• DocumentCode
    83740
  • Title

    Study of Response Surface Methodology in Thermal Optimization Design of Multichip Modules

  • Author

    Jian Zhang ; Donglai Zhang

  • Author_Institution
    Shenzhen Grad. Sch., Harbin Inst. of Technol., Shenzhen, China
  • Volume
    3
  • Issue
    12
  • fYear
    2013
  • fDate
    Dec. 2013
  • Firstpage
    2075
  • Lastpage
    2080
  • Abstract
    A 3-D model of multichip module (MCM) is built with ANSYS and the temperature field distribution is studied. A regression equation describing the relationship of structure parameters and material properties with the maximum chip junction temperature of MCM is made, which integrates the response surface methodology and ANSYS. Quantitative analysis of the effect of four design parameters on the maximum chip junction temperature of MCM is studied. The four design parameters are the thickness of the substrate, thermal conductivity of the substrate, thermal conductivity of the thermal grease, and convection heat transfer coefficient, respectively. The accuracy and validity of the regression equation are validated by simulation with ANSYS. In addition, the maximum error between the calculation value of the regression equation and the simulation value with ANSYS is 0.541°C. With the regression equation, the thermal optimization design results of the four parameters are Ktg = 5 W/m°C, δ = 2.5 mm, Ks = 290 W/m°C, and h = 55 W/m2°C, which lead to the maximum chip junction temperature Tjmax = 89.172°C as the minimum value.
  • Keywords
    convection; integrated circuit design; integrated circuit modelling; integrated circuit packaging; multichip modules; regression analysis; response surface methodology; temperature distribution; thermal conductivity; thermal management (packaging); 3D model; ANSYS; MCM; convection heat transfer coefficient; design parameters; material properties; maximum chip junction temperature; multichip module; quantitative analysis; regression equation; response surface methodology; structure parameters; substrate thickness; temperature field distribution; thermal conductivity; thermal grease; thermal optimization design; Finite element analysis; Mathematical model; Multichip modules; Optimization; Substrates; Thermal conductivity; ANSYS; multichip module (MCM); optimization design; response surface methodology (RSM);
  • fLanguage
    English
  • Journal_Title
    Components, Packaging and Manufacturing Technology, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    2156-3950
  • Type

    jour

  • DOI
    10.1109/TCPMT.2013.2271244
  • Filename
    6579684