Power Transmission Vehicle With Adaptive Electrode Clamping

The patent applies the dynamics principle by making the clamping plate movable relative to the support plate through a sliding structure. The clamping plate can slide along the support plate to adapt to the deformation of the conductive electrode, transforming from a fixed rigid structure to a dynamic adjustable structure. This resolves the contradiction by allowing the clamping mechanism to maintain stable contact with the electrode despite its deformation, improving clamping reliability without requiring an overly complex mechanism.

The patent applies parameter changes by allowing the position parameter of the clamping plate to change relative to the support plate. Through the sliding structure, the clamping plate's position can be adjusted dynamically to match the electrode's deformation, enabling the clamping mechanism to adapt to varying electrode dimensions and maintain stable clamping under different operational conditions.

The sliding structure between the clamping plate and support plate implements dynamics by enabling continuous position adjustment. This allows the clamping mechanism to follow the electrode's deformation in real-time, ensuring stable electrical contact and power transmission without requiring complex active control systems or multiple adjustable components.

The clamping mechanism applies self-service through the elastic component that automatically adjusts the clamping force. The elastic structure provides a restoring force that maintains contact between the clamping plate and the conductive electrode, enabling the system to self-regulate and maintain stable clamping without external intervention or complex control mechanisms.

The sliding structure provides adaptability through simple geometric constraints rather than complex mechanisms. The clamping plate slides along the support plate within a defined range, automatically adapting to electrode deformation through passive geometric adaptation. This approach maintains ease of manufacture by using simple sliding surfaces and constraints rather than complex adjustable mechanisms.

The elastic component provides self-adjusting capability that simplifies manufacturing. The elastic structure automatically generates the necessary clamping force and maintains contact with the electrode through its inherent elastic properties, eliminating the need for complex force control systems or multiple adjustment mechanisms, thereby improving ease of manufacture while maintaining high adaptability.