Intelligent integrated mushroom cultivation ecological cabin

Abstract

The present application relates to mushroom cultivation equipment technical field, especially to a kind of intelligent integrated mushroom cultivation ecological cabin, including cabin, rack and support plate etc.;Several racks are arranged in cabin;Several support plates are fixed on each rack. The present application realizes when the moisture of the detection fungus stick is needed, humidity detection meter is inserted into the through slot of bottom plate, so that the humidity detection meter with sharp cone extrudes the valve in through slot, and then pierces plastic film and inserts into fungus stick inside, so that the moisture in fungus stick can be detected, to know whether it needs to be watered, and when humidity detection meter exits shell, the valve reseals the through slot of bottom plate, effectively avoids fungus stick from the through slot of bottom plate and grows, to ensure that mushroom maturity tends to be consistent, while avoiding excessive consumption of nutrients due to multiple fungus stick growth, leading to poor appearance of mushroom.

Description

Technical Field

[0001] This invention relates to the field of mushroom cultivation equipment technology, and in particular to an intelligent integrated mushroom cultivation ecological cabin. Background Technology

[0002] Currently, mushroom cultivation typically uses substrate spawn, which consists of a substrate mixed with spawn and a plastic film covering the substrate. During cultivation, the moisture content of the substrate and the ambient humidity significantly impact mycelial growth and fruiting body development, directly affecting mushroom quality and yield. In existing technologies, during large-scale, batch cultivation of mushrooms, substrate spawn is densely placed on a mesh rack, resulting in uneven moisture distribution at different locations within the container. This leads to variations in moisture content and ambient humidity across different layers, making it impossible to accurately determine the actual moisture and humidity required by the mushrooms. Consequently, mushroom quality and yield cannot be guaranteed. Moisture testing of the substrate involves manual random sampling, but this process is labor-intensive and resource-intensive. Furthermore, each moisture test requires puncturing the plastic film with a hygrometer, which can cause mushrooms to emerge from the same spot, leading to inconsistent maturity. Additionally, multiple mushroom emergence points consume excessive nutrients, resulting in poor mushroom appearance. Summary of the Invention

[0003] To overcome the shortcomings of existing methods that require manual sampling and testing to monitor the moisture content of mushroom substrate, which consumes a lot of manpower and resources, and require puncturing the plastic film of the hygrometer and inserting it into the substrate each time the moisture content is tested, making it easy for mushrooms to sprout from that point, resulting in inconsistent maturity and poor appearance of the mushrooms, this invention provides an intelligent integrated mushroom cultivation ecological cabin.

[0004] The technical implementation scheme of the present invention is as follows: an intelligent integrated mushroom cultivation ecological chamber, comprising a chamber body, a frame, and support plates; several frames are arranged inside the chamber; several support plates are fixedly connected to each frame; it also includes a shell, a sliding plate, a connecting ring, a rotating plate, a fixing plate, a handle, a bottom plate, and a detection component; two water sprayers are fixedly connected to each support plate, and the water sprayers are connected to an external water supply pipe; several shells are fixedly connected to each side of each support plate, and an arc-shaped plate is provided on the shell, with several micro-holes on the arc-shaped plate; two sliding plates are slidably connected to each shell; two sliding plates on the same shell are jointly fixedly connected to a connecting ring; a rotating plate is rotatably connected to each connecting ring, and a mushroom outlet is provided on the rotating plate; a fixing plate is slidably connected to each rotating plate; a handle is fixedly connected to each fixing plate, and the end of the fixing plate is sharp; two sliding plates on each shell are jointly fixedly connected to a bottom plate, and a through groove is provided in the middle of the bottom plate, with a valve provided in the through groove; a detection component for detecting the internal moisture of the mushroom stick is connected to each frame.

[0005] Furthermore, the detection assembly includes a first slide rail, a first electric slider, a second slide rail, a second electric slider, a drive unit, and a humidity meter; the first slide rail is fixedly connected to the frame; the first electric slider is slidably connected to the first slide rail; the second slide rail is fixedly connected to the first electric slider; the second electric slider is slidably connected to the second slide rail; the second electric slider has two drive units fixedly connected to it via a connecting plate; each drive unit has a pointed cone-shaped humidity meter fixedly connected to its output end for detecting the humidity of the mushroom sticks, and an air humidity meter is installed at the base of the humidity meter.

[0006] Furthermore, a second cutting blade is fixed to the edge of the mushroom outlet.

[0007] Furthermore, several spikes are fixed to the edge of the mushroom opening away from the second cutting blade, and the spikes are curved toward the mushroom opening.

[0008] Furthermore, it also includes needles and push plates; each sliding plate is provided with several needles, and all the needles on the same sliding plate are fixed to the push plate.

[0009] Furthermore, each support plate is fixed with two drain pipes, and the shells on the same support plate are all connected to the corresponding drain pipes. All drain pipes are connected to the external suction and collection pipes.

[0010] Furthermore, the edge of the base plate is tightly fitted to the inside of the shell.

[0011] Furthermore, a sponge is installed at the connection point between the drain pipe and the casing.

[0012] Furthermore, the cabin is equipped with a ventilation and filtration system.

[0013] Furthermore, it also includes elastic fabric; the rotating plate and the handle are both fixed with elastic fabric.

[0014] The present invention has the following advantages: When it is necessary to detect the moisture content of the mushroom log, the humidity meter is inserted into the groove of the bottom plate. The pointed humidity meter pushes open the valve in the groove, pierces the plastic film, and inserts into the inside of the mushroom log, thereby detecting the moisture content inside the mushroom log to determine whether it needs to be replenished. When the humidity meter is removed from the shell, the valve re-seals the groove of the bottom plate, effectively preventing the mushroom log from growing mushrooms from the groove of the bottom plate, ensuring that the maturity of the mushrooms tends to be uniform, and avoiding excessive consumption of nutrients due to mushrooms growing in multiple places on the mushroom log, which would result in poor appearance of the mushrooms. The humidity detector is moved by the first slide rail, the first electric slider, the second slide rail and the second electric slider to randomly sample and test the moisture inside each layer of mushroom sticks and the humidity of the ambient air. Combined with the atomizing nozzle of the sprinkler, precise water replenishment is achieved in layers, avoiding the tedious operation of frequent manual testing. At the same time, the microporous design of the arc plate maintains the air and water permeability of the mushroom sticks, and the drainage pipe can drain yellow water in time, effectively preventing the substrate from becoming too wet or contaminated. When harvesting mushrooms, the second cutting blade is used to quickly cut off the stem, and the remaining mushroom roots are removed by a rotating sieve with spikes, avoiding the traditional secondary root trimming process. In addition, the mushroom log is pierced by needles to ensure the permeability of the deep substrate. When the second cutting blade cuts the mushroom stem, the mushroom log is fixed by needles to prevent the mushroom log from rotating with the rotating plate under the action of friction, which would prevent the mushroom stem from being cut off by the second cutting blade. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the three-dimensional structure of the intelligent integrated mushroom cultivation ecological cabin of the present invention. Figure 2 This is a cross-sectional view of the cabin of the present invention; Figure 3 This is a three-dimensional structural diagram of the frame, support plate, and housing assembly of the present invention; Figure 4 This is a three-dimensional structural diagram of the detection component of the present invention; Figure 5 This is a cross-sectional view of the housing of the present invention; Figure 6 An exploded view of the housing, sliding plate, connecting ring, rotating plate, fixing piece, handle and base plate assembly of the present invention; Figure 7 This is a three-dimensional structural diagram of the combination of the connecting ring, rotating plate, fixing piece, needle and push plate of the present invention. Figure 8 This is a state diagram of the sliding plate in operation according to the present invention.

[0016] The meanings of the reference numerals in the attached diagram are as follows: 1-cabin body, 2-frame, 3-support plate, 3001-sprinkler, 3002-drain pipe, 4-shell, 4001-arc plate, 5-sliding plate, 5001-first cutting blade, 6-connecting ring, 7-rotating plate, 7001-mushroom outlet, 7002-second cutting blade, 7003-spiky, 8-fixing plate, 9-handle, 10-base plate, 101-first slide rail, 102-first electric slider, 103-second slide rail, 104-second electric slider, 105-driving component, 106-humidity meter, 201-needle, 202-push plate, 301-elastic cloth. Detailed Implementation

[0017] References to embodiments herein mean that a particular feature, structure, or characteristic described in connection with an embodiment may be included in at least one embodiment of the invention. The appearance of this phrase in various places throughout the specification does not necessarily refer to the same embodiment, nor is it a separate or alternative embodiment mutually exclusive with other embodiments. It will be explicitly and implicitly understood by those skilled in the art that the embodiments described herein can be combined with other embodiments.

[0018] Example 1: An intelligent integrated mushroom cultivation ecological cabin, such as Figures 1-8 As shown, it includes a cabin 1, a frame 2, and support plates 3; two frames 2 are installed inside the cabin 1; five support plates 3 are fixed to each frame 2; It also includes a housing 4, a sliding plate 5, a connecting ring 6, a rotating plate 7, a fixing plate 8, a handle 9, a base plate 10, and a detection assembly; two water spray cylinders 3001 are fixedly connected to the lower side of each support plate 3, and several atomizing nozzles are provided on the water spray cylinders 3001, which are connected to an external water supply pipe; several housings 4 are fixedly connected to the left and right sides of each support plate 3, and an arc-shaped plate 4001 is provided on the upper side of the housing 4, with several micro-holes opened on the arc-shaped plate 4001; two sliding plates 5 are slidably connected to each housing 4; located in the same housing Two sliding plates 5 on each housing 4 are fixedly connected to a connecting ring 6; a rotating plate 7 is rotatably connected to each connecting ring 6, and a mushroom outlet 7001 is provided on the rotating plate 7; a fixing piece 8 is slidably connected to each rotating plate 7; a handle 9 is fixedly connected to each fixing piece 8, and the end of the fixing piece 8 is sharp and has a protrusion; two sliding plates 5 on each housing 4 are fixedly connected to a base plate 10, and a through groove is provided in the middle of the base plate 10, and a valve is provided in the through groove; a detection component is connected to each frame 2.

[0019] The detection assembly includes a first slide rail 101, a first electric slider 102, a second slide rail 103, a second electric slider 104, a drive unit 105, and a humidity meter 106. The first slide rail 101 is fixedly connected to the frame 2. The first electric slider 102 is slidably connected to the first slide rail 101. The second slide rail 103 is fixedly connected to the first electric slider 102. The second electric slider 104 is slidably connected to the second slide rail 103. The second electric slider 104 is fixedly connected to two drive units 105 through a connecting plate. The drive units 105 are electric push rods. Each drive unit 105 has a pointed cone-shaped humidity meter 106 fixedly connected to its output end. An air hygrometer is provided at the base of the humidity meter 106.

[0020] A second cutting blade 7002 is fixedly attached to the edge of the mushroom outlet 7001.

[0021] Several spikes 7003 are fixed to the edge of the mushroom outlet 7001 away from the second cutting blade 7002, and the spikes 7003 are curved toward the mushroom outlet 7001.

[0022] It also includes needles 201 and push plates 202; each sliding plate 5 is provided with several needles 201, and all the needles 201 on the same sliding plate 5 are fixedly connected to the push plate 202.

[0023] Two drain pipes 3002 are fixedly connected to each support plate 3. The shells 4 located on the same support plate 3 are all connected to the corresponding drain pipes 3002. All drain pipes 3002 are connected to the external suction and collection pipes.

[0024] The edge of the base plate 10 is in close contact with the inner side of the shell 4.

[0025] A sponge is provided at the connection between the drain pipe 3002 and the housing 4 to prevent the substrate from entering the drain pipe 3002 and causing blockage.

[0026] The cabin 1 is equipped with a ventilation and filtration system, which efficiently filters and purifies the air entering the cabin 1, and adjusts the carbon dioxide concentration according to the needs of mushroom growth.

[0027] The workflow of the intelligent integrated mushroom cultivation ecological cabin of this invention is as follows: In use, each mushroom stick is manually placed into the shell 4. Then, the plastic film in the area where the mushroom stick aligns with the fruiting opening 7001 is cut open with a knife to expose the substrate, allowing the mushrooms to emerge from the fruiting opening 7001. During the mushroom growth process, the shell 4 maintains air and water permeability through the micropores on the arc-shaped plate 4001. To prevent low moisture content in the mushroom sticks, which could lead to slow mycelial growth and poor fruiting body development, the humidity sensor 106 is inserted into the groove of the base plate 10 by the control drive 105. The pointed humidity sensor 106 pushes open the valve in the groove, pierces the plastic film, and inserts into the mushroom stick to detect the moisture inside the mushroom stick and determine whether it needs to be watered. When the driving component 105 drives the humidity sensor 106 to reset and exit the housing 4, the valve re-seals the groove of the bottom plate 10, effectively preventing the mushroom stick from growing mushrooms from the groove of the bottom plate 10. This ensures that the mushrooms mature at a uniform rate and avoids excessive nutrient consumption due to multiple mushrooms growing on the mushroom stick, which would result in poor mushroom appearance.

[0028] Furthermore, due to the uneven distribution of moisture at different heights within the chamber 1, the humidity of the mushroom logs at different layers is inconsistent with the ambient air humidity. Therefore, the first electric slider 102 can be controlled to drive the second slide rail 103 and its connected components to move randomly on the first slide rail 101. This, in turn, causes the second electric slider 104, the drive unit 105, and the humidity meter 106 to move horizontally. The humidity meter 106 randomly samples the moisture content of the mushroom logs at the same layer, and the humidity meter at the base of the humidity meter 106 samples the ambient air humidity of the mushroom logs at that layer. This allows for the analysis of the moisture content of the mushroom logs and the ambient air humidity at the same layer. Humidity is monitored, and based on this, the second electric slider 104 is controlled to drive the drive component 105 and the humidity meter 106 to slide on the second slide rail 103, so that the humidity meter 106 is aligned with the mushroom sticks of different layers, thereby monitoring the moisture of the mushroom sticks of different layers and the ambient air humidity. Then, the atomizing nozzle of the watering pipe 3001 on the upper side of the corresponding layer is activated to spray water downwards, providing targeted watering for the mushroom sticks and the mushrooms on them. When the air humidity of the environment where the mushroom sticks are located is low, the atomizing nozzle sprays finer water droplets to increase the air humidity at that location, thus eliminating the need for manual moisture testing of the mushroom sticks and effectively saving manpower.

[0029] It should be noted that the steps for placing the mushroom sticks into the shell 4 are as follows: like Figure 8 As shown, by manually pulling the handle 9 away from the rotating plate 7, the fixing plate 8 slides on the rotating plate 7 until the protrusion on the fixing plate 8 abuts against the rotating plate 7. Then, by continuing to pull the handle 9, the connecting ring 6, rotating plate 7, and sliding plate 5 are moved away from the housing 4. The sliding plate 5 slides on the housing 4. Then, by manually placing a mushroom stick of the same size as the internal space of the housing 4 on the sliding plate 5, the mushroom stick is supported by the two sliding plates 5. Then, by pushing the handle 9 and its connected parts back to their original positions, the mushroom stick is moved into the housing 4. This achieves the insertion of the mushroom stick into the housing 4, and the housing 4 then holds the various... When placing the mushroom sticks separately, it is important to note that after the mushroom sticks enter the shell 4, continue pushing the handle 9 so that the sharp-ended fixing piece 8 penetrates into the mushroom stick. Then, twist the handle 9 and the fixing piece 8, which will cause the mushroom stick and the rotating plate 7 to rotate one revolution. During this process, the outer side of the mushroom stick continues to contact the first cutting blade 5001, thereby cutting the plastic film through the first cutting blade 5001. This allows the substrate inside the mushroom stick to permeate water and air through the micropores on the arc plate 4001. It is important to note that at this time, the shell 4 encloses the mushroom stick, so the mushroom stick cannot sprout mushrooms from the cut in the plastic film.

[0030] It is important to note that during the mushroom cultivation process, when the mycelium enters the physiological maturity stage, some mushroom logs will produce yellow sap. This sap is then pumped out through the drain pipe 3002 to remove it promptly, preventing it from accumulating inside the shell 4 and affecting the normal color change of the mushroom logs. This also prevents the yellow sap from falling onto lower-layer mushroom logs and infecting other logs. Compared to existing technologies that require puncturing the mushroom logs producing yellow sap and transferring them to a lower layer, this method effectively saves manpower. Furthermore, excess moisture inside the shell 4 is drained through the drain pipe 3002, preventing excessive humidity in the mushroom logs.

[0031] In the process of cultivating mushrooms, in order to ensure the air permeability of the deep substrate of the mushroom stick, it is necessary to pierce the mushroom stick. In this invention, the push plate 202 is pushed manually to make the needle 201 pierce into the mushroom stick. Then, the push plate 202 is pulled to detach the needle 201 from the mushroom stick. Then, the handle 9 and the fixing plate 8 are twisted to drive the mushroom stick and the rotating plate 7 to rotate 30 degrees. Then, the push plate 202 is pushed again to make the needle 201 pierce into the mushroom stick. The above steps are repeated multiple times to achieve uniform piercing of the mushroom stick.

[0032] When the mushroom cultivation is complete and harvesting is required, the handle 9 is pulled manually away from the rotating plate 7 to detach the fixing plate 8 from the mushroom stick. Then, the handle 9 and the fixing plate 8 are twisted to rotate the rotating plate 7, thereby cutting off the mushroom stem through the second cutting blade 7002. This allows for quick mushroom harvesting. Unlike existing methods where the mushroom root needs to be cut off after harvesting, this invention eliminates the need for root removal, effectively saving manpower. It should be noted that before harvesting the mushroom, the push plate 202 is pushed to insert the needle 201 into the mushroom stick, thus fixing the mushroom stick to the sliding plate 5. This prevents the mushroom stick from rotating with the rotating plate 7 due to friction, which would prevent the second cutting blade 7002 from cutting off the mushroom stem.

[0033] When the handle 9 is twisted to drive the rotating plate 7 to rotate and reset, the curved spikes 7003 facing the mushroom outlet 7001 gradually penetrate into the inside of the mushroom log. As the rotating plate 7 continues to rotate, the spikes 7003 gradually sift out the mushroom roots remaining in the mushroom log, thereby cleaning the mushroom roots remaining in the mushroom log so that the mushroom log can produce mushrooms again in the future. There is no need to manually remove the mushroom roots, which effectively saves manpower.

[0034] When it is necessary to replace the mushroom stick, the handle 9 is pulled manually to move the connecting ring 6, rotating plate 7, sliding plate 5 and bottom plate 10 away from the shell 4. The bottom plate 10 pushes the mushroom stick to move outside the shell 4, so as to facilitate the replacement of the mushroom stick. The bottom plate 10 scrapes the inner wall of the shell 4 to remove the substrate adhering to the inner wall of the shell 4.

[0035] Based on the above workflow, we can see that the present invention has the following effects: When it is necessary to test the moisture content of the mushroom logs, the humidity meter 106 is inserted into the groove of the base plate 10. The pointed humidity meter 106 pushes open the valve in the groove, pierces the plastic film, and inserts into the inside of the mushroom log, thereby detecting the moisture content inside the mushroom log to determine whether it needs to be replenished. When the humidity meter 106 is withdrawn from the shell 4, the valve re-seals the groove of the base plate 10, effectively preventing the mushroom logs from sprouting mushrooms from the groove of the base plate 10, ensuring that the mushrooms mature at a uniform rate, and avoiding excessive nutrient consumption due to multiple mushrooms sprouting from different parts of the mushroom log, which would result in poor mushroom appearance.

[0036] The humidity sensor 106 is moved by the first slide rail 101, the first electric slider 102, the second slide rail 103, and the second electric slider 104 to randomly sample and test the internal moisture of each layer of mushroom sticks and the ambient air humidity. Combined with the atomizing nozzle of the water sprayer 3001, precise water replenishment is achieved in layers, avoiding the tedious operation of frequent manual testing. At the same time, the microporous design of the arc plate 4001 maintains the air and water permeability of the mushroom sticks, and the drainage pipe 3002 promptly drains yellow water, effectively preventing the substrate from becoming too wet or contaminated.

[0037] During the harvesting stage, the second cutting blade 7002 is used to quickly cut the mushroom stem, and the spike 7003 is used to rotate and remove residual mushroom roots, avoiding the traditional secondary root trimming process. In addition, the mushroom stick is pierced by the needle 201 to ensure the air permeability of its deep substrate. When the second cutting blade 7002 cuts the mushroom stem, the mushroom stick is fixed by the needle 201 to prevent the mushroom stick from rotating with the rotating plate 7 under the action of friction, which would prevent the mushroom stem from being cut by the second cutting blade 7002.

[0038] The additional technical effects of this invention are as follows: Among them, such as Figure 5 As shown, a sponge is provided at the connection between the drain pipe 3002 and the housing 4. The sponge blocks the substrate, effectively preventing the substrate from entering the drain pipe 3002 and causing blockage.

[0039] Example 2: Based on Example 1, such as Figure 5 As shown, it also includes an elastic fabric 301; the rotating plate 7 and the handle 9 are together fixed to the elastic fabric 301.

[0040] The workflow of the above embodiments is as follows: Since multiple mushrooms emerge from the mushroom outlet 7001, when the rotating plate 7 is twisted and the second cutting blade 7002 cuts the mushroom stems, it is difficult for the operator to hold all the mushrooms. As a result, some mushrooms fall after their stems are cut off. When the handle 9 is pulled away from the rotating plate 7, the elastic cloth 301 is also stretched open, thereby wrapping and supporting the mushrooms through the elastic cloth 301 to prevent them from falling to the ground and being damaged or contaminated.

[0041] Although the present invention has been described in detail with reference to the above embodiments, it will be apparent to those skilled in the art that various changes or modifications can be made to the invention without departing from the principles and spirit of the invention as defined by the claims. Therefore, the detailed description of the embodiments in this disclosure is for illustrative purposes only and is not intended to limit the invention; rather, the scope of protection is defined by the content of the claims.

Claims

1. An intelligent integrated mushroom cultivation ecological chamber, comprising a chamber body (1), a frame (2), and support plates (3); a plurality of frames (2) are arranged inside the chamber body (1); a plurality of support plates (3) are fixedly connected to each frame (2); characterized in that: It also includes a housing (4), a sliding plate (5), a connecting ring (6), a rotating plate (7), a fixing plate (8), a handle (9), a base plate (10), and a detection component; two water sprayers (3001) are fixedly connected to each support plate (3), and the water sprayers (3001) are connected to an external water supply pipe; several housings (4) are fixedly connected to each side of each support plate (3), and an arc plate (4001) is provided on the housing (4), and several micro-holes are opened on the arc plate (4001); two sliding plates (5) are slidably connected to each housing (4); two sliding plates (5) located on the same housing (4) are fixedly connected to a connecting ring (6); a rotating plate (7) is rotatably connected to each connecting ring (6), and the rotating plate (7) is provided with a mushroom growing point. The opening (7001); a fixed plate (8) is slidably connected to each rotating plate (7); a handle (9) is fixed to each fixed plate (8), and the end of the fixed plate (8) is set to be sharp; two sliding plates (5) on each shell (4) are fixed to a base plate (10), a through groove is opened in the middle of the base plate (10), and a valve is provided at the through groove; a detection component for detecting the moisture inside the mushroom stick is connected to each frame (2); a second cutting blade (7002) is fixed to the edge of the mushroom opening (7001); several spikes (7003) are fixed to the edge of the mushroom opening (7001) away from the second cutting blade (7002), and the spikes (7003) are bent toward the mushroom opening (7001); The detection assembly includes two drive units (105) and two humidity meters (106); each drive unit (105) has a pointed cone-shaped humidity meter (106) fixed to its output end for detecting the humidity of the mushroom sticks, and an air humidity meter is provided at the base of the humidity meter (106); By controlling the drive unit (105) to drive the humidity sensor (106) to insert into the through groove of the base plate (10), the pointed humidity sensor (106) squeezes open the valve in the through groove, punctures the plastic film and inserts into the inside of the mushroom stick. When the drive unit (105) drives the humidity sensor (106) to reset and exit outside the shell (4), the valve re-seals the through groove of the base plate (10).

2. The intelligent integrated mushroom cultivation ecological cabin according to claim 1, characterized in that: The detection assembly also includes a first slide rail (101), a first electric slider (102), a second slide rail (103), and a second electric slider (104); the first slide rail (101) is fixedly connected to the frame (2); the first electric slider (102) is slidably connected to the first slide rail (101); the second slide rail (103) is fixedly connected to the first electric slider (102); the second electric slider (104) is slidably connected to the second slide rail (103); the second electric slider (104) is fixedly connected to two driving components (105) through a connecting plate.

3. The intelligent integrated mushroom cultivation ecological cabin according to claim 1, characterized in that: It also includes needles (201) and push plates (202); each sliding plate (5) is provided with several needles (201), and all the needles (201) on the same sliding plate (5) are fixedly connected to the push plate (202).

4. The intelligent integrated mushroom cultivation ecological cabin according to claim 1, characterized in that: Two drain pipes (3002) are fixedly connected to each support plate (3). The shells (4) located on the same support plate (3) are all connected to the corresponding drain pipes (3002). All drain pipes (3002) are connected to the external suction and collection pipes.

5. The intelligent integrated mushroom cultivation ecological cabin according to claim 1, characterized in that: The edge of the base plate (10) is in close contact with the inside of the shell (4).

6. The intelligent integrated mushroom cultivation ecological cabin according to claim 4, characterized in that: A sponge is provided at the connection between the drain pipe (3002) and the shell (4).

7. The intelligent integrated mushroom cultivation ecological cabin according to claim 1, characterized in that: The cabin (1) is equipped with a ventilation and filtration system.

8. The intelligent integrated mushroom cultivation ecological cabin according to claim 1, characterized in that: It also includes an elastic fabric (301); the rotating plate (7) and the handle (9) are together fixed to the elastic fabric (301).

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