3D Numerical and Experimental Study on Paraffin Wax Melting in Thermal Storage for the Nozzle-and-Shell, Tube-and-Shell, and Reducer-and-Shell Models
Paraffin melting experienced in the nozzle-and-shell, tube-and-shell, and reducer-and-shell models in thermal storage with 3D numerical and experimental approach has been studied. The numerical study aims to evaluate the melting process and discover temperature distribution, liquid-solid interface,...
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Hindawi Limited
2017-01-01
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Series: | Modelling and Simulation in Engineering |
Online Access: | http://dx.doi.org/10.1155/2017/9590214 |
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doaj-a95a4d9529ba4d9887d83763539972672020-11-24T23:12:56ZengHindawi LimitedModelling and Simulation in Engineering1687-55911687-56052017-01-01201710.1155/2017/959021495902143D Numerical and Experimental Study on Paraffin Wax Melting in Thermal Storage for the Nozzle-and-Shell, Tube-and-Shell, and Reducer-and-Shell ModelsAgus Dwi Korawan0Sudjito Soeparman1Widya Wijayanti2Denny Widhiyanuriyawan3Mechanical Engineering, Brawijaya University, Malang, IndonesiaMechanical Engineering, Brawijaya University, Malang, IndonesiaMechanical Engineering, Brawijaya University, Malang, IndonesiaMechanical Engineering, Brawijaya University, Malang, IndonesiaParaffin melting experienced in the nozzle-and-shell, tube-and-shell, and reducer-and-shell models in thermal storage with 3D numerical and experimental approach has been studied. The numerical study aims to evaluate the melting process and discover temperature distribution, liquid-solid interface, liquid fraction, and the average surface Nusselt number, while the aim of this experimental study is to determine the distribution of melting temperature. The comparison of temperature distribution between the numerical approach and experimental one indicates a good agreement. The comparison result between the three models shows that the melting process of the nozzle-and-shell model is the best, followed by tube-and-shell and reducer-and-shell models, successively. To finish the melting process, the time required is 6130 s for the nozzle-and-shell model, while tube-and-shell model requires 8210 s and reducer-and-shell model requires 12280 s.http://dx.doi.org/10.1155/2017/9590214 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Agus Dwi Korawan Sudjito Soeparman Widya Wijayanti Denny Widhiyanuriyawan |
spellingShingle |
Agus Dwi Korawan Sudjito Soeparman Widya Wijayanti Denny Widhiyanuriyawan 3D Numerical and Experimental Study on Paraffin Wax Melting in Thermal Storage for the Nozzle-and-Shell, Tube-and-Shell, and Reducer-and-Shell Models Modelling and Simulation in Engineering |
author_facet |
Agus Dwi Korawan Sudjito Soeparman Widya Wijayanti Denny Widhiyanuriyawan |
author_sort |
Agus Dwi Korawan |
title |
3D Numerical and Experimental Study on Paraffin Wax Melting in Thermal Storage for the Nozzle-and-Shell, Tube-and-Shell, and Reducer-and-Shell Models |
title_short |
3D Numerical and Experimental Study on Paraffin Wax Melting in Thermal Storage for the Nozzle-and-Shell, Tube-and-Shell, and Reducer-and-Shell Models |
title_full |
3D Numerical and Experimental Study on Paraffin Wax Melting in Thermal Storage for the Nozzle-and-Shell, Tube-and-Shell, and Reducer-and-Shell Models |
title_fullStr |
3D Numerical and Experimental Study on Paraffin Wax Melting in Thermal Storage for the Nozzle-and-Shell, Tube-and-Shell, and Reducer-and-Shell Models |
title_full_unstemmed |
3D Numerical and Experimental Study on Paraffin Wax Melting in Thermal Storage for the Nozzle-and-Shell, Tube-and-Shell, and Reducer-and-Shell Models |
title_sort |
3d numerical and experimental study on paraffin wax melting in thermal storage for the nozzle-and-shell, tube-and-shell, and reducer-and-shell models |
publisher |
Hindawi Limited |
series |
Modelling and Simulation in Engineering |
issn |
1687-5591 1687-5605 |
publishDate |
2017-01-01 |
description |
Paraffin melting experienced in the nozzle-and-shell, tube-and-shell, and reducer-and-shell models in thermal storage with 3D numerical and experimental approach has been studied. The numerical study aims to evaluate the melting process and discover temperature distribution, liquid-solid interface, liquid fraction, and the average surface Nusselt number, while the aim of this experimental study is to determine the distribution of melting temperature. The comparison of temperature distribution between the numerical approach and experimental one indicates a good agreement. The comparison result between the three models shows that the melting process of the nozzle-and-shell model is the best, followed by tube-and-shell and reducer-and-shell models, successively. To finish the melting process, the time required is 6130 s for the nozzle-and-shell model, while tube-and-shell model requires 8210 s and reducer-and-shell model requires 12280 s. |
url |
http://dx.doi.org/10.1155/2017/9590214 |
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