Machine core of full-automatic riveting binding machine

By designing the core of the fully automatic riveting binding machine, and adopting a position switching device and gear system, the synchronous operation and independent drive of multiple components are realized. This solves the problems of complex drive devices and dangerous semi-automatic operation in existing binding machines, and achieves a compact layout, simple structure and easy maintenance.

CN224013272UActive Publication Date: 2026-03-20GUANGDONG PIAOYOU INTELLIGENT TECH CO LTD
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Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Filing Date
2025-02-18
Publication Date
2026-03-20

AI Technical Summary

Technical Problem

Existing fully automatic binding machines suffer from problems such as a large number of drive devices, complex structure, easy mutual interference, and high maintenance costs. Semi-automatic binding machines are also cumbersome to operate and pose certain dangers.

Method used

The machine adopts a fully automatic riveting and binding machine mechanism, which realizes the synchronous operation of multiple components through a position switching device and gear system, simplifies the drive structure, and sets the drilling and riveting devices along the axis. It adopts an independent drive device to ensure the independent operation of each component and modular design.

Benefits of technology

It achieves a compact layout and clear flow of multiple components, has a simple structure, is easy to maintain, meets the needs of fully automatic and manual operation, and improves operational safety and equipment maintainability.

✦ Generated by Eureka AI based on patent content.

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Abstract

The utility model relates to the technical field of bookbinding machines, in particular to a full-automatic press riveting bookbinding machine core which is characterized by comprising a machine frame, a bookbinding platform installed in the middle of the machine frame, a material pressing device, a punching device, an upper press riveting device and a pipe cutting device which are installed above the bookbinding platform, and a lower press riveting device installed below the bookbinding platform. A tool bit guide device is slidably mounted on the binding platform; the punching device is located above the material pressing device, the material pressing device is provided with a cavity, the upper rivet pressing device comprises an upper rivet head, and the upper rivet head is installed in the cavity of the material pressing device in a sliding mode; a position switching device is arranged on the machine frame and located between the upper rivet pressing device and the tool bit guiding device, and the position switching device is in linkage with the upper rivet pressing device and the tool bit guiding device through a gear and a rack. The machine core is reasonable in layout, compact in component arrangement, clear in moving line, simple in structure and convenient to maintain.
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Description

TECHNICAL FIELD

[0001] The utility model relates to the technical field of binding machine, especially disclose a full -automatic rivet binding machine core. BACKGROUND

[0002] Binding machine is divided into semi -automatic and full -automatic, and the drilling device and the rivet pressing device of the semi -automatic binding machine are arranged side by side, material is moved to the rivet pressing device and places rivet pipe to complete rivet pressing after completing drilling by the drilling device, it is troublesome to operate and has certain dangerous nature.Full -automatic binding machine's drilling device and rivet pressing device are arranged along the axis, when the drilling device completes drilling, the lower rivet pressing device automatically rises, and the upper and lower rivet heads complete rivet pressing, without manually assembling rivet pipe, and without moving material, it is simple and safe to operate.

[0003] In the prior art, there are mainly two ways to drive the full -automatic binding machine to run: first, each component is equipped with a driving device to run; second, a driving device simultaneously drives the switching and running of multiple components. The first driving method runs each component separately without interference, but the number of driving devices is large. The second driving method reduces the number of driving devices, which reduces equipment costs, but increases the number of parts, and the running of each component may interfere with each other. For example, the Chinese utility model patent with patent application number CN108656775A simultaneously drives multiple components to switch positions through a lever and a steel wire rope, although the number of motors is reduced, but the linkage mechanism is increased, the transmission device parts are complex, and the maintenance cost is high. CONTENT OF THE UTILITY MODEL

[0004] In order to overcome the shortcomings and deficiencies existing in the prior art, the purpose of the utility model is to provide a full -automatic rivet binding machine core.

[0005] In order to achieve the above-mentioned purpose, the full -automatic rivet binding machine core of the utility model, characterized by: including the rack, the binding platform installed in the middle part of the rack, the pressing device, the punching device, the upper rivet pressing device and the pipe cutting device are installed above the binding platform, the lower rivet pressing device is installed below the binding platform, and the cutter head guide device is slidingly installed on the binding platform;The punching device is located above the pressing device, the pressing device is provided with a cavity, the upper rivet pressing device includes an upper rivet head, and the upper rivet head is slidingly installed in the cavity of the pressing device;The rack is provided with a position switching device, the position switching device is located between the upper rivet pressing device and the cutter head guide device, the position switching device has a first driving device, a gear part, an upper rack and a lower rack which are parallelly arranged and meshed with the gear part, the first driving device drives the gear part to rotate, the gear part drives the upper rack and the lower rack to move synchronously and reversely, the upper rack is connected with the upper rivet pressing device, and the lower rack is connected with the cutter head guide device.

[0006] Further, the rack has a first guide column and a first screw rod parallel to and rotating with the first guide column, the punching device has a drill, a material guide tube, a first guide seat and a third gear, the drill has a chip removal hole in communication with the material guide tube, and the third gear is rotatably installed on the first guide seat; the first guide seat is internally provided with a nut, a first helical gear and a second gear; the first guide seat is screwingly installed on the outside of the first screw rod via the nut, and is slidingly arranged on the first guide column; the first guide seat is externally provided with a second driving device having a first worm, and the second driving device drives the first worm to mesh with the first helical gear to drive the punching device to move longitudinally along the first screw rod, and the second gear meshes with the third gear to drive the drill to spin.

[0007] Further, the rack has a second screw rod and a third driving device, the material pressing device has a material pressing head and a second guide seat, and the material pressing head is installed on the second guide seat; the second guide seat is provided with a nut, and the second guide seat is slidingly arranged on the first guide column via the nut screwingly sleeved on the outside of the second screw rod; the second screw rod has a fourth gear, the third driving device has a second worm, and the third driving device drives the second worm to mesh with the fourth gear to drive the second screw rod to spin, so that the material pressing device moves longitudinally along the second screw rod.

[0008] Further, the upper rack is provided, at one end close to the upper riveting head, with a longitudinal sliding rod, the upper riveting head is provided, at one end close to the upper rack, with a U-shaped hook, the U-shaped hook is clamped on the sliding rod, and the upper riveting device moves longitudinally along the second screw rod, and the U-shaped hook moves longitudinally on the sliding rod at the same time.

[0009] Further, the binding platform is provided with a groove with a through hole, and the drill head guide device is slidingly installed in the groove of the binding platform; the drill head guide device comprises a transmission arm, a gasket and a ratchet wheel, the transmission arm is connected with the lower rack, the transmission arm is provided, at the upper portion, with a circular groove for installing the gasket, and the ratchet wheel is located below the gasket; after the drill completes the punching, the ratchet wheel drives the gasket to rotate in one direction.

[0010] Further, the rack has a second guide column and a fourth driving device, the second guide column is installed with a rotating arm and a fifth gear, the rotating arm is installed with a third screw rod, the lower riveting device has a third guide seat, a lower riveting head and a thimble, the thimble is located at the middle portion of the lower riveting head, the lower riveting head is installed on the third guide seat, the third guide seat is provided with a nut, and the third guide seat is slidingly installed on the third screw rod and the second guide column via the nut; the fourth driving device has a seventh gear, and the fourth driving device drives the seventh gear to mesh with the fifth gear to drive the lower riveting device to move in a circular arc motion to below the pipe cutting device, and the pipe is dropped into the thimble through the pipe cutting device.

[0011] Further, the third guide seat is externally provided with a fifth driving device, the third guide seat is provided with a sixth helical gear, the fifth driving device is provided with a third worm, and the fifth driving device drives the lower pressing rivet device to move along the third screw in the longitudinal direction by driving the third worm to mesh with the sixth helical gear.

[0012] Further, the material pressing head is provided with a through hole for the punching device to pass through, the end of the material pressing head away from the upper riveting head is closed, the end of the material pressing head towards the upper riveting head is internally recessed from the end face to form a cavity, the cavity is provided with a groove for supporting the upper pressing rivet device to slide, and the cavity is internally recessed from the body to form a cavity on the side edge of the cavity towards the binding platform.

[0013] Further, the material guide pipe is provided with a slidingly matched upper portion and a lower portion, the upper portion is installed on the first guide seat and communicates with the chip removal hole of the drill bit, the lower portion is installed below the binding platform, the diameter of the upper portion is smaller than that of the lower portion, and the upper portion slides in the lower portion in the longitudinal direction when the drill bit moves in the longitudinal direction; and the waste paper chips in the drill bit are discharged from the core through the upper portion and the lower portion of the material guide pipe.

[0014] Further, the rack is provided with a sliding rail, the third guide seat is protrudingly provided with a sliding block, the sliding block is clamped on the sliding rail, and the sliding block slides in the sliding rail when the lower pressing rivet device moves in the longitudinal direction; and the rack is provided with an opening below the sliding rail, and the sliding block is separated from the sliding rail from the opening when the lower pressing rivet device moves in the circular arc.

[0015] The full-automatic pressing rivet binding machine core has the advantages that:

[0016] (1) reasonable layout: the full-automatic pressing rivet binding machine core has multiple components, and the multiple components are arranged compactly in the rack, and the dynamic line is clear; the upper riveting head is installed in the cavity of the material pressing device, and the layout is compact; the first driving device simultaneously drives the upper pressing rivet device and the drill bit guide device to operate, and the dynamic line is clear.

[0017] (2) simple structure: driving devices and gears are adopted to control the operation of each device, and the components are simple.

[0018] (3) binding action can be decomposed: the punching device, the pressing rivet device and the like have independent driving devices, so that the punching operation and the pressing rivet operation can not only be automatically operated, but also can be manually controlled to be separately operated, and the demand of only punching or pressing riveting can be met.

[0019] (4) convenient maintenance: the devices are not driven through complex transmission rods, and each device is a module, so that it is convenient to troubleshoot. BRIEF DESCRIPTION OF DRAWINGS

[0020] Figure 1 It is a structural schematic view of the full-automatic pressing rivet binding machine core.

[0021] Figure 2 It is a structural schematic view of the punching device.

[0022] Figure 3 It is the partial structure schematic view of the punching device of the utility model;

[0023] Figure 4 It is the structure schematic view of the material pressing device of the utility model;

[0024] Figure 5 It is the structure schematic view of the position switching device and the cutter head guiding device of the utility model;

[0025] Figure 6 It is the structure schematic view of the upper riveting device of the utility model;

[0026] Figure 7 It is the structure schematic view of the lower riveting device of the utility model;

[0027] Figure 8 It is the partial structure schematic view of the lower riveting device of the utility model.

[0028] The reference signs include: 1, frame; 11, first screw rod; 12, first guide column; 13, second screw rod; 131, fourth gear; 14, third driving device; 141, second worm; 15, second guide column; 151, rotating arm; 152, fifth gear; 16, fourth driving device; 161, seventh gear; 17, third screw rod; 18, slide rail; 2, binding platform; 21, cutter head guiding device; 211, transmission arm; 212, gasket; 213, ratchet wheel; 3, material pressing device; 31, material pressing head; 32, second guide seat; 4, punching device; 41, drill bit; 42, material guiding pipe; 421, upper part; 422, lower part; 43, first guide seat; 44, third gear; 431, first helical gear; 432, second gear; 45, second driving device; 451, first worm; 5, upper riveting device; 51, upper riveting head; 511, U-shaped hook; 6, pipe cutting device; 7, lower riveting device; 71, third guide seat; 711, sixth helical gear; 712, sliding block; 72, lower riveting head; 73, thimble; 74, fifth driving device; 741, third worm; 8, position switching device; 81, first driving device; 82, gear part; 83, upper rack; 831, slide rod; 84, lower rack. DETAILED DESCRIPTION

[0029] In order to facilitate the understanding of those skilled in the art, the utility model will be further described below in conjunction with the embodiments and drawings, and the content mentioned in the embodiments is not a limitation of the utility model.

[0030] Please refer to Figures 1 to 8The utility model discloses a full -automatic pressure riveting binding machine core, its characterized in that: including frame 1, install in the middle part of frame 1's binding platform 2, install pressure material device 3, punch device 4, upper pressure riveting device 5 with pipe cutting device 6 in binding platform 2 top, install lower pressure riveting device 7 in binding platform 2 below, and binding platform 2 sliding installation has cutter head guide device 21, punch device 4 is located pressure material device 3 top, and pressure material device 3 is equipped with cavity, and upper pressure riveting device 5 includes upper rivet head 51, and upper rivet head 51 sliding installation is in pressure material device 3 cavity, be equipped with position switching device 8 on frame 1, and position switching device 8 is located between upper pressure riveting device 5 and cutter head guide device 21, and position switching device 8 has first drive device 81, gear part 82, and the upper rack 83 with lower rack 84 that is engaged with gear part 82 and is arranged in parallel, and first drive device 81 drives gear part 82 rotation, and gear part 82 drives the synchronous reverse movement of upper rack 83 with lower rack 84, and upper rack 83 is connected with upper pressure riveting device 5, and lower rack 84 is connected with cutter head guide device 21.

[0031] When actually using, punch device 4, pressure material device 3, cutter head guide device 21 are in the same longitudinal position in turn, and upper rivet head 51 is slidingly installed in the cavity of pressure material device 3. After moving downward to compress the material to be bound, punch device 4 moves downward to punch, after the punching operation is completed, punch device 4 rises, cutter head guide device 21 retreats, and upper pressure riveting device 5 advances to the same longitudinal position of punch device 4. The parallel rack in position switching device 8 can make upper pressure riveting device 5 advance while cutter head guide device 21 retreats.

[0032] Specifically, the frame 1 is provided with a first guide column 12 and a first lead screw 11 parallel to and rotatable with the first guide column 12, the punch device 4 is provided with a drill bit 41, a material guide pipe 42, a first guide seat 43, and a third gear 44, the drill bit 41 is provided with a chip removal hole in communication with the material guide pipe 42, and the third gear 44 is rotatably installed in the first guide seat 43; the first guide seat 43 is internally provided with a nut, a first bevel gear 431, and a second gear 432; the first guide seat 43 is screw-connectedly installed on the outside of the first lead screw 11, and is slidingly arranged on the first guide column 12; the first guide seat 43 is externally provided with a second drive device 45, the second drive device 45 is provided with a first worm 451, the second drive device 45 drives the first worm 451 to mesh with the first bevel gear 431 to drive the punch device 4 to move longitudinally along the first lead screw 11, and the second gear 432 meshes with the third gear 44 to drive the drill bit 41 to spin.

[0033] In actual use, the punching device 4 is installed on the first guide column 12 and the first screw rod 11 through the first guide seat 43. The first screw rod 11 can drive the punching device 4 to move longitudinally in cooperation with the nut. The first guide column 12 can prevent the punching device 4 from deviating or shaking during movement, thereby ensuring the accuracy of punching. The number of the first guide column 12 is one or two. The second driving device 45 can not only provide power for the punching device 4 to move vertically, but also provide power for the punching knife to accelerate and spin, thereby making the drill bit 41 punch more quickly.

[0034] Specifically, the rack 1 is provided with the second screw rod 13 and the third driving device 14. The material pressing device 3 is provided with the material pressing head 31 and the second guide seat 32. The material pressing head 31 is installed on the second guide seat 32. The second guide seat 32 is provided with a nut. The second guide seat 32 is sleeved on the outside of the second screw rod 13 through the nut. The second guide seat 32 is slidably arranged on the first guide column 12. The second screw rod 13 is provided with the fourth gear 131. The third driving device 14 is provided with the second worm 141. The third driving device 14 drives the second worm 141 to mesh with the fourth gear 131 to drive the second screw rod 13 to spin, so that the material pressing device 3 moves longitudinally along the second screw rod 13.

[0035] In actual use, the material pressing device 3 is installed on the second screw rod 13 and the first guide column 12 through the second guide seat 32. The material pressing device 3 is located below the punching device 4. The two devices share the first guide column 12, and the space layout is compact. The third driving device 14 drives the second screw rod 13 to spin, so that the material pressing device 3 moves longitudinally. This transmission mode can bear a large axial load and can provide sufficient pressure for the material pressing device 3, thereby ensuring the stability of subsequent punching and riveting.

[0036] Specifically, the upper rack 83 is provided with a longitudinal sliding rod 831 at one end close to the upper riveting head 51. The upper riveting head 51 is provided with a U-shaped hook 511 at one end close to the upper rack 83. The U-shaped hook 511 is clamped on the sliding rod 831. When the upper riveting device 5 moves longitudinally along the second screw rod 13 with the material pressing device 3, the U-shaped hook 511 moves longitudinally on the sliding rod 831 synchronously.

[0037] In actual use, the position switching device 8 is movably connected with the upper riveting device 5. The U-shaped hook 511 of the upper riveting head 51 is clamped on the sliding rod 831 of the upper rack 83. When the upper riveting device 5 moves longitudinally, the U-shaped hook 511 moves on the sliding rod 831 synchronously. When the upper rack 83 moves transversely, a pushing force or a pulling force is generated between the sliding rod 831 and the U-shaped hook 511, so that the upper riveting device 5 moves synchronously with the upper rack 83.

[0038] Specifically, the binding platform 2 is provided with a groove with a through hole, and the cutter head guide device 21 is slidingly installed in the groove of the binding platform 2; the cutter head guide device 21 comprises a transmission arm 211, a gasket 212 and a ratchet wheel 213, the transmission arm 211 is connected with the lower rack 84, a circular groove for installing the gasket 212 is formed in the transmission arm 211, and the ratchet wheel 213 is located below the gasket 212; after the drilling cutter 41 completes the punching, the ratchet wheel 213 drives the gasket 212 to rotate in one direction

[0039] In actual use, in order to avoid that the drilling cutter 41 directly contacts the binding platform 2 when punching and wears the cutter head, the cutter head guide device 21 is slidingly installed on the binding platform 2, and the cutter head guide device 21 can be withdrawn after the drilling cutter 41 finishes punching, so as to leave space for the lifting of the rivet pressing device 7. The core part of the cutter head guide device 21 is the gasket 212, in order to avoid that the drilling cutter 41 repeatedly falls on the same position of the gasket 212, the ratchet wheel 213 rotating in one direction is arranged below the gasket 212, the ratchet wheel 213 can drive the gasket 212 to rotate in one direction after each time of punching, and the gasket 212 can be manually replaced when the gasket 212 is worn to the extent that it cannot play a protective role.

[0040] Specifically, the rack 1 is provided with a second guide column 15 and a fourth driving device 16, the second guide column 15 is installed with a rotating arm 151 and a fifth gear 152, the rotating arm 151 is installed with a third lead screw 17, the rivet pressing device 7 is provided with a third guide seat 71, a lower rivet head 72 and a thimble 73, the thimble 73 is located in the middle of the lower rivet head 72, the lower rivet head 72 is installed on the third guide seat 71, the third guide seat 71 is provided with a nut, and the third guide seat 71 is slidingly installed on the third lead screw 17 and the second guide column 15 through the nut; the fourth driving device 16 is provided with a seventh gear 161, the fourth driving device 16 drives the seventh gear 161 to mesh with the fifth gear 152, and the rivet pressing device 7 is moved to below the pipe cutting device 6 through the rotating arm 151 to make a circular arc motion, and the rivet pipe falls into the thimble 73 through the pipe cutting device 6.

[0041] In actual use, the lower rivet head 72, the third lead screw 17 and the second guide column 15 are located on the same horizontal line, the third guide seat 71 connects the lower rivet head 72, the third lead screw 17 and the second guide column 15, the rotating arm 151 connects the third lead screw 17 and the second guide column 15, the third guide seat 71 is located above the rotating arm 151, the rotating arm 151 drives the third lead screw 17 and the lower rivet head 72 to make a circular arc motion around the second guide column 15, the lower rivet head 72 moves to directly below the pipe cutting device 6, and the rivet pipe falls into the thimble 73 in the center of the lower rivet head 72 after being heated and cut by the pipe cutting device 6.

[0042] Specifically, the third guide seat 71 is provided with a fifth driving device 74, the third guide seat 71 is provided with a sixth bevel gear 711, the fifth driving device 74 is provided with a third worm 741, the fifth driving device 74 drives the third worm 741 to engage with the sixth bevel gear 711 to drive the rivet device 7 to move along the third screw 17.

[0043] In actual use, the fifth driving device 74 drives the lower rivet head 72 to rise to the binding platform 2 through gear transmission, the ejector pin 73 inserts the material into the hole, the upper and lower rivet heads 72 cooperate to complete the riveting operation.

[0044] Specifically, the material guide pipe 42 is provided with a slidingly fitted upper portion 421 and a lower portion 422, the upper portion 421 is installed on the first guide seat 43 and communicates with the chip removal hole of the drill bit 41, the lower portion 422 is installed below the binding platform 2, the diameter of the upper portion 421 is smaller than that of the lower portion 422, the upper portion 421 slides longitudinally in the lower portion 422 when the drill bit moves longitudinally, and the waste paper chips in the drill bit 41 are discharged from the core through the upper portion 421 and the lower portion 422 of the material guide pipe 42.

[0045] In actual use, the material guide pipe 42 does not rotate with the drill bit 41 and the third gear 44, the inner portion of the part of the upper portion 421 of the material guide pipe 42 connected with the drill bit 41 is inclined downward, which facilitates the waste paper chips to pass through the upper portion 421 to the lower portion 422, the upper portion 421 is sleeved on the lower portion 422, and a waste chip tray can be arranged at the bottom of the frame 1 to collect the waste paper chips discharged from the lower portion 422.

[0046] The above is only a preferred embodiment of the present application, and for those skilled in the art, according to the idea of the present application, the specific implementation and application range can be changed, and the content of the specification should not be understood as a limitation of the present application.

Claims

1. A fully automatic riveting and binding machine mechanism, characterized in that: The system includes a frame (1), a binding platform (2) installed in the middle of the frame (1), a pressing device (3), a punching device (4), an upper riveting device (5) and a pipe cutting device (6) installed above the binding platform (2), a lower riveting device (7) installed below the binding platform (2), and a blade guide device (21) slidably installed on the binding platform (2); the punching device (4) is located above the pressing device (3), the pressing device (3) has a cavity, the upper riveting device (5) includes an upper riveting head (51), the upper riveting head (51) is slidably installed in the cavity of the pressing device (3); the frame (1) is equipped with a positioning device. The position switching device (8) is located between the upper riveting device (5) and the cutter head guide device (21). The position switching device (8) has a first driving device (81), a gear (82), an upper rack (83) and a lower rack (84) that mesh with the gear (82) and are arranged in parallel. The first driving device (81) drives the gear (82) to rotate. The gear (82) drives the upper rack (83) and the lower rack (84) to move synchronously in opposite directions. The upper rack (83) is connected to the upper riveting device (5), and the lower rack (84) is connected to the cutter head guide device (21).

2. The mechanism of a fully automatic riveting and binding machine according to claim 1, characterized in that: The frame (1) has a first guide post (12) and a first lead screw (11) that is parallel to and rotates with the first guide post (12). The drilling device (4) has a drill bit (41), a guide tube (42), a first guide seat (43), and a third gear (44). The drill bit (41) has a chip discharge hole that communicates with the guide tube (42). The third gear (44) is rotatably mounted on the first guide seat (43). The first guide seat (43) is provided with a nut, a first helical gear (431), and a second gear (432) inside. The first guide seat (43) is slidably mounted on the first guide post (12) by screwing a nut onto the outside of the first lead screw (11). The second drive device (45) is mounted on the outer wall of the first guide seat (43). The second drive device (45) has a first worm (451). The second drive device (45) drives the first worm (451) to mesh with the first helical gear (431) to drive the drilling device (4) to move longitudinally along the first lead screw (11). The second gear (432) meshes with the third gear (44) to drive the drill bit (41) to rotate.

3. The mechanism of a fully automatic riveting and binding machine according to claim 2, characterized in that: The frame (1) has a second lead screw (13) and a third drive device (14). The pressing device (3) has a pressing head (31) and a second guide seat (32). The pressing head (31) is installed on the second guide seat (32). The second guide seat (32) is provided with a nut. The second guide seat (32) is screwed onto the outside of the second lead screw (13) by the nut. The second guide seat (32) is slidably set on the first guide post (12). The second lead screw (13) has a fourth gear (131). The third drive device (14) has a second worm (141). The third drive device (14) drives the second worm (141) to mesh with the fourth gear (131) to drive the second lead screw (13) to rotate, so that the pressing device (3) moves longitudinally along the second lead screw (13).

4. The mechanism of a fully automatic riveting and binding machine according to claim 1, characterized in that: The upper rack (83) is provided with a longitudinal slide bar (831) at one end near the upper rivet head (51), and a U-shaped hook (511) is provided at one end near the upper rack (83). The U-shaped hook (511) is engaged with the slide bar (831). When the upper riveting device (5) moves longitudinally along the second lead screw (13) with the pressing device (3), the U-shaped hook (511) moves longitudinally on the slide bar (831) simultaneously.

5. The mechanism of a fully automatic riveting and binding machine according to claim 2, characterized in that: The binding platform (2) is provided with a groove with a through hole, and the cutter guide device (21) is slidably installed in the groove of the binding platform (2); the cutter guide device (21) includes a transmission arm (211), a pad (212) and a ratchet (213). The transmission arm (211) is connected to the lower rack (84). The transmission arm (211) has a circular groove for installing the pad (212). The ratchet (213) is located below the pad (212). After the drill bit (41) completes drilling, the ratchet (213) drives the pad (212) to rotate in one direction.

6. The mechanism of a fully automatic riveting and binding machine according to claim 1, characterized in that: The frame (1) has a second guide post (15) and a fourth drive device (16). The second guide post (15) is equipped with a rotating arm (151) and a fifth gear (152). The rotating arm (151) is equipped with a third lead screw (17). The lower riveting device (7) has a third guide seat (71), a lower riveting head (72), and a ejector pin (73). The ejector pin (73) is located in the middle of the lower riveting head (72). The lower riveting head (72) is mounted on the third guide seat (71). (71) A nut is provided, and the third guide seat (71) is slidably installed on the third lead screw (17) and the second guide post (15) through the nut; the fourth drive device (16) has a seventh gear (161), and the fourth drive device (16) drives the seventh gear (161) to mesh with the fifth gear (152) and drive the lower riveting device (7) to move in an arc motion through the rotating arm (151) to the bottom of the tube cutting device (6), and the riveting tube falls into the ejector pin (73) through the tube cutting device (6).

7. The mechanism of a fully automatic riveting and binding machine according to claim 6, characterized in that: The outer wall of the third guide seat (71) is equipped with a fifth driving device (74). The third guide seat (71) has a sixth helical gear (711), and the fifth driving device (74) has a third worm (741). The fifth driving device (74) drives the lower riveting device (7) to move longitudinally along the third lead screw (17) by driving the third worm (741) to mesh with the sixth helical gear (711).

8. The mechanism of a fully automatic riveting and binding machine according to claim 3, characterized in that: The pressure head (31) is provided with a through hole for the punching device (4) to pass through; the end of the pressure head (31) away from the upper riveting head (51) is closed, and the end of the pressure head (31) facing the upper riveting head (51) is recessed inward from the end face to form a cavity. The cavity is provided with a groove for supporting the sliding of the upper riveting device (5); the side of the pressure head (31) near the binding platform (2) is recessed inward from the body to form a cavity, and a widened pressure plate is provided on the side edge of the cavity facing the binding platform (2).

9. The mechanism of a fully automatic riveting and binding machine according to claim 2, characterized in that: The feed tube (42) has an upper part (421) and a lower part (422) that slide together. The upper part (421) is installed on the first guide seat (43) and connected to the chip discharge hole of the drill bit (41). The lower part (422) is installed below the binding platform (2). The diameter of the upper part (421) is smaller than that of the lower part (422). When the drill bit (41) moves longitudinally, the upper part (421) slides longitudinally inside the lower part (422). The waste paper scraps in the drill bit (41) are discharged from the machine core after passing through the upper part (421) and the lower part (422) of the feed tube (42).

10. The mechanism of a fully automatic riveting and binding machine according to claim 6, characterized in that: The frame (1) has a slide rail (18), and a third guide seat (71) has a slider (712) protruding from it. The slider (712) is engaged with the slide rail (18). When the lower riveting device (7) moves longitudinally, the slider (712) slides in the slide rail (18). An opening is provided below the slide rail (18). When the lower riveting device (7) makes an arc motion, the slider (712) disengages from the slide rail (18) through the opening.

Citation Information

Patent Citations

  • Mechanism simplifying full-automatic drilling and pressure riveting stapling machine

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