ABSTRACT
As manufacturing technologies continue to scale, it has become more difficult for modeling and simulation to accurately predict silicon timing behavior. This "unpredictability" can lead to low yield or it can be corrected by over-design, both are not desirable. To optimize a design process, one needs a set of models and tools that reflect the reality. In this talk, we take timing analysis as an example to illustrate a framework that aims to achieve this "design for reality" objective. This novel methodology utilize data mining techniques to identify the most relevant design features that impact the predictability of timing data. Experimental results based on industrial designs and silicon data will be presented to explain the data learning techniques their applications.
Index Terms
- Design for reality: knowledge discovery in design and test data
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