Authors
Ying Fan, Martyn Clark, David M Lawrence, Sean Swenson, LE Band, Susan L Brantley, Paul D Brooks, William E Dietrich, A Flores, Gordon Grant, James W Kirchner, D Scott Mackay, Jeffrey J McDonnell, Paul CD Milly, PL Sullivan, C Tague, Hoori Ajami, Nathaniel Chaney, Andreas Hartmann, Pieter Hazenberg, James McNamara, Jon Pelletier, Justin Perket, Elham Rouholahnejad‐Freund, Thorsten Wagener, Xubin Zeng, E Beighley, Jonathan Buzan, Maoyi Huang, Ben Livneh, BP Mohanty, Bart Nijssen, Mohammad Safeeq, Chaopeng Shen, Willem van Verseveld, J Volk, Dai Yamazaki
Publication date
2019/2
Journal
Water Resources Research
Volume
55
Issue
2
Pages
1737-1772
Description
Earth System Models (ESMs) are essential tools for understanding and predicting global change, but they cannot explicitly resolve hillslope‐scale terrain structures that fundamentally organize water, energy, and biogeochemical stores and fluxes at subgrid scales. Here we bring together hydrologists, Critical Zone scientists, and ESM developers, to explore how hillslope structures may modulate ESM grid‐level water, energy, and biogeochemical fluxes. In contrast to the one‐dimensional (1‐D), 2‐ to 3‐m deep, and free‐draining soil hydrology in most ESM land models, we hypothesize that 3‐D, lateral ridge‐to‐valley flow through shallow and deep paths and insolation contrasts between sunny and shady slopes are the top two globally quantifiable organizers of water and energy (and vegetation) within an ESM grid cell. We hypothesize that these two processes are likely to impact ESM predictions where (and …
Total citations
20182019202020212022202320241196289766755
Scholar articles
Y Fan, M Clark, DM Lawrence, S Swenson, LE Band… - Water Resources Research, 2019