Intelligent integrated trichoderma fermentation equipment capable of realizing continuous fermentation

Abstract

The utility model particularly relates to intelligent integrated trichoderma fermentation equipment capable of realizing continuous fermentation, and belongs to the technical field of fermentation equipment. The intelligent integrated trichoderma fermentation equipment capable of realizing continuous fermentation comprises a tank body, a storage chamber, a liquid suction chamber, a liquid return component and a medium box. A discharge port is formed in the bottom of the tank body, and a liquid inlet component is arranged at the top of the tank body and used for inputting a medium into the tank body. The storage chamber is arranged below the tank body, the discharge port is communicated with the storage chamber, the liquid suction chamber is communicated with the storage chamber, a first valve is arranged on a channel where the liquid suction chamber is communicated with the storage chamber, and the bottom wall of the storage chamber is higher than that of the liquid suction chamber. The liquid return component is communicated with the liquid suction chamber and the liquid inlet component and arranged above the liquid suction chamber. The medium box is communicated with the liquid inlet component. The device has the advantage of high integration level.

Description

Technical Field

[0001] This utility model belongs to the field of fermentation equipment technology, specifically relating to an intelligent integrated Trichoderma fermentation equipment that can achieve continuous fermentation. Background Technology

[0002] The fermentation process of Trichoderma includes sterilization, inoculation, fermentation, and product extraction. The fermentation equipment mainly consists of fermenters. To ensure suitable fermentation conditions, the fermenters also require auxiliary devices such as refrigeration and heating systems, sterilization systems, and humidification systems. Due to the large number of devices, conventional fermentation equipment often suffers from poor integration. This results in a large overall equipment size, and the need to repeat the entire process for each batch of fermentation leads to low production efficiency. Utility Model Content

[0003] The purpose of this invention is to provide an intelligent integrated Trichoderma fermentation device that can achieve continuous fermentation. This fermenter has the advantage of high integration.

[0004] To achieve the aforementioned objectives, the technical solution adopted by this utility model is as follows: This application provides an intelligent integrated Trichoderma fermentation device capable of continuous fermentation, comprising a tank, a storage chamber, a liquid absorption chamber, a liquid return component, and a media tank. A discharge port is provided at the bottom of the tank, and a liquid inlet component is provided at the top of the tank for introducing the medium into the tank. The storage chamber is located below the tank, and the discharge port communicates with the storage chamber. The liquid absorption chamber is also connected to the storage chamber, and a first valve is provided in the channel connecting the liquid absorption chamber and the storage chamber. The bottom wall of the storage chamber is higher than the bottom wall of the liquid absorption chamber. The liquid return component connects the liquid absorption chamber and the liquid inlet component, and is located above the liquid absorption chamber. The media tank is connected to the liquid inlet component.

[0005] In some embodiments, a sterilization component is also included, which is in communication with the tank body, and a second valve is provided in the channel through which the sterilization component communicates with the tank body.

[0006] In some embodiments, a sterile air assembly is also included, which is in communication with the tank, and the passage through which the sterile air assembly communicates with the tank is provided with a third valve.

[0007] In some embodiments, the sterile air assembly is in communication with the bottom of the tank.

[0008] In some embodiments, the sterile air assembly includes a sterile air component, a humidification component, and a cooling / heating component, wherein the sterile air output from the sterile air component is fed into the tank after passing through the humidification component and the cooling / heating component.

[0009] In some embodiments, a backflushing component is also included, which is connected to the bottom of the tank, and a fourth valve is provided in the channel through which the backflushing component connects to the tank.

[0010] In some embodiments, the top of the tank is provided with a discharge channel and a drain trough, the discharge channel is connected to the drain trough, and the discharge channel is provided with a fifth valve.

[0011] In some embodiments, the storage chamber and the suction chamber are connected through a first three-way channel, which includes three branch channels. The storage chamber and the suction chamber are respectively connected to two of the branch channels, and the backflushing component is connected to the other branch channel.

[0012] In some embodiments, the media tank is positioned above the suction chamber.

[0013] In some embodiments, the liquid inlet component includes a distribution plate and an overflow trough. The distribution plate is housed within a tank and has multiple distribution holes. The overflow trough has an overflow port, and the tank has an overflow channel connecting the overflow port and the tank to allow the medium discharged from the overflow port to be conveyed to the top of the distribution plate. The overflow channel is equipped with a sixth valve, and a return component is connected to the overflow trough.

[0014] This utility model has the following beneficial effects:

[0015] 1. By placing the storage chamber below the tank body, several advantages are achieved. First, the discharged medium from the tank can fall into the storage chamber under gravity. Second, the storage chamber can be designed as a flat, low-profile structure, allowing multiple tanks to communicate with it simultaneously. This reduces the space occupied by the storage chamber while maximizing its lateral dimensions to ensure sufficient storage capacity. Furthermore, it increases the integration between the tank body and the storage chamber.

[0016] 2. The liquid return component is located above the liquid absorption chamber, allowing the chamber to be designed as a flat, low-profile structure. This reduces the space occupied by the chamber while maximizing its lateral dimensions to ensure sufficient storage capacity. Furthermore, the liquid return component and other components required for fermentation can be located above the liquid absorption chamber, increasing the overall integration of the device.

[0017] 3. In addition to its high integration, this device also features continuous fermentation capabilities. There is no possibility of contamination throughout the entire fermentation and product collection process, effectively preserving some of the Trichoderma-producing bacteria in the fermenter. For different batches of fermentation, only the nutrient solution needs to be prepared in advance; the entire process does not need to be repeated for each batch, thus improving production efficiency. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the structure of the intelligent integrated Trichoderma fermentation equipment (showing the tank) of this utility model that can realize continuous fermentation;

[0019] Figure 2This is a partial structural diagram of the top of the tank body of this utility model;

[0020] Figure 3 for Figure 1 Enlarged view of point A;

[0021] Figure 4 This is a schematic diagram of the structure of the intelligent integrated Trichoderma fermentation equipment (showing the sterile air component) of this utility model that can realize continuous fermentation;

[0022] Figure 5 This is a schematic diagram of the structure of the intelligent integrated Trichoderma fermentation equipment of this utility model that can realize continuous fermentation (showing the storage chamber and the liquid absorption chamber).

[0023] Reference numerals: 1-Tank, 2-Carrier, 3-Storage chamber, 4-Liquid inlet component, 5-Drainage trough, 6-Temperature sensor, 7-Humidity sensor, 8-Oxygen sensor, 9-CO2 sensor, 10-Pressure sensor, 11-Control component, 12-Overflow trough, 13-Sixth valve, 14-Equalizing plate, 15-Discharge channel, 16-Fifth valve, 17-First three-way channel, 18-Second valve, 19-Third valve, 20-Liquid suction chamber, 21-Liquid level sensor, 22-Sterile air component, 23-Humidification component, 24-Refrigeration and heating component, 25-Liquid return component, 26-Backflushing component, 27-Spore liquid storage chamber, 28-Media tank, 29-Second three-way channel, 30-Fourth valve, 31-First valve. Detailed Implementation

[0024] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Unless otherwise specified, the technical means used in the embodiments are conventional means well known to those skilled in the art.

[0025] In the description of this utility model, it should be understood that the terms "longitudinal", "lateral", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this utility model 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 this utility model.

[0026] This application provides an intelligent integrated Trichoderma fermentation device capable of continuous fermentation, including a tank 1, a storage chamber 3, a liquid absorption chamber 20, a liquid return component 25, and a media tank 28. The tank 1 has a discharge port at its bottom and a liquid inlet component 4 at its top, used to input the medium into the tank 1. The storage chamber 3 is located below the tank 1, and the discharge port communicates with it. The liquid absorption chamber 20 is also connected to the storage chamber 3, and a first valve 31 is installed in the channel connecting the two chambers. The bottom wall of the storage chamber 3 is higher than the bottom wall of the liquid absorption chamber 20. The liquid return component 25 connects the liquid absorption chamber 20 and the liquid inlet component 4, and is located above the liquid absorption chamber 20. The media tank 28 is connected to the liquid inlet component 4.

[0027] The container 1 contains the carrier 2.

[0028] The outlet at the bottom of the tank 1 is used to discharge the medium in the tank 1. The outlet can be multiple through holes set in the bottom wall of the tank 1 so that the medium can be discharged from the outlet and the carrier 2 will not leak out of the tank 1.

[0029] Storage chamber 3 is used to store the medium discharged from tank 1.

[0030] The suction chamber 20 and the storage chamber 3 are connected, allowing the medium in the storage chamber 3 to enter the suction chamber 20. The first valve 31 is used to connect or disconnect the suction chamber 20 and the storage chamber 3.

[0031] The medium tank 28 is used to input the medium into the tank 1 through the liquid inlet component 4. The medium tank 28 may include a nutrient solution inlet and a microbial inlet. The nutrient solution is input into the medium tank 28 through the nutrient solution inlet, and the microbial inlet is input into the medium tank 28 through the microbial inlet. The nutrient solution and microbial inlet are then input into the tank 1 through the medium tank 28, so that fermentation can take place in the tank 1.

[0032] Multiple tanks 1 can be configured, arranged side by side, with the storage chamber 3 positioned below them. This allows the medium discharged from the tanks 1 to fall into the storage chamber 3 under gravity. Furthermore, it allows the storage chamber 3 to be designed as a flat, low-profile structure, enabling multiple tanks 1 to communicate with it simultaneously while minimizing the space occupied by the storage chamber 3. This also allows the storage chamber 3 to have a larger lateral dimension to ensure sufficient storage capacity. Additionally, this increases the integration between the tanks 1 and the storage chamber 3.

[0033] The liquid return component 25 is positioned above the liquid absorption chamber 20, allowing the liquid absorption chamber 20 to be designed as a flat, low-profile structure. This reduces the space occupied by the liquid absorption chamber 20 while maximizing its lateral dimensions to ensure sufficient storage capacity. Furthermore, the liquid return component 25 and other components required for fermentation can be positioned above the liquid absorption chamber 20, increasing the overall integration of the device.

[0034] The return liquid component 25 may include a circulation pump, the inlet of which is connected to the suction chamber 20, and the outlet of which is connected to the inlet component 4.

[0035] In this embodiment, the bottom wall of the suction chamber 20 can be inclined, and the connection between the circulation pump and the suction chamber 20 can be located on the lower side of the suction chamber 20, so that the circulation pump can fully extract the medium from the suction chamber 20.

[0036] The bottom wall of the storage chamber 3 is higher than the bottom wall of the suction chamber 20, so that the medium in the storage chamber 3 can be fully discharged into the suction chamber 20.

[0037] In some embodiments, a sterilization component is also included, which is connected to the tank 1, and a second valve 18 is provided in the channel through which the sterilization component is connected to the tank 1.

[0038] The sterilization component is used to introduce sterilization medium into the tank 1 to sterilize the inside of the tank 1 before fermentation. The second valve 18 is used to connect or disconnect the sterilization component and the tank 1.

[0039] The sterilization component can be selected from existing equipment. For example, the sterilization component can be a steam generating device that generates steam which is then introduced into tank 1 to sterilize it. The structure and working principle of the steam generating device are well known to those skilled in the art and will not be described in detail here.

[0040] In some embodiments, a sterile air assembly is also included, which is connected to the tank 1, and the channel through which the sterile air assembly is connected to the tank 1 is provided with a third valve 19.

[0041] The sterile air component is used to generate sterile air, which is then introduced into tank 1 to ensure the normal metabolism and product synthesis of microorganisms, thus guaranteeing the normal progress of the fermentation process.

[0042] The third valve 19 is used to connect or disconnect the sterile air assembly and the tank 1.

[0043] Tank 1 may be provided with a second three-way channel 29, which includes three branch channels. The sterilization component and the sterile air assembly are respectively connected to two of the branch channels, and the third branch channel is connected to tank 1. The second valve 18 and the third valve 19 may be installed on the corresponding branch channels. Using a three-way channel reduces the number of channels required, increases the integration of the device, and facilitates centralized control.

[0044] In some embodiments, the sterile air assembly is in communication with the bottom of the tank 1.

[0045] The sterile air assembly is connected to the bottom of the tank 1. When the liquid inlet component 4 inputs the medium into the tank 1, the sterile air assembly inputs sterile air into the tank 1, which can disturb the carrier 2 and ensure the flow of the medium and the air in the tank 1.

[0046] In some embodiments, the sterile air assembly includes a sterile air component 22, a humidification component 23, and a cooling / heating component 24. The sterile air output from the sterile air component 22 is fed into the tank 1 after passing through the humidification component 23 and the cooling / heating component 24.

[0047] The sterile air component 22 is used to generate sterile air. The sterile air component 22 can be selected from existing equipment, and its structure and working principle are well known to those skilled in the art and will not be described in detail here. For example, the sterile air component 22 can be an existing air filtration device for fermenters.

[0048] The humidifying component 23 is used to adjust the humidity of the sterile air. The sterile air component 22 can be selected from existing equipment, and its structure and working principle are well known to those skilled in the art and will not be described in detail here. For example, the humidifying component 23 can be a humidifier.

[0049] The cooling and heating component 24 is used to adjust the temperature of sterile air. The cooling and heating component 24 can be selected from existing equipment, and its structure and working principle are well known to those skilled in the art and will not be described in detail here. For example, the cooling and heating component 24 can be an air cooling and heating device.

[0050] The order in which sterile air passes through the humidification unit 23 and the cooling / heating unit 24 can be set as needed.

[0051] By utilizing the aseptic flow within tank 1, the fermentation temperature, humidity, and oxygen concentration can be controlled, thereby increasing the overall control effect on the space within tank 1.

[0052] In some embodiments, a backflushing component 26 is also included, which is connected to the bottom of the tank 1, and a fourth valve 30 is provided in the channel through which the backflushing component 26 communicates with the tank 1.

[0053] The backflushing component 26 is used to introduce the medium into the tank 1. The water flow washes the spores from bottom to top in the tank 1, so that the spore liquid can be discharged from the top of the tank 1.

[0054] In some embodiments, the top of the tank body 1 is provided with a discharge channel 15 and a drain trough 5, the discharge channel 15 is connected to the drain trough 5, and the discharge channel 15 is provided with a fifth valve 16.

[0055] The fifth valve 16 is used to control the opening and closing of the discharge channel 15.

[0056] Under the action of the backflushing component 26, the spore liquid can overflow from the drain tank 5 into the drain tank 5.

[0057] This embodiment may also include a spore liquid storage chamber 27, with the drain tank 5 connected to the spore liquid storage chamber 27 so that the spore liquid can enter the spore liquid storage chamber 27. The spore liquid storage chamber 27 may be equipped with a water pump to facilitate the pumping of the spore liquid in the drain tank 5 into the spore liquid storage chamber 27.

[0058] In some embodiments, the storage chamber 3 and the suction chamber 20 are connected through a first three-way channel 17, which includes three branch channels. The storage chamber 3 and the suction chamber 20 are respectively connected to two of the branch channels, and the backflush component 26 is connected to the other branch channel.

[0059] In this embodiment, the first valve 31 is disposed on a branch channel communicating with the liquid suction chamber 20, and the fourth valve 30 is disposed on a branch channel communicating with the backflushing component 26.

[0060] The advantage of this setup is that the flow direction of the medium output by the backflushing component 26 can be controlled by adjusting the corresponding switches. For example, closing the first valve 31 and opening the fourth valve 30 allows the medium output by the backflushing component 26 to enter the storage chamber 3 and then the tank 1. Opening the first valve 31 allows the medium output by the backflushing component 26 to simultaneously enter both the storage chamber 3 and the suction chamber 20. This allows the backflushing component 26 to both discharge the spore liquid from the tank 1 and clean the storage chamber 3 and the suction chamber 20.

[0061] The backflush component 26 may include a backflush pump, the inlet of which is connected to a medium source, and the outlet of which is connected to a fourth valve 30 and a first three-way passage 17.

[0062] The corresponding suction chamber 20 can be equipped with a drain valve to discharge the wastewater from the suction chamber 20.

[0063] In some embodiments, the media tank 28 is disposed above the suction chamber 20.

[0064] By placing the media tank 28 above the liquid suction chamber 20, the media tank 28 can be designed as a flat and low structure, which reduces the space occupied by the media tank 28 while allowing the horizontal dimension of the media tank 28 to be set as large as possible to ensure storage capacity.

[0065] In this embodiment, the sterile air component 22, the humidification component 23, the cooling and heating component 24, and the backflushing component 26 can be respectively disposed between the medium tank 28 and the liquid absorption chamber 20, making the overall structure more compact and improving the integration of the device.

[0066] This device may also include a frame, which may be configured in multiple layers to facilitate the installation of different components on different layers.

[0067] In some embodiments, the liquid inlet component 4 includes a distribution plate 14 and an overflow trough 12. The distribution plate 14 is housed within the tank body 1 and has a plurality of distribution holes. The overflow trough 12 has an overflow port, and the tank body 1 has an overflow channel that connects the overflow port and the tank body 1 so that the medium discharged from the overflow port can be transported to the top of the distribution plate 14. The overflow channel is equipped with a sixth valve 13, and a return component is connected to the overflow trough 12.

[0068] The dividing plate 14 divides the interior of the tank 1 into two parts, with the carrier 2 located at the bottom.

[0069] The outlet of the medium tank 28 is connected to the overflow tank 12, so that the medium in the medium tank 28 can enter the overflow tank 12.

[0070] In embodiments where the reflux component includes a circulation pump, the outlet of the circulation pump is connected to the overflow trough 12.

[0071] The sixth valve 13 is used to control the opening and closing of the overflow channel.

[0072] The medium is conveyed to the top of the equalization plate 14, so that the equalization plate 14 can evenly distribute the medium to the carrier 2.

[0073] The distribution hole can be frustoconical, with the larger end at the top and the smaller end at the bottom. This slows down the downward flow of the medium, thus ensuring that the medium can cover the upper surface of the distribution plate 14. The drainage channel can be located below the distribution plate 14. The frustoconical structure of the distribution hole can, to some extent, prevent the spore liquid from flowing above the distribution plate 14 during backwashing.

[0074] The tank 1 in this embodiment can be used for fermenting Trichoderma, and the specific workflow is as follows:

[0075] 1. Close the first valve 31, the third valve 19, the fourth valve 30, the fifth valve 16 and the sixth valve 13, open the second valve 18, and use the sterilization components to sterilize the inside of the tank 1. The tank 1 may be equipped with an exhaust valve, which releases steam and excess pressure when the pressure inside the tank 1 reaches the threshold.

[0076] 2. Inoculation: Add sterile nutrient solution and Trichoderma seed solution to the medium tank 28, open the first valve 31 and the sixth valve 13, and the nutrient solution and seed solution enter the overflow tank 12, flow through the overflow tank 12 to the equalization plate 14, and then flow through the equalization plate 14 to the carrier 2. Finally, the nutrient solution and seed solution enter the storage chamber 3 from the bottom of the tank 1, and then enter the suction chamber 20. Open the reflux component so that the nutrient solution and seed solution can flow back into the tank 1.

[0077] 3. After inoculation, close the second valve 18 and open the third valve 19. Based on the environmental conditions inside the tank 1, adjust the temperature, humidity, and oxygen consumption within the tank 1 using the sterile air component 22, humidification component 23, and cooling / heating component 24. For example, when only the temperature is too high or too low, the cooling / heating equipment starts to cool the sterile air, and the humidification component 23 does not operate, only allowing sterile air to pass through. When only the humidity is too high or too low, the cooling / heating component 24 does not operate, only allowing sterile air to pass through, and the humidification component 23 starts to adjust the air humidity.

[0078] 4. After fermentation is complete, open the fourth valve 30 and the fifth valve 16, and close the first valve 31, the second valve 18, the third valve 19 and the sixth valve 13, and discharge the spore liquid through the backflushing component 26.

[0079] 5. After backflushing is complete, open the first valve 31. The medium in tank 1 enters storage chamber 3, and finally enters suction chamber 20. The wastewater is discharged through the drain valve of suction chamber 20. Open the sixth valve 13 to restart the fermentation process.

[0080] In addition to its high level of integration, this device also features continuous fermentation capabilities. There is no possibility of contamination throughout the entire fermentation and product collection process, effectively preserving some of the Trichoderma-producing microorganisms in the fermenter. For different batches of fermentation, only the nutrient solution needs to be prepared in advance.

[0081] The tank 1 may be equipped with a temperature sensor 6, a humidity sensor 7, an oxygen sensor 8, a CO2 sensor 9, and a pressure sensor 10. The temperature sensor 6, humidity sensor 7, oxygen sensor 8, CO2 sensor 9, and pressure sensor 10 are electrically connected to the control component 11. The temperature sensor 6, humidity sensor 7, oxygen sensor 8, CO2 sensor 9, and pressure sensor 10 are used to detect the conditions inside the tank 1, so that the environment inside the tank 1 can be adjusted by the sterile air component 22, the humidification component 23, and the cooling and heating component 24.

[0082] The suction chamber 20 may also be equipped with a liquid level sensor 21, which is electrically connected to the control component 11 and is used to determine the liquid level in the suction chamber 20.

[0083] All valves in this embodiment can be electrically controlled valves, which are electrically connected to the control component 11. The control component 11 controls the operation of each valve. The sterile air component 22, humidification component 23, and cooling / heating component 24 can also be electrically connected to the control component 11, and the control component 11 controls the operation of the sterile air component 22, humidification component 23, and cooling / heating component 24. This allows for automatic control of the fermentation process, making the fermentation process more intelligent.

[0084] The specific principles, connection circuits, and programming codes of the control unit 11 for controlling all valves, sensors, sterile air unit 22, humidification unit 23, and cooling / heating unit 24 are well known to those skilled in the art and will not be elaborated here.

[0085] It should be noted that the other auxiliary equipment of the entire fermentation system is well known to those skilled in the art, and the technical solution of this application does not improve this part, so it will not be described in detail.

[0086] The above embodiments are merely preferred embodiments of the present utility model and are not intended to limit the scope of the present utility model. Any modifications, alterations, alterations, or substitutions made by those skilled in the art to the technical solutions of the present utility model without departing from the spirit of the present utility model shall fall within the protection scope defined by the claims of the present utility model.

Claims

1. A smart integrated Trichoderma fermentation device capable of continuous fermentation, characterized in that, include: Tank (1), the bottom of the tank (1) is provided with a discharge port, and the top of the tank (1) is provided with a liquid inlet component (4), the liquid inlet component (4) is used to input a medium into the tank (1); A storage chamber (3) is located below the tank body (1), and the outlet is connected to the storage chamber (3); A suction chamber (20) is connected to the storage chamber (3). A first valve (31) is provided in the channel connecting the suction chamber (20) and the storage chamber (3). The bottom wall of the storage chamber (3) is higher than the bottom wall of the suction chamber (20). A return liquid component (25) connects the suction chamber (20) and the inlet liquid component (4), and the return liquid component (25) is disposed above the suction chamber (20); The medium tank (28) is connected to the liquid inlet component (4). 2.The intelligent integrated Trichoderma fermentation device capable of realizing continuous fermentation according to claim 1, wherein, It also includes a sterilization component, which is connected to the tank (1), and the channel through which the sterilization component is connected to the tank (1) is provided with a second valve (18). 3.The intelligent integrated Trichoderma fermentation device capable of realizing continuous fermentation according to claim 1, characterized in that, It also includes a sterile air assembly, which is connected to the tank (1), and the channel through which the sterile air assembly is connected to the tank (1) is provided with a third valve (19). 4.The intelligent integrated Trichoderma fermentation device capable of realizing continuous fermentation according to claim 3, characterized in that, The sterile air assembly is connected to the bottom of the tank (1).

5. The intelligent integrated Trichoderma fermentation equipment capable of continuous fermentation according to claim 3, characterized in that, The sterile air assembly includes a sterile air component (22), a humidification component (23), and a cooling and heating component (24). The sterile air output by the sterile air component (22) is fed into the tank (1) after passing through the humidification component (23) and the cooling and heating component (24). 6.The intelligent integrated Trichoderma fermentation device capable of realizing continuous fermentation according to claim 1, wherein, It also includes a backflushing component (26), which is connected to the bottom of the tank (1), and a fourth valve (30) is provided in the channel through which the backflushing component (26) connects to the tank (1).

7. The intelligent integrated Trichoderma fermentation device capable of realizing continuous fermentation according to claim 6, characterized in that, The top of the tank (1) is provided with a discharge channel (15) and a drain trough (5), the discharge channel (15) is connected to the drain trough (5), and the discharge channel (15) is provided with a fifth valve (16). 8.The intelligent integrated Trichoderma fermentation device capable of realizing continuous fermentation according to claim 6, characterized in that, The storage chamber (3) and the suction chamber (20) are connected by a first three-way channel (17), which includes three branch channels. The storage chamber (3) and the suction chamber (20) are respectively connected to two of the branch channels, and the backflush component (26) is connected to the other branch channel. 9.The intelligent integrated Trichoderma fermentation device capable of realizing continuous fermentation according to claim 1, characterized in that, The media tank (28) is positioned above the liquid absorption chamber (20). 10.The intelligent integrated Trichoderma fermentation device capable of realizing continuous fermentation according to claim 1, wherein, The liquid inlet component (4) includes: A dividing plate (14) is housed inside the tank (1), and the dividing plate (14) is provided with a plurality of dividing holes; An overflow tank (12) is provided with an overflow port. The tank body (1) is provided with an overflow channel. The overflow channel connects the overflow port and the tank body (1) so that the medium discharged from the overflow port can be transported to the top of the equalization plate (14). The overflow channel is provided with a sixth valve (13). The return liquid component is connected to the overflow tank (12).

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