Steel wire continuous drawing forming equipment and production process thereof

Abstract

The application is suitable for the technical field of steel wire drawing forming, and provides a steel wire continuous drawing forming equipment and a production process thereof.The drawing unit comprises a driving header, a small motor, a large motor, a rotating wheel group, a support group, a spraying part and a retractable part.The sensing unit comprises a bottom plate, a rotating ring arranged on one side of the bottom plate, a sliding rail arranged on the side of the rotating ring away from the bottom plate, a sliding block in sliding connection with the sliding rail, an extension block arranged on the side of the sliding block away from the sliding rail, and a trigger arranged on one end of the extension block.Through the design of the drawing unit, the single-pass area reduction rate is optimized on the traditional wire drawing equipment after the transformation from double mode to double double mode, the single-pass deformation is avoided to be too large, the internal organization fault of the steel wire is avoided, the toughness of the steel wire is reduced, the stability of the circle diameter of the steel wire in the drawing process is increased, the stability of the mold tolerance is improved, and the single-pass wire breaking probability is reduced.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of steel wire drawing forming, more particularly to a steel wire continuous drawing forming equipment and a production process thereof. BACKGROUND

[0002] The main processes of steel wire production include raw material selection, removing iron oxide scale, drying, coating treatment, heat treatment, drawing, plating treatment, etc. Drawing is one of the important processes of steel wire production. In the drawing process, the shape, size, mechanical properties and other important indicators of the steel wire will change.

[0003] In the prior art, the products produced by some steel wire drawing equipment have unstable circle diameter passability (passability generally refers to the uneven distribution of the size and direction of the residual stress generated in the drawing process of the material on the cross section, which causes the wire to be wavy, affecting the stability of the product outer diameter and the initial drawing force, and the wire direction value is often detected in material detection) in the client use process, and the internal mold wire diameter is prone to over-difference and wire breakage in the production process.

[0004] When the mold is used for many times, the drawing diameter size in the mold will increase due to long-time friction, thereby affecting the compression ratio between the steel wire drawing passes, and further affecting the product quality of the steel wire. The existing step of detecting whether the steel wire is qualified is usually to wind the steel wire on a roller, then draw the surface steel wire for detection, and the steel wire wound inside cannot be detected, thereby causing uneven sampling, further affecting the product quality of the steel wire, wasting time and resources. Therefore, the present application provides a steel wire continuous drawing forming equipment and a production process thereof to improve the existing problems. SUMMARY

[0005] In view of the deficiencies in the prior art, the present application aims to provide a steel wire continuous drawing forming equipment and a production process thereof.

[0006] In order to achieve the above object, the present application provides the following technical scheme: a steel wire continuous drawing forming equipment, comprising a drawing unit, an induction unit and a cutting unit; wherein the drawing unit comprises a drive general box, a small motor arranged in the drive general box, a large motor arranged on one side of the small motor, a rotating wheel group arranged on one side of the drive general box, a support group arranged on one end of the rotating wheel group, a spraying piece arranged on one end of the support group away from the rotating wheel group, and a retractable piece arranged on both ends of the drive general box; the induction unit is arranged in the support group and comprises a bottom plate, a rotating ring arranged on one side of the bottom plate, a sliding rail arranged on one side of the rotating ring away from the bottom plate, a sliding block in sliding connection with the sliding rail, an extension block arranged on one side of the sliding block away from the sliding rail, and a trigger piece arranged on one end of the extension block; the cutting unit is arranged on one side of the extension block away from the sliding block and comprises a vertical plate, a cutting plate arranged on one end of the vertical plate, a guide rail arranged on the side wall of the cutting plate, a guide block in sliding connection with the guide rail, a cutting knife arranged on one end of the guide block, and a spring piece arranged on one end of the guide block away from the cutting knife.

[0007] The present application is further provided that: a cavity is formed in the drive general box, and rotating holes are formed on the side wall of the drive general box, which are uniformly distributed along the length direction of the drive general box, and the cavity is in communication with the rotating holes.

[0008] The present application is further provided that: the rotating wheel group comprises a first wheel disc group and a second wheel disc group, the structure and size of the first wheel disc group and the second wheel disc group are equal, and the first wheel disc group and the second wheel disc group are sequentially distributed along the length direction of the drive general box; the first wheel disc group comprises a first wheel disc, a second wheel disc arranged on one side of the first wheel disc, and a third wheel disc arranged on one side of the second wheel disc away from the first wheel disc; wherein the first wheel disc, the second wheel disc and the third wheel disc are sequentially and uniformly distributed, the size of the first wheel disc and the second wheel disc is equal, the side wall of the first wheel disc, the second wheel disc and the third wheel disc is centrally provided with a connecting hole, a small rotating shaft is arranged in the connecting hole corresponding to the first wheel disc and the second wheel disc, and a large rotating shaft is arranged in the connecting hole corresponding to the third wheel disc, the output end of the small motor can be connected to the small rotating shaft through the corresponding rotating hole, and the output end of the large motor can be connected to the large rotating shaft through the corresponding rotating hole.

[0009] The application is further provided with: the support group comprises a first support and a second support, the first support and the second support are equal in size, the first support is distributed between the first pulley and the second pulley, and the second support is distributed between the second pulley and the third pulley; one end of the first support is connected to the side wall of the driving box near the rotating hole, a through hole is formed in the middle of the side wall of the first support, the through hole can penetrate the side wall of the first support, and extension pipes are symmetrically arranged on both sides of the first support in the axial direction; one end of the extension pipe is connected to the side wall of the first support, the pipe opening of the extension pipe is connected to the through hole, the inner diameter of the pipe opening of the extension pipe is larger than that of the through hole, a threaded groove is formed in the side wall of the extension pipe away from the first support, a knob is arranged on the threaded groove, and the knob is screw-connected with the threaded groove.

[0010] The application is further provided with: the spraying part comprises a main pipe and a bamboo joint pipe arranged on the main pipe; the side wall of the main pipe is connected to the side wall of the driving box near the rotating hole, the bamboo joint pipes are uniformly distributed along the length direction of the main pipe, one end of the bamboo joint pipe is provided with an on-off valve, the end of the on-off valve away from the bamboo joint pipe is connected to the side wall of the main pipe, and the end of the bamboo joint pipe away from the on-off valve is provided with a nozzle.

[0011] The application is further provided with: the winding and unwinding part comprises a winding group and a winding-up group, the winding group is arranged at one end of the driving box, the winding-up group is arranged at the end of the driving box away from the winding group, the winding group comprises a winding motor and a winding drum arranged at the output end of the winding motor, and the winding-up group comprises a winding-up motor and a winding-up drum arranged at the output end of the winding-up motor.

[0012] By adopting the above technical scheme, the single-pass reduction rate is optimized on the traditional wire drawing equipment after being changed from a double mode to a double double mode, the single-pass deformation amount is avoided to be too large, the internal organization fault of the steel wire is avoided, the toughness of the steel wire is reduced, the stability of the coil diameter of the steel wire in the drawing process is increased, the smoothness of the die out-of-tolerance is improved, and the single-pass wire breaking probability is reduced.

[0013] The application is further provided with: the first support is provided with a movable groove at one end away from the driving general box, the movable groove is vertically distributed with the through hole and is communicated with the through hole; the bottom plate is vertically distributed in the movable groove, one side of the bottom plate is connected to the inner wall of the movable groove, a through hole is provided in the middle of the side wall of the bottom plate, the through hole is provided in alignment with the through hole, and the diameters of the through hole and the through hole are equal; a first arc-shaped groove is provided in the side wall of the rotating ring, a second arc-shaped groove is provided in one side of the first arc-shaped groove, a plurality of groups of the first arc-shaped groove and the second arc-shaped groove can be provided, the first arc-shaped groove and the second arc-shaped groove are cross-distributed, a fixed pin is provided in the first arc-shaped groove, one end of the fixed pin is connected to the side wall of the bottom plate away from the movable groove, and the other end of the fixed pin can be connected to the rotating ring; one side of the sliding rail away from the sliding block can be connected to the side wall of the bottom plate away from the movable groove, the sliding rail can be uniformly distributed along the circumferential direction of the through hole, a movable pin is provided in the second arc-shaped groove, one end of the movable pin can penetrate the end of the expansion block away from the trigger piece, and the other end of the movable pin is connected to the second arc-shaped groove in cooperation with sliding, a rotating hole is provided in the side wall of the expansion block, a rotating rod is provided in the rotating hole, and one end of the rotating rod away from the expansion block is rotatably connected to the side wall of the sliding block away from the sliding rail.

[0014] By adopting the above technical scheme, the movable pin slides in the second arc-shaped groove, under the sliding of the movable pin, the sliding block moves on the sliding rail and moves along the sliding track of the movable pin, so that the three contact blocks gradually approach each other, so that the three contact blocks form a range through which only a steel wire meeting the circle diameter after drawing can pass, thereby achieving the purpose of detecting whether the steel wire after drawing is qualified.

[0015] The application is further provided with: the trigger piece includes an extension block, a contact spring provided on the side wall of the extension block, a contact block provided at one end of the contact spring away from the extension block, and a trigger button provided at one side of the extension block, the contact block and the trigger button are aligned; wherein one end of the extension block is connected to the end of the expansion block away from the movable pin, and one end of the trigger button is connected to the end of the expansion block away from the movable pin.

[0016] The application is further provided with: the elastic member includes a placement plate, an elastic spring arranged on the placement plate, a hitting ball arranged at the end of the elastic spring away from the placement plate, an elastic spring arranged on the side wall of the hitting ball, a magnetic attraction block arranged at the end of the elastic spring away from the hitting ball, and an induction block arranged at the end of the magnetic attraction block away from the elastic spring; wherein the side of the placement plate away from the elastic spring can be connected to the side wall of the telescopic block away from the sliding block, the side of the induction block away from the magnetic attraction block is connected to the side wall of the vertical plate, the end of the vertical plate away from the cutting plate can be connected to the side wall of the telescopic block away from the sliding block, and the end of the guide block away from the cutting knife can be in contact with the side wall of the hitting ball away from the elastic spring.

[0017] By adopting the above technical scheme, when the magnetic attraction block is powered, the magnetic attraction block pulls the elastic spring, so that the hitting ball and the elastic spring are in an inclined and curved state; when the magnetic attraction block loses the attraction force of the induction block, the hitting ball and the elastic spring immediately reflect and restore to a vertical state, and the guide block is hit to slide quickly on the guide rail, so that the cutting knife is ejected to cut the steel wire, thereby achieving the purpose of cutting the steel wire.

[0018] A steel wire continuous drawing production process according to the above-mentioned steel wire continuous drawing forming equipment, comprising the following steps:

[0019] S1, before drawing, the staff needs to arrange the molds required for drawing according to the diameter of the drawing hole from large to small, and sequentially place the molds into the extension pipe orifices of the first support and the second support in the first disc set and the extension pipe orifices of the first support and the second support in the second disc set, and after the installation is completed, the knob is twisted tightly with the threaded groove on the surface of the extension pipe, so as to complete the fixation of the mold, and then wait for the drawing of the steel wire;

[0020] S2, when drawing, the small motor and the large motor in the driving total box are started at the same time, the small motor drives the small rotating shaft to rotate, and the large motor drives the large rotating shaft to rotate, so as to simultaneously drive the first disc set and the second disc set to start rotating;

[0021] S3, at the same time, the output end of the pay-off motor rotates to drive the pay-off reel to rotate, and the steel wire enters the disc groove on the first disc set and moves along the groove diameter of the disc groove;

[0022] S4, then, the steel wire into the first wheel disc group in the first support one end of the mold, because the pay-off motor starts at the same time, the output end of the take-up motor also rotates, driving the take-up reel to wind the steel wire that has passed through the die, so that the steel wire will appear extrusion and pulling force when passing through the die, so that the diameter of the steel wire after passing through the die will become smaller, so that the steel wire becomes thinner and thinner, thereby achieving the purpose of drawing;

[0023] S5, after the first support one end of the die drawing, the steel wire enters the movable slot, on the one hand, the staff rotates the handle, the handle drives the rotating ring to start rotating, thereby driving the movable pin to slide in the second arc-shaped groove, under the sliding of the movable pin, the sliding block moves on the sliding rail and moves along the sliding track of the movable pin, so that the three contact blocks gradually approach each other, thereby forming a range that only the drawn steel wire can pass through, thereby achieving the purpose of detecting whether the drawn steel wire is qualified;

[0024] S6, after the steel wire passes through the range formed by the three contact blocks, it enters the die at the other end of the first support again for drawing, and then passes through the die into the second wheel disc and then passes through the die into the third wheel disc, so as to repeatedly draw until the drawn circle diameter meets the required size;

[0025] S7, on the other hand, because the steel wire has a reasonable error range after drawing, the trigger will not react, but when the circle diameter error range of the drawn steel wire is too large, the steel wire will extrude the contact block, the contact block will be offset after being extruded and will touch the trigger button, the trigger button will receive the signal and transmit the electrical signal to the sensing block, and the sensing block will stop supplying power to the magnetic attraction block;

[0026] S8, because the magnetic attraction block is in a pulling state with the elastic spring when it is powered, so that the striking ball and the elastic spring are also in an inclined and curved state, when the magnetic attraction block loses the attraction force of the sensing block, the striking ball and the elastic spring immediately reflect and restore to the vertical state, and hit the guide block, so that the guide block slides quickly on the guide rail, thereby ejecting the cutting knife to the steel wire, so that the cutting knife cuts the steel wire, thereby achieving the purpose of cutting the steel wire;

[0027] S9, after the steel wire is cut off, the alarm will respond and the equipment will stop drawing.

[0028] In summary, the present application includes at least one of the following beneficial technical effects:

[0029] Through the design of the drawing unit, after being changed from double mode to double double mode, the single pass reduction rate is optimized on the traditional drawing equipment, the single pass deformation is avoided, the internal organization fault of the steel wire is caused, the toughness of the steel wire is reduced, the stability of the diameter of the steel wire in the drawing process is increased, the smoothness of the die over-difference is improved, and the single pass wire breaking probability is reduced.

[0030] Through the cooperation of the induction unit and the cutting unit, the diameter of the steel wire in the drawing process is detected, and the steel wire is cut off after the diameter of the steel wire is out of tolerance, the unevenness of the late detection is avoided, the waste of resources and time is reduced, the production efficiency of the steel wire is improved, and whether the diameter of the steel wire is qualified can be used to judge when the die needs to be replaced, thereby reminding the staff.

[0031] When the diameter of the steel wire is unqualified, the steel wire extrudes the trigger, the trigger is offset, the trigger transmits the electric signal to the elastic member, the elastic member is started, hits the guide block, the guide block slides on the guide rail, the cutting knife impacts the steel wire, the cutting knife cuts off the steel wire, the waste of resources and time is reduced, and the purpose of cutting is achieved.

[0032] The movable pin slides in the second arc-shaped groove, under the sliding of the movable pin, the sliding block moves on the sliding rail, and moves along the sliding track of the movable pin, so that the three contact blocks gradually approach each other, so that the three contact blocks form a range that only the drawn steel wire meeting the diameter can pass through, and the purpose of detecting whether the drawn steel wire is qualified is achieved. BRIEF DESCRIPTION OF DRAWINGS

[0033] Figure 1 It is a schematic diagram of the overall structure of the present application.

[0034] Figure 2 It is an overall explosion diagram of the present application.

[0035] Figure 3 It is a schematic diagram of the overall structure of the first support, the extension pipe, the threaded groove, the knob and the movable slot in the present application.

[0036] Figure 4 It is a sectional view of the first support in the present application.

[0037] Figure 5 It is a sectional view of die A in the present application.

[0038] Figure 6 It is an overall structure explosion diagram of the first support, the induction unit and the cutting unit in the present application.

[0039] Figure 7 It is a schematic diagram of part of the overall structure of the induction unit of the present application.

[0040] Figure 8 It is the schematic diagram of the overall structure of the movable pin, rotating hole, rotating rod and telescopic block in the application.

[0041] Figure 9 It is the schematic diagram of the overall structure of the cutting unit in the application.

[0042] Figure 10 It is the schematic diagram of the overall structure of the sensing unit and cutting unit in the application.

[0043] BRIEF DESCRIPTION OF DRAWINGS 100, pulling unit; 101, driving general box; 101-1, cavity; 101-2, rotating hole; 102, small motor; 102-1, small rotating shaft; 103, large motor; 103-1, large rotating shaft; 104, rotating wheel group; 104-1, first wheel disc group; 104-11, No. 1 wheel disc; 104-12, No. 2 wheel disc; 104-13, No. 3 wheel disc; 104-14, connecting hole; 104-2, second wheel disc group; 105, support group; 105-1, first support; 105-2, second support; 105-3, through hole; 105-5, extension pipe; 105-6, threaded groove; 105-7, knob; 105-8, movable slot; 106, spraying piece; 106-1, general pipe; 106-2, bamboo joint pipe; 106-3, on-off valve; 106-4, nozzle; 107, winding and unwinding piece; 107-1, unwinding group; 107-11, unwinding motor; 107-12, unwinding reel; 107-2, winding group; 107-21, winding motor; 107-22, winding reel; 200, sensing unit; 201, bottom plate; 201-1, through hole; 202, rotating ring; 202-1, first arc-shaped slot; 202-2, second arc-shaped slot; 202-3, fixed pin; 202-4, movable pin; 203, sliding rail; 204, sliding block; 205, telescopic block; 205-1, rotating hole; 205-2, rotating rod; 206, triggering piece; 206-1, extension block; 206-2, contact spring; 206-3, contact block; 206-4, triggering button; 300, cutting unit; 301, vertical plate; 302, cutting plate; 303, guide rail; 304, guide block; 305, cutting knife; 306, ejecting piece; 306-1, placing plate; 306-2, ejecting spring; 306-3, striking ball; 306-4, elastic spring; 306-5, magnetic attraction block; 306-6, sensing block. DETAILED DESCRIPTION

[0044] It should be noted that the embodiments in the present application and the features in the embodiments can be combined with each other without conflict. The present application will be described in detail below with reference to the drawings and in combination with the embodiments.

[0045] It should be noted that all technical and scientific terms used in the present application have the same meaning as generally understood by those skilled in the art to which the present application belongs, unless otherwise specified.

[0046] Please refer to Figures 1-10 The present application provides the following technical solutions: Embodiment one

[0047] Please refer to Figures 1-10 A steel wire continuous drawing forming equipment, comprising a drawing unit 100, an induction unit 200 and a cutting unit 300; wherein, through the design of the drawing unit 100, the single pass reduction rate is optimized on the traditional wire drawing equipment after the transformation from double mode to double double mode, avoiding the internal organization fault of the steel wire caused by the too large single pass deformation, and reducing the toughness of the steel wire. On the one hand, the size difference of the die A is relatively controllable, which can prolong the service life of the die A from the process point of view, so as to improve the production capacity and reduce the cost; on the other hand, under the condition that the service life of the die A does not increase, the drawing process speed can be tried to improve, which can also improve the speed efficiency and production capacity; even the combination of the two points can bring greater advantages, thereby increasing the stability of the diameter of the steel wire in the drawing process, further improving the stability of the die out-of-tolerance, and reducing the probability of single pass wire breakage, and the wire breakage rate can be reduced by 2%.

[0048] Through the cooperation of the induction unit 200 and the cutting unit 300, the diameter of the steel wire in the drawing process is detected, and the steel wire is cut off after the diameter of the steel wire is out of tolerance, avoiding the unevenness of the later detection, reducing the waste of resources and time, thereby improving the production efficiency of the steel wire, and whether the diameter of the steel wire is qualified can be used to judge when the die A needs to be replaced, thereby facilitating the reminder of the staff.

[0049] Please refer to Figures 1-2 Specifically, the drawing unit 100 comprises a drive total box 101, a small motor 102 arranged in the drive total box 101, a large motor 103 arranged on one side of the small motor 102, a rotating wheel group 104 arranged on one side of the drive total box 101, a support group 105 arranged on one end of the rotating wheel group 104, a spraying piece 106 arranged on the end of the support group 105 away from the rotating wheel group 104, and a receiving and releasing piece 107 arranged on both ends of the drive total box 101.

[0050] Among them, since the small motor 102 and the large motor 103 are located in the drive total box 101, the drive total box 101 provides support and power source for the rotating wheel group 104, the support group 105 provides a placing space for the die A and balances the compression ratio of the steel wire after drawing between the two dies A, and the spraying piece 106 sprays lubricating powder or lubricant on the outer surface of the steel wire to reduce the friction between the steel wire and the die A, thereby prolonging the service life of the die A.

[0051] Referring to Figures 6-8 , specifically, the induction unit 200 is arranged in the support group 105, including a bottom plate 201, a rotating ring 202 arranged on one side of the bottom plate 201, a sliding rail 203 arranged on the side of the rotating ring 202 away from the bottom plate 201, a sliding block 204 in sliding connection with the sliding rail 203, an extension block 205 arranged on the side of the sliding block 204 away from the sliding rail 203, and a trigger piece 206 arranged on one end of the extension block 205.

[0052] Among them, when the sliding block 204 slides on the sliding rail 203, it can drive the extension block 205 to move at the same time, so as to achieve the purpose of extension, so that the trigger piece 206 maintains a proper induction distance to the steel wire.

[0053] Referring to Figure 9 , specifically, the cutting unit 300 is arranged on the side of the extension block 205 away from the sliding block 204, including a vertical plate 301, a cutting plate 302 arranged on one end of the vertical plate 301, a guide rail 303 arranged on the side wall of the cutting plate 302, a guide block 304 in sliding connection with the guide rail 303, a cutting knife 305 arranged on one end of the guide block 304, and an elastic member 306 arranged on the end of the guide block 304 away from the cutting knife 305.

[0054] Among them, when the diameter of the steel wire is unqualified, the steel wire extrudes the trigger piece 206, so that the trigger piece 206 is offset, so that the trigger piece 206 transmits the electric signal to the elastic member 306, the elastic member 306 is started, and the guide block 304 is impacted, so that the guide block 304 slides on the guide rail 303 quickly, and the cutting knife 305 impacts the steel wire, so that the cutting knife 305 cuts the steel wire, reduces the waste of resources and time, and achieves the purpose of cutting.

[0055] Referring to Figure 2 , further, the driving main box 101 is provided with a cavity 101-1, and the side wall of the driving main box 101 is provided with rotating holes 101-2, which are uniformly distributed along the length direction of the side wall of the driving main box 101, and the cavity 101-1 is in communication with the rotating holes 101-2.

[0056] Among them, the output end of the small motor 102 is fixed with the small rotating shaft 102-1 through the corresponding rotating hole 101-2, so as to drive the first and second wheel plates 104-11 and 104-12 to rotate; the output end of the large motor 103 is fixed with the large rotating shaft 103-1 through the corresponding rotating hole 101-2, so as to drive the third wheel plate 104-13 to rotate, and the steel wire is moved and drawn through the cooperation of rotation.

[0057] Referring to Figures 1-5Further, the rotating wheel group 104 includes a first rotating wheel group 104-1 and a second rotating wheel group 104-2, the first rotating wheel group 104-1 and the second rotating wheel group 104-2 are equal in size, and the first rotating wheel group 104-1 and the second rotating wheel group 104-2 are sequentially distributed along the length direction of the driving headstock 101.

[0058] The first rotating wheel group 104-1 and the second rotating wheel group 104-2 are set, the stability of the wire diameter during the drawing process is improved, the stability of the die is improved, the single pass wire breaking probability is reduced, and the wire breaking rate is reduced by 2%.

[0059] Referring to Figures 1-5 Further, the first rotating wheel group 104-1 includes a first rotating wheel 104-11, a second rotating wheel 104-12 arranged on one side of the first rotating wheel 104-11, and a third rotating wheel 104-13 arranged on the side of the second rotating wheel 104-12 away from the first rotating wheel 104-11.

[0060] The first rotating wheel 104-11, the second rotating wheel 104-12 and the third rotating wheel 104-13 are sequentially and evenly distributed according to the order, the first rotating wheel 104-11 and the second rotating wheel 104-12 are equal in size, the first rotating wheel 104-11, the second rotating wheel 104-12 and the third rotating wheel 104-13 are provided with connecting holes 104-14 in the middle of the side wall, the first rotating wheel 104-11 and the second rotating wheel 104-12 are provided with small rotating shafts 102-1 in the corresponding connecting holes 104-14, and the third rotating wheel 104-13 is provided with a large rotating shaft 103-1 in the corresponding connecting hole 104-14. The output end of the small motor 102 can be connected to the small rotating shaft 102-1 through the corresponding rotating hole 101-2, and the output end of the large motor 103 can be connected to the large rotating shaft 103-1 through the corresponding rotating hole 101-2.

[0061] The diameter of the third rotating wheel 104-13 is larger than that of the first rotating wheel 104-11 and the second rotating wheel 104-12, so that the wire is shaped for a long time, thereby improving the quality of the wire and facilitating the drawing of the wire; the output end of the small motor 102 is fixed with the small rotating shaft 102-1 through the corresponding rotating hole 101-2, thereby driving the first rotating wheel 104-11 and the second rotating wheel 104-12 to rotate; the output end of the large motor 103 is fixed with the large rotating shaft 103-1 through the corresponding rotating hole 101-2, thereby driving the third rotating wheel 104-13 to rotate, and the wire is moved and drawn through the cooperation of rotation.

[0062] Referring to Figures 1-5Further, the support group 105 includes a first support 105-1 and a second support 105-2, the first support 105-1 and the second support 105-2 are equal in size, the first support 105-1 is distributed in the middle of the first wheel disc 104-11 and the second wheel disc 104-12, and the second support 105-2 is distributed in the middle of the second wheel disc 104-12 and the third wheel disc 104-13.

[0063] The steel wire enters the rotating disc groove of the first wheel disc 104-11, moves along the rotating disc groove of the first wheel disc 104-11, then enters the die A at one end of the first support 105-1 for drawing, and extends out of another die A at the other end of the first support 105-1, so that the steel wire is drawn twice in one support, avoiding the fact that the internal organization of the steel wire is broken due to too large single-pass deformation, and the toughness of the steel wire is reduced. On the one hand, the size difference of the die A is relatively controllable, which can prolong the service life of the die A from the process point of view, so as to improve the production capacity and reduce the cost; on the other hand, the drawing process speed can be tried to be improved without increasing the service life of the die A, which can also improve the speed efficiency and production capacity; even the combination of the two can bring greater advantages, thereby improving the stability of the diameter of the steel wire in the drawing process, further improving the stability of the die A, and reducing the probability of single-pass wire breakage, and the wire breakage rate can be reduced by 2%.

[0064] Referring to Figures 1-5 Further, one end of the first support 105-1 can be connected to the side wall of the driving gearbox 101 close to the rotating hole 101-2, a through hole 105-3 is formed in the middle of the side wall of the first support 105-1, the through hole 105-3 can penetrate the side wall of the first support 105-1, two extension pipes 105-5 are symmetrically arranged on the two sides of the first support 105-1 in the axial direction N, one end of the extension pipe 105-5 can be connected to the side wall of the first support 105-1, the pipe opening of the extension pipe 105-5 is in communication with the through hole 105-3, the inner diameter of the pipe opening of the extension pipe 105-5 is greater than the inner diameter of the through hole 105-3, a threaded groove 105-6 is formed on the side wall of the extension pipe 105-5 away from the first support 105-1, a knob 105-7 is arranged on the threaded groove 105-6, and the knob 105-7 can be screw-connected with the threaded groove 105-6.

[0065] The inner diameter of the pipe opening of the extension pipe 105-5 is greater than the inner diameter of the through hole 105-3, so that the die A can be limited in the extension pipe 105-5 and cannot enter the through hole 105-3, and through the design of the threaded groove 105-6 and the knob 105-7, the die A is locked in the extension pipe 105-5, avoiding the shaking of the die A which leads to unqualified drawing diameter of the steel wire, thereby affecting the quality of the steel wire, and further achieving the effect of fixing the die A.

[0066] In order to ensure that the steel wire reaches the best drawing degree and strength, the single-pass compression ratio needs to be divided into double-pass compression ratio, and attention should be paid to the fact that the compression ratio between the double passes cannot be too small; the compression rate of the previous single mode is controlled between 13% and 16%, and after the double mode, the compression rate of the two dies can be divided equally or distributed in a certain ratio, and in principle, the compression rate of the former is slightly larger than that of the latter, otherwise it is easy to cause insufficient deformation of the steel wire during drawing.

[0067] Referring to Figure 2 Further, the spraying member 106 includes a main pipe 106-1 and a bamboo joint pipe 106-2 arranged on the main pipe 106-1; a side wall of the main pipe 106-1 is connected to a side wall of the driving main box 101 close to the rotating hole 101-2, the bamboo joint pipe 106-2 can be uniformly distributed along the length direction of the main pipe 106-1, one end of the bamboo joint pipe 106-2 is provided with an on-off valve 106-3, the end of the on-off valve 106-3 away from the bamboo joint pipe 106-2 can be connected to the side wall of the main pipe 106-1, and the end of the bamboo joint pipe 106-2 away from the on-off valve 106-3 is provided with a nozzle 106-4.

[0068] The bamboo joint pipe 106-2 can adjust the shape and position of the pipe at will, so that the nozzle 106-4 can adjust the distance from the steel wire at will, avoid the dead angle of spraying, and improve the spraying range of the bamboo joint pipe 106-2 for spraying lubricating powder or lubricant; the on-off valve 106-3 can open or close the channel between the main pipe 106-1 and the bamboo joint pipe 106-2.

[0069] Referring to Figure 1 Further, the winding and unwinding member 107 includes an unwinding group 107-1 and a winding group 107-2, the unwinding group 107-1 is distributed at one end of the driving main box 101, the winding group 107-2 is distributed at the end of the driving main box 101 away from the unwinding group 107-1, the unwinding group 107-1 includes an unwinding motor 107-11 and an unwinding reel 107-12 arranged at the output end of the unwinding motor 107-11, and the winding group 107-2 includes a winding motor 107-21 and a winding reel 107-22 arranged at the output end of the winding motor 107-21.

[0070] The output end of the unwinding motor 107-11 rotates, thereby driving the unwinding reel 107-12 to rotate, so as to achieve the purpose of conveying the steel wire by the unwinding reel 107-12; the output end of the winding motor 107-21 rotates, thereby driving the winding reel 107-22 to rotate, so as to achieve the purpose of winding the drawn steel wire by the winding reel 107-22. Embodiment two

[0071] Referring to Figures 7-8 and Figure 10Further, the first support 105-1 is provided with a movable slot 105-8 at one end away from the drive head 101, the movable slot 105-8 is vertically distributed and communicated with the through hole 105-3; the bottom plate 201 is vertically distributed in the movable slot 105-8, one side of the bottom plate 201 is connected to the inner wall of the movable slot 105-8, a through hole 201-1 is provided in the middle of the side wall of the bottom plate 201, the through hole 201-1 is arranged in alignment with the through hole 105-3, and the diameter of the through hole 201-1 is equal to that of the through hole 105-3.

[0072] In this way, since the through hole 201-1 is arranged in alignment with the through hole 105-3, and the diameter of the through hole 201-1 is equal to that of the through hole 105-3, the steel wire is facilitated to enter the detection range.

[0073] Referring to Figures 7-8 and Figure 10 Further, the side wall of the rotating ring 202 is provided with a first arc-shaped slot 202-1, one side of the first arc-shaped slot 202-1 is provided with a second arc-shaped slot 202-2, a plurality of groups of the first arc-shaped slot 202-1 and the second arc-shaped slot 202-2 can be arranged, the first arc-shaped slot 202-1 and the second arc-shaped slot 202-2 are cross-distributed, and the first arc-shaped slot 202-1 is provided with a fixed pin 202-3, one end of the fixed pin 202-3 is connected to the side wall of the bottom plate 201 away from the movable slot 105-8, and the other end can be connected to the rotating ring 202.

[0074] In this way, since the first arc-shaped slot 202-1 is provided with the fixed pin 202-3, when the rotating ring 202 is rotated, the fixed pin 202-3 moves from one end to the other end in the first arc-shaped slot 202-1, so that the rotating range is limited.

[0075] Referring to Figures 7-8 and Figure 10 Further, one side of the sliding rail 203 away from the sliding block 204 can be connected to the side wall of the bottom plate 201 away from the movable slot 105-8, the sliding rail 203 can be uniformly distributed along the circumferential direction of the through hole 201-1, the second arc-shaped slot 202-2 is provided with a movable pin 202-4, one end of the movable pin 202-4 can penetrate through one end of the telescopic block 205 away from the trigger 206, and the other end is movably connected in the second arc-shaped slot 202-2, a rotating hole 205-1 is provided in the side wall of the telescopic block 205, a rotating rod 205-2 is arranged in the rotating hole 205-1, and one end of the rotating rod 205-2 away from the telescopic block 205 is rotatably connected to the side wall of the sliding block 204 away from the sliding rail 203.

[0076] Wherein, since one end of the movable pin 202-4 is connected with the telescopic block 205, and the other end slides in the second arc-shaped slot 202-2, one end of the slide rail 203 is connected with the bottom plate 201, and the other end is connected with the sliding block 204 in a sliding mode, one end of the rotating rod 205-2 is connected with the sliding block 204, and the other end is connected with the telescopic block 205 through the rotating hole 205-1, when the movable pin 202-4 slides in the second arc-shaped slot 202-2, on one hand, the telescopic block 205 makes a deflection motion around the rotating rod 205-2, on the other hand, since one end of the rotating rod 205-2 is connected with the sliding block 204, the sliding block 204 is driven to move on the slide rail 203, so that the three contact blocks 206-3 gradually approach each other, so that the three contact blocks 206-3 form a range through which only a steel wire after drawing can pass, thereby achieving the purpose of detecting whether the steel wire after drawing is qualified. Embodiment three

[0077] Referring to Figure 9 Further, the trigger piece 206 includes an extension block 206-1, a contact spring 206-2 arranged on the side wall of the extension block 206-1, a contact block 206-3 arranged at the end of the contact spring 206-2 away from the extension block 206-1, and a trigger button 206-4 arranged on one side of the extension block 206-1, the contact block 206-3 and the trigger button 206-4 are aligned; one end of the extension block 206-1 is connected to the end of the telescopic block 205 away from the movable pin 202-4, and one end of the trigger button 206-4 is connected to the end of the telescopic block 205 away from the movable pin 202-4.

[0078] Wherein, when the range of the error of the circle diameter of the steel wire after drawing is too large, the steel wire will extrude the contact block 206-3, the contact block 206-3 is deflected after being extruded, and touches the trigger button 206-4, after receiving the signal, the trigger button 206-4 transmits the electrical signal to the induction block 306-6, and the induction block 306-6 stops supplying power to the magnetic attraction block 306-5.

[0079] Referring to Figure 9Further, the ejecting member 306 includes a placement plate 306-1, an ejecting spring 306-2 arranged on the placement plate 306-1, a hitting ball 306-3 arranged at an end of the ejecting spring 306-2 away from the placement plate 306-1, a resilient spring 306-4 arranged on a side wall of the hitting ball 306-3, a magnetic block 306-5 arranged at an end of the resilient spring 306-4 away from the hitting ball 306-3, and an inductive block 306-6 arranged at an end of the magnetic block 306-5 away from the resilient spring 306-4. A side of the placement plate 306-1 away from the ejecting spring 306-2 can be connected to a side wall of the telescopic block 205 away from the sliding block 204, a side of the inductive block 306-6 away from the magnetic block 306-5 is connected to a side wall of the vertical plate 301, an end of the vertical plate 301 away from the cutting plate 302 can be connected to a side wall of the telescopic block 205 away from the sliding block 204, and an end of the guide block 304 away from the cutting knife 305 can be in contact with a side wall of the hitting ball 306-3 away from the resilient spring 306-4.

[0080] When the magnetic block 306-5 is in a powered state, the magnetic block 306-5 is in a pulling state with respect to the resilient spring 306-4, so that the hitting ball 306-3 and the ejecting spring 306-2 are also in an inclined and curved state. When the magnetic block 306-5 loses the attraction force of the inductive block 306-6, the hitting ball 306-3 and the ejecting spring 306-2 immediately reflect and return to a vertical state, and hit the guide block 304, so that the guide block 304 quickly slides on the guide rail 303, and the cutting knife 305 ejects the steel wire, so that the cutting knife 305 cuts the steel wire, thereby achieving the purpose of cutting the steel wire. Embodiment four

[0081] A steel wire continuous drawing production process according to the steel wire continuous drawing forming equipment described above, comprising the following steps:

[0082] In step one, before drawing, the staff needs to arrange the drawing required die A according to the diameter of the drawing hole from large to small, and sequentially put the die A into the extension pipe 105-5 pipe orifice of the first support 105-1 and the second support 105-2 in the first disc set 104-1 and the extension pipe 105-5 pipe orifice of the first support 105-1 and the second support 105-2 in the second disc set 104-2. After the installation is completed, the knob 105-7 is twisted with the thread groove 105-6 on the surface of the extension pipe 105-5 to complete the fixation of the die A, and then the drawing of the steel wire is waited.

[0083] Step two, when drawing, the small motor 102 and the large motor 103 in the drive headstock 101 are started at the same time, the small motor 102 drives the small rotating shaft 102-1 to rotate, the large motor 103 drives the large rotating shaft 103-1 to rotate, thereby driving the first disc set 104-1 and the second disc set 104-2 to rotate at the same time.

[0084] Step three, at the same time, the output end of the wire drawing motor 107-11 rotates, driving the wire drawing drum 107-12 to rotate, the steel wire enters the disc slot on the first disc 104-11 in the first disc set 104-1 and moves along the slot diameter of the disc slot.

[0085] Step four, then, the steel wire enters the die A at one end of the first support 105-1 in the first disc set 104-1, because the wire drawing motor 107-11 is started at the same time, the output end of the wire collecting motor 107-21 also rotates, driving the wire collecting drum 107-22 to collect the steel wire drawn through the die A, so that the steel wire will appear extrusion and pulling force when passing through the die A, so that the diameter of the steel wire will become smaller after passing through the die A, so that the steel wire becomes thinner and thinner, thereby achieving the purpose of drawing.

[0086] Step five, after being drawn through the die A at one end of the first support 105-1, the steel wire enters the movable slot 105-8, on the one hand, the staff rotates the handle, the handle drives the rotating ring 202 to start rotating, thereby driving the movable pin 202-4 to slide in the second arc-shaped slot 202-2, under the sliding of the movable pin 202-4, the sliding block 204 moves on the sliding rail 203 and moves along the sliding track of the movable pin 202-4, so that the three contact blocks 206-3 gradually approach each other, thereby forming a range that only the drawn steel wire can pass through, thereby achieving the purpose of detecting whether the drawn steel wire is qualified.

[0087] Step six, after the steel wire passes through the range formed by the three contact blocks 206-3 that only the drawn steel wire can pass through, it enters the die A at the other end of the first support 105-1 again for drawing, and then passes through the die A to enter the second disc 104-12 and then passes through the die A to enter the third disc 104-13, and so on, until the drawn circle diameter meets the required size.

[0088] Step seven, on the other hand, due to the reasonable error range after the steel wire is drawn, the trigger 206 will not react, but when the error range of the circle diameter after the steel wire is drawn is too large, the steel wire will extrude the contact block 206-3, the contact block 206-3 will be offset after being extruded, and touch the trigger button 206-4, after receiving the signal, the trigger button 206-4 will transmit the electric signal to the induction block 306-6, and the induction block 306-6 will stop supplying power to the magnetic attraction block 306-5.

[0089] Step eight, due to the magnetic attraction block 306-5 in the power supply state, the magnetic attraction block 306-5 is in the pulling state of the elastic spring 306-4, so that the hitting ball 306-3 and the elastic spring 306-2 are also in the inclined bending state, when the magnetic attraction block 306-5 loses the adsorption force of the induction block 306-6, the hitting ball 306-3 and the elastic spring 306-2 immediately reflect and restore to the vertical state, and hit the guide block 304, so that the guide block 304 quickly slides on the guide rail 303, so that the cutting knife 305 is ejected to the steel wire, so that the cutting knife 305 cuts the steel wire, so as to achieve the purpose of cutting the steel wire.

[0090] Step nine, after the steel wire is cut off, the alarm will respond, and the equipment will stop drawing.

[0091] Obviously, the above-described embodiments are only part of the embodiments of the present application, not all. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor should belong to the scope of protection of the present application.

Claims

1. A continuous wire drawing and forming equipment, characterized in that: include, The pulling unit (100) includes a drive housing (101), a small motor (102) disposed in the drive housing (101), a large motor (103) disposed on one side of the small motor (102), a wheel assembly (104) disposed on one side of the drive housing (101), a support assembly (105) disposed at one end of the wheel assembly (104), a spraying component (106) disposed at the end of the support assembly (105) away from the wheel assembly (104), and retracting components (107) disposed at both ends of the drive housing (101). The sensing unit (200), disposed within the support assembly (105), includes a base plate (201), a rotating ring (202) disposed on one side of the base plate (201), a slide rail (203) disposed on the side of the rotating ring (202) away from the base plate (201), a slider (204) slidably connected to the slide rail (203), a telescopic block (205) disposed on the side of the slider (204) away from the slide rail (203), and a trigger element (206) disposed at one end of the telescopic block (205); and, The cutting unit (300) is disposed on the side of the telescopic block (205) away from the slider (204), and includes a vertical plate (301), a cutting plate (302) disposed at one end of the vertical plate (301), a guide rail (303) disposed on the side wall of the cutting plate (302), a guide block (304) slidably connected to the guide rail (303), a cutting blade (305) disposed at one end of the guide block (304), and a catapult (306) disposed at the end of the guide block (304) away from the cutting blade (305).

2. The continuous wire drawing and forming equipment according to claim 1, characterized in that: The drive housing (101) has a cavity (101-1) inside, and a rotating hole (101-2) is provided on the side wall of the drive housing (101). The rotating hole (101-2) can be evenly distributed along the side wall of the drive housing (101) in the length direction. The cavity (101-1) is connected to the rotating hole (101-2).

3. The continuous wire drawing and forming equipment according to claim 2, characterized in that: The wheel assembly (104) includes a first wheel assembly (104-1) and a second wheel assembly (104-2). The first wheel assembly (104-1) and the second wheel assembly (104-2) are of equal size. The first wheel assembly (104-1) and the second wheel assembly (104-2) are distributed sequentially along the length of the drive housing (101). The first roulette wheel group (104-1) includes a first roulette wheel (104-11), a second roulette wheel (104-12) disposed on one side of the first roulette wheel (104-11), and a third roulette wheel (104-13) disposed on the side of the second roulette wheel (104-12) away from the first roulette wheel (104-11). The first roulette wheel (104-11), the second roulette wheel (104-12), and the third roulette wheel (104-13) are evenly distributed in sequence. The first roulette wheel (104-11) and the second roulette wheel (104-12) are of equal size. Each of the three roulette wheels (104-11, 104-12, and 104-13) has a connecting hole (104-14) in the middle of its side wall. The first roulette wheel (104-11) and the second roulette wheel (104-13) are connected by a connecting hole (104-14). A small rotating shaft (102-1) is provided in the corresponding connecting hole (104-14) of the third wheel (104-13), and a large rotating shaft (103-1) is provided in the corresponding connecting hole (104-14). The output end of the small motor (102) can be connected to the small rotating shaft (102-1) through the corresponding rotating hole (101-2), and the output end of the large motor (103) can be connected to the large rotating shaft (103-1) through the corresponding rotating hole (101-2).

4. The continuous wire drawing and forming equipment according to claim 3, characterized in that: The support group (105) includes a first support (105-1) and a second support (105-2). The first support (105-1) and the second support (105-2) are of equal size. The first support (105-1) is located between the first roulette wheel (104-11) and the second roulette wheel (104-12). The second support (105-2) is located between the second roulette wheel (104-12) and the third roulette wheel (104-13). Wherein, one end of the first bracket (105-1) can be connected to the side wall of the drive housing (101) near the rotating hole (101-2), and a through hole (105-3) is provided in the middle of the side wall of the first bracket (105-1), and the through hole (105-3) can penetrate the side wall of the first bracket (105-1); The first support (105-1) has extension tubes (105-5) symmetrically arranged on both sides in the axial (N) direction. One end of the extension tube (105-5) can be connected to the side wall of the first support (105-1). The opening of the extension tube (105-5) is connected to the through hole (105-3). The inner diameter of the opening of the extension tube (105-5) is larger than the inner diameter of the through hole (105-3). A threaded groove (105-6) is opened on the side wall of the extension tube (105-5) away from the first support (105-1). A knob (105-7) is provided on the threaded groove (105-6). The knob (105-7) can be screwed into the threaded groove (105-6).

5. The continuous wire drawing and forming equipment according to claim 2, characterized in that: The spraying component (106) includes a main pipe (106-1) and a bamboo-joint pipe (106-2) disposed on the main pipe (106-1). The side wall of the main pipe (106-1) is connected to the side wall of the drive housing (101) near the rotating hole (101-2). The bamboo tubes (106-2) can be evenly distributed along the length of the main pipe (106-1). A switch valve (106-3) is provided at one end of the bamboo tube (106-2). The end of the switch valve (106-3) away from the bamboo tube (106-2) can be connected to the side wall of the main pipe (106-1). A nozzle (106-4) is provided at the end of the bamboo tube (106-2) away from the switch valve (106-3).

6. The continuous wire drawing and forming equipment according to claim 1, characterized in that: The take-up and take-down unit (107) includes a wire-feeding group (107-1) and a wire-retracting group (107-2). The wire-feeding group (107-1) is located at one end of the drive main box (101), and the wire-retracting group (107-2) is located at the end of the drive main box (101) away from the wire-feeding group (107-1). The wire-feeding group (107-1) includes a wire-feeding motor (107-11) and a wire-feeding drum (107-12) located at the output end of the wire-feeding motor (107-11). The wire-retracting group (107-2) includes a wire-retracting motor (107-21) and a wire-retracting drum (107-22) located at the output end of the wire-retracting motor (107-21).

7. The continuous wire drawing and forming equipment according to claim 4, characterized in that: The first bracket (105-1) has a movable groove (105-8) at one end away from the drive housing (101). The movable groove (105-8) is perpendicular to the through hole (105-3) and is connected to the through hole (105-3). The base plate (201) is vertically distributed in the movable groove (105-8). One side of the base plate (201) is connected to the inner wall of the movable groove (105-8). A through hole (201-1) is opened in the middle of the side wall of the base plate (201). The through hole (201-1) is aligned with the through hole (105-3). The diameters of the through hole (201-1) and the through hole (105-3) are equal. The rotating ring (202) has a first arc-shaped groove (202-1) on its side wall, and a second arc-shaped groove (202-2) on one side of the first arc-shaped groove (202-1). Multiple sets of the first arc-shaped groove (202-1) and the second arc-shaped groove (202-2) can be provided. The first arc-shaped groove (202-1) and the second arc-shaped groove (202-2) are distributed in an intersecting manner. A fixing pin (202-3) is provided in the first arc-shaped groove (202-1). One end of the fixing pin (202-3) is connected to the side wall of the base plate (201) away from the movable groove (105-8), and the other end can be connected to the rotating ring (202). The side of the slide rail (203) away from the slider (204) can be connected to the side wall of the base plate (201) away from the movable groove (105-8). The slide rail (203) can be evenly distributed along the circumferential direction of the through hole (201-1). A movable pin (202-4) is provided in the second arc groove (202-2). One end of the movable pin (202-4) can pass through the end of the telescopic block (205) away from the trigger (206), and the other end is slidably connected in the second arc groove (202-2). A rotating hole (205-1) is opened on the side wall of the telescopic block (205). A rotating rod (205-2) is provided in the rotating hole (205-1). The end of the rotating rod (205-2) away from the telescopic block (205) is rotatably connected to the side wall of the slider (204) away from the slide rail (203).

8. The continuous wire drawing and forming equipment according to claim 7, characterized in that: The trigger (206) includes an extension block (206-1), a contact spring (206-2) disposed on the side wall of the extension block (206-1), a contact block (206-3) disposed at the end of the contact spring (206-2) away from the extension block (206-1), and a trigger button (206-4) disposed on one side of the extension block (206-1), wherein the contact block (206-3) and the trigger button (206-4) are aligned with each other; Wherein, one end of the extension block (206-1) is connected to the end of the telescopic block (205) away from the movable pin (202-4), and one end of the trigger button (206-4) is connected to the end of the telescopic block (205) away from the movable pin (202-4).

9. A continuous wire drawing and forming equipment according to claim 8, characterized in that: The ejector (306) includes a placement plate (306-1), an ejection spring (306-2) disposed on the placement plate (306-1), a striking ball (306-3) disposed at the end of the ejection spring (306-2) away from the placement plate (306-1), a spring spring (306-4) disposed on the side wall of the striking ball (306-3), a magnetic block (306-5) disposed at the end of the spring spring (306-4) away from the striking ball (306-3), and a sensing block (306-6) disposed at the end of the magnetic block (306-5) away from the spring spring (306-4). The side of the placement plate (306-1) away from the ejector spring (306-2) can be connected to the side wall of the telescopic block (205) away from the slider (204). The side of the sensing block (306-6) away from the magnetic block (306-5) is connected to the side wall of the upright plate (301). The end of the upright plate (301) away from the cutting plate (302) can be connected to the side wall of the telescopic block (205) away from the slider (204). The end of the guide block (304) away from the cutting blade (305) can contact the side wall of the striking ball (306-3) away from the spring spring (306-4).

10. A continuous wire drawing production process, wherein the continuous wire drawing forming equipment according to claim 9 is characterized in that, Includes the following steps: S1. Before drawing, the staff needs to arrange the drawing die (A) according to the diameter of the drawing hole from large to small, and put the die (A) into the extension tube (105-5) of the first bracket (105-1) and the second bracket (105-2) in the first wheel group (104-1), and into the extension tube (105-5) of the first bracket (105-1) and the second bracket (105-2) in the second wheel group (104-2). After installation, the knob (105-7) is engaged with the threaded groove (105-6) on the surface of the extension tube (105-5) and tightened to fix the die (A), and then wait for the wire to be drawn. S2. During the pulling process, the small motor (102) and the large motor (103) in the drive box (101) start simultaneously. The small motor (102) drives the small rotating shaft (102-1) to rotate, and the large motor (103) drives the large rotating shaft (103-1) to rotate, thereby simultaneously driving the first wheel (104-11), the second wheel (104-12), and the third wheel (104-13) in the first wheel group (104-1) and the second wheel group (104-2) to start rotating. S3. At the same time, the output end of the wire feeding motor (107-11) rotates, driving the wire feeding drum (107-12) to rotate, and the steel wire enters the groove of the first disc (104-11) in the first disc group (104-1) and moves along the groove diameter; S4. Next, the steel wire enters the mold (A) at one end of the first support (105-1) in the first wheel group (104-1). As the wire feeding motor (107-11) starts, the output end of the wire take-up motor (107-21) also rotates, driving the take-up drum (107-22) to take up the steel wire that has been drawn by the mold (A). Therefore, when the steel wire passes through the mold (A), there will be a squeezing and pulling force, which will make the diameter of the steel wire smaller after passing through the mold (A), making the steel wire thinner and thinner, thereby achieving the purpose of drawing. S5. After being pulled by the mold (A) at one end of the first support (105-1), the steel wire enters the movable groove (105-8). On one hand, the operator turns the handle, which drives the rotating ring (202) to start rotating, thereby driving the movable pin (202-4) to slide in the second arc groove (202-2). Under the sliding of the movable pin (202-4), the slider (204) moves on the slide rail (203) and moves along the sliding trajectory of the movable pin (202-4), so that the three contact blocks (206-3) gradually approach each other, thereby forming a range in which only steel wires that meet the diameter after being pulled can pass through, thereby achieving the purpose of detecting whether the steel wire after induction pulling is qualified. S6. Subsequently, after the steel wire is drawn through the three contact blocks (206-3) and meets the diameter range, it enters the mold (A) at the other end of the first support (105-1) for drawing again. Then it passes through the mold (A) into the second wheel (104-12), and then through the mold (A) into the third wheel (104-13). This drawing process is repeated until the diameter of the drawn wire meets the required size. S7. On the other hand, since there is a reasonable error range after the steel wire is pulled, the trigger (206) will not react. However, when the error range of the coil diameter after the steel wire is pulled is too large, the steel wire will squeeze the contact block (206-3). After being squeezed, the contact block (206-3) will shift and touch the trigger button (206-4). After receiving the signal, the trigger button (206-4) will transmit the electrical signal to the sensing block (306-6). The sensing block (306-6) will stop supplying power to the magnetic block (306-5). S8. When the magnetic block (306-5) is powered on, it is in a pulling state on the spring spring (306-4), which causes the striking ball (306-3) and the ejection spring (306-2) to be in a tilted and bent state. When the magnetic block (306-5) loses the attraction force of the sensing block (306-6), the striking ball (306-3) and the ejection spring (306-2) immediately reflect and return to a vertical state, and hit the guide block (304), causing the guide block (304) to slide quickly on the guide rail (303), thereby ejecting the cutting blade (305) to the steel wire, so that the cutting blade (305) cuts the steel wire, thereby achieving the purpose of cutting the steel wire. S9. After the steel wire is cut, the alarm will sound and the equipment will stop pulling.

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