CAD Circuit Design TRIZ Cases

A universal package substrate accommodates multiple stacked silicon interconnect products with distinct top die configurations.

Encoding identification data directly into PCB wiring traces detects design duplication without increasing device complexity or reducing usability.

Analytical placement selects choice networks from multiple synthesis techniques to guide physical circuit implementation.

A processor acquires multiple circuit configuration pieces and executes reconfiguration processes in parallel across partial regions.

A single switch model with control logic simulates half-bridge circuits efficiently.

A voltage identifier adjusts the load line to optimize power delivery across different programmable logic configurations.

Optical projection via a digital light processing module modifies photoconductivity to map breadboard layouts onto PCBs, reducing manual jumper wire errors.

Virtual appliance templates enable automated commissioning by instantiating server copies, eliminating manual configuration and physical hardware maintenance.

A waveform propagation timing model uses moment matching to generate circuit element output waveforms for electronic design automation.

A trace compaction circuit selects valid data bits using enable signals and accumulates them into registers within emulation processor clusters.

A routing system estimates metal density to identify wiring nets sensitive to chemical mechanical polishing variations.

A decoupling capacitor insertion method identifies hot spots in integrated circuits using a sliding window scan to strategically place components.

Algorithm calculates metal density and line width within windowed layouts to reduce dishing defects in copper interconnects.

A method simulating non-shrinkable circuits at reduced scale to maintain original dimensions during integration with shrinkable blocks.

A design method determines sink current distribution for multi-height cells to generate accurate voltage drop and electro-migration analysis results.

Design software segments circuit resources into active and inactive regions, disabling clock signals for unused blocks to resolve thermal management issues.

A netlist resynthesis system reuses optimized synthesis results from previous compilations to minimize logic processing.

A preprocessing method segments circuit netlists into word-level signals to reduce data structure size.

Switching ASICs route data bits dynamically across emulation logic boards, eliminating unnecessary hops and optimizing resource utilization.

Pattern-based replacement of specific element sections in a semiconductor circuit layout prevents unintended modifications and reduces simulation time.

A graphical user interface displays proposed trim mask shapes to resolve line end design rule violations in electronic circuit layouts.

Heuristic rules filter false paths before analysis, reducing processing time and computational resources.

Automated recipe offset adjustment tunes semiconductor manufacturing tools, preventing human error and costly corrections at sub-65 nm nodes.

Converting packet processor rules into Petri nets to identify feasible execution orders without exponential analysis complexity.

An interface sniffer captures transactions to drive a simulator reference model, reproducing hardware states without consuming FPGA capacity.

Applying a marking layer to existing layouts adapts fin FET dimensions without redesign, reducing time while maintaining constant pitch.

Equations-based solver defines damping ratios and settling time to ensure stable circuit operation without trial-and-error.

Unequal delay shifts in digital signals represent analog reference voltages, enabling fast DRAM calibration validation without slow analog simulation tools.

A CNN accelerator uses reconfigurable processing elements to execute convolution, deconvolution, and backpropagation operations on shared hardware.

A computer-executable design framework configures parametric analog integrated circuit elements through automated parameter setting.

Integrates functional analysis with common path pessimism removal to eliminate unnecessary computational overhead in static timing analysis.

A logic circuit generation device converts programming language descriptions into Register Transfer Level outputs using control and data flow graphs.

Decomposing semiconductor conflict graphs determines mask colorability, reducing design time and increasing manufacturing efficiency.

Clock mesh designs adjust skew buffers to set common latency, minimizing timing jitter in high-frequency digital circuits.

A method generates Register Transfer Level images from code constructs to identify cloned fragments through visual pattern matching.

Automated selection of recent delay-definition data structures rejects stale or corrupted Nominal Delay Rules to ensure accurate timing analysis.

Electronic system level simulation models battery discharge using high-level software to predict power consumption accurately.

A synthesis tool manages hardware resource assignment during RTL compilation.

Segmenting a chip into regions reduces the geometric growth of computational complexity while maintaining full chip leakage current estimation accuracy.

A value converter synchronizes power supply network and HDL descriptions by translating voltage values between formats.

An integrated circuit design method applies electrical patterning modifications to layout geometries based on combined electrical and optical parameters.

Automated circuit design system analyzes netlist files to identify candidate nodes and verify anti-interference connections.

A Pareto-Optimization Framework determines optimal link allocations in network-on-chip architectures.

A sliding temporal window samples signal value combinations to generate syntactically correct assertions for formal verification.

Anchor bar patterns align with stripe edges to generate mandrel layouts, eliminating separate cluster calculations that increase processing time.

A symbolic connectivity netlist bridges Register Transfer Logic and physical layout designs.

An implementation set abstraction unifies partial net-lists across heterogeneous FPGA design flows.

A simulation method divides large integrated circuits into sub-circuits and generates function correspondence relation formulas for periodic waveforms.

A clock emulator generates jittered signals to simulate real-world timing variations in integrated circuits.