A combined die-cutting device
By combining the automatic feeding and waste recycling and breakage prevention mechanism of the die-cutting device, the problems of manual feeding and waste breakage in die-cutting equipment are solved, and the production efficiency and reliability of waste recycling are improved.
Patent Information
- Application Number
- CN202310649709.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2023-06-02
- Publication Date
- 2025-07-25
- Estimated Expiration
- 2043-06-02
AI Technical Summary
Existing die-cutting equipment requires manual and frequent loading of materials during operation. When the waste is separated, the waste may be pulled out and the material is lost, which consumes time.
A combined die-cutting device is designed, including an automatic feeding mechanism and a waste recycling and breakage prevention mechanism. The automatic feeding mechanism realizes automatic positioning and pushing of materials through the meshing of electric slides and gears. The waste recycling and breakage prevention mechanism detects tension through induction rollers and uses oblique movement and arc-shaped hooks to rewind the broken waste back to the waste roller.
It realizes reducing manual operations during die cutting, improving production efficiency and quality, avoiding waste breakage affecting the finished product, and ensuring smooth waste recycling.
Smart Images

Figure CN116604649B_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of die-cutting, and specifically, to a combined die-cutting device. Background Art
[0002] Die-cutting equipment is widely used in consumer electronics, heavy industrial equipment, household appliances, automobiles and airplanes, military equipment, etc.
[0003] In the existing die-cutting equipment, the utilization rate of labor is still very high during the working process. During the feeding process, workers need to wait beside for work. If the 3M tape to be die-cut is uneven, it needs to be flattened, which increases the workload and working hours. During the waste material treatment, if the waste material is broken during the winding process, workers also need to manually restore the waste material of the 3M tape to the waste material roller beside. At this time, the broken waste material may cause blockage at the waste material separation part and damage the final product. Summary of the Invention
[0004] The present invention provides a combined die-cutting device, which solves the problems that in the existing die-cutting machine during operation, manual feeding is still required frequently, and when the final product is separated from the waste material, the waste material may be broken, resulting in material loss and time consumption.
[0005] The technical solution of the present invention is as follows:
[0006] A combined die-cutting device includes a chassis, on which a first support platform is installed, a feeding platform is installed, and a first support plate is installed.
[0007] It further includes
[0008] A die-cutting mechanism, which is installed on the chassis and performs die-cutting of the material to be die-cut into a specific shape.
[0009] A waste material recycling and anti-breaking mechanism, which is installed on the first support plate.
[0010] An automatic feeding mechanism, which is installed on the feeding platform.
[0011] As a further technical solution, the automatic feeding mechanism includes
[0012] A support frame, which is provided with two and symmetrically installed on the chassis.
[0013] A fixed limiting component, which is installed on the feeding platform.
[0014] As a further technical solution, the fixed limiting component includes
[0015] The first slide rail, there are two of the first slide rails, and the two first slide rails are symmetrically installed on the feeding platform.
[0016] The first electric slide seat, there are two of the first electric slide seats, and the two first electric slide seats slide symmetrically on the first slide rail.
[0017] The first push plate, there are two of the first push plates, and the two first push plates are symmetrically installed on the first electric slide seat.
[0018] The pushing component is installed on the feeding platform.
[0019] As a further technical solution, the pushing component includes
[0020] The first fixed shaft seat, there are two of the first fixed shaft seats, and the two first fixed shaft seats are symmetrically installed on the feeding platform.
[0021] The second fixed shaft seat, there are two of the second fixed shaft seats, and the two second fixed shaft seats are symmetrically installed on the feeding platform.
[0022] The first rotating shaft is rotatably installed between the two first fixed shaft seats.
[0023] The first gear is installed on the first rotating shaft.
[0024] The second rotating shaft is installed on the second fixed shaft seat.
[0025] The second gear is installed on the second rotating shaft.
[0026] The first gear meshes with the second gear.
[0027] The second slide rail, there are two of the second slide rails, and they are symmetrically installed on the feeding platform.
[0028] The third electric slide seat, there are two of the third electric slide seats, and they slide symmetrically on the second slide rail.
[0029] The first rack is installed on the third electric slide seat.
[0030] The T-shaped support plate is installed on the first rack.
[0031] The second push plate is installed on the T-shaped support plate.
[0032] The telescopic rod support plate is installed on the support frame.
[0033] The material pushing component is installed on the telescopic rod support plate.
[0034] As a further technical solution, the material pushing component includes
[0035] A telescopic rod installed on the telescopic rod support plate
[0036] An electric rotating shaft seat fixedly connected to the telescopic rod
[0037] A positioning plate installed on the electric rotating shaft seat
[0038] There are two pushing bars, and the two pushing bars are symmetrically installed on the positioning plate.
[0039] As a further technical solution, the die-cutting mechanism includes
[0040] There are two third support plates, and the two third support plates are symmetrically installed on the chassis.
[0041] A second support plate installed on the third support plate
[0042] The second support plate is installed on the first support platform.
[0043] A fourth support plate installed on the third support plate
[0044] A first material shaft installed on the second support plate
[0045] An eighth rotating shaft installed between the two support frames
[0046] A seventh rotating shaft installed on the three support plates
[0047] A conveyor belt installed between the eighth rotating shaft and the seventh rotating shaft
[0048] A die-cutting machine installed on the chassis
[0049] There are two first support plates, and the two first support plates are symmetrically installed on the chassis.
[0050] A second material shaft installed on the first support plate
[0051] A third material shaft installed on the third material shaft
[0052] Flattening assembly, the flattening assembly is installed on the second support plate.
[0053] As a further technical solution, the flattening assembly includes,
[0054] The first motor base, the first motor base is installed on the second support plate,
[0055] The first power motor, the first power motor is installed on the first motor base,
[0056] The fourth rotating shaft, the fourth rotating shaft is fixedly connected to the output shaft of the first power motor,
[0057] The edge pressing wheels, there are two edge pressing wheels, and the two edge pressing wheels are symmetrically installed on the fourth rotating shaft.
[0058] As a further technical solution, the waste recycling and anti-breaking mechanism includes,
[0059] The fourth rotating shaft a, there are two fourth rotating shafts a, and the two fourth rotating shafts a are symmetrically installed on the first support plate,
[0060] The third slide rail, there are two third slide rails, and the two third slide rails are symmetrically installed on the fourth rotating shaft a,
[0061] The fourth electric slide seat, there are two fourth electric slide seats, and the two fourth electric slide seats slide symmetrically on the third slide rail,
[0062] The connecting rod, there are two connecting rods, and the two connecting rods are symmetrically installed on the fourth electric slide seat,
[0063] The electric telescopic block, there are two electric telescopic blocks, and the two electric telescopic blocks are symmetrically installed on the connecting rod,
[0064] The gear bracket, the gear bracket is installed on the fourth rotating shaft a,
[0065] The first support, the first support is installed on the gear bracket,
[0066] The second support, the second support is installed on the gear bracket,
[0067] The ninth rotating shaft, the ninth rotating shaft is installed on the first support,
[0068] The third gear, the third gear is installed on the ninth rotating shaft,
[0069] The sensor fixing seat, there are two sensor fixing seats, and the two sensor fixing seats are symmetrically installed on the first support plate,
[0070] The induction roller assembly is installed on the induction fixing seat.
[0071] As a further technical solution, the induction roller assembly includes:
[0072] A positioning inclined plate, the positioning inclined plate is installed on the sensor fixing seat,
[0073] A rotating induction roller is mounted on the positioning inclined plate.
[0074] As a further technical solution, the waste recycling and anti-breaking mechanism also includes:
[0075] a second supporting platform, the second supporting platform being mounted on the first supporting plate,
[0076] A rotating shaft support seat, the rotating shaft support seat is installed on the second supporting platform,
[0077] A second motor seat, wherein the second motor seat is mounted on the rotating shaft support seat,
[0078] a second power motor, the second power motor being mounted on the second motor seat,
[0079] a waste roller, the waste roller being mounted on the second power motor,
[0080] A fifth rotating shaft, the fifth rotating shaft is installed on the rotating shaft support seat,
[0081] A fixing rod, the fixing rod is installed on the rotating shaft support seat,
[0082] a fixing plate, the fixing plate being mounted on the fixing rod,
[0083] a sixth rotating shaft, the sixth rotating shaft being mounted on the fixing plate,
[0084] A rectangular bar shaft rod is mounted on the fixed plate.
[0085] A bar hook, wherein the bar hook is mounted on the fifth rotating shaft,
[0086] A toggle bar, the toggle bar is installed on the rectangular bar shaft rod,
[0087] a fourth gear, the fourth gear being mounted on the sixth rotating shaft,
[0088] a fifth gear, the fifth gear being mounted on the waste roller,
[0089] a sixth gear, the sixth gear being mounted on the fifth rotating shaft,
[0090] The driving wheel is installed on the rectangular bar rotating shaft on the fifth rotating shaft.
[0091] The waste bin is installed on the chassis.
[0092] The working principle and beneficial effects of the present invention are as follows:
[0093] During the working process of the die-cutting machine in the present invention, the automatic feeding mechanism starts to feed the material shaft, reducing the use of manual labor and accelerating the quality and efficiency in the production work. When the material reaches the conveyor belt, there is a flattening wheel at the upper end of the conveyor belt. In order to achieve better production, the material with slight deformation can be flattened. When the material is completed through the die-cutting process, it reaches the step where the product and waste are separated. If the waste breaks during the process of being wound onto the waste roller, the waste recycling anti-breakage mechanism starts to work. The waste will follow the rotating induction roller to reach the waste roller. The rotating induction roller will detect the tension during the process of the waste being wound in. If the waste is broken, the waste anti-breakage recycling mechanism will hook the broken side, and then use the oblique moving direction to make the broken waste reach the hoop-entering position. Then, with the help of the dialing bar, the arc-shaped hook will put the material at the hoop-entering opening back onto the waste roller again, and the die-cutting machine resumes working. BRIEF DESCRIPTION OF THE DRAWINGS
[0094] The present invention will be further described in detail below in conjunction with the drawings and specific embodiments.
[0095] Figure 1 Three-dimensional structure schematic diagram of the combined die-cutting device of the present invention Figure 1 ;
[0096] Figure 2 Three-dimensional structure schematic diagram of the combined die-cutting device of the present invention Figure 2 ;
[0097] Figure 3 Three-dimensional structure schematic diagram of the automatic feeding mechanism in the present invention Figure 1 ;
[0098] Figure 4 Three-dimensional structure schematic diagram of the automatic feeding mechanism in the present invention Figure 2 ;
[0099] Figure 5 Three-dimensional structure schematic diagram of the automatic feeding mechanism in the present invention Figure 3 ;
[0100] Figure 6 Three-dimensional structure schematic diagram of the automatic feeding mechanism in the present invention Figure 4 ;
[0101] Figure 7 Three-dimensional structure schematic diagram of the automatic feeding mechanism in the present invention Figure 5 ;
[0102] Figure 8 It is a schematic diagram of the three-dimensional structure of the die-cutting mechanism in the present invention;
[0103] Figure 9 Schematic diagram of the three-dimensional structure of the waste recovery and anti-break mechanism in the present invention Figure 1 ;
[0104] Figure 10 Schematic diagram of the three-dimensional structure of the waste recovery and anti-break mechanism in the present invention Figure 2 ;
[0105] Figure 11 Schematic diagram of the three-dimensional structure of the waste recovery and anti-break mechanism in the present invention Figure 3 ;
[0106] Figure 12 Schematic diagram of the three-dimensional structure of the waste recovery and anti-break mechanism in the present invention Figure 4 ;
[0107] In the figure: 1, chassis; 2, first support platform; 3, first support plate; 4, second support plate; 5, third support plate; 6, fourth support plate; 7, feeding platform; 8, first fixed shaft seat; 9, second fixed shaft seat; 10, first slide rail; 11, first electric slide seat; 12, second electric slide seat; 13, first rotating shaft; 14, first gear; 15, second rotating shaft; 16, second gear; 17, second slide rail; 18, third electric slide seat; 19, first bar; 20, T-shaped support plate; 21, first push plate; 22, telescopic rod support plate; 23, first telescopic rod; 24, third rotating shaft; 25, positioning plate; 26, push bar; 27, first material shaft; 28, first motor seat; 29, first power motor; 30, fourth rotating shaft; 31, edge pressing wheel; 32, die cutting machine; 33, second material shaft; 34, sensor fixing seat ;35. Positioning inclined plate;36. Rotation sensor;37. Fourth rotating shaft a;38. Third slide rail;39. Fourth electric slide seat;40. Connecting rod;41. Electric telescopic block;42. Gear bracket;43. First support;44. Second support;45. Third gear;46. Third material shaft;47. Second supporting platform;48. Rotating shaft support seat;49. Second motor seat;50. Second power motor;51. Waste roller;52. Fifth rotating shaft;53. Rectangular bar rotating shaft rod;54. Sixth rotating shaft;55. Bar hook;56. Toggle bar;57. Fourth gear;58. Fifth gear;59. Sixth gear;60. Transmission wheel;61. Fixed plate;62. Waste barrel;63. Support frame;64. Conveyor belt;65. Seventh rotating shaft;66. Eighth rotating shaft;67. Ninth rotating shaft;68. Fixed rod;69. Second push plate. DETAILED DESCRIPTION
[0108] Next, in combination with the embodiments of the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts fall within the scope of protection of the present invention.
[0109] As Figures 1 to 12 shown, this embodiment proposes a combined die-cutting device, including a chassis 1, a support platform 2, a first support plate 3, and a feeding platform 7. The chassis 1 is installed with the first support platform 2, the chassis 1 is installed with the feeding platform 7, and the first support plate 3 is installed on the chassis 1. It also includes
[0110] a die-cutting mechanism, which is installed on the chassis 1 and performs die-cutting of the material to be die-cut into a specific shape.
[0111] a waste recycling and anti-breaking mechanism, which is installed on the first support plate 3.
[0112] an automatic feeding mechanism, which is installed on the feeding platform 7.
[0113] In this embodiment, the automatic feeding mechanism places the material on the material shaft, the material enters the conveyor belt, and after die-cutting, waste separation is carried out.
[0114] The automatic feeding mechanism includes
[0115] a support frame 63, which is provided with two and symmetrically installed on the chassis 1.
[0116] a fixed limit component, which is installed on the feeding platform 7.
[0117] The fixed limit component includes
[0118] two first slide rails 10, which are symmetrically installed on the feeding platform 7.
[0119] two first electric slide seats 11, which symmetrically slide on the first slide rails 10.
[0120] two first pushing plates 21, which are symmetrically installed on the first electric slide seats 11.
[0121] a pushing component, which is installed on the feeding platform 7.
[0122] The pushing component includes
[0123] The first fixed shaft seat 8, there are two of the first fixed shaft seats 8, and the two first fixed shaft seats 8 are symmetrically installed on the feeding platform 7.
[0124] The second fixed shaft seat 9, there are two of the second fixed shaft seats 9, and the two second fixed shaft seats 9 are symmetrically installed on the feeding platform 7.
[0125] The first rotating shaft 13, the first rotating shaft 13 is rotatably installed between the two first fixed shaft seats 8.
[0126] The first gear 14, the first gear 14 is installed on the first rotating shaft 13.
[0127] The second rotating shaft 15, the second rotating shaft 15 is installed on the second fixed shaft seat 9.
[0128] The second gear 16, the second gear 16 is installed on the second rotating shaft 15.
[0129] The first gear 14, the first gear 14 meshes with the second gear 16.
[0130] The second slide rail 17, there are two of the second slide rails 17, and they are symmetrically installed on the feeding platform 7.
[0131] The third electric slide seat 18, there are two of the third electric slide seats 18, and they symmetrically slide on the second slide rail 17.
[0132] The first rack 19, the first rack 19 is installed on the third electric slide seat 18.
[0133] The T-shaped support plate 20, the T-shaped support plate 20 is installed on the first rack 19.
[0134] The second push plate 69, the second push plate 69 is installed on the T-shaped support plate 20.
[0135] The telescopic rod support plate 22, the telescopic rod support plate 22 is installed on the support frame 63.
[0136] The pushing component, the pushing component is installed on the telescopic rod support plate 22.
[0137] The pushing component includes,
[0138] The telescopic rod 23, the telescopic rod 23 is installed on the telescopic rod support plate 22.
[0139] The electric rotating shaft seat 24, the electric rotating shaft seat 24 is fixedly connected to the telescopic rod 23.
[0140] The positioning plate 25 is installed on the electric rotating shaft seat 24.
[0141] There are two pushing bars 26, and the two pushing bars 26 are symmetrically installed on the positioning plate 25.
[0142] In this embodiment, the automatic feeding mechanism is installed on the support frame 63. A variety of materials are placed on the feeding platform 7. Two first pushing plates 21 symmetrically arranged on the feeding platform 7 slide on the first slide rail 10 through the first electric slide seat 11 to position the placed materials. The lower first rack 19 slides forward through the third electric slide seat 18 installed on the second slide rail 17 to push the 3M tape. The first gear 14 installed on the first rotating shaft 13 and the second gear 16 installed on the second rotating shaft 15 are driven to rotate by the transmission of the first rack 19. The two gears also mesh with each other, playing a role in limiting the first rack 19, so that the first rack 19 and the first electric slide seat 11 perform reciprocating motions. When the first rack 19 makes a reciprocating motion, when the first rack 19 reaches the extreme limit position, the first gear 14 and the second gear 16 move on the first rack 19. Through the meshing of the two gears, a limiting effect on the first rack 19 is achieved. When the first rack 19 reaches the front extreme limit position, the first gear 14 and the second gear 16 mesh to make the first rack 19 perform a backward extreme motion again to achieve the reset effect. When the T-shaped support plate 20 installed on the first rack 19 and the second pushing plate 69 installed on the T-shaped support plate 20 push the material to the predetermined position and then return to the original position. When the material reaches the first material shaft 27 installed on the second support plate 4, the telescopic rod 23 installed on the telescopic rod support plate 22 has its front end fixedly connected to the electric rotating shaft seat 24. The positioning plate 25 is installed on the electric rotating shaft seat 24, and two symmetric pushing bars 26 are installed on the positioning plate 25. The electric rotating shaft seat 24 drives the positioning plate 25 to rotate 180 degrees while the telescopic rod 23 expands and contracts, pushing the outside of the material and placing it in the predetermined position of the first material shaft 27. After the pushing is completed, it will return to the predetermined position.
[0143] The die-cutting mechanism includes
[0144] There are two third support plates 5, and the two third support plates 5 are symmetrically installed on the chassis 1.
[0145] The second support plate 4 is installed on the third support plate 5.
[0146] The second support plate 4 is installed on the first support platform 2.
[0147] The fourth support plate 6 is installed on the third support plate 5.
[0148] The first material shaft 27 is installed on the second support plate 4.
[0149] The eighth rotating shaft 66 is installed between two of the support frames 63.
[0150] The seventh rotating shaft 65 is installed on the triple support plate 5.
[0151] The conveyor belt 64 is installed between the eighth rotating shaft 66 and the seventh rotating shaft 65.
[0152] The die-cutting machine 32 is installed on the chassis 1.
[0153] There are two first support plates 3, and the two first support plates 3 are symmetrically installed on the chassis 1.
[0154] The second material shaft 33 is installed on the first support plate 3.
[0155] The third material shaft 46 is installed on the third material shaft 46.
[0156] The flattening assembly is installed on the second support plate 4.
[0157] The flattening assembly includes:
[0158] The first motor base 28 is installed on the second support plate 4.
[0159] The first power motor 29 is installed on the first motor base 28.
[0160] The fourth rotating shaft 30 is fixedly connected to the output shaft of the first power motor 29.
[0161] There are two edge-pressing wheels 31, and the two edge-pressing wheels 31 are symmetrically installed on the fourth rotating shaft 30.
[0162] In this embodiment, the die-cutting mechanism is installed on the chassis 1. When the material passes through the first material shaft 27 and reaches the conveyor belt 64, the first power motor 29 installed on the first motor base 28 drives the fourth rotating shaft 30 installed on the first power motor 29 to rotate. The edge pressing wheel 31 installed on the fourth rotating shaft 30 flattens the 3M tape material passing from below, and there will be no warping phenomenon. Driven by the conveyor belt 64, the 3M tape material enters the die-cutting machine 32 installed on the chassis 1. After die-cutting, it is separated when it reaches the positioning inclined plate 35 driven by the second material shaft 33. The positioning inclined plate 35 is placed obliquely and installed between two sensors 34, forming a downward and obliquely downward outlet at the die-cutting machine discharge port. Driven by the second material shaft 33, the waste of the 3M tape is separated from the final product.
[0163] The waste recycling and anti-breaking mechanism includes,
[0164] Two fourth rotating shafts a37, which are symmetrically installed on the first support plate 3.
[0165] Two third sliding rails 38, which are symmetrically installed on the fourth rotating shaft a37.
[0166] Two fourth electric sliding seats 39, which symmetrically slide on the third sliding rails 38.
[0167] Two connecting rods 40, which are symmetrically installed on the fourth electric sliding seats 39.
[0168] Two electric telescopic blocks 41, which are symmetrically installed on the connecting rods 40.
[0169] The gear support 42 is installed on the fourth rotating shaft a37.
[0170] The first support 43 is installed on the gear support 42.
[0171] The second support 44 is installed on the gear support 42.
[0172] The ninth rotating shaft 67 is installed on the first support 43.
[0173] The third gear 45 is installed on the ninth rotating shaft 67.
[0174] The sensor fixing seat 34 is provided with two sensor fixing seats 34, and the two sensor fixing seats 34 are symmetrically installed on the first supporting plate 3,
[0175] The induction roller assembly is installed on the induction fixing seat 34 .
[0176] The induction roller assembly comprises:
[0177] A positioning inclined plate 35 is installed on the sensor fixing seat 34.
[0178] The rotating induction roller 36 is installed on the positioning inclined plate 35 .
[0179] The waste recycling and anti-break mechanism also includes:
[0180] A second supporting platform 47, wherein the second supporting platform 47 is installed on the first supporting plate 3,
[0181] The shaft support seat 48 is installed on the second support platform 47.
[0182] The second motor seat 49 is mounted on the shaft support seat 48.
[0183] A second power motor 50 is installed on the second motor seat 49.
[0184] A waste roller 51, wherein the waste roller 51 is mounted on the second power motor 50,
[0185] The fifth rotating shaft 52 is installed on the rotating shaft support seat 48.
[0186] A fixing rod 68, the fixing rod 68 is installed on the rotating shaft support seat 48,
[0187] A fixing plate 61, wherein the fixing plate 61 is mounted on the fixing rod 68,
[0188] The sixth rotating shaft 54 is mounted on the fixing plate 61.
[0189] A rectangular bar shaft rod 53 is mounted on the fixing plate 61.
[0190] A bar hook 55, wherein the bar hook 55 is mounted on the fifth rotating shaft 52,
[0191] A toggle bar 56 is installed on the rectangular bar shaft rod 53.
[0192] The fourth gear 57, the fourth gear 57 is installed on the sixth rotating shaft 54,
[0193] The fifth gear 58, the fifth gear 58 is installed on the waste roller 51,
[0194] The sixth gear 59, the sixth gear 59 is installed on the fifth rotating shaft 52,
[0195] The transmission wheel 60, the transmission wheel 60 is installed on the rectangular bar rotating shaft rod 53 and the fifth rotating shaft 52,
[0196] The waste bin 62, the waste bin 62 is installed on the chassis.
[0197] In this embodiment, the waste recovery and anti-break mechanism is installed on the second support platform 47, and the waste separation is at the positioning inclined plate 35 installed on the sensor fixing seat 34. The positioning inclined plate 35 separates the waste. The separation process is when the initial material of the 3M tape passes through the die-cutting machine and reaches the waste separation after the die-cutting is completed to realize a waste separation process. When the 3M waste reaches the waste separation, there will be some oblique outlets at the lower end of the positioning inclined plate 35 to separate the finished product from the waste. The finished product will enter the third material shaft 46, and the 3M waste will enter the waste roller. The finished product passes through the third material shaft below. 46 is transported to the next process, and the waste will be sent to the waste roller 51 above along with the rotating induction roller 36 installed on the positioning inclined plate 35. The waste roller 51 is driven by the second power motor 50 to rotate and roll up the waste. After completing the work, the fixed plate 61 installed on the fixed rod 68 is driven by the fixed rod 68 to push the waste into the waste bucket below. The rotating induction roller 36 will sense the tension pulled by the waste when it is transmitted upward. When the waste breaks, the electric telescopic block 41 will receive a prompt from the rotating induction roller 36, so that the broken 3M tape waste stays on the electric telescopic block 41, and the electric telescopic block 41 is provided with two symmetrically mounted on the connecting rod 40, the connecting rod 40 is installed on the fourth electric slide 39, the connecting rod 40 is provided with two symmetrically mounted on the fourth electric slide 39, driving the connecting rod 40 and the electric telescopic block 41 to slide on the third slide rail 38, the third slide rail 38 is driven to rotate by the fourth rotating shaft a37, the third slide rail 38 is provided with two symmetrically mounted on the fourth rotating shaft a37, the fourth rotating shaft a37 is provided with two symmetrically mounted on the first support plate 3, the gear bracket 42 is installed on the third slide rail 38, the first support 43 and the second support 44 The third gear 45 fixed on the ninth rotating shaft 67 and the fourth rotating shaft a37 on both sides drive the third slide rails 38 on both sides to rotate, and the third gear 45 is meshed with the fourth gear 57 and the fifth gear 58, and the linkage is realized through the power of the waste roller 51. The transmission wheel 60 installed on the distance bar rotating shaft rod 53 is linked with the fifth gear 58, and the toggle bar 56 installed on the distance bar rotating shaft rod 53 and the arc hook 55 installed on the fifth rotating shaft 52 are driven. When the broken waste reaches the predetermined position, the toggle bar 56 toggle the front end of the broken waste onto the arc hook 55. Through the linkage of the previous step, the arc hook 55 is driven to rotate the waste roller 51 180 degrees. When the waste is already fixed on the waste roller 51, the fourth rotating shaft a37 rotates to the original position, and the third gear 45 is disengaged from the fourth gear 57 and the fifth gear 58. At this time, the die-cutting machine operates normally.
[0198] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.
Claims
1. A combined die-cutting device, comprising a chassis (1), a first support platform (2) is installed on the chassis (1), a feeding platform (7) is installed on the chassis (1), and a first support plate (3) is installed on the chassis (1). It is characterized in that It further includes a die-cutting mechanism, which is installed on the chassis (1) and performs die-cutting of materials to be die-cut into a specific shape. a waste recycling and anti-breaking mechanism, which is installed on the first support plate (3). an automatic feeding mechanism, which is installed on the feeding platform (7). The automatic feeding mechanism includes a support frame (63), and two support frames are symmetrically installed on the chassis (1). a fixed limiting component, which is installed on the feeding platform (7). The fixed limiting component includes two first sliding rails (10), and the two first sliding rails (10) are symmetrically installed on the feeding platform (7). two first electric sliding seats (11), and the two first electric sliding seats (11) slide symmetrically on the first sliding rails (10). two first pushing plates (21), and the two first pushing plates (21) are symmetrically installed on the first electric sliding seats (11). a pushing component, which is installed on the feeding platform (7). The pushing component includes two first fixed shaft seats (8), and the two first fixed shaft seats (8) are symmetrically installed on the feeding platform (7). two second fixed shaft seats (9), and the two second fixed shaft seats (9) are symmetrically installed on the feeding platform (7). a first rotating shaft (13), which is rotatably installed between the two first fixed shaft seats (8). a first gear (14), which is installed on the first rotating shaft (13). a second rotating shaft (15), which is installed on the second fixed shaft seat (9). a second gear (16), which is installed on the second rotating shaft (15). The first gear (14) meshes with the second gear (16). two second sliding rails (17), which are symmetrically installed on the feeding platform (7). two third electric sliding seats (18), which slide symmetrically on the second sliding rails (17). a first rack (19), which is installed on the third electric sliding seat (18). a T-shaped support plate (20), which is installed on the first rack (19). a second pushing plate (69), which is installed on the T-shaped support plate (20). a telescopic rod support plate (22), which is installed on the support frame (63). The material pushing component is installed on the telescopic rod support plate (22).
2. The combined die-cutting device according to claim 1, characterized in that, The material pushing component includes: A telescopic rod (23) installed on the telescopic rod support plate (22), An electric rotating shaft seat (24) fixedly connected to the telescopic rod (23), A positioning plate (25) installed on the electric rotating shaft seat (24), Two pushing bars (26) symmetrically installed on the positioning plate (25).
3. The combination die-cutting device according to claim 2, characterized in that, The die-cutting mechanism includes: Two third support plates (5) symmetrically installed on the chassis (1), A second support plate (4) installed on the third support plate (5), The second support plate (4) is installed on the first support platform (2), A fourth support plate (6) installed on the third support plate (5), A first material shaft (27) installed on the second support plate (4), An eighth rotating shaft (66) installed between two support frames (63), A seventh rotating shaft (65) installed on the third support plate (5), A conveyor belt (64) installed between the eighth rotating shaft (66) and the seventh rotating shaft (65), A die-cutting machine (32) installed on the chassis (1), Two first support plates (3) symmetrically installed on the chassis (1), A second material shaft (33) installed on the first support plate (3), A third material shaft (46) installed on the third material shaft (46), A flattening component installed on the second support plate (4).
4. The combined die-cutting device according to claim 3, characterized in that, The flattening component includes: A first motor seat (28) installed on the second support plate (4), A first power motor (29) installed on the first motor seat (28), A fourth rotating shaft (30) fixedly connected to the output shaft of the first power motor (29), Two edge pressing wheels (31) symmetrically installed on the fourth rotating shaft (30).
5. The combined die-cutting device according to claim 4, wherein, The waste recycling and anti-breaking mechanism includes: Two fourth rotating shafts a (37) symmetrically installed on the first support plate (3), Two third slide rails (38) symmetrically installed on the fourth rotating shafts a (37), a fourth electric slide seat (39), wherein two fourth electric slide seats (39) are provided, and the two fourth electric slide seats (39) slide symmetrically on the third slide rail (38). A connecting rod (40), wherein two connecting rods (40) are provided, and the two connecting rods (40) are symmetrically mounted on the fourth electric slide seat (39). An electric telescopic block (41), wherein two electric telescopic blocks (41) are provided, and the two electric telescopic blocks (41) are symmetrically mounted on the connecting rod (40). a gear bracket (42), wherein the gear bracket (42) is mounted on the fourth rotating shaft a (37), a first support (43), wherein the first support (43) is mounted on the gear support (42), a second support (44), the second support (44) being mounted on the gear support (42), a ninth rotating shaft (67), the ninth rotating shaft (67) being mounted on the first support (43), a third gear (45), the third gear (45) being mounted on the ninth rotating shaft (67), A sensor fixing seat (34), wherein two sensor fixing seats (34) are provided, and the two sensor fixing seats (34) are symmetrically mounted on the first supporting plate (3). An induction roller assembly, wherein the induction roller assembly is mounted on the induction fixing seat (34).
6. The combination die-cutting device according to claim 5, characterized in that, The induction roller assembly comprises: a positioning inclined plate (35), wherein the positioning inclined plate (35) is mounted on the sensor fixing seat (34), A rotating induction roller (36) is mounted on the positioning inclined plate (35).
7. The combined die-cutting device according to claim 6, characterized in that, The waste recycling and anti-break mechanism also includes: a second supporting platform (47), wherein the second supporting platform (47) is mounted on the first supporting plate (3), a rotating shaft support seat (48), wherein the rotating shaft support seat (48) is mounted on the second supporting platform (47), a second motor seat (49), the second motor seat (49) being mounted on the rotating shaft support seat (48), a second power motor (50), wherein the second power motor (50) is mounted on the second motor base (49), a waste roller (51), wherein the waste roller (51) is mounted on the second power motor (50), a fifth rotating shaft (52), the fifth rotating shaft (52) being mounted on the rotating shaft support seat (48), a fixing rod (68), the fixing rod (68) being mounted on the rotating shaft support seat (48), a fixing plate (61), the fixing plate (61) being mounted on the fixing rod (68), a sixth rotating shaft (54), the sixth rotating shaft (54) being mounted on the fixing plate (61), A rectangular bar rotating shaft rod (53), wherein the rectangular bar rotating shaft rod (53) is mounted on the fixing plate (61) a bar-shaped hook (55), wherein the bar-shaped hook (55) is mounted on the fifth rotating shaft (52), a toggle bar (56), wherein the toggle bar (56) is mounted on the rectangular bar rotating shaft rod (53), a fourth gear (57), the fourth gear (57) being mounted on the sixth rotating shaft (54), The fifth gear (58), the fifth gear (58) is mounted on the waste roller (51), The sixth gear (59), the sixth gear (59) is mounted on the fifth rotating shaft (52), The transmission wheel (60), the transmission wheel (60) is mounted on the rectangular bar rotating shaft rod (53) and the fifth rotating shaft (52), The waste bucket (62), the waste bucket (62) is mounted on the chassis.
Citation Information
Patent Citations
Waste collecting mechanism for foam processing
CN116079811A
Efficient printed matter die cutting device
CN214136381U