Four decades of research on thermal contact, gap, and joint resistance in microelectronics

The Keynote Paper reviews and highlights over 40 years of research on solutions for steady-state and transient thermal constriction and spreading resistances, and thermomechanical models for contact, gap and joint resistances of joints formed by conforming rough surfaces, nonconforming smooth surfac...

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Veröffentlicht in:IEEE transactions on components and packaging technologies 2005-06, Vol.28 (2), p.182-206
1. Verfasser: Yovanovich, M.M.
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description The Keynote Paper reviews and highlights over 40 years of research on solutions for steady-state and transient thermal constriction and spreading resistances, and thermomechanical models for contact, gap and joint resistances of joints formed by conforming rough surfaces, nonconforming smooth surfaces, and nonconforming rough surfaces. Microgap and macrogap thermal resistance and conductance models are reviewed, and important relations and correlation equations are presented. Contact microhardness, determined by Vickers indenters, are correlated and incorporated into the contact model for conforming rough surfaces. Microhardness parameters are correlated with Brinell hardness values. Elastoplastic contact models for joints formed by smooth sphere-smooth flat and conforming rough surfaces are presented. A simple thermomechanical model for microgaps occupied by oil, grease, grease filled with solid particles, and phase change materials such as paraffins is reviewed, and good agreement with recently published data is noted.
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subjects Contact
Contact resistance
Correlation
Elastoplasticity
Equations
Greases
Mathematical models
Microelectronics
Microgap and macrogap thermal resistance
Microhardness
Paraffins
Rough surfaces
Steady-state
Surface resistance
Surface roughness
Thermal conductivity
Thermal resistance
Thermomechanical processes
transient thermal constriction
Vickers indenters
title Four decades of research on thermal contact, gap, and joint resistance in microelectronics
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