Surface treatment system and surface treatment process of titanium alloy wire containing trace elements

Abstract

The invention relates to the technical field of surface treatment, and proposes a surface treatment process for a titanium alloy wire containing trace elements. The relative cutting-in and withdrawing operations of a plurality of first blades and a plurality of second blades are relatively convenient and have good practicability. During the peeling process, the process can be carried out in a state of being immersed in liquid, thereby improving the lubrication effect during the wire peeling process and reducing the generation of secondary oxidation after the wire peeling. The invention comprises a bottom plate and a main frame, the left and right ends of the bottom plate are respectively fixedly connected with a first double-bend guide tube and a second double-bend guide tube, the first double-bend guide tube and the second double-bend guide tube are both rotatably connected with a lifting frame, the two lifting frames are both slidably connected to the main frame, a synchronous frame is fixedly connected between the two lifting frames, an electric lifting rod is installed in the main frame, the telescopic rod of the electric lifting rod is fixedly connected to the synchronous frame, two linkage structures are installed in the main frame, and the two linkage structures are matched with the first double-bend guide tube and the second double-bend guide tube respectively.

Description

Technical Field

[0001] The invention relates to the technical field of surface treatment, and in particular to a surface treatment system and a surface treatment process for a titanium alloy wire containing trace elements. Background Art

[0002] As we all know, titanium alloy wire containing trace elements is a titanium alloy wire containing trace elements, and the surface treatment process of titanium alloy wire containing trace elements is a treatment process formed based on the surface treatment system of the wire.

[0003] After searching, the invention patent with Chinese patent application number CN201920996256.0 discloses a multi-mode surface treatment system for titanium and titanium alloy wires, which is roughly described as including a base plate, a first mold, a second mold and a third mold, both sides of the top of the base plate are fixedly welded with vertical plates, the inner walls of the two vertical plates are fixedly provided with three first card slots, and the three first card slots are respectively engaged with one side of the first mold, one side of the second mold and one side of the third mold, and the middle part of one side of the first mold, the middle part of one side of the second mold and the middle part of one side of the third mold are fixedly provided with threaded holes, and the three threaded holes are fixedly connected to one of the vertical plates through fixing bolts, and the front of the first mold, the front of the second mold and the front of the third mold are fixedly provided with a centering mechanism, and the middle part of the first mold, the middle part of the second mold and the middle part of the third mold are respectively fixedly installed with a cutter head through a cutter seat, and the middle parts of the three cutter heads are fixedly provided with a cutter hole, and the back of the first mold, the back of the second mold and the back of the third mold are hinged. A cover plate is hingedly provided, and an output hole is fixedly opened in the middle of the cover plate. When it is used, the bottom plate is first fixed through the mounting hole, and then the first mold, the second mold and the third mold are selected to be installed according to the number of times the surface of the titanium and titanium alloy wire is processed. If the surface of the titanium and titanium alloy wire needs to be stripped three times, the two sides of the first mold, the two sides of the second mold and the two sides of the third mold are respectively engaged and connected with the first slot, and then the bottom end of the first mold, the bottom end of the second mold and the bottom end of the third mold are engaged and connected with the second slot, and finally the threaded hole on one side of the first mold, the threaded hole on one side of the second mold and the threaded hole on one side of the third mold are fixedly connected to one of the vertical plates through fixing bolts, and then the surface of the titanium and titanium alloy wire is processed, and one end of the titanium and titanium alloy wire is squeezed through the knife hole of the first mold, the knife hole of the second mold and the knife hole of the third mold through the centering hole, and finally one end of the titanium and titanium alloy wire is pulled at a uniform speed through the output hole to form a stripping treatment on the surface of the titanium and titanium alloy wire.

[0004] Although the above-mentioned existing technical solution can realize the surface peeling treatment of titanium alloy wire, its preparation stage requires the titanium alloy wire to pass through the knife holes of three cutter heads in sequence. Therefore, during the processing cycle of the entire titanium alloy wire, the cutting in and out operations of the connected cutter heads are relatively cumbersome and laborious, and its practicality needs to be further enhanced. In addition, due to the mutual friction between the titanium alloy wire when the titanium alloy wire is pulled through the cutter head, the temperature of the contact position between the titanium alloy wire and the cutter head can easily increase, thereby accelerating the consumption of the cutter head, and also causing secondary oxidation of the titanium alloy wire after the peeling treatment. Summary of the invention

[0005] In view of the shortcomings of the prior art, the present invention provides a surface treatment system and surface treatment process for titanium alloy wire containing trace elements. The relative cutting-in and withdrawing operations of multiple first knife bodies and multiple second knife bodies are relatively convenient and have good practicality. In addition, the peeling process can be carried out in a state of immersion in liquid, which improves the lubrication effect during the wire peeling process and reduces the production of secondary oxidation after the wire peeling.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a surface treatment system for titanium alloy wire containing trace elements, comprising a base plate and a main frame, wherein the left and right ends of the base plate are respectively fixedly connected with a first double-bend guide tube and a second double-bend guide tube, the first double-bend guide tube and the second double-bend guide tube are both rotatably connected with a lifting frame, the two lifting frames are both slidably connected to the main frame, a synchronous frame is fixedly connected between the two lifting frames, an electric lifting rod is installed in the main frame, the telescopic rod of the electric lifting rod is fixedly connected to the synchronous frame, two linkage structures are installed in the main frame, the two linkage structures are matched with the first double-bend guide tube and the second double-bend guide tube respectively, a plurality of mounting holes are opened on the base plate, and the plurality of mounting holes are fixedly connected with guides Guide cylinders, multiple guide cylinders are slidably connected with lifting cylinder frames, multiple lifting cylinder frames are threadedly connected with threaded caps, multiple threaded caps are rotatably connected with multiple guide cylinders, multiple lifting cylinder frames are slidably connected with first tool holders and second tool holders, multiple first tool holders are installed with first tool bodies, multiple second tool holders are installed with second tool bodies, multiple first tool bodies are matched with multiple second tool bodies, multiple lifting cylinder frames are installed with adjustment structures, multiple adjustment structures are respectively used for movement driving of multiple first tool holders, and multiple adjustment structures are respectively used for movement driving of multiple second tool holders, an immersion box is installed in the main frame, and the top end of the immersion box is in an open state, which is used for the first double-bend guide tube and the second double-bend guide tube to probe into the immersion box.

[0007] Preferably, the two linkage structures each include a sliding guide sleeve, the two sliding guide sleeves are fixedly connected in the main frame, the two sliding guide sleeves are fixedly connected with an adjusting spring, the two adjusting springs are fixedly connected with a linkage rack, the two linkage racks are respectively slidably connected in the two sliding guide sleeves, the two linkage racks are meshed with linkage gears, and the two linkage gears are respectively fixedly connected to the first double-bend guide tube and the second double-bend guide tube.

[0008] Preferably, the first double-bend guide tube and the second double-bend guide tube are both provided with a plurality of notch holes.

[0009] Preferably, the multiple adjustment structures all include threaded rods, and the multiple threaded rods are respectively threadedly connected in the multiple lifting cylinder frames, and the bottom ends of the multiple threaded rods are rotatably connected to linkage plates, and the multiple linkage plates are each provided with a first bevel and a second bevel, and the multiple first bevels are each provided with a first linkage rod, and the multiple second bevels are each provided with a second linkage rod, and the multiple first linkage rods are respectively fixedly connected to the multiple first tool holders, and the multiple second linkage rods are respectively fixedly connected to the multiple second tool holders.

[0010] Preferably, a first insertion entrance is provided on each of the plurality of first tool holders, a first embedding groove is provided in each of the plurality of first insertion entrances, the plurality of first insertion entrances are respectively used for inserting the plurality of first tool bodies, the plurality of first embedding grooves are respectively used for limiting the position of the plurality of first tool bodies, the plurality of first tool holders are respectively installed with a first auxiliary pressure bolt for assisting the positioning of the corresponding first tool bodies, a second insertion entrance is provided on each of the plurality of second tool holders, a second embedding groove is provided in each of the plurality of second insertion entrances, the plurality of second insertion entrances are respectively used for inserting the plurality of second tool bodies, the plurality of second embedding grooves are respectively used for limiting the position of the plurality of second tool bodies, and the plurality of second tool holders are respectively installed with a second auxiliary pressure bolt for assisting the positioning of the corresponding second tool bodies.

[0011] Preferably, two vertical bar openings are provided in the main frame, and the two vertical bar openings are matched with the two lifting frames respectively.

[0012] Preferably, the top ends of the plurality of threaded rods are fixedly connected with drive caps, and the outsides of the plurality of threaded caps and the plurality of drive caps are provided with anti-slip ridges.

[0013] Preferably, a hanger is fixedly connected to the main frame by assembly bolts, an electric lifting rod is installed in the hanger, a mounting tube is fixedly connected to the top of the synchronous frame, and a clamping bolt for clamping and fixing the telescopic rod of the electric lifting rod is threadedly connected to the mounting tube.

[0014] A surface treatment process for a titanium alloy wire containing trace elements comprises the following steps:

[0015] Step 1: During operation, firstly, the corresponding control circuit is installed for the electric lifting rod, and then the immersion liquid is added into the immersion box. The electric lifting rod works by controlling the synchronization frame to make the two lifting frames to form a relative upward movement relative to the main frame. Since the lower bent part of the first double-bend guide tube and the lower bent part of the second double-bend guide tube both extend into the immersion box in the initial state, when the two lifting frames both form a relative upward movement relative to the main frame, the first double-bend guide tube and the second double-bend guide tube extending into the immersion box will be lifted out of the immersion box.

[0016] Step 2: Under the action of the linkage structure, the raised first double-bend guide tube and the second double-bend guide tube will realize relative rotation adjustment during the relative lifting process, so that the original downward bending part of the first double-bend guide tube and the original downward bending part of the second double-bend guide tube are both rotated forward relative to the main frame to extend out of the immersion box, so as to facilitate the operation of the wire material passing through the first double-bend guide tube and the second double-bend guide tube in sequence;

[0017] Step 3, then load the corresponding first blade body into the first blade holder, and load the corresponding second blade body into the second blade holder. After the loading is completed, the first double-bend guide tube and the second double-bend guide tube are controlled by the electric lifting rod to rotate in the opposite direction and fall and reset, so that the lower bend part of the first double-bend guide tube and the lower bend part of the second double-bend guide tube are both extended into the immersion liquid in the immersion box again, and then the plurality of first blade bodies and the plurality of second blade bodies are adjusted, so that the corresponding first blade body and the second blade body are brought into a height matching the wire rod, and then the corresponding first blade body and the second blade body are controlled to be relatively close to each other by the adjustment structure, until the corresponding first blade body and the second blade body are in contact with each other and closed;

[0018] Step 4, finally, the wire is driven to pass through the knife hole area formed by the first knife body and the second knife body in sequence, so as to perform the wire stripping operation. The wire stripping process is immersed in the wetting liquid as a whole, which not only realizes the cooling of the wire and the lubrication between the wire and the knife hole, but also isolates the wire being processed from the outside air, reduces the surface oxidation of the wire under the condition of increased temperature caused by stripping, and ensures the quality of the wire after processing.

[0019] Compared with the prior art, the present invention provides a surface treatment system and surface treatment process for titanium alloy wire containing trace elements, which has the following beneficial effects:

[0020] 1. In the present invention, a mounting structure corresponding to the first knife body and the second knife body is formed by the cooperation of the lifting cylinder frame, the first knife holder and the second knife holder. In cooperation with the adjustment structure, a relative linkage between the first knife holder and the second knife holder can be formed, and the position driving and control of the first knife holder and the second knife holder can be realized, thereby achieving relative separation control and relative closing control of the first knife body and the second knife body. The cutting-in and exiting operations of the plurality of first knife bodies and the plurality of second knife bodies relative to the wire are relatively convenient and have good practicality.

[0021] 2. In the present invention, a guide structure matching the wire is formed by the cooperation of the first double-bend guide tube and the second double-bend guide tube. The wire stripping process can be carried out in a state of immersion in liquid, which improves the lubrication effect during the wire stripping process and reduces the occurrence of secondary oxidation after the wire stripping.

[0022] 3. In the present invention, a lifting structure matching the first double-bend guide tube and the second double-bend guide tube is formed through the cooperation of the lifting frame, the electric lifting rod and the linkage structure, thereby facilitating the placement and removal of the wire relative to the immersion box, so as to facilitate the operation of the wire passing through the first double-bend guide tube and the second double-bend guide tube before the wire is processed, and also facilitates the disassembly and maintenance operations of the first knife body and the second knife body relative to the first knife holder and the second knife holder respectively. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a schematic diagram of the overall three-dimensional structure of the present invention;

[0024] Figure 2 For the present invention Figure 1 A schematic diagram of the local enlarged structure at point A in the middle;

[0025] Figure 3 It is a schematic diagram of the three-dimensional structure of the assembly bolts and the hanger of the present invention;

[0026] Figure 4 It is a three-dimensional structural schematic diagram of the main frame of the present invention;

[0027] Figure 5 It is a schematic diagram of the three-dimensional structure of the first tool holder, the second tool holder and the first tool body of the present invention;

[0028] Figure 6 It is a schematic diagram of an exploded three-dimensional structure of the cooperation of the first tool holder, the second tool holder and the first tool body of the present invention;

[0029] Figure 7 It is a schematic diagram of a partially cutaway three-dimensional structure of a lifting cylinder frame of the present invention;

[0030] Figure 8 It is a schematic diagram of the exploded three-dimensional structure of the bottom plate, lifting frame and synchronous frame of the present invention;

[0031] Fig. 9 It is a schematic diagram of the three-dimensional structure of the relative distribution of the first double-bend guide tube, the second double-bend guide tube and the linkage gear of the present invention;

[0032] Fig.10 It is a schematic diagram of the three-dimensional structure of the present invention as a whole, viewed from the rear side;

[0033] Fig.11 For the present invention Fig.10 A schematic diagram of the local enlarged structure at B in the middle;

[0034] Fig.12 It is a schematic diagram of the exploded three-dimensional structure of the lifting cylinder frame, the first tool holder and the second tool holder of the present invention;

[0035] Fig.13 It is a bottom-up three-dimensional structural schematic diagram of the cooperation of the first tool holder, the second tool holder and the first auxiliary pressure bolt, etc. of the present invention;

[0036] Fig.14 It is a three-dimensional structural schematic diagram of the relative distribution of the first double-bend guide tube, the second double-bend guide tube and the linkage gear of the present invention from another angle.

[0037] In the figure: 1, bottom plate; 2, main frame; 3, first double-bend guide tube; 4, second double-bend guide tube; 5, lifting frame; 6, synchronous frame; 7, electric lifting rod; 8, guide cylinder; 9, lifting cylinder frame; 10, threaded cap; 11, first tool holder; 12, second tool holder; 13, first tool body; 14, second tool body; 15, immersion box; 16, sliding guide sleeve; 17, adjustment spring; 18, linkage rack; 19, linkage gear; 20, notch hole; 2 1. Threaded rod; 22. Linkage plate; 23. First oblique opening; 24. Second oblique opening; 25. First linkage rod; 26. Second linkage rod; 27. First insertion opening; 28. First embedding groove; 29. ​​First auxiliary pressure bolt; 30. Second insertion opening; 31. Second embedding groove; 32. Second auxiliary pressure bolt; 33. Vertical opening; 34. Drive cap; 35. Anti-slip ridge strip; 36. Assembly bolt; 37. Hanger; 38. Mounting tube; 39. Clamping bolt. DETAILED DESCRIPTION

[0038] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0039] See also Figures 1 to 14A surface treatment system for titanium alloy wire containing trace elements, comprising a bottom plate 1 and a main frame 2. The left and right ends of the bottom plate 1 are respectively fixedly connected with a first double-bend guide tube 3 and a second double-bend guide tube 4. Through the cooperation of the first double-bend guide tube 3 and the second double-bend guide tube 4, a guide structure matching the wire is formed. During the peeling process, it can be carried out in a state of immersion in liquid, which improves the lubrication effect of the wire peeling process and reduces the secondary oxidation of the wire after peeling. The first double-bend guide tube 3 and the second double-bend guide tube 4 are both rotatably connected with a lifting frame. 5, the two lifting frames 5 are slidably connected with the main frame 2, two vertical strip openings 33 are provided in the main frame 2, and the two vertical strip openings 33 are matched with the two lifting frames 5 respectively, a synchronous frame 6 is fixedly connected between the two lifting frames 5, an electric lifting rod 7 is installed in the main frame 2, and the telescopic rod of the electric lifting rod 7 is fixedly connected with the synchronous frame 6, a hanger 37 is fixedly connected in the main frame 2 by an assembly bolt 36, and the electric lifting rod 7 is installed in the hanger 37, and a mounting tube 38 is fixedly connected to the top of the synchronous frame 6, and a telescopic rod for the electric lifting rod 7 is threadedly connected on the mounting tube 38 The clamping bolt 39 is pressed and fixed, and two linkage structures are installed in the main frame 2. The two linkage structures are matched with the first double-bend guide tube 3 and the second double-bend guide tube 4 respectively. The two linkage structures include a sliding guide sleeve 16. The two sliding guide sleeves 16 are fixedly connected in the main frame 2. The two sliding guide sleeves 16 are fixedly connected with an adjustment spring 17. The two adjustment springs 17 are fixedly connected with a linkage rack 18. The two linkage racks 18 are respectively slidably connected in the two sliding guide sleeves 16. The two linkage racks 18 are meshed with a linkage gear 19. The linkage gear 19 is fixedly connected to the first double-bend guide tube 3 and the second double-bend guide tube 4 respectively, and through the cooperation of the lifting frame 5, the electric lifting rod 7 and the linkage structure, a lifting structure matching the first double-bend guide tube 3 and the second double-bend guide tube 4 is formed, thereby facilitating the placement and removal of the wire relative to the immersion box 15, so as to facilitate the operation of the wire passing through the first double-bend guide tube 3 and the second double-bend guide tube 4 before the wire processing, and also facilitates the disassembly and maintenance of the first knife body 13 and the second knife body 14 relative to the first knife holder 11 and the second knife holder 12 respectively.

[0040] It should be further explained that a plurality of mounting holes are provided on the bottom plate 1, and a guide tube 8 is fixedly connected in each of the plurality of mounting holes, a lifting tube frame 9 is slidably connected in each of the plurality of guide tubes 8, a threaded cap 10 is threadedly connected to each of the plurality of lifting tube frames 9, and the plurality of threaded caps 10 are rotatably connected to the plurality of guide tubes 8 respectively, a first tool holder 11 and a second tool holder 12 are slidably connected to each of the plurality of lifting tube frames 9, a first tool body 13 is installed in each of the plurality of first tool holders 11, a second tool body 14 is installed in each of the plurality of second tool holders 12, the plurality of first tool bodies 13 are matched with the plurality of second tool bodies 14 respectively, an adjustment structure is installed in each of the plurality of lifting tube frames 9, the plurality of adjustment structures are respectively used for driving the movement of the plurality of first tool holders 11, and the plurality of adjustment structures include a threaded rod 21, a plurality of threaded rods 22, and a plurality of threaded rods 23. The rods 21 are respectively threadedly connected in the plurality of lifting cylinder frames 9, the bottom ends of the plurality of threaded rods 21 are rotatably connected with linkage plates 22, the plurality of linkage plates 22 are respectively provided with first oblique openings 23 and second oblique openings 24, the plurality of first oblique openings 23 are respectively provided with first linkage rods 25, the plurality of second oblique openings 24 are respectively provided with second linkage rods 26, the plurality of first linkage rods 25 are respectively fixedly connected with the plurality of first tool holders 11, the plurality of second linkage rods 26 are respectively fixedly connected with the plurality of second tool holders 12, and the cooperation of the lifting cylinder frame 9, the first tool holder 11 and the second tool holder 12 forms an installation structure corresponding to the first tool body 13 and the second tool body 14, and the cooperation of the adjustment structure can form a relative linkage between the first tool holder 11 and the second tool holder 12, so as to realize the first tool holder 11 and the second The position drive and control of the tool holder 12 can achieve the relative separation control and relative closing control of the first tool body 13 and the second tool body 14. The cutting-in and withdrawing operations of the plurality of first tool bodies 13 and the plurality of second tool bodies 14 relative to the wire are more convenient and practical. The plurality of first tool holders 11 are each provided with a first insertion port 27, and the plurality of first insertion ports 27 are each provided with a first embedding groove 28. The plurality of first insertion ports 27 are respectively used for inserting the plurality of first tool bodies 13, and the plurality of first embedding grooves 28 are respectively used for limiting the plurality of first tool bodies 13. The plurality of first tool holders 11 are each provided with a first auxiliary pressure bolt 29 for assisting the positioning of the corresponding first tool body 13. The plurality of second tool holders 12 are each provided with a second insertion port 30, and the plurality of second insertion ports 30 are each provided with a first auxiliary pressure bolt 29 for assisting the positioning of the corresponding first tool body 13. A second embedding groove 31 is provided, and a plurality of second insertion ports 30 are respectively used for inserting a plurality of second blade bodies 14, and a plurality of second embedding grooves 31 are respectively used for limiting a plurality of second blade bodies 14, and a plurality of second blade holders 12 are respectively provided with second auxiliary pressure bolts 32 for assisting the positioning of the corresponding second blade bodies 14, forming a display of a specific installation structure of the first blade body 13 and the second blade body 14, and a plurality of adjustment structures are respectively used for driving the movement of the plurality of second blade holders 12, and an immersion box 15 is installed in the main frame 2, and the top end of the immersion box 15 is in an open state, for the first double-bend guide tube 3 and the second double-bend guide tube 4 to probe into the immersion box 15, and the first double-bend guide tube 3 and the second double-bend guide tube 4 are both provided with a plurality of notch holes 20, which are convenient for auxiliary observation and control when the wire passes through,The top ends of the multiple threaded rods 21 are fixedly connected with drive caps 34, and the outer sides of the multiple threaded caps 10 and the multiple drive caps 34 are provided with anti-slip ridges 35 to facilitate the auxiliary rotation and force application of the threaded caps 10 and the drive caps 34.

[0041] The electric lifting rod 7 in this embodiment is a conventional device purchased on the market and known to those skilled in the art. In this patent, we only use it and do not improve its structure and function. For those skilled in the art, its setting method, installation method and electrical connection method only need to be debugged and operated according to the requirements of its instruction manual, and will not be described in detail here.

[0042] In summary, the surface treatment process of the titanium alloy wire containing trace elements includes the following steps. During operation, the corresponding control circuit is first installed for the electric lifting rod 7, and then the immersion liquid is added into the immersion box 15. The electric lifting rod 7 works by controlling the synchronization frame 6 to control the two lifting frames 5 to form a relative upward movement relative to the main frame 2. Since the lower bent part of the first double-bend guide tube 3 and the lower bent part of the second double-bend guide tube 4 in the initial state are both extended into the immersion box 15, when the two lifting frames 5 form a relative upward movement relative to the main frame 2, the first double-bend guide tube 3 and the second double-bend guide tube 4 extended into the immersion box 15 will be raised out of the immersion box 15. Under the action of the linkage structure, the raised first double-bend guide tube 3 and the second double-bend guide tube 4 will be accompanied by the relative lifting process. The adjusting spring 17 There will be an initial stretching state and gradually enter a compression state, until the compression elastic force of the adjusting spring 17 can form a rotation drive of the first double-bend guide tube 3 and the second double-bend guide tube 4 through the cooperation of the linkage rack 18 and the linkage gear 19, so that the original downward bent part of the first double-bend guide tube 3 and the original downward bent part of the second double-bend guide tube 4 are both rotated forward relative to the main frame 2 to extend out of the immersion box 15, so that the wire rod passes through the first double-bend guide tube 3 and the second double-bend guide tube 4 in sequence. During the process, since the adjusting spring 17 will have an initial stretching state and gradually enter a compression state, the first double-bend guide tube 3 and the second double-bend guide tube 4 have been taken out of the immersion box 15, so the rotation of the first double-bend guide tube 3 and the second double-bend guide tube 4 will not interfere with the immersion box 15. Figure 8 As shown, a limited arc strip opening is provided in the lifting frame 5, as shown in the attached Fig.14 The first double-bend guide tube 3 and the second double-bend guide tube 4 shown are both provided with a limiting arc bar column matching the limiting arc bar mouth, so after the first double-bend guide tube 3 and the second double-bend guide tube 4 are rotated to the limit position relative to the two lifting frames 5 respectively, no further rotation is formed to ensure that the first double-bend guide tube 3 and the second double-bend guide tube 4 are smoothly extended into the immersion box 15 and the first double-bend guide tube 3 and the second double-bend guide tube 4 are raised. The rotational forward movement posture is maintained.

[0043] Further, the first blade holder 11 is loaded with the corresponding first blade body 13, and the second blade holder 12 is loaded with the corresponding second blade body 14. After the loading is completed, the first double-bend guide tube 3 and the second double-bend guide tube 4 are controlled by the electric lifting rod 7 to rotate in the opposite direction and fall and reset, so that the lower curved part of the first double-bend guide tube 3 and the lower curved part of the second double-bend guide tube 4 are both extended into the immersion liquid in the immersion box 15 again. This state is as shown in the attached figure. Figure 1 As shown, multiple first blade bodies 13 and multiple second blade bodies 14 are adjusted, and the corresponding first blade bodies 13 and second blade bodies 14 are brought into a height matching the wire. Then, the corresponding first blade bodies 13 and second blade bodies 14 are controlled to be relatively close to each other through the adjustment structure, until the corresponding first blade bodies 13 and second blade bodies 14 contact and close to each other, and finally the wire is driven, so that the wire passes through the knife hole area formed by the first blade body 13 and the second blade body 14 in sequence, and the wire is peeled. In addition, the wire is immersed in the immersion liquid as a whole during the peeling process, which not only realizes the cooling of the wire and the lubrication between the wire and the knife hole, but also isolates the wire being processed from the outside air, reducing the wire being peeled. The surface oxidation caused by the temperature increase ensures the quality of the wire after processing. The adjustment of the adjustment structure is achieved through the rotation adjustment of the threaded rod 21 relative to the lifting cylinder frame 9, so as to realize the height change of the linkage plate 22 relative to the lifting cylinder frame 9, thereby forming a relative position drive and control for the first tool holder 11 and the second tool holder 12 that cooperate with each other. The height adjustment of the first tool holder 11 and the second tool holder 12 is achieved by rotating the threaded cap 10 relative to the guide tube 8. Due to the threaded connection between the threaded cap 10 and the lifting cylinder frame 9, the rotating threaded cap 10 will realize the relative height adjustment of the lifting cylinder frame 9 relative to the guide tube 8, thereby achieving the height adjustment of the first tool holder 11 and the second tool holder 12.

[0044] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A surface treatment system for titanium alloy wire containing trace elements, comprising a base plate (1), characterized in that: The main frame (2) is also comprised of a main body frame (2), the left and right ends of the bottom plate (1) are respectively fixedly connected with a first double-bend guide tube (3) and a second double-bend guide tube (4), the first double-bend guide tube (3) and the second double-bend guide tube (4) are both rotatably connected with a lifting frame (5), the two lifting frames (5) are both slidably connected with the main body frame (2), a synchronous frame (6) is fixedly connected between the two lifting frames (5), an electric lifting rod (7) is installed in the main body frame (2), the telescopic rod of the electric lifting rod (7) is fixedly connected with the synchronous frame (6), two linkage structures are installed in the main body frame (2), the two linkage structures are respectively matched with the first double-bend guide tube (3) and the second double-bend guide tube (4), a plurality of mounting holes are opened on the bottom plate (1), a plurality of the mounting holes are each fixedly connected with a guide tube (8), a plurality of the guide tubes (8) are each slidably connected with a lifting tube frame (9), and a plurality of the lifting tubes The frame (9) is threadedly connected with a threaded cap (10), and the plurality of threaded caps (10) are rotatably connected to the plurality of guide tubes (8). The plurality of lifting tube frames (9) are slidably connected with a first tool holder (11) and a second tool holder (12). The plurality of first tool holders (11) are each installed with a first tool body (13), and the plurality of second tool holders (12) are each installed with a second tool body (14). The plurality of first tool bodies (13) are matched with the plurality of second tool bodies (14). The plurality of lifting tube frames (9) are each installed with an adjustment structure, and the plurality of adjustment structures are respectively used for driving the movement of the plurality of first tool holders (11), and the plurality of adjustment structures are respectively used for driving the movement of the plurality of second tool holders (12). An immersion box (15) is installed in the main frame (2), and the top end of the immersion box (15) is in an open state, so as to allow the first double-bend guide tube (3) and the second double-bend guide tube (4) to be inserted into the immersion box (15).

2. The surface treatment system of a titanium alloy wire containing trace elements according to claim 1, characterized in that: The two linkage structures each comprise a sliding guide sleeve (16), the two sliding guide sleeves (16) are both fixedly connected in the main frame (2), the two sliding guide sleeves (16) are both fixedly connected with an adjustment spring (17), the two adjustment springs (17) are both fixedly connected with a linkage rack (18), the two linkage racks (18) are respectively slidably connected in the two sliding guide sleeves (16), the two linkage racks (18) are both meshed with a linkage gear (19), and the two linkage gears (19) are respectively fixedly connected to the first double-bend guide tube (3) and the second double-bend guide tube (4).

3. The surface treatment system of a titanium alloy wire containing trace elements according to claim 2, characterized in that: The first double-bend guide tube (3) and the second double-bend guide tube (4) are both provided with a plurality of notch holes (20).

4. The surface treatment system of a titanium alloy wire containing trace elements according to claim 3, characterized in that: The plurality of adjustment structures each comprise a threaded rod (21), the plurality of threaded rods (21) being respectively threadedly connected in the plurality of lifting cylinder frames (9), the bottom ends of the plurality of threaded rods (21) being rotatably connected to a linkage plate (22), the plurality of linkage plates (22) being provided with a first oblique opening (23) and a second oblique opening (24), the plurality of first oblique openings (23) being provided with a first linkage rod (25), the plurality of second oblique openings (24) being provided with a second linkage rod (26), the plurality of first linkage rods (25) being respectively fixedly connected to the plurality of first tool holders (11), and the plurality of second linkage rods (26) being respectively fixedly connected to the plurality of second tool holders (12).

5. The surface treatment system of a titanium alloy wire containing trace elements according to claim 4, characterized in that: A plurality of first tool holders (11) are each provided with a first insertion opening (27), a plurality of first insertion openings (27) are each provided with a first embedding groove (28), the plurality of first insertion openings (27) are respectively used for inserting a plurality of first tool bodies (13), the plurality of first embedding grooves (28) are respectively used for limiting the position of a plurality of first tool bodies (13), a plurality of first tool holders (11) are each provided with a first auxiliary pressure bolt (29) for assisting the positioning of the corresponding first tool bodies (13), a plurality of second tool holders (12) are each provided with a second insertion opening (30), a plurality of second insertion openings (30) are each provided with a second embedding groove (31), the plurality of second insertion openings (30) are respectively used for inserting a plurality of second tool bodies (14), the plurality of second embedding grooves (31) are respectively used for limiting the position of a plurality of second tool bodies (14), and a plurality of second tool holders (12) are each provided with a second auxiliary pressure bolt (32) for assisting the positioning of the corresponding second tool bodies (14).

6. The surface treatment system of a titanium alloy wire containing trace elements according to claim 5, characterized in that: Two vertical strip openings (33) are provided in the main frame (2), and the two vertical strip openings (33) are matched with the two lifting frames (5) respectively.

7. The surface treatment system of a titanium alloy wire containing trace elements according to claim 6, characterized in that: The top ends of the plurality of threaded rods (21) are fixedly connected to drive caps (34), and the outsides of the plurality of threaded caps (10) and the plurality of drive caps (34) are provided with anti-slip ridges (35).

8. The surface treatment system of a titanium alloy wire containing trace elements according to claim 7, characterized in that: A hanger (37) is fixedly connected to the main frame (2) via an assembly bolt (36), an electric lifting rod (7) is installed in the hanger (37), a mounting tube (38) is fixedly connected to the top of the synchronous frame (6), and a clamping bolt (39) is threadedly connected to the mounting tube (38) for clamping and fixing the telescopic rod of the electric lifting rod (7).

9. A surface treatment process for titanium alloy wire containing trace elements, characterized in that: A surface treatment system for a titanium alloy wire containing trace elements according to any one of claims 1 to 8 is used, comprising the following steps: Step 1: During operation, firstly, a corresponding control circuit is installed for the electric lifting rod (7), and then an immersion liquid is added into the immersion box (15). The electric lifting rod (7) works by controlling the two lifting racks (5) to form a relative upward movement relative to the main frame (2) through the synchronization rack (6). Since the lower bent portion of the first double-bend guide tube (3) and the lower bent portion of the second double-bend guide tube (4) both extend into the immersion box (15) in the initial state, when the two lifting racks (5) form a relative upward movement relative to the main frame (2), the first double-bend guide tube (3) and the second double-bend guide tube (4) extending into the immersion box (15) are lifted out of the immersion box (15); Step 2: Under the action of the linkage structure, the first double-bend guide tube (3) and the second double-bend guide tube (4) that are raised will realize relative rotation adjustment during the relative raising process, so that the original downwardly bent part of the first double-bend guide tube (3) and the original downwardly bent part of the second double-bend guide tube (4) are both rotated forward relative to the main frame (2) to protrude into the immersion box (15), so as to facilitate the operation of the wire material passing through the first double-bend guide tube (3) and the second double-bend guide tube (4) in sequence; Step 3, then the first blade holder (11) is loaded with the corresponding first blade body (13), and the second blade holder (12) is loaded with the corresponding second blade body (14). After the loading is completed, the first double-bend guide tube (3) and the second double-bend guide tube (4) are controlled by the electric lifting rod (7) to rotate in the opposite direction and fall down to reset, so that the lower bend part of the first double-bend guide tube (3) and the lower bend part of the second double-bend guide tube (4) are both extended into the immersion liquid in the immersion box (15) again, and then the plurality of first blade bodies (13) and the plurality of second blade bodies (14) are adjusted so that the corresponding first blade body (13) and the second blade body (14) are at a height matching the wire rod, and then the corresponding first blade body (13) and the second blade body (14) are controlled to be relatively close to each other by the adjustment structure until the corresponding first blade body (13) and the second blade body (14) are in contact with each other and closed; Step 4, finally, the wire is driven so that the wire passes through the knife hole area formed by the first knife body (13) and the second knife body (14) in sequence, thereby performing a wire peeling operation. The wire peeling process is immersed in the wetting liquid as a whole, which not only achieves the cooling of the wire and the lubrication between the wire and the knife hole, but also isolates the wire being processed from the outside air, reduces the surface oxidation of the wire under the condition of increased temperature caused by peeling, and ensures the quality of the wire after processing.

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