Ecosystem size predicts social-ecological dynamics

Recreational fisheries are complex adaptive systems that are inherently difficult to manage because of heterogeneous user groups (consumptive vs. nonconsumptive) that use patchily distributed resources on the landscape (lakes, rivers, coastlines). There is a need to identify which system components...

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Main Authors: Mark A. Kaemingk, Christopher J. Chizinski, Craig R. Allen, Kevin L. Pope
Format: Article
Language:English
Published: Resilience Alliance 2019-07-01
Series:Ecology and Society
Subjects:
Online Access:http://www.ecologyandsociety.org/vol24/iss2/art17/
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spelling doaj-3e8368e573ca4a0195438c617105080a2020-11-25T02:32:26ZengResilience AllianceEcology and Society1708-30872019-07-012421710.5751/ES-10961-24021710961Ecosystem size predicts social-ecological dynamicsMark A. Kaemingk0Christopher J. Chizinski1Craig R. Allen2Kevin L. Pope3Nebraska Cooperative Fish and Wildlife Research UnitSchool of Natural Resources, University of Nebraska, Lincoln, Nebraska, USAU.S. Geological Survey, Nebraska Cooperative Fish and Wildlife Research Unit, University of Nebraska, Lincoln, Nebraska, USAU.S. Geological Survey, Nebraska Cooperative Fish and Wildlife Research Unit, University of Nebraska, Lincoln, Nebraska, USARecreational fisheries are complex adaptive systems that are inherently difficult to manage because of heterogeneous user groups (consumptive vs. nonconsumptive) that use patchily distributed resources on the landscape (lakes, rivers, coastlines). There is a need to identify which system components can effectively predict and be used to manage nonlinear and cross-scale dynamics within these systems. We examine how ecosystem size or water body size can be used to explain complicated and elusive angler-resource dynamics in recreational fisheries. Water body size determined angler behavior among 48 Nebraska, U.S.A. water bodies during an 11-year study. Angler behavior was often unique and nonlinear across water body sizes. For example, anglers spent more time fishing and harvested more fish at larger water bodies compared to smaller water bodies. Time fished increased across smaller water bodies, but reached a threshold at larger water bodies. The number of fish released increased as a function of water body size across smaller water bodies and then plateaued. Subtle changes in water body size caused abrupt changes in angler behavior, that is, water body size structures angler-resource dynamics in recreational fisheries. We believe that including water body size, a simple and easily measured metric, in fisheries management will increase effectiveness of cross-scale actions and minimize unintended consequences for recreational fisheries. Applying uniform management actions, e.g., harvest regulations, across small and large water bodies may elicit contrasting angler-resource responses. Water body size may also be useful for understanding angler typologies. Based on our findings, we expect that ecosystem size is a prominent and valuable system component that will determine and explain coupled user-resource dynamics in other complex adaptive systems.http://www.ecologyandsociety.org/vol24/iss2/art17/angler behaviorcomplex adaptive systemscross-scale interactionsdiscontinuity hypothesisrecreational fisheriessocial-ecological systems
collection DOAJ
language English
format Article
sources DOAJ
author Mark A. Kaemingk
Christopher J. Chizinski
Craig R. Allen
Kevin L. Pope
spellingShingle Mark A. Kaemingk
Christopher J. Chizinski
Craig R. Allen
Kevin L. Pope
Ecosystem size predicts social-ecological dynamics
Ecology and Society
angler behavior
complex adaptive systems
cross-scale interactions
discontinuity hypothesis
recreational fisheries
social-ecological systems
author_facet Mark A. Kaemingk
Christopher J. Chizinski
Craig R. Allen
Kevin L. Pope
author_sort Mark A. Kaemingk
title Ecosystem size predicts social-ecological dynamics
title_short Ecosystem size predicts social-ecological dynamics
title_full Ecosystem size predicts social-ecological dynamics
title_fullStr Ecosystem size predicts social-ecological dynamics
title_full_unstemmed Ecosystem size predicts social-ecological dynamics
title_sort ecosystem size predicts social-ecological dynamics
publisher Resilience Alliance
series Ecology and Society
issn 1708-3087
publishDate 2019-07-01
description Recreational fisheries are complex adaptive systems that are inherently difficult to manage because of heterogeneous user groups (consumptive vs. nonconsumptive) that use patchily distributed resources on the landscape (lakes, rivers, coastlines). There is a need to identify which system components can effectively predict and be used to manage nonlinear and cross-scale dynamics within these systems. We examine how ecosystem size or water body size can be used to explain complicated and elusive angler-resource dynamics in recreational fisheries. Water body size determined angler behavior among 48 Nebraska, U.S.A. water bodies during an 11-year study. Angler behavior was often unique and nonlinear across water body sizes. For example, anglers spent more time fishing and harvested more fish at larger water bodies compared to smaller water bodies. Time fished increased across smaller water bodies, but reached a threshold at larger water bodies. The number of fish released increased as a function of water body size across smaller water bodies and then plateaued. Subtle changes in water body size caused abrupt changes in angler behavior, that is, water body size structures angler-resource dynamics in recreational fisheries. We believe that including water body size, a simple and easily measured metric, in fisheries management will increase effectiveness of cross-scale actions and minimize unintended consequences for recreational fisheries. Applying uniform management actions, e.g., harvest regulations, across small and large water bodies may elicit contrasting angler-resource responses. Water body size may also be useful for understanding angler typologies. Based on our findings, we expect that ecosystem size is a prominent and valuable system component that will determine and explain coupled user-resource dynamics in other complex adaptive systems.
topic angler behavior
complex adaptive systems
cross-scale interactions
discontinuity hypothesis
recreational fisheries
social-ecological systems
url http://www.ecologyandsociety.org/vol24/iss2/art17/
work_keys_str_mv AT markakaemingk ecosystemsizepredictssocialecologicaldynamics
AT christopherjchizinski ecosystemsizepredictssocialecologicaldynamics
AT craigrallen ecosystemsizepredictssocialecologicaldynamics
AT kevinlpope ecosystemsizepredictssocialecologicaldynamics
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