Geometric CAD TRIZ Cases

Automated boundary line closing corrects offset connections from measurement errors, maintaining dimensional accuracy during rapid model generation.

Automated route searcher calculates costs based on current and design topography data to identify optimal construction paths.

Local quality principles guide cutter selection to minimize impact damage and lower manufacturing costs.

Video cameras scan markers to calculate distances, enabling precise comparison of structure elements with design coordinates while reducing construction time.

A dual-criterion diagram method assesses high-cycle fatigue life and strength of rotating components.

RF sensors and access points generate heat-maps to guide seating allocation, resolving unpredictable signal interference in crowded venues.

Parametric truss objects regenerate structural members automatically when users modify endpoints or attach to other geometry.

A gradient-based optimization method modifies CAD parameters using computed sensitivities to navigate the design space efficiently.

Segment wire harnesses into distinct impedance zones to reduce deviations between measured and simulated values.

Machine learning models predict feasible designs from a component library, reducing numerical complexity and accelerating electrical circuit development cycles.

Simulating water flow on 3D structure models identifies entry points to reduce flood insurance costs.

A maintenance system calculates blade remaining useful life through debonding damage and fatigue crack growth simulations.

Automated proofing tools extract items from CAD models and compare them with process-specific rules to flag non-manufacturable components before production.

Iterative computer analysis determines preferred sensor placement and orientation for accurate strain measurement on nonlinear component surfaces.

System integrates customer preferences with CAD to automatically generate 3D vehicle layouts, eliminating manual modeling steps.

A dynamic grid adjusts spacing and orientation based on previously drawn objects.

A digital last modifies predefined axes via translation and rotation to match individual foot geometry.

A computer system processes user location preferences to determine optimal alternative energy vehicle supply station sites.

Finite element analysis model for aircraft parts uses convex hull calculation to identify critical load cases.

A modular design method calculates fuel cell stack count and secondary battery capacity to meet drive motor output requirements.

Identifies selected differences between design expressions using color changes and dimensional visualization to resolve change identification complexity.

A multi-scale modeling system simulates fluid and thermal parameters using artificial neural networks to optimize cooling designs.

Positioning formation-engaging elements at specific radial distances optimizes directional control while managing wear during earth-boring operations.

A database access computing device uses a 3D model to retrieve and display aircraft part information, resolving data fragmentation across separate systems.

A 3D shoe upper model flattening algorithm maps design grids to production patterns while preserving shape integrity.

Automated component fault trees correlate operational and diagnostic failure events, eliminating manual identification of dormant system states.

Digital scanning captures ear geometry to generate a custom-fit appliance, resolving fit issues that compromise hearing protection reliability.

An unpack trigger variable re-unpacks messages in a real-time computing device buffer to maintain signal value consistency.

A computer-implemented method predicts laminar to turbulent flow transition using pre-computed instability growth rates and regressor weights.

Tuning physics-based aerodynamic and engine models using flight data measurements for specific aircraft assets.

Extracts ply lay-up data from 3D models to generate 2D drawings, avoiding sensitive information exposure.

Segmenting the image database reduces analysis time while maintaining identification accuracy for roof damage assessment.

A method subdivides large mesh representations into patches to fit partial NURBS surfaces with boundary continuity constraints.

A tensioning method for tensegrity keels uses iterative adjustments to achieve self-equilibrium states.

Modular segmentation and intermediary modules allow users to select removable components, reducing configuration complexity while maintaining adaptability.

A 3D contriver tool creates geometric forms using intuitive finger gestures on multi-touch devices.

Merges separate digital models into a single part via topology optimization, reducing assembly complexity and production costs.

A system calculates spatial boundaries from depth data to generate accurate 3D representations of indoor environments.

A deep-learning generative model outputs 3D mechanical parts using a dataset of modeled objects.

A directed graph pathway model maps cell locations to nodes and edges for generating route data in physical systems.

A graph-based method defines stereolithography support structures using connected acyclic graphs to pair elongated elements and reinforcing bars.

Blind source separation isolates individual noise sound contributions from mixed signals recorded by reference and target microphones.

Application replaces manual calculations with automated structural analysis to determine tower integrity and compliance while reducing human error.

Interactive user interface overlays digital content onto physical environments using geospatial position detection to resolve information access bottlenecks.

Integrated order processing system automates fabrication workflow management through BIM and ERP module synchronization.

Segments complex models into distinct operational zones to automate rounding and filleting, reducing design time by 90% while maintaining modeling precision.

A CAD method identifies under-defined geometries by analyzing degrees of freedom and constraint schemes to mark singular configurations.

Enhanced potential flow model calculates airflow velocity using jet and buoyancy corrections.