Abstract: A robot service system including a robot including least one manipulator and a controller controlling the motion of the manipulator. A remote service center includes an analyzing computer, and a communication line between the robot controller and the remote service center. A monitoring component is configured to monitor the current operation of the controller and the current motions of the manipulator, and to transmit information on the current operation of the controller and the current motions of the manipulator to the remote service center. The analyzing computer is configured, upon request, to calculate new maximum permissible performance parameters for the robot based on the received information and to transmit the new maximum permissible performance parameters to the robot controller.

Abstract: A robot service system including a robot including least one manipulator and a controller controlling the motion of the manipulator. A remote service center includes an analyzing computer, and a communication line between the robot controller and the remote service center. A monitoring component is configured to monitor the current operation of the controller and the current motions of the manipulator, and to transmit information on the current operation of the controller and the current motions of the manipulator to the remote service center. The analyzing computer is configured, upon request, to calculate new maximum permissible performance parameters for the robot based on the received information and to transmit the new maximum permissible performance parameters to the robot controller.

Abstract: Method for optimizing the movement performance of an industrial robot for a current movement path with respect to thermal load on the driving system of the robot, wherein the method comprises the following steps: for at least one component in the driving system, the thermal load is calculated for the whole or parts of the movement path if the calculated thermal load is compared with a maximally allowed load for the component; and dependent on said comparison, a course of accelerations and velocities for the current movement path are adjusted.

Abstract: Method for optimising the movement performance of an industrial robot for a current movement path with respect to thermal load on the driving system of the robot, wherein the method comprises the following steps: for at least one component in the driving system, the thermal load is calculated for the whole or parts of the movement path if the calculated thermal load is compared with a maximally allowed load for the component; and dependent on said comparison, a course of accelerations and velocities for the current movement path are adjusted.