An automated processing equipment for producing cleaning steel wool and its usage method

Abstract

This invention discloses an automatic processing equipment and its method for producing clean steel wool, relating to the field of steel wool production equipment. It includes a processing table, an adjusting frame with guide rollers, multiple mounting frames on the adjusting frame, and pressure rollers on the mounting frames. One end of the processing table has a feeding frame groove with multiple chambers. Each chamber has a conical winding sleeve with multiple winding grooves and a shrinking component inside. A tangent assembly is fitted onto the shrinking component. This automatic processing equipment for steel wool production uses a shrinkable conical winding sleeve to wind steel wire. When the shrinking component is not shrinking, it can drive the conical winding sleeve to wind the steel wire along the conical sleeve, which facilitates winding the steel wire from the larger diameter end of the conical winding sleeve to the smaller diameter end. When the shrinking component starts shrinking, it facilitates the release of the wound steel wool from the conical winding sleeve and the synchronous cutting of the steel wool.

Description

Technical Field

[0001] This invention relates to the field of steel wool production equipment technology, specifically to an automatic processing equipment for producing clean steel wool and its usage method. Background Technology

[0002] Steel wool is a common cleaning tool in daily life and production. It is used in the kitchen to clean tools and in the production process, such as in the production of mechanical parts, to polish the surface of parts. In the production of steel wool, the base material, namely stainless steel strips, is first selected. Then, the steel strips are drawn to the corresponding size using a drawing device. The drawn steel strips are tested by a tensile testing device. Steel strips that meet the test requirements are cut into steel wires by a cutting machine. The cut steel wires are then coiled and wound on a steel wool processing device to form steel wool.

[0003] However, when processing steel wool on existing steel wool production equipment, the cut steel wires are pressed and wound to form a disc-shaped sphere. When the steel wires are wound around the roller to form the disc-shaped steel wool sphere, because the steel wool is wrapped outside the processing shaft, when the steel wool is removed from the processing shaft, the steel wires are stacked on top of each other outside the processing shaft. When the steel wool is pushed out of the processing shaft, it is easy to cause the stacked steel wool to become misaligned, causing the inner steel wool to protrude from the steel wool. At the same time, the existing processing equipment is equipped with scissors to cut the steel wires. However, when processing multiple steel wools at the same time, cutting the steel wires one by one is cumbersome and can easily cause the stacked steel wool to be pulled during the steel wire cutting process, which is not conducive to the complete removal of the steel wool from the processing equipment. Therefore, we propose an automatic processing equipment for the production of clean steel wool and its usage method. Summary of the Invention

[0004] The purpose of this invention is to provide an automated processing equipment and its method for producing clean steel wool, in order to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: an automatic processing equipment for producing clean steel wool, comprising a processing table, on which a feeding roller and an adjusting frame are mounted; a protective shell is mounted on the side of the processing table; a guide roller is mounted on the adjusting frame; a power component for driving the guide roller and the feeding roller is mounted on the protective shell; multiple mounting frames are provided on the adjusting frame, and a pressure roller that cooperates with the guide roller is provided on the mounting frame; multiple feeding grooves communicating with the mounting frames are provided on the back of the adjusting frame; a feeding frame groove is installed at one end of the processing table, and multiple chambers are provided in the feeding frame groove; each chamber is provided with a conical winding sleeve, and multiple winding grooves are distributed on the conical winding sleeve; a shrinking component is provided inside the conical winding sleeve, and a tangent component is fitted on the shrinking component; when the shrinking component pulls the conical winding sleeve to shrink along the winding groove, the tangent component is lifted by the shrinking component to cut the steel wire.

[0006] Preferably, the conical winding sleeve has a conical structure, with the front end being a detached hemisphere and the rear end being a ring. The shrinking component includes multiple shaping strips installed inside the ring, which are connected by a fixing sleeve. An electric telescopic tube is connected to the fixing sleeve, and a fixing ball is installed on the output part of the electric telescopic tube. A support spring is connected between the fixing ball and the detached hemisphere. The electric telescopic tube passes through the inner wall of the feeding frame groove, and a driving component is installed at one end of the multiple electric telescopic tubes to simultaneously drive the multiple conical winding sleeves to rotate and wind.

[0007] Preferably, the driving component includes a flywheel mounted on an electric telescopic tube, multiple flywheels are driven by a transmission belt, one end of one of the electric telescopic tubes is equipped with a transmission gear, a rotating motor is mounted on the outside of the material feeding frame groove, and a drive gear that meshes with the transmission gear is mounted on the output end of the rotating motor.

[0008] Preferably, the tangent assembly includes a limiting plate installed on the inner wall of the cavity, a top rod slidably connected to the limiting plate, a tangent blade at the top of the top rod, a lifting member at the bottom of the top rod, and the lifting member being connected to an electric telescopic tube.

[0009] Preferably, the lifting member includes a connecting ring fitted onto the electric telescopic tube, a lifting cone is provided on the outer side of the connecting ring, and a conical surface is provided on the lifting cone. A wedge block is connected to the bottom of the lifting rod, and one end of the wedge block contacts the conical surface. A return spring is connected between the wedge block and the limiting plate. A sliding hole is provided on the shaping strip. Multiple pushing cranks are connected to the fixed ball. One end of the pushing crank slides through the sliding hole and is fixed to the connecting ring. Multiple ventilation slots are provided on the connecting ring.

[0010] Preferably, each chamber is provided with an inclined guide slope, and one end of the chamber is provided with a discharge port.

[0011] Preferably, a fixing rod is installed on the top of the mounting frame, and the fixing rod is fixed to the adjusting frame by a nut. The mounting frame has a rotating shaft inside, and a shaping wheel is installed on the rotating shaft. The shaping wheel is located above the pressure roller.

[0012] Preferably, multiple pressure rollers are rotatably connected to the two side walls of the mounting frame via connecting rods. The pressure rollers have concave curved surfaces on both sides and rolling grooves on the pressure rollers. Cooling air holes with the same shape as the concave curved surfaces are provided on both sides of the rolling grooves, and the cooling air holes are distributed at an incline from the concave curved surfaces to the rolling grooves.

[0013] Preferably, the power unit includes a drive motor mounted at one end of the guide roller, and the shafts of the guide roller and the pay-off roller are driven by a belt.

[0014] A method of using an automated processing equipment for producing cleaning steel wool:

[0015] A: The steel bar is drawn and cut into wires. The steel bar is drawn into the required size by a drawing machine and then cut into wires by a cutting machine. The cut wires are then rolled into coils.

[0016] B: The winding is initially fixed. The cut steel wire is wound around the pay-off roller and then successively passes around the shaping roller, pressure roller, and guide roller to wrap around the outside of the conical winding sleeve.

[0017] C: Winding into a steel wool ball, the driving component drives multiple conical winding sleeves to wind the steel wire into a steel wool ball;

[0018] D: The steel wool detaches, and the shrinking component drives the tapered winding sleeve to detach the formed steel wool, while simultaneously lifting the tangent assembly to cut the steel wire.

[0019] Compared with the prior art, the beneficial effects of the present invention are:

[0020] This invention uses a retractable conical winding sleeve to wind steel wire. The driving component simultaneously drives multiple retraction components. When the retraction components are not retracting, they can drive the conical winding sleeve to wind the steel wire along the conical sleeve, which is beneficial for winding the steel wire from the end with the larger diameter of the conical winding sleeve to the end with the smaller diameter. When the retraction components start to retract, it is beneficial for the wound steel wire ball to be released from the conical winding sleeve, avoiding the steel wire ball from scattering when it is released. Furthermore, when the retraction components retract, they simultaneously push the tangent assembly upward, which is beneficial for cutting the steel wire ball simultaneously when it is released from the conical winding sleeve. Attached Figure Description

[0021] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0022] Figure 2 This is a schematic diagram of the side structure of the present invention;

[0023] Figure 3 This is a schematic diagram of the structure at the mounting frame and pressure roller of the present invention;

[0024] Figure 4 This is a schematic diagram of the structure of the material feeding frame groove of the present invention;

[0025] Figure 5 This is a partial cross-sectional view of the material feeding frame groove of the present invention;

[0026] Figure 6 This is a schematic diagram of the structure of the shrinking component and the tapered winding sleeve of the present invention;

[0027] Figure 7 This is a schematic diagram of the structure of the shrinking component and the tangent assembly of the present invention;

[0028] Figure 8 This is a schematic diagram of the structure of a single pressure roller in this invention;

[0029] Figure 9 for Figure 6 A magnified structural diagram of region A in the middle.

[0030] In the diagram: 1-Processing table; 2-Guide roller; 3-Power unit; 4-Mounting frame; 5-Crimping roller; 6-Discharge frame groove; 7-Conical winding sleeve; 8-Contraction component; 9-Tearing assembly; 11-Discharge roller; 12-Adjusting frame; 13-Protective housing; 14-Discharge groove; 31-Drive motor; 32-Belt; 41-Fixing rod; 42-Nut; 43-Shaft; 44-Shaping wheel; 51-Connecting rod; 52-Concave surface; 53-Rolling groove; 54-Cooling vent; 61-Cavity; 62-Guide slope; 6 3-Discharge port; 71-Winding groove; 72-Disengagement hemisphere; 73-Ring body; 81-Shaping strip; 82-Fixing sleeve; 83-Electric telescopic tube; 84-Fixing sphere; 85-Supporting spring; 86-Flywheel; 87-Transmission gear; 88-Rotating motor; 89-Drive gear; 91-Limiting plate; 92-Push rod; 93-Cut edge; 94-Connecting ring; 95-Pushing cone; 96-Wedge block; 97-Reset spring; 98-Sliding hole; 99-Pushing crank; 861-Transmission belt; 941-Ventilation strip groove. Detailed Implementation

[0031] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0032] Please see Figures 1-9This invention provides a technical solution: an automatic processing equipment for producing clean steel wool, including a processing table 1. The bottom of the processing table 1 is a supporting base. The upper part of the base is equipped with a telescopic pipe to adjust the height of the plates on the processing table 1. A feeding roller 11 and an adjusting frame 12 are installed on the processing table 1. Support frames are installed on both sides of the feeding roller 11. A shaft is installed on the support frame, and the feeding roller 11 is rotated by the shaft sleeve on the feeding roller 11. A protective shell 13 is installed on the side of the processing table 1. A guide roller 2 is installed on the adjusting frame 12. A power component 3 for driving the guide roller 2 and the feeding roller 11 is installed on the protective shell 13. The power component 3 includes a drive motor 31 installed at one end of the guide roller 2. The shafts of the guide roller 2 and the feeding roller 11 are driven by a belt 32. The adjustment frame 12 is provided with multiple mounting frames 4, and the mounting frames 4 are provided with pressure rollers 5 that cooperate with the guide rollers 2. The back of the adjustment frame 12 is provided with multiple wire feeding grooves 14 that communicate with the mounting frames 4.

[0033] One end of the processing table 1 is equipped with a feeding frame groove 6, and the feeding frame groove 6 is provided with multiple chambers 61. Each chamber 61 is provided with an inclined guide slope 62, and one end of the chamber 61 is provided with a discharge port 63. After the steel wool is processed, the steel wool falls into a separate chamber 61 and slides down from the discharge port 63 along the inclined guide slope 62. This facilitates the individual production and collection of each steel wool and avoids the steel wool from tangling with each other. Each chamber 61 is provided with a conical winding sleeve 7, and multiple winding grooves 71 are distributed on the conical winding sleeve 7. The conical winding sleeve 7 is provided with a shrinking component 8, and a tangent component 9 is fitted on the shrinking component 8. When the shrinking component 8 pulls the conical winding sleeve 7 to shrink along the winding groove 71, the tangent component 9 is lifted by the shrinking component 8 to cut the steel wire.

[0034] The conical winding sleeve 7 has a conical structure. The front end of the conical winding sleeve 7 is a detached hemisphere 72, and the rear end of the conical winding sleeve 7 is a ring 73. The shrinking component 8 includes multiple shaping strips 81 installed inside the ring 73. The multiple shaping strips 81 are connected by a fixing sleeve 82. An electric telescopic tube 83 is connected to the fixing sleeve 82. A fixing ball 84 is installed on the output part of the electric telescopic tube 83, and a support spring 85 is connected between the fixing ball 84 and the detached hemisphere 72. The electric telescopic tube 83 passes through the inner wall of the feeding frame groove 6, and a driving component is installed at one end of the multiple electric telescopic tubes 83 to simultaneously drive the multiple conical winding sleeves 7 to rotate and wind.

[0035] The driving component includes a flywheel 86 mounted on an electric telescopic tube 83. Multiple flywheels 86 are driven by a transmission belt 861. One end of one of the electric telescopic tubes 83 is equipped with a transmission gear 87. A rotating motor 88 is mounted on the outside of the material feeding frame trough 6, and a drive gear 89 that meshes with the transmission gear 87 is mounted on the output end of the rotating motor 88.

[0036] To achieve the goal of winding the steel wire along the conical winding sleeve 7 to form a steel wire ball, and simultaneously detaching the steel wire ball from the conical winding sleeve 7, a tangent assembly 9 is used. The tangent assembly 9 includes a limiting plate 91 installed on the inner wall of the chamber 61, a push rod 92 slidably connected to the limiting plate 91, a tangent blade 93 at the top of the push rod 92, and a lifting component at the bottom of the push rod 92, which is connected to an electric telescopic tube 83. The lifting component includes a connecting ring 94 fitted onto the electric telescopic tube 83. A lifting cone 95 is provided on the outer side of the connecting ring 94, and the lifting cone 95 has a conical surface. A wedge block 96 is connected to the bottom of the lifting rod 92, and one end of the wedge block 96 contacts the conical surface. A return spring 97 is connected between the wedge block 96 and the limiting plate 91. A sliding hole 98 is provided on the shaping strip 81. Multiple pushing cranks 99 are connected to the fixed ball 84. One end of the pushing crank 99 slides through the sliding hole 98 and is fixed to the connecting ring 94. Multiple ventilation slots 941 are provided on the connecting ring 94. When the electric telescopic tube 83 retracts, the support spring connected to the conical winding sleeve 73... Spring 85 can pull the conical winding sleeve 7 to retract along the winding groove 71, thereby detaching the steel wire wound on the outside of the conical winding sleeve 7 to form a disc-shaped steel wire ball. At the same time, during the retraction process of the electric telescopic tube 83, the fixed ball 84 installed at the output end of the electric telescopic tube 83 begins to push multiple push rods 99 along the sliding hole 98, thereby pushing the lifting cone 95 along the retraction direction of the electric telescopic tube 83. Because the conical surface of the lifting cone 95 is in contact with the wedge block 96, it is beneficial to push the wedge block 96 upward during the pushing process of the lifting cone 95. The wedge block 96 is connected to the push rod 92. When the push rod 92 is lifted, the steel wire is cut by the tangential blade 93 fixed by the push rod 92.

[0037] A fixing rod 41 is installed on the top of the mounting frame 4, and the fixing rod 41 is fixed to the adjusting frame 12 by a nut 42. The mounting frame 4 has a rotating shaft 43 inside, and a shaping wheel 44 is installed on the rotating shaft 43. The shaping wheel 44 is located above the pressure roller 5.

[0038] To prevent overheating during wire pulling, which could affect the pressure roller 5 and guide roller 2, multiple pressure rollers 5 are rotatably connected to the two side walls of the mounting frame 4 via connecting rods 51. The pressure rollers 5 have concave curved surfaces 52 on both sides and a rolling groove 53. Cooling air holes 54, identical to those on the concave curved surfaces 52, are provided on both sides of the rolling groove 53. These cooling air holes 54 are distributed at an angle from the concave curved surfaces 52 towards the rolling groove 53. Thus, during the wire pulling motion of the pressure rollers 5, the design of the concave curved surfaces 52 generates airflow at these surfaces. This airflow blows from the angled cooling air holes 54 towards the rolling groove 53, thereby cooling the rolling groove 53 and the guide roller 2. This helps reduce wear caused by overheating during wire rope pulling.

[0039] A method of using an automatic processing equipment for producing cleaning steel wool: A: Steel bar drawing and wire cutting. The steel bar is drawn into the required size by a drawing machine, and the drawn steel bar is cut by a cutting machine to form a coil of cut steel wire.

[0040] B: The winding is initially fixed. The cut steel wire is wound around the wire feeding roller 11 and then passes around the shaping wheel 44, the pressure roller 5, and the guide roller 2 in sequence, winding around the outside of the conical winding sleeve 7.

[0041] C: Winding into a steel wool ball, the driving component drives multiple conical winding sleeves 7 to wind the steel wire into a steel wool ball;

[0042] D: The steel wool detaches, and the shrinking component 8 drives the conical winding sleeve 7 to detach the formed steel wool, while simultaneously lifting the tangent component 9 to cut the steel wire.

[0043] In practical use: First, the raw materials are processed. The steel strip is surface treated to clean the contaminants on the surface of the steel strip. Then, it is drawn to the required diameter. After that, it is cut into wires by a cutting device to obtain coiled steel wires. The coiled steel wires are then put onto the wire feeding roller 11 to complete the preliminary preparation of the steel wires.

[0044] The steel wire is divided into multiple strands as needed. In this solution, a common four-strand steel wire is used. The steel wire, which is scraped into a coil shape, is divided into four equal parts and looped onto the wire feeding roller 11. Then, the four strands of steel wire are passed through the wire feeding groove 14 in turn. The wire passes over the shaping roller 44 from the top of the wire feeding groove 14. After passing between the pressure roller 5 and the guide roller 2, the steel wire is wound around the outside of the conical winding sleeve 7. When initially winding around the conical winding sleeve 7, two more steel wires need to be wound around and distributed on the outside of the conical winding sleeve 7.

[0045] After the initial winding of the steel wire is completed, the equipment needs to be started so that the steel wire is wound around the outside of the conical winding sleeve 7. After the drive motor 31 is started, the guide roller 2 and the pay-off roller 11 rotate simultaneously through the transmission of the belt 32. When the guide tube 2 rolls, it helps to pull the steel wire distributed between the guide roller 2 and the pressure roller 5. In conjunction with the rolling of the pay-off roller 11, the steel wire is continuously pulled out. Outside the feed frame trough 6, the rotary motor 88 is started. The drive gear 89 on the output shaft of the rotary motor 88 drives the transmission gear 87 that meshes with it, thereby enabling the electric telescopic mechanism fixedly connected to the transmission gear 87. The tube 83 begins to rotate. Each of the multiple electric telescopic tubes 83 is equipped with a flywheel 86. Through the transmission action of the transmission belt 861, the multiple electric telescopic tubes 83 begin to rotate. Since the electric telescopic tubes 83 and the fixed sleeve 82 are fixedly connected, and the shaping strip 81 on the fixed sleeve 82 is fixedly connected to the inside of the ring body 73, the ring body 73, the shaping strip 81, the fixed sleeve 82 and the electric telescopic tubes 83 form a whole. When the multiple electric telescopic tubes 83 are driven to rotate, the multiple conical winding sleeves 7 are driven to rotate synchronously, which is beneficial to rotate the steel wire wound on the conical winding sleeves 73 along the conical winding sleeves 7.

[0046] The conical winding sleeve 7 is generally conical in shape. When the conical winding sleeve 7 is in a complete conical shape, the electric telescopic tube 83 is in the open state, that is, the output part of the front end of the electric telescopic tube 83 extends out, thereby compressing the support 85 connected to the front end of the electric telescopic tube 83. In addition, multiple winding grooves 72 are opened on the outer surface of the conical winding sleeve 7, so that when the steel wire is pulled and wound around the conical winding sleeve 7, it can be wound according to the winding grooves 72, which is conducive to forming a winding loop at the winding grooves 72. In this way, the steel wire ball can be formed by connecting one loop after another when it is wound into a disc shape, avoiding the situation of continuous winding on the existing winding roller.

[0047] When the steel wire is wound into a corresponding disc-shaped steel wire ball, that is, before finally converging on the hemisphere 72, the wound steel wire ball needs to be detached from the conical winding sleeve 7 and the steel wire cut. At this time, the electric telescopic tube 83 is retracted by controlling its extension and retraction. The electric telescopic tube 83 adopts an existing electric rod structure, which can be controlled by electricity. When the electric telescopic tube 83 retracts, the support spring 85 connected to the conical winding sleeve 73 can pull the conical winding sleeve 7 to retract along the winding groove 71, thereby detaching the steel wire wrapped around the outside of the conical winding sleeve 7 to form a disc-shaped steel wire. During the retrieval process of the electric telescopic tube 83, the fixed ball 84 installed at the output end of the electric telescopic tube 83 begins to push multiple push rods 99 along the sliding hole 98, thereby pushing the lifting cone 95 along the contraction direction of the electric telescopic tube 83. Because the conical surface of the lifting cone 95 contacts the wedge block 96, it is beneficial to lift the wedge block 96 upward during the pushing process of the lifting cone 95. The wedge block 96 is connected to the push rod 92. When the push rod 92 is lifted, the steel wire is cut by the tangential blade 93 fixed to the push rod 92. The tangential blade 93 has an inclined cutting edge and its shape is as shown in the attached figure. Figure 9 As shown, the steel wire is partially wound around the outside of the ring 73, tilted towards the ring 73. When the steel wire ball is detached from the winding groove 71 near the ring 73, the maximum outer diameter of the steel wire ball is larger than that of the ring 73. This is because an outward force is required when detaching from the winding groove 71, resulting in the maximum outer diameter of the steel wire ball being larger than that of the ring. At this time, the tangent blade 93 is inserted between the outermost part of the steel wire ball and the steel wire wound on the ring 73. When the electric telescopic tube 83 extends outward, the conical winding sleeve 7 has a slight outward expansion force. When the electric telescopic tube 83 only extends part of its length, the steel wire ball is detached from the conical winding sleeve 7. The tangent blade 93 cuts the steel wire. After cutting the steel wire, the coiled steel wire ball falls into the chamber 61 and slides down the inclined guide slope 62 from the outlet 63.

[0048] After the steel wool is separated, the above process is repeated. The steel wire is wound around the conical winding sleeve 7 from the outside of the ring 73. After the winding is completed, the steel wool is removed from the conical winding sleeve 7, the steel wire is cut, and the preparation of the steel wool is completed.

[0049] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0050] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An automatic processing equipment for producing clean steel wool, comprising a processing table (1), wherein a feeding roller (11) and an adjusting frame (12) are mounted on the processing table (1), and a protective shell (13) is mounted on the side of the processing table (1), characterized in that: A guide roller (2) is installed on the adjusting frame (12), and a power component (3) that drives the guide roller (2) and the pay-off roller (11) is installed on the protective housing (13). The adjusting frame (12) is provided with multiple mounting frames (4), and the mounting frames (4) are provided with pressure rollers (5) that cooperate with the guide roller (2). The back of the adjusting frame (12) is provided with multiple pay-off grooves (14) that communicate with the mounting frames (4). One end of the processing table (1) is equipped with a feeding frame groove (6), and the feeding frame groove (6) is provided with multiple chambers (61). Each chamber (61) is provided with a conical winding sleeve (7). Multiple winding grooves (71) are distributed on the conical winding sleeve (7), and a shrinking component (8) is provided inside the conical winding sleeve (7). A tangent assembly (9) is fitted on the shrinking component (8). The conical winding sleeve (7) has a conical structure. The front end of the conical winding sleeve (7) is a detached hemisphere (72), and the rear end of the conical winding sleeve (7) is a ring (73). The shrinking component (8) includes multiple shaping strips (81) installed inside the ring (73). The multiple shaping strips (81) are connected by a fixing sleeve (82). An electric telescopic tube (83) is connected to the fixing sleeve (82). A fixing ball (84) is installed on the output part of the electric telescopic tube (83), and a support spring (85) is connected between the fixing ball (84) and the detached hemisphere (72). The electric telescopic tube (83) passes through the inner wall of the feeding frame groove (6), and a driving component is installed at one end of the multiple electric telescopic tubes (83) to drive the multiple conical winding sleeves (7) to rotate and wind at the same time. The tangent assembly (9) includes a limiting plate (91) installed on the inner wall of the chamber (61), a push rod (92) is slidably connected on the limiting plate (91), the top of the push rod (92) is provided with a tangent blade (93), the lower part of the push rod (92) is provided with a lifting member, and the lifting member is connected to the electric telescopic tube (83). When the retracting component (8) pulls the tapered winding sleeve (7) to retract along the winding groove (71), the tangent assembly (9) is lifted by the retracting component (8) to cut the wire.

2. The automatic processing equipment for producing cleaning steel wool according to claim 1, characterized in that: The drive component includes a flywheel (86) mounted on an electric telescopic tube (83), multiple flywheels (86) are driven by a transmission belt (861), one end of an electric telescopic tube (83) is equipped with a transmission gear (87), a rotating motor (88) is mounted on the outside of the feeding frame slot (6), and a drive gear (89) that meshes with the transmission gear (87) is mounted on the output end of the rotating motor (88).

3. The automatic processing equipment for producing cleaning steel wool according to claim 1, characterized in that: The lifting component includes a connecting ring (94) fitted on the electric telescopic tube (83). A lifting cone (95) is provided on the outside of the connecting ring (94), and a conical surface is provided on the lifting cone (95). A wedge block (96) is connected to the bottom of the lifting rod (92), and one end of the wedge block (96) is in contact with the conical surface. A return spring (97) is connected between the wedge block (96) and the limiting plate (91). A sliding hole (98) is provided on the shaping strip (81). A plurality of pushing cranks (99) are connected on the fixed ball (84). One end of the pushing crank (99) slides through the sliding hole (98) and is fixed to the connecting ring (94). A plurality of ventilation slots (941) are provided on the connecting ring (94).

4. The automatic processing equipment for producing cleaning steel wool according to claim 3, characterized in that: Each chamber (61) is provided with an inclined guide slope (62), and one end of the chamber (61) is provided with a discharge port (63).

5. The automatic processing equipment for producing cleaning steel wool according to claim 1, characterized in that: The top of the mounting frame (4) is equipped with a fixing rod (41), and the fixing rod (41) is fixed to the adjusting frame (12) by a nut (42). The mounting frame (4) is provided with a rotating shaft (43), and a shaping wheel (44) is installed on the rotating shaft (43). The shaping wheel (44) is located above the pressure roller (5).

6. The automatic processing equipment for producing cleaning steel wool according to claim 1, characterized in that: Multiple pressure rollers (5) are rotatably connected to the two side walls of the mounting frame (4) via connecting rods (51). The two sides of the pressure rollers (5) are provided with concave curved surfaces (52), and the pressure rollers (5) are provided with rolling grooves (53). The two sides of the rolling grooves (53) are respectively provided with cooling air holes (54) that are the same as those of the concave curved surfaces (52), and the cooling air holes (54) are distributed at an incline from the concave curved surfaces (52) to the rolling grooves (53).

7. The automatic processing equipment for producing cleaning steel wool according to claim 6, characterized in that: The power unit (3) includes a drive motor (31) installed at one end of the guide roller (2), and the shafts of the guide roller (2) and the wire feeding roller (11) are driven by a belt (32).

8. A method of using an automatic processing equipment for producing cleaning steel wool according to any one of claims 1-7, characterized in that: A: The steel bar is drawn and cut into wires. The steel bar is drawn into the required size by a drawing machine and then cut into wires by a cutting machine. The cut wires are then rolled into coils. B: The winding is initially fixed, and the cut steel wire is wound on the pay-off roller (11), and then passes around the shaping wheel (44), the pressure roller (5), and the guide roller (2) in sequence to wind around the outside of the conical winding sleeve (7); C: Winding into a steel wire ball, the driving component drives multiple conical winding sleeves (7) to wind the steel wire into a steel wire ball; D: The steel wool detaches, the shrinking component (8) drives the conical winding sleeve (7) to detach the formed steel wool, and at the same time lifts the tangent assembly (9) to cut the steel wire.

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