雨水管理模型
生态调节池
环境科学
流出
雨水
导水率
环境工程
水文模型
水质
限制
低影响开发
排水
水文学(农业)
地表径流
合流下水道
渗透(HVAC)
污染物
过程线
雨水管理
废水
总悬浮物
领域(数学)
工程类
悬浮物
作者
Shaahin Nazarpour Tameh,Jennifer Drake,Anna Palla,La Ba
标识
DOI:10.1016/j.envsoft.2026.106877
摘要
Bioretention cells (BRCs) are widely implemented to restore undeveloped hydrologic cycle; however, conventional BRCs need considerable surface area, limiting their applicability in densely populated areas. Compact BRCs like Filterra® have been designed to provide comparable hydrologic and pollutant removal effectiveness with a smaller footprint. The hydraulic characteristics of Filterra’s engineered media were assessed through laboratory testing using KSAT and HYPROP devices and integrates these results with field monitoring to implement a field-validated storm water management model (SWMM). Laboratory result showed a hydraulic conductivity of 1750 mm/h. The validated SWMM model replicated the outflow dynamics with satisfactory accuracy (KGE > 0.35, R 2 > 0.47) as well as the total suspended solids (TSS) removal is suitably predicted (R 2 = 0.83). Results demonstrate that the field-validated SWMM model can be used to evaluate both hydrologic performance and pollutant TSS removal efficiency of compact BRCs, while noting its limitations in representing complex TSS dynamics. • BRC’s media laboratory tests show saturated hydraulic conductivity of 1750 mm/h. • Compact BRC parameters are set up in SWMM through laboratory tests and field data. • SWMM suitably reproduces the Compact BRC’s hydrologic-hydraulic response. • Compact BRC’s TSS removal is effectively predicted using a constant SWMM removal rate.
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