AlN 3D Thermal Packaging Project

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Description:

This proposal addresses the need for compact, lightweight packaging to cool high heat producing electronics. Technology Assessment & Transfer, Inc. (TA&T) proposes to develop three dimensional (3D) packages consisting of stacked AlN substrates with integral microstructured flow-through heat exchangers. Of the packaging materials in common use today, AlN offers the best coefficient of thermal expansion (CTE) match to Si and SiC semiconductor chips. By incorporating the primary heat removal functionality into the electrically-insulating ceramic substrate, this packaging approach eliminates the need for separate baseplates and heatsinks made of materials with dissimilar thermal expansion. In Phase I, advanced microstructured heat exchangers will be designed and fabricated. Heat transfer testing will verify analytical and computational predictions. Based on these results, specific NASA electronic module applications will be identified that demonstrate the benefits of this 3D packaging approach. Phase II will focus on designing/fabricating and testing power module designs based on the Cold Cube thermal packaging configuration. NASA applications include thermal packaging for high power microwave transmitters, power conditioning devices and high density avionics and MEMs packaging. http://datadiscoverystudio.org/geoportal/rest/metadata/item/8374ee17142545c695470d3da8231adf/html

Metadata

Name Value Last Modified
@context
  • @context:
  • @id: urn:TECHPORT_7338
  • @type: Dataset
  • additionalType:
    • geolink:Dataset
    • vivo:Dataset
  • citation: (2015-03-12), AlN 3D Thermal Packaging Project, urn:TECHPORT_7338.
  • creator:
  • datePublished: 2015-03-12
  • description: This proposal addresses the need for compact, lightweight packaging to cool high heat producing electronics. Technology Assessment & Transfer, Inc. (TA&T) proposes to develop three dimensional (3D) packages consisting of stacked AlN substrates with integral microstructured flow-through heat exchangers. Of the packaging materials in common use today, AlN offers the best coefficient of thermal expansion (CTE) match to Si and SiC semiconductor chips. By incorporating the primary heat removal functionality into the electrically-insulating ceramic substrate, this packaging approach eliminates the need for separate baseplates and heatsinks made of materials with dissimilar thermal expansion. In Phase I, advanced microstructured heat exchangers will be designed and fabricated. Heat transfer testing will verify analytical and computational predictions. Based on these results, specific NASA electronic module applications will be identified that demonstrate the benefits of this 3D packaging approach. Phase II will focus on designing/fabricating and testing power module designs based on the Cold Cube thermal packaging configuration. NASA applications include thermal packaging for high power microwave transmitters, power conditioning devices and high density avionics and MEMs packaging.
  • distribution:
  • identifier:
  • includedInDataCatalog:
    • @type: DataCatalog
    • name: Name of catalog source for record being transformed
    • url: not defined
  • keywords:
    • Jet Propulsion Laboratory
    • Project
    • completed
  • license:
    • @type: DigitalDocument
    • description: useLimitation: public.
    • name: MD_Constraints
  • name: AlN 3D Thermal Packaging Project
  • publisher: publisher not specified
Extracted by http://clowder.ncsa.illinois.edu/extractors/deprecatedapi on Oct 11, 2020
  • @context:
  • @id: urn:TECHPORT_7338
  • @type: Dataset
  • additionalType:
    • geolink:Dataset
    • vivo:Dataset
  • citation: (2015-03-12), AlN 3D Thermal Packaging Project, urn:TECHPORT_7338.
  • creator:
  • datePublished: 2015-03-12
  • description: This proposal addresses the need for compact, lightweight packaging to cool high heat producing electronics. Technology Assessment & Transfer, Inc. (TA&T) proposes to develop three dimensional (3D) packages consisting of stacked AlN substrates with integral microstructured flow-through heat exchangers. Of the packaging materials in common use today, AlN offers the best coefficient of thermal expansion (CTE) match to Si and SiC semiconductor chips. By incorporating the primary heat removal functionality into the electrically-insulating ceramic substrate, this packaging approach eliminates the need for separate baseplates and heatsinks made of materials with dissimilar thermal expansion. In Phase I, advanced microstructured heat exchangers will be designed and fabricated. Heat transfer testing will verify analytical and computational predictions. Based on these results, specific NASA electronic module applications will be identified that demonstrate the benefits of this 3D packaging approach. Phase II will focus on designing/fabricating and testing power module designs based on the Cold Cube thermal packaging configuration. NASA applications include thermal packaging for high power microwave transmitters, power conditioning devices and high density avionics and MEMs packaging.
  • distribution:
  • identifier:
  • includedInDataCatalog:
    • @type: DataCatalog
    • name: Name of catalog source for record being transformed
    • url: not defined
  • keywords:
    • Jet Propulsion Laboratory
    • Project
    • completed
  • license:
    • @type: DigitalDocument
    • description: useLimitation: public.
    • name: MD_Constraints
  • name: AlN 3D Thermal Packaging Project
  • publisher: publisher not specified

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