Finger-Assisted Training Device Linkage Mechanism

The rehabilitation training device enables patients to perform self-directed finger exercises through automated mechanisms. The device includes motor-driven linkages that automatically move fingers through prescribed trajectories, allowing patients to independently complete rehabilitation exercises without requiring constant professional guidance or active participation from therapists.

The patent replaces the mechanical hand-on-hand guidance system with an automated robotic linkage system. The device uses motor-driven mechanisms, linkages, and constraints to automatically guide finger movements, substituting the need for physical manipulation by therapists with an automated mechanical system that can be programmed for various rehabilitation protocols.

The device incorporates sensors and control systems that monitor finger position, movement speed, and exercise completion in real-time. This feedback information is used to automatically adjust training parameters, ensure consistent intensity levels, and verify that rehabilitation exercises are performed correctly, thereby guaranteeing reliable training effects without requiring continuous therapeutic monitoring.

The automated linkage mechanism enables continuous and consistent rehabilitation exercises without interruption. The device can maintain steady movement speeds, repeated motion patterns, and sustained training intensity throughout extended periods, ensuring that patients receive uninterrupted and uniformly effective rehabilitation treatment that manual therapy cannot reliably maintain.

The patent integrates multiple finger training functions into a single unified linkage mechanism. The device uses shared motors, common constraint structures, and interconnected linkages that simultaneously control multiple fingers through coordinated movements. This merging approach enables multi-finger training while avoiding the need for separate independent mechanisms for each finger, thereby reducing overall structural complexity.

The device employs universal linkage components and modular designs that can be configured to train different combinations of fingers. The same basic mechanical framework can be adjusted through programmable control to target specific fingers or groups of fingers, providing multi-functional capability without requiring dedicated specialized mechanisms for each training scenario.