A riveting machine feeding device for a computer motherboard pressing process

Abstract

The utility model discloses a kind of rivet machine feeding devices for computer mainboard pressing process, including lifting frame, rivet supply device, rivet positioning export device, reset spring and positioning column, the rivet supply device is connected on lifting frame, one end of the rivet positioning export device is hinged on lifting frame and the other end is matched with rivet machine, two the positioning column is connected on lifting frame, one end of two the reset spring is set on corresponding positioning column and the other end is connected with rivet positioning export device;A kind of rivet machine feeding devices for computer mainboard pressing process of the utility model, its structure is simple, it is convenient and practical to export corresponding rivet by rivet export ware control, it can be completed corresponding rivet export purpose by rivet export ware change.

Description

Technical Field

[0001] This utility model belongs to the field of material feeding technology, specifically relating to a riveting machine feeding device for the pressing process of computer motherboards. Background Technology

[0002] Riveting machines are used in the production and installation of computer motherboards. Current riveting machines are highly automated, and rivets are generally fed automatically. However, the shapes of rivets vary, meaning each machine can only perform riveting operations with a single type of rivet. Computer motherboard production typically uses two to three types of rivets: semi-circular head rivets, semi-circular countersunk head rivets, and tubular hollow rivets. These are the most common types of rivets used in computer motherboard production and installation. Generally, the production process requires the installation of corresponding riveting machines based on the process line's configuration needs. When the number of riveting machines is insufficient, appropriate purchases are made. This results in poor versatility of riveting machines, increasing production costs. Utility Model Content

[0003] The technical problem to be solved by this utility model is to provide a riveting machine feeding device for the pressing process of computer motherboards. It has a simple structure and is convenient and practical. The riveting ejector controls the ejection of the corresponding rivets, and the purpose of ejecting the corresponding rivets can be completed by changing the riveting ejector.

[0004] A riveting machine feeding device for a computer motherboard lamination process includes a lifting frame, a rivet feeding device, a rivet positioning and ejection device, a return spring, and positioning posts. The rivet feeding device is connected to the lifting frame. One end of the rivet positioning and ejection device is hinged to the lifting frame and the other end cooperates with the riveting machine. Two positioning posts are connected to the lifting frame. One end of each of the two return springs is sleeved on a corresponding positioning post and the other end is connected to the rivet positioning and ejection device.

[0005] Preferably, the rivet feeding device includes a power motor, a conical hopper, a stirring shaft, a rivet ejector, a hopper, and stirring blades. The power motor and the conical hopper are mounted on a lifting frame. The stirring shaft is movably connected inside the conical hopper, with one end penetrating the side wall of the conical hopper and connected to the power rod of the power motor. The stirring blades are disposed inside the conical hopper and connected to the stirring shaft. The hopper is disposed at the top of the conical hopper, and a strip-shaped discharge port is provided at the bottom of the hopper. The rivet ejector is disposed on the strip-shaped discharge port.

[0006] Preferably, the rivet ejector includes side plates, slide bars, and rivet guide grooves. The two side plates are respectively connected to the conical hoppers on both sides of the strip-shaped discharge port, the two slide bars are respectively slidably connected to the corresponding side plates, and the rivet guide grooves are formed on the slide bars.

[0007] Preferably, the rivet positioning and ejection device includes a left ejector bar, a right ejector bar, and adjusters. The left and right ejector bars are symmetrically arranged, and a plurality of adjusters are connected between the left and right ejector bars. One end of the left and right ejector bars is symmetrically connected to a hinge device, which is connected to a lifting frame. Rivet grooves are provided on the left and right ejector bars. The hinge device includes a rotating shaft and a stabilizing connecting block. The stabilizing connecting block is connected to the lifting frame, and one end of the rotating shaft passes through the stabilizing connecting block and connects to the corresponding left or right ejector bar. A positioning bullseye is installed on the end of the left or right ejector bar away from the hinge device.

[0008] Preferably, the adjuster includes a connecting block, an adjusting rod, a spring, and an adjusting nut. The two connecting blocks are respectively connected to the left guide bar and the right guide bar. The two ends of the adjusting rod pass through the corresponding connecting blocks and are connected to the adjusting nut. The spring is sleeved on the adjusting rod and disposed between the two connecting blocks. Beneficial effects

[0009] (1) The present invention provides a riveting machine feeding device for the pressing process of computer motherboard. It has a simple structure and is convenient and practical. The riveting ejector controls the ejection of the corresponding rivet, so that the corresponding rivet can be ejected by changing the riveting ejector.

[0010] (2) The riveting machine feeding device for the computer motherboard pressing process of this utility model adjusts the distance between the left and right guide bars of the rivet positioning and guide device to adapt to the conveying of the corresponding rivets, thereby improving the practicality of the riveting machine feeding device. Attached Figure Description

[0011] Figure 1 This is a schematic diagram of the feeding device.

[0012] Figure 2 A schematic diagram of the rivet feeding device;

[0013] Figure 3 A schematic diagram of the rivet positioning and guide device;

[0014] 1-Lifting frame, 2-Rivet feeding device, 21-Power motor, 22-Conical hopper, 23-Agitator shaft, 24-Rivet ejector, 25-Hopper, 26-Agitator blade, 27-Side plate, 28-Sliding strip, 29-Rivet guide groove, 3-Rivet positioning and ejection device, 31-Left ejector bar, 32-Right ejector bar, 33-Adjuster, 34-Hinge device, 35-Shaft, 36-Stabilizing connecting block, 37-Connecting block, 38-Adjusting rod, 39-Spring, 310-Adjusting nut, 4-Reset spring, 5-Positioning column. Detailed Implementation

[0015] The embodiments of this utility model are further described below with reference to the accompanying drawings. Example

[0016] like Figures 1 to 3 As shown; a riveting machine feeding device for the lamination process of a computer motherboard includes a lifting frame 1, a rivet feeding device 2, a rivet positioning and ejection device 3, a return spring 4, and positioning posts 5. The rivet feeding device 2 is connected to the lifting frame 1. One end of the rivet positioning and ejection device 3 is hinged to the lifting frame 1, and the other end cooperates with the riveting machine. Two positioning posts 5 are connected to the lifting frame 1. One end of each of the two return springs 4 is sleeved on the corresponding positioning post 5, and the other end is connected to the rivet positioning and ejection device 3. The rivet feeding device 2 includes a power motor 21, a conical material box 22, a stirring shaft 23, a rivet ejector 24, a hopper 25, and a stirring mechanism. The stirring blade 26, the power motor 21 and the conical hopper 22 are mounted on the lifting frame 1. The stirring shaft 23 is movably connected inside the conical hopper 22 and one end passes through the side wall of the conical hopper 22 and is connected to the power rod of the power motor 21. The stirring blade 26 is set inside the conical hopper 22 and is connected to the stirring shaft 23. The hopper 25 is set at the top of the conical hopper 22, and a strip-shaped discharge port is set at the bottom of the hopper 25. The rivet ejector 24 is set on the strip-shaped discharge port. The rivet ejector 24 includes a side plate 27, a slide bar 28 and a rivet guide groove 29. The two side plates 27 are respectively connected to the conical hopper 22 on both sides of the strip-shaped discharge port. The slide bars 28 are slidably connected to the corresponding side plates 27, and the rivet guide grooves 29 are formed on the slide bars 28. The rivet positioning and guiding device 3 includes a left guiding bar 31, a right guiding bar 32, and an adjuster 33. The left guiding bar 31 and the right guiding bar 32 are symmetrically arranged, and several adjusters 33 are connected between the left guiding bar 31 and the right guiding bar 32. One end of the left guiding bar 31 and the right guiding bar 32 is symmetrically connected to a hinge device 34, which is connected to the lifting frame 1. The left guiding bar 31 and the right guiding bar 32 are provided with rivet sliding grooves. The hinge device 34 includes a rotating shaft 35 and a stabilizing connecting block 36. The stabilizing connecting block 36 is connected to the lifting frame 1. One end of the rotating shaft 35 passes through the stabilizing connecting block 36 and is connected to the corresponding left guide bar 31 or right guide bar 32. A positioning bullseye is installed at the end of the left guide bar 31 or right guide bar 32 away from the hinge device 34. The adjuster 33 includes a connecting block 37, an adjusting rod 38, a spring 39, and an adjusting nut 310. The two connecting blocks 37 are respectively connected to the left guide bar 31 and the right guide bar 32. Both ends of the adjusting rod 38 pass through the corresponding connecting blocks 37 and are connected to the adjusting nut 310. The spring 39 is sleeved on the adjusting rod 38 and is located between the two connecting blocks 37.

[0017] When the feeding device supplies rivets, it guides the rivets into the conical hopper 22 through the hopper 25. Then, the power motor 21 is turned on, driving the stirring shaft 23 to rotate. The stirring shaft 23 drives the stirring blades 26 to stir the rivets in the conical hopper 22, causing the end of the rivet to insert between the two sliding strips 28. At the same time, the rivet head is hooked in the rivet guide groove 29 of the sliding strip 28. Then, the rivet slides along the taper of the conical hopper 22 into the rivet slide groove, and moves along the rivet slide groove to the head of the riveting machine. At the same time, the rivet is positioned by the bullseye. When adjusting the rivet ejector 24, the sliding strip 28 of the corresponding width is replaced as needed. When adjusting the adjuster 33, the left ejector strip 31 and the right ejector strip 31 are adjusted by rotating the adjusting nut 310. 2. Approaching or moving away from the riveting machine head allows for the corresponding rivet feeding; when the riveting machine head descends, it applies pressure to the left guide bar 31 and the right guide bar 32, causing the return spring 4 to contract. The ends of the left guide bar 31 and the right guide bar 32 rotate along the hinge, ensuring that the ends of the left guide bar 31 and the right guide bar 32 do not affect the descent of the riveting machine head for riveting. When the riveting machine head descends, it inserts into the rivets at the ends of the left guide bar 31 and the right guide bar 32, and drives the rivets to descend quickly for riveting. When the return spring 4 drives the left guide bar 31 and the right guide bar 32 to reset, the lifting frame 1 limits the lifting height of one end of the left guide bar 31 and the right guide bar 32 to ensure that the ends of the left guide bar 31 and the right guide bar 32 are aligned with the position of the riveting machine head.

[0018] The specific embodiments of this utility model have been described in detail above, but they are merely examples, and this utility model is not limited to the specific embodiments described above. For those skilled in the art, any equivalent modifications and substitutions to this utility model are also within the scope of this utility model. Therefore, all equivalent changes and modifications made without departing from the spirit and scope of this utility model are covered within the scope of this utility model.

Claims

1. A riveting machine feeding device for the lamination process of a computer motherboard, characterized in that: It includes a lifting frame (1), a rivet feeding device (2), a rivet positioning and output device (3), a return spring (4), and positioning columns (5). The rivet feeding device (2) is connected to the lifting frame (1). One end of the rivet positioning and output device (3) is hinged to the lifting frame (1) and the other end is connected to the riveting machine. The two positioning columns (5) are connected to the lifting frame (1). One end of the two return springs (4) is sleeved on the corresponding positioning column (5) and the other end is connected to the rivet positioning and output device (3).

2. The riveting machine feeding device for the computer motherboard pressing process as described in claim 1, characterized in that: The rivet feeding device (2) includes a power motor (21), a conical hopper (22), a stirring shaft (23), a rivet ejector (24), a hopper (25), and a stirring blade (26). The power motor (21) and the conical hopper (22) are mounted on a lifting frame (1). The stirring shaft (23) is movably connected inside the conical hopper (22) and one end passes through the side wall of the conical hopper (22) and is connected to the power rod of the power motor (21). The stirring blade (26) is set inside the conical hopper (22) and is connected to the stirring shaft (23). The hopper (25) is set at the top of the conical hopper (22), and a strip-shaped discharge port is set at the bottom of the hopper (25). The rivet ejector (24) is set on the strip-shaped discharge port.

3. The riveting machine feeding device for the computer motherboard pressing process as described in claim 2, characterized in that: The rivet ejector (24) includes a side plate (27), a slide bar (28), and a rivet guide groove (29). The two side plates (27) are respectively connected to the conical material boxes (22) on both sides of the strip-shaped discharge port. The two slide bars (28) are respectively slidably connected to the corresponding side plates (27). The rivet guide groove (29) is opened on the slide bar (28).

4. A riveting machine feeding device for a computer motherboard pressing process as described in claim 1 or 3, characterized in that: The rivet positioning and ejection device (3) includes a left ejector bar (31), a right ejector bar (32), and an adjuster (33). The left ejector bar (31) and the right ejector bar (32) are symmetrically arranged. Several adjusters (33) are connected between the left ejector bar (31) and the right ejector bar (32). One end of the left ejector bar (31) and the right ejector bar (32) is symmetrically connected to a hinge device (34). The hinge device (34) is connected to the lifting frame (1). The guide bar (31) and the right guide bar (32) are provided with rivet grooves; the hinge device (34) includes a rotating shaft (35) and a stabilizing connecting block (36), the stabilizing connecting block (36) is connected to the lifting frame (1), one end of the rotating shaft (35) passes through the stabilizing connecting block (36) and is connected to the corresponding left guide bar (31) or right guide bar (32); a positioning bullseye is installed at the end of the left guide bar (31) or right guide bar (32) away from the hinge device (34).

5. The riveting machine feeding device for the computer motherboard pressing process as described in claim 4, characterized in that: The regulator (33) includes a connecting block (37), an adjusting rod (38), a spring (39), and an adjusting nut (310). The two connecting blocks (37) are respectively connected to the left guide bar (31) and the right guide bar (32). The two ends of the adjusting rod (38) pass through the corresponding connecting blocks (37) and are connected to the adjusting nut (310). The spring (39) is sleeved on the adjusting rod (38) and is located between the two connecting blocks (37).

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