Embedded cooling method with configurability and replaceability for multi-chip electronic devices

•Created a new type of embedded cooling modules for multi-chip electronic devices.•The module can be reconfigured, and chips can be replaced multiple times.•Tested a 70 × 88 × 9 mm3 cooling module for a 3 × 3 array of chips.•Demonstrated successful thermal management of multi-chip electronic devices...

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Veröffentlicht in:Energy conversion and management 2022-02, Vol.253, p.115124, Article 115124
Hauptverfasser: Zhang, Nan, Jiao, Binbin, Ye, Yuxin, Kong, Yanmei, Du, Xiangbin, Liu, Ruiwen, Cong, Bo, Yu, Lihang, Jia, Shiqi, Jia, Kunpeng
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container_end_page
container_issue
container_start_page 115124
container_title Energy conversion and management
container_volume 253
creator Zhang, Nan
Jiao, Binbin
Ye, Yuxin
Kong, Yanmei
Du, Xiangbin
Liu, Ruiwen
Cong, Bo
Yu, Lihang
Jia, Shiqi
Jia, Kunpeng
description •Created a new type of embedded cooling modules for multi-chip electronic devices.•The module can be reconfigured, and chips can be replaced multiple times.•Tested a 70 × 88 × 9 mm3 cooling module for a 3 × 3 array of chips.•Demonstrated successful thermal management of multi-chip electronic devices.•Can be useful for high-performance processors and DC/DC power converters. Multi-chip thermal management technology is facing new challenges for improving system performance with the increasing use of multi-chip strategies in electronic systems. In this study, an embedded cooling method with configurability and replaceability for multi-chip electronic devices was demonstrated. A cooling module with the size of 70 × 88 × 9 mm3 for a 3 × 3 chip array verified the feasibility. The experimental results showed that each chip was cooled independently with no thermal coupling between each other, the maximum temperature of the array less than 85.81 ℃ and the temperature uniformity was 0.0728 (coefficient of variation) at 600 W/cm2 and 500 mL/min. Under the same conditions, the cooling effect of chips in the array was not affected by arrangements, where the differences in pressure drops and temperature uniformity were less than 4% and 0.0276, respectively. The heat dissipation effect of the chips in the module remained unchanged after repeated assembly, which proves the replaceability of the chips into the module. Therefore, this configurable and replaceable cooling method for multi-chip electronic devices is promising for high-performance processors and power converters.
doi_str_mv 10.1016/j.enconman.2021.115124
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Multi-chip thermal management technology is facing new challenges for improving system performance with the increasing use of multi-chip strategies in electronic systems. In this study, an embedded cooling method with configurability and replaceability for multi-chip electronic devices was demonstrated. A cooling module with the size of 70 × 88 × 9 mm3 for a 3 × 3 chip array verified the feasibility. The experimental results showed that each chip was cooled independently with no thermal coupling between each other, the maximum temperature of the array less than 85.81 ℃ and the temperature uniformity was 0.0728 (coefficient of variation) at 600 W/cm2 and 500 mL/min. Under the same conditions, the cooling effect of chips in the array was not affected by arrangements, where the differences in pressure drops and temperature uniformity were less than 4% and 0.0276, respectively. The heat dissipation effect of the chips in the module remained unchanged after repeated assembly, which proves the replaceability of the chips into the module. Therefore, this configurable and replaceable cooling method for multi-chip electronic devices is promising for high-performance processors and power converters.</description><identifier>ISSN: 0196-8904</identifier><identifier>EISSN: 1879-2227</identifier><identifier>DOI: 10.1016/j.enconman.2021.115124</identifier><language>eng</language><publisher>Oxford: Elsevier Ltd</publisher><subject>administrative management ; Arrays ; Coefficient of variation ; Configurability ; Cooling ; Cooling effects ; Electronic devices ; Electronic equipment ; Electronic systems ; Embedded cooling ; energy conversion ; heat transfer ; High heat flux ; Microfluidics ; Modules ; Multi-chip ; Power converters ; Pressure drop ; Replaceability ; temperature ; Thermal coupling ; Thermal management</subject><ispartof>Energy conversion and management, 2022-02, Vol.253, p.115124, Article 115124</ispartof><rights>2021 Elsevier Ltd</rights><rights>Copyright Elsevier Science Ltd. 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source Elsevier ScienceDirect Journals Complete
subjects administrative management
Arrays
Coefficient of variation
Configurability
Cooling
Cooling effects
Electronic devices
Electronic equipment
Electronic systems
Embedded cooling
energy conversion
heat transfer
High heat flux
Microfluidics
Modules
Multi-chip
Power converters
Pressure drop
Replaceability
temperature
Thermal coupling
Thermal management
title Embedded cooling method with configurability and replaceability for multi-chip electronic devices
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