Towards livable communities: Perceptual scale optimized urban human settlement evaluation at community levels
Yichen Lei , Xiuyuan Zhang , Shuping Xiong , Ge Tan , Haoyu Wang , Shihong Du
Geography and Sustainability ›› 2026, Vol. 7 ›› Issue (3) : 100458
Human settlement quality (HSQ) is a critical component of sustainable urban development, directly affecting residents’ health, well-being, and quality of life. However, most existing studies rely on expert-defined service radii and indicator weights at the city scale, overlooking residents’ perceptions and failing to capture fine-grained variations at the community level. This study proposes a Perceptual-Scale Optimized Random Forest (PSO-RF) to enable human-centered, community-scale HSQ evaluation by integrating subjective satisfaction data with objective environmental indicators. The framework captures multi-scale perceptual differences in environmental features and determines the optimal measurement scale for each indicator, leading to more accurate HSQ assessments. Five case cities in China and Germany -Beijing, Changsha, Shenzhen, Berlin, and Munich -were selected to reflect diverse regional, socio-economic, and developmental contexts, based on multi-source spatiotemporal data from 2010, 2015, and 2020. The findings reveal that: (1) Residents perceive HSQ across two dominant spatial scales: local (860 m) and accessible (2,050 m); (2) Chinese communities emphasize socio-economic conditions within close proximity, while German communities prioritize broader natural environmental factors; (3) The PSO-RF model reduces evaluation error by 9.6 % compared to fixed-radius approaches by identifying indicator-specific perceptual scales; (4) The generated HSQ and shortcoming maps uncover localized human settlement challenges and offer practical guidance for targeted urban planning. This study advances the methodological foundation for perception-driven livability research and provides actionable insights for precision urban governance.
Human settlement / Community level / Urban sustainability / Perceptual scale / Interpretable machine learning
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