Titanium alloy welding wire production line

Abstract

The invention relates to a titanium alloy welding wire production line which effectively solves the problem that a production line lacks to clean oxide skin on the surface of a welding wire. According to the technical scheme, a welding wire is included, a production mechanism is arranged on the surface of the welding wire, the production mechanism comprises a pay-off mechanism, a flying wing wheel polishing mechanism, a wool felt polishing mechanism, a dust collection mechanism and a treatment mechanism, the treatment mechanism comprises a semicircular block, an inflation bag, a guide plate and grinding cloth, the inflation bag is arranged on one side of the semicircular block, and the guide plate is arranged on the other side of the semicircular block. A guide plate is arranged in the inflatable bag, a wiping mechanism is rotationally arranged on the edge of the semicircular block, and a mounting plate is arranged on the edge of the inflatable bag. According to the scheme, the inflation bag can wrap the welding wire, oxide skin on the surface of the welding wire can be cleaned, heat is taken away in the friction process, meanwhile, the welding wire is dried through the heat, and the scraping frame can be made to scrape the surface of the welding wire through rotation of the driving wheel.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of welding wire production, in particular to a titanium alloy welding wire production line. BACKGROUND

[0002] With the rapid development of aerospace, army equipment, ship and nuclear industry manufacturing industry, the demand for titanium alloy welding wire is increasing, and the quality of the welding wire directly affects the overall quality and safety reliability of the welded parts, so higher requirements are put forward for the quality of the welding wire material.

[0003] At present, the existing titanium alloy welding wire production plants in China are mainly concentrated in Baoji City, Shaanxi Province, and the hot drawing process and stress relief annealing process are used in the production process of the titanium alloy welding wire. In the hot drawing and annealing process, lubricant is left on the surface of the welding wire, and oxidation reaction occurs at high temperature to form an oxide skin. In the polishing process of the lubricant and the oxide skin left on the surface of the welding wire, the oxide skin is easy to be left on the welding wire, and the surface of the welding wire is wet, so that the oxide skin is easy to be attached to the surface of the welding wire. The production line lacks a process for drying and cleaning the oxide skin on the surface of the welding wire.

[0004] In view of the above, the titanium alloy welding wire production line is provided to solve the above problems. SUMMARY

[0005] In view of the above, the titanium alloy welding wire production line is provided to solve the above problems.

[0006] A titanium alloy welding wire production line, comprising a welding wire, the surface of the welding wire is provided with a production mechanism, the production mechanism comprises a pay-off mechanism, a flying wing wheel polishing mechanism, a wool felt polishing mechanism, a dust collection mechanism and a processing mechanism, the processing mechanism comprises a semicircular block, an inflatable bag, a guide plate and an abrasive cloth, one side of the semicircular block is provided with the inflatable bag, the inside of the inflatable bag is provided with the guide plate, the edge of the semicircular block is rotationally provided with a scraping mechanism, the edge of the inflatable bag is provided with a mounting plate, one side of the mounting plate is provided with an expansion sheet, one side of the expansion sheet is provided with an exhaust block, the surface of the exhaust block is provided with an exhaust spring, an exhaust groove is formed in the upper side of the mounting plate, the surface of the exhaust groove is slidably provided with the exhaust block, and one side of the semicircular block is rotationally provided with a driving wheel.

[0007] The above technical scheme has the following beneficial effects:

[0008] The inflation bag set in the scheme can wrap the welding wire, clean the oxide skin on the surface of the welding wire, take away heat in the process of friction, dry the welding wire by using the heat, the rotation of the driving wheel can also make the scraping frame scrape the surface of the welding wire, concentrate the oxide skin residues near the mounting block, the mounting block can absorb the concentrated residues, the rotation of the scraping frame can make the extrusion frame extrude the two sides of the inflation bag, most of the gas in the inflation bag is delivered to the annular port, and the welding wire is conveniently dried. BRIEF DESCRIPTION OF DRAWINGS

[0009] Figure 1 It is a schematic diagram of the welding wire plane polishing of the application;

[0010] Figure 2 It is a schematic diagram of the processing mechanism of the application;

[0011] Figure 3 It is a partial schematic diagram of the semicircle block of the application;

[0012] Figure 4 It is a right side cutting schematic diagram of the semicircle block of the application;

[0013] Figure 5 It is a middle part cutting schematic diagram of the mounting plate of the application;

[0014] Figure 6 It is an upper side cutting schematic diagram of the semicircle block of the application;

[0015] Figure 7 It is a side part cutting schematic diagram of the semicircle block of the application;

[0016] Figure 8 It is a one side cutting schematic diagram of the discharge port of the application;

[0017] Figure 9 It is a one side cutting schematic diagram of the extrusion frame of the application;

[0018] Figure 10 It is a bottom schematic diagram of the driving wheel of the application.

[0019] In the diagram: 1. Welding wire; 2. Semicircular block; 3. Inflatable bladder; 4. Guide plate; 5. Grinding cloth; 6. Mounting plate; 7. Expansion plate; 8. Exhaust block; 9. Exhaust spring; 10. Exhaust groove; 11. Drive wheel; 12. Intake hole; 13. Control plug; 14. Intake spring; 15. One-way block; 16. Rotating plate; 17. Rotating spring; 18. Control rod; 19. Control groove; 20. Intake pipe; 21. Insertion pipe 22. Scraper; 23. Squeezing frame; 24. Scraper block; 25. Connecting port; 26. Drive slot; 27. Pull-back bar; 28. Support frame; 29. ​​Discharge port; 30. Discharge valve; 31. Bottom spring; 32. Annular opening; 33. Lifting block; 34. Adjusting plug; 35. Mating block; 36. External pipe; 37. Arc-shaped block; 38. Vibration block; 39. Fixing block; 40. Opening block; 41. Inlet pipe. Detailed Implementation

[0020] The foregoing and other technical contents, features and effects of the present invention are described in conjunction with the appendix below. Figures 1 to 10 As will be clearly shown in the detailed description of the embodiments, all structural contents mentioned in the following embodiments are based on the accompanying drawings.

[0021] This embodiment provides a titanium alloy welding wire production line, as shown in the attached figure. Figures 1-10 As shown, the instruction manual is attached. Figure 1 This is a demonstration of the planar processing of welding wire 1. Two wire feeding mechanisms, one on the left and one on the right, are placed on the planar surface, as shown in the instruction manual. Figure 1 The wire feeding mechanism uses the JNWS800 I-beam reel take-up machine. Between the left and right feeding mechanisms is wire 1, which passes through multiple processing mechanisms. The polishing machine uses existing technology. Wire 1 then passes through a wing-wheel polishing mechanism. One side of the wing-wheel contacts the wire 1 to remove micro-textures left from previous polishing, increasing the smoothness to near-mirror finish. This ensures the roughness, ellipticity, and consistency of the wire surface. The wing-wheel also uses existing technology to polish the wire 1. Wire 1 then passes through a felt polishing mechanism, which achieves a mirror-like finish. Finally, the core processing mechanism of this solution is reached. This mechanism can be used in conjunction with various polishing processes. The position of the processing mechanism is uncertain. Finally, the wire reaches the right-side feeding mechanism (the JNWS800 I-beam reel take-up machine), completing the operation of the entire production line. The dust collection mechanism is a water-bath type flame-retardant, emission-free dust collector with multiple suction ends. It reaches the polishing area of ​​the production line to prevent dust from spreading. The improvement of this production line lies in the processing mechanism.

[0022] The processing mechanism of this solution is a ring shape, composed of two semicircular blocks 2 joined together. The two sides of the semicircular blocks 2 rotate via a pivot, allowing them to be clamped onto the welding wire 1. The semicircular blocks 2 can be fixed to the production line via components (e.g., for welding, supported by a frame), and are not suspended in the air. An inflatable bladder 3 is located on one side of the semicircular blocks 2. The inflatable bladder 3 is non-expandable, meaning it cannot be inflated further once a certain inflation level is reached. A guide plate 4 is installed inside the inflatable bladder 3. One side of the inflatable bladder 3 is connected to an air inlet pipe, with a flexible hose at one end. One end of the air inlet pipe needs to be connected to an external air compressor or fan to supply air, causing the inflatable bladder 3 to inflate. The guide plate 4 inside the inflatable bladder 3 ensures the orderly flow of gas entering through the air inlet pipe, as shown in the attached instruction manual. Figure 6 As indicated by the arrow, a polishing cloth 5 is provided on the edge of the inflatable bladder 3. The polishing cloth 5 can polish the surface of the welding wire 1. Since the welding wire 1 is constantly moving, the welding wire 1 and the polishing cloth 5 are in contact for a long time, and the surface temperature of the polishing cloth 5 is constantly rising. This solution uses the airflow direction inside the inflatable bladder 3 to transport the surface temperature of the polishing cloth 5 to the vicinity of the discharge port 29, so that it can be discharged to the outside through the discharge port 29. An installation plate 6 is installed in the middle of the inflatable bladder 3. The installation plate 6 is located in the middle of the inflatable bladder 3, so that the scraper 22 can scrape the debris to the vicinity of the installation plate 6 for processing. An air suction pipe 20 is connected to the bottom of the installation plate 6 (the installation plate 6 is a rigid plate). A rotating plate 16 is rotatably installed on one side of the installation plate 6, as shown in the instruction manual. Figure 5 As shown, the instruction manual is attached. Figure 5 The mounting plate 6 is shown separately. In fact, the edge of the mounting plate 6 is tightly connected to the airbag 3 and is airtight. Since the airbag 3 is constantly inflated during use, to prevent it from bursting, an expansion piece 7 is provided on one side of the mounting plate 6. The expansion piece 7 is a flexible sheet, and one side of the expansion piece 7 is attached to the vent block 8, which slides on the mounting plate. Because the airbag 3 expands when a certain amount of gas is added, and its capacity is limited, the expansion piece 7 must expand outwards. Since the vent spring 9 has a relatively small elastic force, it causes the vent block 8 to move to the left (as shown in the instruction manual). Figure 5As shown), the upper sealing sliding arrangement of the exhaust block 8 is on the exhaust groove 10. The middle diameter of the exhaust groove 10 is relatively wide. Once the exhaust block 8 moves to the left, it will enter the wider diameter exhaust groove 10. In this way, one end of the exhaust block 8 will not block the wider diameter part, and the gas inside the airbag 3 will be exhausted through the exhaust groove 10. After exhaust, the gas will be sprayed out obliquely downwards along the exhaust groove 10. A rotating plate 16 is rotatably arranged on one side of the mounting plate 6. The rotation center of the rotating plate 16 coincides with the rotation center of the control rod 18. A rotating spring 17 is arranged on one side of the rotating plate 16. The rotating spring 17 is a torsion spring arranged between the rotating plate 16 and the mounting plate 6. Figure 5 The device is in a twisted state; once released, it will rotate counterclockwise. A control plug 13 is slidably sealed on the surface of the suction hole 12 (an elliptical frame is provided on the inner wall of the suction hole 12, allowing the control plug 13 to slide and seal on the elliptical block; the elliptical shape is to prevent the control plug 13 from rotating). A suction spring 14 is provided between the suction hole 12 and the control plug 13, and the suction spring 14 is in its original length state. Since a suction pipe 20 is connected to the lower part of the suction hole 12, one end of the suction pipe 20 is connected to the external pipe 36. The external pipe 36 is connected to the dust collection equipment, such as the water bath type flame-retardant emission-free dust collector described above. The external pipe 36 only needs to be connected to the suction port on the dust collector to enable dust collection. Under this suction force, due to the control plug 1... 3. Blocking the suction hole 12 forces the control plug 13 to move downwards. A wider section is located below the suction hole 12, allowing the control plug 13 to connect with the suction pipe 20 and the suction hole 12 when it moves downwards to a certain position, absorbing impurities near the suction hole 12. Since the scraper 22 in this design can rotate to the mounting block position, the mounting block can suck in more impurities. A rotating rod is rotatably mounted in the center of the rotating plate 16, with a control groove 19 on its edge. The downward movement of the control plug 13 also releases the rotating plate 16, as the downward movement of the control plug 13 causes the control rod 18 to rotate downwards, changing the position of the control groove 19. This is because the control rod 18 is integrated to one side (as per the instruction manual). Figure 5 As shown, a side edge is provided, on which a one-way block 15 is rotatably mounted. This side edge only provides the one-way block 15 with the freedom to rotate downwards (the principle is that a slot is opened on the side edge, this slot extends downwards, and this slot is relatively long; the one-way block 15 is rotatably positioned on the upper side of the slot and cannot rotate upwards). Figure 5The one-way block 15 cannot rotate clockwise. When an object blocks its upper side, it can rotate into the slot to achieve obstacle avoidance. A small torsion spring is also provided on the edge of the one-way block 15. This small torsion spring keeps the one-way block 15 horizontally in position. When the control plug 13 moves downwards, the one-way block 15 moves downwards as well. The downward movement of the one-way block 15 causes one side to press against the control lever 18. Since the control lever 18 is rotatably mounted on one side of the rotating plate 16, and a torsion spring is also provided on its edge, this torsion spring is positioned between the control lever 18 and the rotating plate 16. The spring force of this torsion spring is greater than that of the rotational spring 17. Therefore, by pressing the control lever 18, the rotating plate 16 cannot be reset counterclockwise. (See the attached instruction manual.) Figure 5 The control lever 18 is not suspended in mid-air, but is rotatably mounted on the rotating plate 16. In this design, a control groove 19 is provided on the edge of the control lever 18. The control groove 19 is a notch shape that allows the one-way block 15 to pass through. As the one-way block 15 moves downward, it causes the control lever 18 to rotate, which in turn positions the control groove 19 so that the one-way block 15 can pass through it. Once the one-way block 15 has passed through the control groove 19, it releases the rotating plate 16 and the control lever 18. Because the rotating plate 16 is provided with a rotating spring 17 on its edge, the rotating plate 16 will be released, causing it to strike the welding wire 1 and form a solid impact, which facilitates the dust being stirred up, allowing the suction hole 12 to suck up the dust. When the suction pipe 20 is closed, the control plug 13 can be reset upwards. As described above, the one-way block 15 has a one-way rotation function. Even if the rotating plate 16 is reset under the action of the inflatable bladder 3, the one-way block 15 can also be reset to its initial position. To facilitate understanding of this solution, the instruction manual is attached. Figure 5 One-way block 15 is not at its actual position, but slightly upwards, because... Figure 9 The middle part can better show how the one-way block 15 contacts the control lever 18. The movement of the control plug 13 relies on the suction of the suction pipe 20. The suction pipe 20 is a flexible tube but it is not easy to deform. The suction force is greater than the elastic force of the suction spring 14 and greater than the elastic force of the torsion spring on one side of the control lever 18.

[0023] This design relies on the scraper 22 to move impurities from the surface of the welding wire 1 to the vicinity of the mounting block. The extrusion frame 23 is rotatably positioned on the left side of the semicircular block 2, with the scraper 22 slidably mounted on one side. A scraper block 24 is rotatably mounted on one side of the scraper 22. A spring connects the scraper 22 and the extrusion frame, as shown in the attached instruction manual. Figure 9 As shown, this spring makes the instruction manual attached... Figure 9 When the scraper is in a stretched state, meaning it will extend if there is no welding wire 1 pressing against one side, the scraper block 24 will extend. To ensure that the scraper block 24 can fit against the welding wire 1, torsion springs are provided on the upper sides of the scraper frame 22 and the scraper block 24, as shown in the instruction manual.Figure 2 Both the upper and lower sides of the extrusion frame 23 have torsion springs. The rotation of the extrusion frame 23 is achieved by the drive wheel 11, which is located below the motor. The motor drives the rotation of the drive wheel 11. The motor used in this design is existing technology, so it will not be described in detail here. However, the motor is a servo motor and can self-lock. To facilitate the disassembly of the semicircular block 2, the motor is fixed to the semicircular block 2 on only one side, rather than being fixed on both sides. The upper surface of the drive wheel 11 has a drive groove 26, and a pull-back bar 27 is attached to the drive groove 26. The support frame 28 controls the vertical position of the pull-back bar 27. The support frame 28 is slidably mounted on the upper surface of the semicircular block 2. This support can be installed on the semicircular block 2 using a nut. (See attached manual.) Figure 3 With the support frame 28 in the installed state, the scraper frame 22 can be removed by disassembling the mounting frame, allowing the semi-circular block 2 to be disassembled. After the support frame 28 is installed, the pull-back bar 27 slides back and forth. When the drive wheel 11 rotates, the pull-back bar 27 moves left and right (because the rotation of the drive wheel 11 changes the position of the drive groove 26, controlling the movement of the pull-back bar 27). A groove is opened on the upper right side of the pull-back bar 27, and the surface of the groove overlaps with the extrusion frame 23. In order to enable the extrusion frame 23 to rotate immediately, a small bevel is set in the middle of the groove, which abuts against the cylinder integrally formed on the upper side of the extrusion frame 23. The groove is relatively wide. When the extrusion frame 23 moves towards the drive wheel 11, it rotates towards both sides of the drive wheel 11 (because the upper cylinder of the extrusion frame 23 overlaps the groove above the pull-back bar 27, the extrusion frame 23 has to rotate towards both sides of the drive wheel 11). After rotation, the pull-back bar 27 returns to the position specified in the instruction manual. Figure 3 When the extrusion rack 23 is in a certain state, it will also return to the state of... Figure 8 (State), or the angle of the extrusion frame 23 is not perpendicular to the support frame 28, that is, the angle between the two is less than 90 degrees, so that the extrusion frame 23 can be rotated and reset. The side of the extrusion frame 23 rotates to one side so that the edge of the extrusion frame 23 can squeeze the air bag 3 (the edge of the extrusion frame 23 is provided with an integral strip that can contact the air bag 3 and squeeze it). Squeezing the air bag 3 can squeeze the gas inside the air bag 3 to ensure that the middle of the air bag 3 can bulge. Under the action of squeezing, the expansion plate 7 has to expand to achieve the effect of venting the exhaust groove 10. Venting the exhaust groove 10 can drive the scraper block 24 to scrape the impurities near the mounting block downward, so that the impurities can enter the suction hole 12 for suction. The scraper frame 22 can contact the surface of the welding wire 1 through the spring to achieve the effect of the scraper block 24 adhering to the scraper wire 1.

[0024] The discharge valve 30 is slidingly arranged on the upper surface of the discharge port 29, the bottom of the discharge valve 30 is provided with a bottom spring 31, the elastic force of the bottom spring 31 is very large, the bottom spring 31 cannot be extruded without external force, only by driving the wheel 11 to extrude, the discharge valve 30 is sealingly sliding on the discharge port 29, and the bottom limit makes the discharge valve 30 unable to rotate on the discharge port 29, the top of the discharge valve 30 is sealingly sliding on the discharge port 29, and the middle of the discharge port 29 is provided with an annular port 32, the annular port 32 is annularly arranged on the side surface of the semicircular block 2, once the discharge valve 30 moves upward, the bottom of the discharge valve 30 is communicated with the annular port 32, the annular port 32 achieves the effect of exhausting, and the upward movement of the discharge valve 30 relies on the jacking block 33, the jacking block 33 is integrally arranged on the upper surface of the driving wheel 11, the jacking block 33 has a slope on both sides to facilitate jacking the discharge valve 30, so that when the driving wheel 11 rotates, the discharge valve 30 can slide upward, so that the bottom gas of the discharge valve 30 of the scheme can drive the annular port 32, and the scheme achieves the effect of arranging the guide plate 4, the guide plate 4 makes the internal gas of the air bag 3 flow in one direction to the vicinity of the discharge port 29, so that the heat generated near the polishing cloth 5 is circulated and driven, and under the driving of the jacking block 33, the discharge valve 30 moves upward, the gas with higher temperature reaches the vicinity of the annular port 32 to achieve gas exhaust, and the exhaust port is arranged opposite to the surface of the welding wire 1, which can blow the gas with higher temperature to the surface of the welding wire 1, and dry the surface of the welding wire 1, the side of the discharge valve 30 above extends to the edge of the jacking block 33, so that the jacking block 33 can jack the discharge valve 30, as shown in the description Figure 8 The driving wheel 11 of the scheme rotates clockwise, as shown in the description Figure 8 The fixed block 39 is slidingly arranged above the semicircular block 2, a spring is arranged between the fixed block 39 and the semicircular block 2, so that the slope of the fixed block 39 contacts the upper side of the discharge valve 30 (the upper side of the discharge valve 30 also has a slope, so that the fixed block 39 moves to the right during the upward movement of the discharge valve 30, as shown in the description Figure 10 An annular notch is arranged on the upper side of the discharge valve 30 and the edge of the fixed block 39, when the discharge valve 30 moves upward, the fixed block 39 moves to the right, and under the action of the spring, the fixed block 39 is lapped on the annular notch, so that the position of the discharge valve 30 is fixed, thereby realizing the continuous communication of the exhaust port and the annular port 32, the jacking block 40 is integrally arranged below the driving wheel 11, the jacking block 40 can be jacked on one side of the fixed block 39 by rotating, so that the fixed block 39 is away from the annular notch, one side of the fixed block 39 extends to the lower side of the driving wheel 11, as shown in the description Figure 7As shown, one side of the fixed block 39 is a bevel so that the structure of the fixed block 39 extending on one side can form a complete strip, and the arrangement of the bevel enables two fixed blocks 39 to move together, and the arrangement of the bevel facilitates the rotation and disassembly of the semicircular block 2. After the discharge valve 30 is reset, the discharge valve 30 is reset under the action of the bottom spring 31. The discharge valve 30 has been moved upward before the top opening block 40 opens the fixed block 39. Only the position of the fixed block 39 can achieve the last principle introduced.

[0025] Finally, other parts of the present scheme are introduced. At one end of the air suction pipe 20, that is, through the semicircular block 2 inside, as shown in the description Figure 7 As shown, the adjusting plug 34 is slidably arranged inside the air suction pipe 20. The adjusting plug 34 is slidably arranged inside the air suction pipe 20, as shown in the description Figure 3 The bottom is blocked by the matching block 35. The adjusting plug 34 is conveyed along the two sides to the penetrating pipe 21. One end of the penetrating pipe 21 is slidably provided with a scraping frame 22. The scraping frame 22 is inserted into the penetrating pipe 21 at one end to form a communication. One side of the scraping frame 22 is rotatably connected to the communication port 25. The lower side of the communication port 25 reaches the upper surface of the air bag 3 to form the effect of surface dust collection of the air bag 3. However, after the driving wheel 11 continues to rotate, the discharge valve 30 moves upward. One side of the discharge valve 30 extends and overlaps on the adjusting plug 34 (as shown in the description Figure 3 As shown), so the discharge valve 30 will also move upward. The upward movement of the discharge valve 30 makes the penetrating pipe 21 blocked, and the matching block 35 enters the bottom of the adjusting plug 34 (the bottom of the adjusting plug 34 is wider), forming a communication between the adjusting plug 34 and the air suction pipe 20, that is, enabling the installation block to work. The upper surface of the adjusting plug 34 is connected to the external pipe 36. One end of the external pipe 36 is connected to the dust collection mechanism of the present scheme, so that the external pipe 36 has the function of dust collection. The semicircular block 2 of the present scheme is vertically slidably provided with a vibrating block 38. The bottom of the vibrating block 38 is provided with a spring so that the vibrating block 38 is supported above the semicircular block 2. An arc block 37 is integrally provided above the driving wheel 11. Due to the rotation of the driving wheel 11, the arc block 37 has a circular arc structure, so that the vibrating block 38 moves upward. The upward movement of the vibrating block 38 stretches the spring below the vibrating block 38. Since the ring block has a certain angle, when reaching a certain position, the vibrating block 38 is released (the bottom of the vibrating block 38 contacts the air bag 3 when not moving upward). The release of the vibrating block 38 will impact the air bag 3, causing the surface of the air bag 3 to vibrate, facilitating the falling of dust. With the reverse reset of the driving wheel 11, all structures of the present scheme are reset, and the arc end of the arc block 37 is downwardly pressed against the vibrating block 38. When reaching the initial position, the vibrating block 38 is reset upward to reset to the initial position as shown in the description ​The driving wheel 11 of the present scheme rotates clockwise, and the reset reverse rotation driving wheel 11 can be rotated, the driving wheel 11 is controlled by the motor to rotate regularly, the surface of the welding wire 1 is provided with a production mechanism, the production mechanism comprises a pay-off mechanism, a flying wing wheel polishing mechanism, a wool felt polishing mechanism, a dust collection mechanism and a treatment mechanism, the treatment mechanism comprises a semicircular block 2, an inflatable bag 3, a guide plate 4 and a polishing cloth 5, one side of the semicircular block 2 is provided with the inflatable bag 3, the inside of the inflatable bag 3 is provided with the guide plate 4, the edge of the semicircular block 2 is rotatably provided with a scraping mechanism, the edge of the inflatable bag 3 is provided with a mounting plate 6, one side of the mounting plate 6 is provided with an expansion piece 7, one side of the expansion piece 7 is provided with an exhaust block 8, the surface of the exhaust block 8 is provided with an exhaust spring 9, the upper side of the mounting plate 6 is provided with an exhaust groove 10, the surface of the exhaust groove 10 is slidably provided with the exhaust block 8, one side of the semicircular block 2 is rotatably provided with a driving wheel 11, the bottom of the mounting plate 6 is provided with an air suction hole 12, the surface of the air suction hole 12 is slidably provided with a control plug 13, the upper surface of the control plug 13 is provided with an air suction spring 14, one side of the control plug 13 is rotatably provided with a one-way block 15, one side of the air suction hole 12 is rotatably provided with a rotating plate 16, one side of the rotating plate 16 is provided with a rotating spring 17, the bottom of the rotating plate 16 is rotatably provided with a control rod 18, one side of the control rod 18 is provided with a control groove 19, the bottom of the mounting plate 6 is communicatively provided with an air suction pipe 20, the other side of the air suction pipe 20 is communicatively provided with a penetrating pipe 21, the scraping mechanism comprises a scraping frame 22, an extrusion frame 23 and a scraping block 24, the extrusion frame 23 is rotatably arranged on one side of the semicircular block 2, one side of the extrusion frame 23 is slidably provided with the scraping frame 22, the surface of the scraping frame 22 is rotatably provided with the scraping block 24, one end of the penetrating pipe 21 is inserted into the scraping frame 22, the inside of the scraping block 24 is provided with a communication port 25, the upper surface of the driving wheel 11 is provided with a driving groove 26, the surface of the driving groove 26 is lapped with a pulling back strip 27, the surface of the pulling back strip 27 is lapped with the scraping frame 22, the upper surface of the semicircular block 2 is slidably provided with a supporting frame 28, the upper surface of the supporting frame 28 is slidably provided with the pulling back strip 27, the inner arc of the semicircular block 2 is provided with a discharge port 29, the surface of the discharge port 29 is slidably provided with a discharge valve 30, the bottom of the discharge valve 30 is provided with a bottom spring 31, the edge of the semicircular block 2 is provided with an annular port 32, the upper surface of the driving wheel 11 is integrally provided with a jacking block 33, the upper surface of the air suction pipe 20 is slidably provided with an adjusting plug 34, one side of the adjusting plug 34 is lapped with the discharge valve 30, the lower surface of the adjusting plug 34 is slidably provided with a matching block 35, the upper surface of the adjusting plug 34 is communicatively provided with an external connecting pipe 36, the upper surface of the driving wheel 11 is integrally provided with an arc-shaped block 37, the upper surface of the semicircular block 2 is slidably provided with a vibrating block 38, the vibrating spring is arranged between the vibrating block 38 and the semicircular block 2, the upper surface of the semicircular block 2 is slidably provided with a fixing block 39, one side of the fixing block 39 is lapped with the discharge valve 30, the bottom of the driving wheel 11 is integrally provided with a top opening block 40, one side of the semicircular block 2 is provided with an air inlet pipe 41, one side of the air inlet pipe 41 is communicatively provided with the inflatable bag 3,One side of the air bag 3 is provided with an abrasive cloth 5, and the surface of the abrasive cloth 5 contacts the welding wire 1.

[0026] The above description is only for the purpose of illustrating the present application, and it should be understood that the present application is not limited to the above embodiments, and various modifications in accordance with the idea of the present application are within the scope of the present application.

Claims

1. A titanium alloy welding wire production line comprising a welding wire (1), characterized in that, The surface of the welding wire (1) is provided with a production mechanism, the production mechanism includes a pay-off mechanism, a flying wing wheel polishing mechanism, a wool felt polishing mechanism, a dust collection mechanism and a processing mechanism, the processing mechanism includes a semicircle block (2), an inflatable bag (3), a guide plate (4) and a polishing cloth (5), one side of the semicircle block (2) is provided with the inflatable bag (3), the inside of the inflatable bag (3) is provided with the guide plate (4), the edge of the semicircle block (2) is rotatably provided with a wiping mechanism, the edge of the inflatable bag (3) is provided with a mounting plate (6), one side of the mounting plate (6) is provided with an expansion sheet (7), one side of the expansion sheet (7) is provided with an exhaust block (8), the surface of the exhaust block (8) is provided with an exhaust spring (9), the upper side of the mounting plate (6) is provided with an exhaust groove (10), the surface of the exhaust groove (10) is slidably provided with the exhaust block (8), one side of the semicircle block (2) is rotatably provided with a drive wheel (11).

2. A titanium alloy welding wire production line according to claim 1, characterized in that, The bottom of the mounting plate (6) is provided with an air suction hole (12), the surface of the air suction hole (12) is slidably provided with a control plug (13), the upper surface of the control plug (13) is provided with an air suction spring (14), one side of the control plug (13) is rotatably provided with a one-way block (15), one side of the air suction hole (12) is rotatably provided with a rotating plate (16), one side of the rotating plate (16) is provided with a rotating spring (17), the bottom of the rotating plate (16) is rotatably provided with a control rod (18), one side of the control rod (18) is provided with a control groove (19).

3. A titanium alloy welding wire production line according to claim 1, characterized in that, The bottom of the mounting plate (6) is in communication with an air suction pipe (20), the other side of the air suction pipe (20) is in communication with a penetrating pipe (21), the wiping mechanism includes a wiping frame (22), an extrusion frame (23) and a wiping block (24), the extrusion frame (23) is rotatably arranged on one side of the semicircle block (2), one side of the extrusion frame (23) is slidably provided with the wiping frame (22), the surface of the wiping frame (22) is rotatably provided with the wiping block (24), one end of the penetrating pipe (21) is inserted into the wiping frame (22), and the inside of the wiping block (24) is provided with a communication port (25).

4. A titanium alloy wire production line according to claim 3, characterized in that, The upper surface of the drive wheel (11) is provided with a drive groove (26), the surface of the drive groove (26) is lapped with a pullback strip (27), the surface of the pullback strip (27) is lapped with the wiping frame (22), and the upper surface of the semicircle block (2) is slidably provided with a support frame (28). The upper surface of the support frame (28) is slidably provided with a pullback strip (27).

5. A titanium alloy wire production line as defined in claim 1, wherein, The inner arc of the semicircle block (2) is provided with a discharge port (29), the surface of the discharge port (29) is slidably provided with a discharge valve (30), the bottom of the discharge valve (30) is provided with a bottom spring (31), the edge of the semicircle block (2) is provided with an annular port (32), the upper surface of the drive wheel (11) is integrally provided with a jacking block (33), the upper surface of the air suction pipe (20) is slidably provided with an adjusting plug (34), and one side of the adjusting plug (34) is lapped with the discharge valve (30).

6. A titanium alloy wire production line according to claim 5, characterized in that, The lower surface of the adjusting plug (34) is slidably provided with a matching block (35), and the upper surface of the adjusting plug (34) is communicatively provided with an external connecting pipe (36).

7. A titanium alloy wire production line as defined in claim 1, characterized in that, The upper surface of the driving wheel (11) is integrally provided with an arc-shaped block (37), the upper surface of the semicircular block (2) is slidably provided with a vibrating block (38), and a vibrating spring is arranged between the vibrating block (38) and the semicircular block (2).

8. A titanium alloy wire production line as defined in claim 5, wherein, The upper surface of the semicircular block (2) is slidably provided with a fixed block (39), one side of the fixed block (39) is overlapped with an exhaust valve (30), and the bottom of the driving wheel (11) is integrally provided with a top opening block (40).

9. A titanium alloy wire production line as defined in claim 1, wherein, One side of the semicircular block (2) is provided with an air inlet pipe (41), and one side of the air inlet pipe (41) is communicatively provided with an air inflation bag (3).

10. A titanium alloy wire production line as defined in claim 1, characterized in that, One side of the air inflation bag (3) is provided with a polishing cloth (5), and the surface of the polishing cloth (5) is in contact with a welding wire (1).

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