A robotic positioning apparatus configured for moving an element from an initial position to a target position. The apparatus includes a moveable member attachable to an element to be moved; at least one tensile support member for supporting the movable member; and at least one tensile positioning member for repositioning the moveable member. The at least one tensile positioning member is configured to maintain the at least one tensile support member in tension. The at least one tensile support member is configured to maintain an inclination of at least a portion of the moveable member during repositioning.

A manipulator includes a mount member, a base member with threaded openings and an aperture, two links, and an output member with threaded openings and an aperture. The manipulator also includes three motors mounted to the mount member and three drive trains connected to the motors, respectively.

The present invention relates to an articulated arm (100) comprising at least three articulations mounted in series in order to allow movements on at least two rotation axes by articulation, characterized in that each articulation (1) comprises a first (2) and second (3) support and at least three linear actuators (10), each linear actuator (10) having a first and second end articulated respectively on the first (2) and second (3) supports by means of a swivel connection (41, 42, 43, 44) and in that it comprises a deformable fluidtight sheath (200) enveloping at least a plurality of articulations and having a volume enabling it, in any circumstance, to follow the movements imparted by the articulated arm.

A robotics camera system includes a camera robot that is in wireless communication with a robot cloud server through a cloud network such as the Internet. A user having a mobile device desires to utilize a particular camera robot. The user mobile device may wirelessly communicate with the camera robot either directly or indirectly, through the cloud network. User interaction with the camera robot may be to initiate a photo session and/or to have the camera robot follow the user through a venue. In some embodiments the user initiates the interaction through a social media platform. In some embodiments the user initiates the interaction by utilizing a designated application that runs upon the user's mobile device. In some embodiments the user initiates the interaction with the use of a two-dimensional machine-readable code element. In some embodiments the user initiates an interaction with a plurality of robots that work collaboratively.

A control method for a surgical robotic arm, a computer device and a surgical robotic arm are provided. The control method includes calculating a telecentric fixed point on an executing rod according to a target point and controlling a preoperative positioning assembly to advance a first movable platform of a telecentric manipulating assembly along a first coordinate axis of a movable coordinate system; calculating a first origin coordinate of an origin of the first movable platform in a stationary coordinate system according to the coordinate of the telecentric fixed point and the trajectory coordinate of an end point; calculating the length of a first telescopic element of the telecentric manipulating assembly according to the coordinates of a hinge point of the telecentric manipulating assembly in the stationary coordinate system; and controlling the first movable platform to move to a designated pose.

An end effector for confined space manufacturing operations and methods of use are presented. The end effector comprises a pair of kinematic machines connected in series, and an operational head connected to a first platform of a first kinematic machine of the pair of kinematic machines, the operational head configured to perform number of manufacturing operations on a structure.