Development and Characterization of Large Silicon Microchannel Heat Sink Packages for Thermal Management of High Power Microelectronics Modules

Author(s):  
Hengyun Zhang ◽  
Qingxin Zhang ◽  
Ser-Choong Chong ◽  
D. Pinjala ◽  
Xiaoping Liu ◽  
...  
2020 ◽  
Vol 172 ◽  
pp. 115165 ◽  
Author(s):  
Xiaohui Lin ◽  
Songping Mo ◽  
Bingzhong Mo ◽  
Lisi Jia ◽  
Ying Chen ◽  
...  

Author(s):  
Yong Jiun Lee ◽  
Boon Long Lau ◽  
Yoke Choy Leong ◽  
Kok Fah Choo ◽  
Xiaowu Zhang ◽  
...  

Author(s):  
Tunc Icoz ◽  
Mehmet Arik ◽  
John T. Dardis

Thermal management of electronics is a critical part of maintaining high efficiency and reliability. Adequate cooling must be balanced with weight and volumetric requirements, especially for passive air-cooling solutions in electronics applications where space and weight are at a premium. It should be noted that there are systems where thermal solution takes more than 95% of the total weight of the system. Therefore, it is necessary to investigate and utilize advanced materials to design low weight and compact systems. Many of the advanced materials have anisotropic thermal properties and their performances depend strongly on taking advantage of superior properties in the desired directions. Therefore, control of thermal conductivity plays an important role in utilization of such materials for cooling applications. Because of the complexity introduced by anisotropic properties, thermal performances of advanced materials are yet to be fully understood. Present study is an experimental and computational study on characterization of thermal performances of advanced materials for heat sink applications. Numerical simulations and experiments are performed to characterize thermal performances of four different materials. An estimated weight savings in excess of 75% with lightweight materials are observed compared to the traditionally used heat sinks.


Author(s):  
Vivek Sahu ◽  
Yogendra K. Joshi ◽  
Andrei G. Fedorov

A hybrid cooling scheme for thermal management of hotspots (300–500 W/cm2) in the presence of low background heat flux (100 W/cm2 over 1 cm2) is being investigated. It uses superlattice coolers (SLCs) to remove ultra high power density hotspot and microchannel heat sink for lower background heat flux. In this paper, transient response of the SLC for hotspot removal is studied. The effect of contact resistance, chip thickness, and hotspot size on the performance of the hybrid cooling scheme is also investigated.


Author(s):  
Kevin P. Drummond ◽  
Doosan Back ◽  
Michael D. Sinanis ◽  
David B. Janes ◽  
Dimitrios Peroulis ◽  
...  

Sign in / Sign up

Export Citation Format

Share Document