A method of validating a pose of a robot and/or of sensor data of a sensor moved along with the robot is provided, wherein a robot controller determines the real pose of the robot and the sensor measures real sensor data, In this respect, a robot simulation determines a simulated pose of the robot by a simulated movement of the robot and a sensor simulation determines simulated sensor data of the sensor by a simulated sensor measurement and the validation takes place by at least one comparison of the real pose and the simulated pose of the robot, of real sensor data and simulated sensor data, and/or of simulated sensor data among one another.

A method of calibrating a delta robot, the method including executing an arm movement by moving one driving link relative to other two driving links; measuring a movement of a point in fixed relationship with a tilting body during the arm movement as an arm measurement; executing a tilting movement by tilting the tilting body about a fifth axis; measuring a movement of the point during the tilting movement as a tilting measurement; and calibrating a fourth axis based on a comparison of the arm measurement and the tilting measurement. A method of calibrating the fifth axis, a control system, and a robot system are also provided.

A control apparatus makes a robot hand grip a work for measurement. The control apparatus controls the operation of a robot arm so that the robot arm keeps a force of striking the work for measurement against a reference constant, while making the end portion of the robot arm rotate around the end axis, in a state of making the outer periphery F3 of the work for measurement, which is gripped by the robot hand, strike against the reference jig. The control apparatus acquires a detection result detected by an encoder of each of the joints when the end portion of the robot arm has been rotated. The control apparatus calculates a correction amount of trajectory data based on eccentricity of a central axis with respect to an end axis, by using the detection result of the encoder, and corrects the trajectory data, based on the correction amount.

A robot system which is inexpensive and can easily measure a position of a target point. The system stores feature quantities of an image of a target mark included in an image acquired as reference data when the target mark is placed at a known first target mark position at the robot coordinate system and stores the first target mark position with respect to an arm tip as the position of the tool center point. The system compares the feature quantities obtained from the image acquired when the target mark is arranged at a second target mark position and the feature quantities of the reference data to make the arm tip move and calculates the second target mark position at the robot coordinate system based on a second robot position corresponding to the position of the arm tip after movement and the position of the tool center point.

A robot control device which controls a robot includes a sensor coordinate system calculation unit which calculates a position and an orientation of a sensor by making the robot perform a predetermined operation. The sensor coordinate system calculation unit comprises an operation parameter optimization unit which is configured to obtain a combination most suitable for calculating the position and orientation of the sensor, from a plurality of combinations of modified values of a predetermined type of operation parameters, by making the robot perform the predetermined operation, successively using each of the combinations.

A method for setting more precisely a position and/or an orientation of a device head in a measuring environment by a distance measuring device which has a number of M, M1, distance measuring sensors and which is connected to the device head. A control device is communicatively connected to the distance measuring device and an on-board sensor device. The position and/or the orientation of the device head is determined by the on-board sensor device and the position and/or the orientation of the device head determined by the on-board sensor device is set more precisely by the control device.

A robot control device which controls a robot includes a sensor coordinate system calculation unit which calculates a position and an orientation of a sensor by making the robot perform a predetermined operation. The sensor coordinate system calculation unit comprises an operation parameter optimization unit which is configured to obtain a combination most suitable for calculating the position and orientation of the sensor, from a plurality of combinations of modified. values of a predetermined type of operation. parameters, by making the robot perform the predetermined operation, successively using each of the combinations.

A robot system which is inexpensive and can easily measure a position of a target point. The system stores feature quantities of an image of a target mark included in an image acquired as reference data when the target mark is placed at a known first target mark position at the robot coordinate system and stores the first target mark position with respect to an arm tip as the position of the tool center point. The system compares the feature quantities obtained from the image acquired when the target mark is arranged at a second target mark position and the feature quantities of the reference data to make the arm tip move and calculates the second target mark position at the robot coordinate system based on a second robot position corresponding to the position of the arm tip after movement and the position of the tool center point.

A smart drilling system that includes a controller, a drilling machine with an optical marker, and a tracker station at a fixed spot of a construction site. The drilling machine includes an optical marker. The tracker station acquires the location of the drilling machine and its drill through tracking the optical marker. The drilling machine is moved into positions of multiple different work regions. The tracker station sequentially acquires the location of the multiple different work regions and transmits the acquired location information to the controller, such that, by using the transmitted locations, the controller converts drilling machine coordinates into desired perforation coordinates and recognizes an orientation of the drilling machine. The controller also recognizes a perforable point at a current position of the drilling machine through the location information of the drilling machine.