城市热岛
极热
环境科学
城市复原力
背景(考古学)
极端天气
弹性(材料科学)
建筑环境
气候变化
城市气候
心理弹性
环境资源管理
气候学
地理
城市规划
气象学
生态学
土木工程
工程类
地质学
生物
热力学
考古
物理
心理学
心理治疗师
作者
Zhijie Xi,Chaosu Li,Long Zhou,Huajie Yang,René Burghardt
标识
DOI:10.1016/j.scitotenv.2022.160270
摘要
Systematic understanding of climate resilience in the urban context is essential to improve the adaptive capacity in response to extreme weather events. Although the urban built environment affects climate resilience, empirical evidence on the associations between the built environment and urban climate resilience is rare in the literature. In this study, urban heat resilience (HR) is measured as the land surface temperature (LST) difference in a given urban area between normal and extreme heat event, and it further explores the impact of two-dimensional (2D) and three-dimensional (3D) urban built environment features on HR. Using spatial regression, we find that solar insolation and water density are the dominant factors in determining land surface temperature. However, they do not appear to influence HR significantly. Results indicate that vegetation and urban porosity are crucial both in reducing LST and improving HR during extreme heat events. This study highlights the importance of 2D and 3D urban built environment features in improving HR to extreme heat events.
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