Climate-Resilient Urban Infrastructure Development through Integrated Hydrological Analysis and Architectural Planning
DOI:
https://doi.org/10.51903/eqdpkr54Keywords:
Climate-Resilient Infrastructure, Hydrological Analysis, Architectural Planning, Flood Mitigation, Adaptive Urban DesignAbstract
Urban flooding has become increasingly frequent and severe due to climate change and rapid urbanization, posing significant challenges to the sustainability of urban infrastructure. Conventional planning approaches often separate hydrological analysis from architectural design, resulting in infrastructure that is reactive rather than adaptive to extreme climate events. This study aims to develop an integrated framework for climate-resilient urban infrastructure through the combination of quantitative hydrological analysis and architectural planning. The research adopts a quantitative approach by conducting rainfall frequency analysis, rainfall–runoff modeling, and hydraulic simulation to generate flood inundation maps under extreme rainfall scenarios. The simulation outputs, including flood depth, flow velocity, and inundation extent, are then translated into measurable architectural design parameters such as minimum building elevation, adaptive drainage systems, and green–blue infrastructure integration. The results indicate a substantial reduction in inundation extent, maximum flood depth, and flow velocity following the implementation of the adaptive design scenario, demonstrating the effectiveness of data-driven spatial intervention.
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