Applied Mechanics Reviews · 1994 · 75 citations · 22 references
EngineeringMaterials EngineeringMaterials ScienceHeat TransferMaterials CharacterizationSensorsCoatingsHeat ConductionHeat Transfer In SolidsTemperature MeasurementThermal Properties Of MaterialsThermal SensorsEffective Thermal ConductivityMicrofabricated SensorsNon-contact MeasurementNon-contact Temperature MeasurementOptical CoatingsThermal ConductivityThermal Conductivity MeasurementsThermal Infrared Detectors
The thermal conductivities of solid layers of thicknesses from 0.01 to 100 μm affect the performance and reliability of electronic circuits, laser systems, and microfabricated sensors. This work reviews techniques that measure the effective thermal conductivity along and normal to these layers. Recent measurements using microfabricated experimental structures show the importance of measuring the conductivities of layers that closely resemble those in the application. Several promising non-contact techniques use laser light for heating and infrared detectors for temperature measurements. For transparent layers these methods require optical coatings whose impact on the measurements has not been determined. There is a need for uncertainty analysis in many cases, particularly for those techniques which apply to very thin layers or to layers with very high conductivities.
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Introduction to Solid State Physics
C. Kittel, Heng Fan · American Journal of Physics · 1957 · 22.4K citations
Ed Swartz, R. O. Pohl · Reviews of Modern Physics · 1989 · 2.9K citations
M. Nonnenmacher, M. O’Boyle, H. K. Wickramasinghe · Applied Physics Letters · 1991 · 2.3K citations
Natural Sciences, Materials Engineering, Materials Science +17
Thermal resistance at interfaces
Ed Swartz, R. O. Pohl · Applied Physics Letters · 1987 · 404 citations