Artificial intelligence self-adaptive temperature and humidity regulation and control system for agricultural products

Abstract

The invention discloses an artificial intelligence self-adaptive temperature and humidity regulation and control system for agricultural products, and relates to the technical field of intelligent environment control and agricultural intellectualization, the artificial intelligence self-adaptive temperature and humidity regulation and control system comprises a culture bin shell and an isolation plate arranged in the culture bin shell, and the two sides of the isolation plate are provided with a pipeline system and a control system respectively; the control system comprises a temperature adjusting fan, an atomizing sprayer, an electric control box, a frequency conversion type temperature control equipment outdoor unit, a carbon dioxide removal device, an external circulation water curtain device, an intelligent airflow adjusting valve and an air purification pipeline. The system can realize automatic monitoring and accurate control of a cultivation environment, has the advantages of energy conservation, high efficiency, good environment balance, high intelligent degree and the like, and is suitable for intelligent storage and cultivation scenes of multiple crops such as sweet potatoes, fruits and vegetables, edible mushrooms, flowers and the like; the problems of environment control lag, energy waste and uneven climate distribution in an existing storage and cultivation system can be effectively solved.

Description

Technical Field

[0001] This invention relates to the fields of intelligent environmental control and intelligent agriculture, and in particular to an artificial intelligence adaptive temperature and humidity control system for agricultural products. Background Technology

[0002] In the fields of modern agriculture and biological breeding, environmental control technology plays a decisive role in the storage quality of agricultural products and the growth of crops and fungi.

[0003] In existing technologies, traditional storage and cultivation environments rely on human experience or time relays and other fixed-value control methods to regulate temperature and humidity. However, this method is slow to respond to changes in the external environment, has low precision, and fluctuates greatly, making it difficult to adapt to complex and ever-changing natural conditions.

[0004] Currently, although some intelligent environmental control systems have introduced temperature and humidity sensors and automatic adjustment modules, they still suffer from problems such as insufficient adaptability, high energy consumption, single control strategies, and uneven airflow distribution. In addition, the concentration of carbon dioxide, volatile gases, and microbial pollution in the ambient air is often difficult to control effectively, requiring frequent activation of the fresh air system for ventilation. However, the introduction of fresh air leads to changes in indoor temperature and humidity, increasing energy consumption and system instability.

[0005] Therefore, an artificial intelligence-based adaptive temperature and humidity control system for agricultural products is provided to solve the above problems. Summary of the Invention

[0006] The purpose of this invention is to provide an artificial intelligence adaptive temperature and humidity control system for agricultural products, which solves the problems of insufficient temperature and humidity control accuracy, slow system response, high energy consumption, and low gas purification efficiency in the existing technology, and realizes intelligent, dynamic, and self-learning control of the storage and cultivation environment.

[0007] To achieve the above objectives, the present invention provides an artificial intelligence adaptive temperature and humidity control system for agricultural products, including a culture chamber shell and an isolation plate disposed inside the culture chamber shell. A pipeline system and a control system are respectively disposed on both sides of the isolation plate. The control system includes a temperature regulating fan, an atomizing sprayer, an electrical control box, a variable frequency temperature control equipment outdoor unit, a carbon dioxide removal device, an external circulating water curtain device, an intelligent airflow regulating valve, and an air purification pipeline.

[0008] Preferably, the piping system includes a standard gas transmission pipeline array and an atomizing exhaust pipe. The standard gas transmission pipeline array includes two symmetrically arranged standard gas transmission pipelines. The standard gas transmission pipelines adopt U-shaped transmission pipelines and are connected to a temperature regulating fan through an airflow guide shroud. The atomizing exhaust pipe passes through an isolation plate and is connected to an atomizing sprayer.

[0009] Preferably, the standard gas transmission pipeline is provided with multiple gas splitting pipelines, and multiple small axial flow fans are provided on the gas splitting pipelines. An internal airflow converging pipe is provided below the standard gas transmission pipeline, and the internal airflow converging pipe is located between two adjacent gas splitting pipelines.

[0010] Preferably, a fresh air intake device is installed below the standard gas transmission pipeline. The fresh air intake device is located on the side near the isolation plate. The fresh air intake device is connected to the external circulating water curtain device through an internal fresh air intake pipe. The fresh air intake device is connected to the rear space of the temperature regulating fan through an internal fresh air exhaust pipe. The fresh air intake device is connected to the internal circulating water curtain device through an external fresh air intake pipe. The other end of the external fresh air intake pipe extends through the outer shell of the culture chamber to the outside space. The fresh air intake device is connected to the space on the other side of the isolation plate through an external fresh air exhaust pipe. The air purification pipe is connected to the external circulating water curtain device and the carbon dioxide removal device through intelligent airflow regulating valves. A large axial flow fan is installed on the air purification pipe.

[0011] Preferably, an internal circulation channel and an internal circulating water curtain device are provided below the fresh air introduction device. The internal circulation channel is connected to the temperature regulating fan, the airflow gathering pipe inside the box is connected to the pipeline where the large axial flow fan is located, the internal circulating water curtain device is connected to the external circulating water curtain device through the water circulation system pipeline, the internal circulating water curtain device is connected to the external fresh air introduction pipeline, and the external circulating water curtain device is connected to the carbon dioxide removal device.

[0012] Preferably, an intelligent display and control screen is installed on one side of the outer wall of the culture chamber shell, and the intelligent display and control screen is located on the side away from the isolation plate. Environmental monitoring sensors are installed at the four corners of the interior of the culture chamber shell. Culture container supports are installed on both sides of the airflow converging pipe inside the chamber and on the front and rear inner walls of the culture chamber shell.

[0013] Preferably, the electrical control box is connected to the temperature regulating fan, atomizing sprayer, variable frequency temperature control equipment outdoor unit, internal circulating water curtain device, external circulating water curtain device, intelligent airflow regulating valve, intelligent display control screen, environmental monitoring sensor, large axial flow fan and small axial flow fan through cables, and the electrical control box is equipped with a central control module.

[0014] Preferably, the temperature regulating fan is connected to the outdoor unit of the frequency conversion temperature control equipment through the air duct, and the carbon dioxide removal device is connected to the air purification duct and the external circulating water curtain device respectively. The carbon dioxide removal device is equipped with a regenerable adsorption filter.

[0015] Preferably, the air purification duct includes a primary purification structure, a secondary purification structure, and a tertiary purification structure. The primary purification structure is a pre-filter layer, the secondary purification structure is an activated carbon adsorption layer, and the tertiary purification structure is a high-efficiency filter layer.

[0016] Therefore, the present invention employs the above-mentioned artificial intelligence adaptive temperature and humidity control system for agricultural products, which has the following beneficial effects: (1) This scheme adopts artificial intelligence adaptive control, which can automatically adjust the temperature, humidity and airflow state according to the real-time changes of the environment inside and outside the cultivation chamber, making the control of the environment inside the chamber more precise and stable; (2) This scheme sets up an air purification pipeline system in the cultivation chamber and purifies the gas in the chamber by adsorption of specific materials, effectively removing carbon dioxide and harmful gases, reducing the start-up frequency of fresh air equipment, thereby reducing temperature loss and energy consumption in the chamber. (3) The incubation chamber of this scheme is equipped with multiple environmental monitoring sensors. Combined with data fusion algorithms and self-learning models, it can sense temperature, humidity, gas concentration and airflow status in real time, dynamically construct an environmental digital twin model, and realize predictive control. (4) This solution constructs a closed-loop airflow circulation system by using an intelligent airflow regulating valve and a variable frequency temperature control outdoor unit, which makes the temperature and humidity distribution in the cultivation chamber more uniform, avoids cold and heat stratification and humidity deviation, and improves gas exchange efficiency and consistency of agricultural product storage and biological cultivation. (5) The cultivation chamber of this scheme adopts a modular integrated design, combining internal circulating water curtain device, atomizing sprayer, carbon dioxide removal device and other multi-functional units, which can be freely combined according to different biological species, storage and cultivation requirements, and has good compatibility and scalability.

[0017] The method of the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. Attached Figure Description

[0018] Figure 1 This is a structural diagram of an artificial intelligence adaptive temperature and humidity control system for agricultural products, excluding the outer shell of the cultivation chamber, according to the present invention. Figure 2 This is a structural diagram of an artificial intelligence adaptive temperature and humidity control system for agricultural products according to the present invention, including the outer shell of a cultivation chamber; Figure 3 This is a 3D diagram of an artificial intelligence adaptive temperature and humidity control system for agricultural products according to the present invention. Figure 4 This is a left view of an artificial intelligence adaptive temperature and humidity control system for agricultural products according to the present invention. Figure 5 This is a rear view of an artificial intelligence adaptive temperature and humidity control system for agricultural products according to the present invention. Figure 6 This is a right view of an artificial intelligence adaptive temperature and humidity control system for agricultural products according to the present invention. Figure 7This is a side view of an artificial intelligence adaptive temperature and humidity control system for agricultural products according to the present invention. Figure 8 This is a schematic diagram of the connection of an intelligent airflow regulating valve for an artificial intelligence adaptive temperature and humidity control system for agricultural products according to the present invention. Figure 9 This is a structural diagram of a gas diversion pipeline for an artificial intelligence adaptive temperature and humidity control system for agricultural products according to the present invention.

[0019] The components include: 1. Culture chamber shell; 2. Temperature regulating fan; 3. Fresh air introduction device; 4. Atomizing sprayer; 5. Electrical control box; 6. Air purification duct; 7. Intelligent display control panel; 8. Internal airflow convergence pipe; 9. Environmental monitoring sensor; 10. Gas diversion duct; 11. Culture container support; 12. Internal circulating water curtain device; 13. Atomizing exhaust pipe; 14. Internal fresh air exhaust duct; 15. Standard gas transmission duct; 16. Internal fresh air introduction duct; 17. Small axial flow fan; 18. Airflow guide hood; 19. Water circulation system duct; 20. External fresh air exhaust duct; 21. Variable frequency temperature control equipment outdoor unit; 22. Carbon dioxide removal device; 23. External circulating water curtain device; 24. Intelligent airflow regulating valve; 25. External fresh air introduction duct; 26. Large axial flow fan; 27. Internal circulation channel; 28. Air duct; 29. ​​Isolation plate. Detailed Implementation

[0020] The method of the present invention will be further described below with reference to the accompanying drawings and embodiments.

[0021] Unless otherwise defined, the methodological or scientific terms used in this invention shall have the ordinary meaning as understood by one of ordinary skill in the art to which this invention pertains.

[0022] The terms "comprising" or "including" as used in this invention mean that the element preceding the term encompasses the element listed after the term, and do not exclude the possibility of encompassing other elements. Terms such as "inner," "outer," "upper," and "lower" indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing the invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the invention. When the absolute position of the described object changes, the relative positional relationship may also change accordingly. In this invention, unless otherwise explicitly specified and limited, the term "attached" and similar terms should be interpreted broadly. For example, it can refer to a fixed connection, a detachable connection, or an integral part; it can refer to a direct connection or an indirect connection through an intermediate medium; it can refer to the internal communication of two elements or the interaction relationship between two elements. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.

[0023] Example like Figures 1-9 As shown, the present invention provides an artificial intelligence adaptive temperature and humidity control system for agricultural products, including a culture chamber shell 1 and an isolation plate 29 disposed inside the culture chamber shell 1. A pipeline system and a control system are respectively disposed on both sides of the isolation plate 29. The control system includes a temperature regulating fan 2, an atomizing sprayer 4, an electrical control box 5, a variable frequency temperature control equipment outdoor unit 21, a carbon dioxide removal device 22, an external circulating water curtain device 23, an intelligent airflow regulating valve 24, and an air purification pipe 6.

[0024] An intelligent display control screen 7 is installed on one side of the outer wall of the culture chamber shell 1. The intelligent display control screen 7 is located on the side away from the isolation plate 29. It is used to display real-time environmental parameters, system operating status, AI adjustment strategies and historical curves. Users can use this screen to switch modes, set parameters and interact with remote data, and it supports cloud monitoring and remote maintenance.

[0025] Environmental monitoring sensors 9 are installed at the four corners of the inner shell 1 of the culture chamber to monitor parameters such as temperature, humidity, carbon dioxide concentration, air flow rate and gas cleanliness in real time. Culture container supports 11 are installed on both sides of the airflow converging pipe 8 inside the chamber and on the front and rear inner walls of the outer shell 1 of the culture chamber. The culture container supports 11 adopt a high-strength aluminum alloy frame structure, with modular splicing and adjustable sliding rail design. The support position can be flexibly adjusted according to the size requirements of different types of plants or samples to improve space utilization.

[0026] The electrical control box 5 is connected to the temperature regulating fan 2, the atomizing sprayer 4, the outdoor unit 21 of the frequency conversion temperature control equipment, the internal circulating water curtain device 12, the external circulating water curtain device 23, the intelligent airflow regulating valve 24, the intelligent display control screen 7, the environmental monitoring sensor 9, the large axial flow fan 26, and the small axial flow fan 17 via cables. The electrical control box 5 has a built-in AI intelligent control module, a frequency conversion drive module, and a safety protection unit. It has remote control and data cloud storage functions. It can upload the operating data to the cloud server through the wireless network to realize the online optimization of the AI ​​model and the self-learning upgrade of the environmental control algorithm, thereby improving the system's adaptive control accuracy and long-term operational reliability. When the system detects abnormal temperature, humidity, or carbon dioxide concentration, it automatically triggers the early warning and protection logic.

[0027] The monitoring data from the environmental monitoring sensor 9 is processed by the central control module in the electrical control box 5 using AI intelligent processing. The AI ​​adaptive control algorithm is then used to coordinate and regulate the various functional areas, achieving adaptive and constant control of temperature, humidity, airflow, and gas composition. This allows the optimal ecological environment inside the warehouse to be maintained automatically under different seasons and load conditions.

[0028] The temperature regulating fan 2 is connected to the outdoor unit 21 of the variable frequency temperature control equipment through the air duct 28, forming a closed-loop dynamic control unit. The system achieves intelligent temperature control through PID algorithm and AI prediction model. The system can adjust the cooling or heating output power in advance according to the temperature and humidity change trend, thereby improving energy utilization efficiency and reducing response lag.

[0029] The carbon dioxide removal device 22 is connected to the air purification duct 6 and the external circulating water curtain device 23 respectively. The carbon dioxide removal device 22 is equipped with a regenerable adsorption filter element. It uses porous molecular sieve and active oxide composite material to adsorb and purify carbon dioxide. The adsorption capacity is restored through material thermal regeneration cycle. The carbon dioxide concentration can be maintained below the safe threshold without frequently turning on the fresh air introduction device 3, which effectively reduces the number of times the fresh air equipment is started and stopped, reduces temperature and humidity fluctuations and energy consumption.

[0030] The air purification duct 6 includes a primary purification structure, a secondary purification structure, and a tertiary purification structure. The primary purification structure is a pre-filter layer used to intercept particulate impurities and dust. The secondary purification structure is an activated carbon adsorption layer used to remove odors and volatile organic compounds. The tertiary purification structure is a high-efficiency filter layer used to capture tiny particles and microorganisms, achieving deep purification of the air inside the chamber and ensuring the cleanliness of the circulating gas.

[0031] The piping system includes a standard gas transmission pipeline array and an atomizing exhaust pipe 13. The atomizing exhaust pipe 13 has multiple openings on both sides, through which the atomized humidifying gas is blown out. The standard gas transmission pipeline array includes two symmetrically arranged standard gas transmission pipelines 15, which are U-shaped. The standard gas transmission pipelines 15 are connected to the temperature regulating fan 2 via an airflow guide shroud 18. The atomizing exhaust pipe 13 passes through an isolation plate 29 and is connected to the atomizing sprayer 4. Together, they form a micro-mist humidification module, which uses ultrasonic high-frequency oscillation atomization to control the water mist particle size between 3 and 10 micrometers, thereby improving the accuracy and response speed of humidity control and preventing condensate dripping from affecting the stored and cultivated samples.

[0032] The standard gas transmission pipeline 15 is equipped with multiple gas diversion pipelines 10, which form the main channel for airflow circulation inside the chamber. Multiple small axial flow fans 17 are installed on the gas diversion pipelines 10, which are distributed at different heights to ensure that the airflow is evenly diffused inside the chamber and to avoid temperature and humidity stratification. Below the standard gas transmission pipeline 15, there is an internal airflow converging pipe 8, which is located between two adjacent gas diversion pipelines 10.

[0033] A fresh air intake device 3 is installed below the standard gas transmission pipe 15. The fresh air intake device 3 is located on the side close to the isolation plate 29. The fresh air intake device 3 is connected to the external circulating water curtain device 23 through the internal fresh air intake pipe 16. The fresh air intake device 3 is connected to the rear space of the temperature regulating fan 2 through the internal fresh air exhaust pipe 14. The fresh air intake device 3 is connected to the internal circulating water curtain device 12 through the external fresh air intake pipe 25. The other end of the external fresh air intake pipe 25 extends through the outer shell 1 of the culture chamber to the outside space. The fresh air intake device 3 is connected to the other side of the isolation plate 29 through the external fresh air exhaust pipe 20.

[0034] The air purification duct 6 is connected to the external circulating water curtain device 23 and the carbon dioxide removal device 22 via the intelligent airflow regulating valve 24. The air inlet of the intelligent airflow regulating valve 24 is connected to the exhaust end of the air purification duct 6, and the exhaust end of the intelligent airflow regulating valve 24 is connected to the air inlet of the external circulating water curtain device 23 and the carbon dioxide removal device 22. A large axial flow fan 26 is installed on the air purification duct 6. When carbon dioxide needs to be purified, the gas in the chamber needs to be purified by passing through the carbon dioxide removal device 22. When ventilation is needed, the gas in the chamber directly enters the external circulating water curtain device 23 for heat exchange. After the heat exchange is completed, the gas in the chamber enters the fresh air inlet device 3 through the internal fresh air inlet duct 16. The fresh air inlet device 3 discharges the gas through the external fresh air exhaust duct 20.

[0035] Below the fresh air introduction device 3, there is an internal circulation channel 27 and an internal circulation water curtain device 12. The internal circulation channel 27 is connected to the temperature regulating fan 2. The airflow gathering pipe 8 inside the chamber is connected to the pipeline where the large axial flow fan 26 is located. The standard gas transmission pipeline 15 is connected to the internal circulation channel 27 through the temperature regulating fan 2 to form a gas reuse system. After the internal air is purified by the carbon dioxide removal device 22, it flows back into the chamber through the standard gas transmission pipeline 15 to realize gas recycling and reuse, reducing the temperature difference loss caused by external air exchange.

[0036] The internal circulating water curtain device 12 is connected to the external circulating water curtain device 23 through the water circulation system pipe 19. The internal circulating water curtain device 12 is connected to the external fresh air introduction pipe 25. The external circulating water curtain device 23 is connected to the carbon dioxide removal device 22. The water curtain circulation system is linked with the temperature control module through the variable frequency water pump. It can automatically adjust the water flow and circulation frequency according to the heat load in the warehouse to achieve efficient evaporative cooling and humidity compensation.

[0037] In practical applications, the stored and cultured materials are placed in the culture container support 11. The required temperature, humidity, carbon dioxide concentration and other indicators are set through the intelligent display control screen 7. The environmental monitoring sensors 9 arranged at the four corners of the culture chamber shell 1 detect in real time whether the indicators in the chamber meet the set values.

[0038] If the difference between the temperature detected by the environmental monitoring sensor 9 and the set value reaches a certain threshold, an electrical signal is sent to the electrical control box 5. The electrical control box 5 controls the temperature regulating fan 2 and the outdoor unit 21 of the frequency conversion temperature control equipment to start. The gas that meets the temperature is blown into the chamber by the temperature regulating fan 2 through the standard gas transmission pipe 15. After being dispersed by the gas diversion pipe 10 and the small axial flow fan 17 on it, it is evenly distributed in every corner of the chamber.

[0039] If the difference between the humidity detected by the environmental monitoring sensor 9 and the set value exceeds a certain threshold, the environmental monitoring sensor 9 transmits an electrical signal to the electrical control box 5. The electrical control box 5 controls the atomizing sprayer 4 to spray atomized water mist, which is then sent into the chamber through the atomizing exhaust pipe 13. The mist is then evenly distributed in the chamber by the small axial flow fan 17 on the gas diversion pipe 10 to achieve the effect of humidification.

[0040] If the difference between the concentration of harmful gas detected by the environmental monitoring sensor 9 and the set value exceeds a certain threshold, the environmental monitoring sensor 9 transmits an electrical signal to the electrical control box 5. The electrical control box 5 controls the fresh air introduction device 3 to start. The gas in the chamber is introduced from the chamber through the external fresh air introduction pipe 25, passes through the internal circulating water curtain device 12, and after heat exchange, enters the fresh air introduction device 3 for complete heat exchange. Then, it is introduced into the internal fresh air exhaust pipe 14 and enters the temperature regulating fan 2. The gas is blown into the gas distribution pipe 10 and is evenly distributed in the chamber by the small axial flow fan 17 on it.

[0041] If the difference between the concentration of harmful gas detected by the environmental monitoring sensor 9 and the set value does not exceed a certain threshold, but the concentration of carbon dioxide exceeds the standard value, the environmental monitoring sensor 9 transmits an electrical signal to the electrical control box 5. The electrical control box 5 controls the large axial flow fan 26 on the air purification pipe 6 inside the box to slowly extract the gas in the chamber. The carbon dioxide is filtered by the carbon dioxide removal device 22. After heat exchange through the external circulating water curtain device 23, the gas is blown into the gas distribution pipe 10 by the temperature regulating fan 2 and then evenly distributed in the chamber by the small axial flow fan 17 on it.

[0042] If the overall temperature, humidity and gas concentration inside the chamber meet the standard values, but the environmental monitoring sensors 9 at the four corners of the chamber detect a large difference in temperature, humidity or gas concentration at the four corners, an electrical signal is transmitted to the electrical control box 5. The electrical control box 5 controls the temperature regulating fan 2 to turn on, and the air inside the chamber enters the chamber through the internal circulation channel 27. The air is blown out from the gas distribution pipe 10 and dispersed by the small axial flow fan 17 on the gas distribution pipe 10, so that the air is evenly distributed. There is space behind the temperature regulating fan 2 to achieve the internal circulation effect.

[0043] Therefore, the present invention adopts the above-mentioned artificial intelligence adaptive temperature and humidity control system for agricultural products. Through artificial intelligence adaptive control and multi-level airflow circulation design, it achieves precise control of temperature and humidity and a high degree of balance in the storage environment. Combined with air purification and carbon dioxide removal technology, it effectively reduces energy consumption and improves gas cleanliness, and is suitable for intelligent storage and cultivation of various agricultural products.

[0044] Finally, it should be noted that the above embodiments are only used to illustrate the method of the present invention and not to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can still be made to the method of the present invention, and these modifications or equivalent substitutions should not cause the modified method to deviate from the spirit and scope of the method of the present invention.

Claims

1. An artificial intelligence-based adaptive temperature and humidity control system for agricultural products, characterized in that, It includes an outer shell of the culture chamber and an isolation plate installed inside the outer shell of the culture chamber. Piping system and control system are respectively installed on both sides of the isolation plate. The control system includes a temperature regulating fan, an atomizing sprayer, an electrical control box, an outdoor unit of a frequency conversion temperature control device, a carbon dioxide removal device, an external circulating water curtain device, an intelligent airflow regulating valve, and an air purification duct.

2. The artificial intelligence adaptive temperature and humidity control system for agricultural products according to claim 1, characterized in that, The piping system includes a standard gas transmission pipeline array and an atomizing exhaust pipe. The standard gas transmission pipeline array includes two symmetrically arranged standard gas transmission pipelines. The standard gas transmission pipelines adopt U-shaped transmission pipelines and are connected to the temperature regulating fan through an airflow guide hood. The atomizing exhaust pipe passes through an isolation plate and is connected to the atomizing sprayer.

3. The artificial intelligence adaptive temperature and humidity control system for agricultural products according to claim 2, characterized in that, The standard gas transmission pipeline is equipped with multiple gas splitting pipelines, and multiple small axial flow fans are installed on the gas splitting pipelines. An internal airflow converging pipe is installed below the standard gas transmission pipeline, and the internal airflow converging pipe is located between two adjacent gas splitting pipelines.

4. The artificial intelligence adaptive temperature and humidity control system for agricultural products according to claim 3, characterized in that, A fresh air intake device is installed below the standard gas transmission pipeline. The fresh air intake device is located on the side near the isolation plate. The fresh air intake device is connected to the external circulating water curtain device through an internal fresh air intake pipe. The fresh air intake device is connected to the rear space of the temperature regulating fan through an internal fresh air exhaust pipe. The fresh air intake device is connected to the internal circulating water curtain device through an external fresh air intake pipe. The other end of the external fresh air intake pipe extends through the outer shell of the culture chamber to the outside space. The fresh air intake device is connected to the space on the other side of the isolation plate through an external fresh air exhaust pipe. The air purification pipe is connected to the external circulating water curtain device and the carbon dioxide removal device through intelligent airflow regulating valves. A large axial flow fan is installed on the air purification pipe.

5. The artificial intelligence adaptive temperature and humidity control system for agricultural products according to claim 4, characterized in that, Below the fresh air intake device are an internal circulation channel and an internal circulating water curtain device. The internal circulation channel is connected to the temperature regulating fan. The airflow gathering pipe inside the box is connected to the pipeline where the large axial flow fan is located. The internal circulating water curtain device is connected to the external circulating water curtain device through the water circulation system pipeline. The internal circulating water curtain device is connected to the external fresh air intake pipeline. The external circulating water curtain device is connected to the carbon dioxide removal device.

6. The artificial intelligence adaptive temperature and humidity control system for agricultural products according to claim 5, characterized in that, An intelligent display and control screen is installed on one side of the outer wall of the culture chamber shell. The intelligent display and control screen is located on the side away from the isolation plate. Environmental monitoring sensors are installed at the four corners of the inside of the culture chamber shell. Culture container supports are installed on both sides of the airflow gathering pipe inside the chamber and on the front and rear inner walls of the culture chamber shell.

7. The artificial intelligence adaptive temperature and humidity control system for agricultural products according to claim 6, characterized in that, The electrical control box is connected to the temperature regulating fan, atomizing sprayer, variable frequency temperature control equipment outdoor unit, internal circulating water curtain device, external circulating water curtain device, intelligent airflow regulating valve, intelligent display control screen, environmental monitoring sensor, large axial flow fan and small axial flow fan through cables. The electrical control box is equipped with a central control module.

8. The artificial intelligence adaptive temperature and humidity control system for agricultural products according to claim 1, characterized in that, The temperature regulating fan is connected to the outdoor unit of the frequency conversion temperature control equipment through the air duct. The carbon dioxide removal device is connected to the air purification duct and the external circulating water curtain device. The carbon dioxide removal device is equipped with a regenerable adsorption filter.

9. The artificial intelligence adaptive temperature and humidity control system for agricultural products according to claim 1, characterized in that, The air purification duct includes a primary purification structure, a secondary purification structure, and a tertiary purification structure. The primary purification structure is a pre-filter, the secondary purification structure is an activated carbon adsorption layer, and the tertiary purification structure is a high-efficiency filter.

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