On-site stormwater detention for Australian development projects: Does it meet frequent flow management objectives?

被引:0
作者
Rodney Ronalds [1 ,2 ]
Alex Rowlands [2 ]
Hong Zhang [1 ]
机构
[1] School of Engineering and Built Environment, Griffith University
[2] Michael Bale & Associates Pty Ltd
关键词
Stormwater detention; Frequent flow management; Temporal patterns; Runoff routing; Continuous simulation; South East Queensland;
D O I
暂无
中图分类号
TU992 [排水工程(沟渠工程、下水道工程)];
学科分类号
0815 ;
摘要
On-site stormwater detention(OSD) is a conventional component of urban drainage systems, designed with the intention of mitigating the increase to peak discharge of stormwater runoff that inevitably results from urbanization. In Australia, singular temporal patterns for design storms have governed the inputs of hydrograph generation and in turn the design process of OSD for the last three decades. This paper raises the concern that many existing OSD systems designed using the singular temporal pattern for design storms may not be achieving their stated objectives when they are assessed against a variety of alternative temporal patterns. The performance of twenty real OSD systems was investigated using two methods:(1) ensembles of design temporal patterns prescribed in the latest version of Australian Rainfall and Runoff, and(2) real recorded rainfall data taken from pluviograph stations modeled with continuous simulation. It is shown conclusively that the use of singular temporal patterns is ineffective in providing assurance that an OSD will mitigate the increase to peak discharge for all possible storm events. Ensemble analysis is shown to provide improved results. However, it also falls short of providing any guarantee in the face of naturally occurring rainfall.
引用
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页码:1 / 10
页数:10
相关论文
共 23 条
[1]  
Temporal rainfall disaggregation using a multiplicative cascade model for spatial application in urban hydrology[J] . H. Müller,U. Haberlandt.Journal of Hydrology . 2018
[2]  
Constraining continuous rainfall simulations for derived design flood estimation[J] . F.M. Woldemeskel,A. Sharma,R. Mehrotra,S. Westra.Journal of Hydrology . 2016
[3]  
A framework model for the dimensioning and allocation of a detention basin system: The case of a flood-prone mountainous watershed[J] . Annalisa Bellu,Luís F. Sanches Fernandes,Rui M.V. Cortes,Fernando A.L. Pacheco.Journal of Hydrology . 2016
[4]  
Quantifying uncertainty in rainfall–runoff models due to design losses using Monte Carlo simulation: a case study in New South Wales, Australia[J] . Melanie Loveridge,Ataur Rahman.Stochastic Environmental Research and Risk Assessment . 2014 (8)
[5]  
Application of Monte Carlo simulation technique for flood estimation for two catchments in New South Wales, Australia[J] . Wilfredo Llacer Caballero,Ataur Rahman.Natural Hazards . 2014 (3)
[6]   Multi-objective optimal layout of distributed storm-water detention [J].
Tao, T. ;
Wang, J. ;
Xin, K. ;
Li, S. .
INTERNATIONAL JOURNAL OF ENVIRONMENTAL SCIENCE AND TECHNOLOGY, 2014, 11 (05) :1473-1480
[7]  
Development of regionalized joint probability approach to flood estimation: a case study for Eastern New South Wales, Australia[J] . Wilfredo Llacer Caballero,Ataur Rahman.Hydrol. Process. . 2014 (13)
[8]   Assessing Downstream Impacts of Detention Basins in Urbanized River Basins Using a Distributed Hydrological Model [J].
Ravazzani, Giovanni ;
Gianoli, Paride ;
Meucci, Stefania ;
Mancini, Marco .
WATER RESOURCES MANAGEMENT, 2014, 28 (04) :1033-1044
[9]  
Catchment-scale hydrologic implications of parcel-level stormwater management (Ohio USA)[J] . William Shuster,Lee Rhea.Journal of Hydrology . 2012
[10]   Optimizing retention basin networks [J].
Travis, Quentin B. ;
Mays, Larry W. .
JOURNAL OF WATER RESOURCES PLANNING AND MANAGEMENT-ASCE, 2008, 134 (05) :432-439