This technology uses sensors to measure the relative height between a patient's chin rest and a medical tool-operating robot. It then drives a parallel mechanism to automatically align the robot's initial position and orientation, enabling precise tool control during remote medical procedures.
Treating respiratory infectious diseases poses a risk of infection to medical staff due to direct contact, and the repetitive use of various medical tools leads to significant physical and mental fatigue.
This technology utilizes a parallel mechanism based on multiple parallelogram links capable of 3-DOF translational motion and 1-DOF pitch rotation. It establishes an automatic alignment system through sensor feedback that controls the height of the patient's chin rest and the robot's end-effector. Applicable to remote consultations, telesurgery, and medical automation, it reduces infection risks and fatigue for medical staff while ensuring high precision in tool control.
This invention was developed with support from the Ministry of Education's project for UX design-based AI healthcare robot systems for remote diagnosis and treatment.
N/A