Vehicle Handle System Elastic Claws Assembly

The patent replaces the expensive metal shaft with a plastic shaft that has a limited service life. The plastic shaft is designed to break or deform under excessive force, preventing handle removal while being cost-effective. This disposable approach resolves the contradiction by providing sufficient connection strength for normal use without the high cost of metal materials.

The patent changes the material parameter from metal to plastic, and modifies the structural parameter by designing a shaft with specific break points or deformation zones. This parameter change allows the shaft to provide adequate strength for normal handling while being inexpensive and easy to manufacture, thus resolving the contradiction between strength and manufacturing cost.

Instead of designing complex retention mechanisms to prevent shaft removal, the patent inverts the approach by designing the shaft itself to be the sacrificial element. The shaft is made to break or deform under removal force, naturally preventing handle detachment without requiring complex receiving hole designs. This inversion simplifies assembly while maintaining security.

The plastic shaft performs the security function automatically through its material properties and structural design. When excessive force is applied, the shaft breaks or deforms in a controlled manner, self-regulating the connection strength without requiring additional retention mechanisms or complex assembly procedures. This self-service approach resolves the contradiction between security and assembly simplicity.

The plastic shaft is designed as a limited-life component that breaks or deforms under excessive force. This eliminates the need for large retention forces during assembly, as the shaft's controlled failure mode provides security automatically. The disposable nature of the shaft improves working efficiency by simplifying the assembly process while maintaining handle security.

The patent changes the force parameter by using a material (plastic) with lower strength than metal, but compensates through structural design. The shaft requires minimal assembly force while providing sufficient security through its break/deformation characteristics. This parameter change resolves the contradiction by reducing assembly force requirements while maintaining reliability.