Key rules of life and the fading cryosphere: Impacts in alpine lakes and streams

  • James J. Elser
  • , Chenxi Wu
  • , Angélica L. González
  • , Daniel H. Shain
  • , Heidi J. Smith
  • , Ruben Sommaruga
  • , Craig E. Williamson
  • , Janice Brahney
  • , Scott Hotaling
  • , Joseph Vanderwall
  • , Jinlei Yu
  • , Vladimir Aizen
  • , Elena Aizen
  • , Tom J. Battin
  • , Roberto Camassa
  • , Xiu Feng
  • , Hongchen Jiang
  • , Lixin Lu
  • , John J. Qu
  • , Ze Ren
  • Jun Wen, Lijuan Wen, H. Arthur Woods, Xiong Xiong, Jun Xu, Gongliang Yu, Joel T. Harper, Jasmine E. Saros

Research output: Contribution to journalArticlepeer-review

64 Scopus citations

Abstract

Alpine regions are changing rapidly due to loss of snow and ice in response to ongoing climate change. While studies have documented ecological responses in alpine lakes and streams to these changes, our ability to predict such outcomes is limited. We propose that the application of fundamental rules of life can help develop necessary predictive frameworks. We focus on four key rules of life and their interactions: the temperature dependence of biotic processes from enzymes to evolution; the wavelength dependence of the effects of solar radiation on biological and ecological processes; the ramifications of the non-arbitrary elemental stoichiometry of life; and maximization of limiting resource use efficiency across scales. As the cryosphere melts and thaws, alpine lakes and streams will experience major changes in temperature regimes, absolute and relative inputs of solar radiation in ultraviolet and photosynthetically active radiation, and relative supplies of resources (e.g., carbon, nitrogen, and phosphorus), leading to nonlinear and interactive effects on particular biota, as well as on community and ecosystem properties. We propose that applying these key rules of life to cryosphere-influenced ecosystems will reduce uncertainties about the impacts of global change and help develop an integrated global view of rapidly changing alpine environments. However, doing so will require intensive interdisciplinary collaboration and international cooperation. More broadly, the alpine cryosphere is an example of a system where improving our understanding of mechanistic underpinnings of living systems might transform our ability to predict and mitigate the impacts of ongoing global change across the daunting scope of diversity in Earth's biota and environments.

Original languageEnglish
Pages (from-to)6644-6656
Number of pages13
JournalGlobal Change Biology
Volume26
Issue number12
DOIs
StatePublished - Dec 2020

Funding

None of the authors have any real or perceived conflicts of interest relevant to this article. This paper is a product of a US‐China workshop “Rules of Life: A Fading Cryosphere Shifting Temperature and Stoichiometry in Mountain Lakes and Streams” held at the Flathead Lake Biological Station (University of Montana) supported by the US National Science Foundation (DMS‐1834494) and the Natural National Science Foundation of China (41981220290). C.E.W. acknowledges support from NSF DEB‐1754276 and R.S. from the Austrian Science Fund (FWF P24442‐B25). S.H. was supported by NSF OPP‐1906015. We thank M. Skidmore (Montana State University), R. McLaughlin (North Carolina State University), and C. Florentine (USGS) for stimulating presentations and discussions during the initial days of the workshop, and Z. Dong (Northwest Institute of Eco‐Environment and Resources, Chinese Academy of Sciences), J. Li (Northwest Institute of Eco‐Environment and Resources, Chinese Academy of Sciences), W. Tan (Central China Normal University), and Z. Song (The National Natural Science Foundation of China) for sharing ideas and findings during the workshop. We are also grateful to the staff of the Flathead Lake Biological Station for their hospitality. C. Muhlfeld and an anonymous reviewer provided useful comments on an earlier draft. None of the authors have any real or perceived conflicts of interest relevant to this article. This paper is a product of a US-China workshop “Rules of Life: A Fading Cryosphere Shifting Temperature and Stoichiometry in Mountain Lakes and Streams” held at the Flathead Lake Biological Station (University of Montana) supported by the US National Science Foundation (DMS-1834494) and the Natural National Science Foundation of China (41981220290). C.E.W. acknowledges support from NSF DEB-1754276 and R.S. from the Austrian Science Fund (FWF P24442-B25). S.H. was supported by NSF OPP-1906015. We thank M. Skidmore (Montana State University), R. McLaughlin (North Carolina State University), and C. Florentine (USGS) for stimulating presentations and discussions during the initial days of the workshop, and Z. Dong (Northwest Institute of Eco-Environment and Resources, Chinese Academy of Sciences), J. Li (Northwest Institute of Eco-Environment and Resources, Chinese Academy of Sciences), W. Tan (Central China Normal University), and Z. Song (The National Natural Science Foundation of China) for sharing ideas and findings during the workshop. We are also grateful to the staff of the Flathead Lake Biological Station for their hospitality. C. Muhlfeld and an anonymous reviewer provided useful comments on an earlier draft.

FundersFunder number
CAS - Northwest Institute of Eco-Environment and Resources
DEB‐1754276, DMS‐1834494
National Natural Science Foundation of China41981220290
Chinese Academy of Sciences
FWF P24442‐B25, OPP‐1906015
Central China Normal University

    Keywords

    • cryosphere
    • glaciers
    • lakes
    • rules of life
    • streams

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