Cable pulling parallel robot device with anti-rotation mechanism
An anti-rotation and robot technology, applied in the direction of manipulators, program-controlled manipulators, manufacturing tools, etc., can solve the problems of difficult positioning of end effectors, increased cost and control difficulty, and complex structure of parallel robots, so as to reduce control difficulty, The effect of increased damping and increased stiffness
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Embodiment 1
[0031] Embodiment 1, for the planar cable traction parallel robot that needs to move in the plane, there are four drivers and active flexible cables, and a set of anti-rotation mechanism device 3 is installed on the end effector 4 in the working plane.
[0032] refer to figure 2 , this example includes an end effector 4, four drivers 1, four active flexible cables 2, and a set of anti-rotation mechanism 3. The end effector 4 is a cuboid that performs tasks in the horizontal plane, and it is required that it cannot rotate vertically during the movement.
[0033]The four driving devices 1 are fixed at designated positions in the work site in an evenly distributed manner, and the four active flexible cables 2 are respectively led out from the four driving devices 1, and are directly connected to the end effector 4 to realize end-to-end alignment. Actuator 4 drive. In order to limit the rotation of the end effector 4 in the vertical direction, a set of anti-rotation mechanism 3...
Embodiment 2
[0035] In Embodiment 2, there are four drivers and active flexible cables, and two sets of anti-rotation mechanism devices 3 are installed on the anti-rotation plane required by the end effector 4 .
[0036] refer to image 3 , this example includes an end effector 4 , four drivers 1 , four active flexible cables 2 , and two anti-rotation mechanisms 3 . The end effector 4 is a cuboid that performs tasks in space, and it is required that it cannot rotate in the vertical direction and the left and right horizontal directions during the movement process.
[0037] The four driving devices 1 are fixed at designated positions in the work site in the form of uniform distribution, and the four active flexible cables 2 are respectively drawn from the four driving devices 1, and are directly connected to the end effector 4 to realize the end effector. device 4 driver. In order to limit the rotation of the end effector 4 in the vertical direction and the left and right horizontal direc...
Embodiment 3
[0041] In Embodiment 3, there are three drivers and active flexible cables, and three sets of anti-rotation mechanism devices 3 are installed on the anti-rotation plane required by the end effector 4 .
[0042] refer to Figure 4 , this example includes an end effector 4, three drivers 1, three active flexible cables 2, and three anti-rotation mechanisms 3. The end effector 4 is a cuboid that performs tasks in space, and it is required to move only in translation during the movement.
[0043] The three driving devices 1 are fixed at designated positions in the work site in the form of uniform distribution, and the three active flexible cables 2 are respectively drawn out from the three driving devices 1, and are directly connected to the end effector 4 to realize the control of the end effector. 4 drives. In order to limit the rotation in all directions in space and ensure that it can only move in translation, it is necessary to install a set of anti-rotation mechanisms 3 on...
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