Ubtech Robotics Corp Ltd

Zhaohui An

Youjun Xiong

Zheng Xie

Yizhang Liu

Kunlei Zhao

Jianxin Pang

Zecai Lin

Weizhi Shi

Ligang Ge

Chunyu Chen

Wenhua Yu

Meihui Zhang

Jinghua Tang

Minghua Chen

A robotic finger structure includes a proximal phalanx; a middle phalanx rotatably connected to one end of the proximal phalanx; a distal phalanx rotatably connected to one end of the middle phalanx and defining a distal phalanx opening in a front side thereof and at one end adjacent to the middle phalanx; a connecting rod having opposite ends that are rotatably connected to the proximal phalanx and the distal phalanx, and an actuating assembly to drive the middle phalanx to rotate with respect to the proximal phalanx. The connecting rod includes a first angled segment having a first recess facing a back side of the middle phalanx. When the distal phalanx is flush with the middle phalanx, the first angled segment passes through the distal phalanx opening, and a first end of the distal phalanx opening extends into the first recess.

Robotic finger structure and robot

A thumb structure includes a proximal phalanx, a distal phalanx rotatably connected to one end of the proximal phalanx, a fixing member connected to the proximal phalanx through a first ball joint, a linking member having opposite ends that are connected to the distal phalanx and the fixing member through a second ball joint and a third ball joint, a first actuating assembly to drive the proximal phalanx to swing in a direction of a first degree of freedom, and a second actuating assembly to drive the proximal phalanx to swing in a direction of a second degree of freedom.

Thumb structure and robot

A method for controlling an arm of a robot to imitate a human arm, includes: acquiring first pose information of key points of a human arm to be imitated; converting the first pose information into second pose information of key points of an arm of a robot; determining an angle value of each joint of the arm according to inverse kinematics of the arm based on the second pose information; and controlling the arm to move according to the angle values.

Method for imitation of human arm by robotic arm, computer readable storage medium, and robot

The present disclosure provides a robotic arm control method as well as an apparatus and a terminal device using the same. The method includes: obtaining a current joint angle of each of M joints of the robotic arm; obtaining a reference included angle based on the current joint angle of each of the M joints of the robotic arm; determining an expected included angle corresponding to the robotic arm within a target angle range based on the reference included angle and the preset included angle related evaluation function; and controlling the robotic arm based on the target joint angles of the M joints.

Robotic arm control method and apparatus and terminal device using the same

The present disclosure provides an output shaft component and a power output mechanism. The output shaft component includes a housing connected to the driven member, an adapter shaft connected to an output shaft of the power output mechanism, and an elastic body mounted in the housing. The adapter shaft is rotatably mounted in the housing. The elastic body includes an inner ring, an outer ring located outside the inner ring, and an elastic portion connected between the inner ring and the outer ring. The adapter shaft is sheathed in the inner ring, the inner ring is synchronously rotatably connected to the adapter shaft, and the outer ring is fixed on the housing.

Output shaft component with elastic body

The present disclosure relates to robot technology, which provides a gait control method, device, and terminal device for a biped robot. The method includes: planning an initial position of an ankle joint of the biped robot and a rotation angle of a sole of the biped robot to rotate around one of a toe and a heel of the biped robot; planning a body pose of the biped robot; calculating a target position of the ankle joint based on the initial position of the ankle joint and the rotation angle of the sole; obtaining a joint angle of each of a plurality of joints of the biped robot by performing an operation on the body pose and the target position of the ankle joint utilizing an inverse kinematics algorithm; and adjusting a gait of the biped robot based on the joint angle of each of the joints.

Growing community of inventors

Shenzhen, China

Zhaohui An