Parallel Monte Carlo simulation on representative basic circuits cuts runtime while improving chip yield estimation accuracy in advanced processes.
Proactive randomization in Monte Carlo simulation escapes local optima and accelerates convergence.
Redefines clock and data routing parameters into proxy compacted parameters, reducing runtime overhead in statistical static timing analysis.
A spatial correlation method estimates integrated circuit yield using Gaussian random components for focus and dose variations.
Regression analysis interpolates spatial process variation for integrated circuit design, eliminating time-consuming direct measurements under new conditions.
Statistical timing analysis models delay distributions to drive logic changes, resolving static timing inefficiencies and improving design reliability.
Segmenting circuits into strongly connected components lowers computation time while maintaining characterization accuracy.
An adaptive classification system computes bin thresholds from slope changes in discrete probabilistic scores to assign data segments.
A statistical static timing analysis method models circuit delay using normalized skewness values to capture asymmetric on-chip variation distributions.
Clustering registers by timing criticality creates shared clock paths that reduce skew and power consumption under on-chip variations.
A worst-case distance method identifies statistical corners in circuit design to adjust parameters and improve yield.
Static timing analyzer calculates stage delay variation via covariance modules to resolve inaccurate local random variation impact.
A circuit simulation method uses importance sampling to select targeted data points.
Regression-based models approximate electrical simulations to reduce computational load while maintaining reliability through iterative precision verification.
A computer-implemented method identifies components with strongest parameter variations affecting circuit performance using topological patterns.
Multi-tier domain pre-characterization accelerates floating random walk capacitance extraction across complex semiconductor structures.
Statistical static timing analysis identifies at-functional-speed test robust paths for integrated circuit evaluation.