.40.50.60.70.60.50.40.30.30.30.40.50.60.70.60.50.40.30.30.30.40.50.60.70.60.50.3
0.00.10.10.20.30.40.60.80.60.30.30.40.61.01.61.81.51.00.60.50.40.50.61.01.61.81.51.00.60.50.40.50.61.01.51.81.50.90.50.50.40.50.61.01.61.81.50.90.5
0.00.10.10.20.30.71.32.01.20.40.40.71.02.04.45.94.21.91.00.70.50.71.02.14.45.94.21.91.00.70.50.71.02.04.35.84.11.91.00.70.50.71.02.04.45.84.11.91.0
0.00.10.10.30.40.92.74.22.20.70.50.91.43.37.59.87.23.01.40.90.50.91.43.37.59.87.23.01.40.90.50.91.43.37.59.87.23.01.40.90.50.91.43.37.59.87.23.01.3
0.00.00.10.20.30.41.03.15.02.60.80.50.71.02.04.35.74.11.91.00.70.50.71.02.04.35.74.11.91.00.70.50.71.02.04.45.94.21.91.00.70.50.71.02.04.45.94.21.91.0
0.00.00.00.10.10.20.30.40.92.03.11.70.60.50.50.61.01.61.81.51.00.60.50.40.50.61.01.61.81.51.00.60.50.40.50.61.01.61.81.51.00.60.50.40.50.61.01.61.81.61.00.6
0.00.00.10.10.10.10.20.30.40.60.91.30.90.40.30.40.40.50.70.70.70.50.40.40.40.40.40.50.70.70.70.50.40.40.30.40.40.50.70.70.70.50.40.40.40.40.40.60.70.70.70.50.4
0.00.00.10.10.10.20.20.30.30.40.50.60.80.60.30.30.40.40.40.40.50.40.40.40.40.40.40.40.40.40.40.40.40.30.30.30.30.30.40.40.40.40.40.40.40.40.40.40.40.40.40.40.40.4
0.00.10.10.20.20.30.30.40.40.50.50.60.60.40.30.30.40.40.40.40.40.40.40.40.40.40.40.40.40.40.40.30.30.30.30.30.30.30.40.30.30.30.30.30.40.40.40.40.40.40.40.40.40.3
0.00.10.20.30.30.40.50.50.50.50.50.50.40.40.40.40.50.50.50.40.40.40.40.40.40.50.50.50.50.40.40.30.30.30.40.50.50.50.50.40.30.30.30.40.40.40.50.50.50.40.40.40.40.4
0.00.10.20.40.50.81.21.21.00.60.40.40.40.40.50.81.21.21.00.60.40.50.50.40.60.91.21.20.90.60.40.30.30.30.50.70.80.90.70.60.40.30.30.40.50.81.21.21.00.60.40.40.40.4
0.00.10.30.50.71.53.23.72.20.90.50.50.40.60.71.53.23.72.21.00.60.50.50.60.81.83.53.51.80.80.60.40.20.30.50.91.71.81.20.60.40.30.30.60.71.53.23.72.10.90.50.50.40.6
0.00.00.20.50.82.14.24.73.01.20.60.40.30.60.82.14.24.73.01.20.70.40.30.61.02.54.54.52.61.00.60.30.20.30.51.02.12.51.40.60.40.20.30.60.82.14.24.73.01.20.60.40.30.6
0.00.10.20.51.01.82.01.30.70.40.10.10.30.51.01.82.11.30.70.40.20.10.30.61.11.92.01.20.60.30.10.20.30.50.91.51.61.10.60.30.20.10.30.51.01.82.11.30.60.40.10.10.3
0.00.00.10.20.30.60.60.40.20.10.10.10.10.20.40.60.70.50.30.20.10.10.20.30.40.60.60.40.30.10.10.20.30.50.70.80.80.70.50.30.20.10.10.20.30.60.60.40.20.10.00.00.1
0.00.00.10.10.20.20.20.10.10.10.10.10.10.20.30.30.20.20.10.10.10.10.20.30.30.30.20.20.10.10.20.30.50.60.50.40.40.30.20.10.10.00.10.10.20.20.20.10.00.00.00.0
0.00.00.00.10.10.10.10.10.10.10.10.20.20.20.20.20.20.20.20.20.20.20.20.20.20.20.10.10.10.20.30.60.60.40.20.20.20.10.10.00.00.00.00.00.00.00.00.0
0.00.00.00.10.10.10.10.20.20.30.30.30.30.30.30.30.30.30.30.30.30.30.30.30.20.20.30.30.60.91.00.60.20.20.10.10.10.0
0.00.00.10.10.10.20.20.30.40.50.50.50.50.50.50.50.50.50.50.50.50.50.50.50.40.50.50.60.91.72.01.40.50.30.20.10.10.00.0
0.00.00.10.10.10.20.30.40.50.70.80.80.80.80.80.80.80.90.91.00.90.90.80.80.80.80.91.01.01.32.53.42.80.90.50.30.20.10.10.00.0
0.00.00.10.10.10.20.30.40.60.91.21.31.31.31.31.41.41.41.51.61.61.61.51.41.41.41.41.51.61.62.03.23.93.21.30.90.60.30.20.10.10.0
0.00.00.10.10.10.20.30.50.71.11.52.02.22.22.12.02.12.22.52.72.72.82.72.62.42.22.22.32.42.62.62.93.63.93.12.01.40.90.50.30.10.10.00.0
0.00.00.10.10.10.20.30.50.71.11.72.53.33.63.63.53.33.33.64.14.44.64.74.54.23.93.63.53.63.83.94.04.14.34.43.82.92.01.30.70.40.20.10.10.00.0
0.00.10.10.10.20.30.40.71.01.72.74.05.25.85.95.85.55.46.06.67.27.47.57.36.86.25.75.25.35.45.85.95.85.95.75.03.92.81.70.90.50.30.10.10.10.0
0.00.10.10.10.20.30.60.91.42.44.06.38.29.410.09.99.59.69.810.511.011.311.211.110.79.88.88.07.78.39.09.08.68.37.96.85.13.62.11.10.60.30.20.10.10.0
0.00.10.10.20.30.40.71.21.93.35.89.412.715.516.416.316.216.116.216.316.516.416.416.216.015.113.412.312.513.314.314.313.111.911.08.86.44.12.31.20.60.30.20.10.10.00.0
0.00.10.10.20.30.50.91.52.64.68.113.719.324.727.026.125.525.125.124.423.723.423.323.222.622.121.220.220.421.823.423.020.217.314.711.07.44.42.31.20.60.40.20.10.10.10.0
0.00.10.10.20.40.61.01.83.25.811.019.428.536.940.239.838.037.736.434.533.032.632.432.432.031.732.231.831.533.437.235.728.822.217.813.17.74.32.31.20.60.40.20.10.10.10.00.0
0.00.10.10.20.40.61.22.13.87.214.626.839.951.455.654.654.453.150.646.744.143.743.343.343.544.346.747.546.848.453.350.939.628.019.913.57.63.92.11.10.60.40.20.10.10.00.00.0
0.00.00.10.20.40.61.22.44.48.618.235.452.666.371.271.572.672.365.659.355.855.455.855.855.958.163.567.667.766.168.566.049.833.521.012.97.03.61.91.10.60.40.20.10.10.00.00.0
0.00.10.20.30.61.32.65.110.321.342.162.979.288.092.992.687.278.471.667.666.066.267.168.772.078.787.089.386.881.274.057.438.922.012.16.33.31.71.00.60.30.20.10.10.00.00.0
0.00.10.30.51.22.85.811.522.543.267.086.099.2106.7102.294.987.281.176.874.774.676.179.084.089.794.9101.098.590.177.262.241.323.112.26.03.01.50.80.50.30.20.10.10.00.00.0
0.00.10.20.41.12.96.211.622.340.463.285.498.5104.1101.694.589.185.081.879.379.281.485.089.592.596.298.895.490.578.661.841.823.011.95.92.81.30.70.40.20.10.10.00.00.00.0
0.00.00.00.10.10.31.23.36.312.323.238.257.177.590.793.792.186.984.083.182.580.580.182.285.085.887.090.390.088.585.374.358.940.122.211.25.72.71.10.50.30.20.10.10.00.00.00.0
0.00.00.10.10.10.20.41.43.46.914.030.441.855.370.679.580.181.579.779.580.480.879.178.681.084.083.983.784.080.879.377.267.856.144.022.010.75.52.81.10.50.30.20.10.10.00.00.00.0
0.00.00.10.10.10.20.30.71.84.17.815.633.044.556.069.775.974.877.076.576.577.778.777.377.279.782.481.681.481.478.277.076.165.053.242.721.611.06.03.11.40.60.30.20.10.10.10.00.00.0
0.00.00.10.10.10.20.40.61.32.55.19.317.028.943.157.171.075.075.777.376.176.677.978.677.577.880.182.882.481.882.180.678.777.565.750.835.721.912.37.03.71.91.00.50.30.20.10.10.00.00.0
0.00.10.10.10.20.40.61.01.93.46.611.619.830.844.259.671.374.375.777.277.378.379.578.477.277.679.983.385.283.982.681.680.178.269.252.536.824.414.88.74.72.51.50.80.50.30.20.10.10.00.0
0.00.00.10.10.20.30.50.91.52.54.48.014.123.135.049.462.671.676.179.779.478.278.479.678.377.478.480.283.485.183.983.785.182.380.372.859.142.428.517.810.45.93.32.01.20.70.40.30.20.10.10.00.0
0.00.10.10.20.30.40.71.21.93.15.49.716.526.639.854.366.075.882.184.682.581.580.079.577.877.278.079.782.885.185.585.486.888.483.175.663.948.032.820.912.67.24.12.51.50.90.60.30.20.10.10.10.0
0.00.00.10.10.20.30.50.91.42.33.86.411.519.730.242.557.972.082.186.586.385.183.982.379.776.675.976.678.381.384.786.787.187.888.287.480.267.151.036.624.415.18.64.93.01.91.10.70.40.30.20.10.10.0
0.20.40.61.01.72.74.47.613.021.131.244.060.675.485.089.088.987.486.082.578.776.074.675.076.879.583.887.489.388.989.288.182.169.152.837.726.116.79.95.83.52.11.30.80.50.30.20.10.10.00.0
88.881.469.053.338.326.517.710.86.53.92.31.40.90.50.30.20.10.10.10.0
PROJECT LIGHTING PLAN 2
Plot Date: 1/24/2025 File: G:\38145.00\3.0_Working\3.9_CAD\1_SheetFiles\PERMITTING\L6-01_LIGHTING PLAN.dwg Saved By: arenaud
Seal
Drawing No.
Drawing Title:
Key Map
Project Title:
Client Project No:
Drawn By:
Checked By:
Approved By:
Issue Date:11.25.2024
TS
AR, TS
AG, ZC
DRAWING ISSUE & REVISION HISTORY
No.Description Date
Sasaki Project No:
NOT FOR CONSTRUCTION
13800
38145.02
ARCHITECT + LANDSCAPE ARCHITECT
SASAKI
110 Chauncy Street
Boston, MA 02111
TEL. 617.926.3300
www.sasaki.com
CIVIL
TG MILLER
605 West State Street, Suite A
Ithaca, NY 14850
TEL. 607.272.6477
www.tgmillerpc.com
STRUCTURAL
LEMESSURIER
1380 Soldiers Field Road
Boston, MA 02135
TEL. 617.868.1200
www.lemessurier.com
MEP/FP
RFS ENGINEERING
71 Water Street
Laconia, NH 03246
TEL. 603.524.4647
www.rfsengineering.com
BUILDING AND FIRE CODE
HOWE ENGINEERS
141 Longwater Drive, Suite 110
Norwell, MA 02061
TEL. 781.878.3500
www.howeengineers.com
11/25/2024
ISSUE FOR PERMIT
Game Farm Road
Field Hockey Field
Game Farm Road | Ithaca, NY 14853
Cornell University
North Scale: 1" = 30'
FIELD HOCKEY IRRIGATION
IRRIGATION CONSULTING, INC.
30 Merritt Parkway, 2nd Floor
Nashua, NH 03062
TEL. 978.433.8972
www.irrigationconsulting.com
Feet
60300
SYMBOL DESCRIPTION
LIMIT OF WORK (LOW)
LEGEND
SPORTS LIGHT POLE, MUSCO
'LIGHT-STRUCTURE SYSTEM'
70' MOUNTING HEIGHT
SITE LIGHT POLE,
LEOTEK ARIETA LUMINAIRE,
20' MOUNTING HEIGHT
11.8 ILLUMINATION LEVEL
(FOOTCANDLE)
MATCHLINE SEE SHEET 01
MATCHLINE SEE SHEET 02
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MA
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1" = 20'
4020
01/31/2025
01.31.2025
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Luminaire Schedule
Symbol Qty Description Catalog #Tag Mounting
Height (ft)
5 SITE LIGHT POLE, TYPE 2 DISTRIBUTION AR13-48N-MV-NW-2-BK-040-BLS EP1 20
8 AR13-48N-MV-NW-4-BK-080-BLS EP2 20
1 AR13-48N-MV-NW-5-BK-055-BLS EP3 20
Calculation Summary
Grid Name Calculation Metric Units Avg Max Min Avg/Min Max/Min
Field Hockey Horizontal Illuminance Fc 81.86 97 74 1.11 1.32
4 AR13-48N-MV-NW-4-BK-080-BLS EP4 20
SITE LIGHT POLE, TYPE 4 DISTRIBUTION
SITE LIGHT POLE, TYPE 5 DISTRIBUTION
SITE DOUBLE HEAD POLE, TYPE 4 DIST.
4 TLC-LED-550 / TLC-LED-1500 F1-F4 70ATHLETIC FIELD LIGHTING
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//////////////////////////////////////////////////////////////////////////////////////////////////
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OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
8''
W
8''
W
8''
W
8''
W
8'' W
8'' W
8'' W
8'' W
8''
W
PRACTICE SOCCER BUILDING
EP2
EP1
EP1
EP1
EP2
EP2
0.00.00.00.0
0.10.10.10.00.00.00.00.00.00.0
0.10.10.10.10.00.10.10.10.10.0
0.30.20.20.10.10.10.20.20.10.00.0
0.50.30.30.20.10.10.30.30.20.10.0
0.90.50.40.20.10.20.50.60.40.10.0
1.91.00.60.30.10.41.11.30.60.10.00.00.00.00.00.00.0
3.01.30.90.30.20.92.52.20.80.10.00.00.00.00.00.10.10.10.10.00.00.00.00.00.00.00.0
1.91.00.60.30.21.13.02.20.80.10.00.00.00.00.00.00.10.10.10.30.60.60.30.20.10.10.10.10.10.10.00.0
1.00.60.40.30.20.71.71.80.70.10.10.00.00.00.00.10.10.10.20.30.51.12.42.81.40.60.30.20.10.10.20.10.10.0
0.50.40.30.20.20.40.80.90.60.10.10.10.10.10.10.10.10.20.20.40.71.52.42.41.80.80.40.20.20.20.30.30.10.0
0.40.40.30.30.20.30.50.60.40.20.10.10.10.20.20.20.20.20.30.40.50.81.11.10.90.50.30.20.20.30.50.40.20.00.0
0.40.30.30.30.30.40.50.50.40.30.20.20.20.30.30.30.30.30.30.20.20.20.20.10.20.20.10.10.10.51.00.90.40.10.0
0.40.40.40.40.50.50.50.50.40.30.30.30.30.40.40.50.40.40.30.30.20.10.10.10.10.00.00.00.10.61.82.01.00.20.0
0.40.40.50.81.21.21.00.60.40.40.40.40.50.81.11.21.00.60.40.30.20.10.10.10.10.10.10.10.10.72.03.01.50.20.0
0.40.60.71.53.23.72.21.00.60.50.40.60.71.53.23.72.20.90.50.40.20.10.10.10.10.10.10.10.10.71.92.11.00.20.0
0.30.60.82.14.24.73.01.20.60.40.30.60.82.14.24.73.01.20.70.40.20.20.20.20.30.20.20.20.20.61.01.00.40.10.0
0.10.30.51.01.82.01.30.60.40.10.10.30.51.01.82.01.30.70.40.30.30.30.30.40.40.30.30.30.20.40.50.50.20.00.0
0.00.10.20.30.60.60.40.20.10.00.00.10.20.30.60.60.40.30.20.20.30.40.60.80.80.70.50.30.30.30.30.30.10.0
0.00.00.10.10.20.20.20.10.00.00.00.00.10.10.20.20.20.10.10.30.50.61.22.32.51.60.80.50.40.20.20.10.10.0
0.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.10.20.60.82.04.24.92.91.10.60.40.10.10.10.10.0
0.00.00.10.40.71.52.73.12.10.90.50.20.10.00.00.00.0
0.00.00.10.30.50.80.90.60.30.20.10.00.0
0.00.00.10.20.30.40.30.10.10.00.0
0.00.00.10.10.10.10.00.00.0
0.00.00.00.00.00.0
Luminaire Schedule
Symbol Qty Description Catalog #Tag Mounting
Height (ft)
5 SITE LIGHT POLE, TYPE 2 DISTRIBUTION AR13-48N-MV-NW-2-BK-040-BLS EP1 20
8 AR13-48N-MV-NW-4-BK-080-BLS EP2 20
1 AR13-48N-MV-NW-5-BK-055-BLS EP3 20
Calculation Summary
Grid Name Calculation Metric Units Avg Max Min Avg/Min Max/Min
Field Hockey Horizontal Illuminance Fc 81.86 97 74 1.11 1.32
Plot Date: 1/24/2025 File: G:\38145.00\3.0_Working\3.9_CAD\1_SheetFiles\PERMITTING\L6-01_LIGHTING PLAN.dwg Saved By: arenaud
Seal
Drawing No.
Drawing Title:
Key Map
Project Title:
Client Project No:
Drawn By:
Checked By:
Approved By:
Issue Date:11.25.2024
TS
AR, TS
AG, ZC
DRAWING ISSUE & REVISION HISTORY
No.Description Date
Sasaki Project No:
NOT FOR CONSTRUCTION
13800
38145.02
ARCHITECT + LANDSCAPE ARCHITECT
SASAKI
110 Chauncy Street
Boston, MA 02111
TEL. 617.926.3300
www.sasaki.com
CIVIL
TG MILLER
605 West State Street, Suite A
Ithaca, NY 14850
TEL. 607.272.6477
www.tgmillerpc.com
STRUCTURAL
LEMESSURIER
1380 Soldiers Field Road
Boston, MA 02135
TEL. 617.868.1200
www.lemessurier.com
MEP/FP
RFS ENGINEERING
71 Water Street
Laconia, NH 03246
TEL. 603.524.4647
www.rfsengineering.com
BUILDING AND FIRE CODE
HOWE ENGINEERS
141 Longwater Drive, Suite 110
Norwell, MA 02061
TEL. 781.878.3500
www.howeengineers.com
11/25/2024
ISSUE FOR PERMIT
Game Farm Road
Field Hockey Field
Game Farm Road | Ithaca, NY 14853
Cornell University
North Scale: 1" = 30'
FIELD HOCKEY IRRIGATION
IRRIGATION CONSULTING, INC.
30 Merritt Parkway, 2nd Floor
Nashua, NH 03062
TEL. 978.433.8972
www.irrigationconsulting.com
Feet
60300
4 AR13-48N-MV-NW-4-BK-080-BLS EP4 20
SITE LIGHT POLE, TYPE 4 DISTRIBUTION
SITE LIGHT POLE, TYPE 5 DISTRIBUTION
SITE DOUBLE HEAD POLE, TYPE 4 DIST.
SYMBOL DESCRIPTION
LIMIT OF WORK (LOW)
LEGEND
SPORTS LIGHT POLE, MUSCO
'LIGHT-STRUCTURE SYSTEM'
70' MOUNTING HEIGHT
SITE LIGHT POLE,
LEOTEK ARIETA LUMINAIRE,
20' MOUNTING HEIGHT
11.8 ILLUMINATION LEVEL
(FOOTCANDLE)
PROJECT LIGHTING PLAN 3
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1" = 20'
4020
4 TLC-LED-550 / TLC-LED-1500 F1-F4 70ATHLETIC FIELD LIGHTING
01/31/2025
01.31.2025
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Appendix 7:
ECS Compliance Checklist and Memo for Restroom Building
127
ENERGY CODE SUPPLEMENT - COMPLIANCE CHECKLISTS
Version 2.1 February 2023 Page 1 of 7
Contents
Page 1 – Overview, Building Information
Compliance Checklists for Prescriptive Compliance Path/Easy Path
Page 2 – Commercial Buildings
Page 3 – Residential Buildings
Compliance Checklists for Performance-Based Compliance Path/Whole Building Path
Page 4 – Commercial Buildings
Page 6 – Residential Buildings
Overview
The checklists contained in this document are intended to help applicant teams and municipal staff plan for and
assess compliance with the Energy Code Supplement (ECS). Please attach any calculations or other materials
needed to verify information entered in this document. Additional information can be found in ECS Section 601
Compliance Documentation.
Only basic information is provided here; the full ECS document should be referred to for detailed requirements.
In addition, the ECS Reference Manual is intended to help understand and use the ECS; it contains non-essential
information such as background information and commentary.
The Energy Code Supplement applies to new construction, additions, and major renovations as described in
Section 202.1 Applicability.1
Section 202.2 Compliance provides additional compliance details for commercial, residential, and mixed-use
buildings, including additions and major renovations.
Previously planned enhanced requirements to the ECS went into effect January 1, 2023. These changes are
described in sections C404 and R504.
Building Information
To be completed by applicant.
Property Address: ____________________________________________________________________________
This property is (check one box only, see definitions in ECS) ☐ Residential ☐ Commercial
The following compliance path will be used (check one box only) ☐ Prescriptive Compliance Path/Easy Path ☐ Performance-Based Compliance Path/Whole Building Path
1 In the Town of Ithaca version of the Energy Code Supplement, all section numbers identified in this document are
preceded by “144-.”
126 Game Farm Road,Ithaca,NY 14853 [Restroom Building]
128
ENERGY CODE SUPPLEMENT - COMPLIANCE CHECKLISTS
Version 2.1 February 2023 Page 2 of 7
PRESCRIPTIVE COMPLIANCE PATH/EASY PATH - COMMERCIAL BUILDINGS
Projects must earn at least 12 points. ECS document should be consulted for complete requirements.
Applicant fills out "points proposed" column. Code Enforcement Officer fills out "points awarded" column.
Cate-
gory Improvement Code
Section
Points
Available
Points
Proposed
Points
Awarded Summary of Requirements
EE1 Heat pumps for space
heating C402.2.1 4 - 6 4 points for air source heat pumps.
6 points for ground source heat pumps.
EE2 Heat pumps for service
water heating C402.2.2 2 2 points for water heating systems that use heat
pumps.
EE3 Commercial cooking
electrification C402.2.3 6 commercial kitchens. Prerequisite: no fossil fuel
AI1 Smaller building/room size C402.3.1 1 - 2 Up to 2 points for smaller room sizes. Available
for Hotel and Residential portions only.
AI2 Heating systems in heated
space C402.3.2 1 1 point for installing heating systems in directly
heated spaces.
AI3 Efficient building shape C402.3.3 1 directly heated floor area is less than the
AI4 Right-lighting C402.3.4 1 1 point for reducing overlighting and
AI5 Modest window-to-wall
ratio C402.3.5 1 1 point for overall window-to-wall ratio less
than 20%. Individual spaces may exceed 20%.
RE1 Renewable energy systems C402.4.1 1 - 6 Up to 6 points for on-site or off-site renewable
energy systems.
RE2 Biomass systems C402.4.2 3 3 points for biomass space heating systems.
OP1 Development density C402.5.1 1 1 point for achieving sufficient development
OP2 Walkability C402.5.2 1 1 point if the building meets the walkability
OP3 Electric Vehicle Parking
Spaces C402.5.3 1 - 2 Up to 2 points for installing electric vehicle
parking spaces and related infrastructure.*
OP4 Adaptive reuse C402.5.4 1 1 point for substantial re-purpose of existing
OP5 Meet NY Stretch Code C402.5.5 1 1 point for complying with NYStretch Energy
OP6 Custom energy
improvement C402.5.6 1 - 2 Up to 2 points for reduction in energy use.
* Note: A maximum of three points total may be earned for points OP1, OP2, and OP3 combined.
EFFICIENT ELECTRIFICATION
AFFORDABILITY IMPROVEMENTS
RENEWABLE ENERGY
OTHER POINTS
TOTAL POINTS
129
ENERGY CODE SUPPLEMENT - COMPLIANCE CHECKLISTS
Version 2.1 February 2023 Page 3 of 7
PRESCRIPTIVE COMPLIANCE PATH/EASY PATH - RESIDENTIAL BUILDINGS
Projects must earn at least 12 points. ECS document should be consulted for complete requirements.
Applicant fills out "points proposed" column. Code Enforcement Officer fills out "points awarded" column.
Cate-
gory Improvement Code
Section
Points
Available
Points
Proposed
Points
Awarded Summary of Requirements
EE1 Heat pumps for space
heating R502.2.1 6 - 10 6 points for air source heat pumps.
10 points for ground source heat pumps.
EE2 Heat pumps for service
water heating R502.2.2 2 2 points for water heating systems that use heat
pumps.
EE3 Commercial cooking
electrification R502.2.3 6 commercial kitchens. Prerequisite: no fossil fuel
EE4 Residential cooking and
clothes drying electrification R502.2.4 2
2 point for electric stoves and ventless heat
pump clothes dryers. Prerequisite: no fossil fuel
use in the building.
AI1 Smaller building/room size R502.3.1 1 - 2 Up to 2 points for smaller room sizes. Available
for Hotel and Residential portions only.
AI2 Heating systems in heated
space R502.3.2 1 1 point for installing heating systems in directly
heated spaces.
AI3 Efficient building shape R502.3.3 1 directly heated floor area is less than the
AI5 Modest window-to-wall
ratio R502.3.4 1 1 point for overall window-to-wall ratio less
than 20% (individual spaces may exceed 20%).
RE1 Renewable energy systems R502.4.1 1 - 6 Up to 6 points for on-site or off-site renewable
energy systems.
RE2 Biomass systems R502.4.2 5 5 points for biomass space heating systems.
OP1 Development density R502.5.1 1 1 point for achieving sufficient development
density on the building parcel.*
OP2 Walkability R502.5.2 1 1 point if the building meets the walkability
OP3 Electric Vehicle Parking
Spaces R502.5.3 1 - 2 Up to 2 points for installing electric vehicle
parking spaces and related infrastructure.*
OP4 Adaptive reuse R502.5.4 1 1 point for substantial re-purpose of existing
OP5 Meet NY Stretch Code R502.5.5 2 2 points for complying with NYStretch Energy
OP6 Custom energy
improvement R502.5.6 1 - 2 Up to 2 points for reduction in energy use.
* Note: A maximum of three points total may be earned for points OP1, OP2, and OP3 combined.
EFFICIENT ELECTRIFICATION
AFFORDABILITY IMPROVEMENTS
RENEWABLE ENERGY
OTHER POINTS
TOTAL POINTS
130
ENERGY CODE SUPPLEMENT - COMPLIANCE CHECKLISTS
Version 2.1 February 2023 Page 4 of 7
PERFORMANCE-BASED COMPLIANCE PATH/WHOLE BUILDING PATH - COMMERCIAL BUILDINGS
Buildings must comply using one of the performance-based options summarized below. Applicant: check boxes
in left-hand column showing intended design, construction, and documentation requirements that will be met.
Code Enforcement Officer: check boxes in right-hand column verifying completed requirements.
C403.2 and C404.6.1 LEED-based and Energy Calculation-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of one of the following: ☐ ☐ LEED v4 for Building Design + Construction, 17 LEED points total in the Optimize Energy Performance credit
and the Renewable Energy Production credit of the Energy and Atmosphere section AND the building shall earn
seven points from the ECS Prescriptive Compliance Path/Easy Path, not including AI4 Right-Lighting or OP5 Meet
NYStretch Code. ☐ ☐ 80% savings relative to ASHRAE Standard 90.1-2013 or 92% savings relative to ASHRAE Standard 90.1-2010.
Documentation Requirements
Documentation shall include either: ☐ ☐ Design approval by GBCI
OR both of the following: ☐ ☐ Complete input and output reports of the energy model. ☐ ☐ Approval of the energy model by NYSERDA, U.S. Department of Energy, Energize NY, or another agency
approved by the Code Enforcement Officer.
Note: LEED certification is NOT required.
C403.3 Passive House-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of one of the following: ☐ ☐ PHIUS+ Passive Building Standard from Passive House Institute US. ☐ ☐ Passive House Classic Standard from Passive House Institute.
Documentation Requirements
Documentation shall include at least one of the following: ☐ ☐ Pre-certification letter from an Accredited Passive House Certifier. All documentation used to show
achievement of the requirements. Note: Certification is not required for this option. ☐ ☐ Documentation of Passive House certification.
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C403.4 and C404.6.2 Greenhouse Gas Emissions Calculation-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following: ☐ ☐ The building shall demonstrate a reduction in GHG emissions of not less than 80% as compared to the
baseline building. GHG emissions reductions shall be shown through energy modeling that complies with
Appendix G of ASHRAE Standard 90.1-2013. ☐ ☐ All requirements of ECS provisions C403.4.1 through C403.4.6 and C404.6.2 must be satisfied. These
provisions are too detailed to summarize here.
Documentation Requirements
Documentation shall include all of the following: ☐ ☐ A report, signed and stamped by an accredited third-party energy professional, showing the results of all
calculations, assumptions, inputs, and outputs for the energy model ☐ ☐ A letter, signed and stamped by an accredited third-party energy professional, stating that proposed total
GHG emissions for the building are at least 80% less than the GHG emissions of the baseline building.
The City/Town reserves the right to require additional documentation and/or additional third-party review and
analysis by a consultant selected by the City/Town, at the expense of the applicant. All such documentation shall
be submitted, and fee shall be paid, prior to issuance of a building permit.
C403.5 Greenhouse Gas Emissions Calculation-based Compliance for Additions
May only be used for additions that are showing compliance together with the existing building.
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following: ☐ ☐ The addition and the existing building, together as a whole, shall be shown to have lower total GHG
emissions than the original existing building. ☐ ☐ Current and proposed GHG emissions shall be calculated following the requirements of the GHG Emissions
Calculation Method (C403.4).
Documentation Requirements
Documentation shall include all of the following: ☐ ☐ An energy study of the existing building that includes energy use from at least 12 consecutive months of
the most recent 24 months at the time of building permit application. ☐ ☐ An energy study that shows anticipated energy use for the new addition and modified existing building. ☐ ☐ A report, signed and stamped by an accredited energy professional, showing the results of all calculations,
assumptions, inputs, and outputs for the energy model. ☐ ☐ A letter, signed and stamped by an accredited third-party energy professional, stating that proposed total
GHG emissions for the building and addition together are less than the GHG emissions for the existing building.
The City/Town reserves the right to require additional documentation and/or additional third-party review and
analysis by a consultant selected by the City/Town, at the expense of the applicant. All such documentation shall
be submitted, and fee shall be paid, prior to issuance of a building permit.
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PERFORMANCE-BASED COMPLIANCE PATH/WHOLE BUILDING PATH - RESIDENTIAL BUILDINGS
Buildings must comply using one of the performance-based options summarized below. Applicant: check boxes
in left-hand column showing intended design, construction, and documentation requirements that will be met.
Code Enforcement Officer: check boxes in right-hand column verifying completed requirements.
R503.2 and R504.6.1 Energy Rating Index-based Compliance
May only be used for residential buildings of not more than three stories.
Design and Construction Requirements ☐ ☐ The building shall comply with all requirements of Subsection R406 Energy Rating Index Compliance
Alternative of the 2020 Energy Conservation Construction Code of NYS (ECCCNYS R406). Where the ECS
requirements are more stringent than the requirements of ECCCNYS R406, ECS requirements shall prevail.
In addition, the building shall meet the design requirements of one of the following: ☐ ☐ The rated design shall be shown to have an Energy Rating Index (ERI) less than or equal to 20 when
compared to the ERI reference design OR ☐ ☐ The rated design shall be shown to have an Energy Rating Index (ERI) less than or equal to 40 when
compared to the ERI reference design AND the building shall earn seven points from the ECS Prescriptive
Compliance Path/Easy Path, not including AI4 Right-Lighting or OP5 Meet NYStretch Code.
Documentation Requirements ☐ ☐ Compliance documentation shall be submitted as detailed in ECCCNYS R406.
R503.3 and R504.6.2 National Green Building Standard-based compliance
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following:
☐ ☐ Using the National Green Building Standard (NGBS), the building shall earn no less than 80 NGBS Energy
Efficiency points. NGBS certification is not necessary. ☐ ☐ The building shall earn seven points from the ECS Prescriptive Compliance Path/Easy Path, not including
AI4 Right-Lighting or OP5 Meet NYStretch Code.
Documentation Requirements ☐ ☐ The design professional or energy professional documenting compliance will provide a signed statement
that the design meets the requirements of this subsection, and documentation showing compliance.
R503.4 Passive House-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of one of the following. ☐ ☐ PHIUS+ Passive Building Standard from Passive House Institute US ☐ ☐ Passive House Classic Standard from Passive House Institute
Documentation Requirements
Documentation shall include at least one of the following: ☐ ☐ Pre-certification letter from an Accredited Passive House Certifier. All documentation used to show
achievement of the requirements. Note: Certification is not required for this option. ☐ ☐ Documentation of Passive House certification.
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R503.5 and R504.6.3 Greenhouse Gas Emissions Calculation-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following: ☐ ☐ The building shall demonstrate a reduction in GHG emissions of not less than 80% as compared to the
baseline building. GHG emissions reductions shall be shown through energy modeling that complies with
Appendix G of ASHRAE Standard 90.1-2013 (for residential buildings four stories and greater and all mixed-use
buildings classified as residential) or RESNET-HERS (for residential buildings of not more than three stories). ☐ ☐ All requirements of ECS provisions R503.5.1 through R503.5.6 and R504.6.3 must be satisfied. These
provisions are too detailed to summarize here.
Documentation Requirements
Documentation shall include all of the following: ☐ ☐ A report, signed and stamped by an accredited third-party energy professional, showing the results of all
calculations, assumptions, inputs, and outputs for the energy model ☐ ☐ A letter, signed and stamped by an accredited third-party energy professional, stating that proposed total
GHG emissions for the building are at least 80% less than the GHG emissions of the baseline building.
The City/Town reserves the right to require additional documentation and/or additional third-party review and
analysis by a consultant selected by the City/Town, at the expense of the applicant. All such documentation shall
be submitted, and fee shall be paid, prior to issuance of a building permit.
R503.6 Greenhouse Gas Emissions Calculation-based Compliance for Additions
May only be used for additions that are showing compliance together with the existing building.
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following: ☐ ☐ The addition and the existing building, together as a whole, shall be shown to have lower total GHG
emissions than the original existing building. ☐ ☐ Current and proposed GHG emissions shall be calculated following the requirements of the GHG Emissions
Calculation Method (R503.5).
Documentation Requirements
Documentation shall include all of the following: ☐ ☐ An energy study of the existing building that includes energy use from at least 12 consecutive months of
the most recent 24 months at the time of building permit application. ☐ ☐ An energy study that shows anticipated energy use for the new addition and modified existing building. ☐ ☐ A report, signed and stamped by an accredited energy professional, showing the results of all calculations,
assumptions, inputs, and outputs for the energy model, and ☐ ☐ A letter, signed and stamped by an accredited third-party energy professional, stating that proposed total
GHG emissions for the building and addition together are less than the GHG emissions for the existing building.
The City/Town reserves the right to require additional documentation and/or additional third-party review and
analysis by a consultant selected by the City/Town, at the expense of the applicant. All such documentation shall
be submitted, and fee shall be paid, prior to issuance of a building permit.
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Memorandum
Date: December 17, 2024
Job No.: R24-10426.001
To: Lee Robert, Sasaki
From: Ellee Mallia, Rist-Frost-Shumway Engineering
Re: Cornell University – New Field Hockey Field – Restroom Building Base and Alternate,
IECS Code Compliance Path
Lee:
Included below is a discussion of the recommended compliance path to meet the requirements of the
Ithaca Energy Code Supplement (IECS) for the Restroom Building of the new Field Hockey Field on Game
Farm Road. The IECS establishes a local energy code supplement with requirements above and beyond
the state energy code. The requirements give priority to electrification, renewable energy, and
affordability. Each project following the prescriptive compliance path/easy path must achieve 12 points
from the C404.5 summary table, included as Attachment A.
In Attachment A, the points that have been grayed out are not applicable for this building type/location.
The points intended to be pursued for code compliance are highlighted in green. The applicable point
sections are detailed below.
EE1 - Heat Pumps for Space Heating
C402.2.1.1
Only air source heat pumps or ground source heat pumps shall be used for all space-heating needs,
with exceptions for electric resistance heating as described in section 402.2.1.4. A heating system that
uses only air source heat pumps or uses a combination of air source and ground source heat pumps
(and electric resistance heating as allowed) shall earn four points.
C402.2.1.4
To allow flexibility, electric resistance heat is allowed for a portion of space heating needs. Applicants
shall submit documentation showing that at least one of the following conditions is met.
1) Stand-alone electric resistance heating (not associated with heat pumps) is used to heat 10% or
less of the building’s heated floor area.
2) Stand-alone electric resistance heating (not associated with heat pumps) is used to meet 10% or
less of the building’s projected annual space heating load.
Based on the design in Addendum #1, dated December 18, 2024, the current mechanical design for
both the base and the alternate options includes heat pumps and will therefore earn 4 points under
section EE1.
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AI2 - Heating Systems in Heated Places
C402.3.2.1
All components of heating systems shall be installed inside space that meets all the following criteria:
1) Inside the BUILDING THERMAL ENVELOPE
2) DIRECTLY HEATED SPACE
3) LIVABLE SPACE, OCCUPIABLE SPACE or contiguous to LIVABLE SPACE or OCCUPIABLE SPACE
4) On a building level where at least 50% of the FLOOR AREA is DIRECTLY HEATED FLOOR AREA
Based on the design in Addendum #1, dated December 18, 2024, the current mechanical design
locates all components of the heating systems within the thermal envelope and will therefore earn 1
point under section AI2 for both the base design and the alternate design.
AI3 - Efficient Building Shape
C402.3.3.1
The exterior surface area divided by the directly heated floor area shall be less than the maximum value
provided in Table C402.3.3.1. Per Table C402.3.3.1, buildings with a directly heated floor area between
400-499 square feet must have an exterior surface area to directly heated floor area ratio of less than
3.17.
RESTROOM BUILDING
Directly heated floor area: 465 sf
Exterior surface area: 465 + 2* (216 + 336) = 1,569 sf
Ratio: 1,569 / 465 = 3.37
As the ratio surpasses the maximum allowed, the project does not achieve the 1 point available under
section AI3.
Alternatively, per Table C402.3.3.1, buildings with a directly heated floor area between 1,500-1,599
square feet must have an exterior surface area to directly heated floor area ratio of less than 2.13.
RESTROOM BUILDING (ALTERNATE)
Directly heated floor area: 1,583 sf
Exterior surface area: 1,583 + 194 * 12 = 3,911 sf
Ratio: 3,911 / 1,583 = 2.47
As the ratio surpasses the maximum allowed, the project does not achieve the 1 point available under
section AI3.
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AI4 - Right-Lighting
C402.3.4.2 Lighting Power Allowance
The total connected interior lighting power shall not be greater than the interior lighting power
allowance. The total connected interior lighting power shall be calculated using the method described in
the Energy Conservation Construction Code of NYS. The total interior lighting power allowance, in watts,
shall be determined according to Table AA1 (Appendix A), for all areas of the building covered in this
permit. The lighting power allowance (LPA) shall be determined by multiplying the floor area of each
space times the lighting power density (LPD) value for the space type in Table AA1 that most closely
represents the proposed use of the space, and then summing the lighting power allowances for all
spaces to calculate the total interior lighting power allowance. Trade-offs among spaces are permitted.
Construction documents shall include a table of space-by-space as-designed lighting power densities
along with the lighting power allowances from Table AA1.
RESTROOM BUILDING
Design LPD: 172.8 W / 390 sf = 0.443 W/sf
LPA: 0.485 W/sf
LPD < LPA
RESTROOM BUILDING (ALTERNATE)
Design LPD: 567.5 W / 1,430 sf = 0.397 W/sf
LPA: 0.411 W/sf
LPD < LPA
Based on the design in Addendum #1, dated December 18, 2024, the current lighting design will earn
1 point under section AI4 for either design option as the designed lighting power density is below the
lighting power allowance. Note that the areas used to calculate the LPDs in this section are based on the
sum of the room areas, excluding the interior walls, whereas the larger areas used in the other sections
included the full floor plates, inclusive of the interior walls.
A15 - Modest Window-to-Wall Ratio
C402.3.5.1
The vertical fenestration area, not including opaque doors and opaque spandrel panels, shall be not
greater than 20 percent of the gross above-grade wall area.
RESTROOM BUILDING
Vertical fenestration: 0 sf
Exterior surface area: 1,568 sf
0 / 1,568 = 0%
RESTROOM BUILDING (ALTERNATE)
Vertical fenestration: 150 sf
Exterior surface area: 3,911 sf
150 / 3,911 = 4%
Based on the design in Addendum #1, dated December 18, 2024, the current architectural design for
both design options will earn 1 point under section AI5 due to a window-to-wall ratio below 20%.
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RE1 - Renewable Energy Systems
C402.4.1.1
On-site and off-site renewable energy systems that meet the requirements of this section shall earn up to
six points based on their annual electrical or thermal energy production. Multiple renewable energy
systems may be used to earn points, but no more than six total points may be earned for any
combination of renewable energy systems.
Equation 4-2:
Minimum Renewable Energy Production needed to earn each point = (2.4 kWh/ft2 x CA)
where
CA = Directly heated floor area of Commercial space (ft2)
RESTROOM BUILDING
Directly heated floor area: 465 sf
1 POINT: 1,116 kWh
2 POINTS: 2,232 kWh
3 POINTS: 3,348 kWh
4 POINTS: 4,464 kWh
5 POINTS: 5,580 kWh
6 POINTS: 6,696 kWh
To achieve the requisite total of 12 points, 5 points will need to be achieved under section RE5.
Therefore, 5,580 kWh will need to be allocated from Cornell's Renewable Energy Portfolio annually.
RESTROOM BUILDING (ALTERNATE)
Directly heated floor area: 1,583 sf
1 POINT: 3,799 kWh
2 POINTS: 7,598 kWh
3 POINTS: 11,398 kWh
4 POINTS: 15,197 kWh
5 POINTS: 18,996 kWh
6 POINTS: 22,795 kWh
To achieve 12 points, 5 points will need to be achieved under section RE5. Therefore, 18,996 kWh will
need to be allocated from Cornell's Renewable Energy Portfolio annually.
Renewable energy can be allocated from Cornell's Renewable Energy Portfolio.
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OP1 – Development Density
C402.5.1.1
One point shall be earned if (CA) > (7 x Acreage), where:
CA = the floor area of all Commercial space, measured in units of 1,000 square feet, on the
entire parcel occupied by the building
Acreage = the land area, measured in acres, of the entire parcel occupied by the building.
C402.5.1.2
CA shall include all Commercial space on the parcel occupied by the building, including that in
existing buildings. Acreage shall include all land area on the parcel occupied by the building.
RESTROOM BUILDING
CA = 465/1,000 = 0.465
Acreage = 2.0
0.465 < 7 x 2
RESTROOM BUILDING (ALTERNATE)
CA = 1,583 /1,000 = 1.583
Acreage = 2.0
1.583 < 7 x 2
The required density has not been achieved on site for either design option. Therefore, the project will
not earn points under section OP1.
C402.5.2 OP2 Walkability
One point may be earned according to the requirements below.
This point shall be earned when the following condition is met, in addition to the other
requirements in this section C402.5.2.
1) The building is within one quarter (0.25) mile of at least five of the Neighborhood Amenity
Types listed in Table C402.5.2.1.
a. No single Amenity Type shall be counted more than twice, even when more than two
examples of the Amenity Type exist. For example, a building on Aurora Street’s “Restaurant
Row” could count two restaurants maximum.
b. At least two Amenity Categories shall be represented.
c. The one quarter mile measurement(s) may be taken from any part(s) of the building.
The site does not fulfill these requirements and therefore, the project will not earn points under section
OP2.
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OP3 - Electric Vehicle Parking Spaces
C402.5.3.1 Required Number of EV Parking Spaces
The number of required EV parking spaces shall be determined using Table C402.5.3.1(1), based on the
number of Residential Dwelling Units (DU) and the area of Commercial space (CA). Up to two points
may be earned for installing ELECTRIC VEHICLE PARKING SPACE(s) and related
infrastructure that meets the requirements of this section.
RESTROOM BUILDING
Directly heated floor area: 465 sf
SC = 0.151 * (465/1,000) = 0.07
1 EV parking spot would result in 2 points.
Based on the design in Addendum #1, dated December 18, 2024, EV parking spaces are not included
in the project. Therefore, the project will not earn points under section OP3.
RESTROOM BUILDING (ALTERNATE)
Directly heated floor area: 1,583 sf
SC = 0.151 * (1,583/1,000) = 0.24
1 EV parking spot would result in 2 points.
Based on the design in Addendum #1, dated December 18, 2024, EV parking spaces are not included
in the project. Therefore, the project will not earn points under section OP3.
OP5 - Meet NY Stretch Code
C402.5.5.1
The building shall comply with all requirements of the NYStretch Energy Code - 2020 Version 1.0.
The project has not been designed to meet stretch code and therefore, will not earn points under section
OP5.
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OP6 - Custom Energy Improvement
C402.5.6.1
To earn one point, both of the following conditions must be met:
- Reduce energy use by 2.4 kWh/SF/year or 8.2 kbtu/SF/year for all commercial HEATED FLOOR AREA
in the building compared to a baseline building. Requires energy model (not in scope).
C402.5.6.2
To earn two points, both of the following conditions must be met:
- Reduce energy use by 4.8 kWh/SF/year or 16.4 kbtu/SF/year for all commercial HEATED FLOOR AREA
in the building compared to a baseline building. Requires energy model (not in scope).
RESTROOM BUILDING
Directly heated floor area: 465 sf
1 Point: Reduction of 1,116 kWh/year compared to the baseline building
2 Points: Reduction of 2,232 kWh/year compared to the baseline building
RESTROOM BUILDING (ALTERNATE)
Directly heated floor area: 1,583 sf
1 Point: Reduction of 3,800 kWh/year compared to the baseline building
2 Points: Reduction of 7,600 kWh/year compared to the baseline building
At this time, points under category OP6 are not being pursued. Should an energy model be completed
for this project, it is not guaranteed that either option would earn points.
Summary
Both design options are on track to achieve compliance with the Ithaca Energy Code Supplement when 5
points are achieved via the Renewable Energy credit. For the base design, 5,580 kWh will need to be
allocated from Cornell's Renewable Energy Portfolio annually. For the alternate design, 18,996 kWh will
need to be allocated from Cornell's Renewable Energy Portfolio annually.
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Appendix 8:
ECS Compliance Checklist and Memo for Press Box Building
143
Ithaca Energy Code Supplement Amendment 2 - City of Ithaca 35
C404.5 Changes in 2023 to Summary Table for Prescriptive Compliance Path/Easy Path –
Amendment 2, Effective February 1, 2023
4
POINTS
3
POINTS
5
POINTS
0
POINTS
Attachment A
Compliance Pathway Not Applicable
5
TOTAL:
12
POINTS
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Contents
Page 1 – Overview, Building Information
Compliance Checklists for Prescriptive Compliance Path/Easy Path
Page 2 – Commercial Buildings
Page 3 – Residential Buildings
Compliance Checklists for Performance-Based Compliance Path/Whole Building Path
Page 4 – Commercial Buildings
Page 6 – Residential Buildings
Overview
The checklists contained in this document are intended to help applicant teams and municipal staff plan for and
assess compliance with the Energy Code Supplement (ECS). Please attach any calculations or other materials
needed to verify information entered in this document. Additional information can be found in ECS Section 601
Compliance Documentation.
Only basic information is provided here; the full ECS document should be referred to for detailed requirements.
In addition, the ECS Reference Manual is intended to help understand and use the ECS; it contains non-essential
information such as background information and commentary.
The Energy Code Supplement applies to new construction, additions, and major renovations as described in
Section 202.1 Applicability.1
Section 202.2 Compliance provides additional compliance details for commercial, residential, and mixed-use
buildings, including additions and major renovations.
Previously planned enhanced requirements to the ECS went into effect January 1, 2023. These changes are
described in sections C404 and R504.
Building Information
To be completed by applicant.
Property Address: ____________________________________________________________________________
This property is (check one box only, see definitions in ECS) ☐ Residential ☐ Commercial
The following compliance path will be used (check one box only) ☐ Prescriptive Compliance Path/Easy Path ☐ Performance-Based Compliance Path/Whole Building Path
1 In the Town of Ithaca version of the Energy Code Supplement, all section numbers identified in this document are
preceded by “144-.”
126 Game Farm Road,Ithaca,NY 14853 [Press Box Building]
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Version 2.1 February 2023 Page 2 of 7
PRESCRIPTIVE COMPLIANCE PATH/EASY PATH - COMMERCIAL BUILDINGS
Projects must earn at least 12 points. ECS document should be consulted for complete requirements.
Applicant fills out "points proposed" column. Code Enforcement Officer fills out "points awarded" column.
Cate-
gory Improvement Code
Section
Points
Available
Points
Proposed
Points
Awarded Summary of Requirements
EE1 Heat pumps for space
heating C402.2.1 4 - 6 4 points for air source heat pumps.
6 points for ground source heat pumps.
EE2 Heat pumps for service
water heating C402.2.2 2 2 points for water heating systems that use heat
pumps.
EE3 Commercial cooking
electrification C402.2.3 6 commercial kitchens. Prerequisite: no fossil fuel
AI1 Smaller building/room size C402.3.1 1 - 2 Up to 2 points for smaller room sizes. Available
for Hotel and Residential portions only.
AI2 Heating systems in heated
space C402.3.2 1 1 point for installing heating systems in directly
heated spaces.
AI3 Efficient building shape C402.3.3 1 directly heated floor area is less than the
AI4 Right-lighting C402.3.4 1 1 point for reducing overlighting and
AI5 Modest window-to-wall
ratio C402.3.5 1 1 point for overall window-to-wall ratio less
than 20%. Individual spaces may exceed 20%.
RE1 Renewable energy systems C402.4.1 1 - 6 Up to 6 points for on-site or off-site renewable
energy systems.
RE2 Biomass systems C402.4.2 3 3 points for biomass space heating systems.
OP1 Development density C402.5.1 1 1 point for achieving sufficient development
OP2 Walkability C402.5.2 1 1 point if the building meets the walkability
OP3 Electric Vehicle Parking
Spaces C402.5.3 1 - 2 Up to 2 points for installing electric vehicle
parking spaces and related infrastructure.*
OP4 Adaptive reuse C402.5.4 1 1 point for substantial re-purpose of existing
OP5 Meet NY Stretch Code C402.5.5 1 1 point for complying with NYStretch Energy
OP6 Custom energy
improvement C402.5.6 1 - 2 Up to 2 points for reduction in energy use.
* Note: A maximum of three points total may be earned for points OP1, OP2, and OP3 combined.
EFFICIENT ELECTRIFICATION
AFFORDABILITY IMPROVEMENTS
RENEWABLE ENERGY
OTHER POINTS
TOTAL POINTS
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PRESCRIPTIVE COMPLIANCE PATH/EASY PATH - RESIDENTIAL BUILDINGS
Projects must earn at least 12 points. ECS document should be consulted for complete requirements.
Applicant fills out "points proposed" column. Code Enforcement Officer fills out "points awarded" column.
Cate-
gory Improvement Code
Section
Points
Available
Points
Proposed
Points
Awarded Summary of Requirements
EE1 Heat pumps for space
heating R502.2.1 6 - 10 6 points for air source heat pumps.
10 points for ground source heat pumps.
EE2 Heat pumps for service
water heating R502.2.2 2 2 points for water heating systems that use heat
pumps.
EE3 Commercial cooking
electrification R502.2.3 6 commercial kitchens. Prerequisite: no fossil fuel
EE4 Residential cooking and
clothes drying electrification R502.2.4 2
2 point for electric stoves and ventless heat
pump clothes dryers. Prerequisite: no fossil fuel
use in the building.
AI1 Smaller building/room size R502.3.1 1 - 2 Up to 2 points for smaller room sizes. Available
for Hotel and Residential portions only.
AI2 Heating systems in heated
space R502.3.2 1 1 point for installing heating systems in directly
heated spaces.
AI3 Efficient building shape R502.3.3 1 directly heated floor area is less than the
AI5 Modest window-to-wall
ratio R502.3.4 1 1 point for overall window-to-wall ratio less
than 20% (individual spaces may exceed 20%).
RE1 Renewable energy systems R502.4.1 1 - 6 Up to 6 points for on-site or off-site renewable
energy systems.
RE2 Biomass systems R502.4.2 5 5 points for biomass space heating systems.
OP1 Development density R502.5.1 1 1 point for achieving sufficient development
density on the building parcel.*
OP2 Walkability R502.5.2 1 1 point if the building meets the walkability
OP3 Electric Vehicle Parking
Spaces R502.5.3 1 - 2 Up to 2 points for installing electric vehicle
parking spaces and related infrastructure.*
OP4 Adaptive reuse R502.5.4 1 1 point for substantial re-purpose of existing
OP5 Meet NY Stretch Code R502.5.5 2 2 points for complying with NYStretch Energy
OP6 Custom energy
improvement R502.5.6 1 - 2 Up to 2 points for reduction in energy use.
* Note: A maximum of three points total may be earned for points OP1, OP2, and OP3 combined.
EFFICIENT ELECTRIFICATION
AFFORDABILITY IMPROVEMENTS
RENEWABLE ENERGY
OTHER POINTS
TOTAL POINTS
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PERFORMANCE-BASED COMPLIANCE PATH/WHOLE BUILDING PATH - COMMERCIAL BUILDINGS
Buildings must comply using one of the performance-based options summarized below. Applicant: check boxes
in left-hand column showing intended design, construction, and documentation requirements that will be met.
Code Enforcement Officer: check boxes in right-hand column verifying completed requirements.
C403.2 and C404.6.1 LEED-based and Energy Calculation-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of one of the following: ☐ ☐ LEED v4 for Building Design + Construction, 17 LEED points total in the Optimize Energy Performance credit
and the Renewable Energy Production credit of the Energy and Atmosphere section AND the building shall earn
seven points from the ECS Prescriptive Compliance Path/Easy Path, not including AI4 Right-Lighting or OP5 Meet
NYStretch Code. ☐ ☐ 80% savings relative to ASHRAE Standard 90.1-2013 or 92% savings relative to ASHRAE Standard 90.1-2010.
Documentation Requirements
Documentation shall include either: ☐ ☐ Design approval by GBCI
OR both of the following: ☐ ☐ Complete input and output reports of the energy model. ☐ ☐ Approval of the energy model by NYSERDA, U.S. Department of Energy, Energize NY, or another agency
approved by the Code Enforcement Officer.
Note: LEED certification is NOT required.
C403.3 Passive House-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of one of the following: ☐ ☐ PHIUS+ Passive Building Standard from Passive House Institute US. ☐ ☐ Passive House Classic Standard from Passive House Institute.
Documentation Requirements
Documentation shall include at least one of the following: ☐ ☐ Pre-certification letter from an Accredited Passive House Certifier. All documentation used to show
achievement of the requirements. Note: Certification is not required for this option. ☐ ☐ Documentation of Passive House certification.
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ENERGY CODE SUPPLEMENT - COMPLIANCE CHECKLISTS
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C403.4 and C404.6.2 Greenhouse Gas Emissions Calculation-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following: ☐ ☐ The building shall demonstrate a reduction in GHG emissions of not less than 80% as compared to the
baseline building. GHG emissions reductions shall be shown through energy modeling that complies with
Appendix G of ASHRAE Standard 90.1-2013. ☐ ☐ All requirements of ECS provisions C403.4.1 through C403.4.6 and C404.6.2 must be satisfied. These
provisions are too detailed to summarize here.
Documentation Requirements
Documentation shall include all of the following: ☐ ☐ A report, signed and stamped by an accredited third-party energy professional, showing the results of all
calculations, assumptions, inputs, and outputs for the energy model ☐ ☐ A letter, signed and stamped by an accredited third-party energy professional, stating that proposed total
GHG emissions for the building are at least 80% less than the GHG emissions of the baseline building.
The City/Town reserves the right to require additional documentation and/or additional third-party review and
analysis by a consultant selected by the City/Town, at the expense of the applicant. All such documentation shall
be submitted, and fee shall be paid, prior to issuance of a building permit.
C403.5 Greenhouse Gas Emissions Calculation-based Compliance for Additions
May only be used for additions that are showing compliance together with the existing building.
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following: ☐ ☐ The addition and the existing building, together as a whole, shall be shown to have lower total GHG
emissions than the original existing building. ☐ ☐ Current and proposed GHG emissions shall be calculated following the requirements of the GHG Emissions
Calculation Method (C403.4).
Documentation Requirements
Documentation shall include all of the following: ☐ ☐ An energy study of the existing building that includes energy use from at least 12 consecutive months of
the most recent 24 months at the time of building permit application. ☐ ☐ An energy study that shows anticipated energy use for the new addition and modified existing building. ☐ ☐ A report, signed and stamped by an accredited energy professional, showing the results of all calculations,
assumptions, inputs, and outputs for the energy model. ☐ ☐ A letter, signed and stamped by an accredited third-party energy professional, stating that proposed total
GHG emissions for the building and addition together are less than the GHG emissions for the existing building.
The City/Town reserves the right to require additional documentation and/or additional third-party review and
analysis by a consultant selected by the City/Town, at the expense of the applicant. All such documentation shall
be submitted, and fee shall be paid, prior to issuance of a building permit.
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ENERGY CODE SUPPLEMENT - COMPLIANCE CHECKLISTS
Version 2.1 February 2023 Page 6 of 7
PERFORMANCE-BASED COMPLIANCE PATH/WHOLE BUILDING PATH - RESIDENTIAL BUILDINGS
Buildings must comply using one of the performance-based options summarized below. Applicant: check boxes
in left-hand column showing intended design, construction, and documentation requirements that will be met.
Code Enforcement Officer: check boxes in right-hand column verifying completed requirements.
R503.2 and R504.6.1 Energy Rating Index-based Compliance
May only be used for residential buildings of not more than three stories.
Design and Construction Requirements ☐ ☐ The building shall comply with all requirements of Subsection R406 Energy Rating Index Compliance
Alternative of the 2020 Energy Conservation Construction Code of NYS (ECCCNYS R406). Where the ECS
requirements are more stringent than the requirements of ECCCNYS R406, ECS requirements shall prevail.
In addition, the building shall meet the design requirements of one of the following: ☐ ☐ The rated design shall be shown to have an Energy Rating Index (ERI) less than or equal to 20 when
compared to the ERI reference design OR ☐ ☐ The rated design shall be shown to have an Energy Rating Index (ERI) less than or equal to 40 when
compared to the ERI reference design AND the building shall earn seven points from the ECS Prescriptive
Compliance Path/Easy Path, not including AI4 Right-Lighting or OP5 Meet NYStretch Code.
Documentation Requirements ☐ ☐ Compliance documentation shall be submitted as detailed in ECCCNYS R406.
R503.3 and R504.6.2 National Green Building Standard-based compliance
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following:
☐ ☐ Using the National Green Building Standard (NGBS), the building shall earn no less than 80 NGBS Energy
Efficiency points. NGBS certification is not necessary. ☐ ☐ The building shall earn seven points from the ECS Prescriptive Compliance Path/Easy Path, not including
AI4 Right-Lighting or OP5 Meet NYStretch Code.
Documentation Requirements ☐ ☐ The design professional or energy professional documenting compliance will provide a signed statement
that the design meets the requirements of this subsection, and documentation showing compliance.
R503.4 Passive House-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of one of the following. ☐ ☐ PHIUS+ Passive Building Standard from Passive House Institute US ☐ ☐ Passive House Classic Standard from Passive House Institute
Documentation Requirements
Documentation shall include at least one of the following: ☐ ☐ Pre-certification letter from an Accredited Passive House Certifier. All documentation used to show
achievement of the requirements. Note: Certification is not required for this option. ☐ ☐ Documentation of Passive House certification.
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R503.5 and R504.6.3 Greenhouse Gas Emissions Calculation-based Compliance
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following: ☐ ☐ The building shall demonstrate a reduction in GHG emissions of not less than 80% as compared to the
baseline building. GHG emissions reductions shall be shown through energy modeling that complies with
Appendix G of ASHRAE Standard 90.1-2013 (for residential buildings four stories and greater and all mixed-use
buildings classified as residential) or RESNET-HERS (for residential buildings of not more than three stories). ☐ ☐ All requirements of ECS provisions R503.5.1 through R503.5.6 and R504.6.3 must be satisfied. These
provisions are too detailed to summarize here.
Documentation Requirements
Documentation shall include all of the following: ☐ ☐ A report, signed and stamped by an accredited third-party energy professional, showing the results of all
calculations, assumptions, inputs, and outputs for the energy model ☐ ☐ A letter, signed and stamped by an accredited third-party energy professional, stating that proposed total
GHG emissions for the building are at least 80% less than the GHG emissions of the baseline building.
The City/Town reserves the right to require additional documentation and/or additional third-party review and
analysis by a consultant selected by the City/Town, at the expense of the applicant. All such documentation shall
be submitted, and fee shall be paid, prior to issuance of a building permit.
R503.6 Greenhouse Gas Emissions Calculation-based Compliance for Additions
May only be used for additions that are showing compliance together with the existing building.
Design and Construction Requirements
Buildings shall meet the design requirements of all of the following: ☐ ☐ The addition and the existing building, together as a whole, shall be shown to have lower total GHG
emissions than the original existing building. ☐ ☐ Current and proposed GHG emissions shall be calculated following the requirements of the GHG Emissions
Calculation Method (R503.5).
Documentation Requirements
Documentation shall include all of the following: ☐ ☐ An energy study of the existing building that includes energy use from at least 12 consecutive months of
the most recent 24 months at the time of building permit application. ☐ ☐ An energy study that shows anticipated energy use for the new addition and modified existing building. ☐ ☐ A report, signed and stamped by an accredited energy professional, showing the results of all calculations,
assumptions, inputs, and outputs for the energy model, and ☐ ☐ A letter, signed and stamped by an accredited third-party energy professional, stating that proposed total
GHG emissions for the building and addition together are less than the GHG emissions for the existing building.
The City/Town reserves the right to require additional documentation and/or additional third-party review and
analysis by a consultant selected by the City/Town, at the expense of the applicant. All such documentation shall
be submitted, and fee shall be paid, prior to issuance of a building permit.
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Laconia, NH | Boston, MA | Portland, ME
Memorandum
Date: December 17, 2024
Job No.: R24-10426.001
To: Lee Robert, Sasaki
From: Ellee Mallia, Rist-Frost-Shumway Engineering
Re: Cornell University – New Field Hockey Field – Press Box, IECS Code Compliance Path
Lee:
Included below is a discussion of the recommended compliance path to meet the requirements of the
Ithaca Energy Code Supplement (IECS) for the Press Box at the new Field Hockey Field on Game Farm
Road. The IECS establishes a local energy code supplement with requirements above and beyond the
state energy code. The requirements give priority to electrification, renewable energy, and affordability.
Each project following the prescriptive compliance path/easy path must achieve 12 points from the
C404.5 summary table, included as Attachment A.
In Attachment A, the points that have been grayed out are not applicable for this building type/location.
The points intended to be pursued for code compliance are highlighted in green. The applicable point
sections are detailed below.
EE1 - Heat Pumps for Space Heating
C402.2.1.1
Only air source heat pumps or ground source heat pumps shall be used for all space-heating needs,
with exceptions for electric resistance heating as described in section 402.2.1.4. A heating system that
uses only air source heat pumps or uses a combination of air source and ground source heat pumps
(and electric resistance heating as allowed) shall earn four points.
C402.2.1.4
To allow flexibility, electric resistance heat is allowed for a portion of space heating needs. Applicants
shall submit documentation showing that at least one of the following conditions is met.
1) Stand-alone electric resistance heating (not associated with heat pumps) is used to heat 10% or
less of the building’s heated floor area.
2) Stand-alone electric resistance heating (not associated with heat pumps) is used to meet 10% or
less of the building’s projected annual space heating load.
Based on the design in Addendum #1, dated December 18, 2024, the current mechanical design
includes heat pumps and will therefore earn 4 points under section EE1.
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Laconia, NH | Boston, MA | Portland, ME
AI2 - Heating Systems in Heated Places
C402.3.2.1
All components of heating systems shall be installed inside space that meets all the following criteria:
1) Inside the BUILDING THERMAL ENVELOPE
2) DIRECTLY HEATED SPACE
3) LIVABLE SPACE, OCCUPIABLE SPACE or contiguous to LIVABLE SPACE or OCCUPIABLE SPACE
4) On a building level where at least 50% of the FLOOR AREA is DIRECTLY HEATED FLOOR AREA
Based on the design in Addendum #1, dated December 18, 2024, the current mechanical design
locates all components of the heating systems within the thermal envelope and will therefore earn 1
point under section AI2.
AI3 - Efficient Building Shape
C402.3.3.1
The exterior surface area divided by the directly heated floor area shall be less than the maximum value
provided in Table C402.3.3.1. Per Table C402.3.3.1, buildings with a directly heated floor area between
400-499 square feet must have an exterior surface area to directly heated floor area ratio of less than
3.17.
PRESS BOX
Directly heated floor area: 400 sf
Exterior surface area: 200 + 2* (195 + 494) = 1,578 sf
Ratio: 1,578 / 400 = 3.95
3.95 > 3.17
As the ratio surpasses the maximum allowed, the project does not achieve the 1 point available under
section AI3.
A14 - Right-Lighting
C402.3.4.2 Lighting Power Allowance
The total connected interior lighting power shall not be greater than the interior lighting power
allowance. The total connected interior lighting power shall be calculated using the method described in
the Energy Conservation Construction Code of NYS. The total interior lighting power allowance, in watts,
shall be determined according to Table AA1 (Appendix A), for all areas of the building covered in this
permit. The lighting power allowance shall be determined by multiplying the floor area of each space
times the lighting power density (LPD) value for the space type in Table AA1 that most closely represents
the proposed use of the space, and then summing the lighting power allowances for all spaces to
calculate the total interior lighting power allowance. Trade-offs among spaces are permitted.
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Construction documents shall include a table of space-by-space as-designed lighting power densities
along with the lighting power allowances from Table AA1.
PRESS BOX
LPA: 0.62 W/sf (for a meeting room space type from Table AA1)
The press box is a prefabricated construction and the lighting power density will be coordinated not to
surpass the lighting power allowance. Therefore, the building will be eligible to earn 1 point under
section AI4.
A15 - Modest Window-to-Wall Ratio
C402.3.5.1
The vertical fenestration area, not including opaque doors and opaque spandrel panels, shall be not
greater than 20 percent of the gross above-grade wall area.
PRESS BOX
Vertical fenestration: 164 sf
Above grade wall area: 1,378 sf
164 / 1,378 = 12%
Based on the design in Addendum #1, dated December 18, 2024, the current architectural design will
earn 1 point under section AI5 due to a window-to-wall ratio below 20%.
RE1 - Renewable Energy Systems
C402.4.1.1
On-site and off-site renewable energy systems that meet the requirements of this section shall earn up to
six points based on their annual electrical or thermal energy production. Multiple renewable energy
systems may be used to earn points, but no more than six total points may be earned for any
combination of renewable energy systems.
Equation 4-2: Minimum Renewable Energy Production needed to earn each point =
(2.4 kWh/ft2 x CA)
where
CA = Directly heated floor area of Commercial space (ft2)
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PRESS BOX
Directly heated floor area: 400 sf
1 POINT: 960 kWh
2 POINTS: 1,920 kWh
3 POINTS: 2,880 kWh
4 POINTS: 3,840 kWh
5 POINTS: 4,800 kWh
6 POINTS: 5,760 kWh
Renewable energy can be allocated from Cornell's Renewable Energy Portfolio.
To achieve the requisite total of 12 points, 5 points will need to be achieved under section RE5.
Therefore, 4,800 kWh will need to be allocated from Cornell's Renewable Energy Portfolio annually.
OP1 – Development Density
C402.5.1.1
One point shall be earned if (CA) > (7 x Acreage), where:
CA = the floor area of all Commercial space, measured in units of 1,000 square feet, on the
entire parcel occupied by the building
Acreage = the land area, measured in acres, of the entire parcel occupied by the building.
C402.5.1.2
CA shall include all Commercial space on the parcel occupied by the building, including that in
existing buildings. Acreage shall include all land area on the parcel occupied by the building.
CA = 400/1,000 = 0.4
Acreage = 2.0
0.4 < 7 x 2
The required density has not been achieved on site. Therefore, the project will not earn points under
section OP1.
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C402.5.2 OP2 Walkability
One point may be earned according to the requirements below.
This point shall be earned when the following condition is met, in addition to the other
requirements in this section C402.5.2.
1) The building is within one quarter (0.25) mile of at least five of the Neighborhood Amenity
Types listed in Table C402.5.2.1.
a. No single Amenity Type shall be counted more than twice, even when more than two
examples of the Amenity Type exist. For example, a building on Aurora Street’s “Restaurant
Row” could count two restaurants maximum.
b. At least two Amenity Categories shall be represented.
c. The one quarter mile measurement(s) may be taken from any part(s) of the building.
The site does not fulfill these requirements and therefore, the project will not earn points under section
OP2.
OP3 - Electric Vehicle Parking Spaces
C402.5.3.1 Required Number of EV Parking Spaces
The number of required EV parking spaces shall be determined using Table C402.5.3.1(1), based on the
number of Residential Dwelling Units (DU) and the area of Commercial space (CA). Up to two points
may be earned for installing ELECTRIC VEHICLE PARKING SPACE(s) and related
infrastructure that meets the requirements of this section.
PRESS BOX
Directly heated floor area: 400 sf
SC = 0.151 * (400/1,000) = 0.06
1 EV parking spot would result in 2 points.
Based on the design in Addendum #1, dated December 18, 2024, EV parking spaces are not included
in the project. Therefore, the project will not earn points under section OP3.
OP5 - Meet NY Stretch Code
C402.5.5.1
The building shall comply with all requirements of the NYStretch Energy Code - 2020 Version 1.0.
The project has not been designed to meet stretch code and therefore, will not earn points under section
OP5.
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OP6 - Custom Energy Improvement
C402.5.6.1
To earn one point, both of the following conditions must be met:
- Reduce energy use by 2.4 kWh/SF/year or 8.2 kbtu/SF/year for all commercial HEATED FLOOR AREA
in the building compared to a baseline building. Requires energy model (not in scope).
C402.5.6.2
To earn two points, both of the following conditions must be met:
- Reduce energy use by 4.8 kWh/SF/year or 16.4 kbtu/SF/year for all commercial HEATED FLOOR AREA
in the building compared to a baseline building. Requires energy model (not in scope).
PRESS BOX
Directly heated floor area: 400 sf
1 Point: Reduction of 960 kWh/year compared to the baseline building
2 Points: Reduction of 1,920 kWh/year compared to the baseline building
At this time, points under category OP6 are not being pursued. Should an energy model be completed
for this project, it is not guaranteed that the design would earn points.
Summary
The press box design is on track to achieve compliance with the Ithaca Energy Code Supplement when 5
points are achieved via the Renewable Energy credit. This will require 4,800 kWh to be allocated from
Cornell's Renewable Energy Portfolio annually.
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Ithaca Energy Code Supplement Amendment 2 - City of Ithaca 35
C404.5 Changes in 2023 to Summary Table for Prescriptive Compliance Path/Easy Path –
Amendment 2, Effective February 1, 2023
4
POINTS
3
POINTS
5
POINTS
0
POINTS
Attachment A
Compliance Pathway Not Applicable
5
TOTAL:
12
POINTS
Game Farm Road Field Hockey Field
Supplemental Materials Submission
Cornell University
Ithaca, NY
February 21, 2025
February 21, 2025
C.J. Randall, Director of Planning
Department of Planning, Town of Ithaca
215 North Tioga Street
Ithaca, NY 14850
Dear Director Randall,
Attached please find additional materials regarding the Game Farm Road Field Hockey Field project for
Cornell University.
We are looking forward to discussing SEQR at your March 4 meeting.
If you have any questions or require further information, please do not hesitate to call.
Sincerely,
Kimberly Van Leeuwen
Director of Landscape Architecture
Fisher Associates
Fisher Associates, P.E., L.S., L.A., D.P.C.
1001 West Seneca Street, Suite 201 | Ithaca, New York 14850
ph: 607.277.1400 | www.twm.la | www.fisherassoc.com
TABLE OF CONTENTS
Project Overview/Site Plan 5
Review of Bibliography submitted by members of the Public 6
Updated Drawings – Corrections 9
Bibliography submitted by members of the Public, spreadsheet 11
Revised technical drawings (11x17, 24x36)
L4-02 Field Grading & Drainage Plan
L10-01 Field Details
5
Cornell University is proposing to construct facilities for varsity field hockey at their Game Farm Road lands utilized
for athletics. Construction of the project is proposed in two phases. Phase one will provide Cornell’s field hockey
athletes a much-needed, NCAA-required synthetic turf field. The field is proposed on the site of an existing lightly
utilized grass athletic field next to two improved grass soccer fields known as McGovern Fields. Phase one will
include a field hockey pitch, a new driveway, formalized parking, pedestrian amenities, and small support facilities.
The support facilities include a four-restroom building and a press box building.
Figure: Phase I
An additional building (phase two) for field hockey is anticipated to move forward within five years of the athletic
field installation. The building will be a single-story clubhouse facility to serve the field hockey team. The clubhouse
will include team locker rooms, offices, meeting rooms, a physical therapy/training room, a lounge, toilets, showers,
and an indoor training space. The indoor training space will have a synthetic turf floor surface that matches the turf
used for the exterior field hockey field and will be used for field hockey practice during inclement weather. The full
buildout with Phase II building is visible on the title page.
The proposed septic system, stormwater management system, and electrical transformer included in the phase one
construction will be sized to accommodate both phase one and phase two development.
6
Some members of the public have voiced concerns about synthetic turf, and submitted material that they hope both
the Planning Board and Cornell will consider in their decision making. The project team has reviewed the entire
“bibliography” document mentioned by members of Zero Waste Ithaca as well as other references submitted to the
planning board in letters (emails) from the general public. Specifically, we reviewed 338 references (as of February
14th, 2025) and determined that they could be sorted into six primary subject categories:
• Crumb rubber
• PFAS (Per- and polyfluoroalkyl substances)
• Microplastics
• Sports injuries
• Heat from turf
• Miscellaneous
The team identified which references were from a peer-reviewed source. Each reference could be attributed to one
of seven media source classifications:
• Peer-reviewed journal article
• Government fact sheet/report
• Non-peer-reviewed academic research and laboratory reports
• News article, journalism, op-ed
• Non-government organization (NGO) articles, submissions, and blogs
• Commentary, letters, white papers and other submissions from the public, including social media
• Other (which includes technical and expert reports, industry and university information, legal analysis, and
consultant reports)
The table below provides a summary of entries categorized as described above.
As indicated in the table, 32% of the references are to peer-reviewed sources, 54% are to journalism and NGO and
public submission sources, 7% are to government and non-peer reviewed research, and 7% are to other sources.
We also noted that 59 of the 338 references were duplicate entries (redundant sources).
7
The Planning Board requested information on the credibility of reference material. Only 32% of the references are
to peer-reviewed sources. Of that 32%, many of the sources are not applicable to this project, since they are about
items that are not relevant to this project (such as crumb rubber and PFAS). Included with this submission is a
spreadsheet itemizing each source in Zero Waste Ithaca’s document and letters submitted to the Planning Board.
The spreadsheet notes their topic categories, their source, their media classification, if it was peer-reviewed, if the
full publication is publicly available, their abstract/synopsis, and whether the source information is specific to
synthetic turf. The intent of this analysis is to enable Planning Board members to sort through and evaluate the
document and characterization of the underlying data more efficiently.
As you know, the standard of practice for objectively evaluating scientific information is to use peer-reviewed
sources. Therefore, our additional evaluation of the bibliography content focused on peer-reviewed sources. A
summary of the scientific findings in the peer-reviewed studies is provided below.
20 of the 89 peer-reviewed articles are about crumb rubber. The Field Hockey field will .
Therefore, topics associated with crumb rubber are not applicable to the proposed synthetic turf fields.
13 of the 89 studies are about PFAS. The synthetic turf that will be used for the proposed fields will proactively
comply with the New York Carpet Collection Program (NY Environmental Conservation Law Title 33, Section 27-3301
and 27-3315).
Additionally,
Cornell has committed to conducting 3rd-party testing of the carpet for PFAS prior to it leaving the manufacturer
and being delivered to the project. Topics associated with PFAS are not applicable to the proposed project.
31 of the 89 studies are about microplastics. The field design includes a proprietary stormwater filter practice that
will remove microplastics to a size that is consistent with what is measurable, which will therefore remove
detectable microplastics from stormwater runoff from the field. Topics associated with microplastics are not
applicable to the proposed project.
There are five peer-reviewed citations in this subject group. One study evaluates watering requirements to cool turf
surfaces, three evaluate heat stress related to athletes playing on synthetic turf, and one evaluates effects of heat
from synthetic turf on the climate.
• Water to cool surfaces: Cornell does not use water to cool their synthetic turf fields; water will only be used
on the field hockey field to prepare the field for play (regardless of outdoor or field surface temperature).
• Cornell Athletics Sports Medicine staff work to prevent sports-related heat stress by monitoring heat and
humidity using an app called Weather Sentry that provides “real-feel” temperature(s). Sports Medicine staff
communicates early to all appropriate athletics staff members and student-athletes when the air
temperature and relative humidity are reaching levels that need to be monitored to prevent heat illness.
Sports medicine staff consult with Cornell University Emergency Management as needed regarding
weather forecasts and conditions.
8
• Climate Impacts from heat: Golden (2021). This study employed a model of atmospheric transmittance of
infrared wavelengths to project the energy absorbed by the atmosphere as a function of ground
temperature. The study concluded that because artificial turf surfaces get hotter than natural turf surfaces,
artificial turf fields contribute more to heating of the atmosphere than natural turf fields. The study,
however, also notes that artificial turf fields contribute orders of magnitude less heating to the atmosphere
than do asphalt, roofing, and other similar reflective surfaces, and that heating of the atmosphere due to
reflective surfaces is much less than heating due to greenhouse gases.
There are 20 peer-reviewed sources in this subject category, including one pertaining to sports injuries, and only
four of them are turf-specific articles. The remainder primarily evaluate plastics in general, global issues, mental
health concerning urban greenspace (e.g., in cities), and natural turf maintenance. These are not applicable to the
scope of a project involving the installation of a single synthetic turf field on a pre-existing grass field within a 105+
acre site consisting mostly of fallow fields, naturalized areas, and some athletics-related fields and buildings. Also,
this site is further surrounded by an additional 300+ acres of open space to the north, east, and south.
The four turf-specific articles are evaluated below.
• Sanchez-Sotomayer, et al. (2022). This study investigates the effects of artificial grass replacement on bird
diversity in urban parks in eastern Spain. The study concluded that parks with natural grass consistently
supported higher species richness, gamma diversity, and bird abundance. Community composition
differences were driven mainly by common ground-feeding birds, which were more abundant in natural
grass parks. Artificial grass parks exhibited higher nestedness, indicating a subset of species from natural
grass parks. The authors indicate that the findings suggest that replacing natural grass with artificial grass
reduces avian biodiversity, posing a threat to bird conservation. It is important to consider context and
scale of the proposed project. There are over a hundred acres of natural space immediately around the
project site (as well as much more in the surrounding area, including lands used by Cornell for agricultural
research and others owned by New York State), and the site is not a habitat for threatened or endangered
species.
• Gould et al. (2022) performed a critical review of 53 articles published between 1972 and 2020 to evaluate
sports-injury rates between natural turf and synthetic turf playing surfaces. The review considered all
sports, levels of competition, and turf types. No quantitative statistical analysis of injury rates between
playing surfaces was performed. The study concluded that, qualitatively, overall injury rates between
synthetic and natural turf were similar when considering newer generation synthetic turf, but when rates
specific to foot and ankle injuries were evaluated, higher injury rates occurred on synthetic turf. The
product selected for this project is designed to provide a safe and appropriate play surface as required by
international standards. Cornell must and will adhere to its safety standards for athletic play on both
natural and synthetic turf fields.
• Siegel, et al. (2024). This study investigates the endocrine and cardiometabolic toxicity of artificial turf
materials by using in vitro (i.e., ‘test tube’) evaluations of extracts of different artificial turf system
components and infill materials. These findings showed that artificial turf materials, particularly those
exposed to environmental weathering, increased bioactivity of endocrine and metabolic receptors. The
authors concluded that their data demonstrate potential endocrine and cardiometabolic effects from
artificial turf material extracts, warranting further investigation into potential exposures and human health
effects. A companion study, by the U.S. EPA (2024), which is included under crumb rubber in the citation
categorizations, has evaluated the potential effects of exposure to synthetic turf materials in athletes using
9
turf fields, and determined that any changes in metabolic responses were indistinguishable from changes
that occurred to players using natural turf fields.
• Bernat-Ponce, et al. (2020). This study examines the impact of remodeling that replaced natural substrates
with artificial surfaces (such as pavement, concrete, and artificial grass) on House Sparrow populations in
ten (10) urban parks in the Valencian Community of Spain. After remodeling, sparrow populations declined
significantly in modified parks, while remaining stable in unaltered parks. The authors concluded that the
study suggests that these changes reduce habitat suitability and food availability, negatively impacting
House Sparrow populations and potentially other urban wildlife. We note that replacement of grass with
pavement and concrete would be expected to reduce habitat. Additionally, it is important to consider the
context and scale of the proposed project. There are over one hundred acres of natural space immediately
around the project site (as well as much more in the surrounding area, including lands used by Cornell for
agricultural research and others owned by New York State), and the site is not a habitat for threatened or
endangered species.
We acknowledge that the volume of material received about this project (from both our project team and the
public) has been significant. We provide this information to support the Planning Board's desire for a thorough
analysis of the submittals. As demonstrated by the credible sources previously submitted by Cornell,
With this submission we are providing corrected versions of two technical sheets that were included in our original
October 3 submission package. Revision clouds have been drawn around areas of correction.
On sheet L4-02 Field Grading & Drainage Plan, an incorrect elevation number of “873.74” was written – it has been
revised to correctly read “973.74”.
On sheet L10-01 Field Details, several small revisions were made including that exposed concrete is to have a “light
broom finish” (FD-03, FD-02). Most importantly, the detail for Perimeter Field Drainage (FD-07) incorrectly had a
note suggesting that the synthetic turf system would include infill. On the revised sheet, the detail for Perimeter
Field Drainage (FD-09) has been corrected and does not include this note. As stated in all our other documents and
submissions, the field hockey synthetic turf system will not include infill of any kind.
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LI
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STORMWATER PRACTICE,
SEE CIVIL SERIES
FIELD GRADING & DRAINAGE
PLAN
L4-10
5
1
10.00
TOS
BOS
VERIFY IN FIELD
SYMBOL DESCRIPTION
SPOT ELEVATION
FINISHED FLOOR ELEVATION
TOP AND BOTTOM OF SLAB
CONTOUR MAJOR
CONTOUR MINOR
VIF
FFE
TC
BC TOP AND BOTTOM OF CURB
HP
LPS LOW POINT OF SWALE
HIGH POINT
CONTOUR/ELEVATION
EXISTING
GRADE BREAK
RIM ELEVATIONRIM
(5)
AREA DRAIN, SEE CIVIL
DRAWINGS
LP LOW POINT
HPS HIGH POINT OF SWALE
FINISHED / FIELD GRADEFG
TOP OF ELASTIC LAYERTEL
TOP OF STONETOS
TOP OF SUBGRADETSG
LIMIT OF WORK (LOW)
MUNICIPAL BOUNDARY
LEGEND
>>SWALE
EXISTING AREA DRAIN
(10.00)EXISTING SPOT ELEVATION
DESCRIPTION:
FIELD DRAINAGE
SYMBOL:
TRENCH DRAIN CATCH BASIN
PANEL DRAIN
HDPE PERFORATED DRAIN PIPE
STONE TRENCH
FD-09
TRENCH DRAIN IN CONCRETE
PAVINGFD-06
1" = 20'
FIELD HOCKEY FIELD GRADING FIELD HOCKEY FIELD DRAINAGE
DRAINAGE NOTES:
1.REFER TO C-SERIES FOR SITE DRAINAGE SYSTEM
AND DOWNSTREAM CONNECTION OF
MULTIPURPOSE FIELD DRAINAGE SYSTEM.
GRADING NOTES:
1.PROPERY LINES, EXISTING UTILITY INFORMATION
AND TOPOGRAPHY INFORMATION TAKEN FROM
THE PLAN TOPOGRAPHIC MAP CORNELL
UNIVERSITY INDOOR SPORTS AND RECREATION
CENTER, PREPARED BY TG MILLER, DATED APRIL
24, 2024.
2.REFER TO CIVIL DRAWINGS FOR UTILITY AND
STORMWATER INFORMATION. UTILITIES AND MEP
DRAWINGS SHALL BE COORDINATED WITH
FINISHED GRADES, AND ARCHITECT SHALL BE
INFORMED IN WRITING PRIOR TO CONSTRUCTION
IN CASE OF ANY DISCREPANCIES.
3.ALL GRADING SHALL BE REVIEWED WITH
LANDSCAPE ARCHITECT PRIOR TO START OF
WORK.
4.ALL WALKWAYS SHALL MAINTAIN A CROSS SLOPE
OF NOT MORE THAN 2%, UNLESS OTHERWISE
NOTED. IF THE CONTRACTOR CANNOT ACHIEVE
A SLOPE THAT MEETS THIS REQUIREMENTS, THE
ARCHITECT AND OWNER SHALL BE NOTIFIED
IMMEDIATELY.
5.ALL PROPOSED PAVEMENTS SHALL MEET THE
LINE AND GRADE OF EXISTING ADJACENT
PAVEMENT SURFACES. THE PAVING SHALL BE A
MAXIMUM OF 1/4" LOWER THAN THE FINISHED
FLOOR ELEVATION AT ALL DOORWAYS.
6.ALL WALKWAYS SHALL MAINTAIN A
LONGITUDINAL SLOPE OF NOT MORE THAN 5%
UNLESS EXPLICITLY NOTED OTHERWISE. IF THE
CONTRACTOR CANNOT ACHIEVE A SLOPE THAT
MEETS THIS REQUIREMENTS, THE ARCHITECT
AND OWNER SHALL BE NOTIFIED IMMEDIATELY.
7.ALL PAVED AND PLANTED AREA SHALL SLOPE TO
DRAIN AS INDICATED ON THE PLANS.
8.ALL PAVEMENTS SHALL HAVE A MINIMUM PITCH
OF 1%, UNLESS NOTED OTHERWISE.
Feet
0 20 40
Plot Date: 2/11/2025 File: G:\38145.00\3.0_Working\3.9_CAD\1_SheetFiles\L4-02_FIELD DRAINAGE & GRADING-PERMIT.dwg Saved By: wsasser
Seal
Drawing No.
Drawing Title:
Key Map
Project Title:
Client Project No:
Drawn By:
Checked By:
Approved By:
Issue Date:11.25.2024
TS
AR, TS
AG, ZC
DRAWING ISSUE & REVISION HISTORY
No.Description Date
Sasaki Project No:
NOT FOR CONSTRUCTION
13800
38145.02
ARCHITECT + LANDSCAPE ARCHITECT
SASAKI
110 Chauncy Street
Boston, MA 02111
TEL. 617.926.3300
www.sasaki.com
CIVIL
TG MILLER
605 West State Street, Suite A
Ithaca, NY 14850
TEL. 607.272.6477
www.tgmillerpc.com
STRUCTURAL
LEMESSURIER
1380 Soldiers Field Road
Boston, MA 02135
TEL. 617.868.1200
www.lemessurier.com
MEP/FP
RFS ENGINEERING
71 Water Street
Laconia, NH 03246
TEL. 603.524.4647
www.rfsengineering.com
BUILDING AND FIRE CODE
HOWE ENGINEERS
141 Longwater Drive, Suite 110
Norwell, MA 02061
TEL. 781.878.3500
www.howeengineers.com
11/25/2024
ISSUE FOR PERMIT
Game Farm Road
Field Hockey Field
Game Farm Road | Ithaca, NY 14853
Cornell University
North
Scale: 1" = 30'
FIELD HOCKEY IRRIGATION
IRRIGATION CONSULTING, INC.
30 Merritt Parkway, 2nd Floor
Nashua, NH 03062
TEL. 978.433.8972
www.irrigationconsulting.com
Feet
60300
PLAN UPDATES 02-12-251
1
FIELD DETAILS
(FD TYPES)
L10-01FD-01
1.SYNTHETIC TURF FIBER W/ SHOCK PAD
2.POROUS ASPHALT - 3"
3.TOP DRAINAGE STONE: 1"
4.DYNAMIC BASE DRAINAGE STONE: 7.5" - 9" DEPTH
5.PANEL DRAIN
6.GEOTEXTILE FABRIC
A.FG: FINISHED GRADE (TOP OF SYNTHETIC TURF FIBER)
B.TEL: TOP OF POROUS ASPHALT
C.TOS: TOP OF DRAINAGE STONE
D.TSG: TOP OF SUBGRADE
E.SEE PLANS AND SPECIFICATIONS FOR SYNTHETIC TURF
FIELD SYSTEM.
LEGEND NOTES
1
3
4
5
6
2
SYNTHETIC TURF SYSTEM - FIELD HOCKEY
NTS
1.1"W x 4"D CONCRETE NOTCH
2.2X8 PRESSURE TREATED WOOD NAILER
3.SYNTHETIC TURF SYSTEM
4.CAST-IN-PLACE CONCRETE CURB
5.4 #4 BAR HORIZONAL CONTINUOUS REINFORCING; 8" LAP
6.#4 TIE @ 8' ON CENTER
7.6" DENSE GRADED AGGREGATE BASE
8.COMPACTED SUBGRADE
9.ADJACENT SURFACE, VARIES
LEGEND
8
4
5
7
1
3
9
A.FORM CONCRETE WITH A 1" X 4" INSET "NOTCH".
ATTACH PRESSURE TREATED 2X8 LUMBER TO EDGE OF
CONCRETE ADJACENT TO "NOTCH", DOWN 1/2" FROM
THE TOP OF CONCRETE CURB. THE TURF RUNS OVER
TOP OF THE LUMBER, AND IS MECHANICALLY SECURED
TO THE LUMBER.
B.TOP OF CONCRETE = TOP OF TURF = FINISHED GRADE
C.PROVIDE SCORING JOINT EVERY 8' OC AND EXPANSION
JOINTS EVERY 24' OC. SEE FENCE POST DETAIL.
D.EXPOSED CONCRETE TO HAVE A LIGHT BROOM FINISH.
NOTES
14"
2.
0
0
'
(
2
4
"
)
13"
2
6
SYNTHETIC TURF PERIMETER CURB - 6'-0" FENCE
1" = 1'-0"
FD-02
DRAIN CLEANUOUT - SYNTHETIC TURF FIELD
1" = 1'-0"
TRENCH DRAIN IN CONCRETE PAVING
1"=1'-0"
TRENCH DRAIN SYSTEM
EXPANSION JOINT
CONCRETE PAVING/CURB
CIP CONCRETE
COMPACTED
AGGREGATE BASE
COMPACTED SUBGRADE
BLACK ADA PLASTIC
GRATE
UNDISTURBED SUBGRADE
COMPACTED AGGREGATE6"
HDPE OUTLET
GRAVEL BEDDING
ADS DRAINAGE BASIN
SQUARE CAST IRON GRATE
H-10 LOADING. ADA
COMPLIANT
SE
E
D
R
A
I
N
A
G
E
P
L
A
N
12
"
S
U
M
P
6"
DIAMETER NOTED IN PLAN
RESTRICTOR PLATE
WHERE REQUIRED
AREA DRAIN @ SYNTHETIC LANDSCAPE TURF
NTS
12" FILTER
FABRIC OVERLAP
4" PERFORATED HDPE
SLOPE: 0%
#57 WASHED STONE7"
#67 STONE
@ SIDES AND TOP
18
"
SYNTHETIC TURF
PERIMETER CURB
3"
7"
3"
FRENCH DRAIN
NTS
FD-05FD-06
FD-07
FD-08
FLAGPOLE
N.T.S
NOTES
CARE MUST BE EXERCISED IN SETTING TUBE PLUMB AND LEVEL IN FORMS AND IT MUST BE SECURED
SO IT DOES NOT SHIFT WHEN POURING CONCRETE.
FLAGPOLE SHALL NOT BE OVER 40 FT.
FLASH COLLAR OR STOCK
DESIGN BASE
WATERPROOF MASTIC
FINISH GRADE
HARDWOOD WEDGES
3,000 PSI MIN. MIX
CONCRETE
PACKED DRY SAND
(4)WELDED STEEL
CENTERING WEDGES
16"X16"X3/16" WELDED
STEEL BASE
8"X8"X3/16" WELDED
STEEL SUPPORT
3/4" DIA X 3'-6" ST.
LIGHTING GROUND
SPIKE WITH NUT
WELDED TO BASE
30" DIA. AT TOP
6"
1"
4'
-
0
"
F
O
U
N
D
A
T
I
O
N
T
U
B
E
316
"3'
-
6
"
12
"
30" DIA. AT BOTTOM
FD-10
CAMERA POLE ("CP")
HAND HOLE
CL
NOTE:
1.FINAL POLE BASE/ANCHOR BOLT ORIENTATION, FIXTURE MOUNTING HEIGHTS
AND CONFIGURATION ON POLE TO BE VERIFIED THROUGH SHOP DRAWINGS.
2.FINAL CAMERA AIMING TO BE COORDINATED IN THE FIELD.
3.CAMERA CONNECTION TO POLE AND DRILL HOLE PATTERN T.B.D.
4.FOR POLE MOUNTED SPEAKERS SEE AUDIO VISUAL PACKAGE.
5.SPEAKER CONNECTION TO POLE AND DRILL HOLE PATTERN T.B.D.
6.PROVIDE MANUFACTURER'S FULL BASE PLATE COVER FOR LIGHT POLE BASE.
FINISH AND COLOR TO MATCH LIGHT POLE.
7.INSTALL BASE PLATE AND ANCHOR PER MANUFACTURER.
8.LIGHT POLE FINISH AND COLOR TO BE APPROVED BY ARCHITECT.
FOUNDATION,
SEE FD-11
VALMOUNT DS210 ROUND TAPERED STEEL POLE
WITH POLE MOUNTED CAMERAS AND SPEAKERS.
23
.
5
0
'
B
L
E
A
C
H
E
R
S
P
E
A
K
E
R
M
O
U
N
T
I
N
G
H
E
I
G
H
T
(
S
E
E
A
U
D
I
O
V
I
S
U
A
L
D
R
A
W
I
N
G
S
)
FULL BASE PLATE COVER
GFCI RECEPTACLE
PTZ CAMERA, TYP.
1" = 1'-0"
VALMONT DS210 ROUND
TAPERED STEEL LIGHT POLE.
NOMINAL MOUNT HEIGHT
(30'-0")
POLE BASE OD (8.00")
GFCI RECEPTACLE
TWO (2) R.5 COMMUNITY BLEACHER
SPEAKERS WITH BRACKET MOUNTED
23'-6" ABOVE FINISHED GRADE
30
.
0
0
'
(
P
O
L
E
H
E
I
G
H
T
)
29
.
0
0
'
F
I
E
L
D
S
P
E
A
K
E
R
M
O
U
N
T
I
N
G
H
E
I
G
H
T
(
S
E
E
A
U
D
I
O
V
I
S
U
A
L
D
R
A
W
I
N
G
S
)
26
.
0
0
'
C
A
M
E
R
A
M
O
U
N
T
I
N
G
H
E
I
G
H
T
(
S
E
E
A
U
D
I
O
V
I
S
U
A
L
D
R
A
W
I
N
G
S
)
(1) R.1 COMMUNITY FIELD SPEAKER WITH
BRACKET MOUNTED 29'-0" ABOVE
FINISHED GRADE
FD-12
7'
-
0
"
2'-0"
2"
CLEAR COVER
3"
M
I
N
CL
E
A
R
C
O
V
E
R
BASE PLATE & ANCHOR BOLTS
BY MANUFACTURER
CAMERA LIGHT POLE BY
MANUFACTURER
FINISH GRADE, SEE
LANDSCAPE DRAWINGS
#4@12" O.C. ROUND
TIES, (4) @ 2" O.C. @ TOP.
LAP ENDS 6" MIN &
PROVIDE STD HOOKS
#4@12" O.C.
ROUND TIES, (4)
@ 2" O.C. @ TOP
12-#6 VERT,
EVENLY SPACED
12-#6 VERT,
EVENLY SPACEDSECTION
A-A
AA
CAMERA POLE "CP" FOUNDATIONFD-11
8.
5
"
-
1
0
"
12" INV: VARIES
2.50'
MI
N
.
2
.
0
0
'
EL: VARIES
TSG: TOP OF
SUBGRADE
SYNTHETIC TURF
FIBER WITH SHOCK PAD
DRAINAGE STONE BED
12" PANEL DRAIN
GEOTEXTILE FABRIC
COMPACTED SUBGRADE
PERIMETER STONE TRENCH
WITH EMBEDDED 12"
PERFORATED HDPE PIPE,
OR AS OTHERWISE NOTED
FG: TOP OF FIBER
←SUBGRADE SLOPE 0.5%
TOS: TOP OF STONE
0.
5
0
'
PERIMETER FIELD DRAINAGE
1
2" = 1'-0"
POROUS ASPHALT
SYNTHETIC TURF PERIMETER
CURB (WIDTH, DEPTH VARIES)
FD-02
L10-01
FD-03
L10-01
FD-04
L10-01
1.50'
8" HDPE MAINLINE
IRRIGATION PIPE,
REFER TO I-SERIES
FOR MORE DETAIL
2.
5
0
'
M
I
N
.
CO
V
E
R
FD-09
SPECTATOR SEATING - PLAN AND SECTIONS
1/2" = 1'-0"
CROSS BRACING
INDICATED BY 'X'
MID-AISLE RAIL
(1 @ 4'-4")
60" FRONT WALKWAY
AI
S
L
E
CE
N
T
E
R
L
I
N
E
OF
B
L
E
A
C
H
E
R
NOTES:
1.MANUFACTURER TO PROVIDE DELEGATED DRAWINGS FOR
SEATING AND RAMP.
2.PROVIDE 5" CONCRETE SLAB TO SUPPORT SPECTATOR
SEATING, RAMP, AND STAIR.
2.1.CONCRETE REINFORCEMENT TO BE WELDED WIRE
MESH (4X4-W/D4XW/D4 OR 6X6-W/D7.4XW/D7.4)
2.2.CONCRETE DESIGN STRENGTH F'c=3000 PSI LOCAL
READI-MIX DESIGN.
2.3.REINFORCING TO MEET ASTM A615 GRADE 60.
FD-14
1.1"W x 4"D CONCRETE NOTCH
2.2X8 PRESSURE TREATED WOOD NAILER
3.SYNTHETIC TURF SYSTEM
4.CAST-IN-PLACE CONCRETE CURB
5.4 #4 BAR HORIZONAL CONTINUOUS REINFORCING; 8" LAP
6.#4 TIE @ 8' ON CENTER
7.6" DENSE GRADED AGGREGATE BASE
8.COMPACTED SUBGRADE
9.ADJACENT SURFACE, VARIES
LEGEND
8
4
5
7
1
39
A.FORM CONCRETE WITH A 1" X 4" INSET "NOTCH".
ATTACH PRESSURE TREATED 2X8 LUMBER TO EDGE OF
CONCRETE ADJACENT TO "NOTCH", DOWN 1/2" FROM
THE TOP OF CONCRETE CURB. THE TURF RUNS OVER
TOP OF THE LUMBER, AND IS MECHANICALLY SECURED
TO THE LUMBER.
B.TOP OF CONCRETE = TOP OF TURF = FINISHED GRADE
C.PROVIDE SCORING JOINT EVERY 8' OC AND EXPANSION
JOINTS EVERY 24' OC. SEE FENCE POST DETAIL.
D.EXPOSED CONCRETE TO HAVE A LIGHT BROOM FINISH.
NOTES
14"
1.
5
0
'
(
1
8
"
)
13"
2
6
SYNTHETIC TURF PERIMETER CURB
- 42" FENCE OR NO FENCE
1" = 1'-0"
FD-03
1
6'6'
2'
6
6
6
1
7
D
5
SECTION ELEVATION
1.FENCE POST
2.SYNTHETIC TURF SYSTEM
3.SYNTHETIC TURF PERIMETER CURB
4.ADJACENT PLANTING OR PAVING (SEE MATERIALS
AND GRADING PLANS)
5.DENSE GRADED AGGREGATE BASE
6.TOP AND BOTTOM RAIL.
7.VINYL COATED CHAIN LINK FABRIC
8.WINDSCREEN (PER PLANS AND SPECS)
9.12" HIGH CHAIN LINK PAD WITH RIGID BACKING
10.(4) #4 CONTINUOUS THROUGH CURB; 8" LAP
11.#4 TIE @ 8' ON CENTER
LEGEND
NOTES
A.SEE SPECIFICATIONS FOR FENCE MESH MATERIAL.
B.FRONT OF FENCE POST TO ALIGN WITH FRONT OF NET POST.
C.CORE FENCE POST INTO CONCRETE CURB EVERY 8' OC. PROVIDE
SCORING JOINT IN CURBING AT EACH POST AND EXPANSION JOINT
EVERY 3RD POST OR 24'.
D.CHAIN LINK FABRIC AND WINDSCREEN ON FIELD SIDE OF FENCE.
E.PAD SHOULD BE MOUNTED AT BOTTOM OF FENCE SET 1" ABOVE
TOP OF CURB. REFER TO DRAWINGS FOR EXACT LOCATIONS.
F.EXPOSED CONCRETE TO HAVE A LIGHT BROOM FINISH.
8
17"
2.
0
0
'
(
2
4
"
)
3
10
5
2416"
10
1'
-
9
"
11
9
SYNTHETIC TURF PERIMETER CURB @ FIELD END LINES (6' FENCE AND/OR NET POST)
1" = 1'-0"
FD-04
SCALE: 1"=1'-0"
ASPHALT EDGE CONDITION @ FIELD SIDE LINES
FIELD LEVEL
873''-6"
PA-01
L8-01
9"
FD-01
L10-01
6' CHAIN LINK FENCE
FOUNDATION @ ASPHALT
FD-01
L10-01
ALUMINUM ASPHALT
EDGE RESTRAINT, BLACK
COLOR WITH SPIRAL
STEEL STAKE
PROPOSED LANDSCAPE
FD-03
L10-01
ASPHALT PAVEMENT -
PEDESTRIAN
SYNTHETIC TURF SYSTEM
SYNTHETIC TURF PERIMETER
CURB (42" FENCE)
FD-13
PLAN UPDATES 02-12-251
1
1
1
1
1
1
Plot Date: 2/11/2025 File: G:\38145.00\3.0_Working\3.9_CAD\1_SheetFiles\L10-01_FIELD DETAILS-PERMIT.dwg Saved By: wsasser
Seal
Drawing No.
Drawing Title:
Key Map
Project Title:
Client Project No:
Drawn By:
Checked By:
Approved By:
Issue Date:11.25.2024
TS
AR, TS
AG, ZC
DRAWING ISSUE & REVISION HISTORY
No.Description Date
Sasaki Project No:
NOT FOR CONSTRUCTION
13800
38145.02
ARCHITECT + LANDSCAPE ARCHITECT
SASAKI
110 Chauncy Street
Boston, MA 02111
TEL. 617.926.3300
www.sasaki.com
CIVIL
TG MILLER
605 West State Street, Suite A
Ithaca, NY 14850
TEL. 607.272.6477
www.tgmillerpc.com
STRUCTURAL
LEMESSURIER
1380 Soldiers Field Road
Boston, MA 02135
TEL. 617.868.1200
www.lemessurier.com
MEP/FP
RFS ENGINEERING
71 Water Street
Laconia, NH 03246
TEL. 603.524.4647
www.rfsengineering.com
BUILDING AND FIRE CODE
HOWE ENGINEERS
141 Longwater Drive, Suite 110
Norwell, MA 02061
TEL. 781.878.3500
www.howeengineers.com
11/25/2024
ISSUE FOR PERMIT
Game Farm Road
Field Hockey Field
Game Farm Road | Ithaca, NY 14853
Cornell University
North
Scale: 1" = 30'
FIELD HOCKEY IRRIGATION
IRRIGATION CONSULTING, INC.
30 Merritt Parkway, 2nd Floor
Nashua, NH 03062
TEL. 978.433.8972
www.irrigationconsulting.com
Feet
60300
List
No.Source Primary Subject
Category
Secondary Subject
Category
Tertiary Subject
Category
Media
Classification
Peer Rev
(Y/N)
Full Publication
Available (Y/N)?
Turf
Specific?Published Abstract DOCUMENT SYNOPSIS + NOTES
1 Insistence that Cornell aims to “cover” Game
Farm Road lands with synturf fields (No Link)Miscellaneous Game Farm Road Synthetic Turf Public
Commentary N N Y
This erroneous statement has been restated on multiple occasions. Cornell has never proposed that
future development at Game Farm Rd will be all synthetic turf fields. Presentation to the Planning Board
in December 2024 clearly showed that a total of three potential turf fields may be anticipated at Game
Farm Rd in the foreseeable future: the existing baseball field, the proposed field hockey field, and
possibly the softball field.
2
Carman, Neil. Letter to The City of Ithaca, NY,
Planning Board Members. June 25, 2024. (No
Link)
Miscellaneous Synthetic Turf Public
commentary N N Y Non-peer reviewed source
3
City of Watertown, MA - Government.
“Victory Field Turf is Closed Due to Excessive
Heat.” June 20, 2024. (No Link)
Heat from Turf Synthetic Turf Social media blog N Y Y
Non-peer reviewed source; Included link: Victory Field Closing for Most of Summer to Replace Artificial
Turf | Watertown News
3b
Non-peer reviewed source; Included link:
Victory Field Closing for Most of Summer to
Replace Artificial Turf | Watertown News
Heat from Turf Synthetic Turf Journal Article N Y Y
Article about the synturf from 2011 being replaced in the year 2023 – this brief gap in field availability is
typical of a maintenance replacement project timeline. Demolition and turf replacement requires a
period of closure.
4 Suspicions around H&A (No Link, See Notes)Miscellaneous Corporate Ethics Corporate
Conspiracy
Public
commentary N N N Non-peer reviewed source
4a
Claims that H&A has ties to BP and Boeing,
suggesting conflict of interest (No Link, See
Notes)
Miscellaneous Corporate Ethics Corporate
Conspiracy
Public
commentary N N N Provides many links regarding lawsuits involving BP and Boeing (and other corporations)";
No specific citations given
4b
Cites Tetra Tech as another firm with a
notorious environmental record and as
having been part of Honeywell (No Link, See
Notes)
Miscellaneous Corporate Ethics Corporate
Conspiracy
Public
Commentary N N N
According to Wikipedia, Tetra Tech was only owned by Honeywell for 6 years, from 1982-1988. Trying to
connect all the issues Honeywell has been involved in with Tetra Tech. Claims Tetra Tech is involved in
ongoing lawsuits, provides lots of links about the same issue (Hunter’s Point Naval Shipyard testing and
remediation). They all refer to three whistleblower cases. From the US Atty’s Office in the Northern
District of California website "The claims asserted in the three complaints are allegations only and there
has been no determination of liability."
Claims H&A purposefully left out that synturf was rejected in Oak Bluffs, the project for which the
TetraTech report was created. Whether or not the Town of Oak Bluffs decided to reject synturf has
nothing to do with the verity of the TetraTech report.
Notes that TetraTech has an office in Ithaca and was hired by the ICSD. This is an irrelevant coincidence.
TetraTech has 30,000 employees and 550 offices worldwide, including 5 in NYS.; No specific citations
given
5 Suspicions Towards Cornell (No Link, See
Notes)Miscellaneous Corporate Ethics Corporate
Conspiracy
Public
Commentary N N N
Cites general downward trend of college enrollment and asserts that campus amenities should not be
increased as a result, although Institutional Research and Planning Division reports that Cornell has
experienced steady enrollment growth for past 20 years.
Lab of O letter “notably omits any discussion of the detrimental effects of artificial turf on bird
populations”.
Link to study that is highly technical in terms of statistical analysis and refers to urban parks, stating “Our
results highlight that the current trend of replacing natural grass with artificial grass in urban parks in
several European countries, especially Mediterranean ones, can pose a threat to the conservation of
urban avifauna and bird communities.”
6
McBride, Murry Brian. Letter to the City and
Town of Ithaca Planning Board regarding
Cornell’s Artificial Turf Projects, Jul 3, 2024.
Sports Injuries Crumb Rubber PFAS +
Microplastics
Public
Commentary N Y Y
Cornell Emeritus Professor who specializes in soil science and chemistry. Cites many concerns about
crumb rubber - irrelevant for field hockey project at Game Farm Road. McBride is suspicious of risk
assessment modeling – highly complex and only as good as the validity of the date and assumptions
entered into them. McBride is concerned about about surface temperatures, about production and
“recycling” of synturf and associated carbon footprint, and about microplastics migrating offsite, being
ingested by wildlife, into surface waters.
McBride claims (without citations) that: most athletes when surveyed much prefer playing on natural
grass fields for reasons related to risk of injury and comfort; many professional sports stadia are moving
away from synturf toward natural grass; even stadia in climates colder than Ithaca have successfully
maintained natural grass playing fields. None of this is true for NCAA Division I field hockey.
McBride asserts there is disagreement at this time about the potential toxicity of polymeric PFAS, with
chemical industry scientists claiming they are benign (see Korzeniowski et al., 2022, Integrated
Environmental Assessment and Management, 19, 326-354) and independent scientists stating that “the
evidence … does not find a scientific rationale for concluding that fluoropolymers are of low concern for
environmental and human health” (Lohmann et al., 2020, Environmental Science and Technology, 54,
12820-12828), and that given uUncertainty about how these persistent chemicals behave in the
environment and what effects they may have on human health, the Planning Board should adopt a
precautionary approach and limit the use of these synthetic chemicals to the extent possible.
7
Watkins, Lisa, Susan McGrattan, Patrick J.
Sullivan, and M. Todd Walter. "The Effect of
Dams on River Transport of Microplastic
Pollution." Science of The Total Environment
664 (2019): 834-840.
https://www.sciencedirect.com/science/artic
le/abs/pii/S0048969719305078?via%3Dihub
Microplastics Water Pollution Environmental
Impact of Dams Journal Article Y N N
Dams are known to trap pollutants such as metals and PCBs in the sediment that accumulates within their reservoirs. As more
attention is paid to microplastics, an emerging contaminant in waterways worldwide, and how they move along rivers, whether
microplastic particles also accumulate behind dams is an important question for informing estimates of global river inputs to
oceans. In this study, we measured microplastic concentrations above, below, and within the reservoirs of six dams near Ithaca,
NY USA. Samples were processed following the wet peroxide oxidation method and visual counting, followed by Raman
Spectroscopy validation. We found that microplastic concentrations in sediment within reservoirs was significantly higher than in
sediment above the dams (p = 0.005), and in water samples, concentrations within reservoirs was significantly lower (p = 0.02).
Plastic fibers were the dominant plastic type, but in within-reservoir sediment samples, less abundant plastic types such as plastic
fragments were found in higher proportions. These results show that the sediment collecting behind dams is one sink for
microplastics in river systems at long timescales, indicating that accounting for dams may be important when modeling global
riverine microplastic transport.
There is one dam in Cascadilla Creek between the project site and Cayuga Lake.
8
Woelke, Dianne, MSN. Letter to The City of
Ithaca, NY, Planning Board Members. June
25, 2024. (No Link Available)
Microplastics PFAS Crumb Rubber
Public
Commentary
Letter
N N Y
Letter containing many numbers, including equating the proposed synturf fields with 10 million plastic
bags, claiming a certain amount of microplastic loss per year. No specific citations provided
Chemicals of concern in turf: Phthalates; Latex; Polyvinyl chloride; Naptha; Siloxanes; Talc;
Di/Isocyanates; Formaldehyde; Fungicides; Flame retardants; Coal fly ash; 1,2-cyclohexane dicarbonic
acid; Dibutyltin; Ethylene glycol; Triclosan; Colorants; UV stabilizers; Anti-static treatments;
polybrominated diphenylethers (PBDE); bisphenols; and all PFAS/PFOS (especially polyvinylidene fluoride,
PVDF) No specific citations provided
Claims by industry to be able to manufacture synthetic turf without PFAS remain completely
unsubstantiated and undemonstrated at any level. In the absence of any independent third-party
verification, there is no basis for relying on industry claims, particularly given the universal presence of
PFAS in all tests to date. All manufacturers should be able to provide independent third-party testing
results using the most up to date methods for solids or testing showing less than one PPM (Part Per
Million) of TOF (Total Organic Fluorine). Commercial laboratories can test for approximately 100 of the
over 16,000 PFAS chemicals at the two ppt level. It should be noted that absence of proof is not proof of
absence when only a small percentage of PFAS can be tested for. Lots of concerns about crumb rubber
and other infills – irrelevant for GFR.
Brings up Lake Tahoe – no information about synturf being a source of microplastic pollution
Brings up Toronto study – artificial turf fibers accounted for 6% of total tons of plastic pollution but was
primary source of microplastic pollution.
Brings up Barcelona study - artificial turf fibers accounted for up to 15% of meso- and macroplastic
abundance.
9
Zero Waste Ithaca. “The True Costs of
Artificial Turf: Experts Discuss Cornell
University’s New “PFAS-Free” Project”
Webinar held on April 30, 2024.
https://youtu.be/iqk8Ss-
8Bjk?si=fm4uSfUqo1L4V56G
PFAS Cornell University
Synthetic Turf Youtube Video N Y Y Non-peer reviewed source
10
Zero Waste Ithaca, co-sponsored by Beyond
Plastics and Plastic Pollution Coalition.
Petition: Halt Cornell University’s Plan to
Install Artificial Turfs.
https://actionnetwork.org/petitions/ceb22b8
b44b8892804799dbec9048d51a165cc81/?ha
sh=49848ca89bf36f9d4cc636a15d0413c1
Microplastics Heat from Turf Chemical Exposure Public
Commentary N Y Y Non-peer reviewed source
11
Cornell University. "Cornell Engineering
Systems Engineering: Corporate Partners."
Cornell University. Accessed September 22,
2024.
https://www.systemseng.cornell.edu/se/pro
grams/meng-degree-distance-
learning/corporate-partners
Miscellaneous Corporate Influence
on Cornell Fuel Industry
Informational
Webpage from
University
N Y N Non-peer reviewed source
12
Cornell University. "ExxonMobil Foundation
Gives $403K to Cornell." Cornell University,
April 30, 2019.
https://www.engineering.cornell.edu/news/
exxonmobil-foundation-gives-403k-cornell
Miscellaneous Corporate Influence
on Cornell Fuel Industry University
Website N Y N Non-peer reviewed source
13
Fossil Free Cornell. Dissociate Cornell: A
Review of Cornell's Fossil Fuel Ties.
Developed and researched by Fossil Free
Cornell, September 18, 2024.
https://drive.google.com/file/d/1iPBmvy6v3
_5tmiPy1iXJhTNdyBXA0zLF/view
Miscellaneous Corporate Influence
on Cornell Fuel Industry NGO Blog N Y N Non-peer reviewed source
14
Hiltner, Sofia, Emily Eaton, Noel Healy,
Andrew Scerri, Jennie C. Stephens, and
Geoffrey Supran. "Fossil Fuel Industry
Influence in Higher Education: A Review and
a Research Agenda." Wiley Interdisciplinary
Reviews: Climate Change, first published
September 5, 2024.
https://doi.org/10.1002/wcc.904
Miscellaneous Corporate Influence
on Cornell Fuel Industry Academic Article Y Y N
The evolution of fossil fuel industry tactics for obstructing climate action, from outright denial of climate change to more subtle
techniques of delay, is under growing scrutiny. One key site of ongoing climate obstructionism identified by researchers,
journalists, and advocates is higher education. Scholars have exhaustively documented how industry-sponsored academic
research tends to bias scholarship in favor of tobacco, pharmaceutical, food, sugar, lead, and other industries, but the
contemporary influence of fossil fuel interests on higher education has received relatively little academic attention. We report the
first literature review of academic and civil society investigations into fossil fuel industry ties to higher education in the United
States, United Kingdom, Canada, and Australia. We find that universi es are an established yet under researched vehicle of
climate obstruction by the fossil fuel industry, and that universities' lack of transparency about their partnerships with this
industry poses a challenge to empirical research. We propose a research agenda of topical and methodological directions for
future analyses of the prevalence and consequences of fossil fuel industry–university partnerships, and responses to them.
15
Noor, Dharna. "Elite US Universities Rake in
Millions from Big Oil Donations, Research
Finds: Student-Led Analyses Raise Concerns
of Conflict of Interest at Six Universities,
Including Princeton, Columbia, and Cornell."
The Guardian, September 19, 2024.
https://www.theguardian.com/us-
news/2024/sep/19/oil-donations-
universities.
Miscellaneous Corporate Influence
on Cornell Fuel Industry
Investigative
Journalism
Article
N Y N Non-peer reviewed source
16
Taft, Molly. "Research or Lobbying? New
Documents Reveal What Fossil Fuel
Companies Are Really Paying for at Top
Universities." Drilled, April 30, 2024.
https://drilled.media/news/hearingdocs-
universities.
Miscellaneous Corporate Influence
on Cornell Fuel Industry
Investigative
Journalism
Article
N Y N Non-peer reviewed source
17
Wu, Venus, “University Denies Conflict of
Interest.” Cornell Daily Sun. February 15,
2010.
https://cornellsun.com/2010/02/15/universit
y-denies-conflict-of-interest/
Miscellaneous Corporate Influence
on Cornell Fuel Industry Student
Newspaper N Y N Non-peer reviewed source
19
Bø, S.M., Bohne, R.A. & Lohne, J.
“Environmental Impacts of Artificial Turf: A
Scoping Review.” International Journal of
Environmental Science and Technology.
(2024). https://doi.org/10.1007/s13762-024-
05689-3
Microplastics Crumb Rubber Weather Impacts -
Leaching Journal Article Y Y y
Artificial turfs represent a large environmental issue in terms of waste, microplastic pollution and leaching of chemicals. Artificial
turfs are made of several components, the shock absorbing pad, backing, stabilizing infill, performance infill and artificial grass
fibers. Common for these, except the stabilizing infill, is being made of plastic and chemicals being released to the environment.
The purpose of this article is to investigate current research on the environmental impact of artificial turfs for football fields. This
is done by presenting the state-of-the-art through a review of 40 articles and grey reports. Studies concerning the chemical
content of rubber granules and microplastics lost to the environment represent most of the findings. The methods applied vary to
a great extent, and more research is needed to further understand the environmental impact of artificial turfs. This study provides
an overview of the previous work performed and highlights knowledge gaps and will be of help during further research on the
environmental impacts of artificial turfs.
20
Celeiro, M., Armada, D., Ratola, N., Dagnac,
T., de Boer, J., and Llompart, M. "Evaluation
of Chemicals of Environmental Concern in
Crumb Rubber and Water Leachates from
Several Types of Synthetic Turf Football
Pitches." Chemosphere 270 (May 2021).
https://doi.org/10.1016/j.chemosphere.2020
.128610.
Crumb Rubber PAHs Leaching Journal Article Y N y
Nowadays concern exists about the safety for both football players and the environment of recycled tire rubber used as infill in
synthetic turf football pitches. In this study 40 target compounds, including polycyclic aromatic
hydrocarbons (PAHs), plasticizers, antioxidants and vulcanization agents were determined in 50 synthetic football pitches of
diverse characteristics to estimate environmental risks. This is the first study of crumb rubber sport facilities in Portugal. Analyses
were performed by ultrasound-assisted extraction followed by gas chromatography-tandem mass spectrometry (UAE-GC-MS/MS).
To evaluate the transfer of the target chemicals from the crumb rubber to the runoff water, water leachates collected from
several football pitches were analyzed by solid-phase microextraction (SPME-GC-MS/MS). In addition, lab-scale runoff simulation
experiments were performed to assess whether a persistent inflow of the target compounds from the football pitches into
the runoff water could exist. Results revealed the presence of most of the target PAHs in crumb rubber at total concentrations up
to 57 μg g−1, next to a high number of plas cizers and vulcaniza on agents. Runoff water collected from the football pitches
contained up to 13 PAHs as well as other chemicals of environmental concern. In addition, continuous leaching of chemicals from
the crumb rubber to the surrounding water was demonstrated. The transfer of target chemicals into the runoff water poses a
potential risk for the aquatic environment.
21
Chartres, Nicholas, Courtney B. Cooper,
Garret Bland, Katherine E. Pelch, Sheiphali A.
Gandhi, Abena BakenRa, and Tracey J.
Woodruff. "Effects of Microplastic Exposure
on Human Digestive, Reproductive, and
Respiratory Health: A Rapid Systematic
Review." Environmental Science &
Technology, December 18, 2024.
https://doi.org/10.1021/acs.est.3c09524
Microplastics Human Health
Impacts Journal Article Y Y n
Microplastics are ubiquitous environmental contaminants for which there are documented human exposures, but there is a
paucity of research evaluating their impacts on human health. We conducted a rapid systematic review using the “Navigation
Guide” systematic review method. We searched four databases in July 2022 and April 2024 with no restriction on the date. We
included studies using predefined eligibility criteria that quantitatively examined the association of microplastic exposure with any
health outcomes. We amended the eligibility criteria after screening studies and prioritized digestive, reproductive, and
respiratory outcomes for further evaluation. We included three human observational studies examining reproductive (n = 2) and
respiratory (n = 1) outcomes and 28 animal studies examining reproductive (n = 11), respiratory (n = 7), and digestive (n = 10)
outcomes. For reproductive outcomes (sperm quality) and digestive outcomes (immunosuppresion) we rated overall body
evidence as “high” quality and concluded microplastic exposure is “suspected” to adversely impact them. For reproductive
outcomes (female follicles and reproductive hormones), digestive outcomes (gross or microanatomic colon/small intestine effects,
alters cell proliferation and cell death, and chronic inflammation), and respiratory outcomes (pulmonary function, lung injury,
chronic inflammation, and oxidative stress) we rated the overall body of evidence as “moderate” quality and concluded
microplastic exposure is “suspected” to adversely impact them. We concluded that exposure to microplastics is “unclassifiable”
for birth outcomes and gestational age in humans on the basis of the “low” and “very low” quality of the evidence. We concluded
that microplastics are “suspected” to harm human reproductive, digestive, and respiratory health, with a suggested link to colon
and lung cancer. Future research on microplastics should investigate additional health outcomes impacted by microplastic
exposure and identify strategies to reduce exposure.
22
Cousins, I, Johansson, J, Salter, M et al.
“Outside the Safe Operating Space of a New
Planetary Boundary for Per- and
Polyfluoroalkyl Substances (PFAS).
Environmental Science Technology 56 (2022):
11172−9.
https://pubs.acs.org/doi/pdf/10.1021/acs.est
.2c02765?download=true
PFAS Journal Article Y Y N
It is hypothesized that environmental contamination by per- and polyfluoroalkyl substances (PFAS) defines a separate planetary
boundary and that this boundary has been exceeded. This hypothesis is tested by comparing the levels of four selected
perfluoroalkyl acids (PFAAs) (i.e., perfluorooctanesulfonic acid (PFOS), perfluorooctanoic acid (PFOA), perfluorohexanesulfonic
acid (PFHxS), and perfluorononanoic acid (PFNA)) in various global environmental media (i.e., rainwater, soils, and surface waters)
with recently proposed guideline levels. On the basis of the four PFAAs considered, it is concluded that (1) levels of PFOA and PFOS
in rainwater often greatly exceed US Environmental Protection Agency (EPA) Lifetime Drinking Water Health Advisory levels and
the sum of the aforementioned four PFAAs (Σ4 PFAS) in rainwater is often above Danish drinking water limit values also based on
Σ4 PFAS; (2) levels of PFOS in rainwater are often above Environmental Quality Standard for Inland European Union Surface Water;
and (3) atmospheric deposition also leads to global soils being ubiquitously contaminated and to be often above proposed Dutch
guideline values. It is, therefore, concluded that the global spread of these four PFAAs in the atmosphere has led to the planetary
boundary for chemical pollution being exceeded. Levels of PFAAs in atmospheric deposition are especially poorly reversible
because of the high persistence of PFAAs and their ability to continuously cycle in the hydrosphere, including on sea spray
aerosols emitted from the oceans. Because of the poor reversibility of environmental exposure to PFAS and their associated
effects, it is vitally important that PFAS uses and emissions are rapidly restricted.
23
Cropper, Maureen, Sarah Dunlop, Hudson
Hinshaw, Philip Landrigan, Yongjoon Park,
and Christos Symeonides. "The Benefits of
Removing Toxic Chemicals from Plastics."
Proceedings of the National Academy of
Sciences of the United States of America 121,
no. 52 (December 24, 2024): e2412714121.
https://doi.org/10.1073/pnas.2412714121
Microplastics Human Health
Impacts Leaching Journal Article Y N n
More than 16,000 chemicals are incorporated into plastics to impart properties such as color, flexibility, and durability. These
chemicals may leach from plastics, resulting in widespread human exposure during everyday use. Two plastic-associated
chemicals—bisphenol A (BPA) and di(2-ethylhexyl) phthalate (DEHP)—and a class of chemicals—brominated flame retardants
[polybrominated diphenyl ethers (PBDEs)]—are credibly linked to adverse health and cognitive impacts. BPA exposures are
associated with ischemic heart disease (IHD) and stroke, DEHP exposure with increased all-cause mortality among persons 55 to
64 y old, and prenatal PBDE exposures in mothers with IQ losses in their children. We estimate BPA, DEHP, and PBDE exposures in
38 countries containing one-third of the world’s population. We find that in 2015, 5.4 million cases of IHD and 346,000 cases of
stroke were associated with BPA exposure; that DEHP exposures were linked to approximately 164,000 deaths among 55-to-64 y
olds; and that 11.7 million IQ points were lost due to maternal PBDE exposure. We estimate the costs of these health impacts to
be $1.5 trillion 2015 purchasing power parity dollars. If exposures to BPA and DEHP in the United States had been at 2015 levels
since 2003, 515,000 fewer deaths would have been attributed to BPA and DEHP between 2003 and 2015. If PBDE levels in mothers
had been at 2015 levels since 2005, over 42 million IQ points would have been saved between 2005 and 2015.
24
De Haan, William P., Rocío Quintana, César
Vilas, Andrés Cózar, Miquel Canals, Oriol
Uviedo, and Anna Sanchez-Vidal. “The Dark
Side of Artificial Greening: Plastic Turfs as
Widespread Pollutants of Aquatic
Environments.” Environmental Pollution 334
(2023): 122094.
https://doi.org/10.1016/j.envpol.2023.12209
4
Microplastics Artificial Turf Fibers Weather Impacts -
Leaching Journal Article Y Y Y
Artificial turf (AT) is a surfacing material that simulates natural grass by using synthetic, mainly plastic, fibers in different shapes,
sizes and properties. AT has spread beyond sports facilities and today shapes many urban landscapes, from private lawns to
rooftops and public venues. Despite concerns regarding the impacts of AT, little is known about the release of AT fibers into
natural environment. Here, for the first time, we specifically investigate the presence of AT fibers in river and ocean waters as
major conduits and final destination of plastic debris transported by water runoff. Our sampling survey showed that, AT fibers –
composed mainly of polyethylene and polypropylene – can constitute over 15% of the mesoplastics and macroplastics content,
suggesting that AT fibers may contribute significantly to plastic pollution. Up to 20,000 fibers a day flowed down through the river,
and up to 213,200 fibers per km2 were found floating on the sea surface of nearshore areas. AT, apart from impacting on urban
biodiversity, urban runoff, heat island formation, and hazardous chemical leaching, is a major source of plastic pollution to natural
aquatic environments.
25
Ginsberg, Gary, Brian Toal, and Tara Kurland.
“Benzothiazole Toxicity Assessment in
Support of Synthetic Turf Field Human Health
Risk Assessment.” Journal of Toxicology and
Environmental Health, Part A 74, no. 17
(2011): 1175–83.
https://doi.org/10.1080/15287394.2011.586
943
Crumb Rubber Human Health
Impacts Journal Article Y N Y
Synthetic turf fields cushioned with crumb rubber may be a source of chemical exposure to those playing on the fields.
Benzothiazole (BZT) may volatilize from crumb rubber and result in inhalation exposure. Benzothiazole has been the primary
rubber-related chemical found in synthetic turf studies. However, risks associated with BZT have not been thoroughly assessed,
primarily because of gaps in the database. This assessment provides toxicity information for a human health risk assessment
involving BZT detected at five fields in Connecticut. BZT exerts acute toxicity and is a respiratory irritant and dermal sensitizer. In a
genetic toxicity assay BZT was positive in Salmonella in the presence of metabolic activation. BZT metabolism involves ring-
opening and formation of aromatic hydroxylamines, metabolites with mutagenic and carcinogenic potential. A structural analogue
2-mercaptobenzothiazole (2-MBZT) was more widely tested and so is used as a surrogate for some endpoints. 2-MBZT is a rodent
carcinogen with rubber industry data supporting an association with human bladder cancer. The following BZT toxicity values
were derived: (1) acute air target of 110 μg/m3 based upon a BZT RD50 study in mice relative to results for formaldehyde; (2) a
chronic noncancer target of 18 μg/m3 based upon the no-observed-adverse-effect level (NOAEL) in a subchronic dietary study in
rats, dose route extrapolation, and uncertainty factors that combine to 1000; (3) a cancer unit risk of 1.8E-07/μg-m3 based upon a
published oral slope factor for 2-MBZT and dose-route extrapolation. While there are numerous uncertainties in the BZT
toxicology database, this assessment enables BZT to be quantitatively assessed in risk assessments involving synthetic turf fields.
However, this is only a screening-level assessment, and research that better defines BZT potency is needed.
26
Golden, Leslie M. "The Contribution of
Artificial Turf to Global Warming."
Sustainability and Climate Change 14, no. 6,
December 14, 2021.
https://doi.org/10.1089/scc.2021.0038
Heat from Turf Climate Impacts Journal Article Y N Y
This article discusses how the substitution of artificial grass for natural grass contributes to global warming. An algebraic model of
the atmospheric transmittance in the infrared wavelengths from 0 to 15 microns is used to modulate the Planck law, yielding both
the energy absorbed by the atmosphere and that transmitted through the atmosphere as a function of the ground temperature.
The calculation shows that the energy absorbed by the atmosphere increases more rapidly than the amount transmitted through
the atmosphere with increasing ground temperature. In situ experiments demonstrate that artificial grass reaches significantly
greater temperatures than those reached by natural grass under the same meteorological conditions. As a result, artificial grass
creates an additional amount of energy absorbed by the atmosphere. With the number of nationwide artificial grass installations,
a typical result yields an additional energy deposited into the atmosphere during moderately warm summer days of 10 to 20
gigawatts. The annual nationwide cost savings to local governments by the substitution of artificial grass for natural grass is shown
to be trivial.
27
Golijanin, Petar, Ryan James Whalen, Mark
Cote, Tyler Joseph Zajac, and Matthew T.
Provencher. “The Comparison of Injuries in
National Football League Players
(2016–2021) Based on the Playing Surface:
Natural Grass versus Artificial Turf.”
American Academy of Orthopaedic Surgeons
Annual Meeting. February 12, 2024
https://index.mirasmart.com/AAOS2024/PDF
files/AAOS2024-010994.PDF
Sports Injuries
Research
Presentation/
Webinar
Summary
N N Y
This study analyzed NFL injuries (2016-2021) based on playing surface, comparing artificial turf (AT) and
natural grass (GRASS). Results showed a higher injury rate on artificial turf, with notable increases in
ankle (10.6%), hamstring (17.2%), ACL (14.6%), MCL (43.5%), and Achilles (24.0%) injuries. Slit-film
artificial turf (AT-SLIT) was associated with even higher risks of ankle, hamstring, and ACL injuries
compared to non-slit artificial turf (AT-NS). Findings suggest that artificial turf increases injury risks for
NFL players, warranting further research into its impact on player careers.
28
Gomes, Filipa O., M. Rosário Rocha, Arminda
Alves, and Nuno Ratola. "A Review of
Potentially Harmful Chemicals in Crumb
Rubber Used in Synthetic Football Pitches."
Journal of Hazardous Materials 409 (May 5,
2021): 124998.
https://doi.org/10.1016/j.jhazmat.2020.1249
98
Crumb Rubber Leaching Air Volitalization Journal Article Y Y Y
Recycling end-of-life tires (ELTs) reduces waste and provides a low-cost source of energy and materials such as crumb rubber, used
as infill in artificial turf football pitches. However, some concerns were raised and remain about its safety. The potentially toxic
human exposure to chemicals such as polycyclic aromatic hydrocarbons (PAHs), metals and others (volatile organic compounds
(VOCs), plasticizers, antioxidants and additives) existing in ELTs (and in the resulting crumb rubber) is being studied, with no
definitive conclusions. The literature existing so far suggests the possibility of their release from synthetic turf infill into the
environment as water leachates and to the air surrounding the pitches, but there is the need of further research, also to assess the
contribution of other materials present in synthetic turf. The database available comprised crumb rubber infill studies from
pitches in 6 countries (USA, Norway, Netherlands, Portugal, Italy, Spain) and revealed a myriad of hazardous chemicals, with
benzo[a]pyrene (n.d.–4.31 ± 3.95 mg/kg) and zinc (n.d.–14150 ± 1344 mg/kg) often exceeding the established limits. A
dependence on indoor/outdoor conditions and the age of the source material was evaluated, often showing significative
differences. From this standpoint, this review is intended to add knowledge about the presence of contaminants in this recycled
material, aiming to ensure the safety of end-users and the environment.
29
Gould HP, Lostetter SJ, Samuelson ER, Guyton
GP. “Lower Extremity Injury Rates on
Artificial Turf Versus Natural Grass Playing
Surfaces: A Systematic Review.” The
American Journal of Sports Medicine. May
20, 2022.
https://doi.org/10.1177/0363546521106956
2
Sports Injuries Journal Article Y N Y
Background:No study has provided a comprehensive systematic review of sports injuries on artificial turf versus natural grass.
Purpose:To comprehensively examine the risk of overall injuries and multiple types of lower extremity injuries across all sports, all
levels of competition, and on both old-generation and new-generation artificial turf.
Study Design:Systematic review; Level of evidence, 3.
Methods: A systematic review of the English-language literature was performed according to PRISMA (Preferred Reporting Items
for Systematic Reviews and Meta-Analyses) guidelines. All included articles compared overall injury rates or lower extremity (hip,
knee, or foot and ankle) injury rates on artificial turf and natural grass. All sports, levels of competition, and turf types were
included. Studies were excluded if they did not include overall injury rates or lower extremity injury rates. Because of the
heterogeneity of the included studies, no attempt was made to aggregate risk ratios to conduct a quantitative meta-analysis.
Results:A total of 53 articles published between 1972 and 2020 were identified for study inclusion. Most studies on new-
generation turf (13/18 articles) found similar overall injury rates between playing surfaces. When individual anatomic injury
locations were analyzed, the greatest proportion of articles reported a higher foot and ankle injury rate on artificial turf compared
with natural grass, both with old-generation (3/4 articles) and new-generation (9/19 articles) turf. Similar knee and hip injury rates
were reported between playing surfaces for soccer athletes on new-generation turf, but football players, particularly those at high
levels of competition, were more likely to sustain a knee injury on artificial turf than on natural grass.
Conclusion:The available body of literature suggests a higher rate of foot and ankle injuries on artificial turf, both old-generation
and new-generation turf, compared with natural grass. High-quality studies also suggest that the rates of knee injuries and hip
injuries are similar between playing surfaces, although elite-level football athletes may be more predisposed to knee injuries on
artificial turf compared with natural grass. Only a few articles in the literature reported a higher overall injury rate on natural grass
compared with artificial turf, and all of these studies received financial support from the artificial turf industry.
30
Hua, Jing Martin Lundqvist, Shanti Naidu,
Mikael T. Ekvall, Tommy Cedervall.
“Environmental Risks of Breakdown
Nanoplastics from Synthetic Football Fields.”
Environmental Pollution. April, 2024.
https://doi.org/10.1016/j.envpol.2024.12365
2
Microplastics Leaching Journal Article Y Y Y
The widespread use of synthetic turf in sports has raised health concerns due to potential risks from nanoplastic inhalation or
ingestion. Our research focused on detecting nanoplastics in drainage water from a synthetic football field and evaluating the
toxicity of these materials after mechanical fragmentation. We collected and analysed drainage water samples for polymer
content and subjected high-density polyethylene (HDPE) straws and ethylene propylene diene monomer (EPDM) granules used on
synthetic football fields, to mechanical breakdown to create nanoplastics. The results indicated the presence of trace amounts of
EPDM in the water samples. Furthermore, the toxicological assessment revealed that the broken-down nanoplastics and leachate
from the surface of EPDM rubber granules exhibited high toxicity to Daphnia magna, while nanoplastics from the inner material
exhibited no significant toxicity. The findings highlight the urgent need for future research to identify these specific toxic agents
from the surface of EPDM granules.
31
Huang, Qian’en, Jianqun Wang, Jianping
Wang, Dongmei Yu, Yuanbo Zhan, and Ze Liu.
“Emerging Health Risks of Crumb Rubber:
Inhalation of Environmentally Persistent Free
Radicals via Saliva During Artificial Turf
Activities.” Environmental Science &
Technology 57, no. 50 (2023): 21005–21015.
https://doi.org/10.1021/acs.est.3c03278
Crumb Rubber Human Health
Impacts
Inhalation
Exposure Journal Article Y N Y
Crumb rubber (CR) is a commonly used infill material in artificial turf worldwide. However, the potential health risk associated
with exposure to CR containing environmentally persistent free radicals (EPFRs) remains under investigation. Herein, we observed
the widespread presence of CR particles in the range of 2.8–51.4 μg/m3 and EPFRs exceeding 6 × 1015 spins/g in the ambient air
surrounding artificial turf fields. Notably, the abundance of these particles tended to increase with the number of operating years
of the playing fields. Furthermore, by analyzing saliva samples from 200 participants, we established for the first time that EPFR-
carrying CR could be found in saliva specimens, suggesting the potential for inhaling them through the oral cavity and their
exposure to the human body. After 40 min of exercise on the turf, we detected a substantial presence of EPFRs, reaching as high
as (1.15 ± 1.00) × 1016 spins of EPFR per 10 mL of saliva. Moreover, the presence of EPFRs considerably increased the oxidative
potential of CR, leading to the inactivation of Ca2+, redox reactions, and changes in spatial binding of the α-1,4-chain of salivary
amylase to Ca2+, all of which could influence human saliva health. Our study provides insights into a new pathway of human
exposure to CR with EPFRs in artificial turf infill, indicating an increased human health risk of CR exposure.
32
Jim, C.Y. "Intense Summer Heat Fluxes in
Artificial Turf Harm People and
Environment." Landscape and Urban
Planning 157, January 2017, 561–576.
https://doi.org/10.1016/j.landurbplan.2016.
09.012.
Heat from Turf Human Health
Impacts Heat Stress Journal Article Y N Y
Artificial turf (AT) sports fields have increasingly replaced natural turf (NT). High AT material-cum-air temperature incurs heat-
stress impacts on athletes, demanding better understanding of thermal regimes vis-à-vis weather conditions. Adjacent AT and NT
sites in humid-tropical Hong Kong were studied. Four radiant-energy components (direct-solar, reflected-solar, sky-thermal,
ground-thermal) and five temperature levels (150, 50 and 15 cm, turf-surface, substrate) were monitored in replicate, for three
summer weather conditions (sunny, cloudy, overcast). Inter-site differences are attributed to lower AT albedo, admitting more
shortwave and emitting more longwave radiant energy. Drastic decline in solar fluxes contrasts with terrestrial fluxes which
remain intense. AT materials, with low specific heat and moisture and scanty evapotranspiration, induce fast warming and cooling
with little time lag to synchronize with insolation rhythm. On sunny day, AT turf-surface, heated to 72.4 °C comparing with NT at
36.6 °C, dissipates heat by conduction and convection to near-ground air and by strong ground-thermal emission. Exceeding the
heat-stress threshold most of the time, AT cools quickly from late afternoon for heat-safe use soon after sunset. On cloudy day,
subdued AT heating allows earlier cooling in late afternoon. Both sites are heat-safe on overcast day. The findings can optimize
game scheduling to prevent heat-related injuries.
33
Kanaan, Ahmed, Elena Sevostianova, Bernd
Leinauer, and Igor Sevostianov. "Water
Requirements for Cooling Artificial Turf."
Journal of Irrigation and Drainage
Engineering 146, no. 10, October 2020:
04020032.
https://doi.org/10.1061/(ASCE)IR.1943-
4774.0001506
Heat from Turf Climate Impacts Journal Article Y N Y
Artificial turf with black infill material gained widespread use on athletic fields starting in the early 2000s. One argument made in
the desert southwestern United States for replacing natural grass–based athletic fields with artificial turf surfaces is that water is
not needed for irrigation. However, it has been shown that in arid and semiarid climate zones the surface temperature of the
artificial turf fields can exceed 80°C during the summer, requiring irrigation and drainage systems to keep them cool enough for
use. An experiment was conducted at New Mexico State University to evaluate the amount of water required to maintain surface
temperatures comparable to those of natural turfgrass areas. A mathematical model was developed based on the heat balance
equation to determine heat dissipation from artificial turf–based fields with comparison of the predicted values to experimental
data. Overall, our model estimates were within 12% of the measured values. The model indicates that over a 24-h period, the
amount of water (3.00 to 5.00 mm) required to maintain artificial turf at temperatures similar to irrigated natural turfgrass are
comparable.
34
Kim JI, Kim BN, Lee YA, Shin CH, Hong YC,
Dossing LD, Hilderbrandt G, Lim YH.
“Association Between Early-Childhood
Exposure to Perfluoroalkyl Substances and
ADHD Symptoms: A Prospective Cohort
Study.” Science of the Total Environment.
April 4, 2023.
https://doi.org/10.1016/j.scitotenv.2023.163
081
PFAS Human Health
Impacts ADHD Journal Article Y Y Y
There is evidence that exposure to perfluoroalkyl substances (PFAS) is associated with attention-deficit/hyperactivity disorder
(ADHD) symptoms. Previous studies have focused on prenatal exposure to PFAS, and only few studies have examined the
associations of early-childhood exposure, especially at low exposure levels. This study explored the association between early-
childhood exposure to PFAS and ADHD symptoms later in childhood. In 521 children, we measured the serum levels of six PFAS in
peripheral blood at the ages of 2 and 4 years, including perfluorooctanoate (PFOA), perfluornonanoicacid (PFNA),
perfluorodecanoic acid (PFDA), perfluoroundecanoic acid (PFUnDA), perfluorohexane sulfonic acid (PFHxS), and perfluorooctane
sulfonate (PFOS). The ADHD Rating Scale IV (ARS) was utilized to measure ADHD traits at 8 years of age. We explored the
relationship between PFAS and ARS scores using Poisson regression models after adjusting for potential confounders. Levels of
exposure to individual PFAS and the summed value were divided into quartiles to examine possible nonlinear relationships. All six
PFAS exhibited inverted U-shaped curves. Children in the 2nd and 3rd quartile levels of each PFAS showed higher ARS scores than
those in the1st quartile level. Below the 3rd quartile of the summed levels of six PFAS (ΣPFAS), a doubling of the ΣPFAS was
associated with an 20.0 % (95 % CI: 9.5 %, 31.5 %) increase in ADHD scores. However, at the age of 4 years, none of the evaluated
PFAS exhibited linear or nonlinear associations with the ARS scores. Thus, school-aged children may be vulnerable to the
neurotoxic effects of exposure to PFAS at age 2 that contribute to ADHD, particularly at low to mid-levels.
35
Kim S, Yang JY, Kim HH, Yeo IY, Shin DC, Lim
YW. “Health Risk Assessment of Lead
Ingestion Exposure by Particle Sizes in Crumb
Rubber on Artificial Turf Considering
Bioavailability.” Environmental Health and
Toxicology. February 2, 2012.
https://www.ncbi.nlm.nih.gov/pmc/resource
s/citations/3278598/export/
Crumb Rubber Heavy Metal
Exposure Lead Journal Article Y N Y
Objectives: The purpose of this study was to assess the risk of ingestion exposure of lead by particle sizes of crumb rubber in
artificial turf filling material with consideration of bioavailability.
Methods: This study estimated the ingestion exposure by particle sizes (more than 250 um or less than 250 um) focusing on
recyclable ethylene propylene diene monomer crumb rubber being used as artificial turf filling. Analysis on crumb rubber was
conducted using body ingestion exposure estimate method in which total content test method, acid extraction method and
digestion extraction method are reflected. Bioavailability which is a calibrating factor was reflected in ingestion exposure estimate
method and applied in exposure assessment and risk assessment. Two methods using acid extraction and digestion extraction
concentration were compared and evaluated.
Results: As a result of the ingestion exposure of crumb rubber material, the average lead exposure amount to the digestion
extraction result among crumb rubber was calculated to be 1.56×10(-4) mg/kg-day for low grade elementary school students and
4.87×10(-5) mg/kg-day for middle and high school students in 250 um or less particle size, and that to the acid extraction result
was higher than the digestion extraction result. Results of digestion extraction and acid extraction showed that the hazard
quotient was estimated by about over 2 times more in particle size of lower than 250 um than in higher than 250 um. There was a
case of an elementary school student in which the hazard quotient exceeded 0.1.
Conclusions: Results of this study confirm that the exposure of lead ingestion and risk level increases as the particle size of crumb
rubber gets smaller.
Keywords: Artificial turf; Bioavailability; Crumb rubber; Exposure assessment; Lead.
36
Kole, Pieter Jan, Frank GAJ Van Belleghem,
Jetse J. Stoorvogel, Ad MJ Ragas, and Ansje J.
Löhr. “Tyre Granulate on the Loose; How
Much Escapes the Turf? A Systematic
Literature Review.” Science of the Total
Environment (2023): 166221.
https://doi.org/10.1016/j.scitotenv.2023.166
22
Crumb Rubber Microplastics Journal Article Y Y Y
Tyre granulate used as infill for artificial turf is hailed by some as a good example of reuse, while others see it as a baleful means to
dispose of discarded tyres. Because the particles are applied loosely to the surface, they will inevitably disperse into the
environment. The possible environmental and health impacts of the particles are a source of societal concern. In response to this,
policies to limit particle losses are being developed at the European level. To make informed decisions, data on the quantity of
tyre granulate released into the environment are required. So far, however, there are no systematic reviews on or estimates of
these losses. The aim of the present study was to identify the various pathways through which infill leaves a football turf and,
subsequently, to estimate the quantity of infill leaving the turf by each of these pathways. Data on the pathways including the
associated volumes were collected in a systematic literature review following the PRISMA method. The quality of the evidence
reported in the retrieved literature was assessed using the GRADE method. The resulting pathways and corresponding quantities
were captured in a mass balance. This study estimates that, without mitigation measures, approximately 950 kg/year (min. 570
kg/year, max. 2280 kg/year) of infill leaves the surface of an average artificial football turf via known pathways. Clearing snow can
result in an additional loss of 830 kg/year (min. 200 kg/year, max. 2760 kg/year) of infill material. To mitigate the dispersion of
infill, one could focus on snow removal, brushing and granulate picked up by players. Mitigation measures for these pathways are
well-established and relatively easy to implement and maintain. Although the amount of granulate picked up from the turf by
players is relatively small, the measure will promote environmental awareness among the players.
37
Lauria, Mélanie Z., Ayman Naim, Merle
Plassmann, Jenny Fäldt, Roxana Sühring, and
Jonathan P. Benskin. “Widespread
Occurrence of Non-Extractable Fluorine in
Artificial Turfs from Stockholm, Sweden.”
Environmental Science & Technology Letters.
July 6, 2022. DOI:
10.1021/acs.estlett.2c00260
https://pubs.acs.org/doi/10.1021/acs.estlett.
2c00260
PFAS Leaching Journal Article Y Y Y
Per- and polyfluoroalkyl substances (PFAS) are frequently used in the production of rubber and plastic, but little is known about
the identity, concentration, or prevalence of PFAS in these products. In this study, a representative sample of plastic- and rubber-
containing artificial turf (AT) fields from Stockholm, Sweden, was subjected to total fluorine (TF), extractable organic fluorine
(EOF), and target PFAS analysis. TF was observed in all 51 AT samples (ranges of 16–313, 12–310, and 24–661 μg of F/g in backing,
filling, and blades, respectively), while EOF and target PFAS occurred in <42% of all samples (<200 and <1 ng of F/g, respectively). A
subset of samples extracted with water confirmed the absence of fluoride. Moreover, application of the total oxidizable precursor
assay revealed negligible perfluoroalkyl acid (PFAA) formation across all three sample types, indicating that the fluorinated
substances in AT are not low-molecular weight PFAA precursors. Collectively, these results point toward polymeric organofluorine
(e.g., fluoroelastomer, polytetrafluoroethylene, and polyvinylidene fluoride), consistent with patent literature. The combination of
poor extractability and recalcitrance toward advanced oxidation suggests that the fluorine in AT does not pose an imminent risk to
users. However, concerns surrounding the production and end of life of AT, as well as the contribution of filling and blades to
environmental microplastic contamination, remain.
38
Leonard, Jamie, Sujith Ravi, and Sanjay K.
Mohanty. "Preferential Emission of
Microplastics from Biosolid-Applied
Agricultural Soils: Field Evidence and
Theoretical Framework." Environmental
Science & Technology Letters 11, no. 2
(2024): 136–142.
https://doi.org/10.1021/acs.estlett.3c00850
Microplastics Inhalation Risks Journal Article Y N N
Land application of wastewater biosolids on agricultural soils is suggested as a sustainable pathway to support the circular
economy; however, this practice often enriches microplastics and associated contaminants in topsoil. Wind could transport these
contaminated microplastics, thereby increasing their inhalation health risks. Analyzing wind-borne sediments collected from wind
tunnel experiments on biosolid-applied agricultural fields, we show enrichment of microplastics in wind-blown sediments. We
explain this preferential transport and enrichment of microplastics by using a theoretical framework. This framework reveals how
the combined effects of the low density of microplastics and weakened wet-bonding interparticle forces between microplastics
and soil particles lower their threshold velocity, the minimum wind velocity necessary for wind erosion to occur. Our calculations
indicate that microplastics could be emitted at wind speeds lower than the characteristic threshold of background soil. Analyzing
the windspeed distribution for 3 months of wind events over a bare soil surface, we showed that more than 84% of the wind
events exceed the threshold velocity of microplastics of size 150 μm, while only 23% of the wind events exceed the threshold
velocity of the background soil. Thus, current models for fugitive dust emissions may underestimate the microplastic emission
potential of biosolid-amended soils.
39
Liu, Zhixin, C.Y. Jim, and P. Xu. "Playing on
Natural or Artificial Turf Sports Field?
Assessing Heat Stress of Children, Young
Athletes, and Adults in Hong Kong."
Sustainable Cities and Society 75, December
2021: 103271.
https://doi.org/10.1016/j.scs.2021.103271
Heat from Turf Sports Injuries Heat Stress Journal Article Y N Y
Exercising in an unusually hot environment may aggravate exertional heat illness. Turf material significantly affects the
microenvironment and heat-stress sensation of sports-field users. However, the difference in human- biometeorological effects
between different sports-field turf materials demands further investigation. This study compared artificial (AT) with natural turf
(NT) fields, investigating three age groups (children, young athletes, and adults), two physical activities (playing soccer and
walking), and three heat stress indicators (HI, Heat Index; WBGT, Wet Bulb Globe Thermometer; and COMFA, COMfort FormulA).
The results showed heat-stress underestimation by HI and WBGT. In contrast, COMFA, incorporating comprehensive
environmental and human physiological parameters, provided a more targeted and reliable heat-stress assessment. COMFA
indicated a longer heat-stress duration exercising at AT than NT. Compared to NT, children suffered a 24% longer “Extreme
danger” duration at AT in sunny daytime. The AT-NT difference in human-biometeorological effect was limited concerning human
convection, evaporation, metabolic heat, and emitted longwave radiation, but was considerable in human absorbed radiation. AT
had lower albedo than NT, hence field users absorbed more upward longwave radiation but less upward shortwave radiation,
highlighting important control by the radiant environment. NT sports fields are recommended for a healthy outdoor thermal
environment, especially for children.
40
Magnusson, Simon, and Josef Mácsik.
“Analysis of Energy Use and Emissions of
Greenhouse Gases, Metals and Organic
Substances from Construction Materials Used
for Artificial Turf.” Resources, Conservation
and Recycling 122 (2017): 362–372.
https://doi.org/10.1016/j.resconrec.2017.03.
007
Crumb Rubber Climate Impacts Heavy Metal
Exposure Journal Article Y N Y
This study applied a life cycle analysis approach to identify significant posts for energy and greenhouse gas (GHG) emissions
associated with construction, use and removal of an artificial turf field. A chemical analysis of infills was conducted to describe
leachability of metals and organic substances. The infill types studied were recycled tires (RT), virgin thermoplastic elastomers
(TPE), virgin ethylene propylene diene monomer (EPDM) and recycled EPDM (R-EPDM) from cables and automotive mats. The
result shows that energy use and GHG emissions of an artificial turf field significantly correlates with material choice, maintenance
and management of removed turf. Energy use and GHG emissions for infills was highest for TPE followed by EPDM. In summary,
use of recycled material as infill, reuse of soil and rock on site and reuse of removed turf and infill could reduce energy use and
GHG emissions. Leachates from RT and R-EPDM contained detectable concentrations of zinc, which was relatively high from R-
EPDM. Organic substances, harmful for aquatic environments and/or humans were detected in all leachates but in highest
concentration from R-EPDM followed by EPDM. In the literature, risk assessments focused predominantly on RT while
assessments of other infills was less extensive or was missing. The result in this article stressed the need to include all infill types in
risk assessments. Previous environmental risk assessments based on field measurements concluded risks with infills to be small or
minimal. However, since these assessments are few, this study suggested verification of those results by field measurements.
41
Murphy, Maire, Genoa R. Warner. “Health
Impacts of Artificial Turf: Toxicity Studies,
Challenges, and Future Directions.”
Environmental Pollution. October 1, 2022.
https://doi.org/10.1016/j.envpol.2022.11984
1
Crumb Rubber PFAS Human Health
Impacts Journal Article Y N Y
Many communities around the country are undergoing contentious battles over the installation of artificial turf. Opponents are
concerned about exposure to hazardous chemicals leaching from the crumb rubber cushioning fill made of recycled tires, the
plastic carpet, and other synthetic components. Numerous studies have shown that chemicals identified in artificial turf, including
polycyclic aromatic hydrocarbons (PAHs), phthalates, and per- and polyfluoroalkyl substances (PFAS), are known carcinogens,
neurotoxicants, mutagens, and endocrine disruptors. However, few studies have looked directly at health outcomes of exposure
to these chemicals in the context of artificial turf. Ecotoxicology studies in invertebrates exposed to crumb rubber have identified
risks to organisms whose habitats have been contaminated by artificial turf. Chicken eggs injected with crumb rubber leachate
also showed impaired development and endocrine disruption. The only human epidemiology studies conducted related to
artificial turf have been highly limited in design, focusing on cancer incidence. In addition, government agencies have begun their
own risk assessment studies to aid community decisions. Additional studies in in vitro and in vivo translational models,
ecotoxicological systems, and human epidemiology are strongly needed to consider exposure from both field use and runoff,
components other than crumb rubber, sensitive windows of development, and additional physiological endpoints. Identification
of potential health effects from exposures due to spending time at artificial turf fields and adjacent environments that may be
contaminated by runoff will aid in risk assessment and community decision making on the use of artificial turf.
42
Negev, Maya, Zohar Barnett-Itzhaki, Tamar
Berman, Shay Reicher, Naor Cohen, Ruti Ardi,
Yaniv Shammai, Tamar Zohar, and Miriam L.
Diamond. “Hazardous Chemicals in Outdoor
and Indoor Surfaces: Artificial Turf and
Laminate Flooring.” Journal of Exposure
Science & Environmental Epidemiology 32,
no. 3 (2022): 392–399.
https://www.nature.com/articles/s41370-
021-00396-4
Crumb Rubber Heavy Metal
Exposure PAHs Journal Article Y N Y
Background: Synthetic materials, increasingly used for indoor and outdoor surfaces including homes and playgrounds, may
contain toxic chemicals. Infants have a higher potential of exposure to chemicals in these materials, which may pose a risk to their
health.
Objective: To understand potential risks related to outdoor surface coverings, based on a review of the literature and regulations,
and to assess levels of hazardous chemicals in surface coverings in Israel.
Methods: We reviewed the literature and regulations on artificial turf. We tested 46 samples of surfaces for trace metals in
synthetic playground surfaces; trace metals, phthalates, and di(2-ethylhexyl) terephthalate (DEHT) in synthetic grass, and
phthalates, DEHT and formaldehyde in laminate flooring.
Results: Twelve studies reporting high levels of polycyclic aromatic hydrocarbons (PAH), and varying levels of trace metals in
synthetic playground surfaces were identified, as well as five international regulations on lead with maximum acceptable
concentrations in the range 40–500 mg/kg. Surface tests showed that 20 out of 30 samples of synthetic playground surfaces
exceeded relevant standards for trace metals, of which five had cadmium levels ≥30 mg/kg and four had chromium levels
≥510 mg/kg. In synthetic grass, three out of eight samples exceeded relevant standards, with lead levels ≥1200 mg/kg. In Laminate
flooring (n = 8) formaldehyde levels were in the range of 0.7–1.2 mg/m2 formaldehyde, and five samples contained ~5% DEHT.
Significance: The literature on chemicals in surfaces is limited, but indicates some exceedance of regulatory limits. Trace metals in
synthetic playground surfaces and synthetic grass, not regulated in Israel, exceeded relevant international standards in 72% of
samples. Laminate flooring, regulated for formaldehyde, did not exceed the 3.5 mg/m2 standard, but contained DEHT, a
replacement for ortho-substituted phthalates. The results of this preliminary study show that flooring surfaces may be a source of
children’s exposure to toxic chemicals
43
Park, Byung-Geon, Cheoljae Lee, Young-Jun
Kim, Jinhyoung Park, Hyeok Kim, Young Jung,
Jong Soo Ko, Sang-Woo Kim, Ju-Hyuck Lee,
Hanchul Cho. “Toxic Micro/Nano Particles
Removal in Water via Triboelectric
Nanogenerator.” Nano Energy, 2022; 100:
107433.
https://doi.org/10.1016/j.nanoen.2022.1074
33
Microplastics Microplastics Heavy Metals Journal Article Y N N
Herein, a new strategy for micro/nanoparticles removal in water using a triboelectric nanogenerator (TENG) is demonstrated.
Removal process based on electrophoretic force can extract particles from water by its zeta potential due to the electric fields
generated by the TENG, in other words, higher performance TENG removes more particles. High-performance TENG based on a
three-dimensional porous-pyramid polydimethylsiloxane shows a power output nearly three times higher than that of a flat film-
based TENG. With the proposed TENG, the removal rate is 21.4%, which is 5.6 times higher than that for the flat TENG (3.8%). By
measuring the coverage area of the particles attached to the electrode, it was found that the removal of particles was significantly
affected by the output voltage and operation time of the TENG. A TENG-driven self-powered electrophoretic system that removes
sub-micron nanoparticles of polystyrene, CdSe/CdZnS, ZnO, and SiO2 is successfully demonstrated.
44
Peaslee, Graham and Heather D. Whitehead.
“Occurrences of Per- and Polyfluoroalkyl
Substances in Plastic Products from
Fluorinated Polymer Processing Aids.” 2024.
PFAS
Research
Presentation/
Webinar
Summary
N N Y -
45 Redundant Source - Listed Above
46
Royer, Sarah-Jeanne, Sara Ferrón, Samuel T.
Wilson, and David M. Karl. "Production of
Methane and Ethylene from Plastic in the
Environment." PLOS ONE 13, no. 8 (2018):
e0200574.
https://doi.org/10.1371/journal.pone.02005
74
Miscellaneous Plastics Climate Impacts Journal Article Y Y N
Mass production of plastics started nearly 70 years ago and the production rate is expected to double over the next two decades.
While serving many applications because of their durability, stability and low cost, plastics have deleterious effects on the
environment. Plastic is known to release a variety of chemicals during degradation, which has a negative impact on biota. Here,
we show that the most commonly used plastics produce two greenhouse gases, methane and ethylene, when exposed to ambient
solar radiation. Polyethylene, which is the most produced and discarded synthetic polymer globally, is the most prolific emitter of
both gases. We demonstrate that the production of trace gases from virgin low-density polyethylene increase with time, with
rates at the end of a 212-day incubation of 5.8 nmol g-1 d-1 of methane, 14.5 nmol g-1 d-1 of ethylene, 3.9 nmol g-1 d-1 of ethane
and 9.7 nmol g-1 d-1 of propylene. Environmentally aged plastics incubated in water for at least 152 days also produced
hydrocarbon gases. In addition, low-density polyethylene emits these gases when incubated in air at rates ~2 times and ~76 times
higher than when incubated in water for methane and ethylene, respectively. Our results show that plastics represent a
heretofore unrecognized source of climate-relevant trace gases that are expected to increase as more plastic is produced and
accumulated in the environment.
47
Sánchez-Sotomayor D, Martín-Higuera A, Gil-
Delgado JA, Gálvez Á, Bernat-Ponce E.
“Artificial Grass in Parks as a Potential New
Threat for Urban Bird Communities.” Bird
Conservation International. Cambridge
University Press, July 26, 2022.
doi:10.1017/S0959270922000119
Miscellaneous Urban Ecology Biodiversity Journal Article Y Y Y
Green areas are key habitats for urban avifauna. Urban parks stand out from other anthropic habitats especially in providing
trophic resources for many bird species. Consequently, modifications of these green zones can imply major changes in urban
biodiversity. Potential pernicious urban remodelling is taking place in parks of eastern Spain because natural grass is being
replaced with artificial grass to save water and to avoid management. This study aimed to determine whether remodelled parks
with artificial grass harbour lower avian diversity (alpha, beta and gamma diversity) than traditional parks with natural grass. We
surveyed 21 parks with artificial grass and 24 parks with natural grass in 18 towns of the Valencia Region in autumn 2020. In each
park, we carried out 5-minute and 25-m radius point counts for determining bird species and their abundance. The effects of park
area and grass type on alpha diversity (species richness, Shannon diversity index, Pielou’s Evenness and total abundance) were
tested by means of GLMs. Differences in beta diversity and its components (nestedness and turnover) were also analyzed with the
Bray-Curtis dissimilarity index. Gamma diversity was assessed by means of species accumulation curves. Finally, differences in
community composition were tested by PERMANOVA and SIMPER tests. The parks with natural grass always harboured higher
gamma diversity, species richness and abundance. Turnover was higher in parks with natural grass, whereas nestedness was
higher in artificial grass parks. Differences in community composition were due mainly to abundance differences in common
ground-feeding birds. We highlight that the trend of replacing natural by artificial grass in urban parks has harmful effects on
urban bird communities and is a threat to bird conservation. Although artificial grass might save water, the effects on urban
biodiversity should be carefully evaluated.
48
Siegel, Kyle R., Brooklynn R. Murray, Jeff
Gearhart, and Christopher D. Kassotis. "In
Vitro Endocrine and Cardiometabolic Toxicity
Associated with Artificial Turf Materials."
Environmental Toxicology and Pharmacology.
September 6, 2024.
https://doi.org/10.1016/j.etap.2024.104562
Miscellaneous Human Health
Impacts
Cardiometabolic
Effects Journal Article Y Y Y
Artificial turf, a consumer product growing in usage in the United States, contains diverse chemicals, some of which are endocrine
disruptive. Endocrine effects from turf material extracts have been primarily limited to one component, crumb rubber, of these
multi-material products. We present in vitro bioactivities from non-weathered and weathered turf sample extracts, including
multiple turf components. All weathered samples were collected from real-world turf fields. Non-weathered versus weathered
differentially affected the androgen (AR), estrogen (ER), glucocorticoid (GR), and thyroid receptors (TR) in reporter bioassays.
While weathered extracts more efficaciously activated peroxisome proliferator activated receptor γ (PPARγ), this did not translate
to greater in vitro adipogenic potential. All turf extracts activated the aryl hydrocarbon receptor (AhR). High AhR-efficacy extracts
induced modest rat cardiomyoblast toxicity in an AhR-dependent manner. Our data demonstrate potential endocrine and
cardiometabolic effects from artificial turf material extracts, warranting further investigation into potential exposures and human
health effects.
49
Stoett, Peter, Vitória M. Scrich, Carla I. Elliff,
Mariana M. Andrade, Natalia de M. Grilli,
Alexander Turra, “Global Plastic Pollution,
Sustainable Development, and Plastic Justice,
World Development.” World Development.
December 2024.
https://doi.org/10.1016/j.worlddev.2024.106
756
Miscellaneous Microplastics Environmental
Justice Journal Article Y Y N
This review article examines the current state of plastic waste and pollution, in particular in the form of marine litter, as it affects
the goal of sustainable development and is affected by global North-South dynamics. The rise in plastic waste has had a
deleterious effect on local populations and ecosystems, and remains a problem with numerous governance challenges, posing
constraints to achieving the United Nations Sustainable Development Goals. This crisis is analyzed under the lens of global North-
South dynamics, as the consequences for different nations differ in regard to their capacity to cope with waste, and other
inequality issues. China’s decision to stop serving as the world’s central recycling location has pushed plastic waste exports into
other Asian countries, and COVID-19 responses have utilized large quantities of plastic products. However, localized initiatives
that involve non-governmental actors are making some headway in countries such as Brazil. This review article introduces the
problem, examines extant literature linking plastic pollution with the United Nations’ Sustainable Development Goals, offers a
brief Brazilian case study of a coordinated response, outlines key research gaps and needs, and articulates the concept of plastic
justice as a progressive normative design and framework for further analysis.
50
Silva, Ana L.P., Joana C. Prata, Armando C.
Duarte, Amadeu M.V.M. Soares, Damià
Barceló, Teresa Rocha-Santos. “Microplastics
in Landfill Leachates: The Need for
Reconnaissance Studies and Remediation
Technologies.” Case Studies in Chemical and
Environmental Engineering. June 2021.
https://doi.org/10.1016/j.cscee.2020.100072
Microplastics Landfill Leachate Journal Article Y Y N
Although landfills represent repositories for cumulative loading of plastic waste derived from households and industrial sectors,
often seen as sinks, the contribution of these structures and their leachates as potential sources of microplastics to natural
environments remains poorly covered. Microplastics discharged from these sites may pose greater risks to human and
environmental health by adsorbed toxic and persistent hazardous chemicals. As reviewed here, landfill leachates present
microplastic concentrations of 0–291 particles L−1, highly variable depending on landfill condi ons and methodologies adopted,
while treatment of leachates can reduce these concentrations in 1–2 orders of magnitude. Nonetheless, knowledge is still scarce
on the factors influencing the release of microplastics from landfills, and technology must be developed to mitigate this source of
microplastics, which poses a significant challenge but is needed in order to preserve a good environmental status.
51
Simpson, Thomas J., and Robert A. Francis.
“Artificial Lawns Exhibit Increased Runoff and
Decreased Water Retention Compared to
Living Lawns Following Controlled Rainfall
Experiments.” Urban Forestry & Urban
Greening 63 (2021): 127232.
https://doi.org/10.1016/j.ufug.2021.127232
Microplastics Hydrological
Impacts Runoff Journal Article Y N Y
Artificial lawns are an increasingly popular alternative to their living counterparts, but their environmental impacts are
undocumented. The hydrological impacts of artificial (synthetic polymer) grass were investigated in comparison to living grass in a
series of controlled rainfall experiments, representing daily short rainfall events of different volumes (750 mL, 1000 mL, 1250 mL).
Two varieties of artificial grass with varying pile height (short vs long) were compared with a living grass control. Infiltration was
measured as drainage (total, initial and delayed) and retention. Significant differences in runoff were observed across all
treatments, demonstrating that both types of artificial grass displayed greater volumes and proportion of runoff than living grass,
and that long artificial grass had significantly greater runoff than short artificial grass. Living grass was also significantly better at
retaining water and delaying drainage compared to both artificial grasses, while retention performance varied between short and
long artificial grass. Other aspects of drainage were more complicated, with short grass installations generally draining fastest.
Plastic thatch and grass fibres were also shed from the artificial grass installations during the experiments and were carried in the
runoff. Further experimentation is required to explore the wider implications of such hydrological responses, but the potential
impacts on runoff in particular should be considered when replacing living lawns with their artificial counterparts.
52
Tarafdar, Abhrajyoti, Min-Ju Oh, Quynh
Nguyen-Phuong, and Jung-Hwan Kwon.
“Profiling and Potential Cancer Risk
Assessment on Children Exposed to PAHs in
Playground Dust/Soil: A Comparative Study
on Poured Rubber Surfaced and Classical Soil
Playgrounds in Seoul.” Environmental
Geochemistry and Health. May 27, 2019.
https://doi.org/10.1007/s10653-019-00334-2
Crumb Rubber PAHs Human Health
Impacts Journal Article Y N Y
Children can get affected by polycyclic aromatic hydrocarbons (PAHs) while they interact with play area soil/rubber surfacing and
exposed to PAHs by dermal contact, inhalation and hand-to-mouth activity. A comparative study has been conducted on PAHs
profiling and probable cancer risk of children from PAHs present in uncovered playground surface soil and poured rubber surfaced
playground dust. Surface soil and dust samples have been collected from 14 different children parks around the Korea University
campus, Seoul, Republic of Korea. Concentrations of 16 PAHs in the soils/dust were found to be in a range of 2.82–57.93 μg g−1.
Profiling of the PAHs from the playground soils/dust reveals 3-ring PAHs are dominating with 79.9% of total PAHs content, on an
average. The diagnostic ratio analysis confirms that vehicular exhaust and fossil fuel burning are likely the main sources of high
molecular weight carcinogenic PAHs, whereas low molecular weight PAHs have pyrogenic origin. The probabilistic health risk
assessment using Monte Carlo simulations for the estimation of the 95% cancer risk exposed to the PAHs from the surfaced
playgrounds shows a little higher value than the USEPA safety standard (1.3 × 10−5). Sensi vity analysis revealed exposure
duration and relative skin adherence factor for soil as the most influential parameters of the assessment. Noticeably, cancer risk is
approximately 10 times higher in poured rubber surfaced playgrounds than in uncovered soil playgrounds.
53
Vyrlas, Panagiotis, Miltiadis Koutras, Vasileios
Liakos. “Surface Temperature Experiences
and Irrigation Effects on Artificial Turf.”
WSEAS Transactions on Environment and
Development. May 22, 2024. DOI:
10.37394/232015.2024.20.20.
https://wseas.com/journals/ead/2024/a4051
15-007(2024).pdf
Heat from Turf Heat Stress Sports Injuries Journal Article Y Y Y
Artificial turf has gained widespread use in sporting fields as it is considered a water-saving and maintenance-free alternative to
natural turfgrass. However, the high surface temperatures that occur during the day are a potentially important unfavorable
feature of artificial turfgrass. The objective of this study was to establish the temperatures experienced on an artificial turf surface
and to evaluate the effect of irrigation on artificial turf surface temperature. Data was collected over five surfaces across a sports
facility on the campus of the University of Thessaly in Larissa, Greece. Results showed surface temperatures on artificial turf (AT)
as significantly higher than running track (RT), asphalt (AS), bare soil (BS), and natural grass (NG), with maximum surface
temperatures of 72oC. Solar radiation accounted for most of the variation in surface temperature of the artificial turf (r2=0.92) as
opposed to air temperature (r2=0.38), and relative humidity (r2=0.50). To lower surface temperature, four irrigation regimes were
used (1x60 min, 1x30 min, 2x15 min, and 3x5 min water application). Irrigation reduced the surface temperature by as much as
30°C compared to the unirrigated surface, but these low temperatures were maintained for 90 to 120 minutes long. The most
effective cooling effect occurred when water was applied in a 3-cycle, 5-minute duration, where the irrigated surface temperature
remained below the unirrigated surface throughout the time after the first watering.
54
Wagner, M., L. Monclús, H. P. H. Arp, K. J.
Groh, M. E. Løseth, J. Muncke, Z. Wang, R.
Wolf, and L. Zimmermann. "State of the
Science on Plastic Chemicals: Identifying and
Addressing Chemicals and Polymers of
Concern." Zenodo, 2024.
https://doi.org/10.5281/zenodo.10701706
Microplastics PFAS Human Health
Impacts NGO Article N Y N
This report synthesizes the current scientific understanding of plastic chemicals, including hazardous
properties and their presence in various polymers. It highlights concerns about harmful chemicals in
plastics, including microplastics and persistent pollutants such as PFAS. The report aims to make scientific
data more accessible for policymakers to develop regulations that mitigate risks to public health and the
environment. By centralizing fragmented information, it provides a resource for addressing chemical
hazards in plastic materials.
55
Watterson, Watterson. “Crumb Rubber in
Sports Pitches in Scotland and the
Science/Policy Interface: Can Continued Use
be Justified?” 2024.
https://doi.org/10.13140/RG.2.2.35010.1888
2
Crumb Rubber Microplastics PFAS Technical Report N Y Y
This report evaluates the environmental and health risks associated with crumb rubber infill used in
artificial turf sports pitches in Scotland. It presents evidence that crumb rubber contains hazardous
chemicals, including PAHs, PFAS, endocrine disruptors, and microplastics, which pose risks to human
health and the environment. The report highlights outdated regulatory frameworks and calls for a ban on
crumb rubber, aligning with the European Union's decision to phase out its use by 2031. It also discusses
alternative materials, such as coir and cork, and the need for policy shifts toward sustainable sports
surfaces. The report criticizes the reliance on industry-led risk assessments and advocates for a
precautionary, hazard-based approach to regulation.
56
Winz, Robyn, Lee L. Yu, Li-Piin Sung, YuYe J.
Tong, and Dejun Chen. “Assessing Children’s
Potential Exposures to Harmful Metals in Tire
Crumb Rubber by Accelerated
Photodegradation Weathering.” Scientific
Reports 13, no. 1 (2023): 13877.
https://doi.org/10.1038/s41598-023-38574-z
Crumb Rubber Heavy Metal
Exposure
Human Health
Impacts Journal Article Y Y Y
Whether a tire crumb rubber (TCR) playground would expose children to potentially harmful chemicals such as heavy metals is an
open question. The released metals available for pickup on the surface of TCR tiles was studied by accelerated 2-year aging of the
TCRs in the NIST-SPHERE (National Institute of Standards and Technology Simulated Photodegradation via High Energy Radiant
Exposure). The dermal contact was mimicked by a method of composite surface wiping from US Environmental Protection Agency
throughout the weathering process. The surface release of ten most concerned harmful metals (Be, Cr, Cu, As, Se, Cd, Sb, Ba, Tl,
Pb) was monitored through the course of aging. The cumulative release of Cu, As, Tl, and Sb reached potentially harmful levels at
various times within 3 years, although only Cr was found at a harmful level on the surface of the tiles. Taking the cleansing effect
of precipitation or periodic cleansing with rain into account, TCR playgrounds may still be safe for use.
57
Zhu, Xia, Matthew J. Hoffman, and Chelsea
M. Rochman. “A City-Wide Emissions
Inventory of Plastic Pollution.” Environmental
Science & Technology. February 1, 2024.
https://doi.org/10.1021/acs.est.3c04348
Microplastics Plastics Urban Emissions Journal Article Y N Y
A global agreement on plastic should have quantitative reduction targets for the emissions of plastic pollution and regular
measurements to track success. Here, we present a framework for measuring plastic emissions, akin to greenhouse gas emissions,
and demonstrate its utility by calculating a baseline measurement for the City of Toronto in Ontario, Canada. We identify relevant
sources of plastic pollution in the city, calculate emissions for each source by multiplying activity data by emission factors for each
source, and sum the emissions to obtain the total annual emissions of plastic pollution generated. Using Monte Carlo simulations,
we estimate that 3,531 to 3,852 tonnes (T) of plastic pollution were emitted from Toronto in 2020. Littering is the largest source
overall (3,099 T), and artificial turf is the largest source of microplastic (237 T). Quantifying source emissions can inform the most
effective mitigation strategies to achieve reduction targets. We recommend this framework be scaled up and replicated in cities,
states, provinces, and countries around the world to inform global reduction targets and measure progress toward reducing
plastic pollution.
58
Zuccaro, Philip, James Licato, Emily A.
Davidson, David C. Thompson, and Vasilis
Vasiliou. “Assessing Extraction-Analysis
Methodology to Detect Fluorotelomer
Alcohols (FTOH), a Class of Perfluoroalkyl and
Polyfluoroalkyl Substances (PFAS), in Artificial
Turf Fibers and Crumb Rubber Infill." Case
Studies in Chemical and Environmental
Engineering 7 (2023): 100280.
https://doi.org/10.1016/j.cscee.2022.100280
PFAS Crumb Rubber Journal Article Y Y Y
Background: Despite widespread global use of artificial turf fields, there is a paucity of research assessing the presence of
potentially harmful chemicals within the field components.
Objective: This pilot study aimed to assess the capacity of an adapted extraction-analysis method to identify and quantitate
FTOHs, a class of perfluoroalkyl and polyfluoroalkyl substances (PFAS), in artificial turf fiber and crumb rubber infill samples.
Methods: FTOHs in artificial turf fibers and crumb rubber infill were extracted using 80:20 methanol:methyl tert-butyl ether,
reconstituted in methanol, and analyzed by gas chromatography-mass spectroscopy (GC-MS) operated in scanning ion mode
(SIM).
Results: 8:2 FTOH was detected in artificial turf fiber and crumb rubber infill samples at concentrations of 1.0 and 0.71 ng/μL,
respectively. This translates to 300ng 8:2 FTOH/g artificial turf fiber and 110ng 8:2 FTOH/g crumb rubber. By contrast, 4:2 FTOH
and 6:2 FTOH were not found to be present in detectable levels.
Conclusion: Our extraction method with subsequent GC-MS analysis proved useful in detecting FTOHs in artificial turf field
samples. 8:2 FTOH may be present in artificial turf fibers and crumb rubber infill. This pilot investigation supports the need for
further research into the presence of this class of PFAS in artificial turf field components.
59
Zuccaro, Philip, David C. Thompson, Jacob de
Boer, Andrew Watterson, Qiong Wang, Song
Tang, Xiaoming Shi, Maria Llompart, Nuno
Ratola, and Vasilis Vasiliou. “Artificial Turf
and Crumb Rubber Infill: An International
Policy Review Concerning the Current State
of Regulations.” Environmental Challenges 9
(2022): 100620.
https://doi.org/10.1016/j.envc.2022.100620
Crumb Rubber PFAS Microplastics Journal Article Y Y Y
Background: Although artificial turf fields are utilized widely around the world, sufficient research has not yet been conducted to
assess the potential human and environmental health risks posed by the chemicals contained in the fields’ fibers, backing, and
often-used crumb rubber infill. Consequently, there is wide variation in governmental policies.
Objective: Review the notable policies concerning artificial turf and crumb rubber infill in the European Union, United Kingdom,
United States of America, Canada, China, Qatar, and the Global Stockholm Convention of the United Nations.
Methods: Information was collected that included published papers, technical and policy reports, and grey literature. These were
then analyzed by a collaborative group familiar with the environmental policies in their respective countries to extract the
pertinent legislative or regulatory information. The group members were primarily identified through their involvement in
publications pertinent to artificial turf and crumb rubber infill health research and included environmental health professors,
active researchers, and governmental agency officials. Most information on direct policies was taken directly from reports
provided to the public by various governmental agencies responsible for their countries’ regulations, often available within the
respective agency's online archives.
Results: There are significant differences in the regulatory approaches adopted by the investigated countries with regards to
artificial turf and its crumb rubber infill. Some regions, such as the European Union, have taken substantial steps to limit the fields’
chemical components to which the public and environment are exposed. Other regions and countries have done far less to
address the issue. Most policies relate directly to (i) the fields themselves, (ii) the microplastic components of crumb rubber infill,
or (iii) the concentrations of harmful polycyclic aromatic hydrocarbons (PAHs), perfluoroalkyl and polyfluoroalkyl substances
(PFAS), and heavy metals.
Conclusion: While nearly every country acknowledges the potential health risks posed by heavy metals, microplastics, PAHs, and
PFAS chemicals, very few have actually implemented artificial turf and crumb rubber infill regulations and/or established adequate
surveillance measures to protect those regularly exposed to the fields.
60
Clapp, Richard W. DSc, MPH, and David R.
Brown, Sc.D. “Re: Investigation of Reported
Cancer among Soccer Players in Washington
State.” March 9, 2017.
https://drive.google.com/file/d/194BxQ8gaL
0_noQWJYpyYBj5ww2-FhNFU/view.
Crumb Rubber Human Health
Impacts Cancer Risks Expert Report N
This letter provides a critical analysis of the Washington State Department of Health’s (DOH) 2017 report
investigating cancer cases among soccer players with artificial turf exposure. The authors argue that the
study’s methodology is flawed, particularly in its use of an incomplete case list, an invalid observed-to-
expected ratio calculation, and an overly broad age range for comparison. They emphasize that the DOH
did not properly account for exposure duration, latency periods, or the potential increased risk among
goalkeepers, who experience more direct contact with artificial turf and crumb rubber infill. The letter
asserts that the report’s conclusions misrepresent the study’s findings and create a false impression that
artificial turf exposure has been ruled out as a cancer risk. The authors call for a properly designed
population-based case-control study to assess potential links between artificial turf and cancer, arguing
that the DOH’s statements were irresponsible given the study’s limitations.
61
Howie, Stephen. “Does Playing Soccer on
Artificial Turf Increase Cancer Risk, Especially
in Kids?” KUOW, NPR Network. February 8,
2024. https://www.kuow.org/stories/does-
playing-soccer-on-artificial-turf-increase-
cancer-riskespecially-in-kids
Crumb Rubber Human Health
Impacts Cancer Risks News Article N N Y Unavailable
62
Kim, Hana. “State Dept. of Health Says Crumb
Rubber Poses No Significant Risk to Public;
Critics Call Findings Irresponsible.” FOX 13
Seattle. January 19, 2017.
https://www.fox13seattle.com/news/state-
dept-of-health-says-crumb-rubber-poses-no-
significant-risk-to-public-critics-call-findings-
irresponsible
Crumb Rubber Human Health
Impacts Cancer Risks News Article N Y Y
This article reports on the Washington State Department of Health’s (DOH) conclusion that soccer players
are not developing cancer at higher rates than the general population despite concerns about crumb
rubber exposure. The DOH based its findings on an investigation of a list compiled by University of
Washington soccer coach Amy Griffin, who documented over 50 soccer players diagnosed with cancer,
half of whom were goalkeepers. Critics, including affected parents and scientists, argue that the study
was flawed because it relied on incomplete data and did not seek to establish the total number of soccer
players with cancer. DOH officials acknowledge the study’s limitations but stand by their conclusion that
crumb rubber does not appear to expose players to harmful levels of chemicals. However, they admit that
the safety of crumb rubber has not been definitively established and that they did not conduct physical
testing of the material. Critics call the DOH’s findings irresponsible, arguing that they provide a false
sense of security while questions about exposure and risk remain unanswered. Meanwhile, federal
agencies such as the EPA and CDC are continuing to investigate crumb rubber’s safety.
63
Perkins, Tom. “Athletes Likely to Have Higher
Levels of PFAS After Play on Artificial Turf -
Study.” The Guardian. March 15, 2024.
https://www.theguardian.com/environment/
2024/mar/15/athletes-higher-pfas-levels-
artificial-turf
PFAS Human Health
Impacts Cancer Risks News Article N Y Y
A study found increased PFAS levels on athletes' skin after playing on artificial turf, raising health
concerns. PFAS, linked to cancer and other diseases, can be absorbed through skin, inhaled, or ingested.
Some athletes blame turf for illnesses, and bans have been proposed, though a California ban was vetoed.
The issue remains controversial as research continues.
64
Bennett, Kyla. "Response to Questions -
Portsmouth, New Hampshire Synthetic Turf
Field Installation." Letter to Kimberly Henry,
City Planner, City of Los Angeles. July 11,
2023.
https://drive.google.com/file/d/10ZQayc15_
pUBkKXkhyh2ZxfNTtH7p7CY/view?usp=drive
sdk
PFAS Microplastics Crumb Rubber NGO Letter N Y Y
Public Employees for Environmental Responsibility (PEER) criticizes the Final Environmental Impact
Report (FEIR) for the Harvard-Westlake River Park Project, arguing it misrepresents PFAS risks in artificial
turf. PEER disputes claims that PFAS exposure is primarily from drinking water, citing EPA data that show
multiple exposure pathways. The organization also challenges the FEIR’s dismissal of inhalation and
dermal absorption risks, questioning the validity of its PFAS testing and pointing out that all tested
artificial turf brands have contained PFAS. Additionally, PEER refutes claims that PFAS do not leach from
artificial turf and challenges misleading statements about artificial turf recycling and microplastics
pollution. The report also dismisses health risks from crumb rubber, despite studies linking it to
carcinogens. PEER argues the FEIR fails to fulfill its duty under CEQA to properly inform decision-makers
and the public, advocating for natural grass as a safer alternative.
65 Redundant Source - Listed Above
66
Collaborative for Health & Environment.
“Environmental Health Impacts of Synthetic
Turf and Safer Alternatives.” January 27,
2022.
https://www.healthandenvironment.org/che-
webinars/96595
PFAS Crumb Rubber Microplastics
Research
Presentation/
Webinar
Summary
N Y Y
This research presentation by experts from TURI and other institutions highlighted concerns about
artificial turf’s environmental and human health impacts. Topics covered included the presence of PFAS,
PAHs, heavy metals, microplastics, and 6PPD-quinone in synthetic turf and infill materials like crumb
rubber. Researchers discussed heat-related illnesses, skin infections, and exposure risks, particularly for
children. The presentation also examined how artificial turf contributes to urban pollution, including
stormwater contamination and chemical leaching. Natural grass fields were presented as a safer
alternative, with an emphasis on community-level solutions for reducing exposure to hazardous materials
in synthetic turf.
67 Redundant Source - Listed Above
68
Cropper, Maureen, Sarah Dunlop, Hudson
Hinshaw, Philip Landrigan, Yongjoon Park,
and Christos Symeonides. "The Benefits of
Removing Toxic Chemicals from Plastics."
Proceedings of the National Academy of
Sciences of the United States of America 121,
no. 52 (December 24, 2024): e2412714121.
https://doi.org/10.1073/pnas.2412714121
Microplastics Human Health
Impacts
Endocrine
Disruptors Journal Article Y N N
More than 16,000 chemicals are incorporated into plastics to impart properties such as color, flexibility, and durability. These
chemicals may leach from plastics, resulting in widespread human exposure during everyday use. Two plastic-associated
chemicals—bisphenol A (BPA) and di(2-ethylhexyl) phthalate (DEHP)—and a class of chemicals—brominated flame retardants
[polybrominated diphenyl ethers (PBDEs)]—are credibly linked to adverse health and cognitive impacts. BPA exposures are
associated with ischemic heart disease (IHD) and stroke, DEHP exposure with increased all-cause mortality among persons 55 to
64 y old, and prenatal PBDE exposures in mothers with IQ losses in their children. We estimate BPA, DEHP, and PBDE exposures in
38 countries containing one-third of the world’s population. We find that in 2015, 5.4 million cases of IHD and 346,000 cases of
stroke were associated with BPA exposure; that DEHP exposures were linked to approximately 164,000 deaths among 55-to-64 y
olds; and that 11.7 million IQ points were lost due to maternal PBDE exposure. We estimate the costs of these health impacts to
be $1.5 trillion 2015 purchasing power parity dollars. If exposures to BPA and DEHP in the United States had been at 2015 levels
since 2003, 515,000 fewer deaths would have been attributed to BPA and DEHP between 2003 and 2015. If PBDE levels in mothers
had been at 2015 levels since 2005, over 42 million IQ points would have been saved between 2005 and 2015.
69
Ecology Center. “Toxic ‘Forever Chemicals’
Infest Artificial Turf.” October 10, 2019.
https://www.ecocenter.org/toxic-forever-
chemicals-infest-artificial-turf
PFAS Crumb Rubber NGO Article N Y Y
Artificial turf contains PFAS, persistent chemicals linked to cancer and environmental pollution. Studies
have detected PFAS in both the synthetic grass fibers and backing materials, with levels reaching
hundreds of parts per trillion (ppt). These chemicals can leach into water sources, compounding concerns
over the health risks of artificial turf. Additionally, the crumb rubber infill—made from recycled
tires—contains heavy metals and other toxic substances. The widespread use of synthetic turf, with
thousands of fields installed annually, raises alarms over long-term environmental contamination and
public health risks.
70
EHN Curators. “PFAS Found on Children’s Skin
After Playing on Turf Fields.” Environmental
Health News. August 26, 2024.
https://thenationaldesk.com/news/spotlight-
on-america/toxic-forever-chemicals-detected-
on-kids-skin-after-playing-on-turf-fields-
health-concerns-pfas
PFAS Crumb Rubber NGO Blog N Y Y
A new study by PEER found that children playing on artificial turf fields have detectable PFAS ("forever
chemicals") on their skin after play, raising concerns about exposure through dermal absorption,
inhalation, and ingestion. The study showed PFAS levels increased on three out of four players after
games on synthetic fields, while no similar increases were observed on natural grass fields. Some states,
including Colorado and Maine, have enacted PFAS bans in artificial turf, but the EPA has not studied PFAS
presence in turf despite growing concerns. Researchers and advocates are urging federal action to
regulate PFAS in artificial turf to protect children’s health.
71
Fořt, Jan, Klára Kobetičová, Martin Böhm, Jan
Podlesný, Veronika Jelínková, Martina
Vachtlová, Filip Bureš, and Robert Černý.
“Environmental Consequences of Rubber
Crumb Application: Soil and Water Pollution.”
Polymers 14, no. 7 (2022): 1416.
https://doi.org/10.3390/polym14071416
Crumb Rubber PAHs Heavy Metals Journal Article Y Y Y
End-of-life tires are utilized for various purposes, including sports pitches and playground surfaces. However, several substances
used at the manufacture of tires can be a source of concerns related to human health or environment’s adverse effects. In this
context, it is necessary to map whether this approach has the desired effect in a broader relation. While the negative effects on
human health were investigated thoroughly and legislation is currently being revisited, the impact on aquatic or soil organisms has
not been sufficiently studied. The present study deals with the exposure of freshwater and soil organisms to rubber crumb using
the analysis of heavy metal and polycyclic aromatic hydrocarbon concentrations. The obtained results refer to substantial
concerns related to freshwater contamination specifically, since the increased concentrations of zinc (7 mg·L−1) and polycyclic
aromatic hydrocarbons (58 mg·kg−1) inhibit the growth of freshwater organisms, Desmodesmus subspicatus, and Lemna minor in
particular. The performed test with soil organisms points to substantial concerns associated with the mortality of earthworms as
well. The acquired knowledge can be perceived as a roadmap to a consistent approach in the implementation of the circular
economy, which brings with it a number of so far insufficiently described problems.
72
Gaber, Nadia, Lisa Bero, and Tracey J.
Woodruff. “The Devil They Knew: Chemical
Documents Analysis of Industry Influence on
PFAS Science.” Annals of Global Health 89,
no. 1 (2023).
https://doi.org/10.5334/aogh.4013
PFAS Journal Article Y Y N
Background: Per-and polyfluoroalkyl substances (PFAS) are a class of widely-used chemicals that persist in the environment and
bioaccumulate in humans and animals, becoming an increasing cause for global concern. While PFAS have been commercially
produced since the 1940s, their toxicity was not publicly established until the late 1990s. The objective of this paper is to evaluate
industry documents on PFAS and compare them to the public health literature in order to understand this consequential delay.
Methods: We reviewed a collection of previously secret industry documents archived at the UCSF Chemical Industry Documents
Library, examining whether and how strategies of corporate manipulation of science were used by manufacturers of PFAS. Using
well-established methods of document analysis, we developed deductive codes to assess industry influence on the conduct and
publication of research. We also conducted a literature review using standard search strategies to establish when scientific
information on the health effects of PFAS became public. Results: Our review of industry documents shows that companies knew
PFAS was “highly toxic when inhaled and moderately toxic when ingested” by 1970, forty years before the public health
community. Further, the industry used several strategies that have been shown common to tobacco, pharmaceutical and other
industries to influence science.
73
Gambacorta, David and Laker, Barbara. “City
Officials Believed a New South Philly Turf
Field was PFAS-Free. Not True, Experts Say.”
The Philadelphia Inquirer. February 23, 2024.
https://www.inquirer.com/news/philadelphi
a/philadelphia-pfas-artificial-turf-field-
murphy-recreation-20240223
PFAS News Article N N Y Source no longer available
74
Gearhardt, Jefferey, Director of Research,
The Ecology Center, Ann Arbor, MI. Letter to
Portsmouth, NH City Council and Director of
Finance and Administration. 1 Jun 2020.
https://nontoxicdovernh.files.wordpress.com
/2020/06/june1_portsmouthpfas.pdf
PFAS NGO Letter N Y Y
A researcher warns Portsmouth City Council about PFAS in artificial turf, emphasizing that all nine tested
turf fiber samples contained fluorine, a PFAS indicator. A Portsmouth field sample had 79 ppm fluorine,
suggesting PFAS presence. The letter critiques manufacturers’ reliance on limited water-testing methods
(EPA 537.1) and urges requiring total organic fluorine tests to confirm PFAS-free claims. It recommends
certified third-party labs and stresses transparency in testing for public safety.
75 Redundant Source - Listed Above
76
Li, Nan, Yun Liu, George D. Papandonatos,
Antonia M. Calafat, Charles B. Eaton, Karl T.
Kelsey, Kim M. Cecil et al. “Gestational and
Childhood Exposure to Per- and
Polyfluoroalkyl Substances and
Cardiometabolic Risk at Age 12 Years.”
Environment International 147 (2021):
106344.
https://doi.org/10.1016/j.envint.2020.10634
4
PFAS Human Health
Impacts
Cardiometabolic
Effects Journal Article Y Y N
Background: Per- and polyfluoroalkyl substances (PFAS) may adversely influence cardiometabolic risk. However, few studies have
examined if the timing of early life PFAS exposure modifies their relation to cardiometabolic risk. We examined the influence of
gestational and childhood PFAS exposure on adolescents’ cardiometabolic risk. Methods: We quantified concentrations of four
PFAS (perfluorooctanoate [PFOA], perfluorooctane sulfonate [PFOS], perfluorononanoate [PFNA], and perfluorohexane sulfonate
[PFHxS]) in sera collected during pregnancy, at birth, and at ages 3, 8, and 12 years from 221 mother–child pairs in the HOME
Study (enrolled 2003–06, Cincinnati, Ohio). We measured cardiometabolic risk factors using physical examinations, fasting serum
biomarkers, and dual-energy X-ray absorptiometry scans at age 12 years. Cardiometabolic risk summary scores were calculated by
summing age- and sex-standardized z-scores for individual cardiometabolic risk factors. We used multiple informant models to
estimate covariate-adjusted associations of serum PFAS concentrations (log2-transformed) at each visit with cardiometabolic risk
scores and their individual components, and tested for differences in associations across visits. Results: The associations of serum
PFOA concentrations with cardiometabolic risk scores differed across visits (P for heterogeneity = 0.03). Gestational and cord
serum PFOA concentrations were positively associated with cardiometabolic risk scores (βs and 95% confidence intervals [95%
CIs]: gestational 0.8 [0.0, 1.6]; cord 0.9 [-0.1, 1.9] per interquartile range increase). These positive associations were primarily
driven by homeostatic model assessment for insulin resistance index (β = 0.3 [0.1, 0.5]) and adiponectin to leptin ratio (β = -0.5 [-
1.0, 0.0]). Other individual cardiometabolic risk factors associated with gestational PFOA included insulin and waist circumference.
Gestational and cord PFHxS were also associated with higher cardiometabolic risk scores (βs: gestational 0.9 [0.2, 1.6]; cord 0.9
[0.1, 1.7]). In this cohort of children with higher gestational PFOA exposure, fetal exposure to PFOA and PFHxS was associated with
unfavorable cardiometabolic risk in adolescence.
77
Huang, Qian’en, Jianqun Wang, Jianping
Wang, Dongmei Yu, Yuanbo Zhan, and Ze Liu.
“Emerging Health Risks of Crumb Rubber:
Inhalation of Environmentally Persistent Free
Radicals via Saliva During Artificial Turf
Activities.” Environmental Science &
Technology 57, no. 50 (2023): 21005–21015.
https://doi.org/10.1021/acs.est.3c03278
Crumb Rubber Inhalation Risks
Environmentally
Persistent Free
Radicals
Journal Article Y N Y
Crumb rubber (CR) is a commonly used infill material in artificial turf worldwide. However, the potential health risk associated
with exposure to CR containing environmentally persistent free radicals (EPFRs) remains under investigation. Herein, we observed
the widespread presence of CR particles in the range of 2.8–51.4 μg/m3 and EPFRs exceeding 6 × 1015 spins/g in the ambient air
surrounding artificial turf fields. Notably, the abundance of these particles tended to increase with the number of operating years
of the playing fields. Furthermore, by analyzing saliva samples from 200 participants, we established for the first time that EPFR-
carrying CR could be found in saliva specimens, suggesting the potential for inhaling them through the oral cavity and their
exposure to the human body. After 40 min of exercise on the turf, we detected a substantial presence of EPFRs, reaching as high
as (1.15 ± 1.00) × 1016 spins of EPFR per 10 mL of saliva. Moreover, the presence of EPFRs considerably increased the oxidative
potential of CR, leading to the inactivation of Ca2+, redox reactions, and changes in spatial binding of the α-1,4-chain of salivary
amylase to Ca2+, all of which could influence human saliva health. Our study provides insights into a new pathway of human
exposure to CR with EPFRs in artificial turf infill, indicating an increased human health risk of CR exposure.
78
Kristen Melo. Email to Mayor Eachern, City of
Portsmouth, NH Regarding Additional PFAS
Testing of FieldTurf Vertex, Schmidt Shock
Pad and SafeShell infill installed June 2021.
July 5, 2022.
https://nontoxicdovernh.wordpress.com/wp-
content/uploads/2022/07/wraft-pfas-
portsmouthletter-5july2022.pdf
PFAS NGO Letter N Y Y
Kristen Mello, a representative of Westfield Residents Advocating for Themselves, wrote to Portsmouth
officials highlighting PFAS contamination in artificial turf field components. Independent testing
confirmed the presence of known and unidentified PFAS in turf carpet, foam padding, and infill, with
compounds that can leach into water. The letter raises concerns about exposure risks, including
ingestion, inhalation, and environmental contamination. Mello urges city officials to take action to limit
PFAS pollution and hold contractors accountable for ensuring PFAS-free materials, emphasizing potential
financial and ecological consequences.
79
Kristen Mello. Follow-up to 11/17/21 PFAS-
Field Work Session. Email communication to
Mayor Becksted, Council Member, City
Manager, City Attorney. November 21, 2021.
https://docs.google.com/document/d/13kTZ
rbFrLulPcMF38pjR25tB3-
2mbs_qcnirJmYyT5U/edit
PFAS Leaching PVDF Public
Commentary N Y N
Kristen Mello, representing Westfield Residents Advocating for Themselves (WRAFT), wrote to
Portsmouth city officials following a November 17, 2021, work session on PFAS in artificial turf. She
referenced a 2021 review on the solubility and stability of polyvinylidene fluoride (PVDF), highlighting its
degradation risks. The letter outlines concerns about HF (hydrofluoric acid) release during recycling,
degradation under alkaline conditions, and UV exposure accelerating PFAS leaching into stormwater.
Mello urges officials to consider these environmental and health risks when assessing artificial turf
installations and testing methodologies.
80
Messmer, Mindi F., Jeffrey Salloway, Nawar
Shara, Ben Locwin, Megan W. Harvey, and
Nora Traviss. “Risk of Cancer in a Community
Exposed to Per- and Poly-Fluoroalkyl
Substances.” Environmental Health Insights
16 (2022): 11786302221076707.
https://doi.org/10.1177/1178630222107670
7
PFAS Human Health
Impacts Cancer Risks Journal Article Y Y N
Background: Per- and polyfluoroalkyl substances (PFAS) emissions from a plastic coating industrial source in southern New
Hampshire (NH) have contaminated at least 65 square miles of drinking water. Prior research indicates that high levels of PFAS are
associated with adverse health outcomes, including an increased risk of cancer. Reports show that residents of the exposed
community have mean blood serum levels of perfluorooctanoic acid (PFOA) more than 2 times greater than the US average, with
higher levels of PFOS and PFHxS as well. A 2018 report concluded that cancer incidence in Merrimack does not exceed NH’s state-
wide rate, but prior reporting may be biased by inclusion of Merrimack cases in the state average. Methods: This ecological study
compared Merrimack’s risk for 24 cancer types (2005–2014) and all-cause cancers to US national rates and rates in
demographically similar, unexposed New England towns. Four comparator towns with no documented PFAS exposure were
selected. Unadjusted logistic regression estimated risk ratios (RR) and 95% confidence intervals (CI). Results: Merrimack residents
had significantly higher risks of thyroid cancer (RR = 1.47, 95% CI 1.12-1.93 bladder cancer (RR = 1.45, 95% CI 1.17-1.81),
esophageal cancer (RR = 1.71, 95% CI 1.1-2.65), and mesothelioma (RR = 2.41, 95% CI 1.09-5.34), compared to national averages.
Our work also suggests that Merrimack residents experienced a significantly higher risk of thyroid cancer (RR = 1.69, 95% CI 1.19-
2.39), and prostate cancer (RR = 1.36, 95% CI 1.15, 1.6) compared with similarly exposed New England communities. Our results
indicate that residents of Merrimack may also have a significantly lower risk of some site-specific cancers compared to national
averages, including lower risk of prostate cancer (RR = 0.57, 95% CI 0.5-0.66), female breast cancer (RR = 0.60, 95% CI 0.52-0.68),
ovarian cancer (RR = 0.52, 95% CI 0.33-0.84) and cervical cancer (RR = 0.29, 95% CI 0.12-0.69). Conclusion:Merrimack residents
experienced a significantly higher risk of at least 4 types of cancer over 10 years between 2005 and 2014. Merrimack is a
community with documented PFAS contamination of drinking water in public and private water sources. Results indicate that
further research is warranted to elucidate if southern NH residents experience increased risk for various types of cancer due to
exposure to PFAS contamination.
81
Mohammed, Atef MF, Inas A. Saleh, and
Nasser M. Abdel-Latif. “Hazard Assessment
Study on Organic Compounds and Heavy
Metals from Using Artificial Turf.” Heliyon 9,
no. 4 (2023).
https://www.cell.com/heliyon/pdf/S2405-
8440(23)02135-7.pdf
Crumb Rubber PAHs + VOC's Cancer Risks Journal Article Y Y Y
Introduction: Artificial turf or synthetic grass releases hazardous substances such as heavy metals, polycyclic aromatic
hydrocarbons (PAHs), and volatile organic compounds (VOCs).
Objective: The current study aimed to evaluate the concentration levels of hazardous substances that are emitted from artificial
turf as a result of sunlight effect; and to assess the expected exposure risks to such emitted substances during various activities.
The current study aimed to evaluate the concentration levels of hazardous substances that are emitted from artificial turf as a
result of the effect of sunlight. And to assess the expected risks of exposure to these substances emitted during the various
activities.
Study design: VOCs emitted from artificial turf samples were monitored and collected in the ambient air of three football fields,
the ambient air around a piece of new artificial turf that has not yet been used on playing fields, but has been exposed to sunlight
within one year and in the indoor air around a piece of new artificial turf. Which has not yet been used on the playgrounds and
was placed at room temperature and away from sunlight.
Results: The current study shows that average afternoon morning VOCs levels were 277, 333, 405, and 509 mg/m3 in winter,
autumn, spring and summer, respectively. The most predominant PAHs compounds present in the samples were compounds with
3-rings and 4-rings. The average daily intake (ADI) for three exposure routes (ingestion, inhalation, and dermal contact) was
calculated for different age categories (3–6, 7–15, 16–18, 19–22, 23–55, and 56–70 year). Non-Carcinogenic exposure risk as
hazard quotient (HQ) and hazard index (HI) were
detected.
Conclusion: All HI values were <1, indicating that there is no potential adverse health effects occur as a result of a chemical
exposure. Total carcinogenic risk (R) values for the different age categories were higher than 1E-04 for three football artificial
grass fields, which indicated a high cancer risk development probability. HI and R probability increased in the age group of 7–15
year > 3–6 years.
82 Redundant Source - Listed Above
83
Oh, Jiwon, Deborah H. Bennett, Antonia M.
Calafat, Daniel Tancredi, Dorcas L. Roa,
Rebecca J. Schmidt, Irva Hertz-Picciotto, and
Hyeong-Moo Shin. “Prenatal Exposure to Per-
and Polyfluoroalkyl Substances in Association
with Autism Spectrum Disorder in the
MARBLES Study.” Environment International
147 (2021): 106328.
https://doi.org/10.1016/j.envint.2020.10632
8
PFAS Human Health
Impacts Autism Journal Article Y Y N
Background: Prenatal exposure to per- and polyfluoroalkyl substances (PFAS) may adversely affect child brain development, but
epidemiologic evidence is inconsistent. This study examined whether prenatal PFAS exposure is associated with increased autism
spectrum disorder (ASD) risk. Methods: Participants were 173 mother–child pairs from MARBLES (Markers of Autism Risk in Babies
– Learning Early Signs), a high-risk ASD cohort. At age 3, children were clinically confirmed for ASD (n = 57) or typical development
(TD, n = 116). Nine PFAS were quantified in maternal serum collected during pregnancy. We analyzed associations of ASD with
individual PFAS and the first principal component (PC-1), representing combined PFAS effects. Results: Perfluorooctanoate (PFOA)
and perfluorononanoate (PFNA) were positively associated with ASD risk (per 2-fold increase: RR = 1.20, 95% CI: 0.90-1.61 [PFOA];
RR = 1.24, 95% CI: 0.91-1.69 [PFNA]), while perfluorohexane sulfonate (PFHxS) showed a negative association (RR = 0.88, 95% CI:
0.77, 1.01) with ASD risk. When examining associations of ASD with untransformed PFAS concentrations, PFOA, PFNA, and PC-1
were associated with increased ASD risk (per nanogram per milliliter increase: RR = 1.31, 95% CI: 1.04, 1.65; RR = 1.79, 95% CI:
1.13, 2.85; RR = 1.10, 95% CI: 0.97, 1.25, respectively), while the RR of PFHxS moved toward the null. Conclusion : From this high-
risk ASD cohort, we observed increased risk of ASD in children exposed to PFOA and PFNA. Further studies should be conducted in
the general population because this population may have a larger fraction of cases resulting from genetic sources.
84
Peaslee, Graham, Ph.D. “Dr. Graham Peaslee
Addresses Portsmouth, NH Council.” June 16,
2020.
https://www.facebook.com/watch/?v=27850
73858389781
PFAS Video on Social
Media N Y - -
85
Peaslee, Graham and Heather D. Whitehead.
“Occurrences of Per- and Polyfluoroalkyl
Substances in Plastic Products from
Fluorinated Polymer Processing Aids.” 2024.
https://docs.google.com/presentation/d/1oi
wPKNrHCJd6-
VzcFPKTNyCrjjmiwJeh/edit?usp=sharing&oui
d=106106732686023309618&rtpof=true&sd
=true
PFAS Runoff Runoff Institutional
Publication N Y Y Back of envelope calculation of PFAS contamination due to grass turf runoff
86
Ragnarsdóttir, Oddný , Mohamed Abou-
Elwafa Abdallah, and Stuart Harrad. “Dermal
Bioavailability of Perfluoroalkyl Substances
Using in Vitro 3D Human Skin Equivalent
Models,” Environment International. June,
2024.
https://doi.org/10.1016/j.envint.2024.10877
2
PFAS Human Health
Impacts Dermal Absorption Journal Article Y Y N
Perfluoroalkyl substances (PFAS) have been identified in various products that come in contact with human skin, ranging from
school uniforms to personal care products. Despite this, knowledge on human dermal uptake of PFAS is lacking. Thus, the human
dermal absorption of 17 PFAS was assessed, for the first time, using in vitro 3D-human skin equivalent models exposed to
500 ng/cm2 PFAS dissolved in methanol over 24–36 h. The distribution of target PFAS is presented, based on three fractions:
absorbed, un-absorbed, and retained within skin tissue (absorbable dose). Perfluoropentanoic acid (PFPeA)
and perfluorobutane sulfonate (PFBS) had the highest absorbed fraction, 58.9 % and 48.7 % respectively, with the absorbed
fraction decreasing with increasing carbon chain length of the studied perfluorocarboxylic acids (PFCAs) (r = 0.97, p = 0.001) and
perfluorosulfonic acids (PFSAs) (r = 0.97, p = 0.004). Interestingly, while longer chain PFAS (Cn ≥ 9) were not directly absorbed, a
large fraction of the exposure dose was detected within the skin tissue at the end of the exposure. This was most apparent for
perfluoroundecanoic acid (PFUnDA) and perfluorononane sulfonate (PFNS) for which 66.5 % and 68.3 % of the exposure dose was
found within the skin tissue, while neither compound was detected in the absorbed fraction. For compounds with a carbon chain
length > 11, the fraction found within the skin tissue, decreases with increasing chain length. Physicochemical properties played a
role in dermal permeation of PFAS, with a clear inverse correlation between logKOW and absorbed fraction for both PFCAs (r = -
0.97; p ≤ 0.001) and PFSAs (r = -0.99; p ≤ 0.001). Steady-state flux (JSS) and permeation coefficients (Papp) were determined for
target compounds with significant permeation after 36 h exposure (C5-C8 PFCAs and C4-C7 PFSAs). In general, both the flux and
permeation coefficient decreased with increasing chain length.
87
Rudiman, M, LaRossa, S. Response to
Questions, Synthetic Turf Installation,
Portsmouth, NH. Weston and Sampson Email
Communication to S Woodward and P Rice,
City of Portsmouth, NH with Response from
Manufacturer FieldTurf (a Tarkett Company)
Regarding Claims of PFAS Free Synthetic Turf.
November 5, 2021.
https://drive.google.com/file/d/10gh1yicHX
MAjyGYhc1fi5P1OjCQQCxP9/view?usp=drive
sdk
PFAS Consulatant
Report/Letter N Y Y Graphical abstract
Weston & Sampson Engineers, Inc. responded to questions from Diana Carpinone regarding PFAS
presence in the synthetic turf field installed in Portsmouth, NH. FieldTurf acknowledged that its product
should not have been labeled “fluorine free,” but no new statement was requested since this claim was
not part of the city’s specifications. The company stated it could only test for regulated compounds and
known substances, confirming that PTFE and PVDF are used in common products such as drinking water
systems and food handling materials. Fluorine occurs naturally in the environment, so no statement was
made about its origin. Laboratory reports included Method Detection Limits and Reporting Limits for
PFAS compounds, with testing conducted using EPA Method 537.1 (modified). The analyzed sample came
from the same lot as the installed turf and was new at the time of testing.
88
Rice, Peter (Director of Public Works, City of
Portsmouth, NH). Updated Information
Regarding Manufacturing Process and New
Athletic Field. December 6, 2021.
https://nontoxicdovernh.wordpress.com/wp-
content/uploads/2021/12/portsmouth-pvdf-
polymer-memo-12-6-2021-.pdf
PFAS Public Health PVDF
Municipal
Government
Memorandum
N Y Y
The City of Portsmouth’s Department of Public Works issued a memorandum addressing concerns over
the synthetic turf field’s potential PFAS content. The manufacturer’s Material Safety Data Sheets (MSDS)
confirmed the presence of PVDF-HFP, a polymeric PFAS, in the additive used in the turf material. City
officials stated that PVDF-HFP is not one of the "PFAS of Concern" and cited studies indicating its
biocompatibility. The memorandum outlines a proposal for additional PFAS testing, including three
advanced analytical methods at a cost of $18,800, with funding drawn from remaining project funds
initially intended for lighting installation. The manufacturer is not expected to cover testing costs, as the
product met contractual specifications at the time of installation.
89
Rickard, Brittany P., Imran Rizvi, and Suzanne
E. Fenton. "Per- and Poly-Fluoroalkyl
Substances (PFAS) and Female Reproductive
Outcomes: PFAS Elimination, Endocrine-
Mediated Effects, and Disease.” Toxicology
465 (2022): 153031.
https://doi.org/10.1016/j.tox.2021.153031
PFAS Human Health
Impacts
Endocrine
Disruptors Journal Article Y Y N
Per- and poly-fluoroalkyl substances (PFAS) are widespread environmental contaminants frequently detected in drinking water
supplies worldwide that have been linked to a variety of adverse reproductive health outcomes in women. Compared to
men, reproductive health effects in women are generally understudied while global trends in female reproduction rates are
declining. Many factors may contribute to the observed decline in female reproduction, one of which is environmental
contaminant exposure. PFAS have been used in home, food storage, personal care and industrial products for decades. Despite
the phase-out of some legacy PFAS due to their environmental persistence and adverse health effects, alternative, short-chain and
legacy PFAS mixtures will continue to pollute water and air and adversely influence women’s health. Studies have shown that both
long- and short-chain PFAS disrupt normal reproductive function in women through altering hormone secretion, menstrual
cyclicity, and fertility. Here, we summarize the role of a variety of PFAS and PFAS mixtures in female reproductive
tract dysfunction and disease. Since these chemicals may affect reproductive tissues directly or indirectly through endocrine
disruption, the role of PFAS in breast, thyroid, and hypothalamic-pituitary-gonadal axis function are also discussed as the interplay
between these tissues may be critical in understanding the long-term reproductive health effects of PFAS in women. A major
research gap is the need for mechanism of action data – the targets for PFAS in the female reproductive and endocrine
systems are not evident, but the effects are many. Given the global decline in female fecundity and the ability of PFAS to
negatively impact female reproductive health, further studies are needed to examine effects on endocrine target tissues involved
in the onset of reproductive disorders of women.
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91
Tabuchi, Hiroko. “Lawyers to Plastics Makers:
Prepare for ‘Astronomical’ PFAS Lawsuits.”
New York Times. May 28, 2024.
https://www.nytimes.com/2024/05/28/clima
te/pfas-forever-chemicals-industry-
lawsuits.html
PFAS Litigation News Article N Behind Paywall N -
92
Thomas, Liji. “ADHD Symptoms Linked to
Early Childhood Exposure to Polyfluoroalkyl
Substances.” News Medical Life Sciences.
March 28, 2023. https://www.news-
medical.net/news/20230328/ADHD-
symptoms-linked-to-early-childhood-
exposure-to-polyfluoroalkyl-substances.aspx
PFAS Human Health
Impacts ADHD News Article N Y N
News article based on journal article linked previously in bibliography: Kim, J. et al. (2023) "Association
between early-childhood exposure to perfluoroalkyl substances and ADHD symptoms: A prospective
cohort study", Science of The Total Environment, p. 163081. doi: 10.1016/j.scitotenv.2023.163081.
https://www.sciencedirect.com/science/article/abs/pii/S004896972301700X
93
Toxic Use Reduction Institute. “Per- and Poly-
fluoroalkyl Substances (PFAS) in Artificial Turf
Carpet.” February 2020.
https://www.turi.org/publications/per-and-
poly-fluoroalkyl-substances-pfas-in-artificial-
turf-carpet-2/
PFAS Human Health
Impacts
Regulatory
Concerns NGO Article N Y Y
The fact sheet examines the presence of per- and polyfluoroalkyl substances (PFAS) in artificial turf
carpets, discussing their environmental persistence and potential human exposure risks. It references
third-party testing that detected PFAS in turf materials and highlights challenges in measuring these
chemicals due to their widespread presence and low concentration effects. The report underscores the
need for further research, regulatory scrutiny, and alternatives to PFAS-containing turf products.
94
Toxic Use Reduction Institute. “Playground
Surfacing: Choosing Safer Materials for
Children’s Health and the Environment.”
December 2018.
https://www.uml.edu/docs/Playground_surf
acing_report_Dec2023_tcm18-377890.pdf
Crumb Rubber Human Health
Impacts NGO Article N Y Y
This report evaluates various playground surfacing materials, focusing on their potential health and
environmental risks. Crumb rubber, commonly used in playgrounds, is identified as a source of chemical
exposure, including endocrine-disrupting compounds and carcinogens. The report highlights concerns
related to inhalation, dermal absorption, and environmental contamination from materials like recycled
rubber and synthetic turf. It advocates for the use of safer, non-toxic alternatives to minimize risks to
children and surrounding ecosystems.
95
University of Birmingham. “New Study
Confirms Forever Chemicals are Absorbed
Through Human Skin.” Phys.Org. June 24,
2024. https://phys.org/news/2024-06-
chemicals-absorbed-human-skin.amp
PFAS Human Health
Impacts Dermal Absorption Journal Article Y Y Y
96
Brown, Erina, Anna MacDonald, Steve Allen,
Deonie Allen. “The Potential for a Plastic
Recycling Facility to Release Microplastic
Pollution and Possible Filtration Remediation
Effectiveness.” Journal of Hazardous
Materials Advances. May 2023.
https://doi.org/10.1016/j.hazadv.2023.10030
9
Microplastics Regulatory
Oversight Journal Article Y Y N
With current plastic production and the growing problem of global plastic pollution, an increase and improvement in plastic
recycling is needed. There is limited knowledge or assessment of microplastic pollution from point sources such as plastic
recycling facilities globally. This pilot study investigates microplastic pollution from a mixed plastics recycling facility in the UK to
advance current quantitative understanding of microplastic (MP) pollution release from a plastic recycling facility to receiving
waters. Raw recycling wash water were estimate to contain microplastic counts between 5.97 106 – 1.12 × 108 MP m−3 (following
fluorescence microscopy analysis). The microplastic pollution mitigation (filtration installed) was found to remove the majority of
microplastics >5µm, with high removal efficiencies for microplastics >40µm. Microplastics <5µm were generally not removed by
the filtration and subsequently discharged, with 59-1184 tonnes potentially discharged annually. It is recommended that
additional filtration to remove the smaller microplastics prior to wash discharge is incorporated in the wash water management.
Evidence of microplastic wash water pollution suggest it may be important to integrate microplastics into water quality
regulations. Further studies should be conducted to increase knowledge of microplastic pollution from plastic recycling processes.
97
Chand, Rupa, Lucian Iordachescu, Frida
Bäckbom, Angelica Andreasson, Cecilia
Bertholds, Emelie Pollack, Marziye
Molazadeh, Claudia Lorenz, Asbjørn Haaning
Nielsen, and Jes Vollertsen. "Treating
Wastewater for Microplastics to a Level on
Par with Nearby Marine Waters." Water
Research 256 (June 1, 2024).
https://doi.org/10.1016/j.watres.2024.12164
7
Microplastics Waste Water
Treatment Journal Article Y Y N
Retention of microplastics (MPs) at the third largest wastewater treatment plant (WWTP) in Sweden was investigated. The plant is
one of the most modern and advanced of its kind, with rapid sand filter for tertiary treatment in combination with mechanical,
biological, and chemical treatment. It achieved a significantly high treatment efficiency, which brought the MP concentration in its
discharge on par with concentrations measured in marine waters of the same region. This novel data shows that properly
designed modern WWTPs can reduce the MP content of sewage down to background levels measured in the receiving aquatic
environment. Opposite to current understanding of the retention of MP by WWTPs, a modern and well-designed WWTP does not
have to be a significant point source for MP. MPs were quantified at all major treatment steps, including digester inlet and outlet
sludge. MPs sized 10–500 µm were analyzed by a focal plane array based micro-Fourier transform infrared (FPA-µFTIR)
microscopy, a hyperspectral imaging technique, while MPs above 500 µm were analyzed by Attenuated Total Reflectance-Fourier
transform infrared (ATR-FTIR) spectroscopy. Mass was estimated from the hyperspectral images for MPs <500 µm and from
microscope images >500 µm. The overall treatment efficiency was in terms of MP counts 99.98 %, with a daily input of 6.42 ×
1010 and output of 1.04 × 107 particles. The mass removal efficiency was 99.99 %. The mechanical part of the treatment, the pre-
treatment, and primary stages, reduced both the MP counts and mass by approximately 71 %. The combined biological treatment,
secondary settling, and final polishing with rapid sand filtration removed nearly all the remaining 29 %. MPs became successively
smaller as they passed the different treatment steps. The digester inlet received 1.04 × 1011 MPs daily, while it discharged 9.96 ×
1010 MPs, causing a small but not significant decrease in MP counts, with a corresponding MP mass reduction of 9.56 %.
98 Redundant Source - Listed Above
99
Pearce, Graeme. "PVDF Membranes and
PFAS: What Impact of the EU’s REACH
Legislation?" The MBR Site, May 24, 2023.
Updated January 20, 2024. Accessed October
10, 2024.
https://www.thembrsite.com/blog/pvdf-
membranes-and-pfas-whats-the-difference
PFAS PVDF Industry Blog N Y N Non-peer reviewed
100
Silva, Ana L.P., Joana C. Prata, Armando C.
Duarte, Amadeu M.V.M. Soares, Damià
Barceló, Teresa Rocha-Santos. “Microplastics
in Landfill Leachates: The Need for
Reconnaissance Studies and Remediation
Technologies.” Case Studies in Chemical and
Environmental Engineering. June 2021.
https://doi.org/10.1016/j.cscee.2020.100072
Microplastics Landfill Leachate Remediation
Technology Journal Article Y Y N
Although landfills represent repositories for cumulative loading of plastic waste derived from households and industrial sectors,
often seen as sinks, the contribution of these structures and their leachates as potential sources of microplastics to natural
environments remains poorly covered. Microplastics discharged from these sites may pose greater risks to human
and environmental health by adsorbed toxic and persistent hazardous chemicals. As reviewed here, landfill leachates present
microplastic concentrations of 0–291 particles L−1, highly variable depending on landfill condi ons and methodologies adopted,
while treatment of leachates can reduce these concentrations in 1–2 orders of magnitude. Nonetheless, knowledge is still scarce
on the factors influencing the release of microplastics from landfills, and technology must be developed to mitigate this source of
microplastics, which poses a significant challenge but is needed in order to preserve a good environmental status.
101 Redundant Source - Listed Above
102
Zhang, Xiaoran, Yinrui Wang, Junfeng Liu,
Yucheng Jiang, Yiran Tian, and Ziyang Zhang.
"Distribution and Health Risk Assessment of
Some Trace Elements in Runoff from
Different Types of Athletic Fields."
International Journal of Environmental
Research and Public Health, first published
March 2, 2021.
https://doi.org/10.1155/2021/5587057
Crumb Rubber Heavy Metals Human Health
Impacts Journal Article Y Y Y
Environmental risk of heavy metals and metalloids in athletic fields has raised people’s attention in the recent years. Seven trace
elements, including metals and metalloids, were detected in the runoff of five typical athletic fields in the university campus under
three rainfall events. Except for Cr, the total concentrations of Zn, Pb, Cu, Mn, Cd, and As in artificial turf runoff are the highest
among five athletic fields, followed by that of plastic runway. The concentration and first flush effect of trace elements are
followed in the order of 1st > 2nd > 3rd rainfall events. The strongest correlations between metals and metalloids were observed
in the tennis court runoff, while the artificial turf shows the least. The release of trace elements could be directly from the surface
materials and particles on the athletic field and influenced by the comprehensive factors including surface materials, rainfall
events, and pollutant characters. Pollution risk assessment shows that the pollution extent of the five types of athletic field is at
least “moderate” and follows the order of artificial turf > basketball court > plastic runway > badminton court > tennis court. Pb
shows the highest pollution level, while Cr shows the highest healthy risk. The results can provide a theoretical basis for runoff
pollution control and safety use of athletic fields.
103
Abad López, Angela Patricia, Jorge Trilleras,
Victoria A. Arana, Luz Stella Garcia-Alzate,
and Carlos David Grande-Tovar.
"Atmospheric Microplastics: Exposure,
Toxicity, and Detrimental Health Effects." RSC
Advances 13 (March 2023): 7468-7489.
https://doi.org/10.1039/D2RA07098G
Microplastics Air Emissions Inhalation
Exposure Journal Article Y N N
Microplastics (MPs) are micro-particulate pollutants present in all environments whose ubiquity leads humans to unavoidable
exposure. Due to low density, MPs also accumulate in the atmosphere, where they are easily transported worldwide and come
into direct contact with the human body by inhalation or ingestion, causing detrimental health effects. This literature review
presents the sources of atmospheric MPs pollution, transport routes, physicochemical characteristics, and environmental
interactions. The document also explains the implications for human health and analyzes the risk of exposure based on the
potential toxicity and the concentration in the atmosphere. MPs' toxicity lies in their physical characteristics, chemical
composition, environmental interactions, and degree of aging. The abundance and concentration of these microparticles are
associated with nearby production sources and their displacement in the atmosphere. The above elements are presented in an
integrated way to facilitate a better understanding of the associated risk. The investigation results encourage the development of
future research that delves into the health implications of exposure to airborne MPs and raises awareness of the risks of current
plastic pollution to promote the establishment of relevant mitigation policies and procedures.
104
Aini, Sofi Azilan, Achmad Syafiuddin, and
Grace-Anne Bent. "The Presence of
Microplastics in Air Environment and Their
Potential Impacts on Health." Environmental
and Toxicology Management 2, no. 1 (2022):
31-39.
https://www.researchgate.net/publication/3
60292351_presence_of_microplastics_in_air
_environment_and_their_potential_impacts_
on_health
Microplastics Air Emissions Toxicology Journal Article Y Y N
There have been many literature reviews on the presence of MPs in water, but study on the presence of MPs in the air and
literature reviews on it have not been done much. study on MPs pollution needs to be collected and summarized into one
literature review so that this information is easy to find and not scattered. The results found 16 research articles discussed the
findings of MPs in ambient air. The 16 research articles found MPs pollution in each location with different levels, the form of MPs
in the air that they found the most was fiber because the fiber was lighter in size compared to other MPs shape like fragment, film,
or granule. fiber small surface area and thin shape similar like a thread make it easy to be carried by the wind in the air. it turns
out that there are 3 main pathways of how MPs enter the human body. the first is by respiration because MPs have been proven
to pollute the air human breath, and this supported by a recent study that found MPs in human lungs, a total of 39 MPs were
identified within 11 of the 13 human lung tissue samples. the second way is through consumption, because humans consume a lot
of seafood that lives in the sea that is contaminated with MPs. MPs are also found in bottled drinking water, fruit, milk, honey,
almost all food and beverages consumed polluted by MPs.
105
Center for International Environmental Law
(CIEL). Breathing Plastic: The Health Impacts
of Invisible Plastics in the Air. March 2023.
https://www.ciel.org/reports/airborne-
microplastics-briefing/
Microplastics Air Emissions Human Health
Impacts NGO Blog N Y N Non-peer reviewed
106
Donald, Carey E., Richard P. Scott, Glenn
Wilson, Peter D. Hoffman, and Kim A.
Anderson. “Artificial Turf: Chemical Flux and
Development of Silicone Wristband
Partitioning Coefficients.” Air Quality,
Atmosphere & Health 12 (2019): 597–611.
https://doi.org/10.1007/s11869-019-00680-1
Crumb Rubber Air Emissions PAHs Journal Article Y Y Y
This work uses passive samplers to identify PAHs and OPAHs not previously associated with artificial turf, and to provide the first
quantitative measure of in situ flux of semi-volatile contaminants on artificial turf fields. Both air (1.5-m height) and turf air
(immediately above turf surface) were sampled using two sampling materials: low-density polyethylene and silicone. Utilizing a
broad targeted screen, we assess both artificial turf and samples of crumb rubber for over 1530 chemicals including pesticides,
phthalates, and personal care products. We report the presence of 25 chemicals that have not yet been reported in artificial turf
literature, including some with known human effects. The samplers were also quantitatively analyzed for polycyclic aromatic
hydrocarbons yielding gas-phase concentrations at breathing height and surface level—the first such report on an artificial turf
outdoor field. Turf pore-air and air chemicals were highly correlated at all sites, and particularly at the recently installed indoor
site. Flux of chemicals between air and turf surface appear to follow field age although more research is needed to confirm this
trend. The thermal extraction process and silicone passive samplers used are suitable for larger-scale environmental sampling
campaigns that aim for less solvent and sample processing. By co-deploying silicone passive samplers and conventional low-
density polyethylene, partitioning coefficients are derived that can be used for future silicone passive air sampling environmental
assessment. This study provides an initial demonstration that passive samplers can be used to quantify volatile and semi-volatile
organic chemicals from artificial turf.
107 Redundant Source - Listed Above
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109
Mehmood, Tariq, and Licheng Peng.
"Polyethylene Scaffold Net and Synthetic
Grass Fragmentation: A Source of
Microplastics in the Atmosphere?" Journal of
Hazardous Materials 429 (May 2022):
128391.
https://doi.org/10.1016/j.jhazmat.2022.1283
91
Microplastics Air Emissions Journal Article Y N Y
Microplastics (MPs) implications in the atmosphere are of current global concern. Currently, there is a growing interest regarding
source appointment, fate, level of toxicity, and exposure intensity of ambient air MPs. Recent data suggest that polyethylene (PE)
dominates ambient MPs in China's megacities. Albeit understanding of PE sources is limited and restricted to typical sources
polluting terrestrial and marine environments. However, the air is a distinct environmental component and may have some
separate pollution sources as well as the relative contribution of different sources could also contrast in different environments.
Urbanization and fast construction activity resulting from increased economic growth in these places might be a potential source
of ambient PE. Recently, the use of scaffold netting on construction sites and synthetic grass as land covering sheets has been on
the rise. Generally, these PE items are often inferior and composed of recycled material, making them more prone to degradation.
Also, because these items were continually exposed to open air, there is a considerable risk of fragmentation and atmospheric
mixing. Therefore, unchecked and excessive usage of these materials can be risky. Here, PE's physical and chemical characteristics,
transport and health risks in urban air are discussed here.
110 Redundant Source - Listed Above
111
Non-Toxic Dover, Non-Toxic Portsmouth.
Public Records Request Confirms PFAS in
Synthetic Turf: Turf Fiber Report Release.
Non-Toxic Dover (Dover, New Hampshire).
October 18, 2019.
https://nontoxicdovernh.files.wordpress.com
/2020/03/turf-fiber-test-results-sprint-turf-
1.pdf
PFAS Laboratory
Report N Y Y
This document presents test results on synthetic turf fibers from Sprinturf, analyzing their composition
and potential environmental concerns. The findings indicate that the fibers contain various plastic-based
materials, which may degrade over time and contribute to microplastic pollution. The report suggests
that synthetic turf fibers could be a source of environmental contamination, particularly as they break
down into smaller fragments and disperse into surrounding ecosystems. The analysis provides insights
into the chemical composition of turf materials and raises concerns about their long-term impact on
human health and the environment.
112
Non-Toxic Dover, Non-Toxic Portsmouth.
Public Records Request Confirms PFAS in
Synthetic Turf: Turf Backing Report Release.
Non-Toxic Dover (Dover, New Hampshire).
November 12, 2019.
https://nontoxicdovernh.files.wordpress.com
/2020/03/turf-backing-test-results-sprint-
turf.pdf
PFAS Laboratory
Report N Y Y
This document presents test results on synthetic turf fibers from Sprinturf, analyzing their composition
and potential environmental concerns. The findings indicate that the fibers contain various plastic-based
materials, which may degrade over time and contribute to microplastic pollution. The report suggests
that synthetic turf fibers could be a source of environmental contamination, particularly as they break
down into smaller fragments and disperse into surrounding ecosystems. The analysis provides insights
into the chemical composition of turf materials and raises concerns about their long-term impact on
human health and the environment.
113
Berghaus, E. Declaration for FieldTurf/Tarkett
Sports Regarding the Manufacturing of
Artificial Turf Filaments. Letter sent to City of
Portsmouth, NH. October 22, 2019.
https://nontoxicdovernh.files.wordpress.com
/2020/03/met-pfas-statement-fieldturf-1.pdf
PFAS Manufacturer
Statement N Y Y
This document is a statement from FieldTurf regarding the presence of per- and polyfluoroalkyl
substances (PFAS) in their artificial turf products. The statement addresses concerns raised about PFAS in
synthetic turf materials and claims that their products either do not contain detectable levels of PFAS or
meet safety standards. It highlights the testing methods used to detect PFAS and reassures that the
materials comply with regulatory guidelines.
114
Gearhardt, Jefferey, Director of Research,
The Ecology Center, Ann Arbor, MI. Letter to
Portsmouth, NH City Council and Director of
Finance and Administration. 1 Jun 2020.
https://nontoxicdovernh.files.wordpress.com
/2020/06/june1_portsmouthpfas.pdf
PFAS Runoff NGO Letter N Y Y
The report highlights testing results from Portsmouth, focusing on the presence of PFAS in runoff and
water sources near artificial turf installations. It raises concerns about the long-term environmental
persistence of PFAS, their potential to leach into groundwater, and the associated health risks. The
findings emphasize the need for more stringent regulations and further investigation into synthetic turf
as a source of PFAS contamination.
115
Galbraith Laboratories. PFAS results. 11 year
old FieldTurf Duraspine Playing Field,
Portsmouth, NH (Final item only; other items
tested were other consumer products).
February 21, 2022.
https://nontoxicdovernh.files.wordpress.com
/2020/06/totalflabreport120355.pdf
PFAS Laboratory
Report N Y Y Non-peer reviewed source
116
Galbraith Laboratories. PFAS results.
FieldTurf Vertex with Schmidt shock pad and
Safeshell (walnut) infill. June 2021
Installation. July 23, 2021.
https://nontoxicdovernh.files.wordpress.com
/2021/09/pfas-testing-721-galbraith-cc-
samples.pdf
PFAS Laboratory
Report N Y Y Non-peer reviewed source
117 Redundant Source - Listed Above
118
Bennett, Kyla. "Response to Questions -
Portsmouth, New Hampshire Synthetic Turf
Field Installation." Letter to Kimberly Henry,
City Planner, City of Los Angeles. July 11,
2023.
https://drive.google.com/file/d/10ZQayc15_
pUBkKXkhyh2ZxfNTtH7p7CY/view?usp=drive
sdk
PFAS Microplastics Crumb Rubber Public
Commentary N Y Y Non-peer reviewed source
119
FieldTurf. Warranty and Certification, “Free
of PFAS, PFOS, Fluorine.” April 7, 2021.
https://drive.google.com/file/d/15eNMZ4T0
KuNGIzVzErHQ-u-
_lA8084XU/view?usp=drivesdk
PFAS Manufacturer
Statement N Y Y Non-peer reviewed source
120
Mello, Kristin. Follow-up to 11/17/21 PFAS-
Field Work Session. Email communication to
Mayor Becksted, Council Member, City
Manager, City Attorney. Nov 21, 2021.
https://docs.google.com/document/d/13kTZ
rbFrLulPcMF38pjR25tB3-
2mbs_qcnirJmYyT5U/edit
PFAS Leaching Public
Commentary N Y Y Non-peer reviewed source
121
Whipple, John (NHDES MtBE Remediation
Bureau). Portsmouth - Sagamore Creek
Surface Water Sampling, DES #202111042,
Project #40379, Project Type EMCONFUND.
December 3, 2021.
https://drive.google.com/file/d/1GMM5IEW
_6NuP4rNfRoy0U0ujprnjOK57/view?usp=driv
esdk
PFAS Runoff Surface Water
Contamination
Government
Report N Y Y Non-peer reviewed source
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126
Campen, Matthew, Alexander Nihart, Marcus
Garcia, Rui Liu, Marian Olewine, Eliseo
Castillo, Barry Bleske, Justin Scott, Tamara
Howard, Jorge Gonzalez-Estrella, Natalie
Adolphi, Daniel Gallego, and Eliane El Hayek.
"Bioaccumulation of Microplastics in
Decedent Human Brains Assessed by
Pyrolysis Gas Chromatography-Mass
Spectrometry." Preprint. National Institutes
of Health. 2024.
https://pmc.ncbi.nlm.nih.gov/articles/PMC11
100893/
Microplastics Human Health
Impacts Toxicology Journal Article
Awaiting
Peer
Review
Y N
This study investigates the accumulation of micro- and nanoplastics (MNPs) in human organs, particularly
the brain, liver, and kidneys. Using pyrolysis gas chromatography-mass spectrometry (Py-GC/MS),
researchers analyzed autopsy samples from 2016 and 2024, revealing a significant increase in MNP
concentrations over time. The study found that the brain exhibited the highest levels of MNP
accumulation, with polyethylene being the most predominant polymer. Transmission electron
microscopy confirmed the nanoscale nature of the particles, showing aged and fragmented plastic
remnants. These findings suggest that MNPs selectively accumulate in the human brain and raise
concerns about their potential neurotoxic effects, as well as broader implications for human health due
to rising environmental plastic pollution.
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129 Redundant Source - Listed Above
130
Ducroquet, Simon, Shannon Osaka. “The
Plastics We Breathe.” The Washington Post.
June 10, 2024.
https://www.washingtonpost.com/climate-
environment/interactive/2024/microplastics-
air-human-body-organs-spread/
Microplastics Human Health
Impacts Toxicology News Article N Y N Non-peer reviewed source
131
EHN Curators. "Microplastics Found in Brain
Tissue in New Study." Environmental Health
News, September 18, 2024.
https://www.ehn.org/microplastics-found-in-
brain-tissue-in-new-study-2669221476.html
Microplastics Human Health
Impacts Neurotoxicity News Article N Y N Non-peer reviewed source
132
Englart, John. Literature Review on
Environmental and Health Impacts of
Synthetic Turf. Melbourne Polytechnic, April
2021.
https://doi.org/10.13140/RG.2.2.28126.5664
6
Microplastics Crumb Rubber PFAS Academic Article Y Y Y
The conversion of a grass oval to synthetic turf at Hosken Reserve, Coburg North, is about a failure intransparency and
consultation with the local community, and poorly framed triple bottom line decisionmaking by Moreland Council. There are
questions about the integrity of the triple bottom line decisionmaking embracing the social, environmental and economic impacts,
costs and benefits, that was used inthe process in the past decade for this site. And there are questions how triple bottom line
decisionmaking and weighting of factors will be applied for the current process. This literature review providesnumerous reasons
why conversion of a natural grass oval and open space to a fenced synthetic soccerpitch should not take place. It finds that there
are two primary reasons against synthetic turf at HoskenReserve, and that either reason is significant in itself for the primary
project not to go ahead. These twoessential reasons are - synthetic turf carbon footprint (up to 1500 CO2e tonnes) in total life
cyclegreenhouse gas emissions, and synthetic turf increasing waste to landfill contributing to toxic leachatespollution and
microplastics pollution. On both these grounds conversion of a shared use natural grassoval to synthetic turf would appear to
conflict with existing Council policy and frameworks related toclimate change and the climate emergency, and Council’s zero
waste to landfill by 2030 target. On thetriple bottom line factors we found the social factors weighed up with some positive and
some negative,the environmental factors were mostly against, and the economics didn’t stack up, even after factoring in2 to 1
equivalence usage factor for synthetic turf. This review investigated peer reviewed science, greyliterature and relevant policy
documents to ascertain the following issues with synthetic turf:1. Derived from fossil fuel petrochemical industry2. Produces
greenhouse gas emissions during manufacturing and as it degrades3. Increases landfill at end of life4. Produces micro-plastic
pollution as synthetic turf breaks down5. Increases urban heat island effect on local residents.6. Replaces natural grass which
allows soil organic carbon sequestration, provides oxygen7. Reduces soil biota, grass seeds and insects with a trophic impact on
local biodiversity primarilybirdlife.8. Compacts the soil increasing stormwater runoff9. Toxic Chemical leachates from rubber infill
pollute waterways10. Results in increased lower extremity injuries in elite players11. Long term human health impacts uncertain,
but vertebrate model confirms toxicity to humanhealth of rubber infill leachates12. Enhances infection transmission risk.
Encourages a microbial community structure primarilydefined by anthropic contamination.13. Appears to improve water
conservation, but the situation is far more complex when life-cycleassessment and irrigation to reduce heat for playability is taken
into account14. Other issues: increased fire risk, increase in traffic, parking on quiet residential street.
133
Gewin, Virginia. “Tracking Tire Plastics - and
Chemicals - From Road to Plate” Civil Eats,
July 16, 2024.
https://civileats.com/2024/07/16/tracking-
tire-plastics-and-chemicals-from-road-to-
plate/
Microplastics News Article N Y N Non-peer reviewed source
134 Redundant Source - Listed Above
135
Gore, Andrea C., Michele A. La Merrill,
Heather Patisaul, and Robert M. Sargis.
“Endocrine Disrupting Chemical Threats to
Human Health: Pesticides, Plastics, Forever
Chemicals, and Beyond.” Endocrine Society.
February 2024.
https://ipen.org/sites/default/files/documen
ts/edc_report-2024-final-compressed.pdf
PFAS Human Health
Impacts
Endocrine
Disruptors NGO Article N Y N Non-peer reviewed source
136
Jin, Haibo, Tan Ma, Xiaoxuan Sha, Zhenyu Liu,
Yuan Zhou, Xiannan Meng, Yabing Chen,
Xiaodong Han, and Jie Ding. "Polystyrene
Microplastics Induced Male Reproductive
Toxicity in Mice." Journal of Hazardous
Materials 401 (January 5, 2021): 123430.
https://www.sciencedirect.com/science/artic
le/abs/pii/S0304389420314199
Microplastics Human Health
Impacts
Endocrine
Disruptors Journal Article Y N N
Microplastics (MPs) have become hazardous materials, which have aroused widespread concern about their potential toxicity.
However, the effects of MPs on reproductive systems in mammals are still ambiguous. In this study, the toxic effects of
polystyrene MPs (PS-MPs) in male reproduction of mice were investigated. The results indicated that after exposure for 24 h, 4 μm
and 10 μm PS-MPs accumulated in the testis of mice. Meanwhile, 0.5 μm, 4 μm, and 10 μm PS-MPs could enter into three kinds of
testicular cells in vitro. In addition, sperm quality and testosterone level of mice were declined after exposure to 0.5 μm, 4 μm,
and 10 μm PS-MPs for 28 days. H&E staining showed that spermatogenic cells abscissed and arranged disorderly, and
multinucleated gonocytes occurred in the seminiferous tubule. Moreover, PS-MPs induced testicular inflammation and the
disruption of blood-testis barrier. In summary, this study demonstrated that PS-MPs induced male reproductive dysfunctions in
mice, which provided new insights into the toxicity of MPs in mammals.
137 Redundant Source - Listed Above
138
Khalid, Noreen, Muhammad Aqeel, and Ali
Noman. "Microplastics Could Be a Threat to
Plants in Terrestrial Systems Directly or
Indirectly." Environmental Pollution 267
(December 2020): 115653.
https://doi.org/10.1016/j.envpol.2020.11565
3
Microplastics Agricultural Impacts Soil Contamination Journal Article Y N N
Microplastics (MPs) are an emerging threat to ecosystem functioning and biota. The major sources of MPs are terrestrial
and agricultural lands. But their fate, concentration in the terrestrial environment, and effects on soil and biota are poorly
understood. There is a growing body of concern about the adverse effects of MPs on soil-dwelling organisms such as microbes
in mycorrhizae and earthworms that mediate essential ecosystem services. Environmental concentrations and effects of MPs are
considered to increase with increasing trend of its global production. MPs in the soil could directly impact plants through blocking
the seed pore, limiting the uptake of water and nutrient through roots, aggregation, and accumulation in the root, shoot, and
leaves. However, MPs can also indirectly impact plants by affecting soil physicochemical characteristics, soil-dwelling microbes,
and fauna. An affected soil could impact plant community structure and perhaps primary production. In this article, we have
assessed the potential direct and indirect impacts of MPs on plants. We have discussed both the positive and negative impacts of
MPs on plants in terrestrial systems based on currently available limited literature on this topic and our hypothetical
understandings. We have summarized the most current progress in this regard highlighting the future directions on microplastic
research in terrestrial systems.
139
Lee, Chiang-Wen, Lee-Fen Hsu, I.-Lin Wu, et
al. "Exposure to Polystyrene Microplastics
Impairs Hippocampus-Dependent Learning
and Memory in Mice." Journal of Hazardous
Materials 430 (May 15, 2022): 128431.
https://www.sciencedirect.com/science/artic
le/pii/S0304389422002199
Microplastics Human Health
Impacts Neurotoxicity Journal Article Y Y N
Microplastics (MPs) pollution has become a serious environmental issue worldwide, but its potential effects on health remain
unknown. The administration of polystyrene MPs (PS-MPs) to mice for eight weeks impaired learning and memory behavior. PS-
MPs were detected in the brain especially in the hippocampus of these mice. Concurrently, the hippocampus had decreased levels
of immediate-early genes, aberrantly enhanced synaptic glutamate AMPA receptors, and elevated neuroinflammation, all of
which are critical for synaptic plasticity and memory. Interestingly, ablation of the vagus nerve, a modulator of the gut-brain axis,
improved the memory function of PS-MPs mice. These results indicate that exposure to PS-MPs in mice alters the expression of
neuronal activity-dependent genes and synaptic proteins, and increases neuroinflammation in the hippocampus, subsequently
causing behavioral changes through the vagus nerve-dependent pathway. Our findings shed light on the adverse impacts of PS-
MPs on the brain and hippocampal learning and memory.
140
McGrath, Teresa, Rebecca Stamm, Veena
Singla, and Bethanie Carney Almroth.
Buildings’ Hidden Plastic Problem: Policy
Brief and Recommendations. Habitable,
November 2024.
https://habitablefuture.org/resources/constr
uctions-hidden-plastic-problem-policy-brief-
and-recommendations/
Microplastics Environmental
Justice NGO Article N Y N Non-peer reviewed source
141 Redundant Source - Listed Above
142
Kozlove, Max. “Microplastics Linked to Heart
Attack, Stroke and Death.” Scientific
American (Reprinted from Nature magazine).
March 9, 2024.
https://www.scientificamerican.com/article/
microplastics-linked-to-heart-attack-stroke-
and-death/
Microplastics Human Health
Impacts
Cardiometabolic
Effects Journal Letter Y Y N
143 Redundant Source - Listed Above
144
Levine, Hagai, Niels Jørgensen, Anderson
Martino-Andrade, Jaime Mendiola, Dan
Weksler-Derri, Maya Jolles, Rachel Pinotti,
and Shanna H. Swan. “Temporal Trends in
Sperm Count: A Systematic Review and Meta-
Regression Analysis of Samples Collected
Globally in the 20th and 21st Centuries."
Human Reproduction Update 29, no. 2
(2023): 157–76.
https://doi.org/10.1093/humupd/dmac035
Miscellaneous Human Health
Impacts
Endocrine
Disruptors Journal Article Y Y N
BACKGROUND: Numerous studies have reported declines in semen quality and other markers of male reproductive health. Our
previous meta-analysis reported a significant decrease in sperm concentration (SC) and total sperm count (TSC) among men from
North America–Europe–Australia (NEA) based on studies published during 1981–2013. At that time, there were too few studies
with data from South/Central America–Asia–Africa (SAA) to reliably estimate trends among men from these continents.
OBJECTIVE AND RATIONALE: The aim of this study was to examine trends in sperm count among men from all continents. The
broader implications of a global decline in sperm count, the knowledge gaps left unfilled by our prior analysis and the
controversies surrounding this issue warranted an up-to-date meta-analysis. SEARCH METHODS: We searched PubMed/MEDLINE
and EMBASE to identify studies of human SC and TSC published during 2014–2019. After review of 2936 abstracts and 868 full
articles, 44 estimates of SC and TSC from 38 studies met the protocol criteria. Data were extracted on semen parameters (SC, TSC,
semen volume), collection year and covariates. Combining these new data with data from our previous meta-analysis, the current
meta-analysis includes results from 223 studies, yielding 288 estimates based on semen samples collected 1973–2018. Slopes of
SC and TSC were estimated as functions of sample collection year using simple linear regression as well as weighted meta-
regression. The latter models were adjusted for predetermined covariates and examined for modification by fertility status
(unselected by fertility versus fertile), and by two groups of continents: NEA and SAA. These analyses were repeated for data
collected post-2000. Multiple sensitivity analyses were conducted to examine assumptions, including linearity. OUTCOMES:
Overall, SC declined appreciably between 1973 and 2018 (slope in the simple linear model: –0.87 million/ml/year, 95% CI: –0.89 to
–0.86; P < 0.001). In an adjusted meta-regression model, which included two interaction terms [time × fertility group (P = 0.012)
and time × continents (P = 0.058)], declines were seen among unselected men from NEA (–1.27; –1.78 to –0.77; P < 0.001) and
unselected men from SAA (–0.65; –1.29 to –0.01; P = 0.045) and fertile men from NEA (–0.50; –1.00 to –0.01; P = 0.046). Among
unselected men from all continents, the mean SC declined by 51.6% between 1973 and 2018 (–1.17: –1.66 to –0.68; P < 0.001).
The slope for SC among unselected men was steeper in a model restricted to post-2000 data (–1.73: –3.23 to –0.24; P = 0.024) and
the percent decline per year doubled, increasing from 1.16% post-1972 to 2.64% post-2000. Results were similar for TSC, with a
62.3% overall decline among unselected men (–4.70 million/year; –6.56 to –2.83; P < 0.001) in the adjusted meta-regression
model. All results changed only minimally in multiple sensitivity analyses. WIDER IMPLICATIONS: This analysis is the first to report
a decline in sperm count among unselected men from South/Central America–Asia–Africa, in contrast to our previous meta-
analysis that was underpowered to examine those continents. Furthermore, data suggest that this world-wide decline is
continuing in the 21st century at an accelerated pace. Research on the causes of this continuing decline and actions to prevent
further disruption of male reproductive health are urgently needed.
145
Main, Douglas. “Microplastics are infiltrating
brain tissue, studies show: ‘There’s nowhere
left untouched.’” Guardian. August 21, 2024.
https://www.theguardian.com/environment/
article/2024/aug/21/microplastics-brain-
pollution-
health?CMP=fb_gu&ai=#Echobox=17242560
11
Microplastics Neurotoxicity NGO Blog N Y N Non-peer reviewed source
146
Meegoda, J.N., and M.C. Hettiarachchi. "A
Path to a Reduction in Micro and
Nanoplastics Pollution." International Journal
of Environmental Research and Public Health
20, no. 8 (April 18, 2023): 5555.
https://doi.org/10.3390/ijerph20085555
Microplastics Environmental
Policy Public Health Journal Article Y Y Y
Microplastics (MP) are plastic particles less than 5 mm in size. There are two categories of MP: primary and secondary. Primary or
microscopic-sized MP are intentionally produced material. Fragmentation of large plastic debris through physical, chemical, and
oxidative processes creates secondary MP, the most abundant type in the environment. Microplastic pollution has become a
global environmental problem due to their abundance, poor biodegradability, toxicological properties, and negative impact on
aquatic and terrestrial organisms including humans. Plastic debris enters the aquatic environment via direct dumping or
uncontrolled land-based sources. While plastic debris slowly degrades into MP, wastewater and stormwater outlets discharge a
large amount of MP directly into water bodies. Additionally, stormwater carries MP from sources such as tire wear, artificial turf,
fertilizers, and land-applied biosolids. To protect the environment and human health, the entry of MP into the environment must
be reduced or eliminated. Source control is one of the best methods available. The existing and growing abundance of MP in the
environment requires the use of multiple strategies to combat pollution. These strategies include reducing the usage, public
outreach to eliminate littering, reevaluation and use of new wastewater treatment and sludge disposal methods, regulations on
macro and MP sources, and a wide implementation of appropriate stormwater management practices such as filtration,
bioretention, and wetlands.
147 Redundant Source - Listed Above
148
Osaka, Shannon. "What We Just Found Out
About the Possible Tie Between Microplastics
and Cancer: The New Research Gathers
Evidence That Microplastics Are Already
Causing Health Problems." The Washington
Post, December 18, 2024.
https://www.washingtonpost.com/climate-
environment/2024/12/18/microplastics-
colon-cancer-link-study/
Microplastics Human Health
Impacts Cancer Risks News Article N Y N Non-peer reviewed source
149
Project TENDR. “Protecting the Developing
Brains of Children from the Harmful Effects of
Plastics and Toxic Chemicals in Plastics.” April
2024. https://projecttendr.thearc.org/wp-
content/uploads/2024/04/Project-
TENDR_Plastics-Briefing-Paper_April-
2024.pdf.
Microplastics Human Health
Impacts
Endocrine
Disruptors NGO Article N Y N Non-peer reviewed source
150
Sankaran, Vishwam. “Massive New Study
Uncovers Over 4,000 Toxic Chemicals in
Plastic.” Independent. March 15, 2024.
https://www.independent.co.uk/news/scienc
e/plastic-toxic-chemicals-health-effects-
b2513082.html
Microplastics Toxicology News Article N Y N Non-peer reviewed source
151
Sankaran, Vishwam. “Drinking from Plastic
Bottles Can Raise Type 2 Diabetes Risk, Study
Warns.” Independent. June 25, 2024.
https://www.independent.co.uk/life-
style/health-and-families/plastic-bottles-
microplastics-diabetes-risk-b2568246.html
Microplastics Human Health
Impacts
Endocrine
Disruptors News Article N Y N Non-peer reviewed source
152 Redundant Source - Listed Above
153 Redundant Source - Listed Above
154 Redundant Source - Listed Above
155 Redundant Source - Listed Above
156
Zhu, Xia, Matthew J. Hoffman, and Chelsea
M. Rochman. “A City-Wide Emissions
Inventory of Plastic Pollution.” Environmental
Science & Technology. February 1, 2024.
https://doi.org/10.1021/acs.est.3c04348
Microplastics Air Emissions Journal Article Y N Y
A global agreement on plastic should have quantitative reduction targets for the emissions of plastic pollution and regular
measurements to track success. Here, we present a framework for measuring plastic emissions, akin to greenhouse gas emissions,
and demonstrate its utility by calculating a baseline measurement for the City of Toronto in Ontario, Canada. We identify relevant
sources of plastic pollution in the city, calculate emissions for each source by multiplying activity data by emission factors for each
source, and sum the emissions to obtain the total annual emissions of plastic pollution generated. Using Monte Carlo simulations,
we estimate that 3,531 to 3,852 tonnes (T) of plastic pollution were emitted from Toronto in 2020. Littering is the largest source
overall (3,099 T), and artificial turf is the largest source of microplastic (237 T). Quantifying source emissions can inform the most
effective mitigation strategies to achieve reduction targets. We recommend this framework be scaled up and replicated in cities,
states, provinces, and countries around the world to inform global reduction targets and measure progress toward reducing
plastic pollution.
157
Barton, J, Rogerson, M. “The Importance of
Greenspace for Mental Health.” BJPsych
International. November 1, 2017.
https://www.ncbi.nlm.nih.gov/pmc/articles/
PMC5663018/
Miscellaneous Mental Health Green Space Journal Article Y Y N
There is an urgent global need for accessible and cost-effective pro-mental health infrastructure. Public green spaces were
officially designated in the 19th century, informed by a belief that they might provide health benefits. We outline modern
research evidence that greenspace can play a pivotal role in population-level mental health.
158
Butler, Megan. “Panel Asked to Hold
Georgia’s ‘Carpet Capital’ Liable for
Contaminated Drinking Water.” Courthouse
News Service. September 13, 2022.
https://www.courthousenews.com/panel-
asked-to-hold-georgias-carpet-capital-liable-
forcontaminated-drinking-water/
Miscellaneous News Article N N N Source no longer available
159
Beyond Plastics. “Environmental Justice: How
and Why Plastic Threatens Environmental
Justice.”
https://www.beyondplastics.org/fact-
sheets/environmental-justice
Microplastics Environmental
Justice NGO Article N Y N Non-peer reviewed source
160
Bruggers, James. “Who Said Recycling Was
Green? It Makes Microplastics by the Ton.”
Inside Climate News. May 16, 2023.
https://insideclimatenews.org/news/160520
23/recycling-plastic-microplastics-waste/
Microplastics Waste Management News Article N Y N Non-peer reviewed source
161
Lakhani, Nina. “Millions of Americans Lack
Access to Quality Parks, Report Reveals Low-
income Households and People of Color in
Cities Are Least Likely to Live Near Decent
Green Spaces.” The Guardian. May 20, 2020.
https://www.theguardian.com/environment/
2020/may/20/park-inequality-access-
coronavirus-wellbeing
Miscellaneous Mental Health Green Space News Article N Y N Non-peer reviewed source
162
Devon C. Payne-Sturges, Tanya Khemet
Taiwo, Kristie Ellickson, Haley Mullen,
Nedelina Tchangalova, Laura Anderko, Aimin
Chen, and Maureen Swanson. “Disparities in
Toxic Chemical Exposures and Associated
Neurodevelopmental Outcomes: A Scoping
Review and Systematic Evidence Map of the
Epidemiological Literature” Environmental
Health Perspectives. July 29, 2023.
https://doi.org/10.1289/EHP11750
Miscellaneous Air Emissions Heavy Metals Journal Article Y Y N
Background: Children are routinely exposed to chemicals known or suspected of harming brain development. Targeting
Environmental Neuro-Development Risks (Project TENDR), an alliance of >50 scientists, health professionals, and advocates, works
to protect children from toxic chemicals, especially those disproportionately affecting children from low-income and marginalized
families. Objective: This scoping review maps existing literature on disparities in neurodevelopmental outcomes among U.S.
children historically exposed to seven exemplar neurotoxicants: air pollution (AP), lead (Pb), mercury (Hg), organophosphate
pesticides (OPs), phthalates (Phth), polybrominated diphenyl ethers (PBDEs), and polychlorinated biphenyls (PCBs). Methods:
Systematic literature searches for these chemicals, using the Population, Exposure, Comparator, Outcome (PECO) framework,
were conducted through 18 November 2022 across PubMed, CINAHL Plus (EBSCO), GreenFILE (EBSCO), and Web of Science.
Studies were examined for their conceptualization of race, ethnicity, and socioeconomic indicators; data on exposure and
outcome disparities; and evidence of effect modification by race/ethnicity. Results: A total of 212 studies met search criteria,
resulting in 218 investigations being reviewed. AP and Pb were the most commonly studied exposures. The most frequently
identified neurodevelopmental outcomes were cognitive and behavioral/psychological. Seventy-four studies (34%) investigated
interactions or effect.
163
Dong, Yuping, Helin Liu, and Tianming Zheng.
2021. "The Impacts of Green Space Structure
on Asthma in Toronto, Canada" Medical
Sciences Forum 4, no. 1: 6.
https://doi.org/10.3390/ECERPH-3-09123
Miscellaneous Air Emissions Green Space Journal Article Y Y N
A series of studies have proved that green space can influence air pollution, which is the main risk factor for asthma. In addition,
the biodiversity hypothesis suggests use of green space can contribute to increasing human commensal microbiota on the skin,
which makes it possible to enhance immunity to allergic atopy. Given that, the co-effects of green space might jointly influence
asthma. However, existing studies mainly focus on one or part of the pathway between them, and most of them shed light on the
influence of greenness or trees on asthma. Green space structure, capable to influence both air pollution and microbial diversity,
is also probably a significant factor to influence asthma. Regarding this, this study takes Toronto as the case to explore two
potential mechanisms that shape the impact of green space structure on asthma. Additionally, tree diversity that might moderate
this impact was also examined in this study. By regression analysis, it is found that the impact of green space structure on the
prevalence of asthma by reducing air pollution was not evident. Moreover, green space structure has no significant contribution
to the prevalence of asthma, but when moderated by tree diversity, it has the potential to reduce the prevalence of male
asthmatics, and such moderation effect only works on male asthmatics. Except for that, several covariates selected in this study
were also found to correlate with the prevalence of asthma. In particular, the relationship between household income and the
prevalence of asthma is only significant among female asthmatics.
164
Englart, John. “Natural Grass or Synthetic
Turf? What are the Total Life Cycle Emission
Profiles.” Climate Action Merri-Bek. February
28, 2021.
https://climateactionmoreland.org/2021/02/
28/natural-grass-or-synthetic-turf-what-are-
the-total-life-cycle-emission-profiles/
Miscellaneous Climate Impacts Carbon News Article N Y Y Non-peer reviewed source
165
GAIA. “Environmental Justice Principles for
Fast Action on Waste and Methane.” 2024.
https://www.no-burn.org/wp-
content/uploads/2024/03/environmental-
justice-principles-EN-single-pages.pdf
Miscellaneous Environmental
Justice News Article N N N Article no longer available at source.
166
Lannaman, Mark. “City of Calhoun Sued over
PFAS in Drinking Water.” Saporta Report.
April 3, 2024. https://saportareport.com/city-
of-calhoun-sued-over-pfas-in-drinking-water.
PFAS Litigation Drinking Water News Article N Y N Non-peer reviewed source
167
Larker, Barber, and David Gambacorta.
“‘Forever Fields’: How Pennsylvania Became
a Dumping Ground for Discarded Artificial
Turf.” The Philadelphia Inquirer. December
13, 2023.
https://www.inquirer.com/news/pennsylvani
a/artificial-turf-pfas-rematch-pennsylvania-
dumping-ground-20231213.html
PFAS Waste Management News Article N Y Y Non-peer reviewed source
168
Larker, Barber, and David Gambacorta.
“‘Risky Play: A Stew of Toxic Chemicals Lurks
in Artificial Turf. Some Experts Worry They
Could be Linked to Cancer in Young Athletes.”
The Philadelphia Inquirer. February 20, 2024.
https://www.inquirer.com/news/pennsylvani
a/inq2/pfas-artificial-turf-cancer-athletes-
pennsylvania-nj-20240220.html#loaded
PFAS Human Health
Impacts Cancer Risks News Article N Y Y Non-peer reviewed source
169 Redundant Source - Listed Above
170
Mathes, Carter. Letter to Lieutenant
Governor Sheila Oliver Requesting Her
Support to Keep Columbian Park a Green
Space. Rise Up East Orange [NJ], Building a
Stronger Chocolate City. September 15, 2021.
https://eastorangenj.wordpress.com
Crumb Rubber PFAS Heat From Turf Public
Submission N Y Y Non-peer reviewed source
171
NRCD. “New NRDC ‘Chemical Recycling’
Analysis: Process is Harmful, Misleading, Not
Solving Plastic Pollution.” March 7, 2022.
https://www.nrdc.org/press-releases/new-
nrdc-chemical-recycling-analysis-process-
harmful-misleading-not-solving-plastic.
Microplastics News Article N N N Article no longer available at source.
172
Phillips, Anna. “Texans Sued Exxon over
Pollution 13 Years Ago. A Big Decision Now
Looms.” The Washington Post. March 16,
2023.
https://www.washingtonpost.com/climate-
environment/2023/03/15/exxon-pollution-
lawsuit-baytown-texas//
Miscellaneous Litigation Air Emissions News Article N Y N Non-peer reviewed source
173 Redundant Source - Listed Above
174
Weir, Kirsten. “Nurtured by Nature.”
American Psychological Association. April 1,
2020.
https://www.apa.org/monitor/2020/04/nurt
ured-nature
Miscellaneous Mental Health Green Space News Article N Y N Non-peer reviewed source
175
Wertheim, Jon. “With Hotter Temperatures
Come More Football Deaths: And Black High
School Players are Disproportionately
Affected.” Sports Illustrated. October 7,
2022. https://www.si.com/high-
school/2022/10/07/football-climate-change-
daily-cover
Heat from Turf Sports Injuries News Article N Y Y Non-peer reviewed source
176
Younan D, Tuvblad C, Li L, Wu J, Lurmann F,
Franklin M, Berhane K, McConnell R, Wu AH,
Baker LA, Chen JC. “Environmental
Determinants of Aggression in Adolescents:
Role of Urban Neighborhood Greenspace.”
Journal of American Academy of Child and
Adolescent Psychiatry. July 2016. doi:
10.1016/j.jaac.2016.05.002.
https://pubmed.ncbi.nlm.nih.gov/27343886/
Miscellaneous Mental Health Green Space Journal Article Y Y N
Objective: Neighborhood greenspace improves mental health in urban populations, but its neurobehavioral benefits in
adolescents remain unclear. This study examined the association between residential greenspace and aggressive behaviors in
urban-dwelling adolescents. Method: Participants (n = 1,287) from the Risk Factors for Antisocial Behavior Study, a multi-ethnic
cohort of twins/triplets born 1990–1995 in Southern California, were assessed between 2000–2012 (ages 9–18 years) using the
parent-reported Child Behavior Checklist. Residential greenspace was measured using the Normalized Difference Vegetation Index
(NDVI) from satellite imagery, aggregated over various spatiotemporal scales. Multilevel mixed-effects models estimated the
effects of greenspace on aggression, adjusting for within-family/individual correlations and confounders. Results: Both short-term
(1–6 months) and long-term (1–3 years) greenspace exposure within 1,000 meters of residences were linked to reduced
aggression. Increasing NDVI by ~0.12, a range typical in urban areas, corresponded to 2–2.5 years of behavioral maturation.
Associations remained robust after accounting for sociodemographics, neighborhood quality, and temperature. Conclusion:
Findings suggest that neighborhood greenspace helps reduce aggression in urban adolescents. Community-based interventions
should explore greenspace as a strategy for mitigating aggressive behaviors in urban settings.
177
Beyond Plastics. “New Reports Reveals that
U.S. Plastics Recycling Rate Has Fallen to 5%-
6%.” May 4, 2022.
https://www.beyondplastics.org/press-
releases/the-real-truth-about-plastics-
recycling
Miscellaneous Waste Management Plastics Recycling NGO Article N Y N Non-peer reviewed source
178
Beyond Plastics. “The Real Truth About the
U.S. Plastics Recycling Rate.” May 2022.
https://www.beyondplastics.org/publications
/us-plastics-recycling-rate
Miscellaneous Waste Management NGO Blog N Y N Non-peer reviewed source
179
Beyond Plastics. “Report: Chemical Recycling:
A Dangerous Deception.” October 2023.
https://www.beyondplastics.org/publications
/chemical-recycling
Microplastics Waste Management Plastics Recycling NGO Article N Y N Non-peer reviewed source
180 Redundant Source - Listed Above
181
Brock, Joe, Valerie Volcovici, and John
Geddie. “The Recycling Myth: Big Oil’s
Solution for Plastic Waste Littered with
Failure.” Reuters Investigates, July 29, 2021.
https://www.reuters.com/investigates/speci
al-report/environment-plastic-oil-recycling/
Microplastics Waste Management Plastics Recycling
Investigative
Journalism
Article
N Y N Non-peer reviewed source
182
Carmona, Eric, Elisa Rojo-Nieto, Christoph D.
Rummel, Martin Krauss, Kristian Syberg,
Tiffany M. Ramos, Sara Brosche, Thomas
Backhaus, and Bethanie Carney Almroth. “A
Dataset of Organic Pollutants Identified and
Quantified in Recycled Polyethylene Pellets.”
Data in Brief 51 (2023): 109740.
https://doi.org/10.1016/j.dib.2023.109740
Microplastics Recycled Plastics Journal Article Y Y N
Plastics are produced with a staggering array of chemical compounds, with many being known to possess hazardous properties,
and others lacking comprehensive hazard data. Furthermore, non-intentionally added substances can contaminate plastics at
various stages of their lifecycle, resulting in recycled materials containing an unknown number of chemical compounds at
unknown concentrations. While some national and regional regulations exist for permissible concentrations of hazardous
chemicals in specific plastic products, less than 1 % of plastics chemicals are subject to international regulation [1]. There are
currently no policies mandating transparent reporting of chemicals throughout the plastics value chain or comprehensive
monitoring of chemicals in recycled materials.
The dataset presented here provides the chemical analysis of 28 samples of recycled High-Density Polyethylene (HDPE) pellets
obtained from various regions of the Global South, along with a reference sample of virgin HDPE. The analysis comprises both
Target and Non-Targeted Screening approaches, employing Liquid Chromatography-High-Resolution Mass Spectrometry (LC-
HRMS) and Gas Chromatography-High-Resolution Mass Spectrometry (GC-HRMS). In total, 491 organic compounds were detected
and quantified, with an additional 170 compounds tentatively annotated. These compounds span various classes, including
pesticides, pharmaceuticals, industrial chemicals, plastic additives.
The results highlight the prevalence of certain chemicals, such as N-ethyl-o-Toluesulfonamide, commonly used in HDPE
processing, found in high concentrations. The paper provides a dataset advancing knowledge of the complex chemical
composition associated with recycled plastics.
183
ExxonMobil. “ExxonMobil Starts Large
Operations at Large-Scaled Advanced
Recycling Facility.” December 14, 2022.
https://corporate.exxonmobil.com/news/ne
ws-releases/2022/1214_exxonmobil-starts-
operations-at-large-scale-advanced-recycling-
facility
Microplastics Recycled Plastics Regulatory Trends Corporate Press
Release N Y N Non-peer reviewed source
184
Geueke B, Phelps DW, Parkinson LV, Muncke
J. Hazardous Chemicals in Recycled and
Reusable Plastic Food Packaging. Cambridge
Prisms: Plastics. May 22, 2023.
https://www.cambridge.org/core/journals/ca
mbridge-prisms-plastics/article/hazardous-
chemicals-in-recycled-and-reusable-plastic-
food-
packaging/BBDE514AAFE9F1ABB3D677927B
343342
Microplastics Recycled Plastics Food Safety Journal Article Y Y N
In the battle against plastic pollution, many efforts are being undertaken to reduce, reuse and recycle plastics. If tackled in the
right way, these efforts have the potential to contribute to reducing plastic waste and plastic’s spread in the environment.
However, reusing and recycling plastics can also lead to unintended negative impacts because hazardous chemicals, like endocrine
disrupters and carcinogens, can be released during reuse and accumulate during recycling. In this way, plastic reuse and recycling
become vectors for spreading chemicals of concern. This is especially concerning when plastics are reused for food packaging, or
when food packaging is made with recycled plastics. Therefore, it is of utmost importance that care is taken to avoid hazardous
chemicals in plastic food contact materials (FCMs) and to ensure that plastic packaging that is reused or made with recycled
content is safe for human health and the environment. The data presented in this review are obtained from the Database on
Migrating and Extractable Food Contact Chemicals (FCCmigex), which is based on over 800 scientific publications on plastic FCMs.
We provide systematic evidence for migrating and extractable food contact chemicals (FCCs) in plastic polymers that are typically
reused, such as polyamide (PA), melamine resin, polycarbonate and polypropylene, or that contain recycled content, such as
polyethylene terephthalate (PET). A total of 1332 entries in the FCCmigex database refer to the detection of 509 FCCs in repeat-
use FCMs made of plastic, and 853 FCCs are found in recycled PET, of which 57.6% have been detected only once. Here, we
compile information on the origin, function and hazards of FCCs that have been frequently detected, such as melamine, 2,4-di-tert-
butylphenol, 2,6-di-tert-butylbenzoquinone, caprolactam and PA oligomers and highlight key knowledge gaps that are relevant for
the assessment of chemical safety.
185
Global Alliance for Incinerator Alternatives.
“5 Things Plastic Polluters Don’t Want You to
Know about Chemical Recycling.” 2021.
https://www.no-burn.org/resources/5-things-
plastic-polluters-dont-want-you-to-know-
about-chemical-recycling/
Miscellaneous Recycled Plastics Industry Deception News Article N Y N Non-peer reviewed source
186
Greenpeace. “Circular Claims Fall Flat:
Comprehensive U.S. Survey of Plastics
Recyclability.” February 18, 2020.
https://www.greenpeace.org/usa/research/r
eport-circular-claims-fall-flat/
Miscellaneous Recycled Plastics Plastics Recycling NGO Article N Y N Non-peer reviewed source
187
Greenpeace. “New Greenpeace Report Calls
Out Toxic Hazards of Recycled Plastic as
Global Plastics Treaty Negotiations Resume in
Paris.” May 24, 2023.
https://www.greenpeace.org/usa/news/new-
greenpeace-report-calls-out-toxic-hazards-of-
recycled-plastic-as-global-plastics-treaty-
negotiations-resume-in-paris/
Miscellaneous Recycled Plastics Plastics Recycling News Article N Y N Non-peer reviewed source
188
Hahladakis, John N., Costas A. Velis, Roland
Weber, Eleni Tacovidou, Phil Purnell. “An
Overview of Chemical Additives Present in
Plastics: Migration, Release, Fate and
Environmental Impact During Their Use,
Disposal and Recycling.” Journal of Hazardous
Materials. February 15, 2018.
https://www.sciencedirect.com/science/artic
le/pii/S030438941730763X?via%3Dihub
Miscellaneous Recycled Plastics Plastics Additives Journal Article Y Y N
Over the last 60 years plastics production has increased manifold, owing to their inexpensive, multipurpose, durable and
lightweight nature. These characteristics have raised the demand for plastic materials that will continue to grow over the coming
years. However, with increased plastic materials production, comes increased plastic material wastage creating a number of
challenges, as well as opportunities to the waste management industry. The present overview highlights the waste management
and pollution challenges, emphasising on the various chemical substances (known as “additives”) contained in all plastic products
for enhancing polymer properties and prolonging their life. Despite how useful these additives are in the functionality of polymer
products, their potential to contaminate soil, air, water and food is widely documented in literature and described herein. These
additives can potentially migrate and undesirably lead to human exposure via e.g. food contact materials, such as packaging. They
can, also, be released from plastics during the various recycling and recovery processes and from the products produced from
recyclates. Thus, sound recycling has to be performed in such a way as to ensure that emission of substances of high concern and
contamination of recycled products is avoided, ensuring environmental and human health protection, at all times.
189
Hahn, Jennifer. “Recycled Plastics Often
Contain More Toxic Chemicals Says
Greenpeace.” DeZeen. May 26, 2023.
https://www.dezeen.com/2023/05/26/recycl
ed-plastics-greenpeace-report/
Miscellaneous Recycled Plastics Plastics Recycling News Article N Y N Non-peer reviewed source
190
Kaufman, Leslie. “The Warehouses of Plastic
Behind TerraCycle’s Recycling Dream.”
Bloomberg. October 27, 2022.
https://www.bloomberg.com/features/2022-
terracycle-tom-szaky/
Miscellaneous Recycled Plastics Plastics Recycling
Investigative
Journalism
Article
N Y N Non-peer reviewed source
191 Redundant Source - Listed Above
192
Liu, Megan, Sicco H. Brandsma, and Erika
Schreder. “From E-Waste to Living Space:
Flame Retardants Contaminating Household
Items Add to Concern About Plastic
Recycling.” Chemosphere 365 (2024):
143319.
https://doi.org/10.1016/j.chemosphere.2024
.143319
Miscellaneous Recycled Plastics Flame Retardants Journal Article Y N N
Brominated flame retardants (BFRs) and organophosphate flame retardants (OPFRs) are commonly used in electric and electronic
products in high concentrations to prevent or retard fire. Health concerns related to flame retardants (FRs) include
carcinogenicity, endocrine disruption, neurotoxicity, and reproductive and developmental toxicity. Globally, a lack of transparency
related to chemicals in products and limited restrictions on use of FRs in electronics have led to widespread use and dissemination
of harmful FRs. Despite the lack of transparency and restrictions, plastics from electronics are often recycled and can be
incorporated in household items that do not require flame retardancy, resulting in potentially high and unnecessary exposure.
This study sought to determine whether black plastic household products sold on the U.S. market contained emerging and phased-
out FRs and whether polymer type was predictive of contamination. A total of 203 products were screened for bromine (Br), and
products containing >50 ppm Br were analyzed for BFRs, OPFRs, and plastic polymers (e.g. acrylonitrile butadiene styrene, high
impact polystyrene, polypropylene). FRs were found in 85% of analyzed products, with total FR concentrations ranging up to
22,800 mg/kg. FRs detected include the restricted compound deca-BDE, which was used widely in electronics casings, as well as its
replacements decabromodiphenyl ethane (DBDPE) and 2,4,6-Tris(2,4,6-tribromophenoxy)-1,3,5-triazine (TBPP-TAZ) along with
associated compound 2,4,6-tribromophenol (2,4,6-TBP), recently detected in breast milk. Plastic typically used in electronics
(styrene-based) contained significantly higher levels of ∑FRs than plastics less typically used for electronics (polypropylene and
nylon). Estimation of exposure to BDE-209 from contaminated kitchen utensils indicated users would have a median intake of
34,700 ng/day, exceeding estimates for intake from dust and diet. The detection of FRs in collected household products indicates
that recycling, without the necessary transparency and restrictions to ensure safety, is resulting in unexpected exposure to toxic
flame retardants in household items.
193
Metzger, Luke. “Exxon Calls It a Recycling
Collaboration. But It’s Not Real Recycling.”
Environment Texas. May 9, 2024.
https://environmentamerica.org/texas/articl
es/exxon-calls-it-a-recycling-collaboration-
but-its-not-real-recycling/
Miscellaneous Chemical Recycling Air Emissions News Article N Y N Non-peer reviewed source
194
McVeigh, Karen. “Recycling Can Release Huge
Quantities of Microplastics, Study Finds.” The
Guardian, May 23, 2023.
https://www.theguardian.com/environment/
2023/may/23/recycling-can-release-huge-
quantities-of-microplastics-study-finds
Microplastics Recycled Plastics Waste Water News Article N Y N Non-peer reviewed source
195
NL Times. “Large Fire at Brabant Artificial Turf
Company.” October 12, 2018.
https://nltimes.nl/2018/10/12/large-fire-
brabant-artificial-turf-company
Miscellaneous Industrial Accidents Turf Recycling News Article N Y N Non-peer reviewed source
196
Noor, Dharna. “Shell Quietly Backs Away
from Pledge to Increase ‘Advanced Recycling’
of Plastics.” The Guardian. July 17, 2024.
https://www.theguardian.com/business/artic
le/2024/jul/17/shell-recycling-plastic-pledge
Miscellaneous Waste Management Plastics Recycling News Article N Y N Non-peer reviewed source
197
Noor, Dharna. "California Sues ExxonMobil
Over Alleged Role in Plastic Pollution Crisis."
The Guardian, September 23, 2024. California
sues ExxonMobil over alleged role in plastic
pollution crisis | California | The Guardian
Miscellaneous Litigation Plastics Recycling News Article N Y N Non-peer reviewed source
198
Philips, Anna. “Toxic Air Explosions: Inside
the Bitter Battle between Texas Residents
and Exxon: Residents of Baytown Sued Exxon
13 Years Ago to Reduce Pollution that Wafts
into Their Neighborhoods. A Key Legal
Decision Looms, and the Case Could Have
National Implications.” The Washington Post.
March 16, 2023.
https://www.washingtonpost.com/climate-
environment/2023/03/15/exxon-pollution-
lawsuit-baytown-texas/
Miscellaneous Litigation Air Emissions News Article N Y N Non-peer reviewed source
199
Plastic Pollution Coalition. “What Really
Happens to Your Plastic ‘Recycling.’” May 16,
2022.
https://www.plasticpollutioncoalition.org/bl
og/2022/5/16/what-really-happens-to-your-
plastic-recycling
Miscellaneous Recycled Plastics Environmental
Impact NGO Blog N Y N Non-peer reviewed source
200
Plastic Pollution Coalition. ““Advanced
Recycling” is Not a Solution to Plastic
Pollution.” August 31, 2022.
https://www.plasticpollutioncoalition.org/bl
og/2022/8/31/advanced-recycling-truths
Miscellaneous Recycled Plastics Plastics Recycling NGO Blog N Y N Non-peer reviewed source
201
Plastic Pollution Coalition. “PPC Webinar |
Greenwashing 2.0: Debunking Recycling
Myths.” June 5, 2024.
https://www.plasticpollutioncoalition.org/ev
ent/ppc-webinar-060524
Miscellaneous Recycled Plastics Plastic Pollution NGO Blog N Y N Non-peer reviewed source
202
Public Employees for Environmental
Responsibility (PEER). Complaint of Deceptive
and Unfair Advertising of Artificial Turf. Filed
with Federal Trade Commission, February 28,
2022. https://peer.org/wp-
content/uploads/2022/03/3_7_22-Filed-FTC-
Complaint-2.28.22.pdf
Miscellaneous Recycled Plastics Greenwashing Legal Complaint N Y N Non-peer reviewed source
203
Public Employees for Environmental
Responsibility. “False Artificial Turf Recycling
Claims Ripped.” March 7, 2022.
https://peer.org/false-artificial-turf-recycling-
claims-ripped/.
PFAS Artificial Turf Greenwashing NGO Blog N Y N Non-peer reviewed source
204
Song, Lisa. “Selling a Mirage: The Delusion of
Advanced Plastic Recycling Using Pyrolysis.”
ProPublica. June 20, 2024.
https://www.propublica.org/article/delusion-
advanced-chemical-plastic-recycling-pyrolysis
Miscellaneous Recycled Plastics Pyrolysis News Article N Y N Non-peer reviewed source
205
Zero Waste Europe. “Still Fifty Years to
Commercially Scale Pyrolysis Technologies,
New Paper Finds.” November 21, 2024.
https://zerowasteeurope.eu/press-
release/still-fifty-years-to-commercially-scale-
pyrolysis-technologies-new-paper-finds/
Miscellaneous Recycled Plastics Pyrolysis NGO Article N Y N Non-peer reviewed source
206
Bernat-Ponce, Edgar, José A. Gil-Delgado, and
Germán M. López-Iborra. "Replacement of
Semi-Natural Cover with Artificial Substrates
in Urban Parks Causes a Decline of House
Sparrows Passer Domesticus in
Mediterranean Towns." Urban Ecosystems
23, no. 3 (2020): 471–481.
https://doi.org/10.1007/s11252-020-00931-
w
Miscellaneous Urban Biodiversity Journal Article Y Y Y
Many European towns and cities have undergone reurbanisation processes in recent decades. However, their effects on urban
biodiversity have been poorly studied. Currently urbanisation processes include park remodelling, which involves the replacement
of semi-natural substrates (natural grass, bare soil) with artificial ones (pavement, concrete, areas for dogs, artificial grass). Our
aim was to explore, for the first time, the effects of park remodelling on the trends and abundance of a declining urban exploiter,
the House Sparrow. An abundance index of House Sparrows was obtained in 32 urban parks of four towns in the Valencian
Community (Spain) in four summers (2015–2018). Of the studied parks, 10 were remodelled during the study period. Before
remodelling, the trends and abundance of House Sparrows in both groups of parks were similar and stable on average, which
suggest no bias between both park groups. However, House Sparrow abundance was significantly reduced in parks affected by
remodelling works while in those non-remodelled it remained stable. Park remodelling might be linked to a reduction in both
habitat suitability and availability of trophic resources, which could harm urban House Sparrows populations and possibly other
species as well. Therefore, new park policies and urban planning measures are urgently needed to preserve urban House
Sparrows.
207
Díaz, Sandra, Josef Settele, Eduardo
Brondizio, H. T. Ngo, et al. "Pervasive Human-
Driven Decline of Life on Earth Points to the
Need for Transformative Change." Science
366, no. 6471 (2019): eaax3100.
https://doi.org/10.1126/science.aax3100
Miscellaneous Biodiversity Ecosystem
Degredation Journal Article Y N N
The human impact on life on Earth has increased sharply since the 1970s, driven by the demands of a growing population with
rising average per capita income. Nature is currently supplying more materials than ever before, but this has come at the high cost
of unprecedented global declines in the extent and integrity of ecosystems, distinctness of local ecological communities,
abundance and number of wild species, and the number of local domesticated varieties. Such changes reduce vital benefits that
people receive from nature and threaten the quality of life of future generations. Both the benefits of an expanding economy and
the costs of reducing nature’s benefits are unequally distributed. The fabric of life on which we all depend—nature and its
contributions to people—is unravelling rapidly. Despite the severity of the threats and lack of enough progress in tackling them to
date, opportunities exist to change future trajectories through transformative action. Such action must begin immediately,
however, and address the root economic, social, and technological causes of nature’s deterioration.
208
Gaston, Kevin J., and Alejandro Sánchez de
Miguel. "Environmental Impacts of Artificial
Light at Night." Annual Review of
Environment and Resources 47 (2022):
373–398. https://doi.org/10.1146/annurev-
environ-112420-014438
Miscellaneous Biodiversity Light Pollution Journal Article Y Y N
The nighttime is undergoing unprecedented change across much of the world, with natural light cycles altered by the introduction
of artificial light emissions. Here we review the extent and dynamics of artificial light at night (ALAN), the benefits that ALAN
provides, the environmental costs ALAN creates, approaches to mitigating these negative effects, and how costs are likely to
change in the future. We particularly highlight the consequences of the increasingly widespread use of light-emitting diode (LED)
technology for new lighting installations and to retrofit pre-existing ones. Although this has been characterized as a technological
lighting revolution, it also constitutes a revolution in the environmental costs and impacts of ALAN, particularly because the LEDs
commonly used for outdoor lighting have significant emissions at the blue wavelengths to which many biological responses are
particularly sensitive. It is clear that a very different approach to the use of artificial lighting is required.
209 Redundant Source - Listed Above
210
Pochron, S., J. Nikakis, K. Illuzzi, A. Baatz, L.
Demirciyan, A. Dhillon, T. Gaylor, A.
Manganaro, N. Maritato, M. Moawad, R.
Singh, C. Tucker, and D. Vaughan. "Exposure
to Aged Crumb Rubber Reduces Survival Time
during a Stress Test in Earthworms (Eisenia
fetida)." Environmental Science and Pollution
Research 25, no. 12 (2018): 11376–11383.
https://doi.org/10.1007/s11356-018-1433-4
Crumb Rubber Heavy Metal
Exposure Ecotoxicity Journal Article Y N Y
Solid waste management struggles with the sustainable disposal of used tires. One solution involves shredding used tires into
crumb rubber and using the material as infill for artificial turf. However, crumb rubber contains hydrocarbons, organic
compounds, and heavy metals, and it travels into the environment. Earthworms living in soil contaminated with virgin crumb
rubber gained 14% less body weight than did earthworms living in uncontaminated soil, but the impact of aged crumb rubber on
the earthworms is unknown. Since many athletic fields contain aged crumb rubber, we compared the body weight, survivorship,
and longevity in heat and light stress for earthworms living in clean topsoil to those living in topsoil contaminated with aged
crumb rubber. We also characterized levels of metals, nutrients, and micronutrients of both soil treatments and compared those
to published values for soil contaminated with virgin crumb rubber. Consistent with earlier research, we found that contaminated
soil did not inhibit microbial respiration rates. Aged crumb rubber, like new crumb rubber, had high levels of zinc. However, while
exposure to aged crumb rubber did not reduce earthworm body weight as did exposure to new crumb rubber, exposure to aged
crumb rubber reduced earthworm survival time during a stress test by a statistically significant 38 min (16.2%) relative to the
survival time for worms that had lived in clean soil. Aged crumb rubber and new crumb rubber appear to pose similar toxic risks to
earthworms. This study suggests an environmental cost associated with the current tire-recycling solution.
211 Redundant Source - Listed Above
212
Tokunaga, Yurika, Hiroshi Okochi, Yuto Tani,
Yasuhiro Niida, Toshio Tachibana, Kazuo
Saigawa, Kinya Katayama, Sachiko Moriguchi,
Takuya Kato, and Shin-ichi Hayama.
"Airborne Microplastics Detected in the
Lungs of Wild Birds in Japan." Chemosphere
321 (April 2023): 138032.
https://doi.org/10.1016/j.chemosphere.2023
.138032
Microplastics Air Emissions Wildlife Health Journal Article Y Y N
Microplastics (MPs) have been found in a wide range of animal species including humans. The detection of MPs in human lungs
suggests that humans inhale airborne microplastics (AMPs). Although birds respire more efficiently than mammals and are
therefore more susceptible to air pollution, little is known about their inhalation exposure to MPs. In this study, we analyzed
samples isolated from the lungs of several species of wild birds in Japan by attenuated total reflection (ATR) imaging method of
micro-Fourier transform infrared (μFTIR) spectroscopy to clear whether AMPs can be inhaled and accumulate within the lungs of
wild birds. To isolate MPs from lung samples of rock doves (Columba livia), black kites (Milvus migrans), and barn swallows
(Hirundo rustica) euthanized for pest control, digestion and density separation were performed. After each sample collected on an
alumina filter was measured by ATR imaging method using μFTIR spectroscopy, the physical and chemical characteristics of the
detected MPs were evaluated. Six MPs were detected in 3 of 22 lung samples. Polypropylene and polyethylene were found in rock
doves and ethylene vinyl acetate was found in a barn swallow. Most MPs were fragments of 28.0–70.5 μm. Our results
demonstrated that in addition to dietary sources, some wild birds are exposed to MPs by inhalation, and these MPs reach the
lungs.
213
City of Los Angeles Council, Energy and
Environment Committee. “Motion.”
https://clkrep.lacity.org/onlinedocs/2024/24-
0602_misc_5-24-24.pdf
PFAS Microplastics Crumb Rubber Government
Motion N Y Y Non-peer reviewed source
214
Houghton, Sam. “Health Board Bans Artificial
Playing Fields: The Ban in Oak Bluffs Stops
Short of Restricting the High School from
Building a Track.” MV Times. Martha’s
Vineyard, MA. April 23, 2024.
https://www.mvtimes.com/2024/04/23/heal
th-board-bans-artificial-playing-fields/
PFAS Water Quality Public Health
Policy News Article N Y Y Non-peer reviewed source
215
Mertes, Chris. “Council Rejects Athletic Field
Rezoning: District Urged to Refine Plan, Leave
Out Fake Turf.” Middleton-Cross Plains Times-
Tribune. Wisconsin. May 16, 2024.
https://drive.google.com/drive/u/2/folders/1
fZo890UHGNVDHJJFyEwmD-iYK-74QqKx
Miscellaneous Atheltic Turf News Article N Y Y Non-peer reviewed source
216
MOS Editorial Team. "The Netherlands to
Phase Out Artificial Turf over Health and
Environmental Concerns." Ministry of Sport,
October 26, 2023.
https://ministryofsport.com/the-netherlands-
to-phase-out-artificial-turf-over-health-and-
environmental-concerns/
Crumb Rubber Sports Injuries Microplastics News Article N Y Y Non-peer reviewed source
217
Municipality of Princeton. “Princeton
Environmental Commission’s Artificial Turf -
Not A Sound Financial, Environmental, or Just
Investment.” December, 2021.
https://www.princetonnj.gov/DocumentCent
er/View/9205/Princeton-Environmental-
Commission-Artificial-Turf-Report-Dec-2021-
PDF
Crumb Rubber Microplastics Heat From Turf
Municipal
Government
Report
N Y Y
The Princeton Environmental Commission's December 2021 report evaluates the proposal to install
artificial turf in Princeton's municipal parks, particularly Hilltop Park. The report opposes the installation,
citing higher construction and maintenance costs compared to natural grass fields, potential health risks
from toxic materials in synthetic turf, environmental concerns such as microplastics entering the food
chain, increased greenhouse gas emissions from fossil fuel-based materials, and the heat island effect
caused by artificial surfaces. The Commission also highlights the social impact on adjacent low-income
and minority communities, noting that replacing natural grass with artificial turf could limit general
recreational space. Based on these findings, the Commission recommends against installing artificial turf
on municipal lands.
218
Sharp, Julie. “LA Council Committee Moves
Synthetic Grass Ban Proposal Forward.” CBS
News. Los Angeles, CA. June 28, 2024.
https://www.cbsnews.com/losangeles/news/
la-council-committee-moves-synthetic-grass-
ban-proposal-forward/
PFAS Human Health
Impacts Cancer Risks News Article N Y Y Non-peer reviewed source
219
Schmelzer, Elise. “Under Colorado’s New
Water-Saving Law, Here’s Where Grass Will
Be Banned Starting in 2026.” The Denver
Post. March 18, 2024.
https://www.denverpost.com/2024/03/18/c
olorado-grass-turf-ban-2026-water-
conservation-law/
Miscellaneous Environmental
Policy
Water
Conservation News Article N Y Y Non-peer reviewed source
220
Perkins, Tom. “Boston Bans Artificial Turf in
Parks Due to Toxic ‘Forever Chemicals.’” The
Guardian. September 30, 2022.
https://www.theguardian.com/environment/
2022/sep/30/boston-bans-artificial-turf-toxic-
forever-chemicals-pfas
PFAS Environmental
Policy News Article N Y Y Non-peer reviewed source
221
Town of Oak Bluffs, Massachusetts, Office of
the Planning Board. “Notice of Decision May
4, 2022 RE: Special Permit Athletic Track and
Synthetic Turf Field, Martha’s Vineyard High
School.” https://mvrhs.org/wp-
content/uploads/2023/10/OB-Planning-
Board-Special-Permit-Decision.pdf
PFAS Environmental
Policy
Municipal
Government
Report
N Y Y Non-peer reviewed source
222
“List of States and Municipalities That Have
Either Banned or Are Working on the Ban of
Artificial Turfs.”
https://docs.google.com/document/d/e/2PA
CX-1vROI-
LGEDiUZx8TW_E5VhdcQ1PTn98arQUQCi6MC
OvKxnyrh-
9Hc0jhPsYsfgocPJ6UCV_pJ0CnuSgd/pub
Miscellaneous Environmental
Policy Google Doc List N Y Y Non-peer reviewed source
223 Redundant Source - Listed Above
224 Redundant Source - Listed Above
225
MultiDistrict Litigation/Class Action Suit Filed
Against FieldTurf USA (A Tarkett Company);
New Jersey Federal Court. Litig., No. 3:17-md-
2779. October 20, 2017.
https://ecf.njd.uscourts.gov/cgi-bin/login.pl
Miscellaneous Litigation Class Action
Lawsuit Legal Complaint N - - This is the login page to access electronic court records, sufficient link/source was not given
226
Porter, Jeff. “Another PFAS Clean Water Act
Citizen Suit and There May be Thousands
More of These Fish in the Barrel.” Mondaq.
January 11, 2024.
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PFAS Litigation Legal Analysis
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227
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Gambacorta, David and Laker, Barbara. “City
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a/philadelphia-pfas-artificial-turf-field-
murphy-recreation-20240223
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230
Larker, Barber, and David Gambacorta. “Eight
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Larker, Barber, and David Gambacorta.
“‘Field of Dread’: Six Former Phillies Died
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N Y Y Non-peer reviewed source
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234
Larker, Barber, and David Gambacorta. “‘A
Tangled Timeline: Artificial Turf Was Once
Touted as a ‘Magic Carpet.’ But Some
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Allen, Jeffrey, and Shane Perry. “Letter:
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236
Balash, Dana. “East Liverpool’s Football Field
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237
“Dover High School Football Field
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https://assets.nationbuilder.com/ncsa/pages
/544/attachments/original/1709579114/Dov
er_High_School_Football_Field_Stormwater_
Calculation.pdf?1709579114
Miscellaneous Runoff Stormwater Consultant
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238
Cole, Jeff. “FDR Park’s New $250M
Development Continues after Judge
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250m-development-continues-after-judge-
dismisses-opposing-lawsuit
Miscellaneous Litigation Stormwater News Article N Y Y Non-peer reviewed source
239
Cronin, Colleen. “State Officials Warn
Burrillville About Installing Turf Field
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240
Fair Warning. “Fields of Waste: Artificial Turf
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Freiberg, Adam. “Exploring Major USC
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Lerner, Sharon. “How 3M Executives
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Article
N Y N Non-peer reviewed source
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Lundstrom, Marjie & Wolf, Eli. “Artificial Turf,
Touted as Recycling Fix for Millions of Scrap
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l-turf-touted-as-recycling-fix-for-millions-of-
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N Y Y Non-peer reviewed source
244
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246
Rodgers, Bethany. “Turf Recycler Hit with
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248 Redundant Source - Listed Above
249 Redundant Source - Listed Above
250
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251
University of Birmingham. “New Study
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252
Bennett, Kyla. “Artificial Turf: A Plague on
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254
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255
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260
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262
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263
Fichtenbaum, Heidi. “The Princeton
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264
Green, Laura C. Ph.D., D.A.B.T. “Risks to
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t/files/docs/Laura%20Green%20Health%20Ri
sk%20Assessment_Brockfill%20and%20MV%
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Icahn School of Medicine at Mount Sinai.
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266
Myrick, Sonia. “Synthetic Sports Fields and
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267
New York State Department of Health.
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utdoors/synthetic_turf/crumb-
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268
Persellin, Ketura. “New Studies Show PFAS in
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insights/news/new-studies-show-pfas-
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269
Public Employees for Environmental
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270
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271
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272
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273
Shalat, Stuart. “Why Artificial Turf May Truly
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274
Woelke, Dianne. “Greenwashing: Mineral and
Plant Based Infills for Synthetic Turf
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275
Woelke, Dianne, Diana Carpinone, Suzanne
Hume, Ronald Askeland, and Nancy Okada.
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Woelke, Dianne. (Safe Healthy Playing Fields).
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277
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278
Bumbaca, Chris. “‘It’s Not Rocket Science’:
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279
Chappell, Bill. “Soccer Players End Lawsuit
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January 21, 2015.
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Sports Injuries Heat from Turf News Article N Y Y Non-peer reviewed source
280
Gever, John. “Turf War: Study Backs Natural
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281 Redundant Source - Listed Above
282 Redundant Source - Listed Above
283
Johnson, Carla K. “What Does the Science Say
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79212f5443cd2a0d30fe8c9d981b13c0
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284
PEER. “Test Results for Preliminary Study:
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absorption-PFAS-AT.pdf
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285
Perkins, Tom. “Artificial Turf Potentially
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286 Redundant Source - Listed Above
287
Proctor, Stephen. “New Study Finds
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Potential Health Threats to Athletes: 'It Just
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033000063.html
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Environmental
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288
Seifert, Kevin. "NFLPA: New Injury Data
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https://www.espn.com/nfl/story/_/id/36243
906/nflpa-new-injury-data-shows-grass-
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289
Silverman, Alex. “FIFA Requires Stadiums to
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290
Rodrigue, Jourdan, and Daniel Popper. “Field
of Nightmares: Inside the NFL, Player Divide
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292
Tretter, JC. “Only Natural Grass Can Level the
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grass-can-level-the-nfls-playing-field
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Journalism N Y Y Non-peer reviewed source
293
Tretter, JC. “Why the NFL’s Approach to Field
Surfaces is Uneven.” NFL Players Association,
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approach-field-surface-uneven
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295
Woelke, Dianne. “Synthetic Turf
Injuries.”March, 2021.
https://www.mvcommission.org/sites/defaul
t/files/docs/Dianne%20Woelke%20letter%20
3-18-21.pdf
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paper N Y Y Non-peer reviewed source
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297
Beyond Pesticides. “Cost Comparison:
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298
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299
Bosomworth, Karyn, Alexei Trundle, and
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301
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hetic-turf/
Miscellaneous Synthetic Turf
Composition
Informational
Webpage from
University
N Y Y Note from bibliography: Cornell University's own cost analysis, available on their website, illustrates that
artificial turf is significantly more expensive to maintain compared to natural grass.
302 Redundant Source - Listed Above
303 Redundant Source - Listed Above
304 Redundant Source - Listed Above
305
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306
Henry, Kaleb. “Nebraska Football to Replace
FieldTurf with Natural Grass Inside Memorial
Stadium.” Sports Illustrated. July 13, 2024.
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ting/nebraska-football-recruiting-4-star-cb-
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308 Redundant Source - Listed Above
309
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310
Leslie, Madeline. “The Potential of Turfgrass
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/Management
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N Y Y Non-peer reviewed source
311
Lindblom, Jeffrey. “Portland Turf Fields
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12, Oregon. July 10, 2024.
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312 Redundant Source - Listed Above
313 Redundant Source - Listed Above
314
McNitt, A. S., D. M. Petrunak, and T. J.
Serensits. "Temperature Amelioration of
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ISHS Acta Horticulturae 783: II International
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Management for Sports Fields, 2008.
https://doi.org/10.17660/ActaHortic.2008.78
3.59
Heat from Turf Artificial Turf Safety Sports Injuries
Research
Presentation/
Webinar
Summary
N Y Y
Researchers have found that the surface temperatures of synthetic turf are significantly higher than natural turfgrass surfaces
when exposed to sunlight. Reports indicate the surface temperatures of traditional synthetic turf can be as much as 35-60°C
higher than natural turfgrass surface temperatures. Surface temperatures of infill synthetic turf systems have been reported to be
as high as 93°C on a day when air temperatures were 37°C. Researchers have concluded that the heat transfer from the surface to
the sole of an athlete's foot is significant enough to contribute to greater physiological stress that may result in serious heat
related health problems. The objective of this study was to evaluate various methods of reducing the surface temperature of
synthetic turf surfaces. Various irrigation and tarping regimes were used in an effort to reduce surface temperature. Infill was also
amended with calcined clay in an effort to increase the water holding capacity and potential evaporative cooling of the infill
media. Many of the regimes tested were initially very successful in lowering surface temperature to that of natural turfgrass;
however, these low temperatures could not be maintained for periods of time equal to the length of standard sporting events,
although synthetic turf surfaces receiving irrigation did measure lower in surface temperature after 3 hr compared to unirrigated
synthetic turf surfaces.
This study examines the elevated surface temperatures of synthetic turf, which can be 35–60°C hotter
than natural grass, reaching up to 93°C under high-temperature conditions. The researchers assessed
various methods to reduce these extreme temperatures, including irrigation, tarping, and modifying infill
materials with calcined clay to enhance evaporative cooling. While initial cooling strategies successfully
reduced surface temperatures to levels comparable to natural turf, they were not effective for the entire
duration of typical sporting events. However, irrigated synthetic turf surfaces remained cooler than non-
irrigated ones after three hours, indicating that periodic watering may help mitigate heat-related risks for
athletes.
315
Osborne, Charles, Doug Wood. “A Cost
Comparison of Conventional (Chemical) Turf
Management and Natural (Organic) Turf
Management for School Athletic Fields: A
Report Presented by Grassroots
Environmental Education, a Non-Profit
Organization.” March, 2010.
https://www.nontoxiccommunities.com/uplo
ads/7/0/8/2/7082006/turfcomparisonreport.
pdf
Miscellaneous Cost Analysis Turf Maintenance
/Management NGO Article N Y Y Non-peer reviewed source
316
Safe Healthy Playing Fields Inc. “Costs: Grass
vs. Synthetic Turf.”
https://www.safehealthyplayingfields.org/co
st-grass-vs-synthetic-turf
Miscellaneous Cost Analysis Turf Maintenance
/Management NGO Article N Y Y Non-peer reviewed source
317 Redundant Source - Listed Above
LPB-1
Lundstrom, Marjie, Eli Wolfe, and
FairWarning. The Dangerous Pileup of
Artificial Turf
Miscellaneous Recycled Plastics NGO Article N Y Y Non-peer reviewed source
LPB-2
Soltanighias, Tayebeh, Abubakar Umar,
Muhammad Abdullahi, Mohamed Abou-
Elwafa Abdallah, and Luisa Orsini. "Combined
Toxicity of Perfluoroalkyl Substances and
Microplastics on the Sentinel Species Daphnia
magna: Implications for Freshwater
Ecosystems." Environmental Pollution 363,
no. 1 (December 15, 2024): 125133.
https://doi.org/10.1016/j.envpol.2024.12513
3.
PFAS Environmental Journal Article Y Y N
Our study investigates the chronic toxicity of PFAS and microplastics on the sentinel species Daphnia, a species central to aquatic
foodwebs and an ecotoxicology model. We examined the effects of perfluorooctane sulfonate (PFOS), perfluorooctanoic acid
(PFOA), and polyethylene terephthalate microplastics (PET) both individually and in mixtures on Daphnia ecological endpoints.
Unlike conventional studies, we used two Daphnia genotypes with distinct histories of chemical exposure. This approach revealed
that PFAS and microplastics cause developmental failures, delayed sexual maturity and reduced somatic growth, with historical
exposure to environmental pollution reducing tolerance to these persistent chemicals due to cumulative fitness costs. We also
observed that the combined effect of the persistent chemicals analysed was 59% additive and 41% synergistic, whereas no
antagonistic interactions were observed. The genotype-specific responses observed highlight the complex interplay between
genetic background and pollutant exposure, emphasizing the importance of incorporating multiple genotypes in environmental
risk assessments to more accurately predict the ecological impact of chemical pollutants.
Persistent chemicals from industrial processes, particularly perfluoroalkyl substances (PFAS), have
become pervasive in the environment due to their persistence, long half-lives, and bioaccumulative
properties. Used globally for their thermal resistance and repellence to water and oil, PFAS have led to
widespread environmental contamination. These compounds pose significant health risks with exposure
through food, water, and dermal contact. Aquatic wildlife is particularly vulnerable as water bodies act as
major transport and transformation mediums for PFAS. Their co-occurrence with microplastics may
intensify the impact on aquatic species by influencing PFAS sorption and transport. Despite progress in
understanding the occurrence and fate of PFAS and microplastics in aquatic ecosystems, the toxicity of
PFAS mixtures and their co-occurrence with other high-concern compounds remains poorly understood,
especially over organisms’ life cycles.
LPB-3
Zhai, X., X.-H. Zhang, Min Yu. Microbial
colonization and degradation of marine
microplastics in the plastisphere: A review.
Frontiers Microbiology. 16 February 2023.
https://doi.org/10.3389/fmicb.2023.1127308
Microplastics Environmental Journal Article Y Y N
Marine microplastic pollution is a growing problem for ecotoxicology that needs to be resolved. In particular, microplastics may be
carriers of “dangerous hitchhikers,” pathogenic microorganisms, i.e., Vibrio . Microplastics are colonized by bacteria, fungi,
viruses, archaea, algae and protozoans, resulting in the biofilm referred to as the “plastisphere.” The microbial community
composition of the plastisphere differs significantly from those of surrounding environments. Early dominant pioneer
communities of the plastisphere belong to primary producers, including diatoms, cyanobacteria, green algae and bacterial
members of the Gammaproteobacteria and Alphaproteobacteria . With time, the plastisphere mature, and the diversity of
microbial communities increases quickly to include more abundant Bacteroidetes and Alphaproteobacteria than natural biofilms.
Factors driving the plastisphere composition include environmental conditions and polymers, with the former having a much
larger influence on the microbial community composition than polymers. Microorganisms of the plastisphere may play key roles in
degradation of plastic in the oceans. Up to now, many bacterial species, especially Bacillus and Pseudomonas as well as some
polyethylene degrading biocatalysts, have been shown to be capable of degrading microplastics. However, more relevant enzymes
and metabolisms need to be identified. Here, we elucidate the potential roles of quorum sensing on the plastic research for the
first time. Quorum sensing may well become a new research area to understand the plastisphere and promote microplastics
degradation in the ocean.
LPB-4
Heisler, J., P.M. Gilbert, J.M. Burkholder, et
al. "Eutrophication and Harmful Algal
Blooms: A Scientific Consensus." Harmful
Algae, vol. 8, no. 1, December 2008, pp.
3–13.
https://doi.org/10.1016/j.hal.2008.08.006.
Miscellaneous Environmental Journal Article Y N
In January 2003, the US Environmental Protection Agency sponsored a “roundtable discussion” to develop a consensus on the
relationship between eutrophication and harmful algal blooms (HABs), specifically targeting those relationships for which
management actions may be appropriate. Academic, federal, and state agency representatives were in attendance. The following
seven statements were unanimously adopted by attendees based on review and analysis of current as well as pertinent previous
data: (1) Degraded water quality from increased nutrient pollution promotes the development and persistence of many HABs and
is one of the reasons for their expansion in the U.S. and other nations; (2) The composition–not just the total quantity–of the
nutrient pool impacts HABs; (3) High-biomass blooms must have exogenous nutrients to be sustained; (4) Both chronic and
episodic nutrient delivery promote HAB development; (5) Recently developed tools and techniques are already improving the
detection of some HABs, and emerging technologies are rapidly advancing toward operational status for the prediction of HABs
and their toxins; (6) Experimental studies are critical to further the understanding about the role of nutrients in HABs expression,
and will strengthen prediction and mitigation of HABs; and (7) Management of nutrient inputs to the watershed can lead to
significant reduction in HABs.
LPB-5
Mehta, Karan. Guest Opinion: Intentional
PFAS herbicide injection into Cayuga Lake.
September 5, 2024. Ithaca.com
PFAS Environmental News Article N Y N Non-peer reviewed source
LPB-6
Dougherty, Matt. Appellate Court Allows
Challenge Against Permit Allowing Discharge
of PFAS into Cayuga Lake. Ithaca Times. July
24, 2024.
PFAS Environmental News Article N Y N Non-peer reviewed source
LPB-7
Li, Changchao, Jian Liu, et al. What harmful
microbes are lurking in the world's 7 billion
tonnes of plastic waste? October 1, 2024.
Nature.com.
Miscellaneous Plastics Magazine N N N Non-peer reviewed source
LPB-8
Sun T, Wang W, Chan Z. 2024. How do cool-
season turfgrasses respond to high
temperature: progress and challenges. Grass
Research 4: e010 doi: 10.48130/grares-0024-
0008
Miscellaneous Turf Maintenance Journal Article Y N N
The utilization of cool-season turfgrasses is widespread in urban greening, ecological restoration, and sports fields. The primary
limiting factor affecting its growth and application is considered to be high temperature stress. Under heat stress condition, a
range of physiological and morphological traits will be modulated in cool-season turfgrasses, resulting in a deterioration of lawn
quality and subsequently impacting the ornamental and functional value of lawns. In this review, we summarize physiological and
morphological changes in cool-season turfgrasses caused by high temperature stress. The research progress in molecular
characterization of high temperature regulatory networks was further summarized. Approaches for improving cool-season
turfgrasses thermotolerance were proposed. We further put forward challenges and perspectives of research on heat tolerance of
cool-season turfgrasses, aiming to provide references for the research on characterization of heat tolerance mechanism and
breeding heat tolerant cold-season turfgrass.
LPB-9
Huang, B. (2004). Recent advances in drought
and heat stress physiology of turfgrass - A
review. Acta Hortic. 661, 185-192. DOI:
10.17660/ActaHortic.2004.661.23
Miscellaneous Turf Maintenance Journal Article Y N N
Drought and heat stresses are major factors limiting the growth of turfgrasses. Both stresses will continue to be the primer
concern in turfgrass management, as water is becoming increasingly limited for irrigation and temperature increases with global
warming. Researchers in the last decade have advanced the understanding of the mechanisms of how turfgrass adapt to drought
and heat stress and how to maintain high quality turf with limited water resources. It has been identified that among various
mechanisms, osmotic adjustment and induction of dehydrin proteins may confer drought tolerance, while abscisic acid may
contribute to drought avoidance by the induction of stomatal closure in turfgrass. Alternation of carbohydrate and antioxidant
metabolism, induction of heat shock proteins, and cytokinin synthesis are involved in protecting cool-season turfgrasses from heat
stress injuries.
LPB-
10
Silvia Casabianca, Samuela Capellacci, et al.
Plastic-associated harmful microalgal
assemblages in marine environment,
Environmental Pollution, Volume 244, 2019,
Pages 617-626, ISSN 0269-7491,
https://doi.org/10.1016/j.envpol.2018.09.11
0.
Microplastics Environmental
Impact Journal Article Y N N
Plastic debris carry fouling a variety of class-size organisms, among them harmful microorganisms that potentially play a role in
the dispersal of allochthonous species and toxic compounds with ecological impacts on the marine environment and human
health. We analyzed samples of marine plastics floating at the sea surface using a molecular qPCR assay to quantify the attached
microalgal taxa, in particular, harmful species. Diatoms were the most abundant group of plastic colonizers with maximum
abundance of 8.2 × 104 cells cm−2 of plas cs, the maximum abundance of dinoflagellates amounted to 1.1 × 103 cells cm−2 of
plastics. The most abundant harmful microalgal taxon was the diatom Pseudo-nitzschia spp., including at least 12 toxic species,
and the dinoflagellate Ostreopsis cf. ovata with 6606 and 259 cells cm−2, respec vely. The abundance of other harmful
microalgal species including the toxic allochthonous dinoflagellate Alexandrium pacificum ranged from 1 to 73 cells cm−2. In the
present study, a direct relationship between the abundance of harmful algal species colonizing the plastic substrates and their
toxin production was found. The levels of potential toxins on plastic samples ranged from 101 to 102 ng cm−2, considering the
various toxin families produced by the colonized harmful microalgal species. We also measured the rate of adhesion by several
target microalgal species. It ranged from 1.8 to 0.3 day−1 demonstra ng the capacity of plas c substrate colonizing rapidly
by microalgae. The present study reports the first estimates of molecular quantification of microorganisms including toxin
producing species that can colonize plastics. Such findings provide important insights for improving the monitoring practice of
plastics and illustrate how the epi-plastic community can exacerbate the harmful effects of plastics by dispersal, acting as an alien
and toxic species carrier and potentially being ingested through the marine trophic web.
LPB-
11
Huang, B. (2008). MECHANISMS AND
STRATEGIES FOR IMPROVING DROUGHT
RESISTANCE IN TURFGRASS . Acta Hortic. 783,
221-228. DOI:
10.17660/ActaHortic.2008.783.22
Miscellaneous Turf Maintenance Journal Article Y N N
Drought stress is one of the most detrimental factors limiting turfgrass growth. There exists large variability in drought resistance
among turfgrass species and cultivars. Understanding genetic variations in drought resistance among turfgrasses is important for
selecting turfgrasses adapt to water-limiting environments. Turfgrasses have developed three major drought-resistance strategies
in their adaptation to drought stress, including drought tolerance, drought avoidance, and drought escape. These strategies are
genetically controlled by various physiological and biochemical characteristics. Deep rooting is a critical factor for turfgrass to
maintain cellular hydration by avoiding water deficit. Osmotic adjustment is important for plants to tolerate drought stress when
water deficit develops in plants. These traits could be selected through breeding, and also can be modified by culture practices.
Understanding drought-resistance traits will facilitate the development of drought-resistance turfgrasses and efficient
management practices for areas with limited water resources.
LPB-
12
U.S. EPA, CDC. Synthetic Turf Field Recycled
Tire Crumb Rubber Research Under the
Federal Research Action Plan. Vol I, Final
Report Part 2 - Exposure Characterization.
April 16, 2024.
Crumb Rubber Human Health
Impacts
Government
Report Y Y Y
In a follow-up study to the USEPA (2019) evaluation of the concentrations and bioavailability fo chemicals
in crumb rubber, EPA performed biomonitoring studies of athletes using synthetic turf and natural turf
fields. Blood and urine samples were collected pre- and post-field use and were analyzed for metals
(blood) and PAH metabolites (urine). EPA drew the following conclusions from the study: Concentrations
of metals in blood samples were similar to those in the general population and were not elevated after
use of fields with crumb rubber infill. No differences in PAH metabolites in urine samples were identified
between users of synthetic turf and natural turf fields with crumb rubber infill
LPB-
13
Russo, Carlo, Giulio M. Cappelletto, Giuseppe
M. Nicoletti. The product environmental
footprint approach to compare the
environmental performances of artificial and
natural turf. May 5, 2022
Crumb Rubber Sustainability Journal Article Y Y Y
The aim of this paper is to test, for the first time, the Product Environmental Footprint (PEF) approach in a comparative analysis of
the environmental performance of a soccer field for 11 players made with natural turf and one made with artificial turf with used
tyres as infill material. At the same way, for the first time, Data Quality Rating (DQR) was purposed as instrument for comparing
the Life Cycle Assessment (LCA) focused on the two football playgrounds. Along the life cycle, the construction phases of the field,
its use and its maintenance were considered. While, as for the End-of-Life, the Circular Footprint Formula was adopted for
evaluating the avoided impacts of material disposing.
LPB-
14
Politico. E&E News. 'Our community has been
deceived': Turf wars mount over PFAS PFAS Human Health
Impacts News Article N Y Y Non-peer reviewed source
LPB-
15
Lohmann et al. (2020) Are fluoropolymers
really of low concern for human and
environmental health and separate from
other PFAS? Environmental Science &
Technology, 54(20), 12820-12828.
PFAS Human Health
Impacts Journal Article Y Y N
Fluoropolymers are a group of polymers within the class of per- and polyfluoroalkyl substances (PFAS). The objective of this
analysis is to evaluate the evidence regarding the environmental and human health impacts of fluoropolymers throughout their
life cycle(s). Production of some fluoropolymers is intimately linked to the use and emissions of legacy and novel PFAS as polymer
processing aids. There are serious concerns regarding the toxicity and adverse effects of fluorinated processing aids on humans
and the environment. A variety of other PFAS, including monomers and oligomers, are emitted during the production, processing,
use, and end-of-life treatment of fluoropolymers. There are further concerns regarding the safe disposal of fluoropolymers and
their associated products and articles at the end of their life cycle. While recycling and reuse of fluoropolymers is performed on
some industrial waste, there are only limited options for their recycling from consumer articles. The evidence reviewed in this
analysis does not find a scientific rationale for concluding that fluoropolymers are of low concern for environmental and human
health. Given fluoropolymers’ extreme persistence; emissions associated with their production, use, and disposal; and a high
likelihood for human exposure to PFAS, their production and uses should be curtailed except in cases of essential uses.
LPB-
16
New Jersey Department of Environmental
Protection (2023). Technical Memorandum:
PFAS in artificial turf.
PFAS Environmental Government
Report N Y Y
PFAS released in the plastic manufacturing process through wastewater discharges and stack emissions
have been one of the largest sources to the environment, having an impact on both humans and natural
resources. Due to the limited studies investigating the specific issue of leaching from AT, it is not entirely
possible to assess levels of PFAS that may enter the environment during the relatively short use as an
artificial turf product. The release of PFAS during the manufacturing of this material together with the
release of PFAS during the decomposition in a landfill (or when discarded on a lot not far from the original
use location, as occurred in the Massachusetts scenario) should also be considered. Although there is
some advocacy for recycling this material at end-of-life, there are currently no known facilities that will
perform this process for artificial turf (Horsley Witten, 2020).
LPB-
17
The Guardian. Thousands of toxins from food
packaging found in humans - research Miscellaneous Human Health
Impacts News Article N Y N Non-peer reviewed source
LPB-
18
Bennett, Kyla, Kirsten Stade. Artificial Turf's
Big Lie: Old Fields Not Recycled Miscellaneous Recycled Plastics NGO Article N Y Y Non-peer reviewed source
LPB-
19
Salthammer, Tunga. Microplastics and their
Additives in the Indoor Environment Microplastics Human Health
Impacts Journal Article Y Y N
Analyses of air and house dust have shown that pollution of the indoor environment with microplastics could pose a fundamental
hygienic problem. Indoor microplastics can result from abrasion, microplastic beads are frequently added to household products
and microplastic granules can be found in artificial turf for sports activities and in synthetic admixtures in equestrian hall litter. In
this context, the question arose as to what extent particulate emissions of thermoplastic materials from 3D printing should be at
least partially classified as microplastics or nanoplastics. The discussion about textiles as a possible source of indoor microplastics
has also been intensified. This Minireview gives an overview of the current exposure of residents to microplastics. Trends can be
identified from the results and preventive measures can be derived if necessary. It is recommended that microplastics and their
additives be given greater consideration in indoor environmental surveys in the future.
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0.00.10.10.20.30.40.71.21.93.15.49.716.526.639.854.366.075.882.184.682.581.580.079.577.877.278.079.782.885.185.585.486.888.483.1
0.00.00.10.10.20.30.50.91.42.33.86.411.519.730.242.557.972.082.186.586.385.183.982.379.776.675.976.678.381.384.786.787.187.888.287.480.267.151.036.624.415.18.64.93.01.91.10.70.40.30.20.10.10.0
0.00.10.10.10.20.40.61.01.72.74.47.613.021.131.244.060.675.485.089.088.987.486.082.578.776.074.675.076.879.583.887.489.388.989.288.182.169.152.837.726.116.79.95.83.52.11.30.80.50.30.20.10.10.00.0
0.00.10.10.20.20.40.71.11.83.05.18.413.921.531.244.460.475.085.389.691.489.686.382.478.275.474.174.475.978.882.587.490.592.191.088.881.469.053.338.326.517.710.86.53.92.31.40.90.50.30.20.10.10.10.0
0.00.10.10.20.30.40.71.11.93.25.49.214.522.032.245.760.875.885.290.492.190.785.982.178.775.574.274.676.078.883.287.191.194.794.089.882.570.154.439.927.518.411.77.14.22.51.50.90.60.30.20.10.10.10.0
0.00.10.10.20.30.40.71.22.03.45.79.514.822.632.946.260.874.182.688.690.889.086.082.478.976.274.574.276.479.883.787.891.693.693.388.381.369.955.541.128.619.012.27.54.42.71.60.90.60.40.20.20.10.10.0
0.00.10.10.20.30.40.71.22.03.55.89.714.922.933.046.560.873.081.787.289.888.286.482.378.876.374.674.576.880.183.988.291.492.892.587.680.869.455.841.329.119.112.47.64.62.71.60.90.60.40.20.20.10.10.0
0.00.10.10.20.30.40.71.22.03.45.79.514.822.632.946.260.874.282.788.790.989.186.082.478.976.274.574.376.479.883.787.891.693.793.488.481.469.955.441.128.619.012.27.54.42.61.60.90.60.40.20.20.10.10.0
0.00.10.10.20.30.40.71.11.93.25.49.114.522.032.145.660.775.885.390.592.190.785.982.178.775.574.174.676.078.883.287.191.194.793.989.882.670.154.439.927.518.411.77.14.22.51.50.90.60.30.20.10.10.10.0
0.00.10.10.20.20.40.71.11.83.05.08.413.921.531.244.460.475.085.389.691.489.686.482.478.275.474.174.575.978.982.587.590.591.990.988.781.368.953.338.326.517.710.86.53.92.31.40.90.50.30.20.10.10.10.0
0.00.10.10.10.20.40.61.01.62.74.47.513.021.131.244.060.675.485.089.088.787.485.982.578.776.074.675.176.979.583.887.589.388.889.088.182.269.252.837.826.116.79.85.83.52.11.30.80.50.30.20.10.10.00.0
0.00.00.10.10.20.30.50.91.42.33.76.411.419.630.142.557.871.781.986.486.284.983.982.279.776.776.076.778.481.484.886.787.087.988.287.480.067.051.036.624.415.08.64.93.01.81.10.70.40.30.20.10.10.0
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0.00.00.10.10.20.30.50.91.52.54.48.014.123.035.049.362.671.775.979.679.378.378.579.678.477.478.380.383.585.183.983.685.182.280.272.858.942.328.417.710.46.03.32.01.20.70.40.30.20.10.10.00.0
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0.00.00.10.10.10.20.30.40.71.01.42.02.93.94.85.66.16.36.97.58.89.710.410.510.610.19.17.76.24.54.03.83.53.02.41.81.30.90.60.40.30.20.10.10.00.00.0
0.00.00.10.10.10.20.30.40.60.81.21.62.12.52.83.13.33.64.55.46.26.77.06.96.45.74.83.72.82.11.81.61.41.00.80.60.40.30.20.10.10.10.00.0
0.00.00.10.10.10.20.30.40.50.70.91.21.31.41.61.82.12.73.33.84.14.34.23.93.52.92.31.81.31.00.90.70.60.40.30.20.20.10.10.10.00.0
0.00.00.10.10.10.20.20.30.40.50.70.80.80.91.01.31.61.92.32.42.62.52.42.11.81.41.10.90.70.60.50.30.30.20.10.10.10.10.00.0
0.00.00.10.10.10.10.20.20.30.40.50.50.50.60.81.01.11.31.51.51.51.41.21.10.90.70.60.50.40.30.20.20.10.10.10.00.00.0
0.00.00.10.10.10.10.10.20.20.30.30.30.40.50.60.70.80.80.90.90.80.80.70.60.50.40.40.30.20.10.10.10.10.00.0
0.00.00.00.10.10.10.10.20.20.20.20.30.30.30.40.40.50.50.50.50.50.40.30.30.30.20.20.10.10.10.10.00.0
0.00.00.00.10.10.10.10.10.10.20.20.20.20.30.30.30.30.30.30.20.20.20.20.10.10.10.10.10.00.0
0.00.00.10.10.10.10.10.10.10.10.10.20.20.20.20.20.20.10.10.10.10.10.10.10.00.00.0
0.00.00.00.00.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.00.00.0
0.00.00.00.00.00.00.00.10.10.10.10.10.10.10.10.00.00.00.00.0
0.00.00.00.00.00.00.00.00.00.0
Calculation Summary
Grid Name Calculation Metric Units Avg Max Min Avg/Min Max/Min
Field Hockey Horizontal Illuminance Fc 81.86 97 74 1.11 1.32
Plot Date: 1/24/2025 File: G:\38145.00\3.0_Working\3.9_CAD\1_SheetFiles\PERMITTING\L6-01_LIGHTING PLAN.dwg Saved By: arenaud
Seal
Drawing No.
Drawing Title:
Key Map
Project Title:
Client Project No:
Drawn By:
Checked By:
Approved By:
Issue Date:11.25.2024
TS
AR, TS
AG, ZC
DRAWING ISSUE & REVISION HISTORY
No.Description Date
Sasaki Project No:
NOT FOR CONSTRUCTION
13800
38145.02
ARCHITECT + LANDSCAPE ARCHITECT
SASAKI
110 Chauncy Street
Boston, MA 02111
TEL. 617.926.3300
www.sasaki.com
CIVIL
TG MILLER
605 West State Street, Suite A
Ithaca, NY 14850
TEL. 607.272.6477
www.tgmillerpc.com
STRUCTURAL
LEMESSURIER
1380 Soldiers Field Road
Boston, MA 02135
TEL. 617.868.1200
www.lemessurier.com
MEP/FP
RFS ENGINEERING
71 Water Street
Laconia, NH 03246
TEL. 603.524.4647
www.rfsengineering.com
BUILDING AND FIRE CODE
HOWE ENGINEERS
141 Longwater Drive, Suite 110
Norwell, MA 02061
TEL. 781.878.3500
www.howeengineers.com
11/25/2024
ISSUE FOR PERMIT
Game Farm Road
Field Hockey Field
Game Farm Road | Ithaca, NY 14853
Cornell University
North
Scale: 1" = 30'
FIELD HOCKEY IRRIGATION
IRRIGATION CONSULTING, INC.
30 Merritt Parkway, 2nd Floor
Nashua, NH 03062
TEL. 978.433.8972
www.irrigationconsulting.com
Feet
60300
SYMBOL DESCRIPTION
LIMIT OF WORK (LOW)
LEGEND
SPORTS LIGHT POLE, MUSCO
'LIGHT-STRUCTURE SYSTEM'
70' MOUNTING HEIGHT
SITE LIGHT POLE,
LEOTEK ARIETA LUMINAIRE,
20' MOUNTING HEIGHT
11.8 ILLUMINATION LEVEL
(FOOTCANDLE)
PROJECT LIGHTING PLAN 1
L6-01
1" = 20'
4020
MATCHLINE SEE SHEET 01
MATCHLINE SEE SHEET 02
Luminaire Schedule
Symbol Qty Description Catalog #Tag Mounting
Height (ft)
5 SITE LIGHT POLE, TYPE 2 DISTRIBUTION AR13-48N-MV-NW-2-BK-040-BLS EP1 20
8 AR13-48N-MV-NW-4-BK-080-BLS EP2 20
1 AR13-48N-MV-NW-5-BK-055-BLS EP3 20
4 AR13-48N-MV-NW-4-BK-080-BLS EP4 20
SITE LIGHT POLE, TYPE 4 DISTRIBUTION
SITE LIGHT POLE, TYPE 5 DISTRIBUTION
SITE DOUBLE HEAD POLE, TYPE 4 DIST.
4 TLC-LED-550 / TLC-LED-1500 F1-F4 70ATHLETIC FIELD LIGHTING
01/31/2025
01.31.2025
MATCHLINE SEE SHEET 01
MATCHLINE SEE SHEET 02
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH
OH E
OH E
E
G
G
G
G
G
G
G
G
G
G
G
G
G
G
ST
ST
ST
ST
ST
ST
ST
GA
M
E
F
A
R
M
R
O
A
D
PHASE 2
TEAM FACILITY
5,000 SF.
PHASE 2
INDOOR TURF FACILITY
9,400 SF.
ST
O
P
LI
M
I
T
O
F
W
O
R
K
LIMIT OF WORK
EP4
EP3
EP2
EP2 EP2
EP2
EP1
EP1
EP2
EP4
EP4 EP4
BUS PARKING
BUS PARKING
F1
F3
0.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.0
0.00.00.00.00.00.00.00.00.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.10.1
0.00.00.10.10.10.10.00.00.00.10.10.10.10.20.20.20.20.10.10.10.10.10.20.20.20.20.20.10.10.10.10.10.20.20.20.20.10.10.10.10.10.10.20.20.20.20.10.10.1
0.00.10.10.20.20.30.20.10.10.10.20.20.30.30.30.30.30.20.20.20.20.20.30.30.30.30.30.20.20.20.20.20.30.30.30.30.30.20.20.20.20.20.30.30.30.30.30.20.2
0.00.00.10.20.30.30.50.60.30.20.20.30.40.50.60.70.60.50.40.30.30.30.40.50.60.70.60.50.40.30.30.30.40.50.60.70.60.50.40.30.30.30.40.50.60.70.60.50.30.3
0.00.10.10.20.30.40.60.80.60.30.30.40.61.01.61.81.51.00.60.50.40.50.61.01.61.81.51.00.60.50.40.50.61.01.51.81.50.90.50.50.40.50.61.01.61.81.50.90.50.4
0.00.10.10.20.30.71.32.01.20.40.40.71.02.04.45.94.21.91.00.70.50.71.02.14.45.94.21.91.00.70.50.71.02.04.35.84.11.91.00.70.50.71.02.04.45.84.11.91.00.6
0.00.10.10.30.40.92.74.22.20.70.50.91.43.37.59.87.23.01.40.90.50.91.43.37.59.87.23.01.40.90.50.91.43.37.59.87.23.01.40.90.50.91.43.37.59.87.23.01.3
0.00.00.10.20.30.41.03.15.02.60.80.50.71.02.04.35.74.11.91.00.70.50.71.02.04.35.74.11.91.00.70.50.71.02.04.45.94.21.91.00.70.50.71.02.04.45.94.21.91.0
0.00.00.00.10.10.20.30.40.92.03.11.70.60.50.50.61.01.61.81.51.00.60.50.40.50.61.01.61.81.51.00.60.50.40.50.61.01.61.81.51.00.60.50.40.50.61.01.61.81.61.00.6
0.00.00.10.10.10.10.20.30.40.60.91.30.90.40.30.40.40.50.70.70.70.50.40.40.40.40.40.50.70.70.70.50.40.40.30.40.40.50.70.70.70.50.40.40.40.40.40.60.70.70.70.50.4
0.00.00.10.10.10.20.20.30.30.40.50.60.80.60.30.30.40.40.40.40.50.40.40.40.40.40.40.40.40.40.40.40.40.30.30.30.30.30.40.40.40.40.40.40.40.40.40.40.40.40.40.40.40.4
0.00.10.10.20.20.30.30.40.40.50.50.60.60.40.30.30.40.40.40.40.40.40.40.40.40.40.40.40.40.40.40.30.30.30.30.30.30.30.40.30.30.30.30.30.40.40.40.40.40.40.40.40.40.3
0.00.10.20.30.30.40.50.50.50.50.50.50.40.40.40.40.50.50.50.40.40.40.40.40.40.50.50.50.50.40.40.30.30.30.40.50.50.50.50.40.30.30.30.40.40.40.50.50.50.40.40.40.40.4
0.00.10.20.40.50.81.21.21.00.60.40.40.40.40.50.81.21.21.00.60.40.50.50.40.60.91.21.20.90.60.40.30.30.30.50.70.80.90.70.60.40.30.30.40.50.81.21.21.00.60.40.40.40.4
0.00.10.30.50.71.53.23.72.20.90.50.50.40.60.71.53.23.72.21.00.60.50.50.60.81.83.53.51.80.80.60.40.20.30.50.91.71.81.20.60.40.30.30.60.71.53.23.72.10.90.50.50.40.6
0.00.00.20.50.82.14.24.73.01.20.60.40.30.60.82.14.24.73.01.20.70.40.30.61.02.54.54.52.61.00.60.30.20.30.51.02.12.51.40.60.40.20.30.60.82.14.24.73.01.20.60.40.30.6
0.00.10.20.51.01.82.01.30.70.40.10.10.30.51.01.82.11.30.70.40.20.10.30.61.11.92.01.20.60.30.10.20.30.50.91.51.61.10.60.30.20.10.30.51.01.82.11.30.60.40.10.10.3
0.00.00.10.20.30.60.60.40.20.10.10.10.10.20.40.60.70.50.30.20.10.10.20.30.40.60.60.40.30.10.10.20.30.50.70.80.80.70.50.30.20.10.10.20.30.60.60.40.20.10.00.00.1
0.00.00.10.10.20.20.20.10.10.10.10.10.10.20.30.30.20.20.10.10.10.10.20.30.30.30.20.20.10.10.20.30.50.60.50.40.40.30.20.10.10.00.10.10.20.20.20.10.00.00.00.0
0.00.00.00.10.10.10.10.10.10.10.10.20.20.20.20.20.20.20.20.20.20.20.20.20.20.20.10.10.10.20.30.60.60.40.20.20.20.10.10.00.00.00.00.00.00.00.00.00.0
0.00.00.00.10.10.10.10.20.20.30.30.30.30.30.30.30.30.30.30.30.30.30.30.30.20.20.30.30.60.91.00.60.20.20.10.10.10.0
0.00.00.10.10.10.20.20.30.40.50.50.50.50.50.50.50.50.50.50.50.50.50.50.50.40.50.50.60.91.72.01.40.50.30.20.10.10.00.0
0.00.00.10.10.10.20.30.40.50.70.80.80.80.80.80.80.80.90.91.00.90.90.80.80.80.80.91.01.01.32.53.42.80.90.50.30.20.10.10.00.0
0.00.00.10.10.10.20.30.40.60.91.21.31.31.31.31.41.41.41.51.61.61.61.51.41.41.41.41.51.61.62.03.23.93.21.30.90.60.30.20.10.10.0
0.00.00.10.10.10.20.30.50.71.11.52.02.22.22.12.02.12.22.52.72.72.82.72.62.42.22.22.32.42.62.62.93.63.93.12.01.40.90.50.30.10.10.00.0
0.00.00.10.10.10.20.30.50.71.11.72.53.33.63.63.53.33.33.64.14.44.64.74.54.23.93.63.53.63.83.94.04.14.34.43.82.92.01.30.70.40.20.10.10.00.0
0.00.10.10.10.20.30.40.71.01.72.74.05.25.85.95.85.55.46.06.67.27.47.57.36.86.25.75.25.35.45.85.95.85.95.75.03.92.81.70.90.50.30.10.10.10.0
0.00.10.10.10.20.30.60.91.42.44.06.38.29.410.09.99.59.69.810.511.011.311.211.110.79.88.88.07.78.39.09.08.68.37.96.85.13.62.11.10.60.30.20.10.10.0
0.00.10.10.20.30.40.71.21.93.35.89.412.715.516.416.316.216.116.216.316.516.416.416.216.015.113.412.312.513.314.314.313.111.911.08.86.44.12.31.20.60.30.20.10.10.00.0
0.00.10.10.20.30.50.91.52.64.68.113.719.324.727.026.125.525.125.124.423.723.423.323.222.622.121.220.220.421.823.423.020.217.314.711.07.44.42.31.20.60.40.20.10.10.10.0
0.00.10.10.20.40.61.01.83.25.811.019.428.536.940.239.838.037.736.434.533.032.632.432.432.031.732.231.831.533.437.235.728.822.217.813.17.74.32.31.20.60.40.20.10.10.10.00.0
0.00.10.10.20.40.61.22.13.87.214.626.839.951.455.654.654.453.150.646.744.143.743.343.343.544.346.747.546.848.453.350.939.628.019.913.57.63.92.11.10.60.40.20.10.10.00.00.0
0.00.00.10.20.40.61.22.44.48.618.235.452.666.371.271.572.672.365.659.355.855.455.855.855.958.163.567.667.766.168.566.049.833.521.012.97.03.61.91.10.60.40.20.10.10.00.00.0
0.00.10.20.30.61.32.65.110.321.342.162.979.288.092.992.687.278.471.667.666.066.267.168.772.078.787.089.386.881.274.057.438.922.012.16.33.31.71.00.60.30.20.10.10.00.00.0
0.00.10.30.51.22.85.811.522.543.267.086.099.2106.7102.294.987.281.176.874.774.676.179.084.089.794.9101.098.590.177.262.241.323.112.26.03.01.50.80.50.30.20.10.10.00.00.0
0.00.10.20.41.12.96.211.622.340.463.285.498.5104.1101.694.589.185.081.879.379.281.485.089.592.596.298.895.490.578.661.841.823.011.95.92.81.30.70.40.20.10.10.00.00.00.0
0.00.00.00.10.10.31.23.36.312.323.238.257.177.590.793.792.186.984.083.182.580.580.182.285.085.887.090.390.088.585.374.358.940.122.211.25.72.71.10.50.30.20.10.10.00.00.00.0
0.00.00.10.10.10.20.41.43.46.914.030.441.855.370.679.580.181.579.779.580.480.879.178.681.084.083.983.784.080.879.377.267.856.144.022.010.75.52.81.10.50.30.20.10.10.00.00.00.0
0.00.00.10.10.10.20.30.71.84.17.815.633.044.556.069.775.974.877.076.576.577.778.777.377.279.782.481.681.481.478.277.076.165.053.242.721.611.06.03.11.40.60.30.20.10.10.10.00.00.0
0.00.00.10.10.10.20.40.61.32.55.19.317.028.943.157.171.075.075.777.376.176.677.978.677.577.880.182.882.481.882.180.678.777.565.750.835.721.912.37.03.71.91.00.50.30.20.10.10.00.00.0
0.00.10.10.10.20.40.61.01.93.46.611.619.830.844.259.671.374.375.777.277.378.379.578.477.277.679.983.385.283.982.681.680.178.269.252.536.824.414.88.74.72.51.50.80.50.30.20.10.10.00.0
0.00.00.10.10.20.30.50.91.52.54.48.014.123.135.049.462.671.676.179.779.478.278.479.678.377.478.480.283.485.183.983.785.182.380.372.859.142.428.517.810.45.93.32.01.20.70.40.30.20.10.10.00.0
0.00.10.10.20.30.40.71.21.93.15.49.716.526.639.854.366.075.882.184.682.581.580.079.577.877.278.079.782.885.185.585.486.888.483.175.663.948.032.820.912.67.24.12.51.50.90.60.30.20.10.10.10.0
0.00.00.10.10.20.30.50.91.42.33.86.411.519.730.242.557.972.082.186.586.385.183.982.379.776.675.976.678.381.384.786.787.187.888.287.480.267.151.036.624.415.18.64.93.01.91.10.70.40.30.20.10.10.0
0.00.10.10.10.20.40.61.01.72.74.47.613.021.131.244.060.675.485.089.088.987.486.082.578.776.074.675.076.879.583.887.489.388.989.288.182.169.152.837.726.116.79.95.83.52.11.30.80.50.30.20.10.10.00.0
89.686.382.478.275.474.174.475.978.882.587.490.592.191.088.881.469.053.338.326.517.710.86.53.92.31.40.90.50.30.20.10.10.10.0
0.10.10.0
PROJECT LIGHTING PLAN 2
L6-02
Plot Date: 1/24/2025 File: G:\38145.00\3.0_Working\3.9_CAD\1_SheetFiles\PERMITTING\L6-01_LIGHTING PLAN.dwg Saved By: arenaud
Seal
Drawing No.
Drawing Title:
Key Map
Project Title:
Client Project No:
Drawn By:
Checked By:
Approved By:
Issue Date:11.25.2024
TS
AR, TS
AG, ZC
DRAWING ISSUE & REVISION HISTORY
No.Description Date
Sasaki Project No:
NOT FOR CONSTRUCTION
13800
38145.02
ARCHITECT + LANDSCAPE ARCHITECT
SASAKI
110 Chauncy Street
Boston, MA 02111
TEL. 617.926.3300
www.sasaki.com
CIVIL
TG MILLER
605 West State Street, Suite A
Ithaca, NY 14850
TEL. 607.272.6477
www.tgmillerpc.com
STRUCTURAL
LEMESSURIER
1380 Soldiers Field Road
Boston, MA 02135
TEL. 617.868.1200
www.lemessurier.com
MEP/FP
RFS ENGINEERING
71 Water Street
Laconia, NH 03246
TEL. 603.524.4647
www.rfsengineering.com
BUILDING AND FIRE CODE
HOWE ENGINEERS
141 Longwater Drive, Suite 110
Norwell, MA 02061
TEL. 781.878.3500
www.howeengineers.com
11/25/2024
ISSUE FOR PERMIT
Game Farm Road
Field Hockey Field
Game Farm Road | Ithaca, NY 14853
Cornell University
North
Scale: 1" = 30'
FIELD HOCKEY IRRIGATION
IRRIGATION CONSULTING, INC.
30 Merritt Parkway, 2nd Floor
Nashua, NH 03062
TEL. 978.433.8972
www.irrigationconsulting.com
Feet
60300
SYMBOL DESCRIPTION
LIMIT OF WORK (LOW)
LEGEND
SPORTS LIGHT POLE, MUSCO
'LIGHT-STRUCTURE SYSTEM'
70' MOUNTING HEIGHT
SITE LIGHT POLE,
LEOTEK ARIETA LUMINAIRE,
20' MOUNTING HEIGHT
11.8 ILLUMINATION LEVEL
(FOOTCANDLE)
MATCHLINE SEE SHEET 01
MATCHLINE SEE SHEET 02
MA
T
C
H
L
I
N
E
S
E
E
S
H
E
E
T
0
2
MA
T
C
H
L
I
N
E
S
E
E
S
H
E
E
T
0
3
1" = 20'
4020
01/31/2025
01.31.2025
MA
T
C
H
L
I
N
E
S
E
E
S
H
E
E
T
0
2
MA
T
C
H
L
I
N
E
S
E
E
S
H
E
E
T
0
3
Luminaire Schedule
Symbol Qty Description Catalog #Tag Mounting
Height (ft)
5 SITE LIGHT POLE, TYPE 2 DISTRIBUTION AR13-48N-MV-NW-2-BK-040-BLS EP1 20
8 AR13-48N-MV-NW-4-BK-080-BLS EP2 20
1 AR13-48N-MV-NW-5-BK-055-BLS EP3 20
Calculation Summary
Grid Name Calculation Metric Units Avg Max Min Avg/Min Max/Min
Field Hockey Horizontal Illuminance Fc 81.86 97 74 1.11 1.32
4 AR13-48N-MV-NW-4-BK-080-BLS EP4 20
SITE LIGHT POLE, TYPE 4 DISTRIBUTION
SITE LIGHT POLE, TYPE 5 DISTRIBUTION
SITE DOUBLE HEAD POLE, TYPE 4 DIST.
4 TLC-LED-550 / TLC-LED-1500 F1-F4 70ATHLETIC FIELD LIGHTING
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OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
OH E
T
E
E
S
S
ST
ST
ST
ST
ST
ST
8''
W
8''
W
8''
W
8''
W
8''
W
8''
W
8''
W
8''
W
8''
W
PRACTICE SOCCER BUILDING
EP2
EP1
EP1
EP1
EP2
EP2
0.00.00.00.0
0.10.10.10.00.00.00.00.00.00.0
0.20.10.10.10.10.00.10.10.10.10.0
0.30.30.20.20.10.10.10.20.20.10.00.0
0.60.50.30.30.20.10.10.30.30.20.10.0
1.50.90.50.40.20.10.20.50.60.40.10.0
4.11.91.00.60.30.10.41.11.30.60.10.0
0.00.00.00.00.00.0
7.23.01.30.90.30.20.92.52.20.80.10.00.00.00.00.00.10.10.10.10.00.00.00.00.00.00.00.0
4.21.91.00.60.30.21.13.02.20.80.10.00.00.00.00.00.00.10.10.10.30.60.60.30.20.10.10.10.10.10.10.00.0
1.61.00.60.40.30.20.71.71.80.70.10.10.00.00.00.00.10.10.10.20.30.51.12.42.81.40.60.30.20.10.10.20.10.10.0
0.70.50.40.30.20.20.40.80.90.60.10.10.10.10.10.10.10.10.20.20.40.71.52.42.41.80.80.40.20.20.20.30.30.10.0
0.40.40.40.30.30.20.30.50.60.40.20.10.10.10.20.20.20.20.20.30.40.50.81.11.10.90.50.30.20.20.30.50.40.20.00.0
0.40.40.30.30.30.30.40.50.50.40.30.20.20.20.30.30.30.30.30.30.20.20.20.20.10.20.20.10.10.10.51.00.90.40.10.0
0.40.40.40.40.40.50.50.50.50.40.30.30.30.30.40.40.50.40.40.30.30.20.10.10.10.10.00.00.00.10.61.82.01.00.20.0
0.40.40.40.50.81.21.21.00.60.40.40.40.40.50.81.11.21.00.60.40.30.20.10.10.10.10.10.10.10.10.72.03.01.50.20.0
0.50.40.60.71.53.23.72.21.00.60.50.40.60.71.53.23.72.20.90.50.40.20.10.10.10.10.10.10.10.10.71.92.11.00.20.0
0.40.30.60.82.14.24.73.01.20.60.40.30.60.82.14.24.73.01.20.70.40.20.20.20.20.30.20.20.20.20.61.01.00.40.10.0
0.10.10.30.51.01.82.01.30.60.40.10.10.30.51.01.82.01.30.70.40.30.30.30.30.40.40.30.30.30.20.40.50.50.20.00.0
0.00.00.10.20.30.60.60.40.20.10.00.00.10.20.30.60.60.40.30.20.20.30.40.60.80.80.70.50.30.30.30.30.30.10.0
0.00.00.00.10.10.20.20.20.10.00.00.00.00.10.10.20.20.20.10.10.30.50.61.22.32.51.60.80.50.40.20.20.10.10.0
0.00.00.00.00.00.00.00.00.00.00.00.00.00.00.00.10.20.60.82.04.24.92.91.10.60.40.10.10.10.10.0
0.00.00.10.40.71.52.73.12.10.90.50.20.10.00.00.00.0
0.00.00.10.30.50.80.90.60.30.20.10.00.0
0.00.00.10.20.30.40.30.10.10.00.0
0.00.00.10.10.10.10.00.00.0
0.00.00.00.00.00.0
0.0
Luminaire Schedule
Symbol Qty Description Catalog #Tag Mounting
Height (ft)
5 SITE LIGHT POLE, TYPE 2 DISTRIBUTION AR13-48N-MV-NW-2-BK-040-BLS EP1 20
8 AR13-48N-MV-NW-4-BK-080-BLS EP2 20
1 AR13-48N-MV-NW-5-BK-055-BLS EP3 20
Calculation Summary
Grid Name Calculation Metric Units Avg Max Min Avg/Min Max/Min
Field Hockey Horizontal Illuminance Fc 81.86 97 74 1.11 1.32
Plot Date: 1/24/2025 File: G:\38145.00\3.0_Working\3.9_CAD\1_SheetFiles\PERMITTING\L6-01_LIGHTING PLAN.dwg Saved By: arenaud
Seal
Drawing No.
Drawing Title:
Key Map
Project Title:
Client Project No:
Drawn By:
Checked By:
Approved By:
Issue Date:11.25.2024
TS
AR, TS
AG, ZC
DRAWING ISSUE & REVISION HISTORY
No.Description Date
Sasaki Project No:
NOT FOR CONSTRUCTION
13800
38145.02
ARCHITECT + LANDSCAPE ARCHITECT
SASAKI
110 Chauncy Street
Boston, MA 02111
TEL. 617.926.3300
www.sasaki.com
CIVIL
TG MILLER
605 West State Street, Suite A
Ithaca, NY 14850
TEL. 607.272.6477
www.tgmillerpc.com
STRUCTURAL
LEMESSURIER
1380 Soldiers Field Road
Boston, MA 02135
TEL. 617.868.1200
www.lemessurier.com
MEP/FP
RFS ENGINEERING
71 Water Street
Laconia, NH 03246
TEL. 603.524.4647
www.rfsengineering.com
BUILDING AND FIRE CODE
HOWE ENGINEERS
141 Longwater Drive, Suite 110
Norwell, MA 02061
TEL. 781.878.3500
www.howeengineers.com
11/25/2024
ISSUE FOR PERMIT
Game Farm Road
Field Hockey Field
Game Farm Road | Ithaca, NY 14853
Cornell University
North
Scale: 1" = 30'
FIELD HOCKEY IRRIGATION
IRRIGATION CONSULTING, INC.
30 Merritt Parkway, 2nd Floor
Nashua, NH 03062
TEL. 978.433.8972
www.irrigationconsulting.com
Feet
60300
4 AR13-48N-MV-NW-4-BK-080-BLS EP4 20
SITE LIGHT POLE, TYPE 4 DISTRIBUTION
SITE LIGHT POLE, TYPE 5 DISTRIBUTION
SITE DOUBLE HEAD POLE, TYPE 4 DIST.
SYMBOL DESCRIPTION
LIMIT OF WORK (LOW)
LEGEND
SPORTS LIGHT POLE, MUSCO
'LIGHT-STRUCTURE SYSTEM'
70' MOUNTING HEIGHT
SITE LIGHT POLE,
LEOTEK ARIETA LUMINAIRE,
20' MOUNTING HEIGHT
11.8 ILLUMINATION LEVEL
(FOOTCANDLE)
PROJECT LIGHTING PLAN 3
L6-03
MA
T
C
H
L
I
N
E
S
E
E
S
H
E
E
T
0
2
MA
T
C
H
L
I
N
E
S
E
E
S
H
E
E
T
0
3
1" = 20'
4020
4 TLC-LED-550 / TLC-LED-1500 F1-F4 70ATHLETIC FIELD LIGHTING
01/31/2025
01.31.2025
MA
T
C
H
L
I
N
E
S
E
E
S
H
E
E
T
0
2
MA
T
C
H
L
I
N
E
S
E
E
S
H
E
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T
0
3