生物多样性
环境资源管理
环境规划
平面图(考古学)
环境科学
地理
生态学
生物
考古
作者
Xiao Ping Song,Edwin Y. W. Tan,Rachel S. K. Lee,Hong Jhun Sim,Justin K. H. Nai,Jie Yi Chan,Sherry Ming Xuan Hung,Shi Ling Ng,Eyleen L. K. Goh,Chloe Y. T. Tan,Yong Kiat Chua,Audrey Xu,Lei Cai,Darren C. J. Yeo,Hugh Tiang Wah Tan,Kwek Yan Chong
标识
DOI:10.1111/1365-2664.70100
摘要
Abstract Protecting and enhancing biodiversity in urbanized areas is recognized as an important priority. To achieve this through urban planning, there must be empirically derived tools to predict biodiversity at the appropriate spatial scales and resolutions, given various options in urban designs to compare the expected biodiversity outcomes and make optimal decisions. We demonstrate how this can be done by developing models that predict the expected species densities or ‘alpha diversity’ in urban landscapes for four animal groups: birds, butterflies, odonates and amphibians, based on assemblage data from spatiotemporally replicated surveys conducted in the tropical city of Singapore. We demonstrate two use cases for these predictive models: citywide assessment and future scenario planning. For citywide assessment, sub‐city ‘towns’ (equivalent to districts or suburbs elsewhere) were compared and benchmarked relative to all other towns, based on the average species densities as indicators of habitat value for each of the four animal groups. For future scenario planning, four development scenarios were compared and the compatibility of vector‐type planning layers with the models was tested. An open‐source R package, biodivercity, was developed that would facilitate the use of the same workflow elsewhere: to build, apply and validate predictive models elsewhere given similar available empirical data. Synthesis and applications . The models developed can also be examined to generate recommendations for further actions that can improve biodiversity across different spatial scales. These techniques can be incorporated into current planning practices to achieve a more quantitative and performance‐based approach to enhancing biodiversity at fine spatial scales in human‐dominated landscapes.
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