Abstract:
The present invention relates to a self-directed rehabilitation training method for providing a patient, who requires rehabilitation, with rehabilitation training upon the will of the patient. The rehabilitation training method provides a patient with an environment capable of encouraging the patient to have rehabilitation will and provides the patient with an appropriate exercise for the patient by measuring the condition of the patient. According to an embodiment of the present invention, by measuring the brain signals of a patient and adjusting the duration or intensity of a rehabilitation exercise, the patient is enabled to take the rehabilitation exercise in an active environment.
Abstract:
본 발명은 상지 근육의 근전도 신호를 이용한 재활 평가 방법 및 그 재활 평가 장치에 관한 것으로, 본 발명의 일 실시예에 따른 상지 근육의 근전도 신호를 이용한 재활 평가 방법은, 사용자로부터 상지 근육에 대한 근전도 신호를 획득하는 단계와, 상기 근전도 신호의 진폭을 이용하여 상기 상지 근육의 활성도를 연산하는 단계와, 상기 근전도 신호의 주파수를 이용하여 상기 상지 근육의 피로도를 연산하는 단계와, 상기 상지 근육의 활성도 및 상기 상지 근육의 피로도를 이용하여 상기 상지 근육의 재활 정도를 판단하는 단계를 포함한다. 이에 따라, 상지 근육의 근전도 신호에 대한 진폭 및 주파수를 분석하여 재활 정도를 판단함으로써 보다 객관적이고 정량적으로 근육의 재활 정도를 판단할 수 있다.
Abstract:
The present invention relates to a system and a method for providing active rehabilitation training to rehabilitation patients. The system induces patient′s rehabilitation intention by providing information on rehabilitation to patients and provides active rehabilitation training suitable for patients by continuously measuring patient′s vital signals and monitoring a state.
Abstract:
The present invention relates to an upper extremity rehabilitation robot control method for meal assistance capable of assisting a meal for the elderly and patients for rehabilitation whose physical strength of an upper extremity is less than a normal person. More specifically, the upper extremity rehabilitation robot control method for meal assistance comprises a step of detecting the movement of an upper extremity of a user by a detection member after a dish is disposed at a predetermined position, and the upper extremity of the user is mounted at an arm end of an articulated robot; a step of calculating the direction where the upper extremity wants to go and the power by the detected movement in the detection member; a step of generating and outputting control signals to be output to the articulated robot based on a calculated value; and a step of assisting the upper extremity of the user with the power in the direction where the upper extremity wants to go and moving the upper extremity by driving the arm of the articulated robot based on the output control signals. [Reference numerals] (AA) Start; (BB) End; (S100) Detect the minute movement of an upper extremity by a detection member; (S200) Calculate the direction where the upper extremity wants to go and the power by the detected minute movement; (S310) Compare a calculated value relative to the power and a reference value of the power previously inputted; (S320) Output control signals by converting any one of magnetic polarity among the detection member and an articulated robot if the calculated value is greater than or equal to the reference value; (S400) Generate each control signal of X-axis, Y-axis, and Z-axis to be outputted to the articulated robot based on the calculated value and output the same; (S500) Selectively drive arms of the articulated robot on the line of the X-axis, Y-axis, and Z-axis based on the each control signal of the outputted X-axis, Y-axis, and Z-axis
Abstract:
The present invention relates to a hip joint rehabilitation training device, more specifically, to a hip joint rehabilitation training device which includes a fixed frame which is formed in a sickle shape and of which the bottom is fixed by a frame fixing unit, a fixed pulley which is fixed to the upper part of the fixed frame and changes the direction of a force applied on a first rope, a moving pulley which is fixed to the lower part of the fixed pulley, is hung on the lower part of a fixed pulley, and moves up and down as a user pulls the first rope, a lower body mount board which connects to the lower part of the moving pulley and mounts the lower body of the user, and a handle which is formed on one end of the first rope and allows the user to pull the first rope by a hand. The hip joint rehabilitation training device is installed on one side of a bed and allows the user to rehabilitation exercise by pulling and loosening the rope while lying on the bed without other's help.
Abstract:
PURPOSE: A route compensation method of robots for controlling valves based on the cooperation and a system thereof are provided to prevent the damage of components forming a robot and a valve from an excessive operation work when a route of the robot cannot be followed by the unexpected intervention of obstacles when the robot follows a generated route. CONSTITUTION: A route compensation method of robots comprises the following steps: storing each gripper coordinate system of a slave robot, generating a movement route of a robot arm, and moving to the initial position of the generated route (S230); observing whether or not the contact force is generated due to a route generating error and it is generated over a reference value when the robot arm moved to the initial position follows the route (S260); stopping the following of the robot arm and displaying alarms and an error message when the contact force is generated over the reference value (S270); observing whether or not a valve gauge reach a target value in case a work locking the valve operation is completed as the contact force is generated over the reference value (S280); returning the robot arm to the initial position and finishing the work when the valve gauge reaches the target value (S300). [Reference numerals] (AA) Remote control of an operator; (BB) Start working; (CC) Robot's autonomous motion; (DD,GG,II) No; (EE,FF,HH) Yes; (JJ) Finish working; (S110) Move each slave robot to a specific position; (S120) Grip a jig handle with a gripper of each slave robot; (S130) Turn the switch of the autonomous motion of a robot on; (S140) Input information about distance measured by a jig; (S210) Store the gripper of each robot on a coordinate; (S220) Generate a route for the movement of arm each slave robot's arm; (S230) Move the robot's arm to an initial position of the generated route; (S240) Generate contact force by a route generating error; (S242) Display a notice light and an error message; (S244,S262) Execute a route compensating work; (S250) Follow the route of a robot along the generated route; (S260) Contact force above a reference value occurs; (S270) Stop following the route of the robot's arm; (S280) Valve gauge reaches a target value; (S290) Back to the initial position; (S300) Display the state of finishing the work