Mechanism for solving problem of adhesion of fine cuttings to cutter in graphite cutting
A fine and graphite technology, which is applied in the direction of stone processing tools, manufacturing tools, stone processing equipment, etc., can solve the problem of random diffusion of fine graphite chips, so as to improve the dust-free effect, improve the sealing effect, and avoid the effect of spreading everywhere
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Embodiment 1
[0032] refer to Figure 1-Figure 5 , the mechanism for solving the problem of adhesion of fine chips to the tool in graphite cutting, including a column 1, the column 1 is detachably connected to the tool 21 through the tool seat 2, and the end of the column 1 close to the tool 21 is fixedly connected to the sealing cover 3. It should be noted that , the column 1 is connected with the driving support device of the machine tool, the cutting tool 21 adopts a common milling cutter and other processing tools, the sealing cover 3 includes a cover body 31, a stretching part 32 and a contact ring 33, the cover body 31 adopts a cylindrical structure, and the cover body One end of 31 is fixedly connected with the column 1, and the other end of the cover body 31 is flexibly connected with the contact ring 33 through the stretching member 32. The stretching member 32 includes a shroud 321 and a bellows 322, and the adjacent shroud 321 and the bellows 322 When the cutting tool 21 is in th...
Embodiment 2
[0043] refer to Image 6 , Figure 7 The difference from the first embodiment is that the intake pipe 62 is provided with a trigger groove 621, and the trigger groove 621 is slidably connected with a spoiler 623 through a return spring 622, and the end of the spoiler 623 far away from the return spring 622 is matched with a trigger switch 624 , the trigger switch 624 is electrically connected to the contact ring 33 .
[0044] When the equipment is in processing, the tool holder 2 rotates, and the exhaust fan 6 performs an air extraction action under the transmission of the rotating mechanism 5, and the flow of air flow is generated in the air intake pipe 62. At this time, the spoiler 623 passes the return spring 622 and the trigger groove 621 Sliding, when the exhaust fan 6 starts to rotate at a constant speed to extract air, the push of the spoiler 623 is gradually greater than the pulling force of the return spring 622, and then contacts the trigger switch 624. At this time...
Embodiment 3
[0046] refer to Figure 8 , and Embodiment 1 and Embodiment 2 are different in that ventilation holes 323 are provided in the coaming plate 321 and the bellows 322, the adjacent ventilation holes 323 are arranged in communication, and the contact ring 33 is provided with multiple sets of low-pressure suction holes 331, The low-pressure suction hole 331 communicates with the intake pipe 62 through the ventilation hole 323. The diameter of the low-pressure suction hole 331 gradually increases from the side close to the intake pipe 62 to the side away from the intake pipe 62.
[0047] When the equipment was being processed, the tool holder 2 rotated through the rotating mechanism 5 to drive the exhaust fan 6 to perform air extraction, and the air intake pipe 62 communicated with the low-pressure suction hole 331 through the ventilation hole 323. Because the air flow velocity at the air intake pipe 62 place is fast, ventilation The aperture of the hole 323 is small, so that the po...
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