New instrumentation will be installed on the International Space Station to provide a unique opportunity to gain important insights into poorly understood ecosystems.
Ecosystems, particularly tropical forests, play an important role in determining the rate and extent of changes in the Earth system by absorbing and storing about one-third of the carbon dioxide released when we use fossil fuels. Our current understanding of how ecosystems take up and store carbon dioxide is limited to those areas that can be reached by scientists, yet these study sites represent only a small fraction of the total land area. New instrumentation and technology offer the opportunity to remotely measure many important properties of plants and ecosystems that will help determine how the planet will respond to changing environments and provide critical data for testing models of ecosystem response to a changes in the Earth system. Specifically, remote measurement of tree height, temperature, carbon dioxide uptake and biochemical composition offers exciting new opportunities for science. This work highlights the deployment of new instrumentation on the international space station (ISS), informs the scientific community of the opportunity presented by these measurements, and describes ways to use this unique data. The work is the result of detailed discussions and an ongoing collaboration between ecosystem modelers, experimentalists, and remote sensing scientists.
This paper provides a clear vision on the ways in which the experimental, modeling, and remote sensing communities can use simultaneous observations of ecosystem structure, function, composition, and biochemistry from a suite of novel sensors that will be installed on the International Space Station (ISS). Importantly, the collection of these remotely sensed data will improve our understanding of ecosystems as well as our ability to test predictive models.
To improve prediction of the ability of plants to slow the rate of Earth and environmental change by absorbing and storing carbon dioxide, scientists need more data about the composition, function, and structure of terrestrial ecosystems, particularly in remote regions such as the tropics. Unfortunately, our current ability to measure and understand important ecosystem processes is too sparse, and too spatially biased to make significant progress. Satellite observations are the only source for the required dense, frequent, spatially and temporally extensive records. The unique collection of measurements anticipated from the ISS will yield important new insights into ecosystem structure and function and provide important new observations to evaluate the models we use to understand how important ecosystems, such as tropical forests, will respond to changing conditions.
Contacts (BER PM)
BER funded PI
Brookhaven National Laboratory
S.P. Serbin was supported by the Next-Generation Ecosystem Experiment (NGEE-Tropics) project. The NGEE-Tropics project is supported by the Office of Biological and Environmental Research in the Department of Energy, Office of Science. The Exploring New Multi-Instrument Approaches to Observing Terrestrial Ecosystems and the Carbon Cycle from Space workshop and participant travel costs were supported by the W. M. Keck foundation.
Stavros, N.E., D. Schimel, R. Pavlick, S.P. Serbin, A. Swann, L. Duncanson, J. B. Fisher, F. Fassnacht, S. Ustin, R. Dubayah, A. Schweiger, and P. Wennberg. 2017. “ISS observations offer insights into plant function.” Nature Ecology and Evolution, (1), 01974. DOI: 10.1038/s41559-017-0194. (Reference link)
S. Serbin (DOE-TES) workshop talk & video
SC-23.1 Climate and Environmental Sciences Division, BER
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