Proceedings of the National Academy of Sciences · 2010 · 882 citations · 102 references
Natural ResourcesConservation BiologyFisheriesFisheries ManagementMarine ConservationMarine EcologyFisheries EcologyFishery BioeconomicsMarine Conservation EcologyMarine Fisheries ConservationMarine Protected Area ManagementReserve DesignBioeconomic Harvest ModelsConservation Effectiveness Of ClosuresFishery Bioeconomic ModelingMarine Conservation PlanningMarine Protected AreasMarine Reserve DesignProtected AreasReserve Network Planning
Marine protected areas (MPAs) that exclude fishing have been shown repeatedly to enhance the abundance, size, and diversity of species. These benefits, however, mean little to most marine species, because individual protected areas typically are small. To meet the larger-scale conservation challenges facing ocean ecosystems, several nations are expanding the benefits of individual protected areas by building networks of protected areas. Doing so successfully requires a detailed understanding of the ecological and physical characteristics of ocean ecosystems and the responses of humans to spatial closures. There has been enormous scientific interest in these topics, and frameworks for the design of MPA networks for meeting conservation and fishery management goals are emerging. Persistent in the literature is the perception of an inherent tradeoff between achieving conservation and fishery goals. Through a synthetic analysis across these conservation and bioeconomic studies, we construct guidelines for MPA network design that reduce or eliminate this tradeoff. We present size, spacing, location, and configuration guidelines for designing networks that simultaneously can enhance biological conservation and reduce fishery costs or even increase fishery yields and profits. Indeed, in some settings, a well-designed MPA network is critical to the optimal harvest strategy. When reserves benefit fisheries, the optimal area in reserves is moderately large (mode ≈30%). Assessing network design principals is limited currently by the absence of empirical data from large-scale networks. Emerging networks will soon rectify this constraint.
102
A Global Map of Human Impact on Marine Ecosystems
Benjamin S. Halpern, Shaun Walbridge, Kimberly A. Selkoe et al. · Science · 2008 · 6.4K citations · Full text
AN EQUILIBRIUM THEORY OF INSULAR ZOOGEOGRAPHY
Robert H. MacArthur, Edward O. Wilson · Evolution · 1963 · 2.1K citations
Life Sciences, Biology, Ecology +10
Biological effects within no-take marine reserves: a global synthesis
S Lester, BS Halpern, Kirsten Grorud‐Colvert et al. · Marine Ecology Progress Series · 2009 · 1.4K citations · Full text
Scaling of Connectivity in Marine Populations
Robert K. Cowen, Claire B. Paris, Ashwanth Srinivasan · Science · 2005 · 1.4K citations