Feasibility of using smart meter water consumption data and in-sewer flow observations for sewer system analysis: a case study

Author:

Lund N. S. V.12,Kirstein J. K.13,Madsen H.4,Mark O.45,Mikkelsen P. S.1,Borup M.1

Affiliation:

1. Department of Environmental Engineering (DTU Environment), Technical University of Denmark, Bygningstorvet, Building 115, 2800 Kgs. Lyngby, Denmark

2. Present address: EnviDan, Fuglebækvej 1A, 2770 Kastrup, Denmark

3. Present address: NIRAS, Sortemosevej 19, 3450 Allerød, Denmark

4. DHI, Agern Allé 5, 2970 Hørsholm, Denmark

5. Present address: Krüger, Gladsaxevej 363, 2860 Søborg, Denmark

Abstract

Abstract Globally, smart meters measuring the water consumption with a high temporal resolution at consumers' households are deployed at an increasing rate. In addition to their use for billing or leak detection purposes, smart meters may provide detailed knowledge of the wastewater inflow to the sewer systems in space and time and open up new types of system analyses aimed at closing the urban water balance. In this study, we first validate the smart meter data against other, independent water distribution data. Subsequently, we use a detailed hydrodynamic sewer system model to link the smart meter data from almost 2,000 consumers with in-sewer flow observations in order to simulate the wastewater component of the dry weather flow (DWF) and to identify potential anomalies. Results show that it is feasible to use smart meter data as input to a distributed urban drainage model, as the temporal dynamics of the model results and in-sewer flow observations match well. Furthermore, the study suggests that in-sewer flow observations may be subject to unrecognised uncertainties, which make them unsuitable for advanced investigations of the DWF composition, and this underlines the necessity of collecting data from independent sources. The study also exemplifies that digital system integration in the water sector may be complicated. However, overcoming these obstacles may improve both offline and real-time urban drainage management.

Publisher

IWA Publishing

Subject

Atmospheric Science,Geotechnical Engineering and Engineering Geology,Civil and Structural Engineering,Water Science and Technology

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