Diagnostic kit through-wall conveying device suitable for differential pressure environment

Abstract

The utility model provides a diagnostic kit wall-passing conveying device suitable for a differential pressure environment. The diagnostic kit wall-passing conveying device comprises a main body frame, a conveying part, a separation part, an air pressure adjusting part, a storage part and a control part, the main body frame comprises a working area mechanism, a bracket mechanism and an automatic bagging and sealing machine; the conveying part comprises a receiving belt conveyor mechanism, a feeding belt conveyor mechanism and a receiving and shaping mechanism; the separation part comprises an n-shaped separation groove pipe, a limiting mechanism, an adjusting mechanism and a distance measuring mechanism; the air pressure adjusting part comprises an adjusting box, a movable brake mechanism and a transition brake mechanism; the storage part comprises a third conveying belt device, a limiting baffle and a seventh push rod motor. Mechanical automation can be realized when the bagged detection reagent is transferred from a transfer window on an independent workshop, and a receiving box for transfer is omitted, so that scratches on the bag surface of a filter membrane are remarkably reduced; the pressure difference is coordinated through the air pressure adjusting part, ordered transfer is achieved in combination with the conveying part, the transfer efficiency is greatly improved, and meanwhile a large amount of manpower is saved.

Description

Technical Field

[0001] The utility model relates to the field of in vitro detection, in particular to a diagnostic reagent box wall conveying device suitable for use in a pressure difference environment. Background Art

[0002] In the production process of in vitro diagnostic kits, the diagnostic kits and desiccants need to be placed in aluminum film bags and sealed to make bagged test reagents, which are then packaged in paper boxes for storage and transportation. In order to ensure the quality of the finished in vitro diagnostic kits, the finished aluminum film bags need to be tested during the production process. The test items include sealing leakage, scratches, etc.

[0003] The above-mentioned testing and packaging process needs to be carried out in an independent workshop with certain air purification conditions, and then transferred to the next independent workshop through the transfer window set on the wall of the independent workshop. Different pressure differences will be generated in each workshop due to the need for air purification. The existing transfer is mostly done manually, which has the following defects:

[0004] First, the storage of finished aluminum film bags in the receiving box (for transit) is chaotic and disorderly, which easily causes scratches on the surface of the aluminum film bags.

[0005] Secondly, since it needs to go through the transfer window, the number of manpower will increase, and the human resource cost will increase accordingly.

[0006] Third, when packing in cartons, picking is inconvenient, which affects efficiency. Utility Model Content

[0007] The utility model provides a diagnostic reagent box wall conveying device suitable for use in a pressure difference environment, which can effectively solve the problems mentioned in the background technology.

[0008] In order to achieve the above purpose, the utility model adopts the following technical solutions:

[0009] A diagnostic reagent box wall conveying device suitable for use in a pressure difference environment comprises a main frame, a transport part, a partition part, an air pressure regulating part, a storage part and a control part.

[0010] Furthermore, the main frame includes a work area mechanism, a support mechanism and an automatic bagging and sealing machine. The work area mechanism includes a clean area workroom and a general area workroom; a rectangular through hole 1 is set on the right wall of the clean area workroom; a rectangular through hole 2 is set on the right wall of the general area workroom; the rectangular through hole 1 and the rectangular through hole 2 overlap. The support mechanism includes a receiving carrier, a feeding carrier and a storage carrier; the receiving carrier is set on the lower bottom plate of the clean area workroom through a pillar; one end of the feeding carrier is set on the lower bottom plate of the clean area workroom through a pillar, and the other end is set on the lower bottom plate of the general area workroom through a pillar; the receiving carrier and the feeding carrier are perpendicular to each other; the storage carrier is set on the lower bottom plate of the general area workroom through a pillar; the feeding carrier and the storage carrier are perpendicular to each other; the automatic bagging and sealing machine is set on the base through an "L"-shaped mounting plate, located on the left side of the receiving carrier.

[0011] Furthermore, the transport part includes a material receiving belt conveyor mechanism, a material feeding belt conveyor mechanism and a material receiving shaping mechanism. The material receiving belt conveyor mechanism includes a conveyor belt device 1 and a connecting trough pipe 1; the left end of the connecting trough pipe 1 is arranged on the "L"-shaped mounting plate, located below the material outlet of the automatic bagging and sealing machine, and the right end is arranged on the material receiving carrier plate; the conveyor belt device 1 is arranged on the material receiving carrier plate through the mounting side plate, and is located below the connecting trough pipe 1. The material feeding belt conveyor mechanism includes a conveyor belt device 2 and a connecting trough pipe 2; the conveyor belt device 2 is arranged on the feeding carrier plate; the left end of the connecting trough pipe 2 is arranged on the feeding carrier plate through a support, and is located above the conveyor belt device 2, and the right end is arranged on the material receiving carrier plate through a connecting plate, and is located above the right end of the conveyor belt device 1. The material receiving and shaping mechanism includes a limit plate, a shaping box, a push rod motor, a shaping rod and a buffer spring; the shaping box is arranged on the feeding carrier through a mounting frame, and a strip through hole is arranged on the carrier; the limit plate is symmetrically arranged on the side plate of the shaping box through a connecting plate; the push rod motor is arranged in the shaping box, and a shaping plate is arranged on the movable end; the shaping plate is slidably connected in the strip through hole and is located above the conveyor belt device 2; the shaping rod is arranged on the shaping plate through a reset spring.

[0012] Furthermore, the partition part includes an "n"-shaped partition groove tube, a limiting mechanism, an adjustment mechanism and a distance measuring mechanism. The "n"-shaped partition groove tube is arranged on the feeding carrier plate, and its top plate is located above the conveyor belt device 2. The limiting mechanism includes a push rod motor 2 and a limiting gate 1; the push rod motor 2 is arranged on the inner wall of the upper bottom plate of the "n"-shaped partition groove tube; the limiting gate 1 is arranged on the movable end of the push rod motor 2, and a limiting side plate is arranged on it. The adjustment mechanism includes a compressor, a vacuum suction cup and a push rod motor 3; the push rod motor 3 is arranged on the inner wall of the upper bottom plate of the "n"-shaped partition groove tube; the vacuum suction cup is arranged on the movable end of the push rod motor 3; the compressor is arranged on the bottom plate of the clean area workroom; the compressor and the vacuum suction cup are connected by an electromagnetic valve. The distance measuring mechanism includes a push rod motor four, a common roller shaft and a distance sensor module one; the push rod motor four is arranged on the inner wall of the upper bottom plate of the "n"-shaped dividing groove tube; the common roller shaft is arranged on the movable end of the push rod motor four through an "m"-shaped support rod; and the distance sensor module one is arranged on the "m"-shaped support rod.

[0013] Furthermore, the air pressure regulating part includes a regulating box, a movable gate mechanism and a transition gate mechanism. The regulating box is arranged on the feeding carrier, including a rectangular hollow container 2, a strip through hole 2 is arranged on the upper bottom plate, a "U"-shaped open through groove is arranged on the lower bottom plate, a rectangular through hole 3 is arranged on the left side plate, and a rectangular through hole 4 is arranged on the right side plate. The outer wall of the side plate is fixedly connected with the rectangular through hole 1 and the rectangular through hole 2; a partition is arranged in the rectangular through hole 3 and the rectangular through hole 4; the partition is located between the upper and lower conveyor belts of the conveyor belt device 2. The movable gate mechanism includes a movable limit gate, a sealing ring, a push rod motor 5, a movable push block and a limit slide bar; the movable limit gate pin is connected to the regulating box and is respectively located on one side of the rectangular through hole 3 and the rectangular through hole 4; the sealing ring and the limit slide bar are arranged on the movable limit gate; the push rod motor 5 is arranged on the inner wall of the side plate of the regulating box; the movable push block is connected to the movable end of the push rod motor 5 through the "C"-shaped frame pin, and is slidably connected to the limit slide bar. The transition gate mechanism comprises a push rod motor six and a pressure plate; the push rod motor six is ​​arranged on the adjustment box; the pressure plate is arranged on the movable end of the push rod motor six and is slidably connected in the strip through hole two.

[0014] Furthermore, the storage part includes a conveyor belt device 3, a limit baffle and a push rod motor 7. The conveyor belt device 3 is arranged on the storage carrier; the push rod motor 7 is arranged on the storage carrier through a mounting plate; and the limit baffle is arranged on the movable end of the push rod motor 7.

[0015] Furthermore, the control part includes a control mechanism, a feedback mechanism and a PLC controller. The control mechanism includes a start switch, a packing switch and a pause switch. The feedback mechanism includes a plurality of distance sensor modules.

[0016] Furthermore, an "eight" shaped correction plate is added to the feeding carrier plate.

[0017] Advantages compared to the prior art:

[0018] In the utility model, the following functions are realized through the integrated arrangement of the main frame, the transport part, the partition part, the air pressure regulating part, the storage part and the control part:

[0019] Firstly, it realizes the mechanical automation of the transfer of "bagged testing reagents" from the transfer window in the independent workshop, eliminating the receiving box for transfer, thereby significantly reducing the scratches on the filter membrane bag surface.

[0020] Secondly, the pressure difference is coordinated through the air pressure regulation part, and an orderly transfer is achieved in combination with the transportation part, which greatly improves the transfer efficiency and saves a lot of manpower.

[0021] Thirdly, the transferred "bagged testing reagents" can be stacked in an orderly manner, making it convenient for staff to pack them quickly and further improving work efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 This is a schematic diagram of the top view structure of the utility model;

[0023] Figure 2 It is a schematic diagram of a partial cross-sectional structure of the utility model viewed from above;

[0024] Figure 3 It is a schematic diagram of a partial cross-sectional structure of the utility model from a side view;

[0025] Figure 4 It is a schematic diagram of a partially enlarged cross-sectional structure of the utility model from a side view;

[0026] Figure 5 A is a schematic diagram of the structure of the utility model system;

[0027] Figure 6 This is a schematic diagram B of the system structure of the utility model.

[0028] In the figure: 101. Clean area workshop, 102. General area workshop, 103. Material receiving carrier, 104. Material feeding carrier, 105. Storage carrier, 106. Automatic bagging and sealing machine, 107. "L" shaped mounting plate, 201. Conveyor belt device 1, 202. Connecting slot pipe 1, 203. Conveyor belt device 2, 204. Shaping box, 205. Push rod motor 1, 206. Shaping plate, 301. "n" shaped separation slot pipe, 302. Push rod motor 2, 303. Limit gate 1, 304. Push rod motor 3, 305. Vacuum suction cup, 306. Push rod motor 4, 307. Ordinary roller, 401. Adjustment box, 402. Movable limit gate, 403. Sealing ring, 404. Push rod motor 5, 405. Limiting slide bar, 406. Push rod motor six, 407. Pressing plate, 501. Conveyor belt device three, 502. Push rod motor seven, 503. Limiting baffle, 601. Bag test reagent. DETAILED DESCRIPTION

[0029] Example 1, refer to the attached Figure 1-6 A diagnostic kit wall conveying device suitable for use in a pressure difference environment includes a main frame, a transport part, a partition part, an air pressure regulating part, a storage part and a control part.

[0030] The main frame includes a work area mechanism, a support mechanism and an automatic bagging and sealing machine 106 .

[0031] The work area structure includes a clean area workshop 101 and a general area workshop 102; the clean area workshop 101 is used for the packaging and testing of in vitro diagnostic kits; the general area workshop 102 is used for the boxing and packaging of in vitro diagnostic kits.

[0032] A rectangular through hole 1 is provided on the right wall of the clean area workroom 101.

[0033] A second rectangular through hole is arranged on the right wall of the general area workroom 102; the first rectangular through hole and the second rectangular through hole overlap each other.

[0034] The support mechanism includes a material receiving carrier plate 103 , a material feeding carrier plate 104 and a storage carrier plate 105 .

[0035] The receiving carrier plate 103 is disposed on the lower bottom plate of the clean area workshop 101 through supporting pillars.

[0036] One end of the feeding carrier plate 104 is disposed on the lower bottom plate of the clean area workroom 101 through a support.

[0037] The other end of the feeding carrier plate 104 is disposed on the lower bottom plate of the general area workroom 102 through a support.

[0038] The receiving carrier plate 103 and the feeding carrier plate 104 are perpendicular to each other.

[0039] The storage carrier 105 is disposed on the lower floor of the general area workroom 102 through pillars.

[0040] The feeding carrier plate 104 and the storage carrier plate 105 are perpendicular to each other.

[0041] The automatic bagging and sealing machine 106 is arranged on the base through an “L”-shaped mounting plate 107 and is located on the left side of the receiving carrier plate 103 .

[0042] The transport part includes a material receiving belt conveyor mechanism, a material feeding belt conveyor mechanism and a material receiving and shaping mechanism.

[0043] The material receiving belt conveyor mechanism includes a conveyor belt device 201 and a connecting groove pipe 202.

[0044] The left end of the connecting groove pipe 202 is arranged on the “L”-shaped mounting plate, and is located below the discharge port of the automatic bagging and sealing machine 106 .

[0045] The right end of the connecting groove pipe 202 is disposed on the material receiving carrier plate 103 .

[0046] The conveyor belt device 201 is arranged on the material receiving carrier plate 103 by installing the side plate, and is located below the connecting groove pipe 202.

[0047] The feeding belt conveyor mechanism includes a conveyor belt device 203 and a connecting groove pipe 204.

[0048] The second conveyor belt device 203 is disposed on the feeding carrier plate 104 .

[0049] The left end of the second connecting groove pipe 204 is disposed on the feeding carrier plate 104 through a support and is located above the second conveyor belt device 203 .

[0050] The right end of the second connecting groove tube 204 is disposed on the material receiving carrier plate 103 through a connecting plate, and is located above the right end of the conveyor belt device 1 201 .

[0051] The material receiving and shaping mechanism comprises a limit plate, a shaping box 205, a push rod motor 206, a shaping rod and a buffer spring.

[0052] The shaping box 205 is arranged on the feeding carrier plate 104 through a mounting frame.

[0053] The shaping box 205 is provided with a strip-shaped through hole 1.

[0054] The limiting plates are symmetrically arranged on the side plates of the shaping box 205 through the connecting plates.

[0055] The push rod motor 206 is disposed in the shaping box 205 .

[0056] A shaping plate 207 is disposed on the movable end of the push rod motor 1 206 ; the shaping plate 207 is slidably connected in the strip through hole 1 and is located above the conveyor belt device 203 .

[0057] The shaping rod is arranged on the shaping plate 207 via a return spring.

[0058] The partition part includes an "n"-shaped partition groove tube 301, a limiting mechanism, an adjusting mechanism and a distance measuring mechanism.

[0059] The “n” shaped partitioning slot tube 301 is disposed on the feeding carrier plate 104 , and its top plate is located above the second conveyor belt device 203 .

[0060] The limiting mechanism includes a second push rod motor 302 and a first limiting gate 303 .

[0061] The second push rod motor 302 is arranged on the inner wall of the upper bottom plate of the “n” shaped partition groove tube 301 .

[0062] The limit gate 1 303 is disposed on the movable end of the push rod motor 2 302 .

[0063] A limiting side plate is provided on the limiting gate 1 303 to prevent the product from escaping from the conveyor belt device 203 .

[0064] The adjustment mechanism includes a compressor, a vacuum suction cup 305 and a push rod motor 304.

[0065] The push rod motor 304 is arranged on the inner wall of the upper bottom plate of the “n” shaped partition groove tube 301 .

[0066] The vacuum suction cup 305 is disposed on the movable end of the push rod motor 304 .

[0067] The compressor is arranged on the bottom plate of the clean area workshop 101 .

[0068] The compressor and the vacuum suction cup 305 are connected via a solenoid valve.

[0069] The distance measuring mechanism includes a push rod motor 4 306, a common roller 307 and a distance sensor module 1.

[0070] The push rod motor 4 306 is arranged on the inner wall of the upper bottom plate of the “n” shaped partition groove tube 301 .

[0071] The common roller shaft 307 is arranged on the movable end of the push rod motor 4 306 through an "M"-shaped support rod.

[0072] The distance sensor module 1 is arranged on the "M"-shaped support rod.

[0073] The air pressure regulating part includes a regulating box 401, a movable gate mechanism and a transition gate mechanism.

[0074] The regulating box 401 includes a rectangular hollow container 2.

[0075] A second strip-shaped through hole is arranged on the upper bottom plate of the second rectangular hollow container.

[0076] A U-shaped opening through groove is arranged on the lower bottom plate of the second rectangular hollow container.

[0077] A rectangular through hole three is arranged on the left side plate of the rectangular hollow container two.

[0078] A rectangular through hole four is arranged on the right side plate of the rectangular hollow container two.

[0079] The outer wall of the side plate of the second rectangular hollow container is fixedly connected with the first rectangular through hole and the second rectangular through hole.

[0080] The regulating box 401 is disposed on the feeding carrier plate 104 .

[0081] A partition is arranged in the rectangular through hole three and the rectangular through hole four; the partition is located between the upper and lower conveyor belts of the conveyor belt device 203.

[0082] The movable gate mechanism includes a movable limit gate 402, a sealing ring 403, a push rod motor 404, a movable push block and a limit slide rod 405.

[0083] The pin shaft of the movable limit gate 402 is connected to the inside of the adjustment box 401 and is located on one side of the rectangular through hole three and the rectangular through hole four respectively.

[0084] The sealing ring 403 and the limiting sliding rod 405 are arranged on the movable limiting gate 402 .

[0085] The push rod motor 5 404 is arranged on the inner wall of the side plate of the adjustment box 401.

[0086] The movable push block is connected to the movable end of the push rod motor 5 404 through a "C"-shaped frame pin.

[0087] The movable push block is slidably connected to the limiting slide rod 405 .

[0088] The transition gate mechanism includes a push rod motor 6 406 and a pressure plate 407.

[0089] The push rod motor 6 406 is arranged on the adjustment box 401.

[0090] The pressing plate 407 is arranged on the movable end of the push rod motor six 406.

[0091] The pressing plate 407 is slidably connected in the second strip-shaped through hole.

[0092] The storage part includes a conveyor belt device 3 501, a limit baffle 503 and a push rod motor 7 502.

[0093] The conveyor belt device 3 501 is disposed on the storage carrier 105 .

[0094] The push rod motor 502 is arranged on the storage carrier 105 through a mounting plate.

[0095] The limit baffle 503 is arranged on the movable end of the push rod motor 502.

[0096] The control part includes control mechanism, feedback mechanism and PLC controller.

[0097] The control mechanism includes a start switch, a packing switch and a pause switch.

[0098] The start switch and the packing switch are arranged on the side panel of the conveyor belt device 201.

[0099] The pause switches are respectively arranged on the side panels of the conveyor belt device 1 201 and the conveyor belt device 3 501 .

[0100] The feedback mechanism includes distance sensor module two, distance sensor module three, distance sensor module four, distance sensor module five, distance sensor module six, distance sensor module seven and distance sensor module eight.

[0101] The distance sensor module 2 is arranged on the shaping box 205 to assist the PLC controller in detecting the position of the packaged in vitro diagnostic kit.

[0102] The distance sensor module three is arranged on the “n” shaped partition groove tube 301, and is used together with the distance sensor module one to assist the PLC controller in detecting the position and number of the packaged in vitro diagnostic kits.

[0103] The distance sensor module 4 is arranged on the push rod motor 3 304 to assist the PLC controller in detecting the position of the packaged in vitro diagnostic kit.

[0104] Distance sensor module five and distance sensor module six are disposed on the outer wall of the left plate and the outer wall of the right plate of the adjustment box 401 to assist the PLC controller in detecting the position of the packaged in vitro diagnostic kit.

[0105] The distance sensor module 7 is arranged on the inner wall of the upper bottom plate of the adjustment box 401, located on one side of the strip-shaped through hole 2, and is used to assist the PLC controller in detecting the position of the packaged in vitro diagnostic kit.

[0106] The distance sensor module 8 is arranged on the push rod motor 7 502 to assist the PLC controller in detecting the position of the packaged in vitro diagnostic kit.

[0107] The PLC controller is disposed on the bottom plate of the second conveyor belt device 203 .

[0108] Working principle and usage:

[0109] The first step is pre-setting:

[0110] Press the start switch to power on and debug the device.

[0111] Step 2: Loading:

[0112] When the packing switch is pressed, the PLC controller outputs a signal to the conveyor device 201 and the automatic bagging and sealing machine 106.

[0113] The automatic bagging and sealing machine 106 is started, and the conveyor belt device 1 201 is started with a delay, and the packaged diagnostic kit (bagged detection reagent 601) is transported to the conveyor belt device 2 203. The distance sensor module 2 outputs information to the PLC controller, and the PLC controller outputs signals to the push rod motor 1 206 and the conveyor belt device 2 203; the push rod motor 1 206 drives the shaping rod to move downward, correcting the position of the packaged diagnostic kit so that it is close to the upper belt of the conveyor belt device 2 203.

[0114] The conveyor device 203 is started with a delay, driving the packaged diagnostic kit to run to the bottom of the distance sensor module 3. The distance sensor module 1 and the distance sensor module 3 simultaneously detect the position of the first packaged diagnostic kit (below the distance sensor module 3), and the PLC controller records data 1. When the second packaged diagnostic kit arrives below the distance sensor module 3, the distance sensor module 1 again measures the position of the previous packaged diagnostic kit, and the PLC controller records data 2. The PLC controller combines the recorded data 1 and the recorded data 2 to determine whether the spacing (distance) of the packaged diagnostic kits meets the preset value.

[0115] Case 1: When the distance does not meet the preset value:

[0116] That is, when the distance between the packaged diagnostic reagent kits is too close, the PLC controller outputs a signal to the push rod motor 2 302 and the conveyor belt device 1 201 .

[0117] The push rod motor 2 302 drives the limit gate 1 303 to move downward, so that the subsequently packaged diagnostic reagent kits stop entering the conveyor belt device 2 203, and the conveyor belt device 1 201 stops.

[0118] When the last packaged diagnostic kit reaches directly below the distance sensor module four, the distance sensor module four outputs the collected signal to the PLC controller, and the PLC controller outputs the signal to the conveyor device two 203, the solenoid valve, the compressor, and the push rod motor three 304.

[0119] The conveyor belt device 203 is paused.

[0120] The compressor starts, the push rod motor 304 drives the vacuum suction cup 305 to move downward, and the electromagnetic valve starts with a delay. The vacuum suction cup 305 grabs the next packaged diagnostic kit, and then the push rod motor 304 resets. The conveyor device 203 starts, driving the previous packaged diagnostic kit to the preset position (determined by the distance sensor module 1 combined with the PLC controller), and the push rod motor 304 puts down the packaged diagnostic kit. After that, the steps are the same as those in case 2.

[0121] Case 2: When the distance meets the preset value:

[0122] When the distance between the packaged diagnostic kit and the distance sensor module 1 meets the preset distance, the PLC controller outputs a signal to the push rod motor 4 306, and the push rod motor 4 306 drives the common roller 307 to move upward. After the packaged diagnostic kit passes the common roller 307, the push rod motor 4 306 drives the common roller 307 to reset.

[0123] When the packaged diagnostic test kit reaches below the distance sensor module 5, the PLC controller outputs a signal to the push rod motor 5 404, and the push rod motor 5 404 is started to open the movable limit gate 402.

[0124] When the packaged diagnostic kit reaches below the distance sensor module seven, the distance sensor module seven outputs the collected signal to the PLC controller, and the PLC controller outputs signals to the push rod motor five 404 and the push rod motor six 406; the push rod motor five 404 closes the movable limit gate 402 on the left, the push rod motor six 406 opens the pressure plate 407, and the push rod motor five 404 delays opening the movable limit gate 402 on the right. When the packaged diagnostic kit reaches below the distance sensor module six, the distance sensor module six outputs the collected signal to the PLC controller, and the PLC controller outputs signals to the push rod motor five 404, and the push rod motor five 404 closes the movable limit gate 402 on the right, thus completing the transfer of the packaged diagnostic kit from the clean area workshop 101 to the general area workshop 102.

[0125] Finally, it reaches the conveyor device three 501, and the distance sensor module eight outputs the collected signal to the PLC controller, and the PLC controller outputs the signal to the conveyor device three 501 and the push rod motor seven 502; the push rod motor seven 502 transfers the packaged diagnostic kit to the same surface, and the conveyor device three 501 delays and drives the packaged diagnostic kit to move back a certain distance to facilitate the entry of the subsequent packaged diagnostic kit.

[0126] Embodiment 2, based on embodiment 1, an “eight” shaped correction plate is additionally provided on the feeding carrier plate 104 .

Claims

1. A diagnostic kit wall conveying device suitable for use in a pressure differential environment, characterized in that: It comprises a main frame, a transport part, a partition part, an air pressure regulating part, a storage part and a control part; the main frame comprises a work area mechanism, a support mechanism and an automatic bagging and sealing machine (106); the work area mechanism comprises a clean area workroom (101) and a general area workroom (102); the support mechanism comprises a material receiving carrier plate (103), a material feeding carrier plate (104) and a storage carrier plate (105); the transport part comprises a material receiving belt conveyor mechanism, a material feeding belt conveyor mechanism and a material receiving and shaping mechanism; the partition part comprises an "n"-shaped partition slot tube (301), a limit mechanism, an adjustment mechanism and a distance measuring mechanism; the air pressure regulating part comprises an adjustment box (401), a movable gate mechanism and a transition gate mechanism; The regulating box (401) is arranged on the feeding carrier plate (104); the movable gate mechanism comprises a movable limit gate (402), a sealing ring (403), a push rod motor (404), a movable push block and a limit slide bar (405); the pin shaft of the movable limit gate (402) is connected to the inside of the regulating box (401); The sealing ring (403) and the limit slide bar (405) are arranged on the movable limit gate (402); the push rod motor five (404) is arranged on the inner wall of the side plate of the adjustment box (401); the movable push block pin is connected to the movable end of the push rod motor five (404) and is slidably connected to the limit slide bar (405); the transition gate mechanism includes a push rod motor six (406) and a pressure plate (407); the push rod motor six (406) is arranged on the adjustment box (401); and the pressure plate (407) is arranged on the movable end of the push rod motor six (406).

2. According to claim 1, a diagnostic kit wall conveying device suitable for use in a pressure difference environment, characterized in that: The regulating box (401) comprises a rectangular hollow container 2, wherein the upper bottom plate is provided with a strip through hole 2, the lower bottom plate is provided with a U-shaped opening through groove, the left side plate is provided with a rectangular through hole 3, the right side plate is provided with a rectangular through hole 4, and the outer wall of the side plate is fixedly connected to the rectangular through hole 1 and the rectangular through hole 2.

3. According to claim 1, a diagnostic kit wall conveying device suitable for use in a pressure difference environment, characterized in that: The material receiving belt conveyor mechanism comprises a conveyor belt device (201) and a connecting groove pipe (202); the left end of the connecting groove pipe (202) is arranged on an "L"-shaped mounting plate, located below the material outlet of the automatic bagging and sealing machine (106), and the right end is arranged on the material receiving carrier plate (103); the conveyor belt device (201) is arranged on the material receiving carrier plate (103) through a mounting side plate, and is located below the connecting groove pipe (202).

4. According to claim 1, a diagnostic kit wall conveying device suitable for use in a pressure difference environment, characterized in that: The feeding belt conveyor mechanism comprises a conveyor belt device 2 (203) and a connecting groove pipe 2 (204); the conveyor belt device 2 (203) is arranged on a feeding carrier plate (104); the left end of the connecting groove pipe 2 (204) is arranged on the feeding carrier plate (104) through a support, and is located above the conveyor belt device 2 (203); the right end is arranged on the receiving carrier plate (103) through a connecting plate, and is located above the right end of the conveyor belt device 1 (201).

5. According to claim 1, a diagnostic kit wall conveying device suitable for use in a pressure difference environment, characterized in that: The material receiving and shaping mechanism comprises a limit plate, a shaping box (205), a push rod motor (206), a shaping rod and a buffer spring; A shaping box (205) is arranged on a feeding carrier plate (104) through a mounting frame; a strip-shaped through hole is arranged on the shaping box (205); a limit plate is arranged on a side plate of the shaping box (205) through a connecting plate; a push rod motor (206) is arranged in the shaping box (205), and a shaping plate (207) is arranged on a movable end of the push rod motor (206); the shaping plate (207) is slidably connected in the strip-shaped through hole and is located above the conveyor belt device (203); and a shaping rod is arranged on the shaping plate (207) through a reset spring.

6. According to claim 1, a diagnostic kit wall conveying device suitable for use in a pressure difference environment, characterized in that: The "n"-shaped dividing groove tube (301) is arranged on the feeding carrier plate (104), and its top plate is located above the second conveyor belt device (203); the limiting mechanism comprises a second push rod motor (302) and a first limiting gate (303); the second push rod motor (302) is arranged on the inner wall of the upper bottom plate of the "n"-shaped dividing groove tube (301); the first limiting gate (303) is arranged on the movable end of the second push rod motor (302); and a limiting side plate is arranged on the first limiting gate (303).

7. According to claim 1, a diagnostic kit wall conveying device suitable for use in a pressure difference environment, characterized in that: The adjustment mechanism comprises a compressor, a vacuum suction cup (305) and a push rod motor three (304); the push rod motor three (304) is arranged on the inner wall of the upper bottom plate of the "n"-shaped partition groove tube (301); the vacuum suction cup (305) is arranged on the movable end of the push rod motor three (304); the compressor and the vacuum suction cup (305) are connected through an electromagnetic valve.

8. According to claim 1, a diagnostic kit wall conveying device suitable for use in a pressure difference environment, characterized in that: The distance measuring mechanism comprises a push rod motor four (306) and a common roller shaft (307); the push rod motor four (306) is arranged on the inner wall of the upper bottom plate of the "n"-shaped dividing groove tube (301); and the common roller shaft (307) is arranged on the movable end of the push rod motor four (306) through an "m"-shaped supporting rod.

9. The diagnostic kit wall conveying device suitable for use in a pressure difference environment according to claim 1, characterized in that: The storage part comprises a conveyor belt device three (501), a limit baffle (503) and a push rod motor seven (502); the conveyor belt device three (501) is arranged on the storage carrier (105); the push rod motor seven (502) is arranged on the storage carrier (105) through a mounting plate; the limit baffle (503) is arranged on the movable end of the push rod motor seven (502).

10. The diagnostic kit wall conveying device suitable for use in a pressure difference environment according to claim 1, characterized in that: An "eight" shaped correction plate is additionally provided on the feeding carrier plate (104).

Images