IEEE Transactions on Very Large Scale Integration (VLSI) Systems · 2003 · 68 citations · 12 references
EngineeringComputer EngineeringLow-power DesignThermal AnalysisVlsi DesignHeat Transfer ModelingIntegrated Circuit DesignPhysical DesignPower ManagementThermal SimulationTiming AnalysisElectro-thermal ModelingPower DensitySimulation AlgorithmsThermal Effects In Integrated CircuitsThermal Transient ResponseTransient Thermal AnalysisTransient Thermal BehaviorVery-large-scale Integration
Due to the dramatic increase of clock frequency and integration density, power density and on-chip temperature in high-end very large scale integration (VLSI) circuits rise significantly. To ensure the timing correctness and the reliability of high-end VLSI design, efficient and accurate chip-level transient thermal simulations are of crucial importance. In this paper, we develop and present an efficient transient thermal-simulation algorithm based on the alternating-direction-implicit (ADI) method. Our algorithm, thermal-ADI, not only has a linear run time and memory requirement , but is also unconditionally stable, which ensures that time step is not limited by any stability requirement. Extensive experimental results show that our algorithm is not only orders of magnitude faster than the traditional thermal-simulation algorithms, but also highly accurate and efficient in memory usage.
12
A general formulation of alternating direction methods
Jim Douglas, James E. Gunn · Numerische Mathematik · 1964 · 711 citations
Kaustav Banerjee, A. Mehrotra · IEEE Circuits and Devices Magazine · 2001 · 195 citations
Engineering, Computer Engineering, Electrical Engineering +17