Biological intelligent manufacturing cabin for biological cell manufacturing

Abstract

The invention belongs to the technical field of cell manufacturing, particularly relates to a biological intelligent manufacturing cabin for biological cell manufacturing, and provides the following scheme that the biological intelligent manufacturing cabin comprises a cabin body and an air supply assembly installed in the cabin body, and the air supply assembly comprises an air supply tank; two groups of air supplementing tanks are fixedly mounted on the left side of the cabin body, air supplementing pipes are mounted at the tops of the air supplementing tanks, electromagnetic valves and check valves are mounted on the sides, close to the air supplementing tanks, of the air supplementing pipes, mixing cavities are mounted on the other sides of the air supplementing pipes, and air inlet pipes are fixedly mounted on the right sides of the mixing cavities; in the using process, necessary gas needed in the cell culture and manufacturing process can be stored in the gas supplementing tank and then flows into the mixing cavity through the gas supplementing pipe to be mixed, and the gas in the gas supplementing tank is fed into the mixing cavity according to the needed proportion; and after completion, the gas flows into different culture dishes through the gas inlet pipe for gas supplementation, and a gas environment required by the cells is created for facilitating reproduction and growth of the cells.

Description

Technical Field

[0001] The present invention relates to the technical field of cell manufacturing, and particularly to a bio-intelligent manufacturing chamber for biological cell manufacturing. Background Art

[0002] Biological cell manufacturing refers to the use of biological cells and their metabolic processes, through advanced biotechnology means, to achieve large-scale processing and transformation of substances. Using microbial cells or enzyme proteins as catalysts for chemical synthesis, or using biomass as raw materials to convert and synthesize energy chemicals and materials, a manufacturing chamber is required during the manufacturing process.

[0003] However, when the existing bio-intelligent manufacturing chamber for biological cell manufacturing is in use, it is not convenient to flexibly supplement nutrients to the cell production environment, nor is it convenient to adjust and supplement gas and temperature to the environment.

[0004] Therefore, a bio-intelligent manufacturing chamber for biological cell manufacturing is needed. Summary of the Invention

[0005] A bio-intelligent manufacturing chamber for biological cell manufacturing proposed by the present invention solves the problems existing in the prior art that when the bio-intelligent manufacturing chamber for biological cell manufacturing is in use, it is not convenient to flexibly supplement nutrients to the cell production environment, nor is it convenient to adjust and supplement gas and temperature to the environment.

[0006] To achieve the above object, the present invention provides the following technical solutions:

[0007] A bio-intelligent manufacturing chamber for biological cell manufacturing includes a chamber body and an air supplement component installed inside the chamber body. The air supplement component includes an air supplement tank.

[0008] Two groups of air supplement tanks are fixedly installed on the left side of the chamber body. An air supplement pipe is installed on the top of each air supplement tank. A solenoid valve and a check valve are installed on the side of the air supplement pipe close to the air supplement tank. The other side of each air supplement pipe is installed with a mixing chamber. An intake pipe is fixedly installed on the right side of the mixing chamber. The other end of the intake pipe is installed with a culture dish.

[0009] A carrier plate is installed outside the culture dish. An installation arm is fixedly installed at the bottom front end of the carrier plate. A liquid supplement port is installed at the bottom of the installation arm. A liquid supplement conduit is installed at the top of the installation arm. The liquid supplement conduit and the liquid supplement port communicate with each other. The rear of the liquid supplement conduit is connected to a connection end tank in a flowing manner. A connection buckle is movably installed at the bottom of the connection end tank. The other end of the connection buckle is fixedly connected to a four-port through pipe. A detection end is installed at the bottom of the liquid supplement conduit. A detection needle is fixedly installed on the other side of the detection end. A rubber sleeve is fixedly installed at the center of the bottom of the culture dish.

[0010] An air storage port is provided at the upper left corner of the cabin body. A protective box is fixedly installed at the lower right corner inside the cabin body. A heating pipe is installed inside the protective box. Fans are arrayed on the right side of the heating pipe. A filtered air inlet is provided on the right side of the fans. The filtered air inlet is provided on the surface of the cabin body and has the same structure as the air storage port.

[0011] Preferably, a sliding plate is fixedly installed at the bottom of the carrier plate. A partition plate is installed at the bottom of the sliding plate. A sliding groove is provided inside the partition plate. Card slots are provided on both the left and right sides at the top of the sliding groove. Springs are fixedly installed on both the left and right sides at the top of the sliding plate. Side clamping plates are fixedly installed at the tops of the springs. A central clamping plate is fixedly installed at the center of the top of the sliding plate. Air holes are provided at the top of the culture dish. An ultraviolet lamp is fixedly installed at the top of the inner wall of the cabin body.

[0012] Preferably, the air supplement tank, through the cooperation between the air supplement pipe and the mixing chamber, forms a circulation structure with the air inlet pipe. The air inlet pipes are all in a circulation structure with the culture dish. Solenoid valves and check valves are provided at the connections between the air inlet pipes and the culture dish.

[0013] Preferably, the carrier plate, through the cooperation between the sliding plate and the sliding groove, forms a detachable structure with the partition plate. The sliding plate, through the cooperation between the central clamping plate and the sliding groove, forms a clamping structure with the partition plate.

[0014] Preferably, the side clamping plates form a pressing structure with the sliding plate through the springs. The sliding plate, through the cooperation between the side clamping plates and the card slots, fits the size of the sliding plate.

[0015] Preferably, the culture dish and the rubber sleeve are fixedly connected to each other. The culture dish forms a sealing structure through the rubber sleeves.

[0016] Preferably, the liquid supplement conduit, through the cooperation between the connecting end tank and the four-way pipe, forms a circulation structure with the liquid supplement pipeline. The connecting end tank is movably connected to the connecting buckle. One-way valves are provided at the connections between the liquid supplement pipeline and the four-way pipe.

[0017] Preferably, the heating pipe is fixedly installed inside the protective box. The heating pipe is in an arrayed loop structure.

[0018] The present invention provides a biological manufacturing cabin for biological cell manufacturing. Compared with the prior art, the beneficial effects of the present invention are:

[0019] 1. During use, the inside of the air supplement tank can store the necessary gases required in the cell culture manufacturing process. Then, the gases flow into the inside of the mixing chamber through the air supplement pipe for mixing. The gases inside the air supplement tank are input into the inside of the mixing chamber in different required proportions. After mixing, they flow into different culture dishes through the air inlet pipe for gas supplementation, creating the gas environment required for cells to facilitate cell reproduction and growth.

[0020] 2. During use, a rubber sleeve is fixedly installed at the bottom of the culture dish. Therefore, the detection needle can penetrate through the rubber sleeve into the inside of the culture dish to monitor the environment for cell growth inside. After the detection needle penetrates and inserts into the rubber sleeve, due to the special material of the rubber sleeve, it will also wrap the rubber sleeve, maintaining the airtightness inside and outside the device, preventing the internal nutrients from flowing out, and also preventing external harmful substances from entering the inside of the culture dish through the penetration point and causing contamination.

[0021] 3. Different types of nutrients necessary for cell culture are placed inside the nutrient solution tank, and each nutrient solution tank communicates with the liquid supplement pipeline. Then, each liquid supplement pipeline is connected to the four-way pipe for communication. The nutrients inside the liquid supplement pipeline will flow into the inside of the liquid supplement catheter through the four-way pipe and the connection buckle, and then enter the inside of the culture dish through the liquid supplement catheter and the liquid supplement port for nutrient supplementation, timely setting the environment inside the culture dish to be suitable for cell culture. At the same time, the connection end tank and the connection buckle are movably connected, facilitating the removal of the connection end tank from the inside of the connection buckle when taking out the carrier plate, and facilitating the cleaning of the inside of the connection buckle.

[0022] 4. During use, the external air enters the inside of the cabin after being filtered by the filtered air inlet. The fan can improve the efficiency of air entering the device. Then, the flowing air is heated by the heating pipe, and at the same time, the heating efficiency of the heating pipe for the external air is adjusted according to the air temperature inside the device. The hot air flow entering the inside of the device will pass through the gaps inside the partition and flow from the lower right corner to the upper left corner inside the cabin, adjusting the internal environmental temperature of the device and also adjusting the gas environment inside the device. At the same time, it also takes away the waste gas generated by the cells inside the culture dish and then flows out of the device through the air storage port. Description of the Drawings

[0023] Figure 1 It is a schematic diagram of the overall structure of a biological manufacturing cabin for biological cell manufacturing proposed by the present invention;

[0024] Figure 2 It is a schematic diagram of the internal structure of a biological manufacturing cabin for biological cell manufacturing proposed by the present invention;

[0025] Figure 3 It is a schematic diagram of the internal component structure of a biological manufacturing cabin for biological cell manufacturing proposed by the present invention;

[0026] Figure 4 This is a schematic diagram of the carrier plate structure of a bio-intelligent manufacturing chamber for bio-cell manufacturing proposed by the present invention.

[0027] Figure 5 This is a schematic diagram of the mounting structure of the carrier plate of a bio-intelligent manufacturing chamber for bio-cell manufacturing proposed by the present invention;

[0028] Figure 6 This is a schematic cross-sectional view of the carrier plate of a bio-intelligent manufacturing chamber for bio-cell manufacturing proposed by the present invention;

[0029] Figure 7 This is a schematic cross-sectional view of the culture dish of a bio-intelligent manufacturing chamber for bio-cell manufacturing proposed by the present invention;

[0030] Figure 8 This is a schematic diagram of the liquid supplementing component structure of a bio-intelligent manufacturing chamber for bio-cell manufacturing proposed by the present invention.

[0031] Figure 9 This is a schematic rear view of the liquid supplementing component of a bio-intelligent manufacturing chamber for bio-cell manufacturing proposed by the present invention;

[0032] Figure 10 This is a schematic diagram of the air supplementing component structure of a bio-intelligent manufacturing chamber for bio-cell manufacturing proposed by the present invention;

[0033] Figure 11 This is a schematic diagram of the gas circulation component structure of a bio-intelligent manufacturing chamber for bio-cell manufacturing proposed by the present invention.

[0034] In the figure: 1, cabin body; 2, air supplementing tank; 3, air supplementing pipe; 4, mixing chamber; 5, intake pipe; 6, culture dish; 7, carrier plate; 8, sliding plate; 9, partition board; 10, sliding groove; 11, clamping groove; 12, spring; 13, side clamping plate; 14, central clamping plate; 15, mounting arm; 16, liquid supplementing port; 17, liquid supplementing catheter; 18, connecting end tank; 19, connecting buckle; 20, four-port through pipe; 21, detection end; 22, detection needle; 23, rubber sleeve; 24, liquid supplementing pipeline; 25, nutrient solution tank; 26, air hole; 27, ultraviolet lamp; 28, gas storage port; 29, protection box; 30, heating pipe; 31, fan; 32, filtered air inlet. Detailed implementation manners

[0035] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0036] Please refer to Figures 1-11 , the present invention provides a technical solution: a bio-intelligent manufacturing chamber for manufacturing biological cells, including a chamber body 1 and an air supplement component installed inside the chamber body 1. The air supplement component includes an air supplement tank 2;

[0037] Two groups of air supplement tanks 2 are fixedly installed on the left side of the chamber body 1. Air supplement pipes 3 are installed on the tops of the air supplement tanks 2. A solenoid valve and a check valve are installed on one side of the air supplement pipe 3 close to the air supplement tank 2. Mixing chambers 4 are installed on the other sides of the air supplement pipes 3. An intake pipe 5 is fixedly installed on the right side of the mixing chamber 4. The other end of the intake pipe 5 is installed with a culture dish 6.

[0038] Furthermore, a carrier plate 7 is installed outside the culture dish 6. An installation arm 15 is fixedly installed at the bottom front end of the carrier plate 7. A liquid supplement port 16 is installed at the bottom of the installation arm 15. A liquid supplement conduit 17 is installed at the top of the installation arm 15. The liquid supplement conduit 17 and the liquid supplement port 16 communicate with each other. A connection end tank 18 is connected and communicated at the rear of the liquid supplement conduit 17. A connection buckle 19 is movably installed at the bottom of the connection end tank 18. The other end of the connection buckle 19 is fixedly connected to a four-port through pipe 20. A detection end 21 is installed at the bottom of the liquid supplement conduit 17. A detection needle 22 is fixedly installed on the other side of the detection end 21. A rubber sleeve 23 is fixedly installed at the center of the bottom of the culture dish 6.

[0039] Furthermore, an air storage port 28 is opened in the upper left corner of the chamber body 1. A protection box 29 is fixedly installed at the lower right corner inside the chamber body 1. A heating pipe 30 is installed inside the protection box 29. Fans 31 are arrayedly installed on the right side of the heating pipe 30. A filtered air inlet 32 is opened on the right side of the fans 31. The filtered air inlet 32 is opened on the surface of the chamber body 1. The filtered air inlet 32 has the same structure as the air storage port 28.

[0040] Furthermore, a sliding plate 8 is fixedly installed at the bottom of the carrier plate 7. A partition plate 9 is installed at the bottom of the sliding plate 8. A sliding groove 10 is opened inside the partition plate 9. Card slots 11 are opened on the left and right sides at the top of the sliding groove 10. Springs 12 are fixedly installed on the left and right sides at the top of the sliding plate 8. Side clamping plates 13 are fixedly installed at the tops of the springs 12. A center clamping plate 14 is fixedly installed at the center of the top of the sliding plate 8. Air holes 26 are opened at the top of the culture dish 6. An ultraviolet lamp 27 is fixedly installed at the top inner wall of the chamber body 1.

[0041] Furthermore, the air supplement tank 2, in cooperation with the air supplement pipe 3 and the mixing chamber 4, forms a circulation structure with the air inlet pipe 5. The air inlet pipe 5 forms a circulation structure with the culture dish 6. Solenoid valves and check valves are provided at the connections between the air inlet pipe 5 and the culture dish 6. During use, the interior of the air supplement tank 2 can store the necessary gases required in the cell culture manufacturing process. Then, the gases flow into the interior of the mixing chamber 4 through the air supplement pipe 3 for mixing. The gases inside the air supplement tank 2 are input into the interior of the mixing chamber 4 in different required proportions. After mixing, they flow into different culture dishes 6 through the air inlet pipe 5 for gas supplementation, creating the gas environment required for cells to facilitate their reproduction and growth.

[0042] Furthermore, the carrier plate 7, in cooperation with the sliding plate 8 and the sliding groove 10, forms a detachable structure with the partition plate 9. The sliding plate 8, in cooperation with the central clamping plate 14 and the sliding groove 10, forms a clamping structure with the partition plate 9. During use, the carrier plate 7 can be slidably installed into the interior of the sliding groove 10 through the sliding plate 8 at the bottom for assembly with the partition plate 9, facilitating the removal of the carrier plate 7 and the components inside the carrier plate 7 for observation and maintenance. During installation, the sliding plate 8 is inserted into the interior of the sliding groove 10. At this time, the central clamping plate 14 will enter the groove in the middle of the sliding groove 10. At the same time, the size of the central clamping plate 14 matches that of the interior of the sliding groove 10. Therefore, the central clamping plate 14 will be clamped into the position between the sliding grooves 10, improving the stability of the sliding plate 8 during installation.

[0043] Furthermore, the side clamping plate 13 forms a pressing structure with the sliding plate 8 through the spring 12. The sliding plate 8, in cooperation with the side clamping plate 13 and the card slot 11, has a size that matches. During use, when the side clamping plate 13 is installed into the interior of the sliding groove 10 through the sliding plate 8, the side clamping plate 13 will be compressed by the spring 12 at the bottom. During compression, the side clamping plate 13 can pass through the position in the sliding groove 10 where the card slot 11 is not provided. After the sliding plate 8 reaches the bottom, the side clamping plate 13 will enter the interior of the card slot 11 and return to its original position under the elastic action of the spring 12, further improving the stability of the installation of the sliding plate 8 and preventing the sliding plate 8 from falling.

[0044] Furthermore, the culture dish 6 is fixedly connected to the rubber sleeve 23, and the culture dish 6 forms a sealing structure through the rubber sleeve 23. During use, the rubber sleeve 23 is fixedly installed at the bottom of the culture dish 6. Therefore, the detection needle 22 can penetrate through the rubber sleeve 23 into the interior of the culture dish 6 to monitor the internal cell growth environment. After the detection needle 22 penetrates and inserts into the rubber sleeve 23, due to the special material of the rubber sleeve 23, the rubber sleeve 23 will also be wrapped, maintaining the sealing performance inside and outside the device, preventing the internal nutrients from flowing out and also preventing external harmful substances from entering the interior of the culture dish 6 through the penetration point and causing contamination.

[0045] Further, the liquid replenishing catheter 17 and the liquid replenishing pipeline 24 form a circulation structure through the cooperation between the connecting end tank 18 and the four-port pipe 20. The connecting end tank 18 and the connecting buckle 19 are movably connected. Check valves are provided at the joints of the liquid replenishing pipeline 24 and the four-port pipe 20. Different types of nutrients necessary for cell culture are placed inside the nutrient solution tank 25, and each nutrient solution tank 25 communicates with the liquid replenishing pipeline 24. Then each liquid replenishing pipeline 24 is connected to the four-port pipe 20 in a circulating manner. The nutrients inside the liquid replenishing pipeline 24 will flow into the interior of the liquid replenishing catheter 17 through the four-port pipe 20 and the connecting buckle 19, and then enter the culture dish 6 through the liquid replenishing catheter 17 and the liquid replenishing port 16 for nutrient supply, timely setting the environment inside the culture dish 6 to be suitable for cell culture. At the same time, the connecting end tank 18 and the connecting buckle 19 are movably connected, which is convenient to disassemble the connecting end tank 18 from the inside of the connecting buckle 19 when taking out the carrier plate 7, facilitating the cleaning of the inside of the connecting buckle 19.

[0046] Further, the heating pipe 30 is fixedly installed inside the protective box 29. The heating pipe 30 is arranged in an array in a loop structure. During use, the external air enters the interior of the cabin 1 after being filtered by the filtered air inlet 32. The fan 31 can improve the efficiency of the air entering the device. Then the flowing air is heated by the heating pipe 30, and at the same time, the heating efficiency of the heating pipe 30 for the external air is adjusted according to the air temperature inside the device. The hot air flow entering the device will pass through the gaps inside the partition plate 9 and circulate from the lower right corner to the upper left corner inside the cabin 1, adjusting the internal environmental temperature of the device and also the gas environment inside the device, and at the same time taking away the waste gas generated by the cells inside the culture dish 6 and flowing out of the device through the gas storage port 28.

[0047] Working principle: First, place the culture dish 6 for cell culture inside the carrier plate 7. At this time, a rubber sleeve 23 is fixedly installed at the bottom of the culture dish 6. Therefore, the detection needle 22 can penetrate through the rubber sleeve 23 into the interior of the culture dish 6 to monitor the environment for the growth of the internal cells. After the detection needle 22 penetrates and inserts into the rubber sleeve 23, due to the special material of the rubber sleeve 23, the rubber sleeve 23 will also be wrapped, maintaining the airtightness between the inside and outside of the device, preventing the internal nutrients from flowing out and also preventing external harmful substances from entering the culture dish 6 through the penetration point and causing pollution;

[0048] The detection probe 22 is connected to the detection end 21. The detection end 21 processes the internal environmental data of the culture dish 6 and then pumps nutrients into the interior of the culture dish 6 for adjustment. At the same time, different types of nutrients necessary for cell culture are placed inside the nutrient solution tank 25, and each nutrient solution tank 25 communicates with the liquid supplement pipeline 24. Then each liquid supplement pipeline 24 communicates with the four-way pipe 20. The nutrients inside the liquid supplement pipeline 24 will flow into the interior of the liquid supplement catheter 17 through the four-way pipe 20 and the connection buckle 19, and then enter the interior of the culture dish 6 through the liquid supplement catheter 17 and the liquid supplement port 16 for nutrient supply, timely setting the interior environment of the culture dish 6 to the required one suitable for cell culture. At the same time, the connection end tank 18 and the connection buckle 19 are movably connected, which is convenient to disassemble the connection end tank 18 from the interior of the connection buckle 19 when taking out the carrier plate 7, facilitating the cleaning of the interior of the connection buckle 19;

[0049] During the growth process of cells, the interior of the air supplement tank 2 can store the necessary gases required in the process of cell culture production, and then flow into the interior of the mixing chamber 4 through the air supplement pipe 3 for mixing. The gases inside the air supplement tank 2 are input into the interior of the mixing chamber 4 in different required proportions. After mixing, they will flow into different culture dishes 6 through the air inlet pipe 5 for gas supplement, creating the gas environment required by the cells to facilitate cell reproduction and growth. At the same time, the external air enters the interior of the cabin 1 after being filtered by the filtered air inlet 32. The fan 31 can improve the efficiency of air entering the device. Then the flowing air is heated by the heating pipe 30, and at the same time, the heating efficiency of the heating pipe 30 for the external air is adjusted according to the air temperature inside the device. The hot air flow entering the interior of the device will pass through the gaps inside the partition plate 9 and flow from the lower right corner to the upper left corner inside the cabin 1, adjusting the internal environmental temperature of the device and also the gas environment inside the device. At the same time, it also takes away the waste gas generated by the cells inside the culture dish 6 and flows out of the device through the gas storage port 28;

[0050] Meanwhile, when the device is in use, the carrier plate 7 can be slidably installed into the inside of the chute 10 through the skateboard 8 at the bottom and assembled with the partition plate 9, which facilitates taking down the carrier plate 7 and the components inside the carrier plate 7 for observation and maintenance. During the installation process, the skateboard 8 is inserted into the inside of the chute 10. At this time, the central clamping plate 14 will enter the groove in the middle of the chute 10. At the same time, the central clamping plate 14 fits the size inside the chute 10. Therefore, the central clamping plate 14 will be clamped into the position between the chutes 10, improving the stability of the skateboard 8 during the installation process. When the side clamping plate 13 is installed into the inside of the chute 10 through the skateboard 8, the side clamping plate 13 will be compressed by the spring 12 at the bottom. During compression, the side clamping plate 13 can pass through the position where there is no slot 11 inside the chute 10. After the skateboard 8 reaches the bottom, the side clamping plate 13 will enter the inside of the slot 11 and return to its original position under the elastic action of the spring 12, further improving the stability of the installation of the skateboard 8 and preventing the skateboard 8 from falling off;

[0051] Before cell culture, the inside of the device is sterilized by ultraviolet rays generated by the ultraviolet lamp 27 to avoid contamination of cells by miscellaneous bacteria. At the same time, the circulating air flow inside the device can also take out the ozone generated by ultraviolet sterilization to prevent the ozone from affecting the growth of internal cells. Then, the waste gas generated by cell growth can be discharged through the air holes 26 opened at the top of the culture dish 6 and carried away by the flowing air.

[0052] Although the embodiments of the present invention have been shown and described, it will be understood by those of ordinary skill in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A biological intelligent manufacturing cabin for biological cell manufacturing, comprising a cabin body (1) and an air supply component installed inside the cabin body (1), wherein the air supply component comprises an air supply tank (2); Two groups of air supply tanks (2) are fixedly installed on the left side of the cabin (1), and air supply pipes (3) are installed on the tops of the air supply tanks (2). A solenoid valve and a check valve are installed on the side of the air supply pipes (3) close to the air supply tanks (2), and a mixing chamber (4) is installed on the other side of the air supply pipes (3). An air intake pipe (5) is fixedly installed on the right side of the mixing chamber (4), and a culture dish (6) is installed on the other end of the air intake pipe (5).

2. A biological intelligent manufacturing cabin for biological cell production according to claim 1, characterized in that: A carrier plate (7) is installed on the outside of the culture dish (6), a mounting arm (15) is fixedly installed at the bottom of the front end of the carrier plate (7), a fluid infusion port (16) is installed at the bottom of the mounting arm (15), a fluid infusion catheter (17) is installed on the top of the mounting arm (15), the fluid infusion catheter (17) and the fluid infusion port (16) are in communication with each other, a connecting end tank (18) is connected to the rear of the fluid infusion catheter (17), a connecting buckle (19) is movably installed at the bottom of the connecting end tank (18), the other end of the connecting buckle (19) is fixedly connected to a four-port through pipe (20), a detection end (21) is installed at the bottom of the fluid infusion catheter (17), a detection needle (22) is fixedly installed on the other side of the detection end (21), and a rubber sleeve (23) is fixedly installed at the center of the bottom of the culture dish (6).

3. A biological intelligent manufacturing cabin for biological cell production according to claim 1, characterized in that: An air storage port (28) is provided at the upper left corner of the cabin (1); a protective box (29) is fixedly installed at the lower right corner of the cabin (1); a heating pipe (30) is installed inside the protective box (29); a fan (31) is installed in an array on the right side of the heating pipe (30); a filter air inlet (32) is provided on the right side of the fan (31); the filter air inlet (32) is provided on the surface of the cabin (1); and the filter air inlet (32) has the same structure as the air storage port (28).

4. A biological intelligent manufacturing cabin for biological cell production according to claim 1, characterized in that: A slide plate (8) is fixedly mounted at the bottom of the carrier plate (7), a partition plate (9) is mounted at the bottom of the slide plate (8), a slide groove (10) is provided inside the partition plate (9), a clamping groove (11) is provided on both the left and right sides of the top of the slide groove (10), springs (12) are fixedly mounted on both the left and right sides of the top of the slide plate (8), a side clamping plate (13) is fixedly mounted on the top of the spring (12), a center clamping plate (14) is fixedly mounted at the center of the top of the slide plate (8), an air hole (26) is provided on the top of the culture dish (6), and an ultraviolet lamp (27) is fixedly mounted on the top of the inner wall of the cabin (1).

5. The biological intelligent manufacturing cabin for biological cell production according to claim 1, characterized in that: The air supply tank (2) forms a flow structure with the air intake pipe (5) through the cooperation between the air supply pipe (3) and the mixing chamber (4), and the air intake pipe (5) forms a flow structure with the culture dish (6). The connection between the air intake pipe (5) and the culture dish (6) is provided with a solenoid valve and a check valve.

6. A biological intelligent manufacturing cabin for biological cell production according to claim 2, characterized in that: The carrier plate (7) forms a detachable structure with the partition plate (9) through the cooperation between the slide plate (8) and the slide groove (10), and the slide plate (8) is connected to the partition plate through the cooperation between the center clamping plate (14) and the slide groove (10).

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