This study presents a deterministic, lumped model to simulate mesoscale sustainable drainage systems (SuDS) based on a conceptualization of the stormwater control measures (SCMs) making up the system and their influence on the runoff process. The conceptualization mainly relies on parameters that are easily quantifiable based on the physical characteristics of the SCMs. Introducing a nonlinear reservoir model at the downstream end of the SuDS results in a fast model that can realistically describe the runoff process at low computational cost. Modelled hydrographs for the study area in Malmö, Sweden, matched data with regard to the overall shape of the hydrograph as well as the peak discharge and lag time. These output parameters are critical factors to be considered in the design of large systems consisting of mesoscale SuDS. The algebraic foundation of the developed model makes it suitable for large-scale applications (e.g., macroscale), where the simulation time is a decisive factor. In this respect, city-wide optimization studies for the most efficient location and implementation of SuDS are substantially accelerated due to fast and easy model setup. Moreover, the simplicity of the model facilitates more effective communication between all the actors engaged in the urban planning process, including political decision makers, urban planners, and urban water engineers.
|Number of pages||10|
|Journal||Journal of Environmental Management|
|Issue number||15 June 2019|
|Publication status||Published - 2019 Apr 19|
Related research output
, Nordlöf, B., Roldin, M., Gustafsson, L-G., Jes la Cour Jansen
& Karin Jönsson
, 2018 Feb 1
, In : Journal of Environmental Management. 207
, p. 60-69 10 p.
Research output: Contribution to journal › Article
View all (2)
Ronny Berndtsson, Rolf Larsson, Johanna Sörensen, Shifteh Mobini, Miklas Scholz, Karin Jönsson, Misagh Mottaghi, Henrik Aspegren, Salar Haghighatafshar, Per Becker, Catharina Sternudd, Jonas Nordström, Jerry Nilsson, Petter Pilesjö & Andreas Persson
2015/10/01 → 2018/09/30
View all (3)