A tensegrity robot includes multiple tensile members connected to multiple structural members to form a spatially defined structure. Each structural member is connected to one or more other structural members by tensile members therebetween. The robot further includes multiple actuators operatively connected to the tensile members and the structural members, and multiple controllers configured to communicate with each of the actuators. The controllers direct control of at least one of tension or length of the tensile members by the actuators to cause a change in at least one of the size, shape or center of gravity of the spatially defined structure to effect robotic actions. At least two tensile members are connected to an actuator such that at least one of tension or length in both of the tensile members are changed in coordination by the actuator.

A tensegrity robot includes multiple tensile members connected to multiple structural members to form a spatially defined structure. Each structural member is connected to one or more other structural members by tensile members therebetween. The robot further includes multiple actuators operatively connected to the tensile members and the structural members, and multiple controllers configured to communicate with each of the actuators. The controllers direct control of at least one of tension or length of the tensile members by the actuators to cause a change in at least one of the size, shape or center of gravity of the spatially defined structure to effect robotic actions. At least two tensile members are connected to an actuator such that at least one of tension or length in both of the tensile members are changed in coordination by the actuator.

A robot includes a main body, a handlebar disposed on the main body and grippable by a user, a detection unit that detects a load applied to the handlebar, a moving device including a rotating body and moving the robot by controlling the rotation of the rotating body, and a switching unit that switches a support mode for supporting the user with walking. The support mode includes a first mode in which the robot autonomously moves to guide the user who is walking and a second mode in which the robot moves in accordance with a first load detected by the detection unit. When the robot moves in the first mode, the switching unit switches the support mode from the first mode to the second mode on the basis of the second load detected by the detection unit.

A locking device includes an outer portion and an inner portion. The outer portion has a bore formed at least partially axially therethrough and a channel formed laterally therethrough. The inner portion is positioned at least partially within the bore. A first link is positioned at least partially outside of the outer portion and coupled to the inner portion through the channel. A second link is coupled to the outer portion. A pin is coupled to the first link and the second link. The locking device is in an unlocked state when the inner portion is fully positioned within the bore, and the locking device is in a locked state when an end of the inner portion extends axially out of the bore.

A locking device includes an outer portion and an inner portion. The outer portion has a bore formed at least partially axially therethrough and a channel formed laterally therethrough. The inner portion is positioned at least partially within the bore. A first link is positioned at least partially outside of the outer portion and coupled to the inner portion through the channel. A second link is coupled to the outer portion. A pin is coupled to the first link and the second link. The locking device is in an unlocked state when the inner portion is fully positioned within the bore, and the locking device is in a locked state when an end of the inner portion extends axially out of the bore.

The present disclosure provides a zero moment point jitter processing method as well as an apparatus and a robot using the same. The method includes: obtaining left foot force information and right foot force information collected by sensors; calculating a first zero moment point and a second zero moment point of soles of two feet of a robot based on the left foot force information and the right foot force information; calculating a third zero moment point of the robot according to the first zero moment point and the second zero moment point; calculating a jitter amplitude of the third zero moment point within a preset period; and adjusting a position of the third zero moment point in response to the jitter amplitude being not larger than a predetermined jitter amplitude threshold. In this manner, the robot can eliminate zero moment point jitters within a certain amplitude.

The present disclosure provides a zero moment point jitter processing method as well as an apparatus and a robot using the same. The method includes: obtaining left foot force information and right foot force information collected by sensors; calculating a first zero moment point and a second zero moment point of soles of two feet of a robot based on the left foot force information and the right foot force information; calculating a third zero moment point of the robot according to the first zero moment point and the second zero moment point; calculating a jitter amplitude of the third zero moment point within a preset period; and adjusting a position of the third zero moment point in response to the jitter amplitude being not larger than a predetermined jitter amplitude threshold. In this manner, the robot can eliminate zero moment point jitters within a certain amplitude.

The present invention relates to a robot. A robot according to one embodiment of the present invention comprises a body having a set volume, and traveling members provided in the left area and right area of the body and rotatably connected to the body through rotating shafts, wherein the rotating shafts are positioned to be vertically inclined at the incline of the rotating shafts so that same gradually face outward from the top to the bottom thereof.

The present invention relates to a robot. A robot according to one embodiment of the present invention comprises a body having a set volume, and traveling members provided in the left area and right area of the body and rotatably connected to the body through rotating shafts, wherein the rotating shafts are positioned to be vertically inclined at the incline of the rotating shafts so that same gradually face outward from the top to the bottom thereof.

The present disclosure provides a stair climbing gait planning method and an apparatus and a robot using the same. The method includes: obtaining first visual measurement data through a visual sensor of the robot; converting the first visual measurement data to second visual measurement data; and performing a staged gait planning on a process of the robot to climb the staircase based on the second visual measurement data. Through the method, the visual measurement data is used as a reference to perform the staged gait planning on the process of the robot to climb the staircase, which greatly improves the adaptability of the robot in the complex scene of stair climbing.