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DOE OSTI · 1781024

Surface Atmosphere Integrated Field Laboratory (SAIL) Science Plan

Abstract

Mountains are the natural water towers of the world, effectively turning water vapor into readily available fresh water through precipitation, snowpack, and runoff. Unfortunately, Earth system models (ESMs) have persistently been unable to predict the timing and availability of water resources from mountains because the source(s) of model error are difficult to isolate in complex terrain with limited atmospheric or land-surface observations. Further complications arise from the gross scale mismatch between ESM grid box sizes and the relevant scales of mountainous hydrological processes. The mountain hydrometeorology community has repeatedly called for integrated atmospheric and land observations of water and energy budgets in complex terrain that span these scales to establish benchmarks against which scale-dependent models can be further developed.

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BibTeXRIS

Feldman, Daniel, Aiken, Allison, Boos, William, Carroll, Rosemary, Chandrasekar, Venkatachalam, Collins, William, Collis, Scott, Deems, Jeff, DeMott, Paul, Fan, Jiwen, Flores, Alejandro, Gochis, David, Harrington, Jerry, Kumjian, Matt, Leung, L. Ruby, O'Brien, Travis, Raleigh, Mark, Rhoades, Alan, Skiles, S. McKenzie, Smith, Jim, Sullivan, Ryan, Ullrich, Paul, Varble, Adam, Williams, Ken. 2021-04-01. Surface Atmosphere Integrated Field Laboratory (SAIL) Science Plan. https://doi.org/10.2172/1781024

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