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Susan S Hubbard

Biographic Data

ID7995487
NAMESusan S Hubbard
GIVEN NAMESSusan S
FAMILY NAMEHubbard
SIGNATUREHUBBARD S S
AFFILIATIONSLawrence Berkeley National Laboratory
ORCID0000-0003-2966-5631
VERIFIEDYes
TOTAL WORKS3
TOTAL CITATIONS0
AUTHOR COUNT3
EDITOR COUNT0
FIRST PUBLICATION YEAR2020
LATEST PUBLICATION YEAR2024
H-INDEX0
  • Local-scale heterogeneity of soil thermal dynamics and controlling factors in a discontinuous permafrost region

    Open Access•Chen Wang, Ian Shirley et al.•ARTICLE•Environmental Research Letters•2024

    In permafrost regions, the strong spatial and temporal variability in soil temperature cannot be explained by the weather forcing only. Understanding the local heterogeneity of soil thermal dynamics and their controls is essential to understand how permafrost systems respond to climate change and to develop process-based models or remote sensing products for predicting soil temperature. In this study, we analyzed soil temperature dynamics and the…

  • Rapidly changing high-latitude seasonality: Implications for the 21st century carbon cycle in Alaska

    Open Access•Ian Shirley, Z A Mekonnen et al.•ARTICLE•Environmental Research Letters•2021

    Seasonal variations in high-latitude terrestrial carbon (C) fluxes are predominantly driven by air temperature and radiation. At present, high-latitude net C uptake is largest during the summer. Recent observations and modeling studies have demonstrated that ongoing and projected climate change will increase plant productivity, microbial respiration, and growing season lengths at high-latitudes, but impacts on high-latitude C cycle seasonality (a…

  • Satellite-derived foresummer drought sensitivity of plant productivity in Rocky Mountain headwater catchments: Spatial heterogeneity and geological-geomorphological control

    Open Access•Haruko Wainwright, Christoph Steefel et al.•ARTICLE•Environmental Research Letters•2020

    Long-term plot-scale studies have found water limitation to be a key factor driving ecosystem productivity in the Rocky Mountains. Specifically, the intensity of early summer (the ‘foresummer’ period from May to June) drought conditions appears to impose critical controls on peak ecosystem productivity. This study aims to (1) assess the importance of early snowmelt and foresummer drought in controlling peak plant productivity, based on the histor…

No prominent works on this page.

  • Satellite-derived foresummer drought sensitivity of plant productivity in Rocky Mountain headwater catchments: Spatial heterogeneity and geological-geomorphological control

    Open Access•Haruko Wainwright, Christoph Steefel et al.•ARTICLE•Environmental Research Letters•2020

    Long-term plot-scale studies have found water limitation to be a key factor driving ecosystem productivity in the Rocky Mountains. Specifically, the intensity of early summer (the ‘foresummer’ period from May to June) drought conditions appears to impose critical controls on peak ecosystem productivity. This study aims to (1) assess the importance of early snowmelt and foresummer drought in controlling peak plant productivity, based on the histor…

  • Rapidly changing high-latitude seasonality: Implications for the 21st century carbon cycle in Alaska

    Open Access•Ian Shirley, Z A Mekonnen et al.•ARTICLE•Environmental Research Letters•2021

    Seasonal variations in high-latitude terrestrial carbon (C) fluxes are predominantly driven by air temperature and radiation. At present, high-latitude net C uptake is largest during the summer. Recent observations and modeling studies have demonstrated that ongoing and projected climate change will increase plant productivity, microbial respiration, and growing season lengths at high-latitudes, but impacts on high-latitude C cycle seasonality (a…

  • Local-scale heterogeneity of soil thermal dynamics and controlling factors in a discontinuous permafrost region

    Open Access•Chen Wang, Ian Shirley et al.•ARTICLE•Environmental Research Letters•2024

    In permafrost regions, the strong spatial and temporal variability in soil temperature cannot be explained by the weather forcing only. Understanding the local heterogeneity of soil thermal dynamics and their controls is essential to understand how permafrost systems respond to climate change and to develop process-based models or remote sensing products for predicting soil temperature. In this study, we analyzed soil temperature dynamics and the…

Environmental Science (3 works) · Geography (3 works) · Atmospheric sciences (2 works) · Biology (2 works) · Climate change (2 works) · Climate change and permafrost (2 works) · Ecology (2 works) · Geology (2 works) · Atmospheric and Environmental Gas Dynamics (1 works) · Carbon sink (1 works)

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