The Chip Cooling Model and Route Optimization with Digital Microfluidics

Using microfluidic technology to achieve integrated chip cooling is becoming a promising method to extend Moore law effective period. The thermal management is always critical for 3D integrated circuit design. Hot spots due to spatially non-uniform heat flux in integrated circuits can cause physical...

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Format: Article
Language:zho
Published: The Northwestern Polytechnical University 2019-02-01
Series:Xibei Gongye Daxue Xuebao
Subjects:
Online Access:https://www.jnwpu.org/articles/jnwpu/full_html/2019/01/jnwpu2019371p107/jnwpu2019371p107.html
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spelling doaj-1080dee0964b4b0b94fe66daf78259a42021-05-02T20:24:21ZzhoThe Northwestern Polytechnical UniversityXibei Gongye Daxue Xuebao1000-27582609-71252019-02-0137110711310.1051/jnwpu/20193710107jnwpu2019371p107The Chip Cooling Model and Route Optimization with Digital Microfluidics012School of Software and Microelectronics, Northwestern Polytechnical UniversitySchool of Software and Microelectronics, Northwestern Polytechnical UniversitySchool of Software and Microelectronics, Northwestern Polytechnical UniversityUsing microfluidic technology to achieve integrated chip cooling is becoming a promising method to extend Moore law effective period. The thermal management is always critical for 3D integrated circuit design. Hot spots due to spatially non-uniform heat flux in integrated circuits can cause physical stress that further reduces reliability. The critical point for chip cooling is to use microfluidic cooling accurately on the hot spots. First, based on electro-wetting on dielectric, the paper presents an adaptive chip cooling technique using the digital microfluidics. Then, a two-plans 3D chip cooling model has been given with its working principle and characteristics. And single plan chip cooling model is presented, including its capacitance performance and models. Moreover, the dentate electrode is designed to achieve droplet continuing movement. Next, the ant colony optimization is adopted to get optimal route during electrode moving. Last, the experiments demonstrate the adaptive chip cooling technique proposed in this paper is effective and efficiency.https://www.jnwpu.org/articles/jnwpu/full_html/2019/01/jnwpu2019371p107/jnwpu2019371p107.htmlmicrofluidicschip coolingmodelroute analysisant colony optimizationelectro-wetting
collection DOAJ
language zho
format Article
sources DOAJ
title The Chip Cooling Model and Route Optimization with Digital Microfluidics
spellingShingle The Chip Cooling Model and Route Optimization with Digital Microfluidics
Xibei Gongye Daxue Xuebao
microfluidics
chip cooling
model
route analysis
ant colony optimization
electro-wetting
title_short The Chip Cooling Model and Route Optimization with Digital Microfluidics
title_full The Chip Cooling Model and Route Optimization with Digital Microfluidics
title_fullStr The Chip Cooling Model and Route Optimization with Digital Microfluidics
title_full_unstemmed The Chip Cooling Model and Route Optimization with Digital Microfluidics
title_sort chip cooling model and route optimization with digital microfluidics
publisher The Northwestern Polytechnical University
series Xibei Gongye Daxue Xuebao
issn 1000-2758
2609-7125
publishDate 2019-02-01
description Using microfluidic technology to achieve integrated chip cooling is becoming a promising method to extend Moore law effective period. The thermal management is always critical for 3D integrated circuit design. Hot spots due to spatially non-uniform heat flux in integrated circuits can cause physical stress that further reduces reliability. The critical point for chip cooling is to use microfluidic cooling accurately on the hot spots. First, based on electro-wetting on dielectric, the paper presents an adaptive chip cooling technique using the digital microfluidics. Then, a two-plans 3D chip cooling model has been given with its working principle and characteristics. And single plan chip cooling model is presented, including its capacitance performance and models. Moreover, the dentate electrode is designed to achieve droplet continuing movement. Next, the ant colony optimization is adopted to get optimal route during electrode moving. Last, the experiments demonstrate the adaptive chip cooling technique proposed in this paper is effective and efficiency.
topic microfluidics
chip cooling
model
route analysis
ant colony optimization
electro-wetting
url https://www.jnwpu.org/articles/jnwpu/full_html/2019/01/jnwpu2019371p107/jnwpu2019371p107.html
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