Abstract: An upper arm module of a wearable muscular strength assisting apparatus includes: a base part fixedly connected to a wearer's body; an upper arm part being configured such that a first end thereof is coupled to the base part to be rotatable about a fixed point, and being coupled to the wearer's upper arm to apply a rotational torque thereto; a first link configured such that a first end thereof is rotatably coupled to the base part at a point of application; a second link extending on a plane on which the upper arm part extends, and being rotatably coupled to a second end of the first link at a first point; a third link coupled to the second link at a second point to guide movement of the second point; and an elastic body generating an elastic force by deformation.

Abstract: A wearable chair includes: a thigh link extending in an extension direction of a wearer's thigh to be connected to the wearer's thigh; a crus link extending in an extension direction of the wearer's crus to be connected to the wearer's crus, having an upper end portion rotatably coupled to a lower end portion of the thigh link, and prevented from rotating such that an angle between the crus link and the thigh link is less than a sitting angle; and a contact link having a first end rotatably coupled to a lower end portion of the crus link and a second end coming in contact with the ground at a predetermined position from the crus link by rotating with respect to the first end with relative rotation between the thigh link and the crus link when the wearer is in a sitting position.

Abstract: A combined structure of a wearable apparatus includes: a torso fastening part fixedly fastened to a wearer's torso; a fixed link extending from the torso fastening part to a position above a wearer's shoulder; a first link and a second link being respectively coupled to the fixed link to be laterally rotatable, and crossing each other while being vertically spaced apart from each other; a rotatable part disposed at a position above the wearer's shoulder, and coupled to the first link and the second link to be laterally rotatable; a connecting part coupled to the rotatable part; and an upper arm module coupled to be rotatable upward or downward about the connecting part while an end thereof is coupled to the connecting part at a position corresponding to an upper end portion of a wearer's upper arm.

Abstract: A multi-bar linkage includes a driving unit that is configured to supply torque to a driving shaft, where the driving shaft is provided on a first portion of a first link. A driving arm has one end fixed to the driving shaft and an opposite end being movable following rotation of the driving shaft. A first auxiliary link has one end pivotably connected to the opposite end of the driving arm. A second auxiliary link is pivotably connected to a first point of a second portion of the first link and to an opposite end of the first auxiliary link. A second link is disposed below the first link and pivotably connected to the second auxiliary link. A third auxiliary link has one end pivotably connected to a second point of the second portion of the first link, separated from the first point, and an opposite end pivotably connected to the second link.

Abstract: A wearable walking assist robot is provided that ensures high walking assistance performance without a complex calculation process by detecting a gait phase based on pressure distribution on feet and performing a corresponding control mode that is set in advance. The wearable walking assist robot includes a sensor unit that senses pressure on the soles of the feet of a wearer and a controller that determines gait phases of both a first leg to be operated and a second leg based on the sensed pressure. Additionally, the controller selects one of a plurality of control modes set in advance based on the determined gait phases and operates a joint-driving unit for the first leg to be operated.

Abstract: A walking control method of a robot is provided. The method includes receiving a walking command of the robot including a link device having a plurality of links that correspond to both lower limbs. In response to receiving the walking command, implementing walking of the robot by providing torque to the link device to move a first lower limb is moved. In a double stance state where foot ends of the both lower limbs are simultaneously in contact with ground while the lower limb to be moved is changed, a driving force is generated in the double stance by adjusted the torque of the drive device to virtually move the foot ends of the both lower limbs by a predetermined stable distance in an opposite direction to a walking direction.

Abstract: A wearable apparatus for assisting muscular strength includes: a main body mechanism extending in a vertical direction of a wearer's torso, and being fixed to a side of a wearer's torso under a wearer's shoulder; a fastening mechanism extending along an extension direction of a wearer's upper arm, and being disposed at and being in contact with a lower surface of the wearer's upper arm; a connecting mechanism having a first end coupled to the fastening mechanism and a second end movably coupled to the main body mechanism so as to be movable with respect to the main body mechanism; and a support mechanism movably coupled between the first end and the second end of the connecting mechanism to apply a support force to the connecting mechanism, and coupled to the main body mechanism and movable with respect thereto.

Abstract: An ankle-less walking assistant apparatus includes: a body supporting the back of a wearer; left and right hip joint-drivers extending from both sides of the body; left and right thigh links having first ends connected to the left and right hip joint-drivers, respectively; left and right knee-drivers connected to second ends of the left and right thigh links, respectively; left and right calf links having first ends connected to the left and right knee-drivers, respectively; and ground-contact feet fixed to second ends of the left and right calf links, respectively.

Abstract: A sliding stop switch may include a first rod extending in the longitudinal direction thereof, a second rod coupled to the first rod such that one end portion thereof is slidable in the longitudinal direction of the first rod, and a switch member coupled to the first rod to slide in the longitudinal direction of the first rod and to be fixed at a plurality of points on the first rod to stop the sliding of one end portion of the second rod.

Abstract: A wearable chair may include an upper rod extending in the longitudinal direction thereof, a lower rod, the upper end portion of the lower rod being rotatably coupled to the lower end portion of the upper rod, the lower end portion of the lower rod being configured to contact the ground when the user sits down, a lower leg fixing unit configured of extending in the longitudinal direction of the lower leg of the user to be coupled to the rear of the lower leg of the user, the distance between the lower leg fixing unit and the lower rod being varied when the lower leg fixing unit slides in the longitudinal direction of the lower rod, and a support rod having a lower end portion rotatably coupled to the lower rod and an upper end portion slidably coupled to the upper rod to slide within a specific section of the upper rod.

Abstract: A crutch has a joint structure, and the crutch includes a stationary section supported on a floor at a lower end of the stationary section, and extending from a lower portion to an upper portion thereof; and a rotary section coupled to the stationary section so as to be rotatable relative to the stationary section with respect to a rotational axis provided at the upper portion of the stationary section. The rotary section is configured by coupling a hand grip part for supporting a wearer's hand in a state where the wearer wears the crutch and a forearm part supporting a forearm of the wearer.

Abstract: A crutch has a joint structure, and the crutch includes a stationary section supported on a floor at a lower end of the stationary section, and extending from a lower portion to an upper portion thereof; and a rotary section coupled to the stationary section so as to be rotatable relative to the stationary section with respect to a rotational axis provided at the upper portion of the stationary section. The rotary section is configured by coupling a hand grip part for supporting a wearer's hand in a state where the wearer wears the crutch and a forearm part supporting a forearm of the wearer.

Abstract: A method of providing forward traffic light information during a stop includes capturing a front image in a vehicle, detecting traffic light information from the front image, and outputting a notification corresponding to the traffic light information to a mobile terminal or the vehicle depending on at least one of a communication state with the mobile terminal and a monitor state of the mobile terminal. A system for providing forward traffic light information during a stop includes a mobile terminal, and a vehicle that captures a front image and to detect traffic light information from the front image, where a notification corresponding to the traffic light information is output to the mobile terminal or the vehicle depending on at least one of a communication state with the mobile terminal and a monitor state of the mobile terminal.

Abstract: A wearable muscular strength assist apparatus and a method and a system of controlling the same are disclosed. The wearable muscular strength assist apparatus includes a main body for supporting the upper body of a wearer, a plurality of leg pulleys provided at the left and right sides of the main body, a plurality of links, each having one end for supporting a respective one of the legs of the wearer and the remaining end connected to a respective one of the leg pulleys so as to be interlocked therewith, a plurality of wires, each being connected to a respective one of the leg pulleys, and a driving unit provided at the main body and connected with the wires in order to provide the wires with tensile force for rotating the respective leg pulleys.

Abstract: A multi-bar linkage includes a driving unit that is configured to supply torque to a driving shaft, where the driving shaft is provided on a first portion of a first link. A driving arm has one end fixed to the driving shaft and an opposite end being movable following rotation of the driving shaft. A first auxiliary link has one end pivotably connected to the opposite end of the driving arm. A second auxiliary link is pivotably connected to a first point of a second portion of the first link and to an opposite end of the first auxiliary link. A second link is disposed below the first link and pivotably connected to the second auxiliary link. A third auxiliary link has one end pivotably connected to a second point of the second portion of the first link, separated from the first point, and an opposite end pivotably connected to the second link.

Abstract: A method of providing forward traffic light information during a stop includes capturing a front image in a vehicle, detecting traffic light information from the front image, and outputting a notification corresponding to the traffic light information to a mobile terminal or the vehicle depending on at least one of a communication state with the mobile terminal and a monitor state of the mobile terminal. A system for providing forward traffic light information during a stop includes a mobile terminal, and a vehicle that captures a front image and to detect traffic light information from the front image, where a notification corresponding to the traffic light information is output to the mobile terminal or the vehicle depending on at least one of a communication state with the mobile terminal and a monitor state of the mobile terminal.

Abstract: A lower body supporting robot system includes a lower body mechanism being worn on a user's lower body, the lower body mechanism including a plurality of joints and links and a drive device, a distance calculator for measuring a first distance that is a vertical distance to an object located therebelow and a second distance that is a vertical distance to a ground surface, a memory for storing a limit distance that is a vertical distance between the distance calculator and the ground surface when the lower body mechanism is in a lowest sitting posture, and a controller for calculating a tolerance distance that is a difference between the second distance and the limit distance, comparing the first distance with the tolerance distance, and controlling the drive device so that the distance calculator moves by the first distance when the first distance is less than the tolerance distance.

Abstract: A method for controlling a wearable robot includes deducing a knee joint angle value of a robot using a joint angle sensor in a control unit, comparing the deduced knee joint angle value with a reference knee joint angle value previously stored in the control unit, deducing a thigh angle value using a thigh angle sensor in the control unit when the deduced knee joint angle value exceeds the reference knee joint angle value, comparing the deduced thigh angle value with a reference thigh angle value previously stored in the control unit, and setting an operation mode of the robot to a lift-up mode in the control unit when the thigh angle value exceeds the reference thigh angle value.