Intelligent cell culture workstation structure

Abstract

The utility model relates to the technical field of cell culture mechanisms, and particularly discloses an intelligent cell culture workstation structure which comprises a cell culture system, an infusion pump matched with the cell culture system for use, and a cell recovery component communicated with the cell culture system or the infusion pump, the control center is electrically connected with the cell culture system, the infusion pump and the cell recovery assembly, the cell culture system is used for storing external cell culture fluid, and the infusion pump is used for extracting the cell culture fluid stored by the cell culture system; and the cell resuscitation assembly is used for heating the stored cell culture fluid pumped from the cell culture system by the infusion pump to a preset temperature. By integrating the cell culture system, the infusion pump, the cell resuscitation assembly and the control center, the cell culture efficiency and success rate are improved, and the purity and health state of cells are ensured.

Description

Technical Field

[0001] The utility model relates to the technical field of cell culture mechanisms, and in particular discloses an intelligent cell culture workstation structure. Background Art

[0002] In the field of cell culture, traditional cell culture methods have long relied on cumbersome manual operations. When researchers or technicians need to perform cell culture, they usually manually transfer the culture medium containing cells from one container to another area dedicated to cell culture. This manual transfer process is not only time-consuming and labor-intensive, but also highly susceptible to contamination or physical damage to cells during transfer. Contamination can come from microorganisms in the air, residues on the operator's hands or tools, and physical damage can be caused by improper operation during the transfer process or unsuitable conditions such as the temperature and pH value of the culture medium. These factors can make it difficult to stably control the success rate and quality of cell culture. Utility Model Content

[0003] In order to overcome the shortcomings and deficiencies in the prior art, the purpose of the present invention is to provide an intelligent cell culture workstation structure.

[0004] To achieve the above-mentioned objectives, the utility model provides an intelligent cell culture workstation structure, including a cell culture system, a liquid pump used in conjunction with the cell culture system, a cell recovery component connected to the cell culture system or the liquid pump, and a control center electrically connected to the cell culture system, the liquid pump, and the cell recovery component. The cell culture system has a function for preserving external cell culture fluid, the liquid pump is used to extract the cell culture fluid preserved in the cell culture system, and the cell recovery component is used to heat the preserved cell culture fluid extracted from the cell culture system by the liquid pump to a predetermined temperature.

[0005] By integrating a cell culture system, a pump, a cell recovery unit, and a control center, this workstation automates the management of cell culture fluids. The cell culture system refrigerates and preserves cell culture fluids, ensuring their long-term stability and availability. The pump precisely extracts the required amount of fluid, and the cell recovery unit heats the refrigerated fluid to a temperature suitable for cell growth. This design not only improves the efficiency and accuracy of cell culture but also reduces the complexity and potential errors associated with manual operations, providing more reliable and convenient support for cell culture experiments.

[0006] The cell culture system includes a cell storage box and a cell culture box. The cell storage box is a cell storage area for storing external cell culture fluid. The cell storage box includes a box body and a box door that can be opened and closed with the box body. The box body includes an arrangement bracket arranged inside the box body, and the arrangement bracket is used to place cell containers filled with external cell culture fluid; the cell storage box, the liquid pump, and the cell recovery component are connected via a transmission pipeline.

[0007] The cell storage box can be a refrigerated box, a storage box with other constant temperature and humidity conditions, or a storage box with certain disinfection and sterilization functions. Different cell storage boxes are selected for different cell culture fluids according to the storage environment required by the cell culture fluid.

[0008] The beneficial effects of the cell culture system, which includes a cell storage box and a cell culture chamber, are further demonstrated. The cell storage box, serving as a cell storage area, uses internal support brackets to orderly position cell containers containing external cell culture fluid, ensuring the stability and long-term preservation of the cell culture fluid during refrigerated storage. The chamber door design allows operators to easily access and manage the cell culture fluid. Furthermore, the cell storage box, aspiration pump, and cell recovery components are connected by transfer pipes, forming an efficient cell culture fluid circulation system.

[0009] The cell culture system also includes a cell culture incubator, which serves as a culture area for cultivating predetermined bacterial species from outside. Cell culture fluid heated to a predetermined temperature by the cell recovery component is then transferred into the incubator. The cell culture incubator provides a suitable environment for cultivating the predetermined bacterial species. The cell recovery component heats the refrigerated cell culture fluid to a predetermined temperature and then transfers it to the incubator via a transfer pipeline, providing suitable growth conditions for the bacterial species.

[0010] The transmission pipe is arranged under the arrangement bracket. The transmission pipe includes a transmission pipe body and a path plate for fixing the transmission pipe body. The transmission pipe body is laid along the length direction of the path plate. One end of the transmission pipe body is connected to the opening of the cell container, and the other end of the transmission pipe body is connected to the culture container in the cell culture incubator.

[0011] The transfer tube runs along the length of the path plate, ensuring the stability and smoothness of cell culture fluid during transfer. By connecting one end of the transfer tube to the opening of the cell container and the other end to the culture container in the cell culture incubator, a seamless transition from storage to use of the cell culture fluid is achieved.

[0012] The cell storage box also includes a disinfection unit, which is electrically connected to the control center. The disinfection unit is set on the box door or inside the box. When the box is closed, the disinfection unit disinfects the inside of the box. The setting of the disinfection unit can automatically disinfect the inside of the cell storage box when the box is closed, effectively killing bacteria, viruses and other microorganisms in the air, and providing a more sterile culture environment for cells. This helps to reduce the risk of contamination during cell culture and improve the success rate of cell culture. By regularly disinfecting the inside of the cell storage box, the growth and reproduction of microorganisms inside the equipment can be effectively reduced, thereby extending the service life of the equipment and reducing maintenance and replacement costs.

[0013] The liquid pump is arranged on the cell storage box, the liquid pump is a peristaltic pump, and the liquid pump is electrically connected to the control center; the liquid pump includes a casing, a driving part arranged on the casing, and a pump head, and the pump head is provided with a rotating shaft connected to the output end of the driving part. The control center controls the rotation speed of the rotating shaft on the pump head and cooperates with the casing to squeeze the transmission tube body to control the transmission amount of the cell culture fluid.

[0014] By adjusting the control center's parameter settings, the pump's speed and transfer volume can be flexibly controlled to meet the needs of different cell culture experiments. The pump's design enables smooth and continuous transfer of cell culture fluid, avoiding the dripping and splashing problems associated with traditional manual transfer methods. Furthermore, the pump's sealed design effectively reduces the risk of contamination during transfer, improving the safety and reliability of cell transfer.

[0015] The cell storage box is also equipped with a switching module and a flow monitoring module. These modules are installed at the front and rear ends of the liquid pump. The liquid delivery pipeline switching module is located at the front or rear end of the liquid pump. Its main function is to allow switching between multiple liquid delivery pipelines to meet different liquid delivery requirements. The switching module is a pinch valve that enables fast and accurate switching between multiple liquid delivery pipelines to meet the specific needs of different liquid delivery tasks. The flow monitoring module is an ultrasonic flowmeter installed on the outside of the delivery pipeline. It monitors and records the flow changes of the liquid during the delivery process in real time, providing accurate data support for operators.

[0016] The cell recovery component comprises a heating block with a curved groove on the heating block for accommodating a transmission tube for conveying cell culture fluid. The cell recovery component heats the cell culture fluid inside the transmission tube to a predetermined temperature.

[0017] The cell recovery assembly precisely controls the temperature of the cell culture fluid within the transfer tube, ensuring it reaches the optimal temperature range for cell culture. This helps maintain normal cell function and improves cell survival and growth rates. The heating block features a curved groove for accommodating the transfer tube. This groove not only provides stable support for the transfer tube but, more importantly, increases the time it takes to pass through the cell recovery assembly. As the transfer tube moves along the curved groove, the heat exchange time between the cell culture fluid within it and the heating block is extended, ensuring more complete and even heating of the cell culture fluid.

[0018] The disinfection unit is a UV lamp or an infrared lamp. UV lamps can destroy the DNA structure of microorganisms (such as bacteria and viruses), thereby eliminating their reproductive capacity and achieving the purpose of sterilization and disinfection. This sterilization method is highly efficient and broad-spectrum, capable of killing a wide range of microorganisms. Infrared light has strong penetrating power and can penetrate some obstructions within the cell culture system, such as culture dishes and test tubes, effectively disinfecting microorganisms hidden within these objects. This penetrating power ensures comprehensive and thorough disinfection.

[0019] The cell recovery component is also provided with a temperature detection module, which monitors the temperature of the cell culture fluid in the transmission tube. The control center can adjust the heating temperature of the cell recovery component accordingly according to the temperature monitored by the temperature detection module.

[0020] The temperature detection module monitors the temperature of the cell culture fluid within the transfer tube in real time, ensuring that cells remain within the optimal growth temperature range. If the temperature deviates from the preset value, the control center immediately adjusts the heating temperature of the cell recovery component, quickly restoring the optimal temperature environment. This improves cell survival, growth, and reproduction, ultimately increasing the success rate of cell culture.

[0021] The cell culture incubator is provided with a cell growth monitoring module, which monitors the growth status, morphological changes and density of cells during the culture process in real time. The cell growth monitoring module can monitor the growth status of cells during the culture process in real time. Through high-precision sensors and image processing technology, the module can capture subtle changes in cells in the incubator, such as cell division, proliferation and morphological changes. This real-time monitoring capability enables researchers to understand the growth of cells in a timely manner, thereby adjusting the culture conditions and optimizing the cell culture process. The cell growth monitoring module can not only monitor the growth status, morphological changes and density of cells in real time, but also record these data and conduct in-depth analysis. Through data analysis, researchers can understand the growth trends, cycles and variations of cells, providing strong support for the optimization of the cell culture process.

[0022] The control center also includes an alarm module that automatically triggers an alarm signal when the data monitored by the temperature detection module does not meet the expected temperature of the cell culture fluid or when the cell culture system fails to produce fluid. The alarm module in the control center presets one or more temperature thresholds, which are generally based on the optimal temperature range for cell culture. When the data monitored by the temperature detection module exceeds the preset threshold, the alarm module automatically triggers an alarm signal, such as an audible alarm, a flashing light alarm, or a text message display. The alarm module can also send the alarm information to a designated contact or system so that operators can respond quickly.

[0023] The cell culture system is equipped with a vibration dampener at the bottom to reduce the impact of external vibrations on cell culture. Cell culture is a highly environmentally demanding process, and even minor vibrations can adversely affect cell growth. For example, vibrations can interfere with cell attachment and growth, leading to abnormal cell morphology or decreased growth rate. Therefore, the installation of a vibration dampener in the cell culture system is crucial for maintaining a stable cell culture environment.

[0024] Beneficial effects of the present invention: The intelligent cell culture workstation structure of the present invention realizes the automatic transfer of cells from the storage area to the culture area by precisely controlling the liquid pump and the transmission pipeline through the control center, avoiding the tediousness and errors of manual operation, and significantly improving the efficiency and success rate of cell culture. The cell storage box and cell culture box in the workstation provide suitable storage and culture environments respectively. The cell recovery component and the temperature detection module ensure that the cell culture fluid is in the optimal temperature range, while the cell growth monitoring module monitors the cell growth status in real time, providing strong support for optimizing the culture process. When the temperature is abnormal or the incubator does not discharge liquid, the alarm module will automatically trigger an alarm signal to ensure that the operator can respond quickly. The shockproof device at the bottom of the cell culture system further reduces the impact of external vibrations on cell culture, providing cells with a more stable and suitable growth environment. The intelligent cell culture workstation structure realizes fully automated operation from cell storage to culture. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0026] Figure 2 This is a schematic structural diagram of a cell storage box of the present invention;

[0027] Figure 3 This is a structural schematic diagram of the cell storage box of the present invention from another perspective;

[0028] Figure 4 It is a structural schematic diagram of the liquid pump of the present utility model.

[0029] Reference numerals include:

[0030] 1. Cell culture system; 2. Liquid pump; 3. Transmission pipeline; 4. Control center; 5. Cell storage box; 6. Cell culture box; 7. Box body; 8. Box door; 9. Arrangement bracket; 11. Transmission tube body; 12. Path plate; 13. Disinfection unit; 14. Housing; 15. Drive part; 16. Pump head; 17. Rotating shaft; 18. Cell recovery component; 19. Heating block; 21. Bending groove; 22. Temperature detection module; 23. Cell growth monitoring module; 24. Alarm module; 25. Shockproof device. DETAILED DESCRIPTION

[0031] In order to facilitate understanding by those skilled in the art, the present invention will be further described below with reference to embodiments and drawings. The contents mentioned in the embodiments are not intended to limit the present invention.

[0032] See also Figures 1 to 4 As shown, the utility model is an intelligent cell culture workstation structure, an intelligent cell culture workstation structure, including a cell culture system 1, a liquid pump 2 used in conjunction with the cell culture system 1, a cell recovery component 18 connected to the cell culture system 1 or the liquid pump 2, and a control center 4 electrically connected to the cell culture system 1, the liquid pump 2, and the cell recovery component 18. The cell culture system 1 is used to store external cell culture fluid, the liquid pump 2 is used to extract the cell culture fluid stored in the cell culture system 1, and the cell recovery component 18 is used to heat the stored cell culture fluid extracted from the cell culture system 1 by the liquid pump 2 to a predetermined temperature.

[0033] By integrating a cell culture system 1, a pump 2, a cell recovery module 18, and a control center 4, this workstation automates the management of cell culture fluid. The cell culture system 1 refrigerates and preserves the cell culture fluid, ensuring its long-term stability and usability. The pump 2 precisely extracts the required amount of culture fluid, and the cell recovery module 18 heats the refrigerated culture fluid to a temperature suitable for cell growth. This design not only improves the efficiency and accuracy of cell culture but also reduces the complexity and potential errors of manual operations, providing more reliable and convenient support for cell culture experiments.

[0034] The cell culture system 1 includes a cell storage box 5 and a cell culture box 6. The cell storage box 5 is a cell storage area for storing external cell culture fluid. The cell storage box 5 includes a box body 7 and a box door 8 that can be opened and closed with the box body 7. The box body 7 includes an arrangement bracket 9 arranged inside the box body 7, and the arrangement bracket 9 is used to place cell containers filled with external cell culture fluid; the cell storage box 5, the liquid pump 2, and the cell recovery component 18 are connected via a transmission pipe 3.

[0035] The cell storage box 5 can be a refrigerator, a storage box with other constant temperature and humidity conditions, or a storage box with certain disinfection and sterilization functions. Different cell storage boxes 5 are selected for different cell culture fluids according to the storage environment required by the cell culture fluid.

[0036] The beneficial effects of cell culture system 1 are further enhanced by subdividing it into a cell storage box 5 and a cell culture chamber 6. The cell storage box 5 serves as a cell storage area, using an internal arrangement bracket 9 to orderly position cell containers containing external cell culture fluid, ensuring the stability and long-term preservation of the cell culture fluid during refrigerated storage. The design of the chamber door 8 allows operators to conveniently access and manage the cell culture fluid. Furthermore, the cell storage box 5, the liquid extraction pump 2, and the cell recovery assembly 18 are connected via a transfer pipe 3, forming an efficient cell culture fluid circulation system.

[0037] The cell culture system 1 also includes a cell culture incubator 6, which serves as a culture area for cultivating predetermined bacterial species. Cell culture fluid heated to a predetermined temperature by a cell recovery module 18 is introduced into the incubator 6. The incubator 6 provides a suitable environment for cultivating the predetermined bacterial species. The cell recovery module 18 heats the refrigerated cell culture fluid to a predetermined temperature and then introduces it into the incubator 6 via a transfer conduit 3, providing suitable growth conditions for the bacterial species.

[0038] The transmission pipe 3 is arranged below the arrangement bracket 9. The transmission pipe 3 includes a transmission pipe body 11 and a path plate 12 for fixing the transmission pipe body 11. The transmission pipe body 11 is laid along the length direction of the path plate 12. One end of the transmission pipe body 11 is connected to the opening of the cell container, and the other end of the transmission pipe body 11 is connected to the culture container in the cell culture box 6.

[0039] The transfer tube 11 is laid along the length of the path plate 12, ensuring the stability and smoothness of the cell culture fluid during transfer. By connecting one end of the transfer tube 11 to the opening of the cell container and the other end to the culture container in the cell culture incubator 6, a seamless transition from storage to use of the cell culture fluid is achieved.

[0040] The cell storage box 5 also includes a disinfection unit 13, which is electrically connected to the control center 4. The disinfection unit 13 is set on the box door 8 or in the box body 7. When the box body 7 is closed, the disinfection unit 13 disinfects the inside of the box body 7. The setting of the disinfection unit 13 can automatically disinfect the inside of the cell storage box 5 when the box body 7 is closed, effectively killing bacteria, viruses and other microorganisms in the air, and providing a more sterile culture environment for cells. This helps to reduce the risk of contamination during cell culture and improve the success rate of cell culture. By regularly disinfecting the inside of the cell storage box 5, the growth and reproduction of microorganisms inside the equipment can be effectively reduced, thereby extending the service life of the equipment and reducing maintenance and replacement costs.

[0041] The liquid pump 2 is arranged on the cell storage box 5. The liquid pump 2 is a peristaltic pump and is electrically connected to the control center 4. The liquid pump 2 includes a housing 14, a driving member 15 arranged on the housing 14, and a pump head 16. The pump head 16 is provided with a rotating shaft 17 connected to the output end of the driving member 15. The control center 4 controls the rotation speed of the rotating shaft 17 on the pump head 16 and cooperates with the housing 14 to squeeze the transmission tube body 11 to control the transmission amount of the cell culture fluid.

[0042] By adjusting the parameters of control center 4, the rotational speed and transfer volume of pump 2 can be flexibly controlled to meet the needs of different cell culture experiments. The design of pump 2 enables smooth and continuous transfer of cell culture fluid, avoiding the dripping and splashing problems associated with traditional manual transfer methods. Furthermore, pump 2 employs a sealed design, effectively reducing the risk of contamination of the cell culture fluid during transfer, thereby improving the safety and reliability of cell transfer.

[0043] The cell storage box 5 is also provided with a switching module and a flow monitoring module, which are arranged at the front and rear ends of the liquid pump 2; the liquid delivery pipeline switching module is located at the front or rear end of the liquid pump 2, and its main function is to allow switching between multiple liquid delivery pipelines to meet different liquid delivery requirements. The switching module is a pinch valve, which enables fast and accurate switching between multiple liquid delivery pipelines to meet the specific needs of different liquid delivery tasks. The flow monitoring module is an ultrasonic flowmeter, which is arranged on the outside of the delivery pipeline to monitor and record the flow changes of the liquid during the delivery process in real time, providing accurate data support for the operator.

[0044] The cell resuscitation component 18 includes a heating block 19 , and a curved groove 21 is formed on the heating block 19 for accommodating the transmission tube 11 for transporting cell culture fluid. The cell resuscitation component 18 heats the cell culture fluid inside the transmission tube 11 to a predetermined temperature.

[0045] The cell recovery component 18 can accurately control the temperature of the cell culture fluid inside the transfer tube 11 so that it reaches the optimal temperature range required for cell culture. This helps maintain the normal physiological functions of cells and improves the survival rate and growth rate of cell culture. The heating block 19 is provided with a curved groove 21 for accommodating the transfer tube 11. The setting of the curved groove 21 not only provides stable support for the transfer tube 11, but more importantly, it increases the time it takes for the transfer tube 11 to pass through the cell recovery component 18. When the transfer tube 11 moves along the curved groove 21, the heat exchange time between the cell culture fluid inside it and the heating block 19 is extended, thereby ensuring that the cell culture fluid can be heated more fully and evenly.

[0046] The disinfection unit 13 is an ultraviolet light or infrared light. Ultraviolet light can destroy the DNA structure of microorganisms (such as bacteria and viruses), thereby eliminating their reproductive ability and achieving the purpose of sterilization and disinfection. This sterilization method is highly efficient and broad-spectrum, capable of killing a wide range of microorganisms. Infrared light has strong penetrating power and can penetrate some obstructions within the cell culture system 1, such as culture dishes and test tubes, effectively disinfecting microorganisms hidden within these objects. This penetrating power ensures comprehensive and thorough disinfection.

[0047] The cell recovery component 18 is further provided with a temperature detection module 22 , which monitors the temperature of the cell culture fluid in the transmission tube 11 . The control center 4 can adjust the heating temperature of the cell recovery component 18 accordingly based on the temperature monitored by the temperature detection module 22 .

[0048] The temperature detection module 22 monitors the temperature of the cell culture fluid within the transfer tube 11 in real time, ensuring that the cells remain within the optimal growth temperature range. If the temperature deviates from the preset value, the control center 4 immediately adjusts the heating temperature of the cell recovery component 18, thereby quickly restoring the optimal temperature environment and improving cell survival, growth, and reproduction, ultimately increasing the success rate of cell culture.

[0049] The cell culture box 6 is provided with a cell growth monitoring module 23, which monitors the growth state, morphological changes and density of cells in the culture process in real time. The cell growth monitoring module 23 can monitor the growth state of cells in the culture process in real time. Through high-precision sensors and image processing technology, the module can capture subtle changes in cells in the incubator, such as cell division, proliferation and morphological changes. This real-time monitoring capability enables researchers to understand the growth of cells in a timely manner, thereby adjusting the culture conditions and optimizing the cell culture process. The cell growth monitoring module 23 can not only monitor the growth state, morphological changes and density of cells in real time, but also record these data and conduct in-depth analysis. Through data analysis, researchers can understand the growth trend, cycle and variation of cells, providing strong support for the optimization of the cell culture process.

[0050] The control center 4 also includes an alarm module 24, which automatically triggers an alarm signal when the data monitored by the temperature detection module 22 does not meet the expected temperature of the cell culture fluid or when the cell culture system 1 does not produce fluid. The alarm module 24 within the control center 4 presets one or more temperature thresholds, which are generally based on the optimal temperature range for cell culture. When the data monitored by the temperature detection module 22 exceeds the preset threshold, the alarm module 24 automatically triggers an alarm signal, such as an audible alarm, a flashing light alarm, or a text message display. The alarm module 24 can also send the alarm information to a designated contact or system to enable a quick response from the operator.

[0051] The cell culture system 1 is equipped with a shock-absorbing device 25 at its base to reduce the impact of external vibrations on cell culture. Cell culture is a highly environmentally demanding process, and even minor vibrations can adversely affect cell growth. For example, vibrations can interfere with cell attachment and growth, leading to abnormal cell morphology or decreased growth rate. Therefore, the installation of the shock-absorbing device 25 in the cell culture system 1 is crucial for maintaining a stable cell culture environment.

[0052] The above contents are only preferred embodiments of the present invention. For ordinary technicians in this field, according to the concept of the present invention, there may be changes in the specific implementation methods and application scope. The content of this specification should not be understood as limiting the present invention.

Claims

1. An intelligent cell culture workstation structure, characterized by: The invention comprises a cell culture system (1), a liquid pump (2) used in conjunction with the cell culture system (1), a cell recovery component (18) connected to the cell culture system (1) or connected to the liquid pump (2), and a control center (4) electrically connected to the cell culture system (1), the liquid pump (2), and the cell recovery component (18). The cell culture system (1) has a function for storing external cell culture fluid, the liquid pump (2) is used to extract the cell culture fluid stored in the cell culture system (1), and the cell recovery component (18) is used to heat the stored cell culture fluid extracted from the cell culture system (1) by the liquid pump (2) to a predetermined temperature.

2. The intelligent cell culture workstation structure according to claim 1, characterized in that: The cell culture system (1) includes a cell storage box (5) and a cell culture box (6). The cell storage box (5) is a cell storage area for storing external cell culture fluid. The cell storage box (5) includes a box body (7) and a box door (8) that can be opened and closed with the box body (7). The box body (7) includes an arrangement bracket (9) arranged inside the box body (7). The arrangement bracket (9) is used to place a cell container filled with external cell culture fluid. The cell storage box (5), the liquid pump (2), and the cell recovery component (18) are connected via a transmission pipe (3).

3. The intelligent cell culture workstation structure according to claim 2, characterized in that: The cell culture box (6) is a culture area for cultivating predetermined bacterial species from the outside, and the cell culture fluid heated to a predetermined temperature by the cell recovery component (18) is input into the cell culture box (6).

4. The intelligent cell culture workstation structure according to claim 3, characterized in that: The transmission pipe (3) is arranged below the arrangement bracket (9), and the transmission pipe (3) includes a transmission pipe body (11) and a path plate (12) for fixing the transmission pipe body (11). The transmission pipe body (11) is laid along the length direction of the path plate (12). One end of the transmission pipe body (11) is connected to the opening of the cell container, and the other end of the transmission pipe body (11) is connected to the culture container in the cell culture box (6).

5. The intelligent cell culture workstation structure according to claim 2, characterized in that: The cell storage box (5) further includes a disinfection unit (13), which is electrically connected to the control center (4). The disinfection unit (13) is arranged on the box door (8) or inside the box body (7). When the box body (7) is closed, the disinfection unit (13) disinfects the interior of the box body (7).

6. The intelligent cell culture workstation structure according to claim 2, characterized in that: The liquid pump (2) is arranged on the cell storage box (5), the liquid pump (2) is a peristaltic pump, and the liquid pump (2) is electrically connected to the control center (4); the liquid pump (2) includes a housing (14), a driving member (15) arranged on the housing (14), and a pump head (16), and the pump head (16) is provided with a rotating shaft (17) connected to the output end of the driving member (15). The control center (4) controls the rotating shaft (17) on the pump head (16) to rotate and cooperate with the housing (14) to squeeze the transmission tube (11) to control the transmission amount of the cell culture fluid.

7. The intelligent cell culture workstation structure according to claim 1, characterized in that: The cell resuscitation component (18) includes a heating block (19), and a curved groove (21) is provided on the heating block (19) for accommodating a transmission tube (11) for transporting a cell culture fluid. The cell resuscitation component (18) heats the cell culture fluid inside the transmission tube (11) to a predetermined temperature.

8. The intelligent cell culture workstation structure according to claim 7, characterized in that: The cell recovery component (18) is further provided with a temperature detection module (22), which monitors the temperature of the cell culture fluid in the transmission tube (11). The control center (4) can adjust the heating temperature of the cell recovery component (18) accordingly according to the temperature monitored by the temperature detection module (22).

9. The intelligent cell culture workstation structure according to claim 8, characterized in that: The control center (4) further includes an alarm module (24) which automatically triggers an alarm signal when the data monitored by the temperature detection module (22) does not meet the expected temperature of the cell culture fluid or the cell culture system (1) fails to produce fluid.

10. The intelligent cell culture workstation structure according to claim 1, characterized in that: The cell culture system (1) is provided with a shockproof device (25) at the bottom, and the shockproof device (25) is used to reduce the impact of external vibration on cell culture.

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