Vibrating disc feeder for copper pipe feeding

Abstract

The invention discloses a vibration disc feeder for copper pipe feeding, and relates to the technical field of vibration disc feeders. Comprising a machine body, and further comprises a mounting seat mounted above the machine body; the vibration disc is arranged above the machine body, the first connecting frame is connected with the vibration disc, the second connecting frame is installed outside the first connecting frame, and the third connecting frame is connected with the second connecting frame. The pushing mechanism is arranged on the mounting seat and comprises a first push rod mounted on the mounting seat, a push plate arranged outside the first push rod and a side plate connected with the push plate, and the first push rod is used for driving the push plate and the side plate to move between the second connecting frame and the third connecting frame; the limiting mechanism is arranged in the first connecting frame; the sliding groove is formed in the machine body; the sliding plate is arranged at the output end of the first push rod, and the sliding plate is connected into the sliding groove in a sliding mode; according to the vibrating disk feeder for feeding the copper pipes, the purpose of improving the use efficiency of equipment is achieved.

Description

Technical Field

[0001] This invention relates to the field of vibratory feeder technology, specifically a vibratory feeder for feeding copper tubes. Background Technology

[0002] In the general equipment manufacturing industry, vibratory feeders are a key basic process equipment. They mainly use electromagnetic or piezoelectric drive to transport messy parts in an orderly, directional and continuous manner to the assembly or processing station through high-frequency micro-vibration.

[0003] A utility model patent with publication number CN221564530U discloses an automatic vibratory feeder. When the material moves along the conveying direction to the edge of the tilting trough, the hook can hook the front end of the material, causing the rear end of the hooked material to tilt and face the conveying direction after sliding into the tilting trough. However, when pushing the U-shaped copper tube, the pushing plate is prone to getting stuck in the U-shaped copper tube, causing the pushing operation to stall. Summary of the Invention

[0004] To overcome the problem that the pushing plate easily gets stuck in the U-shaped copper tube during pushing, causing the pushing operation to stall, this invention provides a vibratory feeder for copper tube feeding, including a machine body, and further comprising: Mounting bracket installed on top of the machine body; The vibratory plate is located on the top of the machine body, the first connecting frame is connected to the vibratory plate, the second connecting frame is installed outside the first connecting frame, and the third connecting frame is connected to the second connecting frame; The pushing mechanism is mounted on the mounting base. The pushing mechanism includes a first push rod mounted on the mounting base, a push plate disposed outside the first push rod, and a side plate connected to the push plate. The first push rod is used to drive the push plate and the side plate to move between the second connecting frame and the third connecting frame.

[0005] Preferably, it further includes: A limiting mechanism is installed inside the first connecting frame; A groove located inside the body.

[0006] Preferably, the pushing mechanism further includes: The slide plate is mounted on the output end of the first push rod and is slidably connected to the inside of the slide groove; An adjustment frame is installed on the skateboard, and a connecting pipe is located inside the adjustment frame. The connecting pipe is connected to the push plate and is used to supply air to the push plate and the side plate.

[0007] Preferably, the pushing mechanism further includes: The second push rod and the connecting plate connected to the telescopic end of the second push rod are installed on the adjustment frame; The first telescopic rod is installed on the connecting plate and is connected to the limiting mechanism. An adjusting rod is mounted on the connecting plate, and a first magnetic block is connected to the end of the adjusting rod away from the connecting plate.

[0008] Preferably, the pushing mechanism further includes: A first sliding frame sleeved on the outside of the connecting pipe and a second magnetic block disposed on the first sliding frame, wherein a pad is installed on the outside of the second magnetic block, and the second magnetic block is used to cooperate with the first magnetic block to adjust the position of the pad; The second telescopic rod is installed on the push plate, and the telescopic end of the second telescopic rod is connected to the first sliding frame.

[0009] Preferably, the limiting mechanism includes: The first channel is located at the bottom of the first connecting frame; A base plate installed inside the first channel, wherein a second channel is opened inside the base plate; A second sliding frame is slidably connected inside the first connecting frame, and an adjustment component is provided inside the second sliding frame; A central tube is located inside the second sliding frame, and a processing component is installed inside the central tube.

[0010] Preferably, the adjustment component includes: A chamber located inside the second sliding frame; The first magnetic plate, the second magnetic plate, and the third magnetic plate are installed inside the chamber.

[0011] Preferably, the processing component includes: The filter plate installed inside the central tube, the third telescopic rod located below the filter plate, and the connecting plate connected to the telescopic end of the third telescopic rod; A branch pipe connected to the central pipe via a first connector and a support rod connected to the branch pipe via a second connector; The outer ring is installed inside the central tube.

[0012] Preferably, the processing component further includes: The fourth magnetic plate is installed outside the central tube. The fourth magnetic plate is used in conjunction with the first magnetic plate, the second magnetic plate and the third magnetic plate to control the height of the central tube. A limiting frame is set outside the central tube, and a slider is slidably connected inside the limiting frame. The slider is connected to the first telescopic rod.

[0013] This invention provides a vibratory feeder for feeding copper tubes. It has the following advantages: 1. This vibratory feeder for copper tube feeding uses a pushing mechanism to push U-shaped copper tubes from the second connecting frame to the third connecting frame. Existing vibratory feeders often experience the pushing plate getting stuck inside the U-shaped copper tubes, causing the pushing process to stall. Therefore, a pushing mechanism is introduced, where a circular push plate, along with two arc-shaped side plates, contacts the U-shaped copper tube to complete the pushing process. This prevents the side plates or circular plate from getting stuck in the U-shaped copper tube, thus solving the aforementioned problem.

[0014] 2. This vibratory feeder for copper tube feeding, by setting up a pushing mechanism, includes a first connecting frame, a second connecting frame, and a third connecting frame outside the vibratory feeder, providing a pre-set corner channel for the U-shaped copper tubes to be fed, preventing the U-shaped copper tubes from falling directly. Simultaneously, a pusher plate and side plate moving horizontally push the U-shaped copper tubes at different angles, allowing them to pass through the third connecting frame and enter the receiving container.

[0015] 3. The vibratory feeder for copper tube feeding is equipped with a pushing mechanism. While the push plate and side plate push the U-shaped copper tube, the second magnetic plate, under the magnetic force of the first magnetic plate, repeatedly drives the first sliding frame to move. The pad outside the second magnetic block repeatedly impacts the push plate and side plate, promoting the separation of the push plate and side plate from the U-shaped copper tube and reducing the occurrence of adhesion between the U-shaped copper tube and the push plate or side plate.

[0016] 4. This vibratory feeder for copper tube feeding, by setting a limiting mechanism, restricts the number of U-shaped copper tubes inside the first connecting frame, and pushes U-shaped copper tubes outside and inside the first connecting frame in opposite directions. During the movement of the second sliding frame, two inclined support pipes are used to suck up impurities at the corners of the first connecting frame, thereby reducing impurities at these corners. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a structural schematic diagram from another perspective of the present invention; Figure 3 This is a schematic diagram of the structure of the third connecting frame of the present invention; Figure 4 This is a schematic diagram of the pushing mechanism of the present invention; Figure 5 For the present invention Figure 4 Schematic diagram of the structure at point A; Figure 6 This is a schematic diagram of the limiting mechanism of the present invention; Figure 7 This is a schematic diagram of the limiting mechanism of the present invention from another perspective; Figure 8 This is a schematic diagram of the structure of the adjusted component of the present invention; Figure 9 This is a schematic diagram of the structure of the processing component of the present invention.

[0018] In the diagram: 1. Body; 2. Mounting base; 3. Pushing mechanism; 301. First push rod; 302. Slide plate; 303. Adjusting frame; 304. Connecting pipe; 305. Second push rod; 306. Adjusting rod; 307. First magnet; 308. First telescopic rod; 309. First sliding frame; 310. Second magnet; 311. Pad; 312. Second telescopic rod; 313. Push plate; 314. Side plate; 315. Connecting plate; 4. Vibrating plate; 5. First connecting frame; 6. Second connecting frame; 7. Third connecting frame; 8. Limiting mechanism 801, First channel; 802, Base plate; 803, Second channel; 804, Second sliding frame; 805, Central tube; 806, Adjustment assembly; 8061, First magnetic plate; 8062, Second magnetic plate; 8063, Third magnetic plate; 8064, Chamber; 807, Processing assembly; 8071, Filter plate; 8072, Third telescopic rod; 8073, Connecting plate; 8074, Branch pipe; 8075, Support rod; 8076, Fourth magnetic plate; 8077, Limiting frame; 8078, Slider; 8079, Outer ring; 9, Slide groove. Detailed Implementation

[0019] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments. The embodiments of the present invention are given for illustrative and descriptive purposes only, and are not intended to be exhaustive or to limit the invention to the forms disclosed. Many modifications and variations will be apparent to those skilled in the art. The embodiments were chosen and described to better illustrate the principles and practical application of the invention, and to enable those skilled in the art to understand the invention and design various embodiments with various modifications suitable for a particular purpose.

[0020] like Figures 1-9 As shown, the present invention provides a technical solution: a vibratory feeder for feeding copper tubes is described below.

[0021] Including the main body 1, it also includes: Mounting base 2 installed on top of body 1; The vibratory plate 4 is set on the top of the body 1, the first connecting frame 5 is connected to the vibratory plate 4, the second connecting frame 6 is installed outside the first connecting frame 5, and the third connecting frame 7 is connected to the second connecting frame 6; The pushing mechanism 3 is mounted on the mounting base 2. The pushing mechanism 3 includes a first push rod 301 mounted on the mounting base 2, a push plate 313 disposed outside the first push rod 301, and a side plate 314 connected to the push plate 313. The first push rod 301 is used to drive the push plate 313 and the side plate 314 to move between the second connecting frame 6 and the third connecting frame 7. The first push rod 301 is an electric push rod. The push plate 313 is a circular plate with a first ventilation opening inside. The side plate 314 is an arc-shaped plate with a second ventilation opening inside. The circular plate and the push plate 313 are hollow inside. The side plate 314 is connected to the push plate 313. The limiting mechanism 8 is installed inside the first connecting frame 5; Slide 9 is located inside the body 1.

[0022] Before using the equipment, place the receiving container below the third connecting frame 7. When using the equipment, start the machine body 1. The U-shaped copper tube moves from the vibratory feeder 4 to the first connecting frame 5. The limiting mechanism 8 limits or pushes the U-shaped copper tube, and a single U-shaped copper tube moves from the first connecting frame 5 to the second connecting frame 6. Then, start the pushing mechanism 3, which pushes the copper tube in the second connecting frame 6 to the third connecting frame 7. The copper tube gradually moves through the third connecting frame 7 to the receiving container below the third connecting frame 7.

[0023] Push mechanism 3 also includes: The slide plate 302 is mounted on the output end of the first push rod 301 and is slidably connected to the inside of the slide groove 9; An adjustment frame 303 is installed on the slide plate 302 and a connecting pipe 304 is set inside the adjustment frame 303. The connecting pipe 304 is connected to the push plate 313. The adjustment frame 303 is composed of a vertically adjustable rod and a frame. A first external pipe is installed on the outside of the adjustment frame 303 and a first external fan is installed on the outside of the first external pipe. The second push rod 305 is installed on the adjustment frame 303 and the connecting plate 315 is connected to the telescopic end of the second push rod 305. The second push rod 305 is configured as an electric push rod. The first telescopic rod 308 is set on the connecting plate 315. The first telescopic rod 308 has an automatic retraction function and is connected to the limiting mechanism 8. An adjusting rod 306 is provided on the connecting plate 315 and a first magnetic block 307 is connected to the end of the adjusting rod 306 away from the connecting plate 315. The adjusting rod 306 is configured as a rod whose length can be manually adjusted. A first sliding frame 309 is sleeved on the outside of the connecting pipe 304 and a second magnetic block 310 is disposed on the first sliding frame 309. A pad 311 is installed on the outside of the second magnetic block 310. The pad 311 is made of rubber. The second telescopic rod 312 is installed on the push plate 313. The second telescopic rod 312 has an automatic retraction function. The telescopic end of the second telescopic rod 312 is connected to the first sliding frame 309.

[0024] The process of using pushing mechanism 3 to push the U-shaped copper tube: As the U-shaped copper tube moves to the second connecting frame, the first push rod 301 is activated. The first push rod 301 drives the slide plate 302, adjusting component, connecting pipe 304, push plate 313, and side plate 314 to move towards the U-shaped copper tube until the push plate 313 contacts the side plate 314 and pushes the U-shaped copper tube to the third connecting frame, completing the pushing operation of the U-shaped copper tube. The external robotic arm then adjusts the angle of the U-shaped copper tube on the third connecting frame so that the U-shaped copper tube falls into the receiving container at the required angle.

[0025] The process of using the pushing mechanism 3 to supply air to the U-shaped copper pipe and the third connecting frame: When the first external fan is started, gas enters the regulating frame 303 through the first external pipe, then enters the connecting pipe 304 through the regulating frame 303, and then enters the push plate 313 and the side plate 314 through the connecting pipe 304. When not pushing, the gas moves to the first connecting frame 5 and the third connecting frame 7 through the first vent in the push plate 313 and the second vent in the side plate 314, supplying air to the corners and promoting the movement of impurities at the corners, thereby reducing the occurrence of U-shaped pipe stagnation due to excessive impurities at the corners of the first connecting frame 5 and the third connecting frame 7. When pushing, the gas moves to the U-shaped copper pipe through the first vent in the push plate 313 and the second vent in the side plate 314, reducing the occurrence of U-shaped copper pipe sticking to the push plate 313 or the side plate 314.

[0026] The working process of using the push mechanism 3 to control the limit mechanism 8: Adjust the second push rod 305 to the reciprocating motion mode. The second push rod 305 drives the connecting plate 315, the first telescopic rod 308, the adjusting rod 306, the first magnetic block 307, and the limiting mechanism 8 to reciprocate in the horizontal direction. During the movement, the first magnetic block 307 repeatedly attracts and fixes itself to the second magnetic block 310. Under the magnetic force of the first magnetic block 307, the second magnetic block 310 repeatedly drives the first sliding frame 309 to move. The second telescopic rod 312 is continuously stretched and returns to its original state. The pad 311 outside the second magnetic block 310 repeatedly impacts the push plate 313 and the side plate 314, promoting the separation of the push plate 313 and the side plate 314 from the U-shaped copper tube.

[0027] By setting up a pushing mechanism 3, and setting up a first connecting frame 5, a second connecting frame 6, and a third connecting frame 7 outside the vibratory feeder 4, a corner channel is preset for the U-shaped copper tube to be unloaded, preventing the U-shaped copper tube from falling directly. At the same time, the push plate 313 and the side plate 314, which move in the horizontal direction, push the U-shaped copper tube at different angles, so that the U-shaped copper tube can enter the receiving container downward through the third connecting frame 7.

[0028] By setting the pushing mechanism 3, while the push plate 313 and the side plate 314 push the U-shaped copper tube, the first sliding frame 309 is repeatedly driven to move under the magnetic force of the second magnetic plate 8062 and the first magnetic plate 8061. The pad 311 outside the second magnetic block 310 repeatedly hits the push plate 313 and the side plate 314, promoting the separation of the push plate 313 and the side plate 314 from the U-shaped copper tube, and reducing the occurrence of the U-shaped copper tube sticking to the push plate 313 or the side plate 314.

[0029] Limiting mechanism 8 includes: The first channel 801 is opened at the bottom of the first connecting frame 5, and the gap of the first channel 801 is much smaller than the size of the U-shaped copper tube; The base plate 802 is installed inside the first channel 801. The base plate 802 is made of magnetic material. The base plate 802 has a second channel 803 inside. There are two second channels 803, which are used to discharge impurities. A second sliding frame 804 is slidably connected inside the first connecting frame 5. An adjustment component 806 is provided inside the second sliding frame 804. The second sliding frame 804 is connected to the first connecting frame 5 by an electric push rod. By adjusting the stroke of the electric push rod, the position of the second sliding frame 804 inside the first connecting frame 5 can be adjusted. A central tube 805 is installed inside the second sliding frame 804. The central tube 805 is connected to a second external pipe, which is connected to a second external fan. A processing component 807 is installed inside the central tube 805.

[0030] Adjustment component 806 includes: A chamber 8064 is located inside the second sliding frame 804; The first magnetic plate 8061, the second magnetic plate 8062, and the third magnetic plate 8063 are installed inside the chamber 8064. The height of the first magnetic plate 8061 is greater than the height of the second magnetic plate 8062, and the height of the second magnetic plate 8062 is greater than the height of the third magnetic plate 8063.

[0031] Processing component 807 includes: The filter plate 8071 installed inside the central tube 805, the third telescopic rod 8072 located below the filter plate 8071, and the connecting plate 8073 connected to the telescopic end of the third telescopic rod 8072. The third telescopic rod 8072 has an automatic retraction function. The connecting plate 8073 has a groove inside and is made of magnetic material. A branch pipe 8074 is connected to the central pipe 805 via a first connector, and a support rod 8075 is connected to the branch pipe 8074 via a second connector. The outer ring 8079 is installed inside the central tube 805, and the outer ring 8079 is located at the connection between the branch tube 8074 and the central tube 805; The fourth magnetic plate 8076 is installed outside the central tube 805. The fourth magnetic plate 8076 is used to cooperate with the first magnetic plate 8061, the second magnetic plate 8062 or the third magnetic plate 8063. A limiting frame 8077 is disposed outside the central tube 805, and a slider 8078 is slidably connected inside the limiting frame 8077. The slider 8078 is connected to the first telescopic rod 308.

[0032] The working process of using limit mechanism 8 to limit the U-shaped copper tube: As the first telescopic rod 308 drives the slider 8078 and the central tube 805 to move horizontally, the fourth magnetic plate 8076 outside the central tube 805 is attracted and fixed to the first magnetic plate 8061, the second magnetic plate 8062 and the third magnetic plate 8063 respectively. During the up-and-down movement of the central tube 805, the height of the first telescopic rod 308 remains unchanged, and the slider 8078 slides in the lifting limit frame 8077.

[0033] When the fourth magnetic plate 8076 is attracted and fixed to the first magnetic plate 8061, the central tube 805 is at its highest position. At this time, the U-shaped copper tube moves to the first connecting frame 5 through the vibrating plate 4 and is close to the position of the second connecting frame 6.

[0034] When the fourth magnetic plate 8076 and the second magnetic plate 8062 are attracted and fixed, the central tube 805, the branch tube 8074, and the support rod 8075 move downwards, and the lower surface of the central tube 805 is flush with the loading surface of the first connecting frame 5. The external fan is started in exhaust mode to suck up impurities from the two corners of the first connecting frame 5. The impurities enter the central tube 805 through the branch tube 8074 and are trapped below the aluminum plate.

[0035] Adjust the stroke of the electric push rod between the second sliding frame 804 and the first connecting frame 5. The electric push rod drives the second sliding frame 804 to move towards the vibratory plate 4, pushing the excess U-shaped copper tube into the vibratory plate 4. Then, adjust the stroke of the electric push rod between the second sliding frame 804 and the first connecting frame 5 again. The electric push rod drives the second sliding frame 804 to move away from the vibratory plate 4, pushing the U-shaped copper tube on the first connecting frame 5 onto the first connecting frame 5.

[0036] When the fourth magnetic plate 8076 and the third magnetic plate 8063 are attracted and fixed, the central tube 805 is at its lowest position. During the descent of the central tube 805, it gradually falls into the first channel 801. Under the magnetic force of the base plate 802, the connecting plate 8073 gradually attracts and is fixed to the base plate 802. The third telescopic rod 8072 is stretched. As the central tube 805 descends, it drives the branch pipe 8074 and the support rod 8075 to descend as well. The support rod 8075 gradually contacts the first connecting frame 5 and is gradually compressed. As the connection between the branch pipe 8074 and the central tube 805 descends with the central tube 805, the end of the branch pipe 8074 away from the central tube 805 gradually tilts upward. Then, the second external fan is turned off, and impurities in the central tube 805 gradually move through the groove of the connecting plate 8073 to the second channel 803 and then move downward through the second channel 803.

[0037] By setting a limiting mechanism 8, the number of U-shaped copper tubes inside the first connecting frame 5 is limited, and the U-shaped copper tubes outside the first connecting frame 5 and the U-shaped copper tubes inside the first connecting frame 5 are pushed in opposite directions. During the movement of the second sliding frame 804, two inclined branch pipes 8074 are used to suck up impurities at the corners of the first connecting frame 5 to reduce the impurities at the corners of the first connecting frame 5.

[0038] Working principle: Before using the equipment, place the receiving container below the third connecting frame 7. When using the equipment, start the machine body 1. The U-shaped copper tube moves from the vibrating plate 4 to the first connecting frame 5. The limiting mechanism 8 limits or pushes the U-shaped copper tube. A single U-shaped copper tube moves from the first connecting frame 5 to the second connecting frame 6.

[0039] Adjust the second push rod 305 to the reciprocating motion mode. The second push rod 305 drives the connecting plate 315, the first telescopic rod 308, the adjusting rod 306, the first magnetic block 307, and the limiting mechanism 8 to reciprocate in the horizontal direction.

[0040] As the first telescopic rod 308 drives the slider 8078 and the central tube 805 to move horizontally, the fourth magnetic plate 8076 outside the central tube 805 is attracted and fixed to the first magnetic plate 8061, the second magnetic plate 8062 and the third magnetic plate 8063 respectively. During the up-and-down movement of the central tube 805, the height of the first telescopic rod 308 remains unchanged, and the slider 8078 slides in the lifting limit frame 8077.

[0041] When the fourth magnetic plate 8076 is attracted and fixed to the first magnetic plate 8061, the central tube 805 is at its highest position. At this time, the U-shaped copper tube moves to the first connecting frame 5 through the vibrating plate 4 and is close to the position of the second connecting frame 6.

[0042] When the fourth magnetic plate 8076 and the second magnetic plate 8062 are attracted and fixed, the central tube 805, the branch tube 8074, and the support rod 8075 move downwards, and the lower surface of the central tube 805 is flush with the loading surface of the first connecting frame 5. The external fan is started in exhaust mode to suck up impurities from the two corners of the first connecting frame 5. The impurities enter the central tube 805 through the branch tube 8074 and are trapped below the aluminum plate.

[0043] Adjust the stroke of the electric push rod between the second sliding frame 804 and the first connecting frame 5. The electric push rod drives the second sliding frame 804 to move towards the vibratory plate 4, pushing the excess U-shaped copper tube into the vibratory plate 4. Then, adjust the stroke of the electric push rod between the second sliding frame 804 and the first connecting frame 5 again. The electric push rod drives the second sliding frame 804 to move away from the vibratory plate 4, pushing the U-shaped copper tube on the first connecting frame 5 onto the first connecting frame 5.

[0044] During the movement, the first magnetic block 307 repeatedly attracts and fixes itself to the second magnetic block 310. Under the magnetic control of the first magnetic block 307, the second magnetic block 310 repeatedly drives the first sliding frame 309 to move. The second telescopic rod 312 is continuously stretched and returns to its original state. The pad 311 outside the second magnetic block 310 repeatedly impacts the push plate 313 and the side plate 314, promoting the separation of the push plate 313 and the side plate 314 from the U-shaped copper tube.

[0045] The first external fan is started, and gas enters the adjusting frame 303 through the first external pipe, then enters the connecting pipe 304 through the adjusting frame 303, and then enters the push plate 313 and the side plate 314 through the connecting pipe 304. As the U-shaped copper tube moves to the second connecting frame, the first push rod 301 is activated. The first push rod 301 drives the slide plate 302, adjusting component, connecting pipe 304, push plate 313, and side plate 314 to move towards the U-shaped copper tube until the push plate 313 contacts the side plate 314 and pushes the U-shaped copper tube to the third connecting frame, completing the pushing operation of the U-shaped copper tube. The external robotic arm adjusts the angle of the U-shaped copper tube on the third connecting frame so that the U-shaped copper tube falls into the receiving container at the required angle.

[0046] When not pushing, the gas moves through the first vent in the push plate 313 and the second vent in the side plate 314 to the first connecting frame 5 and the third connecting frame 7, supplying air to the corners and promoting the movement of impurities at the corners, thereby reducing the occurrence of U-shaped pipe stagnation due to excessive impurities at the corners of the first connecting frame 5 and the third connecting frame 7; when pushing, the gas moves through the first vent in the push plate 313 and the second vent in the side plate 314 to the U-shaped copper tube, reducing the occurrence of U-shaped copper tube sticking to the push plate 313 or the side plate 314.

[0047] Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. All other embodiments obtained by those skilled in the art and related fields based on the embodiments of the present invention without inventive effort should fall within the scope of protection of the present invention. Structures, devices, and operating methods not specifically described and explained in the present invention, unless otherwise specified or limited, shall be implemented according to conventional means in the art.

Claims

1. A vibratory feeder for feeding copper tubes, comprising a body (1), characterized in that, Also includes: Mounting base (2) installed on top of the body (1); The vibratory plate (4) is set on the top of the body (1), the first connecting frame (5) is connected to the vibratory plate (4), the second connecting frame (6) is installed outside the first connecting frame (5), and the third connecting frame (7) is connected to the second connecting frame (6). The push mechanism (3) is provided on the mounting base (2). The push mechanism (3) includes a first push rod (301) installed on the mounting base (2), a push plate (313) provided outside the first push rod (301), and a side plate (314) connected to the push plate (313). The first push rod (301) is used to drive the push plate (313) and the side plate (314) to move between the second connecting frame (6) and the third connecting frame (7).

2. The vibratory feeder for copper tube feeding according to claim 1, characterized in that: Also includes: Limiting mechanism (8) is set inside the first connecting frame (5); A groove (9) is formed inside the body (1).

3. The vibratory feeder for copper tube feeding according to claim 2, characterized in that: The push mechanism (3) also includes: The slide plate (302) is disposed on the output end of the first push rod (301), and the slide plate (302) is slidably connected to the inside of the slide groove (9); An adjustment frame (303) is mounted on the slide plate (302) and a connecting pipe (304) is disposed inside the adjustment frame (303), the connecting pipe (304) being connected to the push plate (313).

4. The vibratory feeder for copper tube feeding according to claim 3, characterized in that: The push mechanism (3) also includes: The second push rod (305) and the connecting plate (315) connected to the telescopic end of the second push rod (305) are installed on the adjusting frame (303). The first telescopic rod (308) is provided on the connecting plate (315) and is connected to the limiting mechanism (8); An adjusting rod (306) is provided on the connecting plate (315), and a first magnetic block (307) is connected to the end of the adjusting rod (306) away from the connecting plate (315).

5. The vibratory feeder for copper tube feeding according to claim 4, characterized in that: The push mechanism (3) also includes: A first sliding frame (309) sleeved on the outside of the connecting pipe (304) and a second magnetic block (310) disposed on the first sliding frame (309), wherein a pad (311) is installed on the outside of the second magnetic block (310). The second telescopic rod (312) is provided on the push plate (313), and the telescopic end of the second telescopic rod (312) is connected to the first sliding frame (309).

6. The vibratory feeder for copper tube feeding according to claim 2, characterized in that: The limiting mechanism (8) includes: The first channel (801) is opened at the bottom of the first connecting frame (5); A base plate (802) installed inside the first channel (801) has a second channel (803) inside it. A second sliding frame (804) is slidably connected inside the first connecting frame (5), and an adjustment component (806) is provided inside the second sliding frame (804). A central tube (805) is disposed inside the second sliding frame (804), and a processing component (807) is disposed inside the central tube (805).

7. The vibratory feeder for copper tube feeding according to claim 6, characterized in that: The adjustment component (806) includes: A chamber (8064) is opened inside the second sliding frame (804); The first magnetic plate (8061), the second magnetic plate (8062), and the third magnetic plate (8063) are installed inside the chamber (8064).

8. The vibratory feeder for copper tube feeding according to claim 7, characterized in that: The processing component (807) includes: The filter plate (8071) installed inside the central tube (805), the third telescopic rod (8072) located below the filter plate (8071), and the connecting plate (8073) connected to the telescopic end of the third telescopic rod (8072). A branch pipe (8074) connected to the central pipe (805) via a first connector and a support rod (8075) connected to the branch pipe (8074) via a second connector. The outer ring (8079) is installed inside the central tube (805).

9. The vibratory feeder for copper tube feeding according to claim 8, characterized in that: The processing component (807) further includes: The fourth magnetic plate (8076) is installed outside the central tube (805); A limiting frame (8077) is disposed outside the central tube (805) and a slider (8078) is slidably connected inside the limiting frame (8077), the slider (8078) being connected to the first telescopic rod (308).

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