A three-degree-of-freedom precision operating device and its excitation method for surface microstructure forming
A technology of operating devices and microstructures, applied in spraying devices, electrostatic spraying devices, etc., can solve the problems of large material loss, high processing costs, and poor surface quality
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specific Embodiment approach 1
[0074] Specific implementation mode one: combine Figure 1 ~ Figure 3 This embodiment will be described. This embodiment provides a three-degree-of-freedom precision operation device for surface microstructure molding; the operation device includes a precision drive mechanism 1, a piezoelectric micro-injector 2, a trajectory marking component 3 and a molding target surface 4; the The precision drive mechanism 1 is fixedly connected to the forming target surface 4, and by controlling the three-degree-of-freedom motion of the precision drive mechanism 1, different trajectory planning of the forming target surface 4 is realized; the piezoelectric micro-injector 2 is fixed to the peripheral device, It can meet the injection requirements of various types of materials; the trajectory scoring component 3 can complete the scoring of the forming target surface 4, and the microdroplets ejected by the piezoelectric micro-injector 2 can be guided and diffused through the scored trajectory...
specific Embodiment approach 2
[0078] Specific implementation mode two: combination figure 2 , Figure 4 This specific embodiment will be described. This embodiment provides an implementation of a precision drive mechanism, respectively giving Y_bending piezoelectric ceramics 1-1-3, -Y_bending piezoelectric ceramics 1-3-1, and X_longitudinal piezoelectric ceramics 1-4 -3 and -X_longitudinal piezoelectric ceramics 1-2-2 respectively apply corresponding AC voltage signals, and the precision drive mechanism 1 can realize translation along the X-axis direction;
[0079] The excitation method to realize translation in the X-axis direction is as follows:
[0080] Step 11, initial state, since there is no voltage signal input acting on Y_bending piezoelectric ceramics 1-1-3, -Y_bending piezoelectric ceramics 1-3-1, X_longitudinal piezoelectric ceramics 1-4-3 , -X_longitudinal piezoelectric ceramic 1-2-2, Y_inertial body 1-1-1, -Y inertial body 1-3-4, X_inertial body 1-4-4, -X_inertial body 1-2-1 all remain st...
specific Embodiment approach 3
[0084] Specific implementation mode three: combination figure 2 , Figure 5 This specific embodiment will be described. This embodiment provides an implementation of a precision drive mechanism, respectively giving Y_longitudinal piezoelectric ceramics 1-1-2, -Y_longitudinal piezoelectric ceramics 1-3-3, and X_curved piezoelectric ceramics 1-4 -1 and -X_ bending piezoelectric ceramics 1-2-4 respectively apply corresponding AC voltage signals, and the precision drive mechanism 1 can realize translation along the Y-axis direction;
[0085] The excitation method to achieve translational movement in the Y-axis direction is as follows:
[0086] Step 21, the initial state, because there is no voltage signal input acting on Y_longitudinal piezoelectric ceramics 1-1-2, -Y_longitudinal piezoelectric ceramics 1-3-3, X_bending piezoelectric ceramics 1-4-1 , -X_bending piezoelectric ceramics 1-2-4, Y_inertial body 1-1-1, -X_inertial body 1-2-1, -Y inertial body 1-3-4, X_inertial body ...
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