An on-line solution heat treatment equipment for high wear-resistant stainless steel wire

Abstract

The present invention relates to the technical field of wire solution treatment, and discloses an on-line solution treatment device for highly wear-resistant stainless steel wire, which includes a wire guiding box and stainless steel wire passing through the wire guiding box. A tension spring coaxially sleeved on the outer side wall of the stainless steel wire is arranged in the wire guiding box. A plurality of rotating air blowing wheels facing the stainless steel wire are arranged on the tension spring. A plurality of first sliding plates arranged in a circle are arranged on the tension spring. One end of the tension spring is fixed to the inner wall of the wire guiding box, and the other end is fixed with a second attracting plate. The present invention analyzes and feeds back the speed of the stainless steel wire. As the stainless steel wire is conveyed faster, the effective resistance end on the spiral resistor will be shorter. It should be noted that the second electromagnetic generator is connected to the spiral resistor. Therefore, the current generated on the second electromagnetic generator will increase, and the length of the tension spring attracted by the second attracting plate and stretched will be longer.

Description

Technical Field

[0001] The present invention relates to the technical field of wire solution treatment, and particularly to an on-line solution treatment device for high wear-resistant stainless steel wire. Background Art

[0002] The stainless steel wire is heated to a certain temperature to fully dissolve carbide and other alloying elements in austenite, and the waste heat after hot rolling of the stainless steel wire is fully utilized, reducing additional energy input. Compared with the off-line solution treatment process, energy consumption can be significantly reduced. Then, through rapid cooling, the precipitation of carbides and the like is inhibited, thereby obtaining a uniform single-phase austenite structure. For some alloy wires, such as stainless steel wires containing elements such as chromium and nickel, solution treatment can evenly distribute alloying elements in the matrix, which can effectively prevent the occurrence of local corrosion and improve the corrosion resistance of the wire. Its equipment consists of a heating device, a heat preservation device, a cooling device, and a conveying device.

[0003] Among them, the following problems usually occur during the use of the on-line solution treatment equipment:

[0004] First of all, after heat preservation, the wire needs to be rapidly cooled. The commonly used cooling methods are water cooling and air cooling. The purpose of rapid cooling is to obtain a supersaturated solid solution, and the cooling rate also needs to be appropriately controlled. An excessively fast cooling rate may cause defects such as quenching cracks in the wire;

[0005] Secondly, the cooling rate has a great influence on the final performance of the wire. For example, the diameter of the wire will change the cooling time. The larger the diameter of the wire, the longer the cooling time will be; at the same time, the adjustment of the transmission speed of the wire will also affect the cooling time, that is, the faster the transmission speed of the wire, the faster the water cooling and air cooling rates need to be.

[0006] Therefore, we have designed an on-line solution treatment device for high wear-resistant stainless steel wire. Summary of the Invention

[0007] The purpose of the present invention is to solve the problems that the diameter of the wire will change the cooling time and the wire with unqualified surface quality needs to be processed in time, and to propose an on-line solution treatment device for high wear-resistant stainless steel wire.

[0008] In order to achieve the above purpose, the present invention adopts the following technical solutions:

[0009] A high wear-resistant stainless steel wire online solution equipment, including a wire guiding box and a stainless steel wire passing through the wire guiding box. A tension spring coaxially sleeved on the outer side wall of the stainless steel wire is arranged in the wire guiding box. A plurality of rotating air blowing wheels facing the stainless steel wire are arranged on the tension spring. A plurality of first sliding plates arranged in a circle are arranged on the tension spring. One end of the tension spring is fixed on the inner wall of the wire guiding box, and the other end is fixed with a second attracting plate. A second electromagnetic generator for attracting the second attracting plate and stretching the tension spring is arranged on the inner wall of the wire guiding box. One end of each of the plurality of first sliding plates is provided with a first attracting plate, and a first electromagnetic generator for attracting the first attracting plate and driving the first sliding plate to slide is arranged on the inner wall of the wire guiding box. A detection ring sleeved on the outer side wall of the stainless steel wire is arranged in the wire guiding box, and a detection part for detecting the diameter change of the stainless steel wire is arranged in the detection ring.

[0010] Preferably, the detection part includes:

[0011] A first inner cavity, in which a plurality of transmission parts sliding along the radial direction are arranged. The transmission parts extend out of the first inner cavity and abut against the outer side wall of the stainless steel wire;

[0012] A first return spring. A lifting groove is formed on the side wall of the first inner cavity, and a first return spring connected to the transmission part is arranged in the lifting groove. The first return spring is used to push the transmission part to closely adhere to the outer side wall of the stainless steel wire.

[0013] Preferably, the detection part further includes:

[0014] A first friction wheel, which is connected to the transmission part. A trigger disc is arranged on one side of the transmission part, and the first friction wheel coaxially penetrates through the trigger disc;

[0015] A spiral resistor, which is fixed in the lifting groove. An L-shaped rod is fixed on the transmission part. The L-shaped rod coaxially extends into the spiral resistor, and the other end of the L-shaped rod abuts against the spiral resistor.

[0016] Preferably, the transmission part includes:

[0017] A top plate, with brackets arranged on both sides of the top plate, and side plates are fixed on the brackets. The side plates are isosceles triangles. A plurality of transmission rollers are arranged between the two side plates, and the transmission rollers are respectively located at the corners of the side plates;

[0018] The same transmission belt is wound around the outer side walls of the plurality of transmission rollers, and the transmission belt is connected to the first friction wheel. The first friction wheel rotates through the bracket.

[0019] Preferably, the trigger disc is annular, and a spiral resistor is arranged inside the trigger disc. A rotating plate is fixed at the end of the first friction wheel, and a sliding cavity is formed inside the rotating plate. A second sliding plate slides inside the sliding cavity, and the second sliding plate is reset and telescoped by a second return spring inside the sliding cavity.

[0020] Preferably, a conductive rod is arranged at the other end of the second sliding plate, and the conductive rod is connected to the spiral resistor. Wires are connected to both the conductive rod and the spiral resistor.

[0021] Preferably, a second inner cavity is formed on the side of the tension spring facing the stainless steel wire. The first sliding plate extends into the second inner cavity, and the first sliding plate is connected to the rotating air blowing wheel through a friction wheel.

[0022] Preferably, notch retaining rings are coaxially sleeved on both sides of the rotating air blowing wheel. The notch of the notch retaining ring faces the stainless steel wire, and the notch retaining ring is fixed on the inner wall of the second inner cavity. The second friction wheel is located between the two notch retaining rings, and the first sliding plate, the second friction wheel, and the rotating air blowing wheel are connected in sequence.

[0023] Preferably, the rotating air blowing wheel includes:

[0024] A rotating wheel, an axial cavity is coaxially formed in the rotating wheel. An air hole communicating with the axial cavity is formed in the tension spring, and the rotating wheel rotates inside the second inner cavity;

[0025] A first air outlet and a second air outlet, the first air outlet and the second air outlet are symmetrically arranged on both sides of the rotating wheel, and the first air outlet communicates with the axial cavity. The second air outlet communicates with the axial cavity through a connecting cavity.

[0026] Preferably, the second air outlet is a flared opening and is inclined.

[0027] The beneficial effects of the present invention are as follows:

[0028] The present invention analyzes and feeds back the speed of the stainless steel wire. As the stainless steel wire is conveyed faster, the effective resistance end on the spiral resistor will be shorter. It should be noted that the second electromagnetic generator is connected to the spiral resistor, so the current generated on the second electromagnetic generator will increase, and the length of the tension spring attracted by the second attracting plate and stretched will be longer.

[0029] The present invention analyzes and feeds back the diameter of the stainless steel wire. The L-shaped rod coaxially extends into the spiral resistor, and the other end of the L-shaped rod abuts against the spiral resistor. As the diameter of the stainless steel wire becomes larger, it will drive the transmission part to squeeze and lift, so it will also drive the position of the L-shaped rod in the spiral resistor, and its resistance will also change. The magnetic field generated by the first electromagnetic generator increases with the increase of current, and then it will attract the first attracting plate to slowly approach. Description of the Drawings

[0030] Figure 1 Structural schematic diagram of an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0031] Figure 2 Internal structural schematic diagram of a detection ring in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0032] Figure 3 Partial explosion view of a detection ring in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0033] Figure 4 Front view of a detection ring in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0034] Figure 5 It is Figure 4 Enlarged structural schematic diagram of the position A in

[0035] Figure 6 Structural schematic diagram of a transmission part in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0036] Figure 7 Internal structural schematic diagram of a trigger disc in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0037] Figure 8 Structural schematic diagram of a tension spring in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0038] Figure 9 Internal structural schematic diagram of a tension spring in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0039] Figure 10 Internal structural schematic diagram of a rotating air-blowing wheel in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0040] Figure 11 Side view of a rotating air-blowing wheel in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0041] Figure 12 First perspective view of air flow blowing in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention;

[0042] Figure 13 Second perspective view of air flow blowing in an on-line solution treatment device for a highly wear-resistant stainless steel wire proposed by the present invention.

[0043] In the figure: 1. Wire box; 2. Stainless steel wire; 3. Detection ring; 4. First attracting plate; 5. Second attracting plate; 6. First electromagnetic generator; 7. Second electromagnetic generator; 8. Tensile spring; 9. First sliding plate;

[0044] 10. Transmission part; 101. Conveyor belt; 102. Transmission roller; 103. Side plate; 104. Bracket; 105. Top plate;

[0045] 11. Lifting groove; 12. First inner cavity; 13. First friction wheel; 14. Trigger disc; 15. First return spring; 16. Spiral resistor; 17. L-shaped rod; 18. Spiral resistor; 19. Rotating plate; 20. Sliding cavity; 21. Second return spring; 22. Second sliding plate; 23. Conductive rod; 24. Second inner cavity; 25. Second friction wheel;

[0046] 26. Rotating blowing wheel; 261. Rotating wheel; 262. Shaft cavity; 263. First air outlet; 264. Second air outlet; 265. Connecting cavity;

[0047] 27. Notch retaining ring. Detailed implementation mode

[0048] Refer to Figures 1-13 A high wear-resistant stainless steel wire online solution heat treatment equipment includes a wire box 1 and a stainless steel wire 2 passing through the wire box 1. The stainless steel wire 2 that needs to be solution heat treated online passes through the wire box 1, and the stainless steel wire 2 passing through the wire box 1 will achieve a cooling effect in the wire box 1.

[0049] A detection ring 3 sleeved on the outer side wall of the stainless steel wire 2 is arranged in the wire box 1. The detection ring 3 is used to detect the surface of the stainless steel wire 2 passing through the wire box 1. If the passing speed of the stainless steel wire 2 increases or the diameter of the stainless steel wire 2 increases, this part of the change will be transmitted to the detection part in the detection ring 3.

[0050] Refer to Figures 2-5 In the state, a detection part for detecting the diameter change of the stainless steel wire 2 is arranged in the detection ring 3. The detection part includes a first inner cavity 12. A plurality of transmission parts 10 sliding radially are arranged in the first inner cavity 12. The transmission parts 10 extend out of the first inner cavity 12 and abut against the outer side wall of the stainless steel wire 2. Such a setting can ensure that during the movement of the stainless steel wire 2, the movement state of the stainless steel wire 2 will be transmitted to the transmission parts 10, and the transmission parts 10 will make corresponding adjustments in the first inner cavity 12;

[0051] The detection unit further includes a first return spring 15. A lifting groove 11 is formed in the side wall of the first inner cavity 12, and the first return spring 15 connected to the transmission part 10 is arranged in the lifting groove 11. The first return spring 15 is used to push the transmission part 10 against the outer side wall of the stainless steel wire 2. Such a setting can ensure that when the stainless steel wire 2 moves through the detection ring 3, it can always abut against the outer side wall of the stainless steel wire 2. As the diameter of the stainless steel wire 2 increases, it will abut against the transmission part 10 and move in the direction of the lifting groove 11.

[0052] Referring to Figure 6 the state, the transmission part 10 includes a top plate 105. Brackets 104 are arranged on both sides of the top plate 105, and side plates 103 are fixed on the brackets 104. The side plates 103 are isosceles triangles. A plurality of transmission rollers 102 are arranged between the two side plates 103, and the transmission rollers 102 are respectively located at the corners of the side plates 103. In this way, the three transmission rollers 102 will form a triangular state, and the lowermost transmission roller 102 drives the conveyor belt 101 to abut against the outer side wall of the stainless steel wire 2.

[0053] The same conveyor belt 101 is wound around the outer side walls of the plurality of transmission rollers 102, and the conveyor belt 101 is connected to the first friction wheel 13. The first friction wheel 13 rotates on the bracket 104. In this way, during the movement of the stainless steel wire 2, the conveyor belt 101 will be driven to move together. Therefore, the moving speed of the stainless steel wire 2 will be transmitted to the conveyor belt 101.

[0054] Therefore, the transmission part 10 can feedback two states of the stainless steel wire 2, that is, the speed and diameter of the stainless steel wire 2.

[0055] For the analysis and feedback of the speed of the stainless steel wire 2:

[0056] Referring to Figure 8 the state, the detection unit further includes a first friction wheel 13. The first friction wheel 13 is connected to the transmission part 10. A trigger disc 14 is arranged on one side of the transmission part 10, and the first friction wheel 13 coaxially penetrates the trigger disc 14. Therefore, the rotation of the conveyor belt 101 will drive the closely attached first friction wheel 13 to rotate together. The faster the stainless steel wire 2 is conveyed, the faster the speed of driving the first friction wheel 13 to rotate will be.

[0057] Among them, the trigger disc 14 is annular, and a spiral resistor 18 is arranged inside the trigger disc 14. A rotating plate 19 is fixed at the end of the first friction wheel 13, and a sliding cavity 20 is formed inside the rotating plate 19. A second sliding plate 22 slides inside the sliding cavity 20, and the second sliding plate 22 is reset and telescoped by a second return spring 21 inside the sliding cavity 20. Therefore, the faster the first friction wheel 13 rotates, the more the second return spring 21 will be pulled, causing the second sliding plate 22 to slide radially along the spiral resistor 18. The faster the rotation speed, the stronger the centrifugal force on the second sliding plate 22, and the farther the second sliding plate 22 will be driven away from the rotating plate 19.

[0058] The other end of the second sliding plate 22 is provided with a conductive rod 23, and the conductive rod 23 is connected to the spiral resistor 18. Both the conductive rod 23 at the end of the second sliding plate 22 and the spiral resistor 18 are connected with wires. As the stainless steel wire 2 is conveyed faster, the effective resistance end on the spiral resistor 18 will be shorter. It should be noted that the second electromagnetic generator 7 is connected to the spiral resistor 18. Therefore, the current generated on the second electromagnetic generator 7 will increase, and the length of the stretching spring 8 will be stretched longer when attracting the second attracting plate 5.

[0059] Analysis and feedback are carried out on the diameter of the stainless steel wire 2:

[0060] The detection part also includes a spiral resistor 16. The spiral resistor 16 is fixed in the lifting groove 11. An L-shaped rod 17 is fixed on the transmission part 10. The L-shaped rod 17 coaxially extends into the spiral resistor 16, and the other end of the L-shaped rod 17 abuts against the spiral resistor 16. As the diameter of the stainless steel wire 2 increases, the transmission part 10 will be squeezed and lifted, so the position of the L-shaped rod 17 in the spiral resistor 16 will also be changed, and its resistance will also be changed. A buffer spring is arranged between the first attracting plate 4 and the first electromagnetic generator 6. The first electromagnetic generator 6 is connected to the L-shaped rod 17 and the spiral resistor 16 through wires. Therefore, as the transmission part 10 continuously squeezes the first return spring 15, the resistance becomes smaller, the current increases, and the magnetic field generated by the first electromagnetic generator 6 becomes stronger, so the first attracting plate 4 will be attracted to move closer slowly.

[0061] A stretching spring 8 coaxially sleeved on the outer sidewall of the stainless steel wire 2 is arranged inside the wire box 1. A plurality of rotating air blowing wheels 26 facing the stainless steel wire 2 are arranged on the stretching spring 8. It should be noted that by pulling the stretching spring 8 to increase the length of the stretching spring 8, the rotating air blowing wheels 26 on the stretching spring 8 will also be driven to move together, so that the length of the air blowing on the surface of the stretching spring 8 will be increased.

[0062] Refer to Figure 9 and Figure 10, the stretching spring 8 is provided with a second inner cavity 24 on the side facing the stainless steel wire 2. The first sliding plate 9 extends into the second inner cavity 24, and the first sliding plate 9 is connected to the rotating air blowing wheel 26 through a second friction wheel 25. The two sides of the rotating air blowing wheel 26 are coaxially sleeved with notch retaining rings 27. The notch of the notch retaining ring 27 faces the stainless steel wire 2, and the notch retaining ring 27 is fixed on the inner wall of the second inner cavity 24. The second friction wheel 25 is located between the two notch retaining rings 27. The first sliding plate 9, the second friction wheel 25 and the rotating air blowing wheel 26 are connected in sequence. Therefore, the rotating air blowing wheel 26 is driven by the first sliding plate 9 to rotate within the notch retaining ring 27.

[0063] Referring to Figure 10 and Figure 11 the state, the rotating air blowing wheel 26 includes a rotating wheel 261. The rotating wheel 261 is coaxially provided with a shaft cavity 262. An air hole communicating with the shaft cavity 262 is provided in the stretching spring 8. The rotating wheel 261 rotates within the second inner cavity 24. It also includes a first air outlet 263 and a second air outlet 264. The first air outlet 263 and the second air outlet 264 are symmetrically arranged on both sides of the rotating wheel 261. The first air outlet 263 communicates with the shaft cavity 262, and the second air outlet 264 communicates with the shaft cavity 262 through a connecting cavity 265. After the external air blowing device blows into the shaft cavity 262 from the air hole, due to the existence of the notch retaining ring 27, it will be blown out from the first air outlet 263 or the second air outlet 264.

[0064] The second air outlet 264 is a flared opening and is inclined. Referring to Figure 11 the state, the increase in the blowing port diameter of the second air outlet 264 can better blow out the gas.

[0065] Referring to Figure 12 and Figure 13 the state, the air flow blown out from the first air outlet 263 is a straight air flow, while the air flow blown out from the second air outlet 264 is an inclined air flow. In this way, the blowing range can be better improved, and the stainless steel wire 2 can be better cooled by blowing air.

[0066] Referring to Figure 12 and Figure 13 as shown, L1 is the axial distance of the vertical air flow on the stainless steel wire 2, L2 is the axial distance of the inclined air flow on the stainless steel wire 2, L3 is the horizontal distance of the vertical air flow on the cross section of the stainless steel wire 2, and L4 is the horizontal distance of the inclined air flow on the cross section of the stainless steel wire 2.

[0067] A plurality of first sliding plates 9 arranged in a circle are provided on the tension spring 8. One end of the tension spring 8 is fixed to the inner wall of the wire box 1, and the other end is fixed with a second attracting plate 5. A second electromagnetic generator 7 for attracting and stretching the tension spring 8 by attracting the second attracting plate 5 is provided on the inner wall of the wire box 1. One end of the plurality of first sliding plates 9 is provided with a first attracting plate 4, and a first electromagnetic generator 6 for attracting the first attracting plate 4 and driving the first sliding plate 9 to slide is provided on the inner wall of the wire box 1. That is, the faster the speed of the stainless steel wire 2, the tension spring 8 will be stretched, increasing the blowing range of the stainless steel wire 2, avoiding the problem that the adjustment of the wire transmission speed will also affect the cooling time; at the same time, the larger the diameter of the stainless steel wire 2, the larger the blowing range, and it can better cool the stainless steel wire 2 with a large diameter.

[0068] The working principle of the present invention is as follows:

[0069] A detection ring 3 sleeved on the outer wall of the stainless steel wire 2 is provided in the wire box 1. The detection ring 3 is used to detect the surface of the stainless steel wire 2 passing through the wire box 1. If the passing speed of the stainless steel wire 2 increases, or the diameter of the stainless steel wire 2 increases, this part of the change will be transmitted to the detection part in the detection ring 3. The transmission part 10 extends out of the first inner cavity 12 and abuts against the outer wall of the stainless steel wire 2. Such a setting can ensure that the moving state of the stainless steel wire 2 will be transmitted to the transmission part 10 during the movement of the stainless steel wire 2, and the transmission part 10 will make corresponding adjustments in the first inner cavity 12.

[0070] As the stainless steel wire 2 is conveyed faster, the effective resistance end on the spiral resistor 18 will be shorter. It should be noted that the second electromagnetic generator 7 is connected to the spiral resistor 18. Therefore, the current generated on the second electromagnetic generator 7 will increase, and the length of attracting the second attracting plate 5 and stretching the tension spring 8 will be longer;

[0071] As the transmission part 10 continuously presses the first return spring 15, the resistance becomes smaller, the current increases, and the magnetic field generated by the first electromagnetic generator 6 is enhanced. Then it will attract the first attracting plate 4 to slowly approach, and will also drive the rotating air blowing wheel 26 on the tension spring 8 to move together. In this way, the length of the air blowing on the surface of the tension spring 8 will be increased.

[0072] Therefore, the faster the speed of the stainless steel wire 2, the tension spring 8 will be stretched, increasing the blowing range of the stainless steel wire 2, avoiding the problem that the adjustment of the wire transmission speed will also affect the cooling time; at the same time, the larger the diameter of the stainless steel wire 2, the larger the blowing range, and it can better cool the stainless steel wire 2 with a large diameter.

[0073] The above are only the preferred specific embodiments of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, making equivalent substitutions or changes should be covered within the protection scope of the present invention.

Claims

1. An online solid solution device for highly wear-resistant stainless steel wires, comprising a wire box (1) and a stainless steel wire (2) passing through the wire box (1), characterized in that: The wire box (1) is provided with a tension spring (8) coaxially sleeved on the outer wall of the stainless steel wire (2), the tension spring (8) is provided with a plurality of rotating blowing wheels (26) facing the stainless steel wire (2), the tension spring (8) is provided with a plurality of first sliding plates (9) arranged in a circumferential manner, one end of the tension spring (8) is fixed to the inner wall of the wire box (1), and the other end is fixed with a second attraction plate (5), the inner wall of the wire box (1) is provided with a second electromagnetic generator (7) for attracting the second attraction plate (5) and stretching the tension spring (8), one end of the plurality of first sliding plates (9) is provided with a first attraction plate (4), and the inner wall of the wire box (1) is provided with a plurality of first attraction plates (9) for attracting the second attraction plate (5) and stretching the tension spring (8). The plate (4) attracts and drives the first sliding plate (9) to slide, the wire box (1) is provided with a detection ring (3) sleeved on the outer wall of the stainless steel wire (2), and the detection ring (3) is provided with a detection part for detecting the diameter change of the stainless steel wire (2), the detection part includes a first inner cavity (12), the first inner cavity (12) is provided with a plurality of transmission parts (10) sliding along the radial direction, the transmission parts (10) extend out of the first inner cavity (12) and abut against the outer wall of the stainless steel wire (2), the detection part also includes a first friction wheel (13), the first friction wheel (13) is connected to the transmission part (10), and the detection part also includes a first friction wheel (13) connected to the transmission part (10), and the detection part also includes a first friction wheel (13) connected to the transmission part (10). A trigger disk (14) is provided on the side thereof, and the first friction wheel (13) coaxially penetrates the trigger disk (14), the detection part further comprises a spiral resistor (16), the spiral resistor (16) is fixed in the lifting groove (11), an L-shaped rod (17) is fixed on the transmission part (10), the L-shaped rod (17) coaxially extends into the spiral resistor (16), and the other end of the L-shaped rod (17) abuts against the spiral resistor (16), the trigger disk (14) is annular, and a vortex resistor (18) is provided in the trigger disk (14), a rotating plate (19) is fixed at the end of the first friction wheel (13), and a sliding cavity (20) is provided in the rotating plate (19), and a second A sliding plate (22), a conductive rod (23) is provided at the other end of the second sliding plate (22), and the conductive rod (23) is connected to the vortex resistor (18), and the conductive rod (23) and the vortex resistor (18) are both connected to a wire, the tension spring (8) is provided with a second inner cavity (24) on the side facing the stainless steel wire (2), the first sliding plate (9) extends into the second inner cavity (24), and the first sliding plate (9) is connected to a rotating air blowing wheel (26) through a second friction wheel (25), and the rotating air blowing wheel (26) is coaxially sleeved with a notch retaining ring (27) on both sides, and the notch opening of the notch retaining ring (27) faces the stainless steel wire (2), and the rotating air blowing wheel (26) comprises; A rotating wheel (261), wherein the rotating wheel (261) is coaxially provided with an axial cavity (262), an air hole communicating with the axial cavity (262) is provided in the tension spring (8), and the rotating wheel (261) rotates in the second inner cavity (24); A first air outlet (263) and a second air outlet (264), wherein the first air outlet (263) and the second air outlet (264) are symmetrically arranged on both sides of the rotating wheel (261), and the first air outlet (263) is in communication with the shaft cavity (262), and the second air outlet (264) is in communication with the shaft cavity (262) via the connecting cavity (265), and the second air outlet (264) is a bell mouth and is arranged obliquely.

2. The online solid solution equipment for highly wear-resistant stainless steel wire according to claim 1, characterized in that: The detection part also includes a first return spring (15); a lifting groove (11) is provided on the side wall of the first inner cavity (12); a first return spring (15) connected to the transmission part (10) is provided in the lifting groove (11); and the first return spring (15) is used to push the transmission part (10) to be in close contact with the outer wall of the stainless steel wire (2).

3. The online solid solution equipment for highly wear-resistant stainless steel wire according to claim 1, characterized in that: The transmission part (10) comprises: A top plate (105), wherein brackets (104) are provided on both sides of the top plate (105), and side plates (103) are fixed on the brackets (104), the side plates (103) are in the shape of an isosceles triangle, and a plurality of transmission rollers (102) are provided between two side plates (103), and the transmission rollers (102) are respectively located at the corners of the side plates (103); The outer side walls of the plurality of transmission rollers (102) are wrapped with a same transmission belt (101), and the transmission belt (101) is connected to a first friction wheel (13), and the first friction wheel (13) rotates on a bracket (104).

4. The online solid solution equipment for highly wear-resistant stainless steel wire according to claim 1, characterized in that: The second sliding plate (22) is reset and retracted by a second reset spring (21) in the sliding cavity (20).

5. The online solid solution equipment for highly wear-resistant stainless steel wire according to claim 1, characterized in that: The notched retaining ring (27) is fixed to the inner wall of the second inner cavity (24), and the second friction wheel (25) is located between the two notched retaining rings (27). The first sliding plate (9), the second friction wheel (25) and the rotating blowing wheel (26) are connected in sequence.

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