Computer Aided Design TRIZ Cases

Multi-pass method generates fill patterns with forbidden areas to constrain structural placement during circuit layout.

Dynamic programming identifies breaking points to assign tracks, reducing blockage violations and wire overlap in circuit designs.

Dynamic 3D routing adjusts wire traits to enhance signal integrity.

Standardized clock buffer grid automatically routes signals across application specific integrated circuit partitions.

Standard dummy boundary cells form rings around functional circuits, reducing chip area while maintaining strict design rule compliance.

Generating a virtual power grid from a reference macro automates alignment, resolving manual precision issues in IC design.

Abstract module models replace detailed internal structures, reducing memory footprint and verification time during hierarchical SoC analysis.

Identifies short circuit locations by assigning IDs to layout designs, resolving imprecise LVS tool highlighting.

A computational accelerator segments model statements to propagate changes based on linkage strength.

Analog circuit simulator converts voltage and current variables into time functions for simulation.

Graph tracing and breadth-first search identify double patterning loop violations in integrated circuit design layouts.

Halo-based segmentation isolates modified design regions for targeted re-extraction, eliminating computational waste from processing unchanged sections.

This verification system corrects microbump mapping discrepancies between stacked dies, reducing debugging time and eliminating manual error-prone inspection processes.

Estimating inductance from parallel and non-parallel wires generates accurate RLC models, resolving signal propagation delay inaccuracies in wide interconnects.

A circuit layout apparatus analyzes routing congestion and disposes virtual blockages to reserve space for device placement.

Existing layout objects include gap shape attributes to derive properties without separate gap objects.

A design system generates net lists from candidate pins to automate routing between semiconductor device elements.

A graph-based engine selects discrete component modifications to reduce integrated circuit power consumption.

Discrete time-step analysis captures state-dependent degradation recovery in FinFET devices, overcoming the accuracy limits of simple mathematical models.

A circuit simulation system calculates integrated circuit aging parameters using embedded measurement commands within a process design kit.

A parallel simulation method segments analog circuit time into overlapping intervals processed concurrently to reduce transient analysis duration.

Analyzes component failures and interconnect attributes to verify fault independence, reducing system complexity and power consumption.

Master-slave architecture segments netlists for parallel execution, reducing design time while minimizing data transmission overhead.

Redundant partition assignments preserve timing path integrity while reducing static timing analysis runtime and memory requirements.

A method corrects static timing models using calculated delay errors from unbalanced circuit elements.

Transform transistor parameters using DDC architecture to reduce leakage current and threshold voltage variability during process porting.

Intermediate representation dependency analysis generates buffer constraints that minimize inter-core communication and prevent deadlock conditions.

A statistical timing model merges timing arcs to reduce graph complexity, improving accuracy while lowering computational overhead.

A testbench restoration system records messages and emulator state to enable rapid checkpoint recovery.

Dynamic thread adjustment based on node grouping sizes reduces exponential analysis time while maintaining timing accuracy.

A gridless routing algorithm partitions and merges IC tiles to optimize signal paths across the layout.

Automatic hierarchy-independent partitioning method identifies cut points in transistor-level circuit simulation using topological analysis and sparse solvers.

A design methodology automatically adds logical clock connections to simplified hardware description language files.

A force directed analytical placer assigns components to grid cells based on control set overlap forces.

Automates clock signal instantiation and routing within integrated circuits using hardware design synthesis data.

A design editor displays virtual objects from multiple perspectives in a 3D space to enable real-time adjustments.

Voltage association data objects attach voltage values to drawn layers, reducing computational time during electronic design verification.

A layout checking system extracts multiple-patterning group assignment information from circuit design files to verify consistency with predefined constraints.

Segmenting the anti-ferroelectric element into functional blocks resolves the lack of device models for accurate circuit simulation.

Topological structure comparison identifies inappropriate wiring, reducing manual inspection time while maintaining measurement precision.

A voxel-based router generates wiring routes using electromagnetic simulations.

Segmenting linear and nonlinear components via voltage-dependent functions resolves complexity issues while maintaining high simulation precision.

This approach simplifies the design process by enabling logical module reuse across layers, reducing complexity and time required for placing connections.

A clock skew calculation method subtracts nearest common ancestor skew to determine accurate timing parameters.

A design support device extracts Boolean expressions to identify steady-state flow-through currents in LSI circuits.

A design automation system generates synchronous clones by binding schematic master cells to layout instances without parsing the entire electronic design.

A clock tree synthesis tool selects components with matched propagation delays to optimize timing constraints.

An automated tool selects and generates error mitigation logic for electronic system designs using a library of techniques.

Mapping wearer mobility resolves tightness restrictions by creating targeted design adjustments that enhance comfort during repetitive work movements.