Intelligent integrated mushroom cultivation ecological cabin

Abstract

The invention relates to the technical field of mushroom cultivation equipment, in particular to an intelligent integrated mushroom cultivation ecological cabin which comprises a cabin body, a rack, a supporting plate and the like. A plurality of racks are arranged in the cabin body; and each rack is fixedly connected with a plurality of supporting plates. When the moisture of the mushroom stick needs to be detected, the humidity detector is inserted into the through groove of the bottom plate, after the pointed-cone-shaped humidity detector extrudes the valve in the through groove open, the plastic film is punctured to be inserted into the mushroom stick, so that the moisture in the mushroom stick can be detected to know whether the mushroom stick needs to be replenished with water or not, and when the humidity detector retreats out of the shell, the plastic film is punctured to be inserted into the mushroom stick. The through groove of the bottom plate is plugged again by the valve, so that the mushroom stick is effectively prevented from fruiting from the through groove of the bottom plate, the maturity of the mushroom tends to be consistent, and meanwhile, the poor appearance of the mushroom due to excessive nutrition consumption caused by fruiting of the mushroom stick at multiple positions is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of mushroom cultivation equipment, and in particular to an intelligent integrated mushroom cultivation ecological cabin. Background Art

[0002] The conventional method is to use mushroom sticks for mushroom cultivation. The mushroom sticks are composed of a matrix mixed with spawn and a plastic film for wrapping the matrix. During the cultivation process, the moisture content of the mushroom sticks and the air humidity of the environment in which they are located have an important influence on the growth of mycelium and the development of fruiting bodies, which directly affect the quality and yield of the mushrooms. In the existing technology, when mushrooms are cultivated on a large scale, the mushroom sticks are densely placed on the grid. The moisture distribution at different positions in the cabin is uneven, resulting in different moisture content and environmental humidity of the mushroom sticks in different layers, making it impossible to accurately obtain the moisture content and air humidity actually required by the mushrooms, and the quality and yield of the mushrooms cannot be guaranteed. The moisture content of the mushroom sticks is detected by manual random sampling to monitor the moisture content of the mushroom sticks. However, the manual sampling detection process requires a lot of manpower and material resources. In addition, each time the moisture content of the mushroom sticks is detected, the humidity detector needs to pierce the plastic film and insert it into the mushroom sticks, which makes it easy for the mushroom sticks to produce mushrooms from that position, resulting in inconsistent maturity of the mushrooms. In addition, when the mushrooms are produced from multiple positions on the mushroom sticks, too much nutrition is consumed, resulting in poor appearance of the mushrooms. Summary of the Invention

[0003] In order to overcome the shortcomings of the existing method of monitoring the moisture content of mushroom sticks, which requires manual sampling and testing, consuming a lot of manpower and material resources, and requiring a humidity detector to pierce the plastic film and insert into the mushroom stick each time the moisture content of the mushroom stick is tested, which makes it easy for the mushroom stick to produce mushrooms from that position, resulting in inconsistent mushroom maturity and poor appearance, the present invention provides an intelligent integrated mushroom cultivation ecological cabin.

[0004] The technical implementation scheme of the present invention is: an intelligent integrated mushroom cultivation ecological cabin, including a cabin body, a frame and a support plate; a plurality of frames are arranged in the cabin body; each frame is fixedly connected to a plurality of support plates; it also includes a shell, a sliding plate, a connecting ring, a rotating plate, a fixed plate, a handle, a bottom plate and a detection component; each support plate is fixedly connected to two watering cans, which are connected to an external water pipe; a plurality of shells are fixedly connected on both sides of each support plate, and the shells are provided with an arc plate with a plurality of micropores; each shell is slidably connected to two sliding plates; the two sliding plates located on the same shell are jointly fixed to a connecting ring; each connecting ring is rotatably connected to a rotating plate, and the rotating plate is provided with a mushroom outlet; each rotating plate is slidably connected to a fixed plate; each fixed plate is fixedly connected to a handle, and the end of the fixed plate is set to a sharp shape; the two sliding plates on each shell are jointly fixed to a bottom plate, and a through groove is provided in the middle of the bottom plate, and a valve is provided at the through groove; each frame is connected to a detection component for detecting the moisture inside the mushroom stick.

[0005] Furthermore, the detection component includes a first slide rail, a first electric slider, a second slide rail, a second electric slider, a driving member and a humidity detector; 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 is fixedly connected to two driving members through a connecting plate; each driving member output end is fixedly connected to a conical humidity detector for detecting the humidity of the mushroom stick, and an air humidity meter is provided at the base of the humidity detector.

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

[0007] Furthermore, a plurality of sharp spikes are fixedly connected to an edge of one side of the mushroom outlet away from the second cutting blade, and the sharp spikes are bent toward the mushroom outlet.

[0008] Furthermore, it also includes needles and a push plate; each sliding plate is pierced with a number of needles, and all the needles on the same sliding plate are fixedly connected to the push plate.

[0009] Furthermore, two drain pipes are fixedly connected to each support plate, and the shells located on the same support plate are connected to the corresponding drain pipes, and all the drain pipes are connected to the external suction and water collection pipe.

[0010] Furthermore, the edge of the bottom plate is in close contact with the inner side of the shell.

[0011] Furthermore, a sponge is provided at the communication port between the drain pipe and the shell.

[0012] Furthermore, a ventilation and filtration system is provided in the cabin.

[0013] Furthermore, it also includes elastic cloth; the rotating plate and the handle are fixedly connected to the elastic cloth.

[0014] The present invention has the following advantages: when the moisture content of a mushroom stick needs to be detected, the humidity detector is inserted into the through groove of the bottom plate, so that the pointed cone-shaped humidity detector squeezes open the valve in the through groove, pierces the plastic film and is inserted into the mushroom stick, thereby detecting the moisture content inside the mushroom stick to determine whether it needs to be replenished with water; and when the humidity detector is withdrawn from the shell, the valve re-blocks the through groove of the bottom plate, effectively preventing the mushroom stick from producing mushrooms from the through groove of the bottom plate again, thereby ensuring that the mushrooms are uniformly mature, and simultaneously preventing the mushroom stick from producing mushrooms in multiple places, thereby preventing excessive nutrition from being consumed and resulting in poor appearance of the mushrooms; The humidity detector is driven by the first slide rail, the first electric slider, the second slide rail and the second electric slider to perform random sampling tests on the moisture inside each layer of the mushroom stick and the ambient air humidity. Combined with the atomizing nozzle of the sprinkler, precise layered water replenishment is achieved, avoiding the tedious operation of frequent manual testing. At the same time, the microporous design of the curved plate maintains the air and water permeability of the mushroom stick, and cooperates with the drainage pipe to discharge yellow water in time, effectively preventing the substrate from being over-humidified or contaminated. When picking mushrooms, the second cutting blade is used to quickly cut off the stems, and the sharp thorns are used to rotate and screen out the remaining mushroom roots, avoiding the traditional secondary root trimming process. In addition, the mushroom sticks are punctured by acupuncture to ensure the air permeability of the deep matrix. When the second cutting blade cuts the stems of the mushrooms, the mushroom sticks are fixed by acupuncture to prevent the mushroom sticks from rotating with the rotating plate under the action of friction, which makes it impossible to cut off the stems of the mushrooms by the second cutting blade. BRIEF DESCRIPTION OF THE DRAWINGS

[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 is a cross-sectional view of the cabin of the present invention; Figure 3 This is a schematic diagram of the three-dimensional structure of the frame, support plate and shell combination of the present invention; Figure 4 It is a schematic diagram of the three-dimensional structure of the detection component of the present invention; Figure 5 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 plate, handle and bottom plate of the present invention; Figure 7 It is a schematic diagram of the three-dimensional structure of the connecting ring, rotating plate, fixing plate, needling and pushing plate combination of the present invention; Figure 8 This is a state diagram of the sliding plate operation of the present invention.

[0016] The meanings of the reference numerals in the figure are as follows: 1-cabin, 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-spike, 8-fixed plate, 9-handle, 10-bottom plate, 101-first slide rail, 102-first electric slider, 103-second slide rail, 104-second electric slider, 105-driving member, 106-humidity detector, 201-needling, 202-push plate, 301-elastic cloth. DETAILED DESCRIPTION

[0017] Reference herein to an embodiment means that a particular feature, structure, or characteristic described in connection with the embodiment may be included in at least one embodiment of the present invention. The appearance of such a phrase in various places in the specification does not necessarily refer to the same embodiment, nor does it constitute an independent or alternative embodiment that is mutually exclusive of other embodiments. It is understood, both explicitly and implicitly, by those skilled in the art that the embodiments described herein may 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 a support plate 3; two frames 2 are arranged in the cabin 1; and five support plates 3 are fixed to each frame 2; It also includes a shell 4, a sliding plate 5, a connecting ring 6, a rotating plate 7, a fixed plate 8, a handle 9, a bottom plate 10 and a detection component; two sprinkler barrels 3001 are fixedly connected to the lower side of each support plate 3, and a plurality of atomizing nozzles are provided on the sprinkler barrels 3001, and the sprinkler barrels 3001 are connected to the external water pipe; a plurality of shells 4 are fixedly connected to the left and right sides of each support plate 3, and an arc plate 4001 is provided on the upper side of the shell 4, and a plurality of micropores are opened on the arc plate 4001; two sliding plates 5 are slidably connected to each shell 4; located in the same shell The two sliding plates 5 on 4 are commonly fixed with a connecting ring 6; each connecting ring 6 is rotatably connected to a rotating plate 7, and the rotating plate 7 is provided with a mushroom outlet 7001; each rotating plate 7 is slidably connected to a fixed plate 8; each fixed plate 8 is fixed with a handle 9, the end of the fixed plate 8 is set to be sharp, and the end is provided with a protrusion; the two sliding plates 5 on each shell 4 are commonly fixed with a bottom plate 10, the middle of the bottom plate 10 is provided with a through groove, and the through groove is provided with a valve; each frame 2 is connected to a detection component.

[0019] The detection component includes a first slide rail 101, a first electric slider 102, a second slide rail 103, a second electric slider 104, a driving member 105 and a humidity detector 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 driving members 105 through a connecting plate, and the driving members 105 are electric push rods; each output end of the driving member 105 is fixedly connected to a conical humidity detector 106, and an air humidity meter is provided at the base of the humidity detector 106.

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

[0021] A plurality of spikes 7003 are fixed to an edge of one side of the mushroom outlet 7001 away from the second cutting blade 7002 , and the spikes 7003 are bent toward the mushroom outlet 7001 .

[0022] It also includes a needle punch 201 and a push plate 202 ; each sliding plate 5 is pierced with a plurality of needle punches 201 , and all the needle punches 201 on the same sliding plate 5 are fixedly connected to the push plate 202 .

[0023] Two drainage pipes 3002 are fixedly connected to each support plate 3 , and the shells 4 located on the same support plate 3 are connected to the corresponding drainage pipes 3002 , and all the drainage pipes 3002 are connected to the external suction and water collection pipe.

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

[0025] A sponge is provided at the communication port between the drain pipe 3002 and the housing 4 to prevent the matrix from entering the drain pipe 3002 and causing blockage therein.

[0026] A ventilation and filtration system is provided in the cabin 1, through which the air entering the cabin 1 is efficiently filtered and purified, and the carbon dioxide concentration is adjusted according to the needs of mushroom growth.

[0027] The workflow of the intelligent integrated mushroom cultivation ecological cabin of the present invention is as follows: When in use, each mushroom stick is manually placed into the shell 4, and then the plastic film at the area where the mushroom stick is aligned with the mushroom outlet 7001 is cut with a knife to expose the matrix there, so that the mushrooms can be grown from the mushroom outlet 7001. During the growth of the mushrooms, the shell 4 maintains air permeability and water permeability through the micropores on the curved plate 4001, and in order to avoid low moisture content in the mushroom stick, which leads to slow mycelial growth and poor fruiting body development, the humidity detector 106 is driven by the control driving member 105 to be inserted into the through groove of the bottom plate 10. , so that the pointed cone-shaped humidity detector 106 squeezes open the valve in the through groove, pierces the plastic film and inserts into the mushroom stick, thereby detecting the moisture inside the mushroom stick to know whether it needs to be replenished with water. When the driving member 105 drives the humidity detector 106 to reset and exit the shell 4, the valve re-blocks the through groove of the bottom plate 10, effectively preventing the mushroom stick from producing mushrooms from the through groove of the bottom plate 10 again, so as to ensure that the maturity of the mushrooms tends to be uniform, and at the same time avoids the consumption of excessive nutrients due to mushrooms being produced in multiple places on the mushroom stick, resulting in poor appearance of the mushrooms.

[0028] Furthermore, due to the uneven distribution of moisture at different heights in the cabin 1, the humidity of the mushroom sticks at different layers is inconsistent with the air humidity of the surrounding environment, so that the first electric slider 102 can be controlled to drive the second slide rail 103 and the parts connected thereto to move randomly on the first slide rail 101, thereby driving the second electric slider 104, the driving member 105 and the humidity detector 106 to move in a horizontal position, so as to randomly sample and detect the moisture of the mushroom sticks on the same layer through the humidity detector 106, and sample and detect the air humidity of the environment in which the mushroom sticks on this layer are located through the air humidity meter at the base of the humidity detector 106, thereby measuring the moisture of the mushroom sticks on the same layer and the air humidity. The humidity is monitored, and on this basis, the second electric slider 104 is controlled to drive the driving member 105 and the humidity detector 106 to slide on the second slide rail 103, so that the humidity detector 106 is aligned with the mushroom sticks of different layers, and then the moisture content of the mushroom sticks of different layers and the humidity of the surrounding air are monitored, and then the atomizing nozzles of the sprinkler 3001 on the upper side of the corresponding layer are controlled to start and spray water downward to provide targeted water to the mushroom sticks and the mushrooms thereon. When the air humidity of the environment in which the mushroom sticks are located is low, the atomizing nozzles are made to spray smaller water droplets to increase the air humidity there, thereby eliminating the need for manual moisture detection on the mushroom sticks, effectively saving manpower.

[0029] It should be noted that the steps for placing the mushroom sticks into the housing 4 are as follows: like Figure 8 As shown, by manually pulling the handle 9 away from the rotating plate 7, the fixed plate 8 is driven to slide on the rotating plate 7 until the protrusion on the fixed plate 8 abuts against the rotating plate 7, and then the handle 9 is continued to be pulled to drive the connecting ring 6, the rotating plate 7 and the sliding plate 5 away from the shell 4, and the sliding plate 5 slides on the shell 4, and then the mushroom sticks of the same size as the internal space of the shell 4 are manually placed on the sliding plate 5, and the mushroom sticks are supported by the two sliding plates 5, and then the handle 9 and the parts connected thereto are pushed to reset, driving the mushroom sticks into the shell 4, thereby realizing the mushroom sticks being placed in the shell 4, and each mushroom stick is placed in the shell 4 through the shell 4. The mushroom sticks are placed separately. It should be noted that after the mushroom sticks enter the shell 4, continue to push the handle 9 so that the sharp-pointed fixing piece 8 at the end is inserted into the mushroom stick, and then twist the handle 9 and the fixing piece 8 to drive the mushroom stick and the rotating plate 7 to rotate one circle through the fixing piece 8. During this process, the outer side of the mushroom stick continues to contact with the first cutting blade 5001, so that the plastic film is cut by the first cutting blade 5001, so that the matrix inside the mushroom stick is permeable to water and air through the micropores on the arc plate 4001. It should be noted that at this time, the shell 4 wraps the mushroom stick, so the mushroom stick cannot produce mushrooms from the cut part of the plastic film.

[0030] It should be noted that in the process of cultivating mushrooms, when the mycelium enters the physiological maturity period, some mushroom sticks will produce yellow water, which is then sucked out through the drain pipe 3002 to drain the yellow water produced by the mushroom sticks in time to prevent it from accumulating in the shell 4 and affecting the normal color change of the mushroom sticks. At the same time, it prevents the yellow water from falling on the lower mushroom sticks and infecting other mushroom sticks. Compared with the existing technology, which requires puncturing the mushroom sticks that produce yellow water and transferring them to the lower layer for placement, it effectively saves manpower. At the same time, the excess water in the shell 4 is drained away through the drain pipe 3002 to prevent the humidity of the mushroom sticks from being too high.

[0031] During the mushroom cultivation process, in order to ensure the air permeability of the deep matrix of the mushroom stick, the mushroom stick needs to be punctured. In the present invention, the push plate 202 is manually pushed to make the needle 201 penetrate into the mushroom stick, and then the push plate 202 is pulled to separate the needle 201 from the mushroom stick, and then the handle 9 and the fixing plate 8 are twisted to drive the mushroom stick and the rotating plate 7 to rotate thirty degrees, and then the push plate 202 is pushed again to make the needle 201 penetrate into the mushroom stick, and the above steps are repeated many times to achieve uniform puncture of the mushroom stick.

[0032] When the mushrooms are cultivated and need to be picked, the handle 9 is manually pulled away from the rotating plate 7 to separate the fixed plate 8 from the mushroom stick, and then the handle 9 and the fixed plate 8 are twisted to drive the rotating plate 7 to rotate, so that the stems of the mushrooms are cut off by the second cutting blade 7002, so as to realize quick picking of mushrooms. At the same time, it is different from the existing method in which the roots of the mushrooms need to be cut off after the mushrooms are picked. The present invention does not need to cut the roots of the mushrooms, which effectively saves manpower. It should be noted that before picking the mushrooms, the push plate 202 is first pushed to allow the needle 201 to penetrate into the mushroom stick to fix the mushroom stick to the sliding plate 5, thereby avoiding the mushroom stick rotating with the rotating plate 7 under the action of friction, resulting in the inability to cut the stems of the mushrooms by the second cutting blade 7002.

[0033] When the handle 9 is twisted to drive the rotating plate 7 to rotate and reset, the sharp spikes 7003 bent toward the mushroom outlet 7001 gradually penetrate into the mushroom stick, and as the rotating plate 7 continues to rotate, the mushroom roots remaining in the mushroom stick are gradually screened out by the sharp spikes 7003, thereby cleaning the mushroom roots remaining in the mushroom stick to facilitate subsequent mushroom production without the need for manual removal of the mushroom roots, effectively saving manpower.

[0034] When the mushroom stick needs to be replaced, the handle 9 is manually pulled to drive the connecting ring 6, the rotating plate 7, the sliding plate 5 and the bottom plate 10 away from the shell 4, and the mushroom stick is pushed to the outside of the shell 4 through the bottom plate 10, so as to facilitate the replacement of the mushroom stick, and the inner wall of the shell 4 is scraped through the bottom plate 10 to scrape off the matrix adhered to the inner wall of the shell 4.

[0035] According to the above workflow, we can know that the present invention has the following effects: When the moisture content of the mushroom stick needs to be detected, the humidity detector 106 is inserted into the through groove of the bottom plate 10, so that the pointed cone-shaped humidity detector 106 squeezes open the valve in the through groove, pierces the plastic film and is inserted into the mushroom stick, thereby detecting the moisture content inside the mushroom stick to find out whether it needs to be replenished with water. When the humidity detector 106 is withdrawn from the shell 4, the valve re-seals the through groove of the bottom plate 10, effectively preventing the mushroom stick from producing mushrooms from the through groove of the bottom plate 10 again, thereby ensuring that the maturity of the mushrooms tends to be consistent, and at the same time avoiding excessive consumption of nutrients due to mushrooms being produced in multiple places on the mushroom stick, resulting in poor appearance of the mushrooms.

[0036] The humidity detector 106 is driven to move by the first slide rail 101, the first electric slider 102, the second slide rail 103 and the second electric slider 104 to perform random sampling tests on the moisture inside each layer of the mushroom stick and the ambient air humidity. Combined with the atomizing nozzle of the sprinkler 3001, precise layered water replenishment is achieved, avoiding the tedious operation of frequent manual testing. At the same time, the microporous design of the curved plate 4001 maintains the air permeability and water permeability of the mushroom stick, and cooperates with the drain pipe 3002 to discharge yellow water in time, effectively preventing the substrate from being over-humidified or contaminated.

[0037] During the picking stage, the second cutting blade 7002 is used to quickly cut off the mushroom stems, and the sharp thorns 7003 are used to rotate and screen out the remaining mushroom roots, avoiding the traditional secondary root trimming process. In addition, the mushroom sticks are punctured by acupuncture 201 to ensure the air permeability of the deep matrix. When the second cutting blade 7002 cuts the mushroom stems, the mushroom sticks are fixed by acupuncture 201 to prevent the mushroom sticks from rotating with the rotating plate 7 under the action of friction, resulting in the inability to cut the mushroom stems by the second cutting blade 7002.

[0038] The additional technical effects of the present invention are as follows: Among them, such as Figure 5 As shown, a sponge is provided at the communication port between the drain pipe 3002 and the housing 4 to block the matrix, thereby effectively preventing the matrix from entering the drain pipe 3002 and causing blockage.

[0039] Example 2: Based on Example 1, Figure 5 As shown, an elastic cloth 301 is also included; the rotating plate 7 and the handle 9 are fixedly connected to the elastic cloth 301.

[0040] The workflow of the above embodiment is as follows: Since there are many mushrooms emerging from the mushroom outlet 7001, it is difficult for the operator to hold all the mushrooms when twisting the rotating plate 7 to cut off the stems of the mushrooms through the second cutting blade 7002, resulting in some mushrooms falling 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, so that the elastic cloth 301 wraps and supports the mushrooms 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 from this disclosure that various changes or modifications may be made to the present invention without departing from the principles and spirit of the invention as defined in the claims. Therefore, the detailed description of the disclosed embodiments is intended to be illustrative only and not to limit the present invention, which is to be defined by the claims.

Claims

1. An intelligent integrated mushroom cultivation ecological cabin, comprising a cabin body (1), a rack (2) and a support plate (3); a plurality of racks (2) are arranged in the cabin body (1); a plurality of support plates (3) are fixedly connected to each rack (2); and the characteristics are: The invention also includes a shell (4), a sliding plate (5), a connecting ring (6), a rotating plate (7), a fixing plate (8), a handle (9), a bottom plate (10) and a detection assembly; two watering cans (3001) are fixedly connected to each support plate (3), and the watering cans (3001) are connected to an external water pipe; a plurality of shells (4) are fixedly connected to both sides of each support plate (3), and an arc plate (4001) is provided on the shell (4), and a plurality of micro holes are opened on the arc plate (4001); two sliding plates (5) are slidably connected to each shell (4); two sliding plates (5) located on the same shell (4) A connecting ring (6) is fixedly connected to each 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 plate (8) is slidably connected to each rotating plate (7); a handle (9) is fixedly connected to each fixing plate (8), and the end of the fixing plate (8) is set to be sharp; the two sliding plates (5) on each shell (4) are fixedly connected to a bottom plate (10), and a through groove is provided in the middle of the bottom plate (10), and a valve is provided at the through groove; each frame (2) is connected to a detection component for detecting the moisture inside the mushroom stick.

2. The intelligent integrated mushroom cultivation ecological cabin according to claim 1, characterized in that: The detection component comprises a first slide rail (101), a first electric slider (102), a second slide rail (103), a second electric slider (104), a driving member (105) and a humidity detector (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 slide rail (103) is slidably connected to the second electric slider (104); the second electric slider (104) is fixedly connected to two driving members (105) via a connecting plate; the output end of each driving member (105) is fixedly connected to a conical humidity detector (106) for detecting the humidity of the mushroom stick, and an air humidity meter is arranged at the base of the humidity detector (106).

3. The intelligent integrated mushroom cultivation ecological cabin according to claim 1, characterized in that: A second cutting blade (7002) is fixedly connected to the edge of the mushroom outlet (7001).

4. The intelligent integrated mushroom cultivation ecological cabin according to claim 3 is characterized by: A plurality of sharp spikes (7003) are fixedly connected to an edge of a side of the mushroom outlet (7001) away from the second cutting blade (7002), and the sharp spikes (7003) are curved toward the mushroom outlet (7001).

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

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

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

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

9. The intelligent integrated mushroom cultivation ecological cabin according to claim 1, characterized in that: A ventilation and filtering system is provided in the cabin (1).

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

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