Non-Mechanical Controls TRIZ Cases

An adapter assembly bridges traditional cabinet locks with electronic rim cylinders, eliminating the need to rekey all locks when security is compromised.

Nesting a sliding rod and blocking member inside the rotor prevents drilling break-ins while avoiding accidental triggering during normal door operation.

A decompression lock uses a spiral compression spring to displace a bearing carriage for pressure equalization.

A position detector uses a bent rod to bypass internal electronics, enabling compact mounting on window frames.

Rotational actuator and switch units detect door orientation to adapt electronic lock latch position, eliminating manual reconfiguration costs.

Replacing magnetic coils with a mechanical linkage eliminates spring fatigue, while the dynamic slot accommodates door deformation under preload.

Segmented force paths through a blocking body lower switching unit load, resolving the trade-off between holding force and installation space.

Segmented jaw components enable emergency door release when hydraulic actuators fail, maintaining aircraft safety.

A dual-module locking mechanism combines an electrical driving module with a hand-driven electroless module to maintain access control functionality.

Magnets hold the pivotable latch front section, reducing installation space and opening force compared to spring mechanisms.

A modular empty box system uses an exchangeable adapter liner to securely hold electronic components within window frames.

An inductive lock system uses spatially arranged coils to detect coded key patterns for secure access control.

A locking mechanism uses a pressure chamber and actuating element to release decompression elements upon differential pressure.

Segmenting an anchoring device into two sides allows an electric lock to operate when power is lost, resolving the trade-off between security and accessibility.

Wireless power transfer eliminates battery replacement needs while maintaining reliable lock operation.