The present invention discloses an machining device based on a portable 5-DOF parallel module. The machining device based on a portable 5-DOF parallel module comprises: a table for moving a parallel module to increase the stroke of the machine tool such that the machine tool can machine large components and can also simultaneously conduct the mounting and the machining of workpieces at different stations; a CNC rotary table; and a portable 5-DOF parallel module. The portable parallel module has a large swing angle range, can conduct the conversion between vertical and horizontal machining modes and can achieve five-face machining in one setup in cooperation with the CNC rotary table. The parallel module can move flexibly, and can machine large and complex components after mounted on the sliding table. After the machining of the workpiece is completed, the parallel module can move to the position of a mounted component through the table to conduct the machining of the next component. Thus, the mounting and the machining of the workpiece are simultaneously conducted at different stations, and the utilization rate and the production efficiency of the portable parallel module are improved.

The invention relates to a method for controlling a charging infrastructure comprising a charging station for charging a vehicle having a vehicle-side charging interface, wherein the charging station comprises a robot that carries a robot-side charging interface for establishing a charging connection with the vehicle-side charging interface, wherein the robot comprises a main base and a compliance assembly that is arranged kinematically between the main base and the robot-side charging interface for providing a compliance, wherein the method comprises in series a positioning phase in which the robot-side charging interface is moved to an initial connecting position, and a connecting phase in which the robot-side charging interface establishes a charging connection with the vehicle-side charging interface, wherein in the positioning phase a compliance value is compared with a positioning intervention value and a positioning instruction is changed when the compliance value exceeds a positioning intervention value, and in the connecting phase the compliance value is compared with a connecting intervention value and a connecting instruction is changed when the compliance value exceeds the connecting intervention value, wherein the positioning intervention value differs from the connecting intervention value.

The machining station can include a table; at least three robots each having a multi-axis mover secured to the table, and a gripper opposite the table, the robots being interspaced from one another on the table; and a controller. The controller controls the robots to hold a workpiece in a coordinated manner. The computer numerical command (CNC) machine-tool system machines the workpiece while the workpiece is held by the robots. The workpiece can be moved into and out from the machining station with a trolley which slidingly engages a trolley path formed within the table.

A robot arm includes a second coupling rod fixedly coupled to a second intermediate base at an end of the second coupling rod located closer to the second intermediate base and coupled to a tip base via a second joint at an end of the second coupling rod located closer to the tip base so as to enable the second coupling rod to turn with respect to the tip base, and the first intermediate base and the second intermediate base are coupled together via an intermediate joint so as to be able to turn. The robot arm also includes a turning actuator that turns the second intermediate base with respect to the first intermediate base.

A positioning device is disclosed which can include a base and a positioning element, which is configured to be adjusted with respect to six degrees of freedom relative to the base, wherein the positioning element is coupled to the base via at least three pairs of length-variable and electrically driven leg elements, and each leg element is connected, at its respective ends, to the base and the positioning element via an articulation element. A respective pair of legs projects through another pair of legs and each pair of legs is arranged perpendicular to the respective other pairs of legs. According to exemplary embodiments, each of the articulation elements associated with a leg element has only two axes of rotation (DA), which are arranged perpendicular to each other, so that the articulation elements allow pivotal movements of each respective leg element in precisely two planes that are perpendicular to each other and run through a longitudinal axis of the leg element, and at the same time prevent a rotational movement about a longitudinal axis of the leg element.

The invention relates to a charging infrastructure comprising a charging station (1) for charging a vehicle (10) having a vehicle-side charging interface (20), wherein the charging station (1) comprises a robot (50) that carries a robot-side charging interface (100) for establishing a charging connection with the vehicle-side charging interface (20), wherein the robot comprises a base frame (51), a movable carrier (60) carrying the robot-side charging interface, and at least three displacement assemblies (71-76) between the base frame and the movable carrier that form a mechanism to move the movable carrier with at least three degrees of freedom with respect to the base frame, wherein the displacement assemblies comprise an actuator (80) and a compliance assembly (90) in series with an actuator and the robot-side charging interface for resiliently absorbing or releasing a displacement between the actuator and the robot-side charging interface over a compliance stroke or angle.

A positioning device is disclosed which can include a base and a positioning element, which is configured to be adjusted with respect to six degrees of freedom relative to the base, wherein the positioning element is coupled to the base via at least three pairs of length-variable and electrically driven leg elements, and each leg element is connected, at its respective ends, to the base and the positioning element via an articulation element. A respective pair of legs projects through another pair of legs and each pair of legs is arranged perpendicular to the respective other pairs of legs. According to exemplary embodiments, each of the articulation elements associated with a leg element has only two axes of rotation (DA), which are arranged perpendicular to each other, so that the articulation elements allow pivotal movements of each respective leg element in precisely two planes that are perpendicular to each other and run through a longitudinal axis of the leg element, and at the same time prevent a rotational movement about a longitudinal axis of the leg element.

The present invention discloses an overhead machining device based on a portable 5-DOF full parallel module. The overhead machining device based on a portable 5-DOF full parallel module comprises: a sliding table for moving a parallel module to increase the stroke of the machine tool such that the machine tool can machine large components and can also simultaneously conduct the mounting and the machining of workpieces at different stations; a CNC rotary table; and a portable 5-DOF full parallel module. The portable parallel module has a large swing angle range, can conduct the conversion between vertical and horizontal machining modes and can achieve five-face machining in one setup in cooperation with the CNC rotary table. The parallel module can move flexibly, and can machine large and complex components after mounted on the sliding table.

The invention relates to the improvement of exoskeletons and masters thereof and to their use in teleoperative applications in virtual worlds or the real world. Non-actuated exoskeletons can be used to transfer loads from the user, for example, heavy luggage, tools or also the body weight of the user, to the ground and to relieve the joint and muscle system of the user. This can increase the endurance and also effective strength of the user. Motor-driven, actuated exoskeletons can be used in different fields. They can be worn as a freely moveable robotic suit which comprises a built-in energy supply and electronic control. They can also be used to improve the force and endurance of a user whilst the user moves in an unlimited environment. Another use of the fixed exoskeleton is in the field of interaction with virtual worlds or for controlling real robots. In this instance, an exoskeleton can be used to establish a teleoperative connection between the user and the master (virtual avatar or real robot). The user users the exoskeleton to directly transfer control commands to the master. The elements of the user and the master then practically carry out the same movements synchronously. The aim of the invention is to improve exoskeletons and masters of the mentioned type and the associated control units. This can, in particular, be achieved by a favorable realization of rotational axes which define rotational movements of different elements which to a large extent perform a hip movement.

An end effector including: a supporter configured to support a plate member; a support table provided at an end portion of the supporter via an universal joint and configured to support the plate member by making surface contact with the plate member; holding unit including a pair of holders configured to move linearly in a planar direction while the support table is interposed between the pair of holders in the planar direction, the holding unit being fixed to a base portion of the support table; and electric cylinders configured to change an inclination angle of the support table with respect to the supporter.