A 32nm 0.5V-supply dual-read 6T SRAM
Jente B. Kuang, J. Schaub, et al.
CICC 2010
This paper presents a computationally efficient means for estimating parametric timing yield and guiding robust design-for-quality in the presence of manufacturing and operating environment variations. Computational efficiency is achieved by basing the proposed methodology on a post-processing step applied to the report generated as a by-product of static timing analysis. Efficiency is also ensured by exploiting the fact that for small processing/environment variations, a linear model is adequate for capturing the resulting delay change. Meaningful design guidance is achieved by analyzing the timing-related influence of variations on a path-by-path basis, allowing designers perform a quality-oriented design pass focused on key paths. A coherent strategy is provided to handle both die-to-die and within-die variations. Examples from a PowerPC microprocessor illustrate the methodology and its capabilities.
Jente B. Kuang, J. Schaub, et al.
CICC 2010
Rouwaida Kanj, Rajiv Joshi, et al.
DAC 2006
Manjul Bhushan, Anne Gattiker, et al.
IEEE Trans Semicond Manuf
Bo Wan, Emrah Acar, et al.
BMAS 2004