CAD Circuit Design TRIZ Cases

A graphical representation maps circuit path commonality and criticality scores to identify performance bottlenecks in emulation systems.

Renaming mapped memory instances resolves complexity from diverse customer designs while maintaining precise timing and layout models.

A timing model establishing method identifies victim and aggressor paths to selectively remove non-critical circuit elements.

Merges adjacent range bins using interval tree logic to eliminate unnecessary circuitry, reducing memory usage and compilation time.

A high level modeling system extends electronic modules at runtime using higher order functions for dynamic configuration.

Smart decloning clusters clock-gater cells to reduce power consumption while maintaining timing accuracy in clock mesh designs.

A design tool converts block models into high-level language specifications for circuit implementation.

Embedded conducting elements split high electric field spikes to reduce premature breakdown in high-voltage semiconductor devices.

Hierarchical nesting automates signal handling across related printed circuit boards, resolving manual listing errors.

Implementation scripts dynamically configure programmable integrated circuits, eliminating manual HDL editing to reduce modification time.

Precomputed convolution values in lookup tables replace intensive DFT calculations, reducing processing time while maintaining alias-noise suppression accuracy.

Weighted K-means clustering groups flip-flops to minimize displacement, reducing clock network power consumption.

Constructing a logic network from power intent specifications generates refutation proofs to identify inconsistent constraints causing rule check failures.

Varying transistor threshold voltage levels within a common design framework reduces mask set costs and development time for complementary IC families.

A configurable logic design method uses a multiplexor to bypass sequential components between logic stages.

A shell circuit design abstracts platform details to accelerate user implementation.

Segments random logic into replicated blocks to achieve deterministic performance while increasing device utilization past 85 percent.

A DRC tool optimizes rule check ordering and limits processing time for early-stage IC layout designs.

A compilation tool automatically instantiates interrupt controller logic for IP cores within FPGA designs.

Dynamic instruction generation reduces compile times by separating source code into HDL and host portions.

A mobility multiplier models shallow trench isolation stress in silicon-on-insulator devices using body-tie enclosure parameters.

Processor compares execution times and adjusts PLD logic circuit parallelism to resolve bus bandwidth bottlenecks during dynamic reconfiguration.

Extracting hierarchical crossing path exceptions into block views eliminates pessimism in top-level implementations, reducing unnecessary optimization overwork.

A data mapping node translates routing field values to enable flexible reuse of integrated circuit nodes across different network topologies.

A G-function processor optimizes geometric layout parameters for semiconductor power cells to achieve target electrical conductivity.

Extract step response data from encrypted SPICE models to drive ADS channel simulators, resolving accuracy loss caused by unavailable chip models.

A synthesis method converts register transfer level assert statements into netlist elements for prototyping platforms.

Capturing emulation timestamps within the simulation domain resolves time correlation gaps between independent hardware and software engines.

Automates circuit conversion between simulation programs by mapping components and formatting connections, eliminating manual reentry time.

A design supporting apparatus models semiconductor ICs as current sources to calculate electromagnetic interference against evaluation board circuits.

Electronic design automation program recognizes display panel binding pin signal identifiers and generates corresponding circuit board identifiers.

A simulation model generation system extracts I/O buffer settings and environmental conditions to create accurate IBIS models.

A hierarchical timing model partitions integrated circuit designs to enable independent parallel analysis of top level and partition netlists.

Forking a suspended child process preserves simulation state in memory, eliminating slow disk I/O during re-simulation.

Automated conversion of planar designs into timing-closed FinFET layouts resolves race conditions through dynamic delay adjustments, reducing mask costs.

A graphical user interface retrieves input interface timing parameters to automatically generate ideal timing constraints for programmable logic devices.

Algorithmic region selection reduces electrical simulation time while maintaining accuracy for high-speed signal paths.

Combines hardware accelerator timing with processor execution data to evaluate design performance without full implementation.

A layout effect model determines constraint values to optimize semiconductor circuit placement and routing.

Extracted traffic scenario data enables performance evaluation of complex system architectures without requiring detailed hardware implementation knowledge.

Generates a unified timing netlist for base and target configurations to enable precise timing closure during a single compilation pass.

An encrypted simulation model activates probes to collect data and perform smart diagnosis.

Combines static timing analysis and dynamic simulation to filter false paths and resolve crosstalk correlations in integrated circuit designs.

A computing system extracts sequence items from assertion statements to generate state representations for circuit simulation verification.

Segmenting the clock tree into upper and lower structures reduces on-chip variation impact on clock skew while balancing latency and power consumption.

Dummy modules map hierarchical RTL names to flattened gate-level signals, restoring visibility lost during synthesis.

Linear programming solves bipartite matching for commutative-associative inputs, reducing wire length and routing congestion in VLSI netlists.

A 3D master equation simulation models charge transport and recombination in disordered organic semiconductors.

A computer implemented method translates indirect branch contribution statements into direct operators to generate a netlist for electronic design.