Sungkyunkwan University

Samsung Electronics Co., Ltd.

Samsung Electro-mechanics Co., Ltd.

Hyouk Ryeol Choi

Ui Kyum Kim

Homoon Kim

Jongwon Lee

Youn Baek Lee

Jong Won Lee

Yong Bum Kim

Dong Hyuk Lee

Ja Choon Koo

Jachoon Koo

Hyungpil Moon

Jung Seok Suh

Hyun Do Choi

Jeonghun Kim

Byungjune Choi

Se-Gon Roh

Minhyung Lee

Baek Chul Kim

Young Min Lee

Jeong Hun Kim

Yun Seok Choi

Min Hyung Lee

Young Kwan Lee

Byung June Choi

Jung Yun Choi

Se Gon Roh

Jae Do Nam

Hyung Pil Moon

Hyeong Min Moon

Chanmin Park

Seung Ung Yang

Kwi Jong Lee

Jin Ho So

Mi Suk Cho

Seung Yeon Lee

Gi Tae Kang

Tae Yu Kim

Seonggi Kim

Dong-Yeop Seok

Sung Gi Kim

Dong Yeop Seok

Dong Yub Seok

Junwoo Park

Tien Dat Nguyen

Jin Ah Chung

Jea Yun Kim

Anna Kim

Dong Jun Oh

Won Suk You

Yechan Lee

Hyoseung Han

Hui Sik Jang

Gun Kyu Yee

Do Yeon Hwang

Kyeong Ho Cho

YoungHun Lee

Young Hoon Jin

The present disclosure relates to a robot traveling device including a body part, a moving part that slidably moves in a longitudinal direction of the body part, a front end traveling part that is rotatably mounted on the body part and the moving part and is rotatable by contact friction, and a rear end traveling part that is rotatably mounted on the body part and the moving part and is rotatable by contact friction.

Robot traveling device

A motion assistance apparatus includes a force transmitting frame configured to support a distal part of a user, a slider configured to slide in the force transmitting frame, and a driving frame connected to the slider and configured to slide with respect to a proximal part of the user.

Motion assistance apparatus

A rotary actuator may include a first holder in which a fluid injecting portion is formed, a second holder rotatably coupled to the first holder, a flexible body fixed to the first holder and the second holder and configured to expand as a fluid is injected through the first holder, and a plurality of fibers radially disposed in a spiral shape at the flexible body and configured to rotate the flexible body when the flexible body expands.

Rotary actuator

A deformable body for a force/torque sensor which may be attached to robots formed with multiple axes and multiple joints includes a substrate in which a hole is formed, a disc disposed above the hole, and a plurality of hinges protruding from a side surface of the disc and connecting the disc and the substrate.

Deformable body for force/torque sensor and sensor

A motion assistance apparatus includes a force transmitting frame having a sliding space therein, the force transmitting frame configured to support a distal part of a user, a slider configured to slide in the sliding space, and a driving frame connected to the slider and configured to slide with respect to a proximal part of the user.

Disclosed is a method of providing performance indicators of a robot hand and a method of optimizing a structure of the robot hand, and more particularly to a method of providing performance indicators of a robot hand, in which the performance indicators are to objectively compare a plurality of robot hands with respect to performance, and a method of optimizing a structure of the robot hand, in which engineering design criteria are provided to determine essential factors in developing the structure of the robot hand.

Method of providing performance indicators of robot hand and method of optimizing structure of robot hand

A force/torque sensor includes a ground unit having an internal space, a sensor unit positioned within the internal space and including a plurality of electrodes generating capacitances with the ground unit, and a support unit combined with a portion of the ground unit and supporting the sensor unit.

Force/torque sensor that miniaturization is available

Provided herein is a capacitive torque sensor, which can completely offset forces/torques in all axial directions, except for force/torque in a direction of a central axis, by measuring variations in capacitances of four sensing cells arrayed at angular intervals of 90 degrees on the basis of a center of the sensor and can offer a sensing value for the torque in a central axis direction.

Capacitive torque sensor without limit in flexure hinge

Provided herein is an active joint module, and a robot for inspecting pipelines having the active joint module, the active joint module including a frame unit; a first bracket connected to one side of the frame unit in a rotatable manner, and to which a first module is coupled; a second bracket connected to another side of the frame unit in a rotatable manner, and to which a second module is coupled; and a bracket rotating unit supported to the frame unit, and is configured to rotate the first bracket and second bracket independently from each other in response to receiving an operating signal, and to unconstrain rotation of the first bracket and second bracket in response to there being no operating signal received.

Active joint module and robot for inspection of pipeline with this module

Provided herein is a robot for inspection of a pipeline using a multi-output differential module, the robot including a robot body configured to move along an inside of the pipeline, and having a driving power supply unit; a proceeding unit rotatably-connected to the robot body, and provided with a plurality of active proceeding units having proceeding wheels that proceed along an inner wall of the pipeline; and a power transmission unit supported against the robot body, connected to the driving power supply unit to transmit driving power to the active proceeding unit, and having the multi-output differential module that distributes the transmitted driving power to the active proceeding unit.

Robot for inspection of pipeline using multi-output differential module

Disclosed are a multi-axial force sensor capable of measuring multi-axial force and a grasper for sensing multi-axial force using the same. The multi-axial force sensor includes: a first operating section which includes a first member, and a first protrusion module formed protruding from one side of the first member; an elastic section which is formed at one end of the first member; a second operating section which includes a second member formed with one end to face one end of the first member with the elastic section therebetween, and a second protrusion module formed protruding from one side of the second member to face the first protrusion module; and an electrode section which is formed in the first protrusion module. With this, there is provided a force sensor capable of precisely measuring force through a simple structure.

Multi-axial force sensor and grasper for sensing multi-axial force using the same

Provided herein is a method and apparatus describing a force sensor that includes a ground unit that is a grounded conductor that changes its position according to an external force, and including a flat panel module that is a conductor of a flat panel shape, and a protruding module that is a conductor protruding from a lower surface of the flat panel module, a substrate of a flat panel shape arranged in a predetermined distance from the lower surface of the flat panel module, and having a hole through which the protruding module may be inserted, a first electrode formed on an upper surface of the substrate, to generate a capacitance together with the flat panel module upon receiving power, and a second electrode formed on the substrate, to generate a capacitance together with the protruding module upon receiving power.

Force sensor and multiaxial force/torque sensor using the same

A sensor and a method of manufacturing the same are provided. The sensor includes a substrate, a projecting portion including a plurality of projections that protrude upwardly from an upper portion of the substrate, and an electrode portion covering the projections and the upper portion of the substrate between the projections. The projecting portion of the sensor has micro projections to enable the sensor to sense pressure and a sliding movement.

Sensor and method of manufacturing the same

The present disclosure relates to a tactile sensor including a first substrate on which a first electrode is formed; a second substrate on which a second electrode and a coupling hole is formed so that the first electrode may be inserted into the coupling hole; and a dielectric covering the first electrode and the second electrode, and thus not only having flexibility and elasticity, but also requiring a reduced number of wires to be used when sending and receiving signals, making it is easier to manufacture and saving costs.

Tactile sensor

A multi-output differential gear apparatus includes a first differential gear having a first output gear and a middle gear, and second differential gear having a second output gear and a third output gear.

Apparatus having multi-output differential gear

Growing community of inventors

Gunpo-si, South Korea

Hyouk Ryeol Choi