A robot and control method for aerial contact non-destructive testing
A non-destructive testing, contact technology, applied in unmanned aerial vehicles, rotorcraft, motor vehicles, etc., can solve the problems of inaccurate test results, waste of manpower, time-consuming and laborious, etc., to overcome high cost, buffer external interference, Expand the effect of application scenarios
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Embodiment 1
[0070] Embodiment 1, a robot for air contact non-destructive testing operations, including a multi-rotor UAV 1, the multi-rotor UAV 1 is equipped with an on-board computer 11, and the on-board computer 11 is fixed on a multi-rotor The bottom of rotor UAV 1 also includes: measuring mechanism, including measuring main frame 6, depth camera 10, first carbon tube 15, second carbon tube 16 and ultrasonic measuring probe 7, and described measuring main frame 6 is fixedly arranged on multi-rotor wingless On the top of the man-machine 1, the depth camera 10 is fixed at the middle of the first carbon tube 15, the second carbon tube 16 is movably socketed with the first carbon tube 15, and the first carbon tube 15 is provided with a slide The chute is fixed with elastic parts, such as springs, which have both elastic transmission of power or motion and damping parts. Both ends of the elastic parts are provided with pin shafts, and the elastic parts pass through The bearing pins are fixe...
Embodiment 2
[0077] Embodiment 2, a method for controlling a robot used in aerial contact nondestructive testing operations, the method includes the following steps:
[0078] S1: Establish UAV dynamics model, perspective camera model and mass-spring-damper model;
[0079] S2: Design a task function according to image features and desired image features, the task function is expressed as:
[0080]
[0081] is the image feature, is the desired image feature, is the interaction matrix, which relates the change of image features in the camera to the camera velocity, is the generalized inverse matrix of the interaction matrix;
[0082] S3: Design the visual control law of the UAV by combining the change trajectory of the image features and the movement speed of the camera through the task function;
[0083] S4: Convert the velocity generated by the contact force of the manipulator into the velocity in the image space;
[0084] S5: Calculate the velocity of the end mechanism of the ...
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