Geometric CAD TRIZ Cases

A computing system computes ray paths between antenna locations using a trained neural network for geodesic segments and raytracing for free space.

A non-static 3D mesh combines base imagery and heat-map textures to render temperature-influenced virtual points for interactive simulations.

Preprocessing individual light distributions into a lookup table accelerates total light calculation, enabling real-time glare-free high beam simulation.

A collaborative work system shares visual snapshots with viewing context to enable unified views within authoring environments.

Avionic display symbology predicts overpressure events from constructive interference between pressure waves during supersonic flight.

Automated bi-level optimization refines vertical intersection points and curve lengths, reducing uneven surfaces and construction expenses.

A simulation system generates scenario data by capturing user inputs to control virtual road users in traffic environments.

A computer-implemented method infers motion parameters from CAD model hierarchy to automate part movement analysis.

A three-tier monitoring system processes sensor data locally to reduce transmission bandwidth while preserving critical performance indicators.

A simulation suggestion engine selects appropriate tools and loads parameters for computer-generated designs.

A simulation system generates synthetic pedestrian agents to predict walking paths and congestion levels in proposed districts.

A tree preservation mapping system calculates critical root zones using species-specific parameters and GIS integration to support landscape planning.

Processor method automates 3D geometry creation and mesh generation from conditioned space data, eliminating manual thermal analysis effort.

Hierarchical interface segmentation reduces navigation clicks and cognitive load, allowing users to complete complex custom product configurations efficiently.

A fully implicit numerical model calculates wellbore pressure changes across vertical, inclined, and horizontal sections using embedded discrete fracture modeling.

Iterative primitive merging refines segmentation accuracy for unlabeled mechanical assemblies while reducing computation time.

A system generates three-dimensional ground models and normal surface designs using drill boring data and topography inputs.

A graphical user interface system enables rapid 3D model design and visualization through direct add-on element selection.

Segmenting design models into discrete objects enables tracking energy evolution across iterations without repeating full analysis computations.

A knit design system generates candidate contour lines using dynamic time warping to match original data shapes.

A 3D scene object switching system manages design alternatives through layered lineup controls.

Processing circuitry automatically generates roofs based on user inputs, eliminating manual modification delays while maintaining design synchronization.

Automated recording devices map room seating configurations into digital building models through event-controlled data transfer.

Virtual arrangement of functional elements defines carcass dimensions, eliminating chipboard offcuts.

Automated design method evaluates parallel compressor combinations to resolve the trade-off between manual simulation time and optimal system quality.

Finite element analysis models automotive panel joints using temperature-dependent elastic coefficients to predict outer shape behavior.

Segmenting the simulation domain into coupled phases reduces computational costs while maintaining realistic two-phase air-water interactions.

Spline curves replace polygon vertices to eliminate abrupt load changes, ensuring smooth collision detection.

A graphical rule builder generates executable design for excellence definitions from expert inputs without programming.

A digital fire suppression design tool formats nozzle positions and protection zones for regulatory compliance.

A simulation method uses radial and rotational sources to model flow around submerged structures.

Multiple similarity criteria guide a Tabu search to explore the distribution space rapidly, reducing computational load and balancing vibrations.

Segmenting routing paths into independent elements resolves collaboration complexity while maintaining structural integrity and data consistency.

A computer-implemented method aggregates physical infrastructure data from multiple sources to generate a reliable network model.

Digital simulations map three-dimensional dose distributions to overcome dosimeter limitations in measuring small structures and ensuring dose uniformity.

A region guided shortest path algorithm partitions network nodes into clusters to accelerate query responses.

A graphical user interface models avionic data paths between components, reducing time spent verifying end-to-end communication.

A web-based system deposits layered optical designs onto curved products via server-side rendering.

A graphical user interface generates preform geometries using minimum-volume bounding boxes tangent to cutting planes.

A parametric modeling system generates constrained 3D roof geometry from component parameters.

Virtual simulation optimizes source-to-detector positioning to eliminate manual trial-and-error, reducing costs and increasing throughput.

A calculation method adapts ophthalmic lenses to spectacle frames using geometrical and deformability data.

A design system creates wiring path information from 3D moving body data to define bundled electrical wire harnesses.

A modular building system uses bio-climatically adapted layered envelopes to achieve energetic independence through prefabricated structural insulated panels.

A network traffic simulation system selects specific traffic models based on analyzed user requirements and captured traffic characteristics.

Machine vision tracks panel positions in six dimensions to guide installers, eliminating alignment variances that compromise building envelope integrity.

A 3D building model updates with current environmental data to enable indoor positioning without relying on GPS signals.

Physics-based nesting replaces geometric algorithms to reduce material waste from complex part shapes.

In-situ calibrated models replace complex physics computations during multi-component simulations, reducing execution time while maintaining accurate output.