Abstract: A method for exchanging data within a robotic system including at least three robotic units, each robotic unit having a first communication device with a short range communication reach for exchanging data with each other and a data storage. The method includes the acts of recognizing a necessity of a data transfer for a first robotic unit of the at least three robotic units, determining an area of interference of the short range communication reach of the first robotic unit and the short range communication reach of a second robotic unit of the at least three robotic units, the second robotic unit being out of the short range communication reach of the first robotic unit, determining a waypoint within the area of interference for a third robotic unit of the at least three robotic units, and commanding the third robotic unit to move to the waypoint.

Abstract: The disclosure provides a method for exchanging data within a robotic system comprising a mobile field robot for operating in a field and a mobile service robot, the field robot and the service robot each comprising a buffer for storing data and a first communication device with a short-range communication reach for exchanging data with each other, the method comprising: commanding the field robot to operate in the field using data stored in the buffer of the field robot, recognizing a necessity of a data transfer for the field robot, commanding the service robot to approach to the field robot, detecting that one of the robots is covered by the short-range communication reach of the other robot, initiating a data transfer between the field robot and the service robot.

Abstract: The invention relates to a mobile robot having running gear and at least one robot arm mounted on the running gear, a sensor system for sensing obstacles in the surroundings of the robot and a navigation unit for laying down a route along which the running gear can be moved while avoiding the obstacles, and a control unit for the robot arm which is adapted to lay down a permissible position for the robot arm by reference to the obstacles sensed and the route.

Abstract: A robot system comprises a base (2), a robot arm (1) connected to the base, a camera (10), at least one objective lens in the camera (10) being movable with the robot arm (1), and a screen (16). A control unit (15) is configured to detect a change in the distance between an object (21) detected by the camera (10) and the objective lens, and to vary the zoom factor of a zoom function of the camera (10) according to the change in distance.

Abstract: The invention relates to a mobile robot having running gear and at least one robot arm mounted on the running gear, a sensor system for sensing obstacles in the surroundings of the robot and a navigation unit for laying down a route along which the running gear can be moved while avoiding the obstacles, and a control unit for the robot arm which is adapted to lay down a permissible position for the robot arm by reference to the obstacles sensed and the route.

Abstract: The Invention relates to a control device (25, 28, 29) for controlling a robot system (11) with at least one robot arm (14, 18) on which a surgical instrument (15, 19) is secured that has an end effector (17, 21), wherein the control device (25, 28, 29) comprises an imaging system (25, 28) that records the control specification of at least one hand (30L, 30R), evaluates it and converts it to corresponding control commands for one or more components of the robot system (11).

Abstract: The invention relates to a device (2, 6) for manually controlling a robot system, comprising an input device (2), which can be operated by means of at least two hands and has a sensor system (7, 10) for detecting control specifications of a first hand (12) and control specifications of a second hand (13). According to the invention, the control device (2, 6) comprises a first control unit (19), which performs a position control function in dependence on the control specifications of the first hand (12), and a second control unit (20), which performs a velocity control function or a position control function in dependence on the control specifications of the second hand (13).

Abstract: The invention relates to an end effector (7) for a surgical instrument (1), said end effector (7) comprises a drive unit (6) comprising an electric motor (12) which rotationally drives a shaft (14, 18). According to the invention, the end effector (7) also comprises a rotation-translation-transmission (29) which is connected to the shaft (14, 18) and which translates a rotating movement of the shaft (14, 18) into a translatory movement, and at least one working element (8) which is coupled to the rotation-translation-transmission (29) and is only driven thereby in a translatory manner.

Abstract: The Invention relates to a control device (25, 28, 29) for controlling a robot system (11) with at least one robot arm (14, 18) on which a surgical instrument (15, 19) is secured that has an end effector (17, 21), wherein the control device (25, 28, 29) comprises an imaging system (25, 28) that records the control specification of at least one hand (30L, 30R), evaluates it and converts it to corresponding control commands for one or more components of the robot system (11).