Titanium alloy welding wire multi-leaf wheel polishing mechanism

Abstract

The invention relates to a titanium alloy welding wire multi-leaf wheel polishing mechanism. The problem that dust is prone to being accumulated on the side face of a multi-leaf wheel is effectively solved. According to the technical scheme, the device comprises a mounting disc, a multi-leaf wheel is rotationally arranged on one side of the mounting disc, a moving block is slidably arranged on the surface of the mounting disc, a guide block is integrally arranged on one side of the mounting disc, a floating frame is slidably arranged on the surface of the moving block, and a contact bag is arranged on one side of the floating frame; and a supporting frame is integrally arranged on one side of the mounting disc. According to the scheme, the arranged moving block can move together with the multi-leaf wheel when the multi-leaf wheel rotates, the wet contact bag can make contact with the edge of the multi-leaf wheel in the moving process, the edge of the multi-leaf wheel is covered, and the multi-leaf wheel has the dust sticking capacity and the cooling capacity through liquid wetting.

Description

Technical Field

[0001] The present invention relates to the technical field of wire polishing, and particularly to a wire mechanism for a thousand-wheel of titanium alloy wire. Background Art

[0002] With the rapid development of the aerospace, army equipment, shipbuilding, and nuclear industry manufacturing industries, the demand for titanium alloy wire is also increasing continuously. And the quality of the wire directly affects the overall quality and safety reliability of the welded parts. Therefore, higher requirements are imposed on the quality of the wire material.

[0003] At present, the existing titanium alloy wire production plants in China are mainly concentrated in Baoji City, Shaanxi Province. In the production process of titanium alloy wire, hot drawing process and stress relief annealing process are adopted. During hot drawing and annealing, lubricant will remain on the surface of the wire, and oxide scale will be formed due to oxidation reaction at high temperature. During the polishing process of the residual lubricant and oxide scale on the wire surface, a large amount of dust will be generated. These dust impurities will enter the vicinity of the side of the thousand-wheel during the operation of the thousand-wheel, resulting in the surface of the thousand-wheel being particularly prone to dust accumulation. There is a lack of a wire mechanism for a thousand-wheel of titanium alloy wire that can clean the dust on the edge of the thousand-wheel while the thousand-wheel is working.

[0004] In view of the above, we provide a polishing mechanism for a thousand-wheel of titanium alloy wire to solve the above problems. Summary of the Invention

[0005] In view of the above situation, the present invention provides a polishing mechanism for a thousand-wheel of titanium alloy wire. The moving block of the mechanism can move together when the thousand-wheel rotates. During the movement, the wet contact capsule can contact the edge of the thousand-wheel, covering the edge of the thousand-wheel. The liquid wetting has a dust-catching ability and a temperature-lowering ability.

[0006] A polishing mechanism for a thousand-wheel of titanium alloy wire includes a mounting disc. A thousand-wheel is rotatably arranged on one side of the mounting disc. A moving block is slidably arranged on the surface of the mounting disc. A guiding block is integrally arranged on one side of the mounting disc. A floating frame is slidably arranged on the surface of the moving block. A contact capsule is arranged on one side of the floating frame. A support frame is integrally arranged on one side of the mounting disc. A contact wheel is rotatably arranged on one side of the support frame. A return spring is arranged on one side of the contact wheel. A driving wheel is meshed with one side of the contact wheel. The driving wheel is rotatably arranged on one side of the support frame. A support bar is integrally arranged on one side of the driving wheel.

[0007] The beneficial effects of the above technical solution are as follows:

[0008] The moving block provided in this solution can move together when the abrasive disc rotates. During the movement, the wet contact capsule can contact the edge of the abrasive disc, covering the edge of the abrasive disc. Utilizing the dust-catching ability and cooling ability of the liquid wetness, the dust on the edge of the abrasive disc is wiped off. And at a specific position, gas is discharged, which can blow the dust in the gap of the abrasive disc to one side of the abrasive disc to be sucked in by the dust collector or reach the surface of the contact capsule for the dust to adhere to. When the moving block returns, the dust on the surface of the contact capsule can be scraped off to re-wet the surface of the contact capsule again. Description of the Drawings

[0009] Figure 1 Schematic diagram of the overall structure of the present invention;

[0010] Figure 2 Schematic diagram of the back of the mounting plate of the present invention;

[0011] Figure 3 Schematic diagram of the mounting plate of the present invention with parts hidden;

[0012] Figure 4 Schematic diagram of the support frame of the present invention;

[0013] Figure 5 Schematic diagram of a partial cut of the air delivery pipe of the present invention;

[0014] Figure 6 Schematic diagram of a cut on one side of the air delivery pipe of the present invention;

[0015] Figure 7 Schematic diagram of the annular frame of the present invention;

[0016] Figure 8 Schematic diagram of a cut in the middle of the moving block of the present invention;

[0017] Figure 9 Schematic diagram of the bottom of the floating frame of the present invention.

[0018] In the figure: 1, mounting disc; 2, thousand-leaf wheel; 3, moving block; 4, guiding block; 5, floating frame; 6, contact capsule; 7, support frame; 8, contact wheel; 9, reset spring; 10, driving wheel; 11, supporting bar; 12, air delivery pipe; 13, air delivery valve; 14, driving spring; 15, driving groove; 16, driving block; 17, supply pipe; 18, jet valve; 19, extrusion spring; 20, movable blade; 21, fixed blade; 22, annular frame; 23, infusion pipe; 24, sponge ring; 25, one-way ring; 26, one-way block; 27, pushing block; 28, arc-shaped block; 29, docking block; 30, collision bar; 31, collision spring; 32, maintaining spring; 33, discharge blade; 34, exhaust port; 35, internal spring; 36, extension bar; 37, dust suction frame; 38, dust suction port; 39, rotating block; 40, push rod; 41, overlapping bar; 42, arc-shaped spring. Specific implementation manner

[0019] Regarding the foregoing and other technical contents, features and effects of the present invention, they can be clearly presented in the following detailed description of the embodiments in conjunction with the attached Figures 1 to 9 drawings. The structural contents mentioned in the following embodiments are all referenced to the drawings of the specification.

[0020] This embodiment provides a polishing mechanism for a thousand-leaf wheel of titanium alloy welding wire. As shown in the attached Figures 1 - 9 drawings, the attached drawings of the specification Figure 1 are the overall structure diagrams of this solution. The attached drawings of the specification Figure 2 show the back of the mounting disc 1. The attached drawings of the specification Figure 3 hide and show the mounting disc 1. The attached drawings of the specification Figure 4 mainly show the structure diagram of the support frame 7. The attached drawings of the specification Figure 5 On the basis of the attached drawings of the specification Figure 4 a part of the air delivery pipe 12 is cut and shown. The attached drawings of the specification Figure 6 show one side of the air delivery pipe 12. The attached drawings of the specification Figure 7 cut one side of the annular frame 22. The attached drawings of the specification Figure 8 cut the moving block 3 in half. The attached drawings of the specification Figure 9Cut the top of the floating frame 5 and then cut the floating frame 5 in half. The mounting plate 1 of this solution is installed on the production line. Two thousand-leaf wheels 2 are rotatably arranged on the mounting plate 1. The titanium alloy welding wire to be polished in this solution passes through between the two thousand-leaf wheels 2. Since a lot of impurities adhere to the thousand-leaf wheels 2 during the polishing process, this solution is designed such that the moving block 3 can rotate together with the thousand-leaf wheels 2. The moving block 3 is arc-shaped and rotatably arranged on the mounting plate 1 because a corresponding arc-shaped slideway is provided on the mounting plate 1, enabling the moving block 3 to slide stably on the mounting plate 1. And an arc-shaped spring is arranged on one side of the moving block 3, and the arc-shaped spring is supported on one side of the moving block 3, so that the moving block 3 maintains its initial position without external force. The initial position of the moving block 3 is as shown in the attached Figure 1 of the specification. The driving of the moving block 3 depends on the driving of the thousand-leaf wheel 2. A long strip that can contact the rotating block 39 is integrally provided on the back of the thousand-leaf wheel 2 (as shown in the attached Figure 2 of the specification). The rotating block 39 is rotatably arranged on one side of the back of the moving block 3, and a torsion spring is provided at the position of the rotation center of the rotating block 39. This ensures that the rotating block 39 is not easy to rotate, and the elastic force of the torsion spring is much greater than the elastic force of the arc-shaped spring. Therefore, when the thousand-leaf wheel 2 rotates, it can drive the moving block 3 to rotate in an arc. Since the rotation angle of the driving block 16 on the mounting plate 1 is limited, when the limit position is reached, the driving block 16 will no longer be able to move. The thousand-leaf wheel 2 continues to rotate under the drive of the motor assembly (the thousand-leaf wheel 2 is driven by a motor, which is an existing technology, so this solution does not show how the motor controls the rotation of the thousand-leaf wheel 2, but it does not mean that the thousand-leaf wheel 2 in this solution will not rotate, and the force of the motor is relatively large, so it can overcome the spring elastic force of this solution to operate). At this time, the torsion spring on one side of the rotating block 39 will be twisted, so that the thousand-leaf wheel 2 will cross over the moving block 3. And at the moment of crossing over, there is no block on one side of the moving block 3, and the arc-shaped spring is stretched. At this time, under the action of the arc-shaped spring, the moving block 3 of this solution will be reset, so this is the whole process of the moving block 3. And a floating frame 5 is slidably arranged on the surface of the moving block 3. A maintaining spring 32 is arranged between the floating frame 5 and the moving block 3. The function of the maintaining spring 32 is to ensure that the cylinder on one side of the floating frame 5 can perform a return operation under the action of the guiding block 4. In the attached Figure 8 of the specification, a cylinder is integrally provided on one side of the floating frame 5. This cylinder is just in the middle of the left inclined surface of the guiding block 4 (as shown in the attached Figure 3As shown, since the cylinder is blocked by the viewing angle), and at this time the holding spring 32 is not compressed, so when the moving block 3 rotates counterclockwise, it will move the floating frame 5 towards the direction of the abrasive disc 2 under the extrusion of the guiding block 4, that is, the holding spring 32 is stretched, so that the contact bladder 6 contacts the abrasive disc 2 and rotates with the abrasive disc 2. During the contact process of the contact bladder 6, due to the inflation entering the small gaps on the side of the abrasive disc 2, the side of the abrasive disc 2 is blocked, and the surface of the contact bladder 6 is stained with liquid. When impurities reach the contact bladder 6, the contact bladder 6 will stick the impurities on it under the viscosity of the liquid, realizing the cleaning of the abrasive disc 2. The above describes the situation where the moving block 3 reaches the left side and the rotating block 39 rotates. As shown in the attached drawings of the specification Figure 1 As shown, at this time the cylinder will reset under the action of the holding spring 32 and reach the leftmost side of the guiding block 4. At this time, the cylinder does not contact the guiding block 4. As the arc spring is pulled back, the cylinder will contact the left inclined surface of the guiding block 4. Under the action of the left inclined surface, the floating frame 5 has to move away from the abrasive disc 2 (the holding spring 32 is compressed), and finally reaches the initial position of this solution. In summary, during the left and right reciprocating movement of the moving block 3, the floating frame 5 contacts the abrasive disc 2 when moving to the left and moves away from the abrasive disc 2 during the return process, realizing the operation of the floating frame 5 in a loop trajectory. Since there are two guiding blocks 4, the cylinder will just enter between them during the return process. There is a tooth groove on the upper arc surface of the floating frame 5, and this tooth groove can mesh with the contact wheel 8. Therefore, when the floating frame 5 returns, it can mesh with the contact wheel 8. The space of this solution is all staggered. For example, the lower side of the contact wheel 8 (as shown in the attached drawings of the specification Figure 3 ) passes through the cylinder, and the air delivery pipe 12 is rectangular (one side of the rectangle is missing for staggering) and is staggered from the floating frame 5, so the solution can operate. In this way, the floating frame 5 has two functions. The first is to contact the abrasive disc 2, and the second is to rotate the contact wheel 8. This solution first introduces the structure of the contact wheel 8. The contact wheel 8 and the driving wheel are both rotatably arranged on the support frame 7. A reset spring 9 is arranged on one side of the contact wheel 8. The reset spring 9 is also a torsion spring, which can make the contact wheel 8 rotate and reset. That is, when the contact wheel 8 is driven by the floating frame 5 and the floating frame 5 continues to move away, the reset spring 9 of the contact wheel 8 will be twisted. After the floating frame 5 moves away, the contact wheel 8 will reset, that is, the trajectory of the contact wheel 8 is to rotate and then rotate in the reverse direction. As shown in the attached drawings of the specification Figure 4 As shown, then the contact wheel 8 first rotates counterclockwise and then clockwise, so the driving wheel 10 will first rotate clockwise and then counterclockwise. A support strip 11 is arranged on one side of the driving wheel 10. The shape of the support strip 11 is as shown in the attached drawings of the specification Figure 4As shown in the figure, it is first stable, then inclined, and then stable again. The surface of the support bar 11 is lapped with a driving block 16. The driving block 16 is vertically slidably arranged on the upper surface of the support frame 7. Therefore, when the driving wheel 10 rotates clockwise, the driving block 16 can move upward. When the driving block 16 moves upward, the gas transmission valve 13 can be rotated. The gas transmission valve 13 is rotatably arranged on the gas transmission pipe 12. The upper side of the gas transmission valve 13 extends upward and is provided with a driving groove 15. The driving groove 15 is arranged on one side of the gas transmission valve 13. The driving groove 15 is an arc-shaped groove. Therefore, when the driving block 16 moves upward, the gas transmission valve 13 can be rotated 180 degrees. The inside of the gas transmission valve 13 is L-shaped for gas transmission. Therefore, it is necessary to rotate 180 degrees to switch the channel. A supply pipe 17 is arranged on one side of the gas transmission valve 13. One side of the supply pipe 17 needs to be externally connected to equipment, such as a space compressor or a fan, to convey gas into the supply pipe 17. The gas conveyed by the supply pipe 17 reaches the left or right side of the gas transmission pipe 12 under the guidance of the gas transmission valve 13. That is, during the return process of the moving block 3, the supply pipe 17 conveys gas towards the left side of the gas transmission pipe 12. In the normal state, it conveys gas towards the right side. Conveying gas towards the right side means conveying gas to the floating frame 5 (the next paragraph introduces this effect). During the process of conveying gas towards the left side, it is conveyed into the inside of the jet valve 18. Since the jet valve 18 is hermetically slidably arranged on one side of the gas transmission pipe 12 and there is a compression spring 19 between the two, due to the continuous gas transmission of the supply pipe 17, the inside of the jet valve 18 continuously receives gas impact. Therefore, the compression spring 19 will be continuously compressed. And as the compression spring 19 is continuously compressed, the jet valve 18 can be moved. When the jet valve 18 moves, it can drive the movable blade 20 to rotate because one end of the jet valve 18 is lapped on the movable blade 20. A groove is arranged on one side of the movable blade 20, such as in the attached Figure 5 As shown in the figure, this groove is lapped on the jet valve 18. Therefore, when the jet valve 18 moves, the movable blade 20 rotates. And this groove has a stable section, that is, after the movable blade 20 rotates, it will maintain its position, and the jet valve 18 continues to move. Corresponding pipes are arranged on both sides of the jet valve 18 and are connected to the fixed blade 21, such as in the attached Figure 6 As shown in the figure, the length of this pipe is relatively long and it is a flexible pipe. The fixed blade 21 does not move and can scrape off the dust on the surface of the contact capsule 6 passing by. But after the movable blade 20 rotates, it can form a complete equilateral triangle with the fixed blade 21. And the dust scraped off by the fixed blade 21 will be in the complete equilateral triangle. As the jet valve 18 slides, the gas transmission pipe 12 cannot block the air inlet of the flexible pipe (such as in the attached Figure 6As shown, at this time, the gas will quickly reach the equilateral triangle formed by the fixed blade 21 and the movable blade 20 from the air inlet of the hose, and quickly blow out the dust. A dust suction frame 37 is correspondingly arranged on one side of the blowing position. The dust suction frame 37 is integrally arranged on the moving block 3. The moving block 3 extends from the middle of the grinding wheel 2 to one side of the grinding wheel 2 to suck the blown dust into the dust suction frame 37. One end of the dust suction frame 37 is provided with a dust suction port 38. A connecting pipe is communicated on one side of the dust suction port 38. An existing dust collector needs to be installed at the tail of the pipe. After scraping the dust on the contact bladder 6, the surface of the contact bladder 6 can also be re-wetted. Because an annular frame 22 is integrally arranged above the support frame 7, and an infusion pipe 23 is adhered to the inner arc of the annular frame 22 (the pipe in the range of the arc-shaped frame is a flexible pipe, and the rest are rigid pipes. The flexible pipe in the range of the arc-shaped frame has elasticity, so it can be reset after being squeezed by the pushing block 27). When the driving wheel 10 rotates, it can drive the one-way ring 25 to rotate. Because a one-way block 26 (with a small spring on one side of the one-way block 26) is slidably arranged on the edge of the driving wheel 10, and the one-way block 26 is also lapped on the one-way ring 25. A pushing block 27 is rotatably arranged below the one-way ring 25, as shown in the attached instruction Figure 7 As shown, the liquid inside the infusion pipe 23 will be conveyed counterclockwise in this way, so that the infusion pipe 23 reaches one side from inside the air delivery pipe 12, as shown in the attached instruction Figure 5 As shown, a sponge ring 24 is rotatably arranged on the surface of the infusion pipe 23. The folded infusion pipe 23 of the sponge ring 24 is provided with uniform holes. In this way, the liquid reaches the sponge ring 24, making the sponge ring 24 contact the contact bladder 6 and re-wetting the contact bladder 6 (the wetting effect can also cool the surface of the grinding wheel). A collision bar 30 is slidably arranged on one side of the air delivery pipe 12 (the air delivery pipe 12 is a flexible pipe on the back of the mounting plate 1, and the rest are rigid pipes, so it can support the collision bar 30). A collision spring 31 is slidably arranged between the collision bar 30 and the air delivery pipe 12. When the driving wheel 10 rotates clockwise (as shown in the attached instruction Figure 4)At this time, under the action of the docking block 29, the cylinder on one side of the collision bar 30 slides along the upper surface of the arc-shaped block 28, which causes the collision bar 30 to move away from the gas transmission pipe 12. At this time, the collision spring 31 will be compressed. As the driving wheel 10 rotates, the collision bar 30 will be released at the edge of the arc-shaped block 28 (because it is vertically released at the edge of the arc-shaped block 28). Under the action of the collision spring 31, the collision bar 30 quickly impacts the gas transmission pipe 12, generating vibration on the surface of the gas transmission pipe 12, facilitating the dust scraped off by the fixed blade 21 to fall to the bottom of the fixed blade 21 and be blown away by the wind. During the entire process, as the driving wheel 10 returns in the reverse direction, all mechanisms are reset (for example, there is a driving spring 14 above the gas transmission valve 13, which can reset the gas transmission valve 13. The one-way ring 25 does not need to be reset. Another example is that one side of the docking block 29 has a torsion spring, and the collision bar 30 can be reset by pushing open the docking block. Another example is that the jet valve 18 also has a compression spring 19 for reset). One end of the infusion pipe 23 only needs to be connected to the water tank. The position of the water tank needs to be higher than the mounting plate 1 and an open design is sufficient;

[0021] Finally, the floating frame 5 of this solution is introduced. The lower side of the floating frame 5 has a contact bladder 6. The contact bladder 6 is a soft bladder and has elasticity. Therefore, the contact bladder 6 can bulge after being inflated. As it contacts the thousand-leaf wheel 2 and reaches the leftmost side of the operating block, during this process, the floating frame 5 will move downward like the moving block 3, as shown in the attached Figure 9 specification. At this time, it is equivalent to the extension bar 36 moving upward (the extension bar 36 and the moving block 3 are integrally arranged. When the floating frame 5 moves downward, it means the extension bar 36 moves upward). At this time, as the extension bar 36 moves upward, the discharge blade 33 rotates clockwise. Since the discharge blade 33 blocks the exhaust port 34 and the left side of the discharge blade 33 is wider, the discharge blade 33 rotating clockwise will also block the exhaust port 34. And there is an arc-shaped bar at the rotation center of the discharge blade 33, as shown in the attached Figure 8 specification. It is integrally arranged with the discharge blade 33. In this way, the extension bar 36 passes over this bar and reaches above this bar. The discharge blade 33 also has an internal spring 35 for reset, so the discharge blade 33 is reset to the initial state. Only the extension bar 36 is above. That is, after the moving block 3 moves to the left, the air bladder is always inflated and the discharge blade 33 does not open the exhaust port 34. As the moving block 3 returns to the right (pulled by the arc spring), the floating frame 5 moves upward relative to the moving block 3, that is, as shown in the attached Figure 8The extension bar 36 is equivalent to the floating frame 5 moving downward. As mentioned above, the extension bar 36 reaches the upper side of the arc-shaped bar, and the downward movement will cause the discharge blade 33 to rotate counterclockwise, opening the exhaust port 34 (and maintaining it so that the exhaust port 34 is continuously open, that is, the extension bar 36 moves downward but has not yet completely reached the bottom of the arc-shaped bar), achieving the exhaust effect (the exhaust effect is that when the contact capsule 6 is not completely dried up, the impurities in the gap of the leaf wheel 2 are blown onto the contact capsule 6, and at the same time, the contact capsule 6 blocks the impurities from exiting to the side, so a part of it is sprayed to the outside after blowing and is absorbed by the ash absorption port 38), and the contact capsule 6 will also shrink quickly. The exhaust position corresponds to the upper arc surface of the guide block 4, that is, after the moving block 3 returns, a sharp protrusion is set at the end of the return path of the guide block 4, as shown in the attached manual. Figure 3 As shown, the sharp protrusion is to extend the strip 36 to move downward to the bottom of the arc strip and pass over the bottom of the arc strip, and finally close the exhaust port 34 again under the action of the internal spring 35. At this time, as the moving block 3 reaches the initial position, the extension strip 36 will return to the appendix of the present invention. Figure 9In the state of , the summary is that the extension bar 36 will move up and down above and below the discharge blade 33 to facilitate the reset of the internal spring 35. To make this solution more fault-tolerant, a push rod 40 is rotatably arranged on one side of the mounting plate. The push rod 40 is an electric push rod 40. One end of the push rod 40 is slidably provided with a lapping strip 41. The surface of the lapping strip 41 is lapped with a moving block 3. When the above is not feasible, the push rod 40 controls the movement of the moving block 3. When it is feasible, the push rod 40 does not move. A thousand-leaf wheel 2 is rotatably arranged on one side of the mounting plate 1. A moving block 3 is slidably arranged on the surface of the mounting plate 1. A guiding block 4 is integrally arranged on one side of the mounting plate 1. A floating frame 5 is slidably arranged on the surface of the moving block 3. A contact bladder 6 is arranged on one side of the floating frame 5. A support frame 7 is integrally arranged on one side of the mounting plate 1. A contact wheel 8 is rotatably arranged on one side of the support frame 7. A reset spring 9 is arranged on one side of the contact wheel 8. A driving wheel 10 is meshed on one side of the contact wheel 8. The driving wheel 10 is rotatably arranged on one side of the support frame 7. A supporting strip 11 is integrally arranged on one side of the driving wheel 10. An air delivery pipe 12 is arranged on one side of the support frame 7. One side of the air delivery pipe 12 communicates with the moving block 3. An air delivery valve 13 is rotatably arranged inside the air delivery pipe 12. A driving spring 14 is arranged between the air delivery valve 13 and the air delivery pipe 12. A driving groove 15 is opened on one side of the air delivery valve 13. The surface of the driving groove 15 is lapped with a driving block 16. The driving block 16 is slidably arranged on one side of the support frame 7. A supply pipe 17 is communicated and arranged on one side of the air delivery pipe 12. An air jet valve 18 is slidably arranged at one end of the air delivery pipe 12. An extrusion spring 19 is arranged between the air delivery pipe 12 and the air jet valve 18. One side of the air jet valve 18 is lapped with a movable blade 20. A fixed blade 21 is integrally arranged on the upper surface of the air delivery pipe 12. The movable blade 20 is rotatably arranged on the upper surface of the air delivery pipe 12. One side of the air jet valve 18 is communicated and arranged with the fixed blade 21. An annular frame 22 is integrally arranged on one side of the support frame 7. An infusion pipe 23 is arranged at the inner arc of the annular frame 22. A sponge ring 24 is rotatably arranged at one end of the infusion pipe 23. A one-way ring 25 is rotatably arranged on one side of the support frame 7. A one-way block 26 is lapped on the surface of the one-way ring 25. The one-way block 26 is slidably arranged on one side of the driving wheel 10. A push block 27 is rotatably arranged on the lower surface of the one-way ring 25. The surface of the push block 27 contacts the infusion pipe 23. An arc-shaped block 28 is integrally arranged on one side of the driving wheel 10. A docking block 29 is rotatably arranged on one side of the arc-shaped block 28. A collision bar 30 is slidably arranged on one side of the air delivery pipe 12. A collision spring 31 is arranged between the air delivery pipe 12 and the collision bar 30. A maintaining spring 32 is arranged between the floating frame 5 and the moving block 3. A discharge blade 33 is rotatably arranged inside the floating frame 5. An exhaust port 34 is opened on one side of the floating frame 5. An internal spring 35 is arranged at the bottom of the discharge blade 33. An extension bar 36 is integrally arranged in the middle of the moving block 3. A dust suction frame 37 is integrally arranged on one side of the moving block 3. A dust suction port 38 is arranged on one side of the dust suction frame 37. A rotating block 39 is rotatably arranged on one side of the moving block 3. A push rod 40 is rotatably arranged on one side of the mounting plate 1.One side of the push rod 40 is slidably provided with a lapping strip 41, and one end of the lapping strip 41 is lapped with a moving block 3.

[0022] The above description is only for the purpose of illustrating the present invention. It should be understood that the present invention is not limited to the above embodiments, and various equivalent forms that conform to the idea of the present invention are within the protection scope of the present invention.

Claims

1. A titanium alloy welding wire flap wheel polishing mechanism, comprising a mounting plate (1), characterized in that: A flap wheel (2) is rotatably provided on one side of the mounting plate (1), a moving block (3) is slidably provided on the surface of the mounting plate (1), a guide block (4) is integrally provided on one side of the mounting plate (1), a floating frame (5) is slidably provided on the surface of the moving block (3), a contact capsule (6) is provided on one side of the floating frame (5), a support frame (7) is integrally provided on one side of the mounting plate (1), a contact wheel (8) is rotatably provided on one side of the support frame (7), a return spring (9) is provided on one side of the contact wheel (8), a driving wheel (10) is meshed with one side of the contact wheel (8), the driving wheel (10) is rotatably provided on one side of the support frame (7), and a support bar (11) is integrally provided on one side of the driving wheel (10).

2. A titanium alloy welding wire flap wheel polishing mechanism according to claim 1, characterized in that: A gas delivery pipe (12) is arranged on one side of the support frame (7), and a moving block (3) is connected to one side of the gas delivery pipe (12). A gas delivery valve (13) is rotatably arranged inside the gas delivery pipe (12), and a driving spring (14) is arranged between the gas delivery valve (13) and the gas delivery pipe (12). A driving groove (15) is provided on one side of the gas delivery valve (13), and a driving block (16) is overlapped on the surface of the driving groove (15). The driving block (16) is slidably arranged on one side of the support frame (7), and a supply pipe (17) is connected to one side of the gas delivery pipe (12).

3. A titanium alloy welding wire flap wheel polishing mechanism according to claim 2, characterized in that: An air jet valve (18) is slidably provided at one end of the air delivery pipe (12), a compression spring (19) is provided between the air delivery pipe (12) and the air jet valve (18), a movable leaf (20) is overlapped on one side of the air jet valve (18), a fixed leaf (21) is integrally provided on the upper surface of the air delivery pipe (12), the movable leaf (20) is rotatably provided on the upper surface of the air delivery pipe (12), and one side of the air jet valve (18) is connected to the fixed leaf (21).

4. The titanium alloy welding wire flap wheel polishing mechanism according to claim 1, characterized in that: An annular frame (22) is integrally provided on one side of the support frame (7), an infusion tube (23) is provided at the inner arc of the annular frame (22), and a sponge ring (24) is rotatably provided at one end of the infusion tube (23).

5. The titanium alloy welding wire flap wheel polishing mechanism according to claim 1, characterized in that: A one-way ring (25) is rotatably provided on one side of the support frame (7), a one-way block (26) is overlapped on the surface of the one-way ring (25), a one-way block (26) is slidably provided on one side of the driving wheel (10), a pushing block (27) is rotatably provided on the lower surface of the one-way ring (25), and the surface of the pushing block (27) contacts the infusion tube (23).

6. The titanium alloy welding wire flap wheel polishing mechanism according to claim 1, characterized in that: An arc block (28) is integrally provided on one side of the driving wheel (10), a docking block (29) is rotatably provided on one side of the arc block (28), a collision bar (30) is slidably provided on one side of the gas pipe (12), and a collision spring (31) is provided between the gas pipe (12) and the collision bar (30).

7. The titanium alloy welding wire flap wheel polishing mechanism according to claim 1, characterized in that: A maintaining spring (32) is provided between the floating frame (5) and the moving block (3); a discharge leaf (33) is rotatably provided inside the floating frame (5); an exhaust port (34) is provided on one side of the floating frame (5); an internal spring (35) is provided at the bottom of the discharge leaf (33); and an extension strip (36) is integrally provided in the middle of the moving block (3).

8. The titanium alloy welding wire flap wheel polishing mechanism according to claim 1, characterized in that: An ash suction frame (37) is integrally provided on one side of the moving block (3), and an ash suction port (38) is provided on one side of the ash suction frame (37).

9. The titanium alloy welding wire flap wheel polishing mechanism according to claim 1, characterized in that: A rotating block (39) is rotatably provided on one side of the moving block (3).

10. The titanium alloy welding wire flap wheel polishing mechanism according to claim 1, characterized in that: A push rod (40) is rotatably provided on one side of the installation plate (1), a lap bar (41) is slidably provided on one side of the push rod (40), and a moving block (3) is overlapped at one end of the lap bar (41).

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