Cost effective direct-substrate jet impingement cooling concept for power application

Direct substrate jet impingement cooling can eliminate the use of the baseplate and significantly reduce the weight and volume of conventional thermal management solutions. This work demonstrates a cost-effective manufacturing approach based on printed circuit board technology to create impingement...

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Main Authors: Mouawad, Bassem, Abebe, Robert, Skuriat, Robert, Li, Jianfeng, De Lillo, Liliana, Empringham, Lee, Johnson, C. Mark, Roberts, Andy, Clarke, Robert, Haynes, Geoff
Format: Conference or Workshop Item
Language:English
Published: 2018
Online Access:https://eprints.nottingham.ac.uk/53444/
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author Mouawad, Bassem
Abebe, Robert
Skuriat, Robert
Li, Jianfeng
De Lillo, Liliana
Empringham, Lee
Johnson, C. Mark
Roberts, Andy
Clarke, Robert
Haynes, Geoff
author_facet Mouawad, Bassem
Abebe, Robert
Skuriat, Robert
Li, Jianfeng
De Lillo, Liliana
Empringham, Lee
Johnson, C. Mark
Roberts, Andy
Clarke, Robert
Haynes, Geoff
author_sort Mouawad, Bassem
building Nottingham Research Data Repository
collection Online Access
description Direct substrate jet impingement cooling can eliminate the use of the baseplate and significantly reduce the weight and volume of conventional thermal management solutions. This work demonstrates a cost-effective manufacturing approach based on printed circuit board technology to create impingement cells under a direct bonded copper substrate. Results from both computational fluid dynamics simulations and transient thermal tests verify the good performance of such jet impingement cooling systems under high power density conditions. Further work is ongoing to apply the present cooling and manufacturing technologies for the development of a range of high performance power electronic systems.
first_indexed 2025-11-14T20:27:47Z
format Conference or Workshop Item
id nottingham-53444
institution University of Nottingham Malaysia Campus
institution_category Local University
language English
last_indexed 2025-11-14T20:27:47Z
publishDate 2018
recordtype eprints
repository_type Digital Repository
spelling nottingham-534442018-08-23T12:18:03Z https://eprints.nottingham.ac.uk/53444/ Cost effective direct-substrate jet impingement cooling concept for power application Mouawad, Bassem Abebe, Robert Skuriat, Robert Li, Jianfeng De Lillo, Liliana Empringham, Lee Johnson, C. Mark Roberts, Andy Clarke, Robert Haynes, Geoff Direct substrate jet impingement cooling can eliminate the use of the baseplate and significantly reduce the weight and volume of conventional thermal management solutions. This work demonstrates a cost-effective manufacturing approach based on printed circuit board technology to create impingement cells under a direct bonded copper substrate. Results from both computational fluid dynamics simulations and transient thermal tests verify the good performance of such jet impingement cooling systems under high power density conditions. Further work is ongoing to apply the present cooling and manufacturing technologies for the development of a range of high performance power electronic systems. 2018-07-05 Conference or Workshop Item PeerReviewed application/pdf en https://eprints.nottingham.ac.uk/53444/1/Cost%20Effective%20Direct-Substrate%20Jet%20Impingement%20Cooling%20Concept%20for%20Power%20Application.pdf Mouawad, Bassem, Abebe, Robert, Skuriat, Robert, Li, Jianfeng, De Lillo, Liliana, Empringham, Lee, Johnson, C. Mark, Roberts, Andy, Clarke, Robert and Haynes, Geoff (2018) Cost effective direct-substrate jet impingement cooling concept for power application. In: PCIM 2018 - International Exhibition and Conference for Power Electronics, Intelligent Motion, Renewable Energy and Energy Management, 5-7 June 2018, Nuremberg, Germany.
spellingShingle Mouawad, Bassem
Abebe, Robert
Skuriat, Robert
Li, Jianfeng
De Lillo, Liliana
Empringham, Lee
Johnson, C. Mark
Roberts, Andy
Clarke, Robert
Haynes, Geoff
Cost effective direct-substrate jet impingement cooling concept for power application
title Cost effective direct-substrate jet impingement cooling concept for power application
title_full Cost effective direct-substrate jet impingement cooling concept for power application
title_fullStr Cost effective direct-substrate jet impingement cooling concept for power application
title_full_unstemmed Cost effective direct-substrate jet impingement cooling concept for power application
title_short Cost effective direct-substrate jet impingement cooling concept for power application
title_sort cost effective direct-substrate jet impingement cooling concept for power application
url https://eprints.nottingham.ac.uk/53444/