Susan C. Cook-Patton

Dr. Susan C. Cook-Patton

orcid

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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16 March 2020 in Nature Sustainability
Verified
Journal Article
Closed access
PDF file
DBD. A. Bossio
D. A. Bossio
SCSusan C. Cook-Patton
Susan C. Cook-Patton
PEP. W. Ellis
P. W. Ellis
JFJoseph Fargione
Joseph Fargione
JSJonathan Sanderman
Jonathan Sanderman
BGBronson Griscom
Bronson Griscom

23 September 2020 in Nature
Verified
Journal Article
Closed access
PDF file
SCSusan C. Cook-Patton
Susan C. Cook-Patton
SLSara M. Leavitt
Sara M. Leavitt
DGDavid Gibbs
David Gibbs
NHNancy L. Harris
Nancy L. Harris
KLKristine Lister
Kristine Lister
BGBronson Griscom
Bronson Griscom

2 November 2018 in Science Advances
Verified
Journal Article
Open access
PDF file
JFJoseph Fargione
Joseph Fargione
SBSteven Bassett
Steven Bassett
TBTimothy Boucher
Timothy Boucher
SBScott D. Bridgham
Scott D. Bridgham
RCRichard T. Conant
Richard T. Conant
BGBronson Griscom
Bronson Griscom
U.S. land management can contribute 1.2 Pg CO 2 e year −1 of greenhouse gas mitigation, 76% of which costs USD 50 Mg CO 2 e −1 or less.

31 March 2020 in Nature Climate Change
Verified
Journal Article
Closed access
PDF file
AGAllie Goldstein
Allie Goldstein
WTWill R. Turner
Will R. Turner
SSSeth Spawn
Seth Spawn
KAKristina J. Anderson-Teixeira
Kristina J. Anderson-Teixeira
SCSusan C. Cook-Patton
Susan C. Cook-Patton
DHDavid G. Hole
David G. Hole

31 May 2022 in Proceedings of the National Academy of Sciences
Verified
Journal Article
Open access
WWWayne S. Walker
Wayne S. Walker
SGSeth R Gorelik
Seth R Gorelik
SCSusan C. Cook-Patton
Susan C. Cook-Patton
ABAlessandro Baccini
Alessandro Baccini
MFMary K. Farina
Mary K. Farina
BGBronson Griscom
Bronson Griscom
Significance: Despite increased interest in land-based carbon storage as a climate solution, there are physical limits on how much additional carbon can be incorporated into terrestrial ecosystems. To effectively determine where and how to act, jurisdictions need robust data illustrating the magnitude and distribution of opportunities to increase carbon storage, as well as information on the actions available to achieve that storage. Here, we provide globally consistent maps for directing additional carbon storage under current and future climate, as well as a framework for determining how that storage could be gained through restoration, improved management, or maintenance of woody biomass and soil organic matter. Our estimates provide an upper bound on how improved land stewardship can mitigate the climate crisis.

4 June 2021 in Science Advances
Verified
Journal Article
Open access
PDF file
CDC. Ronnie Drever
C. Ronnie Drever
SCSusan C. Cook-Patton
Susan C. Cook-Patton
FAFardausi Akhter
Fardausi Akhter
PBPascal H. Badiou
Pascal H. Badiou
GCGail L. Chmura
Gail L. Chmura
WKWerner Kurz
Werner Kurz
Alongside the steep reductions needed in fossil fuel emissions, natural climate solutions (NCS) represent readily deployable options that can contribute to Canada’s goals for emission reductions. We estimate the mitigation potential of 24 NCS related to the protection, management, and restoration of natural systems that can also deliver numerous co-benefits, such as enhanced soil productivity, clean air and water, and biodiversity conservation. NCS can provide up to 78.2 (41.0 to 115.1) Tg CO2e/year (95% CI) of mitigation annually in 2030 and 394.4 (173.2 to 612.4) Tg CO2e cumulatively between 2021 and 2030, with 34% available at ≤CAD 50/Mg CO2e. Avoided conversion of grassland, avoided peatland disturbance, cover crops, and improved forest management offer the largest mitigation opportunities. The mitigation identified here represents an important potential contribution to the Paris Agreement, such that NCS combined with existing mitigation plans could help Canada to meet or exceed its climate goals.