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Briske, David D.; Department of Ecosystem Science and Management, Texas A&M University; dbriske@tamu.edu; Washington-Allen, Robert A.; Department of Ecosystem Science and Management, Texas A&M University; washington-allen@tamu.edu; Johnson, Craig R.; School of Zoology, University of Tasmania; craig.johnson@utas.edu.au; Lockwood, Jeffrey A.; Department of Philosophy, University of Wyoming; lockwood@uwyo.edu; Lockwood, Dale R.; Biology Department, Colorado State University; dale.lockwood@colostate.edu; Stringham, Tamzen K.; Department of Animal Biotechnology, University of Nevada-Reno; tstringham@cabnr.unr.edu; Shugart, Herman H; Department of Environmental Sciences, University of Virginia; hhs@virginia.edu. |
Research reported in this feature identifies a convergence of interpretations regarding the threshold dynamics of complex ecological systems. This convergence has arisen from a diverse set of investigations addressing rangeland ecosystem dynamics, disease transmission, and fluctuations in the populations of insect pests. Effective application of the threshold concept to ecosystem management will require development of more robust linkages between non-equilibrium theory and protocols to identify triggers that initiate threshold conditions, feedback loops that establish system resilience, and developmental trajectories and attributes of potential alternative stable states. Successful implementation of these theory/application linkages has the potential to... |
Tipo: Peer-Reviewed Synthesis |
Palavras-chave: Complexity science; Ecological resilience; Non-equilibrium ecology; Self-organized systems; Systems theory. |
Ano: 2010 |
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