DocumentCode
602876
Title
Effective thermal control techniques for liquid-cooled 3D multi-core processors
Author
Yue Hu ; Shaoming Chen ; Lu Peng ; Song, Eunhye ; Jin-Woo Choi
Author_Institution
Div. of Electr. & Comput. Eng., Louisiana State Univ., Baton Rouge, LA, USA
fYear
2013
fDate
4-6 March 2013
Firstpage
8
Lastpage
15
Abstract
Microchannel liquid cooling shows great potential in cooling 3D processors. However, the cooling of 3D processors is limited due to design-time and run-time challenges. Moreover, in new technologies, the processor power density is continually increasing and this will bring more serious challenges to liquid cooling. In this paper, we propose two thermal control techniques: 1) Core Vertically Placed (CVP) technique. According to the architecture of a processor core, two schemes are given for placing a core vertically onto multilayers. The 3D processor with the CVP technique can be better cooled since its separate hotspot blocks have a larger total contact area with the cooler surroundings. 2) Thermoelectric cooling (TEC) technique. We propose to incorporate the TEC technique into the liquid-cooled 3D processor to enhance the cooling of hotspots. Our experiments show the CVP technique reduces the maximum temperature up to 29.58 °C, and 16.64 °C on average compared with the baseline design. Moreover, the TEC technique effectively cools down a hotspot from 96.86 °C to 78.60 °C.
Keywords
microchannel flow; multiprocessing systems; thermal management (packaging); thermoelectric cooling; 3D processor cooling; CVP technique; TEC technique; baseline design; contact area; core vertically placed technique; design-time challenge; hotspot cooling; liquid-cooled 3D multicore processor; microchannel liquid cooling; processor core architecture; processor power density; run-time challenge; thermal control technique; thermoelectric cooling; Benchmark testing; Heating; Liquid cooling; Microchannels; Program processors; Three-dimensional displays; 3D processors; Core Vertical Placed (CVP); Liquid cooling; Thermoelectric Cooling (TEC);
fLanguage
English
Publisher
ieee
Conference_Titel
Quality Electronic Design (ISQED), 2013 14th International Symposium on
Conference_Location
Santa Clara, CA
ISSN
1948-3287
Print_ISBN
978-1-4673-4951-2
Type
conf
DOI
10.1109/ISQED.2013.6523583
Filename
6523583
Link To Document