Self-Moving Toy Figures TRIZ Cases

A mobile robot reads command information from arranged panels to execute operations and communicate with a tablet computer.

Lateral motor positioning minimizes ball height while a gravity-based damping mechanism stabilizes rotation against wobbling.

An inclined support mechanism guides a wheel along a cord to enable smooth figurine movement while extensions maintain balance.

Segmentation resolves the contradiction between fixed shape reliability and stunt variety by allowing interchangeable figures to alter center of gravity.

A robotic transmission system coordinates leg extension and foot pivoting to switch between bipod and tripod configurations.

Flexible legs bend to induce forward motion, resolving random movement and enabling controlled directional travel.

A molded housing prevents lateral buckling of a braided sleeve, maintaining consistent energy storage for effective toy propulsion.

A ball-balancing robot maintains stable yaw rotation by correcting angular velocity detection errors from inclined sensors.

A plant imitating device extends a unit upward through an opening to simulate sprouting.

A dual-motor control system alternates wheel rotation to simulate two-leg-walking gaits in remote control toys.

Replacing metal springs with a flexible braided sleeve prevents entanglement hazards while maintaining reliable pop-up function.

A convertible toy skateboard features interchangeable truck assemblies that switch between manual finger control and remote motorized operation.

A walking toy crank mechanism converts torso movement into rotational force to drive leg motion.

Segmented modules and merged gear functions resolve the contradiction between structural complexity and simulation effect, enabling realistic limb motion.

Oppositely polarized magnets secure the accessory to an arcuate support structure, resolving orientation precision complexity trade-offs.

Asymmetric block mounts prevent command confusion, resolving frustration from error messages during algorithmic learning.

A two-chamber vapor pressure device creates unidirectional rotation through gravity-driven displacement.

Interlocking mechanical and electric connections allow stackable modules to provide user-tailored entertainment options while reducing device complexity.

Flexible legs on a vibration powered toy resolve random drifting by converting eccentric motor rotation into controlled directional movement.

A robotic companion device monitors blood glucose levels and alerts caregivers through physical interaction.

Polyhedral fusible beads resolve boredom from repetitive spherical designs by enabling varied patterns and unique visual effects.

A spherical toy uses magnetic force to release a locking mechanism, enabling dynamic vertical movement of its lower component.

A braided sleeve body elastically deforms to store energy and propel a popper toy into the air without metal springs.

A toy container integrates a gear and cam delay mechanism to adjust opening time, resolving usability issues for children.

Segmented housing and dynamic limbs reduce overall weight while maintaining climbing reliability.

Flexible front legs convert eccentric motor vibrations into controlled forward motion, eliminating random directionless movement.

A simulated mouse toy uses a solenoid to impart jittery movements and emits prerecorded sounds upon physical movement.