Title :
Parameterized physical compact thermal modeling
Author :
Huang, Wei ; Stan, Mircea R. ; Skadron, Kevin
Author_Institution :
Charles L. Brown Dept. of Electr. & Comput. Eng., Univ. of Virginia, Charlottesville, VA, USA
Abstract :
This paper presents a compact thermal modeling (CTM) approach, which is fully parameterized according to design geometries and material physical properties. While most compact modeling approaches facilitate thermal characterization of existing package designs, our method is better suited for preliminary exploration of the design space at both the silicon level and the package level. We show that our modeling method achieves reasonable boundary condition independence (BCI) by comparing a CTM example with a BCI model for a benchmark ball grid array single-chip package under the same standard set of boundary conditions. In essence, the presented CTM method can act as a convenient medium for enhanced interactions and collaborations among designers at the package, circuit and computer architecture levels, leading to efficient early evaluations of different thermally-related design trade-offs at all the above levels of abstraction before the actual detailed design is available. The presented modeling method can be easily extended to model emerging packaging schemes such as stacked chip-scale packaging and three-dimensional integration.
Keywords :
VLSI; ball grid arrays; chip scale packaging; integrated circuit design; integrated circuit modelling; network analysis; semiconductor device models; thermal analysis; thermal management (packaging); 3D integration; ball grid array single-chip package; boundary condition independence; chip scale packaging; compact thermal modeling; design geometries; material physical properties; package designs; thermal design trade-offs; Boundary conditions; Chip scale packaging; Circuits; Collaboration; Computer architecture; Design methodology; Electronics packaging; Geometry; Silicon; Solid modeling; Boundary condition independence (BCI); compact thermal model (CTM); package design; parametrization; temperature;
Journal_Title :
Components and Packaging Technologies, IEEE Transactions on
DOI :
10.1109/TCAPT.2005.859737