TY - JOUR
T1 - Learning from arid and urban aquatic ecosystems to inform more sustainable and resilient futures
AU - McPhillips, Lauren
AU - Berbés-Blázquez, Marta
AU - Hale, Rebecca
AU - Harms, Tamara K.
AU - Bisht, Vanya
AU - Caughman, Liliana
AU - Clinton, Sandra M.
AU - Cook, Elizabeth
AU - Dong, Xiaoli
AU - Edmonds, Jennifer
AU - Gergel, Sarah
AU - Gómez, Rosa
AU - Hopkins, Kristina
AU - Iwaniec, David M.
AU - Kim, Yeowon
AU - Kuhn, Amanda
AU - Larson, Libby
AU - Lewis, David B.
AU - Martí, Eugenía
AU - Palta, Monica
AU - John Roach, W.
AU - Ye, Lin
N1 - Funding Information:
We also acknowledge the extensive funding from a variety of sources that has supported Nancy Grimm’s research and student training efforts over the last several decades, most extensively from the US National Science Foundation. We note several recent NSF awards which supported several co-authors listed here and/or the development of ideas articulated in this article: 1832016 (CAP LTER IV) 1444755 (URExSRN), 1927468 (NATURA). Any use of trade, firm, or product names is for descriptive purposes only and does not imply endorsement by the U.S. Government.
Funding Information:
Included here is a list of ‘co-signatories’- former Grimm mentees who wished to indicate their support of the manuscript concept (in alphabetical order): David Casagrande, Michele Clark, Stephen Elser, Susanne Grossman-Clarke, Amalia Handler, Madhusudan Katti, Marina Lauck, Katherine Lohse, Melissa McHale, Andrés Millán, Jorge Ramos, Jason Sauer, Rich Sheibley, Ryan Sponseller, Emily Stanley, Josefa Velasco García. While the authors and co-signatories of this review represent a large proportion of Nancy Grimm's mentees, we acknowledge additional trainees not listed, in addition to the diverse worldwide network of collaborators for their contributions to the body of work reviewed here. We also acknowledge the extensive funding from a variety of sources that has supported Nancy Grimm's research and student training efforts over the last several decades, most extensively from the US National Science Foundation. We note several recent NSF awards which supported several co-authors listed here and/or the development of ideas articulated in this article: 1832016 (CAP LTER IV) 1444755 (URExSRN), 1927468 (NATURA). Any use of trade, firm, or product names is for descriptive purposes only and does not imply endorsement by the U.S. Government.
Funding Information:
Studies at Sycamore Creek contributed to growing recognition of N limitation in streams (e.g., Naiman and Melillo, 1984; Triska et al., 1984 ) that was leveraged to support the Lotic Intersite Nitrogen eXperiment (LINX). LINX generated cross-biome insights into N cycling in streams by convening one of the largest collaborative groups funded by the Division of Environmental Biology (US National Science Foundation) at its establishment in 1996 ( LINX collaborators, 2014 ). In its first stage, the LINX project applied a novel stable isotope tracer approach to quantify retention and transformation of ammonium, finding high capacity for N retention in headwater streams due to assimilation by algae and microbial heterotrophs ( Peterson et al., 2001; Webster et al., 2003 ). The tracer approach also demonstrated flow of N from aquatic to terrestrial food webs ( Sanzone et al., 2003 ). A second phase addressed nitrate retention and denitrification across streams draining wildland, urban, and agricultural land covers. A decline in retention efficiency with N concentration and in simplified channels of urban streams implied reduced capacity for N retention by stream networks subject to anthropogenic N loading and channel modification ( Grimm et al., 2005; Martin et al., 2011; Mulholland et al., 2008 ). Grimm contributed to the vision and momentum of LINX while also establishing several mentees as equal collaborators in the project.
Publisher Copyright:
© 2022 Elsevier B.V.
PY - 2023/1
Y1 - 2023/1
N2 - The hydrology and aquatic ecology of arid environments has long been understudied relative to temperate regions. Yet spatially and temporally intermittent and ephemeral waters characterized by flashy hydrographs typify arid regions that comprise a substantial proportion of the Earth. Additionally, drought, intense storms, and human modification of landscapes increasingly affect many temperate regions, resulting in hydrologic regimes more similar to aridlands. Here we review the contributions of Dr. Nancy Grimm to aridland hydrology and ecology, and applications of these insights to urban ecosystems and resilience of social-ecological-technological systems. Grimm catalyzed study of nitrogen cycling in streams and characterized feedbacks between surface water-groundwater exchange, nitrogen transformations, and aquatic biota. In aridlands, outcomes of these interactions depend on short- and long-term variation in the hydrologic regime. Grimm and colleagues applied hydrological and biogeochemical insights gained from study of aridland streams to urban ecosystems, integrating engineering, social and behavioral sciences, and geography. These studies evolved from characterizing the spatial heterogeneity of urban systems (i.e., watersheds, novel aquatic systems) and its influence on nutrient dynamics to an approach that evaluated human decision-making as a driver of disturbance regimes and changes in ecosystem function. Finally, Grimm and colleagues have applied principles of urban ecology to look toward the future of cities, considering scenarios of sustainable and resilient futures. We identify cross-cutting themes and approaches that have motivated discoveries across Grimm's multi-decadal career, including spatial and temporal heterogeneity, hydrologic connectivity and regime, disturbance, systems thinking, and resilience. Finally, we emphasize Grimm's broad contributions to science via support of long-term research, dedication to mentoring, and extensive collaborations that facilitated transdisciplinary research.
AB - The hydrology and aquatic ecology of arid environments has long been understudied relative to temperate regions. Yet spatially and temporally intermittent and ephemeral waters characterized by flashy hydrographs typify arid regions that comprise a substantial proportion of the Earth. Additionally, drought, intense storms, and human modification of landscapes increasingly affect many temperate regions, resulting in hydrologic regimes more similar to aridlands. Here we review the contributions of Dr. Nancy Grimm to aridland hydrology and ecology, and applications of these insights to urban ecosystems and resilience of social-ecological-technological systems. Grimm catalyzed study of nitrogen cycling in streams and characterized feedbacks between surface water-groundwater exchange, nitrogen transformations, and aquatic biota. In aridlands, outcomes of these interactions depend on short- and long-term variation in the hydrologic regime. Grimm and colleagues applied hydrological and biogeochemical insights gained from study of aridland streams to urban ecosystems, integrating engineering, social and behavioral sciences, and geography. These studies evolved from characterizing the spatial heterogeneity of urban systems (i.e., watersheds, novel aquatic systems) and its influence on nutrient dynamics to an approach that evaluated human decision-making as a driver of disturbance regimes and changes in ecosystem function. Finally, Grimm and colleagues have applied principles of urban ecology to look toward the future of cities, considering scenarios of sustainable and resilient futures. We identify cross-cutting themes and approaches that have motivated discoveries across Grimm's multi-decadal career, including spatial and temporal heterogeneity, hydrologic connectivity and regime, disturbance, systems thinking, and resilience. Finally, we emphasize Grimm's broad contributions to science via support of long-term research, dedication to mentoring, and extensive collaborations that facilitated transdisciplinary research.
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U2 - 10.1016/j.jhydrol.2022.128841
DO - 10.1016/j.jhydrol.2022.128841
M3 - Review article
AN - SCOPUS:85143593652
SN - 0022-1694
VL - 616
JO - Journal of Hydrology
JF - Journal of Hydrology
M1 - 128841
ER -