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HESS Opinions: A conceptual framework for assessing socio-hydrological resilience under change

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Title: HESS Opinions: A conceptual framework for assessing socio-hydrological resilience under change
Authors: Mao, F
Clark, J
Karpouzoglou, T
Dewulf, A
Buytaert, W
Hannah, D
Item Type: Journal Article
Abstract: Despite growing interest in resilience, there is still significant scope for increasing its conceptual clarity and practical relevance in socio-hydrological contexts: specifically, questions of how socio-hydrological systems respond to and cope with perturbations and how these connect to resilience remain unanswered. In this opinion paper, we propose a novel conceptual framework for understanding and assessing resilience in coupled socio-hydrological contexts, and encourage debate on the inter-connections between socio-hydrology and resilience. Taking a systems perspective, we argue that resilience is a set of systematic properties with three dimensions: absorptive, adaptive, and transformative, and contend that socio-hydrological systems can be viewed as various forms of human–water couplings, reflecting different aspects of these interactions. We propose a framework consisting of two parts. The first part addresses the identity of socio-hydrological resilience, answering questions such as resilience of what in relation to what. We identify three existing framings of resilience for different types of human–water systems and subsystems, which have been used in different fields: (1) the water subsystem, highlighting hydrological resilience to anthropogenic hazards; (2) the human subsystem, foregrounding social resilience to hydrological hazards; and (3) the coupled human–water system, exhibiting socio-hydrological resilience. We argue that these three system types and resiliences afford new insights into the clarification and evaluation of different water management challenges. The first two types address hydrological and social states, while the third type emphasises the feedbacks and interactions between human and water components within complex systems subject to internal or external disturbances. In the second part, we focus on resilience management and develop the notion of the resilience canvas, a novel heuristic device to identify possible pathways and to facilitate the design of bespoke strategies for enhancing resilience in the socio-hydrological context. The resilience canvas is constructed by combining absorptive and adaptive capacities as two axes. At the corners of the resulting two-dimensional space are four quadrants which we conceptualise as representing resilient, vulnerable, susceptible, and resistant system states. To address projected change-induced uncertainties, we recommend that efforts now be focused on shifting socio-hydrological systems from resistant towards resilient status. In sum, the novel framework proposed here clarifies the ambiguity inherent in socio-hydrological resilience, and provides a viable basis for further theoretical and practical development.
Issue Date: 20-Jul-2017
Date of Acceptance: 30-May-2017
URI: http://hdl.handle.net/10044/1/51808
DOI: https://dx.doi.org/10.5194/hess-21-3655-2017
ISSN: 1027-5606
Publisher: COPERNICUS GESELLSCHAFT MBH
Start Page: 3655
End Page: 3670
Journal / Book Title: HYDROLOGY AND EARTH SYSTEM SCIENCES
Volume: 21
Issue: 7
Copyright Statement: © 2017 Author(s). This work is distributed under the Creative Commons Attribution 3.0 License (https://creativecommons.org/licenses/by/3.0/).
Sponsor/Funder: Natural Environment Research Council (NERC)
Funder's Grant Number: NE/K010239/1
Keywords: Science & Technology
Physical Sciences
Geosciences, Multidisciplinary
Water Resources
Geology
CLIMATE-CHANGE IMPACTS
ECOSYSTEM SERVICES
ADAPTIVE CAPACITY
ECOLOGICAL SYSTEMS
COMMUNITY RESILIENCE
SUSTAINABILITY SCIENCE
MARINE ECOSYSTEMS
WATER-RESOURCES
RIVER-BASIN
VULNERABILITY
0406 Physical Geography And Environmental Geoscience
0905 Civil Engineering
0907 Environmental Engineering
Environmental Engineering
Publication Status: Published
Appears in Collections:Faculty of Engineering
Civil and Environmental Engineering
Centre for Environmental Policy
Faculty of Natural Sciences



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