A kind of anti-vacuum evaporation metal additive manufacturing device and its working and manufacturing method
A technology of additive manufacturing and working methods, applied in the direction of manufacturing tools, additive processing, metal processing equipment, etc., can solve problems such as damage to the optical path, easy pollution of end optical devices, failure of manufacturing systems, etc., to achieve the effect of pollution control
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Embodiment 1
[0070] Example 1: High vacuum environment anti-evaporation metal additive manufacturing device
[0071] For the embodiment of the present invention, please refer to figure 1 Shown is a high-vacuum environment anti-evaporation metal additive manufacturing device, which includes laser focusing head 6, high-speed shutter, low-speed shutter, metal melt 4, workbench and optical switch controller and other elements; There are two kinds of gates, high-speed optical gate and low-speed optical gate, between the laser focusing head 6 and the molten metal 4; The high-speed shutter 2 and the low-speed shutter include a low-speed shutter 3; the mechanical shutter is realized by periodic rotary motion, and the two shutters are opened at the same time. The controller sends out the light-off enabling signal; the continuous pulse control signal sent by the optical switch controller to the laser makes the laser beam output in a pulsed mode, and the pulsed laser acts on the surface of the metal...
Embodiment 2
[0078] Example 2: An optimal working method and sequence of a high-vacuum environment anti-evaporation metal additive manufacturing device
[0079] The embodiment of the present invention is an optimal working method based on the device in Embodiment 1. Using the method in the embodiment of the present invention for metal additive manufacturing can effectively prevent metal droplets from contaminating optical components and ensure the accuracy of metal additive manufacturing. Efficient and orderly.
[0080] The working method described in the embodiment of the present invention describes in detail a cycle of metal additive manufacturing process.
[0081] Specifically, please Figure 2a and Figure 2b shown, t 0 Two high-speed optical gates and one low-speed optical gate are fully opened at the same time; then the laser is controlled to start emitting light and close after a duration of dt (laser pulse width). At this time, the relationship can be satisfied by design: dt1 -t...
Embodiment 3
[0085] Example 3: An optimal design method for an anti-evaporation metal additive manufacturing device in a high vacuum environment
[0086] A high-vacuum environment anti-evaporation metal additive manufacturing device proposed by the present invention, its key design parameters include the distance L from the laser focusing head to the molten metal 0 , the distance L from the shutter to the molten metal 1 , the light output aperture of the laser focusing head d 0 , high-speed optical shutter aperture d 1 , low-speed shutter light aperture d 2 , high-speed shutter turntable diameter D 1 , the number of optical ports of the high-speed optical gate N 1 , the diameter of the low-speed shutter turntable D 2 , the number of optical ports of the low-speed optical gate N 2 , high-speed shutter speed Φ, low-speed shutter speed Φ / n 1 , Pulse laser repetition frequency Φ / n 1 no 2 , pulse laser width dt, single pulse laser energy dP, vapor arrival delay time t 2 -t 0 , steam ...
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