A rapid multi-material photocuring 3D printing device and method based on dual light sources
A 3D printing and multi-material technology, applied in manufacturing auxiliary devices, 3D object support structures, additive processing, etc., can solve the problems of low printing efficiency and large loss of precision, and achieve the effect of improving efficiency and flexibly replacing light sources
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specific Embodiment approach 1
[0033] Combine below Figure 1-6 Describe this embodiment, a rapid multi-material photocuring 3D printing device based on dual light sources, including a light source system, a projection system, a material pool device, a base device, a ventilation device and a vibration isolation table 1, and the light source system is set in an isolated On the shock table 1, the projection system includes an optical machine 5 and an external optical path part, both of which are fixedly connected to the shock isolation table 1, and the light entrance of the optical machine 5 is set at the output end of the optical path of the light source system. The device includes an air chamber 9, an oxygen-permeable membrane 10 and a material tank 11, the air chamber 9 is fixedly connected under the material tank 11, the two sides of the air chamber 9 are respectively provided with an air inlet and an air outlet, and the oxygen-permeable membrane 10 is clamped on The air chamber 9 and the material pool 11...
specific Embodiment approach 2
[0035] Combine below Figure 1-6 Describe this embodiment mode, this embodiment mode will further explain Embodiment 1, the light source system includes a controller 2, a light emitting head 3 and a beam splitter 4, and the controller 2, light emitting head 3 and beam splitter 4 are all fixedly connected to the vibration isolation table 1, two light-emitting heads 3 are provided, and the two light-emitting heads 3 are placed opposite to each other at 90°. The two light-emitting heads 3 are connected to the controller 2 through wires, the controller 2 is connected to the control switch, and the beam splitter 4 is set on The two light-emitting heads 3 are placed at an angle of 45° to the intersection of the two light-emitting heads 3 in front of each other.
specific Embodiment approach 3
[0037] Combine below Figure 1-6 This embodiment will be described. This embodiment will further explain the second embodiment. The two light emitting heads 3 are respectively a low-band light emitting head 3-1 and a high-wave light emitting head 3-2, and a low-band light emitting head 3-1 and a high-wave The band light-emitting heads 3-2 are 90° opposite and placed at the same height, the beam splitter 4 is placed at 45° with the low-band light-emitting heads 3-1 and the high-band light-emitting heads 3-2 and the center heights are consistent, and the low-band light-emitting heads 3 -1 and the high-band light-emitting head 3-2 are respectively located on both sides of the beam splitter 4, so that the output light of the low-band light-emitting head 3-1 passes through the optical path of the beam splitter 4, and the output light of the high-band light-emitting head 3-2 passes through the light path The optical paths after the mirror 4 emits overlap, and the overlapped optical ...
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