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Decision Support Systems for Water Supply Systems: Smart Water System to Improve the Operation of Water Supply Systems by Using Applied Mathematics
 
Edited by: Andreas Pirsing Siemens AG, Berlin, Germany
Antonio Morsi University of Erlangen-Nürnberg, Germany
A publication of European Mathematical Society
Decision Support Systems for Water Supply Systems
Hardcover ISBN:  978-3-03719-207-8
Product Code:  EMSIAM/2
List Price: $79.00
AMS Member Price: $63.20
Please note AMS points can not be used for this product
Decision Support Systems for Water Supply Systems
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Decision Support Systems for Water Supply Systems: Smart Water System to Improve the Operation of Water Supply Systems by Using Applied Mathematics
Edited by: Andreas Pirsing Siemens AG, Berlin, Germany
Antonio Morsi University of Erlangen-Nürnberg, Germany
A publication of European Mathematical Society
Hardcover ISBN:  978-3-03719-207-8
Product Code:  EMSIAM/2
List Price: $79.00
AMS Member Price: $63.20
Please note AMS points can not be used for this product
  • Book Details
     
     
    EMS Industrial and Applied Mathematics
    Volume: 22020; 243 pp
    MSC: Primary 68; 76; 93; 90; 65

    The book summarizes the results of the BMBF funded joint research project EWave (reference 02WER1323F) that was initiated to develop an innovative Decision Support Systems (DSS) for water supply companies.

    Operating water supply systems is complex. It has to be ensured that consumers are reliably supplied with a sufficient quantity and quality of water, as well as a sufficient water pressure at all times. In addition to a reliable water supply, consumers demand reasonable prices.

    For decision making and operational support, the EWave system uses newly developed integrated optimization modules. As a result, the user receives operating schedules on a 15-minute scale. For this purpose, mixed-integer linear and nonlinear mathematical optimization methods are combined. First, a mixed-integer optimization model is solved in order to derive all discrete decisions (primarily pump schedules). The idea here is to approximate the physics by piecewise linear relaxations well enough to come up with the right/optimal decisions. EWave then uses nonlinear optimization and simulation methods to get the physics straight. The process is iterated if necessary. This approach enables globally optimal solutions within an apriori given quality tolerance.

    Optimization results obtained in real time yield a potential of energy savings of up to 4.6 percent daily for the waterworks in the pilot area.

    A publication of the European Mathematical Society (EMS). Distributed within the Americas by the American Mathematical Society.

    Readership

    Automation experts and applied mathematicians working in infrastructure industries.

  • Additional Material
     
     
  • Requests
     
     
    Review Copy – for publishers of book reviews
    Accessibility – to request an alternate format of an AMS title
Volume: 22020; 243 pp
MSC: Primary 68; 76; 93; 90; 65

The book summarizes the results of the BMBF funded joint research project EWave (reference 02WER1323F) that was initiated to develop an innovative Decision Support Systems (DSS) for water supply companies.

Operating water supply systems is complex. It has to be ensured that consumers are reliably supplied with a sufficient quantity and quality of water, as well as a sufficient water pressure at all times. In addition to a reliable water supply, consumers demand reasonable prices.

For decision making and operational support, the EWave system uses newly developed integrated optimization modules. As a result, the user receives operating schedules on a 15-minute scale. For this purpose, mixed-integer linear and nonlinear mathematical optimization methods are combined. First, a mixed-integer optimization model is solved in order to derive all discrete decisions (primarily pump schedules). The idea here is to approximate the physics by piecewise linear relaxations well enough to come up with the right/optimal decisions. EWave then uses nonlinear optimization and simulation methods to get the physics straight. The process is iterated if necessary. This approach enables globally optimal solutions within an apriori given quality tolerance.

Optimization results obtained in real time yield a potential of energy savings of up to 4.6 percent daily for the waterworks in the pilot area.

A publication of the European Mathematical Society (EMS). Distributed within the Americas by the American Mathematical Society.

Readership

Automation experts and applied mathematicians working in infrastructure industries.

Review Copy – for publishers of book reviews
Accessibility – to request an alternate format of an AMS title
Please select which format for which you are requesting permissions.