Computerized Toys TRIZ Cases

See how smart blocks with configurable magnets, displays, and haptic feedback enable remote col

Infrared sensors replace AI cameras so a ball-chasing robot can track a satellite object reliably across surfaces while lowering cost, privacy risk, and power use.

A master block distributes commands to slave blocks, enabling coordinated smart block functions for adaptive learning and therapy.

Visual overlays and camera-based feedback simplify remote robot positioning in interactive arenas while lowering cost and access barriers.

Predefined primary and secondary identities let interactive toy elements combine behaviors without complex setup, improving usability and play flexibility.

Group-based wireless toy networking enables linked play without a central hub, reducing setup complexity, latency, and cross-toy interference.

Electromagnetic coil sensing lets cooperating devices determine relative pose without cameras or base stations, reducing complexity and power use.

A nested orthogonal coil frame enables compact wireless toy blocks to detect position and orientation reliably without cameras or base stations.

A counter-rotor cancels unwanted counterrotation so a motion-controlled spinning top can stay stable and move horizontally under user control.

Wireless inductive power, NFC communication, and RFID reading let modular toy elements avoid wiring while staying compact and easy to assemble.

A shared circuit adds microphone-based motor control to manual bubble production, giving the toy voice-activated play without a separate control path.

Modular power and functional blocks distribute electricity through message patterns for flexible, centralized device control.

A 4.5V bubble toy circuit combines microphone input and switch control to drive the motor through one control design.

This case tackles bulky, complex toy aircraft with a compact spherical shell, direct motor-to-blade drive, and finger pressing members.

Electromagnetic sensing enables modular toy assemblies to control functions without wiring, simplifying flexible user configuration.

Magnetic blocks detect face attachments and orientations for hands-on spatial learning.

A wireless communication module links smart devices to interactive objects, resolving bandwidth constraints that limit haptic technology interactivity.

Image capture identifies building blocks to provide digital assembly instructions, resolving confusion from illegible printed manuals.

A unilateral electrified interlocking block system integrates conductive pathways directly into the block surface to transmit electrical current without external wiring.

A smart block integrates a display unit to show dynamic shapes and colors via host signals.

Portal piece identifies track orientation and position via bi-directional communication protocol.

Sequential instruction cards with eye-tracking navigation resolve screen clutter, maintaining user focus during wearable device assembly.

Image capturing device extracts two-dimensional views from physical toy models to create three-dimensional virtual objects in a digital environment.

Wireless smartphone control eliminates bulky controllers, enabling automated refereeing and multiplayer interaction.

A sensing control system uses signal detection and calculation modules to generate driving signals that adjust electric toy actions based on user input frequency.

A programmable interactive sleep device uses interchangeable robotic personalities to guide children through calming routines.

A non-detectable stencil guides flexible units to create unique patterns on touch-sensitive surfaces.

A robotic bird uses eleven degrees of freedom in its wings and tail to achieve efficient flapping flight.