Restoration Ecology · 2018 · 81 citations · 31 references
Natural ResourcesLandscape EcologyRangeland ManagementEcological RestorationRangeland RestorationRestoration EcologyRangeland Restoration EcologyRestoration EvaluationRestoration Success EvaluationRiparian RestorationRiparian Zone RestorationVegetation ManagementLandscape-scale Restoration PlanningNormalized Difference Vegetation Index MappingRangeland Habitat RestorationRangeland Productivity MonitoringRestoration TechniquesRiparian ResilienceSatellite Remote Sensing DataVegetation Productivity
Restoration of riparian and wet meadow ecosystems in semiarid rangelands of the western United States is a high priority given their ecological and hydrological importance in the region. However, traditional restoration approaches are often intensive and costly, limiting the extent over which they can be applied. Practitioners are increasingly trying new restoration techniques that are more cost‐effective, less intensive, and can more practically scale up to the scope of degradation. Unfortunately, practitioners typically lack resources to undertake outcome‐based evaluations necessary to judge the efficacy of these techniques. In this study, we use freely available, satellite remote sensing to explore changes in vegetation productivity (normalized difference vegetation index) of three distinct, low‐tech, riparian and wet meadow restoration projects. Case studies are presented that range in geographic location (Colorado, Oregon, and Nevada), restoration practice (Zeedyk structures, beaver dam analogs, and grazing management), and time since implementation. Restoration practices resulted in increased vegetation productivity of up to 25% and increased annual persistence of productive vegetation. Improvements in productivity with time since restoration suggest that elevated resilience may further enhance wildlife habitat and increase forage production. Long‐term, documented outcomes of conservation are rare; we hope our findings empower practitioners to further monitor and explore the use of low‐tech methods for restoration of ecohydrologic processes at meaningful spatial scales.
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Google Earth Engine: Planetary-scale geospatial analysis for everyone
Noel Gorelick, M. Hancher, Mike Dixon et al. · Remote Sensing of Environment · 2017 · 14K citations · Full text
Biological Feedbacks in Global Desertification
William H. Schlesinger, James F. Reynolds, Gary L. Cunningham et al. · Science · 1990 · 2.5K citations
Synthesizing U.S. River Restoration Efforts
Emily S. Bernhardt, Margaret A. Palmer, J. David Allan et al. · Science · 2005 · 1.9K citations
Life Sciences, Civil Engineering, Ecological Restoration +13