A state-of-art review on SiC power module packaging and thermal management key technologies

Silicon carbide (SiC) power devices have advantages such as high withstanding voltage, fast switching speed, and low conduction losses. Therefore, they are gradually becoming core components of power conversion systems, especially in areas such as new energy vehicles, renewable energy, energy storag...

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Main Authors: SHENG Kuang, TANG Weiyu, WU Zan
Format: Article
Language:zho
Published: Editorial Department of Electric Drive for Locomotives 2023-09-01
Series:机车电传动
Subjects:
Online Access:http://edl.csrzic.com/thesisDetails#10.13890/j.issn.1000-128X.2023.05.001
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author SHENG Kuang
TANG Weiyu
WU Zan
author_facet SHENG Kuang
TANG Weiyu
WU Zan
author_sort SHENG Kuang
collection DOAJ
description Silicon carbide (SiC) power devices have advantages such as high withstanding voltage, fast switching speed, and low conduction losses. Therefore, they are gradually becoming core components of power conversion systems, especially in areas such as new energy vehicles, renewable energy, energy storage, data centers, rail transit, and smart grids. Power devices applications are becoming increasingly wide-ranging. However, the continuous miniaturization and rapid increase in power density of SiC devices pose new challenges for power module packaging and thermal management. Traditional packaging structures and heat dissipation devices provide high thermal resistance, making it difficult to meet the high heat flux cooling requirements of SiC devices. Additionally, there is a growing demand for integrated heat dissipation packaging in high power density module. In response to the above challenges, this paper provided a detailed introduction and comparative analysis of typical power module packaging structures from both domestic and international sources. Different power module heat dissipation methods including their technical characteristics were enumerated and compared, such as heat spreaders, convective heat transfer, and phase change heat dissipation. Finally, based on previous researches on thermal packaging of SiC power modules, the challenges and future development trends in the next generation of SiC module packaging and thermal management technologies were discussed.
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publisher Editorial Department of Electric Drive for Locomotives
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series 机车电传动
spelling doaj-art-b3da4eaec75949f5958c2def72e116782025-08-20T01:51:10ZzhoEditorial Department of Electric Drive for Locomotives机车电传动1000-128X2023-09-011942839397A state-of-art review on SiC power module packaging and thermal management key technologiesSHENG KuangTANG WeiyuWU ZanSilicon carbide (SiC) power devices have advantages such as high withstanding voltage, fast switching speed, and low conduction losses. Therefore, they are gradually becoming core components of power conversion systems, especially in areas such as new energy vehicles, renewable energy, energy storage, data centers, rail transit, and smart grids. Power devices applications are becoming increasingly wide-ranging. However, the continuous miniaturization and rapid increase in power density of SiC devices pose new challenges for power module packaging and thermal management. Traditional packaging structures and heat dissipation devices provide high thermal resistance, making it difficult to meet the high heat flux cooling requirements of SiC devices. Additionally, there is a growing demand for integrated heat dissipation packaging in high power density module. In response to the above challenges, this paper provided a detailed introduction and comparative analysis of typical power module packaging structures from both domestic and international sources. Different power module heat dissipation methods including their technical characteristics were enumerated and compared, such as heat spreaders, convective heat transfer, and phase change heat dissipation. Finally, based on previous researches on thermal packaging of SiC power modules, the challenges and future development trends in the next generation of SiC module packaging and thermal management technologies were discussed.http://edl.csrzic.com/thesisDetails#10.13890/j.issn.1000-128X.2023.05.001silicon carbidepower modulepackagingthermal management technology
spellingShingle SHENG Kuang
TANG Weiyu
WU Zan
A state-of-art review on SiC power module packaging and thermal management key technologies
机车电传动
silicon carbide
power module
packaging
thermal management technology
title A state-of-art review on SiC power module packaging and thermal management key technologies
title_full A state-of-art review on SiC power module packaging and thermal management key technologies
title_fullStr A state-of-art review on SiC power module packaging and thermal management key technologies
title_full_unstemmed A state-of-art review on SiC power module packaging and thermal management key technologies
title_short A state-of-art review on SiC power module packaging and thermal management key technologies
title_sort state of art review on sic power module packaging and thermal management key technologies
topic silicon carbide
power module
packaging
thermal management technology
url http://edl.csrzic.com/thesisDetails#10.13890/j.issn.1000-128X.2023.05.001
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AT shengkuang stateofartreviewonsicpowermodulepackagingandthermalmanagementkeytechnologies
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