Development and performance of a parsimonious model to estimate temperature in sewer networks

This paper presents a model (inspired by another model) to calculate water temperature in free-surface flow with two main innovations: the convective heat transfer occurs only at the wetted perimeter of pipes, and the model was integrated to commercial software used for hydraulic calculations in dra...

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Hauptverfasser: Elías-Maxil, Jorge A., Hofman, Jan, Wols, Bas, Francois Clemens, Hoek, Jan Peter Van Der, Rietveld, Luuk
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creator Elías-Maxil, Jorge A.
Hofman, Jan
Wols, Bas
Francois Clemens
Hoek, Jan Peter Van Der
Rietveld, Luuk
description This paper presents a model (inspired by another model) to calculate water temperature in free-surface flow with two main innovations: the convective heat transfer occurs only at the wetted perimeter of pipes, and the model was integrated to commercial software used for hydraulic calculations in drainage systems. Given these innovations, we could reduce the number of modeling input data to calculate the temperature of water and soil in the radial and tangential directions along the pipes, with the advantages of using industry-standard software. To test the performance of the model, it was firstly calibrated in two sets of experiments (to calibrate the hydraulic and the thermal parameters separately), and benchmarked with a third controlled discharge against the case model. The results indicate that in unsteady-state situations the parsimonious model can be twice as accurate as the underlying model because the parsimonious model considers the hydraulic influence of sewer infrastructure.
doi_str_mv 10.6084/m9.figshare.4600102
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Given these innovations, we could reduce the number of modeling input data to calculate the temperature of water and soil in the radial and tangential directions along the pipes, with the advantages of using industry-standard software. To test the performance of the model, it was firstly calibrated in two sets of experiments (to calibrate the hydraulic and the thermal parameters separately), and benchmarked with a third controlled discharge against the case model. 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identifier DOI: 10.6084/m9.figshare.4600102
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subjects Biological Sciences not elsewhere classified
Environmental Sciences not elsewhere classified
FOS: Biological sciences
FOS: Computer and information sciences
FOS: Earth and related environmental sciences
Information Systems not elsewhere classified
Medicine
Science Policy
title Development and performance of a parsimonious model to estimate temperature in sewer networks
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