A Fast Nonlinear Timing Analysis Method for Nanometer Technologies
Ruijing Shen, Xiangqing He
Abstract
Ruijing Shen, Xiangqing He
Abstract
Timing analysis method needs to be both accurate and efficient, especially for the submicron VLSI circuit designs. In this paper, a fast high-accuracy timing analysis method is presented. Nonlinear current-based cell delay model is utilized, which can achieve the goal of accurate nanometer timing including voltage and temperature variation. At the same time, we choose a quick reduced-order network model to keep this method efficient. Experimental results in a 90 nm technology show that the delays are accurately estimated, while the running time and memory cost is at a low level.
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Timing analysis method needs to be both accurate and efficient, especially for the submicron VLSI circuit designs. In this paper, a fast high-accuracy timing analysis method is presented. Nonlinear current-based cell delay model is utilized, which can achieve the goal of accurate nanometer timing including voltage and temperature variation. At the same time, we choose a quick reduced-order network model to keep this method efficient. Experimental results in a 90 nm technology show that the delays are accurately estimated, while the running time and memory cost is at a low level.
Key concepts: Static timing analysis, Very-large-scale integration, Computer science, Nonlinear system, Nanometre, Electronic engineering, Network analysis, Electrical engineering