Abstract: A method and an associated controller for safely operating a multi-axis kinematic system by using a safety function are disclosed. The method includes calculating compensation values at the run time of a controller of the multi-axis kinematic system, wherein the calculation is performed based on predefinable error values of respective axes, geometric parameters of the multi-axis kinematic system, and current axis values of the multi-axis kinematic system. The method further includes operating the safety function based on the calculated compensation values.

Abstract: A method and an associated controller for safely operating a multi-axis kinematic system by using a safety function are disclosed. The method includes calculating compensation values at the run time of a controller of the multi-axis kinematic system, wherein the calculation is performed based on predefinable error values of respective axes, geometric parameters of the multi-axis kinematic system, and current axis values of the multi-axis kinematic system. The method further includes operating the safety function based on the calculated compensation values.

Abstract: A method for setting up safe operation of a multi-axis kinematic system, a method for safely operating a multi-axis kinematic system, and to an input device for setting up safe operation of a multi-axis kinematic system and a corresponding computer program product. A method includes providing error values of respective axes and ascertaining a compensation value for at least one variable of the safety function on the basis of the error values, on the basis of geometric parameters of the multi-axis kinematic system and on the basis of axis values of the respective axes that are obtained from trajectories of the multi-axis kinematic system.

Abstract: A method for warning a person in a working area about at least one first robot, and a robot system that includes the at least one first robot, wherein the movement of the robot in a future working interval is predicted, a determination is made as to whether a working area segment will be passed over by the robot in a first or second time period, a first or second visual warning is emitted in accordance with when the working area segment will be passed over, and the first or second visual warnings are respectively emitted onto a floor segment that is assigned to a respective working area segment.

Abstract: A method for controlling a robot, which is designed to be operated in a working mode, in which a part of the robot is moved at a speed at which there is a risk of injury to a person. The working mode is deactivated if a safety device detects that the person has entered an action region of the displaceable part. The aim is to make close cooperation possible between the person and the robot. A sensor unit determines a position and a posture of the person while the person is outside the action region of the part. A prediction unit determines an action region of the person. A collision monitoring unit monitors whether the two action regions overlap. The robot can optionally be switched from the working mode into a safety mode.

Abstract: A method for warning a person in a working area about at least one first robot, and a robot system that includes the at least one first robot, wherein the movement of the robot in a future working interval is predicted, a determination is made as to whether a working area segment will be passed over by the robot in a first or second time period, a first or second visual warning is emitted in accordance with when the working area segment will be passed over, and the first or second visual warnings are respectively emitted onto a floor segment that is assigned to a respective working area segment.

Abstract: A method for controlling a robot, which is designed to be operated in a working mode, in which a part of the robot is moved at a speed at which there is a risk of injury to a person. The working mode is deactivated if a safety device detects that the person has entered an action region of the displaceable part. The aim is to make close cooperation possible between the person and the robot. A sensor unit determines a position and a posture of the person while the person is outside the action region of the part. A prediction unit determines an action region of the person. A collision monitoring unit monitors whether the two action regions overlap. The robot can optionally be switched from the working mode into a safety mode.