Samsung Electronics Co., Ltd.

Kee Hong Seo

Kyung Shik Roh

Youngjin Park

Joo Hyung Kim

Youngbo Shim

Young Bo Shim

Bokman Lim

Seungyong Hyung

Young Do Kwon

Tae Sin Ha

Bok Man Lim

Jun-Won Jang

Jusuk Lee

Kyung-Rock Kim

Joon-Kee Cho

Byung-Kwon Choi

Sunghwan Ahn

Chang Hyun Roh

Ju Suk Lee

Byung Kwon Choi

Jae Ho Park

Disclosed are a walking assistance robot and a method of controlling the walking assistance robot. The control method includes collecting motion information by sensing or measuring a motion of at least one joint, determining a motion state of the at least one joint based on the sensed or measured motion of the at least one joint, and controlling the walking assistance robot based on the determined motion state of the at least one joint.

Walking assistance robot and method of controlling the walking assistance robot

A method and apparatus for recognizing a gait motion are provided. The apparatus may set a gait motion recognition period based on measured right and left hip joint angle information, may input, to a trained neural network, right and left hip joint angle information and vertical acceleration information measured during the gait motion recognition period, and may recognize a gait motion.

Method and apparatus for recognizing gait motion

A walking assistant device may calculate a walking cycle by measuring only motion of a specific joint without a force/torque sensor (F/T sensor) of a foot, and a method of controlling the walking assistant device. The method may include measuring motion of a hinge to which different support frames are connected; overlapping a reference trajectory corresponding to the measured motion and modulation trajectories that have been modulated from the reference trajectory; correcting the overlapping trajectory to correspond to the measured motion; determining assistant torque corresponding to a phase of the corrected trajectory; and providing the determined assistant torque to the support frame.

Walking assistant device and method of controlling walking assistant device

Disclosed herein is a method of converting and reconstructing a signal, including: at a data generator, acquiring signal-analyzed data from an original signal, wherein the signal-analyzed data includes at least one feature point acquired from the original signal; transmitting and receiving the signal-analyzed data and at least one reference data corresponding to the signal-analyzed data; and reconstructing the original signal based on the signal-analyzed data and the at least one reference data to acquire a reconstructed signal.

Method and system for converting and reconstructing signal, method and apparatus for converting original signal, and method for reconstructing original signal

A walking assistance method may include: computing an amount of exercise of a user based on a biosignal of the user; adjusting a pattern of an assist parameter based on the amount of exercise; and/or generating a force corresponding to the amount of exercise, based on the adjusted pattern. A walking assistance apparatus may include: a pattern adjuster configured to compute an amount of exercise of a user based on a biosignal of the user; and/or a driver configured to generate a force corresponding to the amount of exercise based on a pattern of an assist parameter based on the amount of exercise.

Walking assistance methods and apparatuses performing the same

A master console includes handles configured to control robotic surgical instruments of a slave robot, force/torque detectors configured to detect forces applied to the handles by an operator, a force compensator configured to generate force control signals that cancel out the forces applied to the handles by the operator, and a master controller configured to drive at least one joint of each of the handles in order to control motion of the handles based on motion control signals and the generated force control signals.

Surgical robot and control method thereof

A surgical robot system includes a slave device having a surgical instrument; and a master device configured to transmit a control signal to the surgical instrument. The slave device includes a guide tube to which the surgical instrument is coupled; and a controller operating the surgical instrument in response to the control signal transmitted from the master device, and operate the guide tube so as to move the surgical instrument to a target position if the target position of the surgical instrument according to the control signal corresponds to a position out of a range of a current working space for the surgical instrument.

Surgical robot system and method of controlling the same

A support module includes a first rigid body, a space formation body connected to the first rigid body and forming an enclosed space, and a plurality of hard particles located within the enclosed space. When at least a predetermined pressure is applied to the support module such that a volume of the enclosed space is decreased to a predetermined value, the plurality of hard particles and space formation body form a second rigid body. Such a support module may improve the stability of a walking robot, the grip of a gripping structure, or the stability of a load-bearing structure.

Support module and robot having the same

A balance control apparatus of a robot and a control method thereof. The balance control method of the robot, which has a plurality of legs and an upper body, includes detecting pose angles of the upper body and angles of the plurality of joint units, acquiring a current capture point and a current hip height based on the pose angles and the angles of the plurality of joint units, calculating a capture point error by comparing the current capture point with a target capture point, calculating a hip height error by comparing the current hip height with a target hip height, calculating compensation forces based on the capture point error and the hip height error, calculating a target torque based on the calculated compensation forces, and outputting the calculated target torque to the plurality of joint units to control balance of the robot.

Balance control apparatus of robot and control method thereof

A surgical robot including a slave device performing a surgical operation upon a patient and a master device controlling the surgical operation of the slave device. The slave device includes an image capture unit including a first lighting unit radiating visible light, a second lighting unit radiating UV light, and a camera capturing a visible-light image and a surgical tool coated with a UV reactive material emitting light in response to UV light radiated by the second lighting unit.

Surgical robot and method of controlling the same

A robot includes a master device including an input unit, the input unit including a first end effector and a first joint, a slave device configured to be controlled by the master device and including a robot arm, the robot arm including a second end effector, a second joint, and a motor configured to drive the second joint, and a controller configured to calculate a friction compensation value to compensate for friction of the second joint based on a speed of the input unit in response to the input unit being in motion, generate a control signal based on the friction compensation value, and transmit the control signal to the motor configured to drive the second joint.

Robot and friction compensation method therefor

A walking robot and a control method thereof. The control method of the walking robot which walks using two legs includes applying first virtual gravity torque including a vector component in the anti-gravity direction to respective joints of a support leg from among the two legs during walking, and applying second virtual gravity torque including a vector component in the gravity direction to respective joints of a swing leg from among the two legs during walking. Thereby, the walking robot implements a natural walking motion having a low energy consumption rate.

Walking robot and control method thereof

A surgical robot system may include a slave device provided with surgical tools and a master device remotely controlling motion of the surgical tools. The master device may include handles controlling the motion of the surgical tools, a master external force estimator estimating external force applied to the handles, a force compensator generating a first force control signal to cancel out the estimated external force, and a master controller moving and rotating respective joints of the handles in such a way that the external force applied to the handles is canceled out using the generated force control signal.

Surgical robot system and control method thereof

A walking robot having joints which move using a torque servo, a posture of the robot being stably controlled, and a method of controlling a posture of the robot. It is possible to maintain a stable angle of the upper body while keeping an erect posture and balance using the COG of the robot and the inclination and the direction of the upper body and the pelvis of the robot, even in an external variation including external force or an inclination angle of the ground. Even in a state in which terrain information is not known in advance, the robot may keep an erect posture in a direction of gravity. Even when a plane where the robot stands is gradually inclined, the postures of the upper body and the legs of the robot may be kept while actively changing the angle of the ankle joint.

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Seoul, South Korea

Kee Hong Seo