Winding cutting machine
By designing a winding and cutting machine, using wire eyelets, winding shafts, pressing wheels and cutting saw blade devices, the sheet-shaped raw materials are processed into clasps, which solves the problems of low efficiency and low quality in the prior art, and achieves efficient and high-quality clasps production.
Patent Information
- Application Number
- CN202421790181.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-07-26
- Publication Date
- 2025-05-13
- Estimated Expiration
- 2034-07-26
AI Technical Summary
The existing jewelry processing technology is low in efficiency and low in quality when producing buckles, and cannot meet the usage requirements.
A winding and cutting machine is designed to process the sheet-shaped raw materials into clasps through components such as wire eyelets, winding shafts, pressing wheels and cutting saw blade devices to achieve continuous molding and cutting.
It improves product quality and processing efficiency, and can continuously process sheet-shaped raw materials into clasps to meet the usage requirements.
Smart Images

Figure CN222857313U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of jewelry processing, in particular to a winding and cutting machine. Background Art
[0002] Spring clasps for jewelry are generally used in K gold jewelry (necklaces, bracelets, anklets) and 925 silver jewelry to connect chains. The spring clasp includes an annular buckle (also called a shell), a spring and a movable buckle. The buckle is cut to form a buckle interface that can buckle the necklace. During processing, the spring is first passed into the large ring, and the movable buckle is assembled in the buckle from the loading port set on the outside of the shell. One end of the movable buckle abuts against the spring, and the other end abuts against the other end of the buckle. The movable buckle slides along the cavity of the buckle to open or close the buckle interface.
[0003] Normally, when producing buckles, a section is first cut from the bobbin, which is then clamped to the molding position by a robotic arm and molded through multiple molds. It is impossible to mold and demold at one time, resulting in low processing efficiency, large equipment size and high cost. Currently, there are also methods on the market that use a molding mold to complete the molding process at one time, so that the bobbin is molded into a ring shape, with a simple overall structure and low manufacturing cost. However, this method only molds the bobbin into a buckle, and a cutting machine is required to cut it after molding, resulting in low production efficiency and low processing quality, which cannot meet the use requirements. Utility Model Content
[0004] In view of the above-mentioned shortcomings of the prior art, the technical problem to be solved by the utility model is to provide a winding and cutting machine that can continuously process sheet materials into buckles, thereby improving product quality and processing efficiency.
[0005] In order to solve the above technical problems, the utility model includes a frame, and its structural feature is that the frame is provided with a thread eye for making a sheet-like raw material into a prefabricated pipe with a seam, and the frame is also equipped with a winding shaft driven by a power mechanism and a pressing wheel driven by a compaction driving mechanism, the winding shaft has a spiral pipe winding groove, the prefabricated pipe with a seam is wound in the pipe winding groove, and the circumference of the pressing wheel has a pressing groove matching the prefabricated pipe with a seam, the prefabricated pipe with a seam and the pressing groove are respectively pressed on two groove walls of the corresponding pipe winding groove to press the prefabricated pipe with a seam into a seamless prefabricated pipe; the frame is equipped with a cutting saw blade device for cutting the spiral seamless prefabricated pipe into buckle rings and a shaping device for rounding the buckle rings, and the frame is also equipped with a cutting saw blade device for cutting grooves for the buckle rings.
[0006] After adopting the above structure, the sheet material is first passed through the eyelet to form a prefabricated pipe with seams, and the prefabricated pipe with seams is wound in the pipe winding groove. At this time, the prefabricated pipe with seams and the pressing groove are respectively pressed on the two groove walls of the corresponding pipe winding groove to press the prefabricated pipe with seams into a seamless prefabricated pipe; then, the cutting saw blade device cuts the spiral seamless prefabricated pipe into buckle rings, the shaping device rounds the buckle rings, and the cutting saw blade device cuts grooves on the buckle rings to form buckle rings. The utility model can continuously process sheet material into buckle rings, thereby improving product quality and processing efficiency.
[0007] Preferably, a feeding device is installed on the frame, and the feeding device includes a plurality of feeding groups installed on the frame, each of the feeding groups includes two feeding wheels correspondingly arranged in the vertical direction, and a feeding groove is opened on the circumference of the feeding wheel. The two feeding grooves of each group of the feeding wheels are arranged correspondingly and adjacent to each other to form a feeding channel matching the seam prefabricated pipe; a feeding positioning plate installed on the frame is also provided between the feeding channel and the thread eye.
[0008] Preferably, a forming channel is opened at the center of the wire eye, and the forming channel includes a trumpet-shaped material guide hole and a forming hole connected to the small-diameter end of the material guide hole.
[0009] Preferably, the feeding positioning plate includes a mounting portion installed on the eyelet bracket, and a seam guide plate is provided on the top surface of the mounting portion at an end away from the eyelet bracket, and the thickness of the seam guide plate is adapted to the gap of the seam prefabricated pipe.
[0010] Preferably, the shaping device includes a shaping guide rail seat installed on the frame, the shaping guide rail seat is equipped with a shaping slider seat driven by a shaping drive mechanism to move forward and backward in a horizontal direction, the shaping slider seat is slidably connected with a clamping slider seat and a clamping and leveling block seat driven by a clamping drive mechanism to approach and move away, the clamping slider seat and the clamping and leveling block seat are both equipped with cutting clamps, the two cutting clamps are correspondingly arranged and can clamp and release a single spiral ring at the end of the seamless prefabricated pipe; the shaping guide rail seat is also equipped with a cutting mandrel for conveying buckle rings, the clamping slider seat is equipped with a cutting clamp for positioning the buckle ring on the cutting mandrel, the cutting clamp and the clamping and leveling block seat are also equipped with a leveling push plate driven by a leveling cylinder to make the cut buckle ring round.
[0011] Preferably, the cutting saw blade device includes a cutting saw blade slider seat driven by a cutting drive mechanism to move in a vertical direction, a cutting saw blade shaft driven by a cutting power mechanism is installed on the cutting saw blade slider seat, and the end of the cutting saw blade shaft is provided with a cutting knife radially perpendicular to the single spiral coil at the end of the seamless prefabricated pipe.
[0012] Preferably, the slitting saw blade device comprises a slitting saw blade slider seat mounted on a frame and driven by a saw blade driving mechanism to move in a vertical direction, a slitting saw blade shaft driven by a saw blade power mechanism to move in a horizontal direction is mounted on the slitting saw blade slider seat, and a slitting saw blade shaft end portion of the slitting saw blade shaft is provided with a grooving tool matched with a positioning groove on the slitting clamp.
[0013] The utility model ensures that the sheet material enters from the large-diameter end of the guide hole of the thread eye forming hole, passes through the small-diameter end and the forming hole in sequence to form a tubular prefabricated tube with a seam by arranging a thread eye; ensures that the seam of the tubular prefabricated tube with a seam is always clamped on the thread eye plate by arranging a thread eye on the feeding positioning plate, so as to ensure smooth transportation, avoid the occurrence of jamming, damage and the like caused by deviation during transportation, and facilitate the smooth progress of subsequent work; a winding shaft is arranged and a spiral pipe winding groove is arranged on the winding shaft, so as to facilitate the winding of the prefabricated tube with a seam on the winding shaft; and the pressing groove on the pressing wheel and the conveyed prefabricated tube with a seam correspond to the two groove walls of the pipe winding groove on the corresponding winding shaft respectively. The utility model is provided to ensure that the prefabricated pipe with seams is pressed into a seamless prefabricated pipe, thereby forming a spiral spiral tube; by providing two cutting clamps that can be driven by the clamping drive mechanism to move closer and farther, the single spiral ring on the spiral tube can be clamped, ensuring that the cutting knife can smoothly cut off the single spiral ring without deviation; by providing a cutting mandrel driven by the shaping drive mechanism, it is convenient to convey the buckle ring; by providing a cutting clamp, one half of the buckle ring is positioned; by providing a leveling push plate driven by the leveling drive mechanism, it is pressed on the other half of the buckle ring and the buckle ring is twisted flat and rounded to become an ungrooved buckle ring; by providing a grooving knife of the grooving saw blade device, the ungrooved buckle ring is grooved to form a buckle ring. The utility model can continuously process the sheet material into a buckle ring with a notch, thereby improving the product quality and processing efficiency. BRIEF DESCRIPTION OF THE DRAWINGS
[0014] The drawings that constitute part of this application are used to provide a further understanding of this application, so that other features, purposes and advantages of this application become more obvious. The schematic embodiment drawings and their descriptions of this application are used to explain this application and do not constitute an improper limitation on this application. In the drawings:
[0015] Figure 1 It is a three-dimensional structural schematic diagram of an embodiment of the utility model;
[0016] Figure 2 for Figure 1 A three-dimensional structural schematic diagram of another direction;
[0017] Figure 3 for Figure 1 A schematic diagram of the structure of the main view;
[0018] Figure 4 for Figure 3A schematic diagram of the structure from a top view;
[0019] Figure 5 for Figure 1 A schematic diagram of the enlarged structure;
[0020] Figure 6 for Figure 2 A schematic diagram of the enlarged structure of B;
[0021] Figure 7 It is a three-dimensional structural schematic diagram of the feeding device of the utility model;
[0022] Figure 8 for Figure 7 A three-dimensional structural schematic diagram of another direction;
[0023] Fig. 9 It is a three-dimensional structural schematic diagram of the wire eye, feeding positioning piece and wire eye bracket of the utility model;
[0024] Fig.10 for Fig. 9 A three-dimensional structural schematic diagram in another direction;
[0025] Fig.11 for Fig. 9 A schematic diagram of the structure of the main view;
[0026] Fig.12 for Fig.11 Schematic diagram of the structure of AA;
[0027] Fig.13 for Fig.11 Schematic diagram of the structure of BB;
[0028] Fig.14 It is a three-dimensional structural schematic diagram of the winding device of the utility model;
[0029] Fig.15 for Fig.14 A schematic diagram of the structure of the main view;
[0030] Fig.16 for Fig.15 A schematic diagram of the structure from a top view;
[0031] Fig.17 for Fig.15 Schematic diagram of the structure of CC;
[0032] Fig.18 for Fig.15 Schematic diagram of the structure of DD;
[0033] Fig.19 for Fig.16 Schematic diagram of the EE structure;
[0034] Fig. 20 It is a schematic diagram of the position structure between the synchronous matching wheel and the synchronous matching rod;
[0035] Fig.21 It is a three-dimensional structural schematic diagram of the shaping device of the utility model;
[0036] Fig. 22 for Fig.21 A schematic diagram of the structure of the main view;
[0037] Fig.23 for Fig. 22 A schematic diagram of the structure of the left view;
[0038] Fig.24 for Fig. 22 A schematic diagram of the structure from a top view;
[0039] Fig.25 It is a three-dimensional structural schematic diagram of the cutting clamp of the utility model;
[0040] Fig.26 It is a three-dimensional structural schematic diagram of the incision clamp of the utility model;
[0041] Fig. 27 for Fig.26 A three-dimensional structural schematic diagram of another direction;
[0042] Fig.28 It is a three-dimensional structural schematic diagram of the incision saw blade device of the utility model;
[0043] Fig.29 for Fig.28 Schematic diagram of the structure enlarged by G in the middle;
[0044] Fig.30 A three-dimensional structural diagram of the cutting saw blade device of the utility model;
[0045] Fig.31 for Fig.30 Schematic diagram of the structure of H amplification.
[0046] In the figure: 1-frame, 2-feeding device, 201-line eye, 202-feeding positioning piece, 203-feeding wheel, 3-winding device, 301-winding shaft seat, 302-winding connecting shaft, 303-winding rotating shaft, 304-rotating roller, 305-synchronous matching wheel, 3051-positioning groove, 306-synchronous matching rod, 3061-matching groove, 307-winding shaft, 308-pressing wheel, 4-shaping device, 401-shaping guide rail seat, 402-clamping slider seat, 403-clamping leveling block seat, 404-cutting clamp, 405-leveling push plate, 406-cutting clamp, 407-cutting mandrel, 5-cutting saw blade device, 501-cutting saw blade shaft, 502-grooving knife, 6-cutting saw blade device, 601-cutting saw blade shaft, 602-cutting knife. DETAILED DESCRIPTION
[0047] In order to make the technical personnel in this field better understand the present application scheme, the following will be combined with the attached Figure 1-31 , the technical scheme in the embodiment of the utility model is clearly and completely described. Figure 3 The up and down direction is set as the vertical direction, the left and right direction is set as the horizontal direction, and the left direction is the material running direction; Figure 4 The top of the (top view) is set as the back, and the bottom is set as the front.
[0048] Reference Figure 1-6 The winding and cutting machine comprises a frame 1, on which a winding device 3, a shaping device 4 and a cutting saw blade device 5 are installed in sequence from right to left in a horizontal direction. A feeding device 2 located in front of the winding device 3 and a cutting saw blade device 6 located behind the shaping device 4 are also installed on the frame 1; the feeding device 2 is used to make the sheet-like raw material into a prefabricated tube with a seam and output it; the winding device 3 is used to press the prefabricated tube with a seam into a seamless prefabricated tube and wind it into a spiral tube; the shaping device 4 is used to clamp the first single spiral coil at the leftmost end of the spiral tube, and the cutting saw blade device 6 cuts the coil into a buckle ring with misaligned ends, and the shaping device 4 rounds the buckle ring and then positions it; the cutting saw blade device 5 is used to cut a groove on the side of the buckle ring to form a buckle ring of a spring buckle.
[0049] Reference Figure 1-6, 7-13, the feeding device 2 includes a feeding rack and a drag rack installed on the frame 1, a material passing hole is opened on the top plate of the frame 1, a material guiding cylinder connected with the material passing hole is installed on the bottom surface, and a rectangular powder receiving box with an open opening is installed on the front side of the frame 1, and the powder receiving box is located below the material guiding cylinder. The above-mentioned drag rack includes a first supporting rack located in front of the feeding rack and installed on the top plate of the frame 1, a second supporting rack installed below the top plate of the frame 1 and above the powder receiving box, and a third supporting rack installed on the front side of the frame 1; a first supporting shaft is installed on the first supporting rack, and the first drag shaft is sleeved with two first positive rings arranged at intervals, and the axial gap between the two first positive rings is set to a first distance; a second supporting shaft is installed on the second supporting rack, and the second drag shaft is sleeved with two second positive rings arranged at intervals, and the axial gap between the two second positive rings is set to a second distance; a third supporting shaft is installed on the third supporting rack, and the third drag shaft is sleeved with two third positive rings arranged at intervals, and the axial gap between the two third positive rings is set to a third distance; the above-mentioned first supporting shaft, second supporting shaft and third supporting shaft are arranged in parallel, the third supporting shaft is located in front of the second supporting shaft, and the lengths of the first distance, the third distance and the second distance increase successively. During production, the sheet material is sleeved on the third support shaft and located between the two third positive rings. The two third positive rings limit the sheet material. The length of the third distance is slightly larger than the length of the sheet material to ensure that it can pass smoothly after a slight deviation during the conveying process to avoid jamming; the sheet material output from the third drag shaft bypasses the second support shaft through the feed hole, and the two second positive rings on the second support shaft limit the sheet material to prevent excessive displacement during the conveying process and make it inconvenient to pass through the guide barrel; the sheet material output from the second support shaft passes through the guide barrel and the feed hole in turn and then bypasses the first support shaft before being output. The first distance is adapted to the width of the sheet material to ensure smooth conveying of the sheet material. By setting the second distance greater than the third distance, it is ensured that the sheet material can pass through the guide barrel and the feed hole smoothly through adjustment when conveying, ensuring stable conveying; by setting the length of the first distance to the minimum, it is adapted to the width of the sheet material to ensure that the accurate size of the sheet material is maintained, which is conducive to the subsequent stable forming.
[0050] A plurality of feeding groups spaced apart in the front-to-back direction are mounted on the left side plate of the feeding rack, each feeding group comprises two feeding wheels 203 correspondingly arranged in the vertical direction, a feeding groove is provided on the circumference of the feeding wheel 203, and the two feeding grooves of each feeding group are correspondingly arranged and opposite to each other to form a feeding channel; a wire eye bracket is mounted at the front end of the feeding rack, a wire eye 201 is mounted on the wire eye bracket to be used for making the sheet raw material into a tubular prefabricated tube with a seam, the wire eye 201 is set as a cylindrical structure, a forming channel is provided at the center thereof, and the forming channel comprises a trumpet-shaped guide hole and a forming hole connected to the small-diameter end of the guide hole. The lower part of the eyelet bracket is also equipped with a feeding positioning piece 202 extending from the rear end, which is used to limit the prefabricated pipe so that the seam of the prefabricated pipe rides on the top guide seam of the feeding positioning piece 202, so that the seam of the prefabricated pipe is always facing downward; further, the bottom surface of the eyelet bracket is provided with a mounting groove extending upward from the bottom surface, and the feeding positioning piece 202 includes a mounting part inserted into the mounting groove of the eyelet bracket, and a guide seam plate is provided on the top surface of the mounting part away from the end of the eyelet bracket. The thickness of the guide seam plate is adapted to the gap on the prefabricated pipe with seams, ensuring that the seam of the prefabricated pipe is always facing downward, so that the prefabricated pipe can be smoothly transported along the guide seam plate. During operation, the sheet material enters from the large-diameter end of the guide hole of the eyelet 201 forming hole, passes through the small-diameter end and the forming hole in turn to form a tubular prefabricated pipe with seams, and the seam of the prefabricated pipe rides on the guide seam plate and is output through the feeding channel of each group of feeding wheels 203.
[0051] Reference Figure 1-6, 14-20, the winding device 3 includes a winding shaft 307 installed on the frame 1 and driven by a power mechanism so as to be able to move forward and backward while rotating, and the prefabricated pipe is wound on the winding shaft 307 to form a spiral cylinder. Further, the winding device 3 includes a base frame installed on the frame 1, a first slide groove is provided on the top surface of the base frame, a first linear guide is installed in the first slide groove, a first slider seat is slidably connected to the first linear guide, a winding shaft seat 301 is installed on the first slider seat, and a first shaft mounting hole extending along its axial direction is provided at the center of the winding shaft seat 301; a winding connecting shaft 302 driven by a winding power mechanism is installed on the base frame, the winding power mechanism adopts a stepping motor, a winding origin induction ring is provided on the outer surface of the winding connecting shaft 302, and a proximity switch corresponding to the origin induction ring is installed on the base frame to monitor the rotation of the winding connecting shaft 302 to the origin The winding connecting shaft 302 is set as a stepped shaft, and a second shaft mounting hole is radially opened at the end of its smaller diameter section, and a winding rotating shaft 303 is installed in the second shaft mounting hole. The winding rotating shaft 303 is located on the two shaft sections outside the winding connecting shaft 302, and is provided with a rotating roller 304, and an open groove is provided at the end for installing an open retaining ring, so as to limit the rotating roller 304 and prevent the rotating roller 304 from falling; the small diameter section of the winding connecting shaft 302 is provided with a synchronous matching wheel 305, that is, the synchronous matching wheel 305 is provided with a third shaft mounting hole running through its axial direction at the center, and the end surface of one end of the synchronous matching wheel 305 is axially opened. The positioning groove 3051 is connected with the third shaft mounting hole. The small diameter section of the winding connecting shaft 302 passes through the third shaft mounting hole and is connected with the winding shaft 307. The two rotating rollers 304 are both arranged in the positioning groove 3051. The wheel section where the positioning groove 3051 is located on the synchronous matching wheel 305 is radially provided with a plurality of screw mounting holes. The plurality of screw mounting holes are arranged around its circumference and are connected with the third shaft mounting hole. A set screw is penetrated in each screw mounting hole. A spiral matching groove 3061 is provided on the outer surface of the other end of the synchronous matching wheel 305. A synchronous matching rod 306 that abuts against the matching groove 3061 is also installed on the chassis. It is used to limit the synchronous matching wheel 305 and cooperate with the synchronous matching wheel 305 to move forward or backward; the above-mentioned winding shaft 307 is installed in the first shaft mounting hole on the winding shaft seat 301 through a bearing, and the end is installed in the third shaft mounting hole, and each set screw passes through the corresponding screw mounting hole and abuts on the winding shaft 307 to position the end of the winding shaft 307; a spiral pipe winding groove is provided on the outer surface of the other end of the winding shaft 307, and the prefabricated pipe with a seam abuts on the right groove wall of the pipe winding groove and is wound in a spiral shape around the pipe winding groove. The groove width of the pipe winding groove is adapted to the pipe diameter of the prefabricated pipe with a seam, so as to facilitate the prefabricated pipe with a seam to be wound into a spiral spiral cylinder.
[0052] The winding device 3 also includes a pressing wheel bracket installed on the frame 1, a second slide groove is provided on the top surface of the pressing wheel bracket, a second linear guide rail is installed in the second slide groove, a second slider seat is slidably connected to the second linear guide rail, a winding insert through hole is transversely provided on the second slider seat, and a winding insert is installed in the winding insert through hole; a pressing wheel 308 is installed on the pressing wheel bracket, and a pressing groove matching the prefabricated pipe is provided on the circumference of the pressing wheel 308 to avoid flattening the prefabricated pipe, and the pressing groove is arranged corresponding to the pipe winding groove to ensure that the prefabricated pipe with a seam is compacted into a seamless pipe The prefabricated pipe, that is, the pressure wheel bracket is equipped with a pressure wheel 308 rod, a notch is provided on the end surface of the pressure wheel 308 rod, and the two side walls of the notch are pierced with pressure wheel 308 pins, and the pressure wheel 308 is mounted on the pressure wheel 308 pins; the front and rear ends of the pressure wheel bracket are respectively provided with a compacting wheel limit seat and a compacting cylinder seat, and a compacting drive mechanism is installed on the compacting cylinder seat. The compacting drive mechanism adopts a cylinder, and a winding push rod is installed at the output end of the cylinder, and a winding limit rod is installed on the compacting wheel limit seat, and the two ends of the winding insert are respectively arranged corresponding to the push rod and the limit rod. During operation, when conveying the prefabricated pipe with a seam, the prefabricated pipe with a seam is pressed on one of the groove walls of the winding groove, and when the pressure wheel 308 presses on the corresponding prefabricated pipe with a seam, pressure is applied to the other groove wall of the winding groove, that is, the interface of the prefabricated pipe with a seam is pressed together to form a seamless prefabricated pipe, that is, a spiral spiral cylinder. When the winding power mechanism is working, the winding connecting shaft 302 rotates and under the action of the rotating roller 304 on the winding rotating shaft 303, the synchronous matching wheel 305 rotates and moves to the left. At the same time, the winding shaft 307 rotates and moves to the left along with the synchronous matching wheel 305, and the winding shaft seat 301 moves forward or backward along the first linear guide rail with the winding shaft 307, so as to press the seam prefabricated pipe on the groove wall on the right side of the pipe winding groove, and feed the material to the left while winding to form a spiral cylinder; at the same time, the compaction driving mechanism works. The push rod pushes the second slider seat forward, so that the pressure wheel 308 is pressed on the corresponding spiral prefabricated pipe, and the pressure is applied to the groove wall on the left side of the pipe winding groove to form a seamless prefabricated pipe, that is, a spiral tube. At this time, the compaction drive mechanism returns to its position and prepares to enter the next round of pressing and forming; the winding power mechanism returns to its position, and when the origin induction ring detects that the winding connection shaft 302 rotates to the initial position, the proximity switch receives the signal and transmits the signal to the winding power mechanism. The winding power mechanism works to wind the seamed prefabricated pipe into a spiral shape and then transports it to the left.
[0053] The shaping device 4 includes a shaping guide rail seat 401 installed on the frame 1 and capable of adjusting the front and rear positions; a shaping slider seat driven by a shaping drive mechanism to move forward and backward along the material running direction is installed on the shaping guide rail seat 401; a clamping slider seat 402 and a clamping and leveling block seat 403 driven by a clamping drive mechanism to move closer and farther are slidably connected to the shaping slider seat; a cutting clamp 404 is installed on the clamping slider seat 402 and the clamping and leveling block seat 403; the two cutting clamps 404 are correspondingly arranged and capable of clamping and releasing the spiral cylinder; a cutting clamp 406 for positioning the buckle ring is installed on the clamping slider seat 402; a leveling push plate 405 driven by a leveling cylinder to make the cut buckle ring into a round shape is also installed on the clamping and leveling block seat 403; a cutting mandrel 407 for conveying the buckle ring is also installed on the shaping guide rail seat 401, and the cutting clamp 406 presses on the buckle ring. Furthermore, a core rod mounting seat is installed at the front end of the above-mentioned shaping guide rail seat 401, and a shaping core shaft seat is vertically installed on the top of the core rod mounting seat. A core shaft limiting groove is provided on the bottom surface of the end of the shaping core shaft seat. The above-mentioned cutting core shaft 407 is set as a cylindrical body structure, and at least one section of a raised limiting plate is provided on its outer surface, so that the seam of the buckle ring with a seam moves along the limiting plate to avoid deviation during the process of conveying the buckle ring, so as to facilitate subsequent smooth operation; one end of the limiting plate extends upward on the top surface of one end, and the clamping plate is clamped in the core shaft limiting groove and fixed. One end of the cutting core shaft 407 is set as a conical structure, and the diameter of its right end face is smaller than that of the left end face, so that the cut buckle ring can be wound around the cutting core shaft 407, and the other end is installed with an arc shaped blanking guide rod, the end of the blanking guide rod extends into the blanking box; a shaping slide groove is provided on the top of the shaping guide rail seat 401, and a shaping linear guide rail is installed in the shaping slide groove, the above-mentioned shaping slider seat is slidably connected to the shaping linear guide rail, and a shaping insert through hole is horizontally provided on the shaping slider seat, and a shaping insert is installed in the shaping insert through hole, and a moving cylinder seat and a moving limit seat are respectively provided at the left and right ends of the shaping guide rail seat 401, and a core rod mounting seat is installed on the front side, and a shaping drive mechanism is installed on the moving cylinder seat. The shaping drive mechanism adopts a cylinder, which is called a shaping cylinder. A shaping push rod is provided at the output end of the shaping cylinder, and a shaping limit rod is installed on the moving limit seat, and the two ends of the shaping insert are respectively arranged corresponding to the shaping push rod and the shaping limit rod. When the shaping drive mechanism is working, the cut core shaft 407 moves to the right. When the shaping push rod at the output end of the shaping drive mechanism abuts against the corresponding shaping insert, the shaping slider seat moves to the right accordingly. The shaping limit rod limits the shaping slider seat to prevent it from continuing to move.
[0054] A clamping linear guide is installed on the top surface of the shaping slider seat, and the clamping linear guide is slidably connected with the above-mentioned clamping slider seat 402 and the clamping and calibration smooth block seat 403. The clamping drive mechanism is installed on the clamping slider seat 402, wherein the clamping drive mechanism adopts a pen-shaped cylinder; a clamping cylinder pull rod seat is installed on the clamping and calibration smooth block seat 403, and a pull rod is installed on the clamping cylinder pull rod seat, and an axis insertion hole is opened on the end surface of the pull rod facing the clamping drive mechanism, and the output shaft of the clamping drive mechanism is inserted into the axis insertion hole of the pull rod; the front and rear directions on the clamping slider seat 402 Two correspondingly arranged clamping insert through holes are provided on the top, and a clamping insert is installed in each of the clamping insert through holes. A clamping and leveling insert through hole is provided in the front-to-back direction on the clamping and leveling slider seat 403, and a clamping and leveling insert is installed in the clamping and leveling insert through holes. In addition, a front limit seat for the clamping clamp and a rear limit seat for the clamping clamp are respectively provided at the front and rear ends of the shaping slider seat, a front clamping limit rod is installed on the front limit seat for the clamping clamp, and a rear clamping limit rod is installed on the rear limit seat for the clamping clamp, and the clamping top rod and the clamping limit rod correspond to the corresponding clamping inserts respectively. Furthermore, the clamping slider seat 402 is provided with a cutting clamp seat 406 extending toward the left and a clamping clamp seat extending toward the right, the cutting clamp 406 is installed on the cutting clamp seat, the cutting clamp 406 has an arc-shaped positioning plate adapted to the shape of the buckle ring, the inner arc surface of the positioning plate has a cutting positioning groove adapted to the tube diameter of the buckle ring, so that the buckle ring can be clamped in the cutting positioning groove to position the buckle ring, and a notch is provided at the bottom of the cutting positioning groove, so that the cutting saw blade device 5 can cut the buckle ring to form a buckle ring; one of the above-mentioned cutting clamps 404 is installed on the clamp seat, and the cutting clamp 404 is set as the first cutting clamp 404. The above-mentioned leveling push plate 405 driven by the leveling drive mechanism to level the buckle ring is installed on the above-mentioned clamping and leveling block seat 403, that is, the leveling drive mechanism adopts a TACQ type cylinder, and a rotating plate is installed at the end of the three output shafts of the cylinder, and the leveling push plate 405 is installed on the rotating plate. When the cylinder is working, the rotating plate at the end of the output shaft is driven to rotate to ensure that the leveling push plate 405 is pressed on the buckle ring with staggered ends that is sleeved on the cutting core shaft 407, and the buckle ring is leveled so that its two ends correspond; another one of the above-mentioned cutting clamps 404 is installed on the clamping and leveling block seat 403, and the cutting clamp 404 is set as the second cutting clamp 404, which faces to the right and is arranged corresponding to the first cutting clamp 404, and is used to clamp the single spiral ring of the spiral barrel located at the far left end. The first cutting clamp 404 and the second cutting clamp 404 have the same structure and both have an arc-shaped clamping plate. A clamping groove adapted to the diameter of a single turn on the spiral barrel begins to be provided on the inner arc surface of the clamping plate to facilitate clamping of the single spiral turn of the spiral barrel at the leftmost end. The cutting saw blade device 6 cuts off the single spiral turn to form a buckle ring.When the material clamping drive mechanism is working and the pull rod is pulled, the material clamping slider seat 402 and the material clamping and leveling slider seat 403 move relative to each other and approach each other, and the two cutting clamps 404 approach and clamp the single spiral coil of the spiral cylinder at the far left end to prevent it from deflecting, and the cutting saw blade device 6 cuts off the single spiral coil to form a buckle ring; at this time, the shaping drive mechanism is working, and the cutting mandrel 407 on the shaping guide rail seat 401 moves to the right and the end is passed through the buckle ring and the opening of the buckle ring is stuck on the limiting plate of the cutting mandrel 407 to prevent deviation, ensuring that the buckle ring is always in the same state, and when the shaping push rod at the output end of the shaping drive mechanism rests on the corresponding shaping insert, the shaping slider seat moves to the right under its action, and the shaping limit rod limits the shaping slider seat to prevent it from continuing to move and causing an unsafe situation; at this time, the material clamping drive When the mechanism pushes the pull rod, the material clamping slider seat 402 and the material clamping and leveling block seat 403 move in opposite directions and move away from each other, loosening the buckle ring, and the front material clamping limit rod and the rear material clamping limit rod limit the material clamping slider seat 402 and the material clamping and leveling block seat 403 respectively; finally, the shaping drive mechanism is reset, and the cutting mandrel 407 with a single spiral ring is reset to the left, and the material clamping drive mechanism works to make the cutting clamp 406 on the cutting clamp 406 seat press on the half circle of the buckle ring on the cutting mandrel 407. At the same time, the leveling drive mechanism works to make the leveling push plate 405 press on the other half circle of the buckle ring and twist the buckle ring flat to become an ungrooved buckle ring, and the cutting saw blade device 5 grooves the ungrooved buckle ring to form a buckle ring; the leveling drive mechanism and the material clamping drive mechanism are reset, the buckle ring is loosened, and the buckle ring slides into the blanking box along the blanking guide rod.
[0055] The above-mentioned cutting saw blade device 6 includes a cutting saw blade guide rail seat installed on the frame 1, and a cutting saw blade slider seat driven by a cutting drive mechanism to move in a vertical direction is installed on the cutting saw blade guide rail seat, and a cutting saw blade shaft 601 driven by a cutting power mechanism to move in a front-to-back direction is installed on the cutting saw blade slider seat, and a cutting knife 602 perpendicular to the radial direction of the spiral cylinder is sleeved on the end of the cutting saw blade shaft 601; further, the horizontal position and front-to-back position of the cutting saw blade guide rail seat can be adjusted to facilitate the adjustment of the distance between the cutting knife 602 and the spiral cylinder, a cutting guide rail groove is provided on the rear side surface of the cutting saw blade guide rail seat, and a cutting guide rail is slidably connected in the cutting guide rail groove, and the cutting saw blade slider seat is slidably connected to the cutting guide rail, and a cutting motor seat is installed on the cutting saw blade slider seat, and the cutting power mechanism is installed on the cutting motor seat. The cutting power mechanism adopts a permanent magnet DC motor, and the cutting saw blade shaft 601 is installed at its output end; the circumference of the cutting knife 602 is set to be sawtooth-shaped, and the cutting knife 602 is set corresponding to the single spiral coil of the spiral cylinder located at the end.
[0056] The above-mentioned slitting saw blade device 5 includes a slitting saw blade guide seat installed on the frame 1, on which is installed a slitting saw blade slider seat driven by a saw blade driving mechanism to move in a vertical direction, on which is installed a slitting saw blade shaft 501 driven by a saw blade power mechanism to move in a horizontal direction, and on which is installed a slitting saw blade shaft 501, on which is installed a slitting knife 502 matched with a slitting positioning groove on the slitting clamp 406; further, the horizontal and front-back positions of the slitting saw blade guide seat can be adjusted to facilitate the adjustment of the slitting position. The distance between the groove cutter 502 and the buckle ring, a saw blade guide groove is opened on the rear side of the cutting saw blade guide seat, a saw blade guide is slidably connected in the saw blade guide groove, the cutting saw blade slider seat is slidably connected to the saw blade guide, a saw blade motor seat is installed on the cutting saw blade slider seat, the saw blade power mechanism is installed on the saw blade motor seat, the saw blade power mechanism adopts a permanent magnet DC motor, the cutting saw blade shaft 501 is installed at its output end, the circumference of the groove cutter 502 is set to be serrated, and the thickness of the groove cutter 502 matches the cutting positioning groove of the cutting clamp 406.
[0057] During operation, first, the sheet material is sleeved on the third supporting shaft and is located between the two third positive rings. The two third positive rings limit the sheet material. The length of the third distance is slightly larger than the length of the sheet material to ensure that it can pass smoothly after a slight deviation during transportation to avoid jamming; the sheet material output from the third drag shaft bypasses the second supporting shaft through the feed hole, and the two second positive rings on the second supporting shaft limit the sheet material to prevent excessive displacement during transportation and make it inconvenient to pass through the guide barrel; the sheet material output from the second supporting shaft passes through the guide barrel and the feed hole in turn and then bypasses the first supporting shaft before being output. The first distance is adapted to the width of the sheet material to ensure smooth transportation of the sheet material. By setting the second distance greater than the third distance, it is ensured that when conveying the sheet material, it can be adjusted to pass through the guide barrel and the material through hole smoothly, ensuring stable conveying; by setting the length of the first distance to the minimum, it is adapted to the width of the sheet material, ensuring that the sheet material maintains the accurate size of the passage, so as to facilitate the subsequent stable forming; when conveying the sheet material to the eye 201, the sheet material enters from the large-diameter end of the guide hole of the eye 201 forming channel, passes through the small-diameter end and the forming hole in turn to form a tubular preformed tube with a seam, and the seam of the preformed tube rides on the guide plate of the feeding positioning plate 202, and is output through the feeding channel of each group of feeding wheels 203.
[0058] Then, when the winding power mechanism is working, the winding connecting shaft 302 rotates and under the action of the rotating roller 304 on the winding rotating shaft 303, the synchronous matching wheel 305 rotates and moves to the left. At the same time, the winding shaft 307 rotates and moves to the left along with the synchronous matching wheel 305, and the winding shaft seat 301 moves forward or backward along the first linear guide rail with the winding shaft 307, so as to press the seam prefabricated pipe on the groove wall on the right side of the pipe winding groove, and feed the material to the left while winding to form a spiral cylinder; at the same time, the compaction drive mechanism works The push rod pushes the second slider seat forward, so that the pressure wheel 308 is pressed on the corresponding spiral prefabricated pipe, and the pressure is applied to the groove wall on the left side of the pipe winding groove to form a seamless prefabricated pipe, that is, a spiral cylinder. At this time, the compaction drive mechanism returns to its position and is ready to enter the next round of pressing and forming; the winding power mechanism returns to its position. When the origin induction ring detects that the winding connection shaft 302 rotates to the initial position, the proximity switch receives the signal and transmits the signal to the winding power mechanism. The winding power mechanism works to wind the seamed prefabricated pipe into a spiral shape and then transport it to the left. Among them, when forming a spiral spiral cylinder, when transporting the seamed prefabricated pipe, the seamed prefabricated pipe is pressed on one of the groove walls of the pipe winding groove. When the pressure wheel 308 presses on the corresponding seamed prefabricated pipe, pressure is applied to the other groove wall of the pipe winding groove, that is, the interfaces of the seamed prefabricated pipe are respectively pressed together to form a seamless prefabricated pipe, that is, a spiral spiral cylinder.
[0059] Finally, when the material clamping drive mechanism is working and the pull rod is pulled, the material clamping slider seat 402 and the material clamping and leveling slider seat 403 move relative to each other and approach each other, and the two cutting clamps 404 approach and clamp the single spiral coil of the spiral cylinder at the far left end to prevent it from deflecting, and the cutting knife 602 of the cutting saw blade device 6 cuts off the single spiral coil to form a buckle ring; at this time, the shaping drive mechanism is working, and the cutting mandrel 407 on the shaping guide rail seat 401 moves to the right and the end is passed through the buckle ring and the opening of the buckle ring is stuck on the limiting plate of the cutting mandrel 407 to prevent deviation and ensure that the buckle ring is always in the same state, and when the shaping push rod at the output end of the shaping drive mechanism rests on the corresponding shaping insert, the shaping slider seat moves to the right under its action, and the shaping limit rod limits the shaping slider seat to prevent it from continuing to move and causing an unsafe situation; at this time, the material clamping When the driving mechanism pushes the pull rod, the material clamping slider seat 402 and the material clamping and leveling block seat 403 move in opposite directions and move away from each other, loosening the buckle ring, and the front material clamping limit rod and the rear material clamping limit rod limit the material clamping slider seat 402 and the material clamping and leveling block seat 403 respectively; finally, the shaping driving mechanism is reset, and the cutting mandrel 407 with a single spiral ring is reset to the left, and the material clamping driving mechanism works to make the cutting clamp 406 on the cutting clamp 406 seat press on the half circle of the buckle ring on the cutting mandrel 407. At the same time, the leveling driving mechanism works to make the leveling push plate 405 press on the other half circle of the buckle ring and twist the buckle ring flat to become an ungrooved buckle ring, and the grooving knife 502 of the cutting saw blade device 5 grooves the ungrooved buckle ring to form a buckle ring; the leveling driving mechanism and the material clamping driving mechanism are reset, the buckle ring is loosened, and the buckle ring slides into the blanking box along the blanking guide rod.
[0060] The utility model provides a thread eye 201 to ensure that the sheet material enters from the large-diameter end of the guide hole of the thread eye 201 forming channel, and passes through the small-diameter end and the forming hole in turn to form a tubular prefabricated tube with a seam; provides a seam guide plate on the feeding positioning plate 202 to ensure that the seam of the tubular prefabricated tube with a seam is always stuck on the seam guide plate to ensure smooth transportation, avoid the occurrence of offset during transportation, resulting in jamming, damage, etc., so as to facilitate the smooth progress of subsequent work; provides a winding shaft 307 and a spiral winding groove on the winding shaft 307 to facilitate winding the prefabricated tube with a seam on the winding shaft 307; provides a pressing groove on the pressing wheel 308 and the conveyed prefabricated tube with a seam is respectively arranged to correspond to the two groove walls of the winding groove on the corresponding winding shaft 307, to ensure that the prefabricated tube with a seam is pressed into a seamless prefabricated tube, thereby forming a spiral spiral. Rotating cylinder; by setting two cutting clamps 404 that can be driven by the clamping drive mechanism to move closer and farther, the single spiral ring on the spiral cylinder can be clamped, ensuring that the cutting knife 602 can smoothly cut off the single spiral ring without deviation; by setting a cutting mandrel 407 driven by the shaping drive mechanism, and setting a limit plate on the cutting mandrel 407, so that the gap of the buckle ring is stuck on the limit plate and moves along the limit plate; by setting a cutting clamp 406, one half of the buckle ring is positioned; by setting a leveling push plate 405 driven by the leveling drive mechanism, it is pressed on the other half of the buckle ring and the buckle ring is twisted flat to become an ungrooved buckle ring; by setting a grooving knife 502 of a grooving saw blade device 5, the ungrooved buckle ring is grooved to form a buckle ring; by setting a grooving knife 502 of a grooving saw blade device 5, the ungrooved buckle ring is grooved to form a buckle ring. The utility model can continuously process sheet-shaped raw materials into buckles, thereby improving product quality and processing efficiency.
[0061] The above contents are merely examples and explanations of the structure of the utility model. The technicians in this technical field may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the structure of the utility model or exceed the scope defined by the utility model, they should all fall within the protection scope of the utility model.
Claims
1. A winding and cutting machine, comprising a frame (1), characterized in that: The frame (1) is provided with a thread eye (201) for making a sheet material into a prefabricated pipe with a seam. The frame (1) is also provided with a winding shaft (307) driven by a power mechanism and a pressing wheel (308) driven by a compaction driving mechanism. The winding shaft (307) is provided with a spiral pipe winding groove. The prefabricated pipe with a seam is wound in the pipe winding groove. The circumference of the pressing wheel (308) is provided with a pressing groove matching the prefabricated pipe with a seam. The prefabricated pipe with a seam and the pressing groove are respectively pressed on two groove walls of the corresponding pipe winding groove to press the prefabricated pipe with a seam into a seamless prefabricated pipe. The frame (1) is provided with a cutting saw blade device (6) for cutting the spiral seamless prefabricated pipe into buckle rings and a shaping device (4) for rounding the buckle rings. The frame (1) is also provided with a cutting saw blade device (5) for cutting grooves in the buckle rings.
2. The winding and cutting machine according to claim 1, characterized in that: A feeding device (2) is mounted on the frame (1), the feeding device (2) comprising a plurality of feeding groups mounted on the frame (1), each feeding group comprising two feeding wheels (203) arranged correspondingly in a vertical direction, a feeding groove being provided on the circumference of the feeding wheels (203), the two feeding grooves of each feeding wheel (203) being arranged correspondingly and forming a feeding channel matching the seam prefabricated pipe at adjacent locations; a feeding positioning piece (202) mounted on the frame (1) is also provided between the feeding channel and the thread eye (201).
3. The winding and cutting machine according to claim 2, characterized in that: A forming channel is provided at the center of the thread eye (201), and the forming channel comprises a trumpet-shaped material guide hole and a forming hole connected to the small-diameter end of the material guide hole.
4. The winding and cutting machine according to claim 2, characterized in that: The feeding positioning piece (202) comprises a mounting portion which is mounted on the eyelet bracket, and a seam guide plate is arranged on the top surface of the mounting portion at an end away from the eyelet bracket, wherein the thickness of the seam guide plate is adapted to the gap of the seam prefabricated pipe.
5. The winding and cutting machine according to claim 1, characterized in that: The shaping device (4) comprises a shaping guide rail seat (401) mounted on the frame (1), a shaping slide block seat driven by a shaping drive mechanism to move forward and backward in a horizontal direction is mounted on the shaping guide rail seat (401), a material clamping slide block seat (402) and a material clamping and leveling block seat (403) driven by a material clamping drive mechanism to move closer and farther are slidably connected to the shaping slide block seat, and a cutting clamping pliers (402) and a material clamping and leveling block seat (403) are mounted on the material clamping slide block seat (402) and the material clamping and leveling block seat (403). 04), the two cutting clamps (404) are correspondingly arranged and can clamp and release the single spiral ring at the end of the seamless prefabricated pipe; the shaping guide rail seat (401) is also equipped with a cutting mandrel (407) for conveying the buckle ring, the clamping slider seat (402) is equipped with a cutting clamp (406) for positioning the buckle ring on the cutting mandrel (407), and the clamping leveling block seat (403) is also equipped with a leveling push plate (405) driven by a leveling cylinder to make the cut buckle ring round.
6. The winding and cutting machine according to claim 5, characterized in that: The incision clamp (406) has an arc-shaped positioning plate adapted to the shape of the buckle ring, and an incision positioning groove adapted to the tube diameter of the buckle ring is provided on the inner arc surface of the positioning plate.
7. The winding and cutting machine according to claim 5, characterized in that: The cutting saw blade device (6) comprises a cutting saw blade slider seat driven by a cutting drive mechanism to move in a vertical direction, a cutting saw blade shaft (601) driven by a cutting power mechanism mounted on the cutting saw blade slider seat, and a cutting knife (602) radially perpendicular to a single spiral coil at the end of the seamless prefabricated pipe is sleeved on the end of the cutting saw blade shaft (601).
8. The winding and cutting machine according to claim 6, characterized in that: The slitting saw blade device (5) comprises a slitting saw blade slider seat mounted on a frame (1) and driven by a saw blade driving mechanism to move in a vertical direction, a slitting saw blade shaft (501) driven by a saw blade power mechanism to move in a horizontal direction is mounted on the slitting saw blade slider seat, and a slitting saw blade shaft (501) is mounted on the end of the slitting saw blade shaft (501) to match a slitting positioning groove on a slitting clamp (406).