Abstract: A drum coupling automation robot includes a robot, a robot arm attached to the robot, a coupler gripper connected to the robot arm, a force and torque sensor connecting one end of the robot arm to the coupler gripper and measuring force and torque applied to the coupler gripper, a vision sensor attached to the force and torque sensor, and a control circuit electrically connected to the robot, the robot arm, the coupler gripper, the force and torque sensor, and the vision sensor.

Abstract: A compliance device includes a fixed platform in which a fixed origin of a fixed coordinate system having 3 axes of X-Y-Z is defined, a moving platform which is configured to move relative to the fixed platform and in which a moving origin of a moving coordinate system having 3 axes of x-y-z is defined, and a compliance mechanism including a plurality of unit compliance mechanisms configured to elastically support the moving platform against the fixed platform, each of the plurality of unit compliance mechanisms including a cantilever structure, which includes a first end fixed to the fixed platform and a second end on the opposite side from the first end, and a link, which is coupled to the second end of the cantilever structure via a first ball joint and coupled to the moving platform via a second ball joint.

Abstract: An apparatus for automatically fastening a chemical coupler to a connector of an automatic clean quick coupler (ACQC) system, includes a main body, a multi-degree of freedom (DOF) robot arm on the main body, a gripper on the multi-DOF robot arm that is configured to grip the chemical coupler, a vision sensor on the multi-DOF robot arm, and a controller connected to the gripper, the multi-DOF robot arm, and the vision sensor. The controller uses information about an environment surrounding the multi-DOF robot arm acquired by the vision sensor, to control an operation of the multi-DOF robot arm and an operation of the gripper.

Abstract: Provided is a separation membrane for seawater desalination and a method for manufacturing the same, and more particularly, a separation membrane for seawater desalination with excellent water permeability and salt rejection and a method for manufacturing the same. If the separation membrane for seawater desalination and the method for manufacturing the same according to the present disclosure are applied, it is possible to provide a separation membrane for seawater desalination with excellent water permeability and salt rejection. Therefore, it is possible to provide a separation membrane for seawater desalination with improved performance in comparison to an existing separation membrane for seawater desalination. As a result, water resources may be widely utilized.