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Designing and modeling innovation across scales for urban water systems
Effective, sustainable management of urban water systems, including drinking water, stormwater, wastewater, and natural water systems, is critical to the health and well-being of people in urban areas and the ecosystems that encompass them. The demands of human population growth, aging infrastructur...
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Published in: | Urban ecosystems 2019-12, Vol.22 (6), p.1149-1164 |
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creator | Santelmann, M. Hulse, D. Wright, M. Enright, C. Branscomb, A. Tchintcharauli-Harrison, M. Bolson, J. |
description | Effective, sustainable management of urban water systems, including drinking water, stormwater, wastewater, and natural water systems, is critical to the health and well-being of people in urban areas and the ecosystems that encompass them. The demands of human population growth, aging infrastructure, and changing climate will increase pressure on these systems and require future innovations in water management. Planning for urban water systems will increasingly require collaborations between water professionals and researchers to imagine, design and model the response of novel urban water systems to future conditions. We highlight benefits and challenges of transdisciplinary projects for integrated urban water management; organized broadly into: (1) engagement of water managers and planners; (2) transdisciplinary design of innovative systems, and once designed; (3) modeling and evaluation of urban water system response to various innovations. We describe the development of a multi-scale approach to design and evaluation of innovative urban water systems, and illustrate its application using examples from the Willamette River Basin and Portland, Oregon. The scenario-based approach described here offers several key contributions to the design and modeling of innovation. First, this process provides the opportunity to convene professionals and researchers, who do not typically collaborate, as participants in a collaborative process. Second, it engages participants in thinking together across land and water management sectors to develop plausible futures at multiple spatial extents and multidecadal time horizons. Third, it helps to identify critical gaps in extant water modeling capabilities, and thus helps define the near-term research agenda for modelers. |
doi_str_mv | 10.1007/s11252-019-00882-6 |
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subjects | Aging (natural) Biomedical and Life Sciences Climate change Collaboration Design Drinking water Ecology Environmental Management Human populations Innovations Life Sciences Modelling Multiscale analysis Nature Conservation Population growth Researchers River basins Rivers Sewage disposal Stormwater Sustainability management System effectiveness Urban areas Urban Ecology Wastewater Water Water management |
title | Designing and modeling innovation across scales for urban water systems |
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