Amusements TRIZ Cases

Linear motors and a gimbal assembly drive a motion simulator that matches real accelerations with virtual scenes, solving nausea caused by low fidelity.

Ultra-wideband circuitry determines portable device location and orientation to display virtual projectiles based on user trigger actuation.

Iron-infused elastomer animates via external magnetic fields, preventing material degradation from embedded magnets.

A controller directs a sensing system to capture 3D scanning data, creating point clouds that verify feature positioning without manual assessment.

A motion platform linkage uses a spherical joint to decouple arm rotation, enabling independent roll, pitch, and heave control.

A spherical ride shell rotates about a continuously changing axis to deliver unpredictable centrifugal forces.

A unified enclosure moves multiple show effect components collectively, reducing device complexity while maintaining positioning precision.

Multiple air guns surround users to deliver precise wind stimulation without head-mounted displays.

Vertical lifting lines adjust seat height and tilt angle to provide unobstructed viewing angles and realistic acceleration forces.

Independent motor winches suspend a people pod to eliminate track real estate requirements while enabling programmable motion.

A pump system transfers liquid into a cylinder to raise an entertainment platform, replacing maintenance-intensive hydraulic mechanisms.

Replacing mechanical tracks with autonomous navigation expands operational volume and passenger capacity while reducing infrastructure complexity.

Central rotating foils generate outward waves, improving spectator visibility and user access while reducing system complexity.

Vertical lift systems transition vehicles between stationary and adaptable rooms, creating diverse show scenes within compact footprints.

A CPU platform interface synchronizes motion code frames with video streams using timestamps and a CPU clock to resolve desynchronization issues.

Inertial platform detects position to enable precise repositioning of the spherical casing without trajectory rubbing.

Segmented step anchors allow individual rungs to be replaced without discarding the entire structure, resolving repair complexity in inflatable slides.

Segmented platforms decouple control loops, reducing structure complexity while maintaining full motion simulation capability.

A networked gaming ride system customizes attraction characteristics through guest profile integration and mobile app input selection.

Digital stunt cards replace physical cards, eliminating distribution costs and enabling diverse patterns.

Inclined working surface directs hydraulic unit flow to eliminate heavy horizontal supports and reduce assembly time.

Internal baffles divide the shell into compartments to mimic natural log buoyancy and mass moment of inertia while enabling easy transport.

Segmented ride interface modules receive player selections to customize sensory outputs, resolving adaptability versus complexity trade-offs.

An anemometer sensor detects air speed and triggers a circuit to disconnect the power source from an inflatable toy.

A rider station moves vertically and rotates to match projected video imagery on a screen.

An inflatable landing pad connects to a play structure via an air supply tube, using vented baffles to separate the air mattress into sections.

A pressurized container squeezes an elastic liquid storage bag to convey bubble solution into a generator for continuous production.

An automated dynamic adaptive control system modifies user input effects in simulation vehicles to maintain consistent ride experiences.

Segmented foundations and shackles enable versatile layouts that resolve the trade-off between simple manufacturing and complex adaptability.

Fan-driven airflow lifts a weighted chord, eliminating friction and enabling easy relocation of the inflatable structure.

Segmented walls reduce device footprint while maintaining down-the-line wave simulation capability.

Dynamic shape adjustment synchronizes with projected imagery to resolve the contradiction between device complexity and immersive experience.

A pneumatic amusement ride vehicle uses controlled air pressure to move passengers vertically between height limits.