School of Built Environment, Arts, Design Architecture, UNSW Sydney, Australia.
Water Research Centre, School of Civil and Environmental Engineering, UNSW Sydney, Sydney, Australia.
J Environ Manage. 2024 Nov;370:122650. doi: 10.1016/j.jenvman.2024.122650. Epub 2024 Oct 11.
Multi-objective Urban Green Space (UGS) design is essential for optimizing limited resources amid diverse urban development challenges. This study introduces a new design support tool that overcomes the data-intensive and expert-reliant limitations faced by urban designers. The tool integrates stormwater management analysis within the Rhinoceros + Grasshopper platform, offering three key features: (1) quantifying stormwater volume in the 3D model, (2) estimating the space required for stormwater management in UGS, and (3) providing options for stormwater management facilities for UGS design. Across the five scenarios, the tool effectively demonstrated (1) the identification that dispersed UGS layouts collect more stormwater than aggregated ones with the same total area; (2) the consideration of the impact of weather changes on passive stormwater collection; and (3) the provision of recommendations on facility areas and locations to enhance collaborative urban and landscape design, better addressing stormwater management needs. This design support tool empowers urban designers to create more sustainable and resilient urban landscapes by addressing stormwater management challenges effectively in UGS design.
多目标城市绿地(UGS)设计对于优化有限资源以应对多样化的城市发展挑战至关重要。本研究引入了一种新的设计支持工具,克服了城市设计师面临的数据密集型和依赖专家的局限性。该工具在 Rhinoceros + Grasshopper 平台中集成了雨水管理分析,提供了三个关键功能:(1)量化 3D 模型中的雨水总量,(2)估算 UGS 中雨水管理所需的空间,(3)为 UGS 设计提供雨水管理设施的选择。在五个场景中,该工具有效地展示了:(1)分散的 UGS 布局比具有相同总面积的集中式布局收集更多雨水的识别;(2)考虑天气变化对被动雨水收集的影响;(3)提供关于设施区域和位置的建议,以增强城市和景观设计的协作,更好地满足雨水管理需求。该设计支持工具通过在 UGS 设计中有效应对雨水管理挑战,使城市设计师能够创建更具可持续性和弹性的城市景观。