Multi-Objective Optimisation TRIZ Cases

Probability-based multilayer grid maps allocate routing areas by routability, reducing path overlaps, VIA count, and route length.

See how B-spline control-point displacements modify curvilinear semiconductor layouts while preserving continuity and smoothness.

Measured impedance curves are split into resonant bands and iteratively fitted with RLC circuits for accurate EMI suppression models.

Aggregate cost function optimizes pin placement across multiple module instances, resolving congestion and blockage constraints.

Progressively decreasing threshold voltage enables nonlinear delay modeling that minimizes timing violations and computational expense during synthesis.

An integrated circuit placement method estimates congestion and pin density to perform targeted transformations on design objects.

Simulated annealing optimizes 3D IC block placement to resolve thermal and area trade-offs.

Segments pins into groups assigned to distinct main spine wires, minimizing parasitic capacitance and resistance caused by long single-track nets.

Multiple main spine wires navigate blockages and misaligned tracks, reducing parasitic capacitance.

Two-stage genetic routing analyzes intra-row and inter-row connections to resolve automation versus electrical performance trade-offs.

ESOP refactoring reduces logic levels by 83.3% and network size by 21.4%, resolving SOP limitations in XOR-heavy IC designs.

A universal power supply reinforcement cell connects high and low potential routings across adjacent columns in semiconductor designs.

Automated apparatus determines optimal component supply unit disposition within holding units using constraint condition information and reel counts.

Pre-calculated lookup tables replace iterative trial-and-error optimization, resolving timing constraint and synthesis speed contradictions.

Bayesian optimization reduces manual floorplanning time from hours to minutes while minimizing board surface area usage.