distributor

Abstract

The application discloses a kind of material distributing devices, belong to auxiliary mechanical equipment technical field.The material distributing device includes: storage bin assembly, storage bin assembly includes bin, and bin is used to accommodate material;Vibration component, vibration component includes vibration disc, and vibration disc is provided with first flow channel, second flow channel and blowing mechanism, bin extends to first flow channel and second flow channel, blowing mechanism is respectively arranged in first flow channel and second flow channel, and blowing mechanism is used to blow the package of material in first flow channel and second flow channel;Conveying line component, conveying line component includes oppositely arranged first conveying line and second conveying line, first flow channel is connected with first conveying line, and first conveying line is used to separate the package of material that first flow channel flows out, second flow channel is connected with second conveying line, and second conveying line is used to separate the package of material that second flow channel flows out.

Description

Technical Field

[0001] This application relates to the field of energy-saving and environmentally friendly automated equipment technology, specifically to a material dispensing device. Background Technology

[0002] In automated production and packaging, existing material blocking and distributing mechanisms are complex in structure. Stopping can easily damage materials and make stacked bags difficult to handle. In pre-made bag packaging machines, the material distribution mechanism is one of the key components. Its stability and speed directly affect the overall operating speed and stability of the machine. The material distribution mechanism is also a mechanism that frequently fails in packaging machines.

[0003] Most institutions on the market can achieve a speed of 30 packs / minute to 40 packs / minute, which is not enough for high-speed production and is difficult to adapt to the above speed for materials of different sizes. They basically use special machines for material separation. Summary of the Invention

[0004] The purpose of this application is to provide a material distribution device to solve the problems of how to improve the material separation speed and reduce the material distribution failure rate, and how to effectively avoid damage to the compression bag caused by the material being blocked and stopped by the cylinder.

[0005] This application provides a storage bin assembly, which includes a bin for containing materials; a vibration assembly including a vibrating plate with a first flow channel, a second flow channel, and an air blowing mechanism; the bin extending to the first and second flow channels; the air blowing mechanism being disposed within the first and second flow channels respectively, and used to blow away the stacked packages of materials within the first and second flow channels; and a conveyor assembly including a first conveyor line and a second conveyor line disposed opposite to each other; the first flow channel being connected to the first conveyor line, and the first conveyor line being used to separate the stacked packages of materials flowing out of the first flow channel; and the second flow channel being connected to the second conveyor line, and the second conveyor line being used to separate the stacked packages of materials flowing out of the second flow channel.

[0006] In some embodiments, a frame is also included, on which the storage bin assembly, the vibration assembly, and the conveyor assembly are mounted.

[0007] In some embodiments, the first flow channel and the second flow channel are arranged opposite to each other, and the blowing mechanism includes a nozzle, which is respectively disposed in the first flow channel and the second flow channel. The nozzle contains gas and is used to blow the stacked material in the first flow channel and the second flow channel.

[0008] In some embodiments, the vibration assembly further includes a material shortage detection mechanism disposed on the vibratory plate facing the first flow channel and the second flow channel, and the material shortage detection mechanism is used to detect the material shortage situation in the first flow channel and the second flow channel.

[0009] In some embodiments, a second mounting plate is provided on the side of the vibratory feeder away from the first flow channel and the second flow channel, and a second adjusting rod is provided on the side of the second mounting plate away from the vibratory feeder, and the second adjusting rod is mounted on the frame.

[0010] In some embodiments, a first mounting plate is provided on the side of the vibrator away from the hopper, and a first adjusting rod is provided on the side of the first mounting plate away from the vibrator, and the first adjusting rod is mounted on the frame.

[0011] In some embodiments, the hopper is provided with a discharge port on the side facing the vibratory feeder, and the discharge port is used to provide material to the vibratory feeder; the first conveyor line is provided with a first inlet on the side facing the first flow channel, and the first inlet is connected to the first flow channel; the second conveyor line is provided with a second inlet on the side facing the second flow channel, and the second inlet is connected to the second flow channel.

[0012] In some embodiments, the first conveyor line includes a first conveyor belt, a second conveyor belt, and a third conveyor belt arranged in sequence, the third conveyor belt being disposed on the side of the first conveyor belt away from the vibratory feeder, and the second conveyor belt being disposed between the first conveyor belt and the third conveyor belt.

[0013] In some embodiments, the second conveyor line includes a fourth conveyor belt, a fifth conveyor belt, and a sixth conveyor belt arranged in sequence. The sixth conveyor belt is disposed on the side of the third conveyor belt away from the second flow channel, and the fifth conveyor belt is disposed between the fourth conveyor belt and the sixth conveyor belt.

[0014] In some embodiments, the conveyor assembly further includes a support plate connected to the frame, wherein both the first conveyor line and the second conveyor line are mounted on the support plate.

[0015] In some embodiments, the first conveyor line further includes a first sensor, a second sensor, and a third sensor respectively disposed on the support plate. The first sensor is used to detect the bundled state of the material on the first conveyor belt, the second sensor is used to detect the bundled state of the material on the second conveyor belt, and the third sensor is used to detect the bundled state of the material on the third conveyor belt.

[0016] In some embodiments, the second conveyor line further includes a fourth sensor, a fifth sensor, and a sixth sensor respectively disposed on the support plate. The fourth sensor is used to detect the bundled state of the material on the fourth conveyor belt, the fifth sensor is used to detect the bundled state of the material on the fifth conveyor belt, and the sixth sensor is used to detect the bundled state of the material on the sixth conveyor belt.

[0017] In some embodiments, the first conveyor line further includes a first motor, a second motor, and a third motor respectively disposed on the support plate, wherein the first motor is connected to the first conveyor belt, the second motor is connected to the second conveyor belt, and the third motor is connected to the third conveyor belt.

[0018] In some embodiments, the second conveyor line further includes a fourth motor, a fifth motor, and a sixth motor respectively disposed on the support plate, wherein the fourth motor is connected to the fourth conveyor belt, the fifth motor is connected to the fifth conveyor belt, and the sixth motor is connected to the sixth conveyor belt.

[0019] The beneficial effects of this application are as follows: The material distribution device includes: a storage bin assembly, which includes a bin for containing materials; a vibration assembly, which includes a vibrating plate, which is provided with a first flow channel, a second flow channel, and an air blowing mechanism. The bin is used to supply materials to the first and second flow channels, and the air blowing mechanism is respectively disposed in the first and second flow channels to blow away the stacked packages of materials in the first and second flow channels; and a conveyor assembly, which includes a first conveyor line and a second conveyor line arranged opposite to each other. The first flow channel is connected to the first conveyor line, which is used to separate the continuous packages of materials flowing out of the first flow channel, and the second flow channel is connected to the second conveyor line, which is used to separate the continuous packages of materials flowing out of the second flow channel. This material distribution device can improve the separation speed of stacked and continuous packages of materials such as desiccants, reduce the material separation failure rate, and effectively avoid damage to the packages caused by misjudgment of the blocking cylinder. Attached Figure Description

[0020] To more clearly illustrate the technical solutions in the embodiments of this application, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0021] Figure 1 This is a schematic diagram of the overall structure of the material dispensing device according to an embodiment of this application;

[0022] Figure 2 This is a structural schematic diagram of the storage bin component of the material distribution device;

[0023] Figure 3 This is a schematic diagram of the vibration assembly of the material distribution device;

[0024] Figure 4 This is a schematic diagram of the conveyor line assembly of the material distribution device.

[0025] Figure 5 for Figure 4 A structural diagram from another perspective;

[0026] Figure 6 for Figure 5 A schematic diagram of the cross-section along the AA direction;

[0027] Figure 7 Perspective view of the conveyor line assembly;

[0028] Reference numerals: 100-Storage bin assembly, 110-Bin, 111-Discharge port, 120-Vibrator, 130-First mounting plate, 140-First adjusting rod, 200-Vibration assembly, 210-Vibrating plate, 220-Material shortage detection mechanism, 230-First flow channel, 240-Second flow channel, 250-Air blowing mechanism, 260-Second mounting plate, 270-Second adjusting rod, 300-Conveyor line assembly, 301-First conveyor line, 302-Second conveyor line, 303-Support plate, 304-First feed inlet, 305-Second feed inlet, 31 0 - First conveyor belt, 311 - First motor, 312 - First sensor, 320 - Second conveyor belt, 321 - Second motor, 322 - Second sensor, 330 - Third conveyor belt, 331 - Third motor, 332 - Third sensor, 333 - Seventh sensor, 340 - Fourth conveyor belt, 341 - Fourth motor, 342 - Fourth sensor, 350 - Fifth conveyor belt, 351 - Fifth motor, 352 - Fifth sensor, 360 - Sixth conveyor belt, 361 - Sixth motor, 362 - Sixth sensor, 363 - Eighth sensor. Detailed Implementation

[0029] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of the embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application. In addition, it should be understood that the specific embodiments described herein are only for illustration and explanation of this application and are not intended to limit this application. In this application, unless otherwise stated, directional terms such as "upper" and "lower" generally refer to the upper and lower positions of the device in actual use or operation, specifically the drawing directions in the accompanying drawings; while "inner" and "outer" refer to the outline of the device.

[0030] This application addresses the problems of low material separation speed, material distribution failure, and damage to the compression pack caused by misjudgment of the cylinder when the material is blocked. It provides a material distribution device, particularly a dual-channel material distribution device for desiccants, belonging to the field of auxiliary mechanical equipment technology. Detailed descriptions follow. It should be noted that the order of description of the following embodiments is not intended to limit the preferred order of the embodiments.

[0031] Please see Figure 1 This application provides a material dispensing device, including a storage bin assembly 100, a vibration assembly 200, and a conveyor assembly 300. The storage bin assembly 100 includes a bin 110 containing a material, namely a desiccant. The vibration assembly 200 includes a vibrating plate 210, with the bin 110 extending into the vibrating plate 210 to supply material to it. The vibrating plate 210 is provided with a first flow channel 230, a second flow channel 240, and an air blowing mechanism 250. The air blowing mechanism 250 is provided in either the first flow channel 230 or the second flow channel 240. Channel 240 is used to convey material in vibratory feeder 210 for diverting and separating the material. Air blowing mechanism 250 is used to blow out the stacked packages in the material in first channel 230 and second channel 240. Conveyor line assembly 300 includes first conveyor line 301 and second conveyor line 302. First channel 230 is connected to first conveyor line 301, and second channel 240 is connected to second conveyor line 302. First conveyor line 301 is used to convey material in first channel 230 and separate stacked packages in the material. Second conveyor line 302 is used to transport material in second channel 240 and separate stacked packages in the material.

[0032] The material distribution device of this application includes a storage bin assembly 100, which further includes a vibrator 120. The vibrator 120 vibrates the bin 110 to move the material in the bin 110 toward the vibration assembly 200. The vibrator 120 drives the bin 110 to vibrate to achieve the purpose of replenishing the material. The air blowing mechanism 250 blows air in the first flow channel 230 and the second flow channel 240 to achieve the purpose of stacking the blown material. The first conveyor line 301 and the second conveyor line 302 are used to effectively separate the continuous packages of material.

[0033] The material distribution device of this application also includes a frame 400, a storage bin assembly 100, a vibration assembly 200, and a conveyor assembly 300, all of which are installed and fixed on the frame 400.

[0034] like Figure 2As shown, the hopper 110 has a discharge port 111 on the side facing the vibrating plate 210. The discharge port 111 extends into the vibrating plate 210, and the material enters the vibrating plate 210 through the discharge port 111. Specifically, the material enters the first flow channel 230 and the second flow channel 240 through the discharge port 111. The vibrator 120 has a first mounting plate 130 on the side away from the hopper 110, and a first adjusting rod 140 on the side away from the vibrator 120. The first adjusting rod 140 is connected to the frame 400 and the first mounting plate 130 respectively. The vibrator 120 is used to vibrate the hopper 110, so that the hopper 110 provides material to the vibrating plate 210 from the discharge port 111. The first adjusting rod 140 is used to adjust the vibration of the vibrator 120.

[0035] Specifically, the frame 400 is a square frame support, the storage bin assembly 100 is installed inside the frame 400, the first adjusting rod 140, the first mounting plate 130, the vibrator 120 and the hopper 110 are connected sequentially along the third direction Z, the third direction Z is the height direction of the frame 400; the vibration assembly 200 is installed inside the frame 400, the vibration assembly 200 and the storage bin assembly 100 are arranged side by side along the first direction X, the hopper 110 extends along the first direction X to the vibrating plate 210 and is provided with a discharge port 111; and the conveyor assembly 300 and the vibration assembly are arranged side by side along the second direction Y, that is, the first conveyor line 301 and the second conveyor line 302 extend along the second direction Y, and the first conveyor line 301 and the second conveyor line 302 are spaced apart along the first direction X.

[0036] like Figure 3 As shown, the first flow channel 230 and the second flow channel 240 of the vibratory feeder 210 are arranged opposite to each other. The air blowing mechanism 250 includes an air nozzle (not shown), which is located on the inner side of the first flow channel 230 and the second flow channel 240. Gas is always flowing through the air nozzle, which is used to blow the stacked material in the first flow channel 230 and the second flow channel 240. The vibration assembly 200 also includes a material shortage detection mechanism 220, which is arranged on the vibratory feeder 210 and faces the first flow channel 230 and the second flow channel 240. The material shortage detection mechanism 220 is used to detect whether the first flow channel 230 and the second flow channel 240 are lacking material. The material shortage detection mechanism 220 is a photoelectric detection mechanism.

[0037] The vibration assembly 200 also includes a second mounting plate 260 and a second adjusting rod 270. The second mounting plate 260 is disposed on the side of the vibratory plate 210 away from the first flow channel 230, and the second adjusting rod 270 is disposed on the side of the second mounting plate 260 away from the vibratory plate 210. The two ends of the second adjusting rod 270 are respectively connected to the second mounting plate 260 and the frame 400, and the second adjusting rod 270 is used to adjust the vibration of the vibratory plate 210.

[0038] In this embodiment, the conveyor assembly 300 further includes a support plate 303. The two ends of the support plate 303 extend along the second direction Y to the first flow channel 230 and the frame 400, respectively. The two ends of the other support plate 303 extend along the second direction Y to the second flow channel 240 and the frame 400, respectively. The two support plates 303 are arranged at intervals relative to each other along the first direction X, and the two support plates 303 extend along the third direction Z to the frame 400, respectively. The support plate 303 is connected to the frame 400, and the first conveyor line 301 and the second conveyor line 302 are both installed on the support plate 303.

[0039] like Figure 5 As shown, the first conveyor line 301 includes a first conveyor belt 310, a second conveyor belt 320, and a third conveyor belt 330. The first conveyor belt 310 is close to the vibrating plate 210, the third conveyor belt 330 is disposed on the side of the first conveyor belt 310 away from the vibrating plate 210, the second conveyor belt 320 is disposed between the first conveyor belt 310 and the third conveyor belt 330, the first conveyor belt 310 is connected to the first flow channel 230, and the first conveyor belt 310, the second conveyor belt 320, and the third conveyor belt 330 are arranged sequentially along the second direction Y to form the first conveyor line 301.

[0040] The first conveyor belt 310 is connected to the first motor 311, which drives the first conveyor belt 310 to rotate. The second conveyor belt 320 is connected to the second motor 321, which drives the second conveyor belt 320 to rotate. The third conveyor belt 330 is connected to the third motor 331, which drives the third conveyor belt 330 to rotate.

[0041] In this embodiment, the first conveyor belt 310, the second conveyor belt 320 and the third conveyor belt 330 each have a working surface for carrying materials. The working surfaces of the first conveyor belt 310, the second conveyor belt 320 and the third conveyor belt 330 are arranged sequentially along the second direction Y to form the working surface of the first conveyor line 301.

[0042] The second conveyor line 302 includes a fourth conveyor belt 340, a fifth conveyor belt 350, and a sixth conveyor belt 360. The fourth conveyor belt 340 is close to the vibrating plate 210, the sixth conveyor belt 360 is located on the side of the fourth conveyor belt 340 away from the vibrating plate 210, and the fifth conveyor belt 350 is located between the fourth conveyor belt 340 and the sixth conveyor belt 360. The fourth conveyor belt 340, the fifth conveyor belt 350, and the sixth conveyor belt 360 are arranged sequentially to form the second conveyor line 302. The fourth conveyor belt 340 is connected to the second flow channel 240. The fourth conveyor belt 340, the fifth conveyor belt 350, and the sixth conveyor belt 360 are arranged sequentially along the second direction Y to form the second conveyor line 302.

[0043] Furthermore, the fourth conveyor belt 340 is connected to the fourth motor 341, which drives the fourth conveyor belt 340 to rotate. The fifth conveyor belt 350 is connected to the fifth motor 351, which drives the fifth conveyor belt 350 to rotate. The sixth conveyor belt 360 is connected to the sixth motor 361, which drives the sixth conveyor belt 360 to rotate. The fourth motor 341, the fifth motor 351, and the sixth motor 361 are mounted on the support plate 303. Each of the fourth conveyor belt 340, the fifth conveyor belt 350, and the sixth conveyor belt 360 has a working surface for carrying materials. The working surfaces of the fourth conveyor belt 340, the fifth conveyor belt 350, and the sixth conveyor belt 360 are connected sequentially to form the working surface of the second conveyor line 302.

[0044] Therefore, in this embodiment of the application, the fourth conveyor belt 340, the fifth conveyor belt 350 and the sixth conveyor belt 360 of the second conveyor line 302 are used to separate the continuous packages of materials.

[0045] It should be noted that the first conveyor belt 310, the second conveyor belt 320, the third conveyor belt 330, the first motor 311, the second motor 321, the third motor 331, the first sensor 312, the second sensor 322, and the third sensor 332 of the first conveyor line 301 are all mounted on the support plate 303, as are the fourth conveyor belt 340, the fifth conveyor belt 350, the sixth conveyor belt 360, the fourth motor 341, the fifth motor 351, the sixth motor 361, the fourth sensor 342, the fifth sensor 352, and the sixth sensor 362 of the second conveyor line 302.

[0046] like Figure 4 As shown, the first conveyor line 301 also includes a first sensor 312, a second sensor 322, a third sensor 332, and a seventh sensor 333. The first sensor 312 is disposed on one side of the working surface of the first conveyor belt 310, the second sensor 322 is disposed on one side of the working surface of the second conveyor belt 320, the third sensor 332 is disposed on one side of the working surface of the third conveyor belt 330, and the seventh sensor 333 is disposed on the side of the third sensor 332 away from the second sensor 322. The first sensor 312 is used to detect the separation of the bundled material on the first conveyor belt 310, the second sensor 322 is used to detect the separation of the bundled material on the second conveyor belt 320, the third sensor 332 is used to detect the separation of the bundled material on the third conveyor belt 330, and the seventh sensor 333 is used to detect whether the material on the third conveyor belt 330 is in place.

[0047] The second conveyor line 302 also includes a fourth sensor 342, a fifth sensor 352, a sixth sensor 362, and an eighth sensor 363. The fourth sensor 342 is located on one side of the working surface of the fourth conveyor belt 340, the fifth sensor 352 is located on one side of the working surface of the fifth conveyor belt 350, and the sixth sensor 362 is located on one side of the working surface of the sixth conveyor belt 360. The eighth sensor 363 is located on the side of the sixth sensor 362 away from the fifth sensor 352. The fourth sensor 342 is used to detect the separation of the bundled materials on the fourth conveyor belt 340, the fifth sensor 352 is used to detect the separation of the materials on the fifth conveyor belt 350, the sixth sensor 362 is used to detect the separation of the bundled materials on the sixth conveyor belt 360, and the eighth sensor 363 is used to detect whether the materials on the sixth conveyor belt 360 are in place.

[0048] like Figure 5 As shown, the first conveyor belt 310 has a first feed inlet 304 at the end away from the second conveyor belt 320. The first feed inlet 304 is connected to the first flow channel 230. The material enters the first conveyor belt 310 through the first feed inlet 304. The direction of the first conveyor belt 310 towards the third conveyor belt 330 is the transport direction of the material in the first conveyor line 301. The fourth conveyor belt 340 has a second feed inlet 305 at the end away from the sixth conveyor belt 360. The second feed inlet 305 is connected to the second flow channel 240. The material enters the fourth conveyor belt 340 through the second feed inlet 305. The direction of the fourth conveyor belt 340 towards the sixth conveyor belt 360 is the transport direction of the material in the second conveyor line 302. When materials run on the first conveyor line 301, the first conveyor belt 310 has the slowest speed, the third conveyor belt 330 has the fastest speed, and the second conveyor belt 320 has a medium speed. When materials run on the second conveyor line 302, the fourth conveyor belt 340 has the slowest speed, the sixth conveyor belt 360 has the fastest speed, and the fifth conveyor belt 350 has a medium speed. The fourth conveyor belt 340, the fifth conveyor belt 350, and the sixth conveyor belt 360 of the second conveyor line 302 are used to separate the continuous bundles of materials.

[0049] The material distribution device of this application includes a storage bin assembly 100, a vibration assembly 200, and a conveyor assembly 300. The storage bin assembly 100 includes a hopper 110 and a vibrator 120 connected to each other. The hopper 110 is used to provide materials, and the vibrator 120 is used to drive the hopper 110 to vibrate in order to replenish the material distribution device. The vibration assembly 200 includes a vibratory plate 210, which is provided with a first flow channel 230, a second flow channel 240, and an air blowing mechanism 250. Either the first flow channel 230 or the second flow channel 240 is provided with the air blowing mechanism 250. The first flow channel 230 and the second flow channel 240 are used to transport materials in the vibratory plate 210 for diverting and separating the materials. The air blowing mechanism 250 is used to blow away the stacked packages in the materials in the first flow channel 230 and the second flow channel 240. The conveyor line assembly 300 includes a first conveyor line 301 and a second conveyor line 302. The first flow channel 230 is connected to the first conveyor line 301, and the second flow channel 240 is connected to the second conveyor line 302. The first conveyor line 301 is used to transport materials in the first flow channel 230 and separate the stacked packages in the materials. The second conveyor line 302 is used to transport materials in the second flow channel 240 and separate the stacked packages in the materials.

[0050] In the above embodiments, the descriptions of each embodiment have different focuses. For parts not described in detail in a certain embodiment, please refer to the relevant descriptions in other embodiments.

[0051] The material dispensing device provided in the embodiments of this application has been described in detail above. Specific examples have been used to illustrate the principles and implementation methods of this application. The description of the above embodiments is only for the purpose of helping to understand the method and core ideas of this application. At the same time, for those skilled in the art, there will be changes in the specific implementation methods and application scope based on the ideas of this application. Therefore, the content of this specification should not be construed as a limitation of this application.

Claims

1. A material dividing device characterized by comprising: The application relates to a material storage and conveying device. The device comprises a material storage assembly (100) and a vibration assembly (200). The material storage assembly (100) comprises a material storage bin (110) for storing materials. The vibration assembly (200) comprises a vibration disc (210) provided with a first flow channel (230), a second flow channel (240) and a blowing mechanism (250). The first flow channel (230) and the second flow channel (240) are connected to a first conveying line (301) and a second conveying line (302) respectively. The first conveying line (301) is used for separating the materials flowing out of the first flow channel (230). The second conveying line (302) is used for separating the materials flowing out of the second flow channel (240). The vibration assembly (200) further comprises a material shortage detection mechanism (220) arranged on the vibration disc (210) and facing the first flow channel (230) and the second flow channel (240). The first conveying line (301) comprises a first conveying belt (310), a second conveying belt (320) and a third conveying belt (330) arranged in sequence and increasing in speed. The third conveying belt (330) is arranged on the side of the first conveying belt (310) away from the first flow channel (230). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first sensor (312) is used for detecting the state of the materials on the first conveying belt (310). The second sensor (322) is used for detecting the state of the materials on the second conveying belt (320). The third sensor (332) is used for detecting the state of the materials on the third conveying belt (330). The first conveying line (301) further comprises a first sensor (312), a second sensor (322) and a third sensor (332). The first The second conveying line (302) comprises a fourth conveying belt (340), a fifth conveying belt (350) and a sixth conveying belt (360) arranged in sequence and increasing in speed, the sixth conveying belt (360) is arranged on the side of the third conveying belt (330) away from the second flow channel (240), and the fifth conveying belt (350) is arranged between the fourth conveying belt (340) and the sixth conveying belt (360). The second conveying line (302) further comprises a fourth sensor (342), a fifth sensor (352) and a sixth sensor (362), the fourth sensor (342) is used to detect the continuous bag state of the material on the fourth conveying belt (340), the fifth sensor (352) is used to detect the continuous bag state of the material on the fifth conveying belt (350), and the sixth sensor (362) is used to detect the continuous bag state of the material on the sixth conveying belt (360).

2. The apparatus of claim 1, wherein Further comprising a rack (400), the storage bin assembly (100), the vibration assembly (200) and the conveying line assembly (300) are installed on the rack (400).

3. The apparatus of claim 1, wherein The first flow channel (230) and the second flow channel (240) are oppositely arranged, the blowing mechanism (250) comprises a gas nozzle, the gas nozzle is arranged in the first flow channel (230) and the second flow channel (240) respectively, the gas nozzle contains gas, and the gas nozzle is used to blow the overlapping bags of the materials in the first flow channel (230) and the second flow channel (240).

4. The apparatus of claim 2, wherein The side of the vibration disc (210) away from the first flow channel (230) and the second flow channel (240) is provided with a second mounting plate (260), the side of the second mounting plate (260) away from the vibration disc (210) is provided with a second adjusting rod (270), and the second adjusting rod (270) is installed on the rack (400).

5. The apparatus of claim 2 wherein, The storage bin assembly (100) further comprises a vibrator (120), the side of the vibrator (120) away from the bin (110) is provided with a first mounting plate (130), the side of the first mounting plate (130) away from the vibrator (120) is provided with a first adjusting rod (140), and the first adjusting rod (140) is installed on the rack (400).

6. The apparatus of claim 1, wherein, The side of the bin (110) toward the vibration disc (210) is provided with a discharge port (111), the discharge port (111) is used to provide materials to the vibration disc (210); the side of the first conveying line (301) toward the first flow channel (230) is provided with a first feeding port (304), the first feeding port (304) is connected with the first flow channel (230), and the side of the second conveying line (302) toward the second flow channel (240) is provided with a second feeding port (305), the second feeding port (305) is connected with the second flow channel (240).

7. The apparatus of claim 2 wherein, The conveying line assembly (300) further comprises a support plate (303) connected with the rack (400), and the first conveying line (301) and the second conveying line (302) are both mounted on the support plate (303).

8. The apparatus of claim 7, wherein, The first sensor (312), the second sensor (322) and the third sensor (332) are respectively arranged on the support plate (303).

9. The apparatus of claim 7, wherein, The fourth sensor (342), the fifth sensor (352) and the sixth sensor (362) are respectively arranged on the support plate (303).

10. The apparatus of claim 7, wherein, The first conveying line (301) further comprises a first motor (311), a second motor (321) and a third motor (331) respectively arranged on the support plate (303), the first motor (311) is connected with the first conveying belt (310), the second motor (321) is connected with the second conveying belt (320), and the third motor (331) is connected with the third conveying belt (330).

11. The apparatus of claim 7 wherein, The second conveying line (302) further comprises a fourth motor (341), a fifth motor (351) and a sixth motor (361) respectively arranged on the support plate (303), the fourth motor (341) is connected with the fourth conveying belt (340), the fifth motor (351) is connected with the fifth conveying belt (350), and the sixth motor (361) is connected with the sixth conveying belt (360).

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