Modelling of liquid heating subject to simultaneous microwave and ultrasound irradiation

•Water heating under simultaneous MW and US irradiation was modelled.•Simultaneous MW and US irradiation improves heat uniformity in water.•Hotspots are located in the upper region of water and near the horn tip.•Heat uniformity in water is insensitive to heating time. In this work, a new model that...

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Published inApplied thermal engineering Vol. 150; pp. 1126 - 1140
Main Authors Lee, G.L., Law, M.C., Lee, V.C.-C.
Format Journal Article
LanguageEnglish
Published Oxford Elsevier Ltd 05.03.2019
Elsevier BV
Subjects
Absorption
Acoustic cavitation
Acoustic streaming
Acoustics
Computer simulation
Design optimization
Heat transfer
Heating
Irradiation
Liquid heating
Modelling
Overheating
Simulation
Simultaneous microwave and ultrasound irradiation
Water
Modelling
Liquid heating
Acoustic streaming
Acoustic cavitation
Simultaneous microwave and ultrasound irradiation
Heat transfer
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Abstract •Water heating under simultaneous MW and US irradiation was modelled.•Simultaneous MW and US irradiation improves heat uniformity in water.•Hotspots are located in the upper region of water and near the horn tip.•Heat uniformity in water is insensitive to heating time. In this work, a new model that describes liquid heating under simultaneous Microwave (MW) and Ultrasound (US) irradiation was developed in COMSOL Multiphysics and validated against experimental data. This model was used to investigate heat transfer phenomena in water under simultaneous irradiation of MW and US, and compared it with that under individual MW irradiation. The simulation results showed that under simultaneous irradiation, the heat uniformity in the water is greatly enhanced compared to that under individual MW irradiation. Besides, the results indicated that hotspots are mainly located in the upper region of the water sample and in the vicinity of the US horn tip. In addition, the simulation results revealed that the local US power absorption in water is much greater compared to the local MW power absorption, which may cause local overheating. It was also discovered that the heat uniformity in the water sample essentially does not deteriorate with heating time during simultaneous irradiation, which is in contrast to that during individual MW irradiation. The new model could be useful to in the design, optimization and scale-up of combined MW and US systems.
AbstractList •Water heating under simultaneous MW and US irradiation was modelled.•Simultaneous MW and US irradiation improves heat uniformity in water.•Hotspots are located in the upper region of water and near the horn tip.•Heat uniformity in water is insensitive to heating time. In this work, a new model that describes liquid heating under simultaneous Microwave (MW) and Ultrasound (US) irradiation was developed in COMSOL Multiphysics and validated against experimental data. This model was used to investigate heat transfer phenomena in water under simultaneous irradiation of MW and US, and compared it with that under individual MW irradiation. The simulation results showed that under simultaneous irradiation, the heat uniformity in the water is greatly enhanced compared to that under individual MW irradiation. Besides, the results indicated that hotspots are mainly located in the upper region of the water sample and in the vicinity of the US horn tip. In addition, the simulation results revealed that the local US power absorption in water is much greater compared to the local MW power absorption, which may cause local overheating. It was also discovered that the heat uniformity in the water sample essentially does not deteriorate with heating time during simultaneous irradiation, which is in contrast to that during individual MW irradiation. The new model could be useful to in the design, optimization and scale-up of combined MW and US systems.
In this work, a new model that describes liquid heating under simultaneous Microwave (MW) and Ultrasound (US) irradiation was developed in COMSOL Multiphysics and validated against experimental data. This model was used to investigate heat transfer phenomena in water under simultaneous irradiation of MW and US, and compared it with that under individual MW irradiation. The simulation results showed that under simultaneous irradiation, the heat uniformity in the water is greatly enhanced compared to that under individual MW irradiation. Besides, the results indicated that hotspots are mainly located in the upper region of the water sample and in the vicinity of the US horn tip. In addition, the simulation results revealed that the local US power absorption in water is much greater compared to the local MW power absorption, which may cause local overheating. It was also discovered that the heat uniformity in the water sample essentially does not deteriorate with heating time during simultaneous irradiation, which is in contrast to that during individual MW irradiation. The new model could be useful to in the design, optimization and scale-up of combined MW and US systems.
Author Law, M.C.
Lee, V.C.-C.
Lee, G.L.
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Keywords Modelling
Liquid heating
Acoustic streaming
Acoustic cavitation
Simultaneous microwave and ultrasound irradiation
Heat transfer
Language English
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    fullname: Jiang
– year: 2005
  ident: 10.1016/j.applthermaleng.2019.01.064_b0160
  contributor:
    fullname: Hui
SSID ssj0012874
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Snippet •Water heating under simultaneous MW and US irradiation was modelled.•Simultaneous MW and US irradiation improves heat uniformity in water.•Hotspots are...
In this work, a new model that describes liquid heating under simultaneous Microwave (MW) and Ultrasound (US) irradiation was developed in COMSOL Multiphysics...
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StartPage 1126
SubjectTerms Absorption
Acoustic cavitation
Acoustic streaming
Acoustics
Computer simulation
Design optimization
Heat transfer
Heating
Irradiation
Liquid heating
Modelling
Overheating
Simulation
Simultaneous microwave and ultrasound irradiation
Water
Title Modelling of liquid heating subject to simultaneous microwave and ultrasound irradiation
URI https://dx.doi.org/10.1016/j.applthermaleng.2019.01.064
https://www.proquest.com/docview/2206267129/abstract/
Volume 150
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