Geometric CAD TRIZ Cases

A software-based system simulates interdependencies between multiple critical physical infrastructure models using intelligent agents.

Sensitivity analysis determines optimal dividing positions for automotive parts to enable precise sheet thickness optimization.

A surface generation device moves a profile curve to define a guide line as the locus of curvature for efficient modeling.

A digital twin system simulates rig assembly, disassembly, and component transport to optimize operational workflows.

Auto-transpose replication creates rectangularized lists and rotates index trails to replicate geometric entities accurately.

A shape optimization method creates an optimization block model connected to a structural body model.

A model tree combines history-free parent nodes with history-based child nodes for unified 3D modeling.

Centralized digital prototypes eliminate interpretation variations among local teams, reducing rework costs and improving manufacturing precision.

Virtual vehicle models incorporate aged adhesive coupon data to predict crash performance and validate design feasibility against real-world standards.

Merges functional safety criteria with register transfer level design to automate error detection and ensure compliance during placement and routing.

A bioinspired structural element integrates functional components within accommodating spaces to maintain load topology.

A PDM system groups 3D model components into equivalence classes to preserve symmetry relationships during editing.

A distributed attitude control system segments controllers across joined spacecraft entities to manage torque requirements through compliant coupling interfaces.

A curve editing method infers geometric relationships and modifies selected curves while managing transient constraints.

A battery model construction method raises usage history parameters to optimal exponents for accurate degradation prediction.

An AI system generates virtual representations of AEC smart constructs through computational simulations.

Randomized porous structures balance orthopedic implant strength with tissue ingrowth porosity by mimicking trabecular bone connectivity.

A relay node simulator visualizes positional relationships between base stations, relay nodes, and terminals to generate accurate test signals.

A method parameterizes a 3D mesh in a 2D plane and assigns vertices to grid intersections for lossless compression.

Forecasting system selects relevant failure models based on engine age and operational parameters to determine specific maintenance intervention levels.

Machine learning algorithms replace iterative mechanical processes by simultaneously optimizing structural strength and design complexity.

A fracture prediction device calculates effective width at predetermined intervals to model spot welded portion behavior during deformation.

A method defines fluid movement using an elliptical trajectory model to calculate center of gravity forces.

Additive manufacturing fabricates integrated heat pipes with varying porosity to merge wick and solid structures.

A simulation method derives plastic strain incremental ratios from smoothed differential strain values to represent metal flow direction.

Backpropagating errors through a differentiable simulation graph synthesizes control parameters that satisfy complex non-monotonic temporal properties.

Co-simulate chip, package, and board power models using adaptive meshing to reduce computational overhead for complex PDN analysis.

A drawing tool maps stylus inputs to 3D features via image recognition and depth adjustment.

CFD analysis identifies a 2-degree angle of attack for MQ-9 Reaper wings, resolving the lift versus drag trade-off to improve fuel consumption.

A computer-implemented method identifies common material properties and geometric constraints to determine a generic repair component for structural parts.

A turbine measurement controller determines material parameters for rotors using radial node temperature data.

Automated design rules validate 3D utility network parts during construction, eliminating manual compliance checks and reducing engineering effort.

Compiler calculates remaining useful life by dividing forecasted reliability by actual reliability derived from vehicle sensors.

Virtual copying replaces physical swatches to visualize infinite particle configurations without time-consuming sample creation.

Modification algorithm optimizes concrete panel connecting element placement to resolve static validity and assembly feasibility contradictions.

A fabric construction calculator selects yarn and weight parameters to achieve a target softness factor.

A concurrent project delivery system generates interactive 3D workspace layouts using modular design components.

Virtual asset models display coating effects under varied lighting to resolve color mismatch errors and reduce financial waste.

An electronic device calculates common supercell information by converting real lattice matrices into complex plane representations.

Iterative equilibrium calculations adjust transferred stress tensors to maintain shape fidelity across incompatible finite element meshes.

A computer-implemented method refines 3D model scene points by transferring computational tasks to a server for higher information value.

A spinning-pattern setting apparatus generates pictorial data from entered yarn parameters to display visual patterns on a screen.

A design support method converts diverse wiring information into standardized formats for wire harness creation.

Thermopile sensor modules detect infrared energy to determine location coordinates and track human movement trajectories within an environment.

A hemispherical heating and temperature measuring device simulates reactor pressure vessel heat exchange characteristics.

Indexing 3D surfaces as function-attributed elements resolves information loss in complex organic shapes by enabling direct manufacturing data transfer.

Generative design application modifies constraints based on virtual reality feedback to produce optimized layouts.

Partitioning floor outlines into segments reduces computational complexity of finite element analysis while exploring the design space.