Computer Aided Design TRIZ Cases

Automated generation of an auxiliary verification statement prevents power domain transition interference without cluttering functional specifications.

Compilation advisor selects parameter values to generate optimized emulator models from register transfer level circuit designs.

Selective layout adjustments increase via-to-wire spacing to reduce dielectric stress and enhance time-dependent breakdown reliability.

Parallel alignment of power distribution metal lines with CFET gates reduces parasitic capacitance without increasing IC area.

A partition-aware grid graph aligns routing lines with circuit boundaries to enable precise wire placement.

A semiconductor design system extracts simulation voltage data and incorporates it into the layout to generate modified designs.

Tree diagrams and cross probing highlight hierarchical locations to resolve time-consuming debugging of complex mask layouts.

Clustering super-long lines into bins optimizes wirelength, congestion, and timing while reducing runtime.

A semiconductor design method divides chip layouts into unit regions to balance interconnection density across the matrix.

A method generates clock gating circuitry by determining Boolean expressions of observability conditions for interconnected gate elements.

Inserting break registers clocked by a relaxation clock detects value mismatches across combinational loops to identify instability events.

A bounded deadlock check uses radius parameters to verify digital circuit states without exhaustive simulation.

Distance calculation identifies the closest element to a cursor, eliminating precise mouse movements required for CAD object selection.

A routing engine segments layout space into discrete grid cells to process interconnects at a higher abstraction level.

Concurrent source wave expansion reduces router runtime and improves routing quality for programmable ICs.

Automated pipelining resolves manual errors in large memory systems by calculating optimal delay register placements based on input latency constraints.

Virtual partition cells divide parent cell workloads to enable distributed processing in integrated circuit design verification.

A protocol proxy bridges hardware emulators and software simulators, resolving latency constraints during complex circuit verification.

An automated electrical design rule checking system acquires parasitic parameter netlists and circuit simulation results to verify integrated circuit compliance.

Multi-phase timing models analyze max delay, false, and multi-cycle paths within partition blocks to enable synchronized clock and data path budgeting.

Partial rings with large decoupling capacitors in critical areas reduce voltage drops while maintaining engineering change order flexibility.

Sharing inductive invariants across formal verification engines reduces search space and speeds up proving complex circuit properties.

A sensor device model generates accurate simulated output signals by replicating real electrical circuit properties.

Segments HDL models into partitions and caches signal data to resimulate only relevant sections, reducing storage demands while maintaining trace completeness.

Rasterizing curvilinear edges into pixel definitions resolves critical dimension accuracy deterioration in optical lithography manufacturing.

Simulation application generates dynamic thermal maps from time-varying power consumption data.

Extension regions connect standard cells of varying heights within a single cell row.

A timing analysis method merges context across multiple cell instances to calculate pseudo-slack and apply timing credits.

Concurrent repeated block modification enables global routing through flyover spaces for chip design.

Segmenting mixed-signal designs into fault-sensitive sub-circuits improves analog fault coverage while lowering computational complexity.

Segmenting massively parallel tie net data simplifies routing complexity, reducing processing time while preserving original design integrity.

ModelPlex synthesizes runtime monitors to verify system execution compliance with verified models.

A bus routing tool generates escape nodes to construct a three-dimensional routing solution graph for automated signal path determination.

A dynamic voltage drop analysis system constrains random signal toggling using pre-computed correlation groups to improve simulation realism.

Static timing analysis system concurrently models multiple timing delays within a single run.

Distributed netlist arrangement places circuit components within FPGA configurations, eliminating rigid Pblock constraints that increase test effort and costs.

Calibrates drift-diffusion model parameters to reduce computation time while maintaining simulation accuracy.

A learning component improves capacitance and resistance estimates using recommended test sets.

Pre-calculated tables retrieve optimal buffer parameters to resolve poor delay optimization in high fan-out nets.

Computing statistical delay distributions for cell families reduces design conservatism and improves performance.

Applying periodic voltage pulses with low duty cycles traverses high-current regions before heat accumulation degrades measurement accuracy.

Terminator cells placed at logic cell boundaries replace deep well structures to reduce silicon footprint.

A logic simulation verification system calculates signal change timing to detect potential contention states before execution.

A timing signoff module automatically prioritizes integrated circuit timing violations to guide design fixes.

Window partitioning replicates sources near load pins to resolve timing requirement failures caused by inaccurate delay estimation.

A semiconductor design support device calculates block latency using RTL descriptions generated from behavioral algorithms.

Widened metal interconnects on higher layers create equivalent tapping points for clock signals, reducing current density and mitigating SEM noise.