Abstract
Environment functions in various aspects including soil and water conservation, biodiversity and habitats, and landscape aesthetics. Comprehensive assessment of environmental condition is thus a great challenge. The issues include how to assess individual environmental components such as landscape aesthetics and integrate them into an indicator that can comprehensively quantify environmental condition. In this study, a geographic information systems based spatial multi-criteria decision analysis was used to integrate environmental variables and create the indicator. This approach was applied to Fort Riley Military installation in which land condition and its dynamics due to military training activities were assessed. The indicator was derived by integrating soil erosion, water quality, landscape fragmentation, landscape aesthetics, and noise based on the weights from the experts by assessing and ranking the environmental variables in terms of their importance. The results showed that landscape level indicator well quantified the overall environmental condition and its dynamics, while the indicator at level of patch that is defined as a homogeneous area that is different from its surroundings detailed the spatiotemporal variability of environmental condition. The environmental condition was mostly determined by soil erosion, then landscape fragmentation, water quality, landscape aesthetics, and noise. Overall, environmental condition at both landscape and patch levels greatly varied depending on the degree of ground and canopy disturbance and their spatial patterns due to military training activities and being related to slope. It was also determined the environment itself could be recovered quickly once military training was halt or reduced. Thus, this study provided an effective tool for the army land managers to monitor environmental dynamics and plan military training activities. Its limitation lies at that the obtained values of the indicator vary and are subjective to the experts’ knowledge and experience. Thus, further advancing this approach is needed by developing a scientific method to derive the weights of environmental variables.
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Acknowledgment
We are grateful to US Army Corps of Engineers, Construction Engineering Research Laboratory (USA-CERL) for providing support (CERL W9132T-08-2-0019) and data sets for this study and also to the editors and reviewers.
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Singer, S., Wang, G., Howard, H. et al. Environmental Condition Assessment of US Military Installations Using GIS Based Spatial Multi-Criteria Decision Analysis. Environmental Management 50, 329–340 (2012). https://doi.org/10.1007/s00267-012-9873-y
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DOI: https://doi.org/10.1007/s00267-012-9873-y