Intelligent optimization of culture space mushroom cabin

Abstract

The application discloses a kind of intelligent optimization cultivation space's fungus mushroom cabin, including cabin section head, folding cabin section body and mobile mechanism, the folding cabin section body is placed between cabin section head and cabin section tail, by increasing or reducing the number of folding cabin section body, flexible combination and adjustment are carried out, to respond to planting demand realizes the expansion or reduction of fungus mushroom cabin cabin body space, the mobile mechanism is symmetrically arranged in the cavity of folding cabin section body, and it is used for the position control of three-dimensional cultivation frame, controls out planting personnel passageway, maximum degree reasonable use fungus mushroom cabin cabin space.The intelligent optimization cultivation space's fungus mushroom cabin, by combination type structure setting, can reasonably according to the number of fungus mushroom three-dimensional cultivation frame, realize the flexible adjustment and expansion of fungus mushroom cabin cultivation space, to adapt to different use requirements, in addition, carry out automatic sealing treatment while assembling and locking, keep the sealing effect of combination type fungus mushroom cabin connecting place.

Description

A mushroom cultivation chamber with intelligent optimized cultivation space Technical Field

[0001] This invention relates to the technical field of mushroom cultivation chambers, specifically to a mushroom cultivation chamber with intelligent optimized cultivation space. Background Technology

[0002] Mushrooms generally refer to the large, fleshy or gelatinous fruiting bodies of fungi that are visible to the naked eye and can be picked by hand. They include most edible mushrooms, wood ear mushrooms, and shiitake mushrooms. Mushrooms are rich in various nutrients such as protein, amino acids, and vitamins, and play an important role in maintaining normal physiological functions and promoting metabolism.

[0003] In order to achieve continuous year-round cultivation of edible mushrooms and increase the annual yield, artificial cultivation is required in mushroom cultivation containers. The temperature, humidity and ventilation of the cultivation environment are artificially controlled to create the most suitable growing environment for edible mushrooms.

[0004] A search of invention patent CN118872543B reveals a circulating humidity-controlled intelligent cooling and heating chamber for mushroom cultivation. The chamber includes a body, a door, a temperature control unit, and hot and cold water pipes. The door is installed on the front of the body, and the temperature control unit is located on the outside of the body. Hot and cold water pipes are installed inside the body to control the temperature. An atomizing humidifier pipe is installed inside the body, and its left end is connected to a first movable plate located inside the body. A first support column runs through the center of the first movable plate, and the first movable plate and the first support column are rotatably connected. This circulating humidity-controlled intelligent cooling and heating chamber for mushroom cultivation elevates the bottom of the chamber using a bottom support frame, facilitating air circulation to the mushrooms. Openings on the sides of the support frame provide a moving channel for the atomizing humidifier pipe and the circulating extraction pipe, allowing them to move evenly within the chamber.

[0005] Based on the aforementioned patents, existing solutions, and practical usage, current mushroom cultivation chambers still have some problems, such as:

[0006] 1. The cabin in the above patent is the same as the existing mushroom cabin, which is a fixed structure. However, the fixed cabin usually has a fixed structure and size, that is, the capacity is limited. When it is necessary to place different numbers of mushroom cultivation racks, the fixed cabin is difficult to combine and adjust flexibly, and cannot expand the capacity, thus affecting the scope of application.

[0007] 2. In existing mushroom cultivation chambers, mushroom cultivation racks are usually fixedly placed at certain intervals on the bottom plate of the chamber, and passageways for growers must also be reserved. However, the fixed placement of cultivation racks and personnel passageways cannot make the most of the space inside the chamber, meaning that more mushrooms cannot be grown in the limited space.

[0008] Therefore, we propose a mushroom cultivation chamber with intelligent optimized cultivation space to solve the problems mentioned above. Summary of the Invention

[0009] The purpose of this invention is to provide a mushroom cultivation chamber with intelligent optimized cultivation space, in order to solve the problems mentioned in the background art, such as the fixed state of the container being difficult to combine and adjust flexibly, unable to expand the accommodating space, and unable to make the most rational use of the internal space, thus affecting the scope of application.

[0010] To achieve the above objectives, the present invention provides the following technical solution: a mushroom cultivation chamber with intelligent optimized cultivation space, comprising:

[0011] The section head and the section tail are arranged in a left-right correspondence, and a temperature control unit is fixedly installed on the bulkhead of the section head, and an openable and closable door is movably installed on the bulkhead of the section tail.

[0012] Also includes:

[0013] The foldable compartment is located between the head and tail of the compartment. Its foldable structure reduces its volume and makes it easy to stack and store. Furthermore, by increasing or decreasing the number of foldable compartments, it can be flexibly combined and adjusted to expand or reduce the space of the mushroom compartment to meet planting needs.

[0014] Among them, the connection between the foldable compartment body and the compartment head, the connection between two adjacent foldable compartment bodies, and the connection between the foldable compartment body and the compartment tail are all provided with assembly components for sealing and fixing.

[0015] The moving mechanism is arranged symmetrically in the cavity of the folding compartment body. It is used to adjust the position of the three-dimensional cultivation rack, adjust the passage of the growers, and make the most rational use of the space inside the mushroom compartment.

[0016] Preferably, the foldable compartment includes a bottom panel, a first side panel, a second side panel, and a top panel. The side of the bottom panel is connected to the lower side of the first side panel by a pivot column, and the upper side of the first side panel forms a flip structure on the lower side of the second side panel by a pivot column. The upper side of the second side panel is connected to the side of the top panel by a pivot column. The second side panel and the first side panel are symmetrically arranged about the horizontal centerline of the bottom panel.

[0017] The connection points between the bottom compartment and the first side compartment, the connection points between the first side compartment and the second side compartment, and the connection points between the second side compartment and the top compartment are all provided with locking components at equal intervals.

[0018] The connection between the bottom compartment plate and the first side compartment plate is sealed with a sealing strip, the connection between the first side compartment plate and the second side compartment plate is also sealed with a sealing strip, and the connection between the second side compartment plate and the top compartment plate is also sealed with a sealing strip.

[0019] Preferably, the connecting assembly at the connection between the bottom deck and the first side deck includes a main connecting frame and a secondary connecting frame. The outward end of the main connecting frame is connected to the first side deck via a pivot column for auxiliary flipping. The secondary connecting frame is rotatably connected to the shaft tube of the main connecting frame, and the outward end of the secondary connecting frame is connected to the bottom deck via a pivot column for auxiliary flipping. A locking block is slidably connected inside the cavity of the shaft tube of the main connecting frame, and the middle part of the locking block is rotatably connected to the end of the threaded bolt handle. The bolt body of the threaded bolt handle is threadedly connected to the inward end of the main connecting frame.

[0020] The narrow section of the tube cavity in the secondary connecting frame is provided with locking grooves on both sides, and the locking grooves are connected to the locking block in a snap-fit ​​manner.

[0021] Preferably, the arrangement of the connecting assembly at the connection between the first side panel and the second side panel, and the arrangement of the connecting assembly between the second side panel and the top panel, are the same as the arrangement of the connecting assembly at the connection between the bottom panel and the first side panel.

[0022] Preferably, the assembly components at the connection between the foldable cabin body and the cabin head include an assembly frame, a zipper mechanism, and a compressed air mechanism. Annular air chambers are provided on the left and right end walls of the assembly frame, and sealing airbags are connected to the openings of these annular air chambers. The sealing airbags are fixedly connected to the frame walls of the assembly frame by bolts. The left end of the assembly frame, along with the sealing airbag, is sealed and fitted onto the outside of the cabin head, and the right end of the assembly frame, along with the sealing airbag, is sealed and fitted onto the outside of the foldable cabin body.

[0023] The assembly frame is provided with a zipper mechanism on all four outer frame walls (front, back, top, bottom) and a pneumatic mechanism on all four frame openings (front, back, top, bottom).

[0024] Preferably, the zipper mechanism includes an "L"-shaped frame and a locking tongue. The "L"-shaped frame forms a sliding structure on the "concave"-shaped seat in the assembly frame with the assistance of a wedge-shaped strip. The transverse frame end of the "L"-shaped frame is fixedly connected to the output end of the bidirectional electric telescopic rod by bolts. The bidirectional electric telescopic rod is fixedly installed on the outer frame wall of the assembly frame by bolts.

[0025] The "L"-shaped frame has a locking tongue that is telescopically slidably connected to the groove of the longitudinal frame, and a first spring is installed at the sliding connection between the locking tongue and the "L"-shaped frame.

[0026] Specifically, the locking tongue on the left side of the assembly frame is engaged with the bulkhead of the compartment head, and the locking tongue on the right side of the assembly frame is engaged with the bulkhead of the folding compartment body.

[0027] Preferably, the air compression mechanism includes an air compression chamber and a piston. The air compression chamber is connected to an annular air chamber through an air passage therein. The piston is slidably connected to the chamber of the air compression chamber, and a second spring is installed at the connection between the piston and the air compression chamber. The narrow part of the piston extends outward to the frame opening of the assembly frame.

[0028] The piston on the left side of the assembly frame is pushed and fitted to the hatch of the compartment head, and the piston on the right side of the assembly frame is pushed and fitted to the hatch of the folding compartment body.

[0029] Preferably, the connection method of the assembly at the connection between the foldable compartment body and the tail section and the connection method of the assembly at the connection between two adjacent foldable compartment bodies are the same as the connection method of the assembly at the connection between the foldable compartment body and the head section.

[0030] Preferably, the moving mechanism includes a first moving plate, a second moving plate, and a third moving plate. The second moving plate is located directly behind the first moving plate and is fixedly connected to the rear section of the bottom deck plate by bolts. The third moving plate is located directly in front of the first moving plate and is fixedly connected to the front section of the bottom deck plate by bolts.

[0031] Among them, the lower end of the tube seat of the first moving disk is rotatably connected with a ball bearing, and the first moving disk, the second moving disk and the third moving disk are all fixedly connected to a three-dimensional cultivation rack through the tube seat auxiliary limiting.

[0032] Preferably, the first movable disk forms a sliding structure on the bottom plate with the assistance of ball bearings, and the middle part of the first movable disk is fixedly connected to the narrow part of the drive block by bolts.

[0033] The drive block has a threaded screw connected to its wide section. The screw is rotated within the shell cavity of the bottom compartment plate with the assistance of bearings. The front end of the screw is fixedly connected to the output end of the servo motor by bolts. The servo motor is also fixedly mounted on the shell cavity wall of the bottom compartment plate by bolts.

[0034] Compared with the prior art, the beneficial effects of the present invention are: the mushroom cabin with intelligent optimized cultivation space, through the combined structure, can reasonably adjust and expand the cultivation space of the mushroom cabin according to the number of mushroom three-dimensional cultivation racks, thereby adapting to different usage needs. In addition, automatic sealing is performed during assembly and locking to maintain the sealing effect of the connection of the combined mushroom cabin, which can effectively prevent the invasion of pathogens and pests.

[0035] 1. It is equipped with foldable compartments and assembly components. After the foldable compartments are connected to the head of the compartment, they are sealed and fixed together by the assembly components. After two adjacent foldable compartments are connected, they are also sealed and fixed together by the assembly components. After the foldable compartments are connected to the tail of the compartment, they are also sealed and fixed together by the assembly components. Through the combined structure, the foldable compartments can be flexibly combined and disassembled according to the number of mushroom three-dimensional cultivation racks, so as to realize the adjustment of the cultivation and accommodation space of the mushroom compartment, thereby adapting to different usage needs, making reasonable use of the floor space, and the combined mushroom compartment has higher flexibility and scalability than the fixed mushroom compartment.

[0036] Furthermore, during the sealing and fixing operation of the assembly components, taking the docking operation between the folding compartment body and the compartment head as an example, the two locking tongues are respectively engaged with the compartment wall of the compartment head and the compartment wall of the folding compartment body. After the "L"-shaped frame drives the locking tongues to slide, the two locking tongues slide relative to each other, respectively driving the compartment head and the folding compartment body to move relative to each other, so that the compartment head and the folding compartment body are respectively inserted into both sides of the assembly component. At the same time, the two pistons are pushed, so that the pistons slide and compress air in the air chamber, inflating the sealing airbags. After the two sealing airbags expand, they seal the connection between the assembly component and the compartment head and the connection between the assembly component and the folding compartment body, respectively. Through the linkage structure, automatic sealing is performed while locking, maintaining the sealing effect at the connection of the combined mushroom compartment, which can effectively prevent the invasion of pathogens and pests and ensure the healthy growth of mushrooms.

[0037] Furthermore, the foldable compartment is composed of a bottom panel, a first side panel, a second side panel, and a top panel. After the connection components are unlocked, the first side panel flips and folds inward on the bottom panel, the second side panel flips and folds outward on the first side panel, and the second side panel flips and folds inward on the top panel. The top panel also folds and moves downward, causing the foldable compartment to flip and fold into a plate-like structure. By setting the foldable structure, the volume is reduced and it is easy to stack and store.

[0038] 2. The device is equipped with a first moving plate, a second moving plate, and a third moving plate. Each of the three moving plates is equipped with a three-dimensional cultivation rack. The second moving plate is located directly behind the first moving plate, and the third moving plate is located directly in front of the first moving plate. All three are on the same horizontal line. The first moving plate is fixedly mounted on a drive block by bolts. The drive block is driven by rotating the screw in both directions, causing the drive block to move the first moving plate closer to the second moving plate or the drive block to move the first moving plate closer to the third moving plate. This achieves intelligent and automatic position adjustment of the three-dimensional cultivation rack, optimizes the cultivation space of the mushroom chamber, and forms an artificial passage after adjustment to assist growers in harvesting.

[0039] Furthermore, the first, second, and third moving trays are identical in size. Taking the first moving tray as an example, each of the four corners of the upper side wall of the first moving tray has an integrated tube seat, and each of the four corners of the lower side of the three-dimensional culture rack has an integrated foot post. After the three-dimensional culture rack is installed, the foot posts are inserted into the tube cavity of the tube seat to achieve the limiting placement of the three-dimensional culture rack, ensuring the reliability after installation and preventing tipping during use. Attached Figure Description

[0040] Figure 1 is a frontal three-dimensional structural schematic diagram of the present invention;

[0041] Figure 2 is a side view of the three-dimensional structure of the present invention;

[0042] Figure 3 is a side-view three-dimensional structural diagram of the foldable cabin section of the present invention;

[0043] Figure 4 is a three-dimensional structural diagram of the connection between the first side panel and the second side panel of the present invention.

[0044] Figure 5 is a frontal three-dimensional structural diagram of the folded compartment body of the present invention in a folded state.

[0045] Figure 6 is a three-dimensional structural diagram of the disassembled front cross-section of the connecting component of the present invention;

[0046] Figure 7 is a three-dimensional structural diagram of the connection between the main connecting frame and the auxiliary connecting frame of the present invention, viewed from the front and cross-sectional view.

[0047] Figure 8 is a frontal three-dimensional structural schematic diagram of the assembly component of the present invention;

[0048] Figure 9 is a frontal cross-sectional three-dimensional structural schematic diagram of the zipper mechanism of the present invention;

[0049] Figure 10 is a three-dimensional structural diagram of the connection between the top compartment plate and the locking tongue of the present invention, viewed from the bottom.

[0050] Figure 11 is a frontal cross-sectional three-dimensional structural schematic diagram of the air compressor mechanism of the present invention;

[0051] Figure 12 is a frontal cross-sectional three-dimensional structural diagram of the connection between the top cabin plate and the sealing airbag of the present invention.

[0052] Figure 13 is a side view cross-sectional three-dimensional structural diagram of the moving mechanism of the present invention.

[0053] In the diagram: 1. Cabin head; 2. Cabin stern; 3. Folding cabin body; 4. Assembly assembly; 5. Moving mechanism; 6. Bottom deck; 7. First side deck; 8. Second side deck; 9. Top deck; 10. Connecting assembly; 11. Main connecting frame; 12. Secondary connecting frame; 1201. Locking slot; 13. Locking block; 14. Threaded bolt handle; 15. Assembly frame; 1501. Annular air chamber; 16. Sealing airbag; 17. 1701. Pull-lock mechanism; 1702. "L" shaped frame; 1703. Two-way electric telescopic rod; 1704. Locking tongue; 1705. First spring; 18. Air compression mechanism; 1806. Air compression chamber; 1807. Piston; 1808. Second spring; 19. First moving plate; 1909. Ball bearing; 20. Second moving plate; 21. Third moving plate; 22. Drive block; 23. Lead screw; 24. Servo motor. Detailed Implementation

[0054] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0055] Please refer to Figures 1-13. The present invention provides a technical solution: a mushroom cabin with intelligent optimized cultivation space, including a cabin head 1, a foldable cabin body 3, and a moving mechanism 5.

[0056] The mushroom cabin of this intelligent optimized cultivation space is a modular mushroom cabin. The dimensions of the foldable cabin body 3, the head 1, and the tail 2 are all the same. The head 1 and tail 2 are set in a left-right symmetrical position. The left and right ends of the foldable cabin body 3 are both open and are placed between the head 1 and tail 2. The assembly component 4 is a square frame structure. The foldable cabin body 3 is connected to the head 1 and sealed together with the assistance of the assembly component 4. Adjacent foldable cabin bodies 3 are also connected and sealed together with the assistance of the assembly component 4. The foldable cabin body 3 is also connected to the tail 2 and sealed together with the assistance of the assembly component 4. By increasing or decreasing the number of foldable cabin bodies 3, flexible combination and adjustment can be made to expand or shrink the mushroom cabin space to meet cultivation needs.

[0057] When sealing and securing the foldable compartment body 3 and the compartment head 1 using assembly component 4, after assembly component 4 is installed, its left end is fitted onto the compartment head 1 for sealing and securing, and its right end is fitted onto the foldable compartment body 3 for sealing and securing. Specifically, as shown in Figures 1, 2, 8, 9, 10, 11, and 12, assembly frame 15 is arranged in a square frame structure, with both its left and right ends in an open state. After assembly component 4 is installed, the left end of assembly frame 15 is fitted onto... The frame 15 is attached to the head section 1, and the frame cavity wall is flush with the cavity wall of the head section 1. The right end of the assembly frame 15 is fitted onto the foldable section body 3, and the frame cavity wall is flush with the cavity wall of the foldable section body 3. Since the four outer frame walls of the front, rear, top, and bottom of the assembly frame 15 are all equipped with a zipper mechanism 17, the zipper mechanism 17 is set in a horizontal state after installation. It is used for locking the assembly frame 15 after it is fitted onto the foldable section body 3, and for synchronous locking the assembly frame 15 after it is fitted onto the head section 1.

[0058] Because the locking tongue 1703 has an inclined sidewall facing outwards, and because the "L"-shaped frame 1701 in the locking mechanism 17 is symmetrically arranged about the vertical central axis of the assembly frame 15, and the locking tongue 1703 is arranged in the longitudinal frame of the "L"-shaped frame 1701 with the inclined sidewalls of the left and right locking tongues 1703 facing opposite directions, when the assembly frame 15 is engaged with the compartment head 1, the compartment head 1, with the assistance of the inclined sidewall of the left locking tongue 1703, pushes the left locking tongue 1703 to retract and slide, thus allowing the assembly frame 15 to retract and slide. After the assembly frame 15 is fitted with the compartment head 1, the elastic deformation of the first spring 1704 on the left side resets the left locking tongue 1703, causing it to slide out and engage with the bulkhead of the compartment head 1. Similarly, when the assembly frame 15 is fitted with the folding compartment body 3, the folding compartment body 3 pushes the right locking tongue 1703 to retract and slide. After the assembly frame 15 is fitted with the folding compartment body 3, the elastic deformation of the first spring 1704 on the right side resets the right locking tongue 1703, causing it to engage with the bulkhead of the folding compartment body 3.

[0059] Since the "L" shaped frame 1701 is divided into two parts, a transverse frame and a longitudinal frame, and since the longitudinal section of the locking tongue 1703 has a "convex" shaped structure, after it is installed, it is movably locked in the longitudinal frame cavity of the "L" shaped frame 1701, and its lower end moves through the cavity wall and extends outward. When the locking tongue 1703 is pushed, the locking tongue 1703 retracts and slides in the longitudinal frame cavity of the "L" shaped frame 1701.

[0060] Because a spring compartment is provided in the middle of the latch 1703, and a first spring 1704 is installed at the sliding connection between the latch 1703 and the "L"-shaped frame 1701, the first spring 1704 is movably inserted into the spring compartment of the latch 1703 after being placed. One end of the first spring 1704 presses against the wall of the spring compartment, and the other end presses against the end cap of the "L"-shaped frame 1701. After the latch 1703 slides and retracts, the first spring 1704 is compressed and undergoes elastic deformation. When the latch 1703 loses its pushing force, the elastic deformation of the first spring 1704 is used to reset the latch, driving the latch 1703 to slide back to its original position.

[0061] Since the front, back, top, bottom and four sides of the outer frame wall of the assembly frame 15 are all provided with an integrated concave seat, the concave seat is symmetrical about its vertical central axis, and the two sides of the concave seat are provided with through wedge-shaped sliding grooves. Since the two sides of the transverse frame of the L-shaped frame 1701 are provided with integrated wedge-shaped strips, after it is installed, the transverse frame is movably locked in the concave seat of the assembly frame 15, and the two wedge-shaped strips are movably locked in the two wedge-shaped sliding grooves of the concave seat, so that the L-shaped frame 1701 is positioned in a movable state on the concave seat of the assembly frame 15.

[0062] Since the bidirectional electric telescopic rod 1702 is installed and fixed to the outer frame wall of the assembly frame 15 by bolts, it is set in a horizontal state. The two output ends correspond to the two "L" shaped frames 1701 respectively. Since the output end of the bidirectional electric telescopic rod 1702 is inserted and fixed to the horizontal frame end of the "L" shaped frame 1701 by bolts, when the bidirectional electric telescopic rod 1702 is started to retract, with the assistance of the wedge strip in the "L" shaped frame 1701, the "L" shaped frame 1701 retracts and slides on the "concave" seat in the assembly frame 15, so that the left and right "L" shaped frames 1701 retract and slide in opposite directions.

[0063] When the left "L"-shaped frame 1701 retracts and slides, the locking action between the left locking tongue 1703 and the compartment head 1 is used to pull the compartment head 1 to move, so that the compartment head 1 and the assembly frame 15 are further fitted together, completing the locking action between the two. When the right "L"-shaped frame 1701 retracts and slides, the locking action between the right locking tongue 1703 and the folding compartment body 3 is used to pull the folding compartment body 3 to move, so that the folding compartment body 3 and the assembly frame 15 are further fitted together, completing the locking action between the two.

[0064] Based on the above, when assembly component 4 is released from its fixed position, since the upper end of the longitudinal frame in the "L"-shaped frame 1701 is fixedly connected to the end cap by bolts, by removing the end cap, the locking tongue 1703 is released, causing the zipper mechanism 17 to lose its locking function, thereby disassembling assembly component 4.

[0065] Since the four sides of the assembly frame 15 are equipped with air compressors 18, which are horizontally positioned after installation and symmetrically arranged about the vertical center axis of the assembly frame 15, when the compartment head 1 is fitted and locked with the assembly frame 15, the air compressor 18 at the left end is pushed to inflate the left sealing airbag 16. After the left sealing airbag 16 expands, it presses against the outside of the compartment head 1 for sealing. When the foldable compartment body 3 is fitted and locked with the assembly frame 15, the air compressor 18 at the right end is pushed to inflate the right sealing airbag 16. After the right sealing airbag 16 expands, it presses against the outside of the foldable compartment body 3 for sealing.

[0066] Since the air compressor chamber 1801 is located on the frame opening wall of the assembly frame 15, its opening is sealed and connected to an end cap by bolts. Since the longitudinal section of the piston 1802 is a "convex" shaped structure, it is divided into a wide part and a narrow part. After installation, the wide part is inserted into the air compressor chamber 1801, and the narrow part moves through the end cap of the air compressor chamber 1801 and extends outward to the frame opening of the assembly frame 15, so that the piston 1802 is positioned in a movable state within the air compressor chamber 1801.

[0067] Because the piston 1802 has sealing rings fixedly fastened at equal intervals on its wide portion, and the wide portion, along with the sealing rings, is inserted into the compressor chamber 1801, and because the wide portion of the piston 1802 has a spring compartment, a second spring 1803 is installed at the connection between the piston 1802 and the compressor chamber 1801. After installation, the second spring 1803 is movably inserted into the spring compartment of the piston 1802, with one end pressing against the wall of the spring compartment and the other end pressing against the wall of the compressor chamber 1801. When the section head 1 is engaged and locked with the assembly frame 15, the piston 1802 on the left side... 2 is connected to the hatch of the compartment head 1 by pushing and fitting together, that is, the compartment head 1 pushes the left piston 1802 synchronously, causing the piston 1802 to contract and slide in the chamber of the air chamber 1801, and causing the second spring 1803 to be compressed and undergo elastic deformation. In addition, the second spring 1803 is used for the piston 1802 to return to its original position and slide. When the folding compartment body 3 is sleeved and locked with the assembly frame 15, the right piston 1802 is connected to the hatch of the folding compartment body 3 by pushing and fitting together, that is, the folding compartment body 3 pushes the right piston 1802 synchronously and also contracts and slides.

[0068] Since annular air chambers 1501 are provided on the left and right end walls of the assembly frame 15, and each annular air chamber 1501 has an open opening, the sealing airbag 16 is arranged in annular structure. After placement, it covers the opening of the annular air chamber 1501 and is snapped and fixed to the frame wall of the assembly frame 15 by bolts. Since an air passage is provided at the end of the compressed air chamber 1801, it is connected to the annular air chamber 1501 through the air passage. After the piston 1802 contracts and slides in the compressed air chamber 1801, it compresses the gas in the compressed air chamber 1801. The compressed gas is forced through the air passage in the compressed air chamber 1801 into the annular air chamber 1501. After the annular air chamber 1501 supplies air to the sealing airbag 16, the sealing airbag 16 expands and deforms. When the compartment head 1 is fitted and locked with the assembly frame 15, the left sealing airbag 16 is fitted and locked on the outside of the compartment head 1, completing the sealing process. When the folding compartment body 3 is fitted and locked with the assembly frame 15, the right sealing airbag 16 is fitted and locked on the outside of the folding compartment body 3, completing the sealing process. The sealing mechanism effectively prevents the invasion of pathogens and pests.

[0069] When performing the sealing and fixing operation between two adjacent folding compartment bodies 3 using the assembly component 4, according to the above, the connection method of the assembly component 4 at the connection between the folding compartment body 3 and the compartment head 1 is the same as the connection method of the assembly component 4 at the connection between two adjacent folding compartment bodies 3. The left end of the assembly frame 15, connected with the sealing airbag 16, is sealed and fitted onto one folding compartment body 3, and its frame cavity wall is flush with the cavity wall of one folding compartment body 3. The two are locked together. The right end of the assembly frame 15, connected with the sealing airbag 16, is sealed and fitted onto another folding compartment body 3, and its frame cavity wall is flush with the cavity wall of the other folding compartment body 3. The two are locked together.

[0070] When performing the sealing and fixing operation between the foldable compartment body 3 and the stern 2 of the compartment using the assembly component 4, according to the above, the connection method of the assembly component 4 at the connection between the foldable compartment body 3 and the stern 1 of the compartment is the same as the connection method of the assembly component 4 at the connection between the foldable compartment body 3 and the stern 2 of the compartment. The right end of the assembly frame 15, along with the sealing airbag 16, is sealed and fitted onto the stern 2 of the compartment, and its frame cavity wall is flush with the cavity wall of the stern 2 of the compartment. The two are locked together. The left end of the assembly frame 15, along with the sealing airbag 16, is sealed and fitted onto the foldable compartment body 3, and its frame cavity wall is flush with the cavity wall of the foldable compartment body 3. The two are locked together.

[0071] When the mushroom cabin of this intelligent optimized cultivation space is in use, as shown in Figures 1, 2, 3, 8 and 10, both the head 1 and tail 2 of the cabin are set with a square cover structure. Multiple foldable cabin bodies 3, tail 2 and head 1 are combined to form a complete mushroom cabin body. Since the lower side of the head 1 is equipped with an integrated structure of legs, the lower side of the tail 2 is also equipped with an integrated structure of legs. Furthermore, since the four corners of the bottom panel 6 are equipped with integrated structure of legs, the legs in the head 1 and the legs in the tail 2 are all on the same horizontal plane and flush with each other, the mushroom cabin is placed vertically on the site through the legs.

[0072] Because both the upper bulkhead of section 1 and the upper bulkhead of section 2 have integrated perforated pipes in the middle, with integrated "I"-shaped tracks on the lower side of the perforated pipes; because the top plate 9 also has an integrated perforated pipe in the middle, with integrated "I"-shaped tracks on the lower side of the perforated pipes; and because the upper frame wall of assembly frame 15 also has an integrated perforated pipe in the middle, with integrated "I"-shaped tracks on the lower side of the perforated pipes, folding... After the modular body 3, the stern 2, and the head 1 are assembled, the perforated pipe in the head 1 is sealed and inserted into the perforated pipe in the assembly frame 15, wherein the "I"-shaped track is connected to the "I"-shaped track in the assembly frame 15. Similarly, the perforated pipe in the stern 2 is sealed and inserted into the perforated pipe in the assembly frame 15, wherein the "I"-shaped track is connected to the "I"-shaped track in the assembly frame 15. Furthermore, the perforated pipe in the top plate 9 is sealed and inserted into the perforated pipe in the assembly frame 15, wherein the "I"-shaped track is connected to the "I"-shaped track in the assembly frame 15.

[0073] Since a temperature control unit is fixedly installed on the bulkhead of section 1 (the temperature control unit is existing technology and is not described in the attached drawings of the manual), the perforated pipe in section 1 is connected to the temperature control unit. Since the perforated pipe in section 2 is closed, the perforated pipe is used for the airflow arrangement in the temperature control unit to carry out intelligent optimization and control of the temperature in the cultivation space of the mushroom chamber.

[0074] Since the "I"-shaped track in section head 1 is used for the movement of the atomizing humidification equipment (the atomizing humidification equipment is existing technology and is not described in the attached drawings of the specification), the humidity of the cultivation space inside the mushroom cabin is intelligently optimized and controlled through the atomizing humidification equipment;

[0075] Because the moving mechanism 5 is equipped with a three-dimensional cultivation rack (the three-dimensional cultivation rack is existing technology and is not described in the accompanying drawings of the instruction manual), the three-dimensional cultivation rack is placed inside the cavity of the folding compartment 3, and a three-dimensional cultivation method is adopted, which allows more mushroom sticks or mushrooms to be planted in a limited space. Furthermore, because an openable and closable door (the door is existing technology and is not described in the accompanying drawings of the instruction manual) is movably installed on the wall of the compartment tail 2, it is used for entering and exiting the mushroom compartment.

[0076] The foldable compartment 3 in the mushroom compartment of the intelligent optimized cultivation space includes a bottom compartment plate 6, a first side compartment plate 7, a second side compartment plate 8, and a top compartment plate 9. The connection between the bottom compartment plate 6 and the first side compartment plate 7, the connection between the first side compartment plate 7 and the second side compartment plate 8, and the connection between the second side compartment plate 8 and the top compartment plate 9 are all equally spaced with locking connection components 10. After unlocking the connection components 10, the foldable compartment 3 is set in a foldable structural state. After folding, it forms a plate-like structure, which reduces the volume and makes it easy to stack and store.

[0077] During the folding operation of the folding compartment 3, specifically as shown in Figures 3, 4, 5, 6, and 7, the inward end of the main connecting frame 11 refers to the end closer to the auxiliary connecting frame 12, and conversely, the outward end is the end away from the auxiliary connecting frame 12. The inward end of the auxiliary connecting frame 12 refers to the end closer to the main connecting frame 11, and conversely, the outward end is the end away from the main connecting frame 11. Since the rotation center of the inward end of the main connecting frame 11 is provided with an integrated shaft tube, the outward end of the threaded bolt handle 14 is fixedly provided with a handle, which, after installation, allows the bolt body to move. The bolt extends into the shaft tube through the inward end of the main connecting frame 11, and the turn handle is placed outside the main connecting frame 11. Since the inward end of the bolt body of the threaded bolt handle 14 is fixedly connected to the limiting plate by bolts, after its placement, the end of the bolt body moves through the middle of the locking block 13. With the assistance of the limiting plate, the locking block 13 is positioned in a movable state on the threaded bolt handle 14. By rotating the turn handle of the threaded bolt handle 14, the bolt body of the threaded bolt handle 14 is threadedly connected to the inward end of the main connecting frame 11. The locking block 13 is moved by pushing the threaded bolt handle 14.

[0078] Since both sides of the central shaft tube of the main connecting frame 11 are provided with open positioning grooves, and since the middle of the locking block 13 is rotatably connected to the end of the threaded bolt 14, both sides of the locking block 13 are provided with integrated blocks. After installation, the blocks are movably locked in the cavity of the central shaft tube of the main connecting frame 11, and the blocks on both sides are movably inserted through the positioning grooves on both sides of the shaft tube and extend outward, so that the locking block 13 is movably positioned on the central shaft tube of the main connecting frame 11. After the locking block 13 is pushed and moved, it slides in the cavity of the central shaft tube of the main connecting frame 11 through the limiting action.

[0079] Because the inner end of the secondary connecting frame 12 has a through-hole tube cavity, the longitudinal section of which has a "convex" shape and is divided into a wide part and a narrow part, and the length of the wide part of the tube cavity is greater than the length of the block in the locking block 13, and because both sides of the narrow part of the tube cavity in the secondary connecting frame 12 have locking grooves 1201, the length of the locking grooves 1201 is greater than the length of the block in the locking block 13, after the locking block 13 is driven to slide, the locking block 13 is placed in the wide part of the tube cavity in the secondary connecting frame 12, and the block in the locking block 13 loses its engagement with the locking groove 1201. After losing engagement, the limiting lock between the main connecting frame 11 and the secondary connecting frame 12 is released. Conversely, the threaded bolt handle 14 is rotated in the opposite direction, so that the locking block 13 is reset and slids in the tube cavity of the axial tube of the main connecting frame 11, and the block in the locking block 13 re-engages with the locking groove 1201 for locking.

[0080] Since the end of the central tube of the main connecting frame 11 is sleeved and fixed with a limit ring by bolts, after the auxiliary connecting frame 12 is installed, it is assisted by the tube groove cavity to move inward and sleeve on the central tube of the main connecting frame 11. By the blocking and limiting of the limit ring in the main connecting frame 11, the auxiliary connecting frame 12 is positioned on the main connecting frame 11 in a movable state. The two together form a "V" shaped structure. Since the locking block 13 forms a rotating structure in the wide part of the tube groove cavity in the auxiliary connecting frame 12, after the main connecting frame 11 and the auxiliary connecting frame 12 are unlocked, the auxiliary connecting frame 12 forms a rotating structure on the central tube of the main connecting frame 11.

[0081] When the bottom compartment 6 and the first side compartment 7 are flipped and folded, the connecting components 10 at the corresponding positions are unlocked. Since the bottom compartment 6 has an integrated connecting seat with equal spacing on both the front and rear sides, and a shaft column is inserted and fixed to the connecting seat by bolts, and since the first side compartment 7 is symmetrical about the vertical centerline of the bottom compartment 6, the lower side of the first side compartment 7 has an integrated connecting seat with equal spacing. After the first side compartment 7 is placed on the bottom compartment 6, it is in a vertical state. Its lower connecting seat and the connecting seat in the bottom compartment 6 are set in a staggered state. The two are interlocked and locked together. The shaft column on the connecting seat in the bottom compartment 6 moves through the lower connecting seat of the first side compartment 7 and is set in a rotating state, so that the first side compartment 7 is positioned in a movable state on the bottom compartment 6. Since the size of the first side compartment 7 is less than half the size of the bottom compartment 6, the lower side of the first side compartment 7 is flipped and folded inward on the side of the bottom compartment 6 with the assistance of the shaft column.

[0082] Since both ends of the main connecting frame 11 are inserted and fixedly connected with shafts by bolts, after its installation, the outward end is movably locked in the groove of the first side panel 7, and the two shafts are respectively movably inserted into the two side walls of the groove in the first side panel 7, and are set in a rotating state. Since both ends of the auxiliary connecting frame 12 are inserted and fixedly connected with shafts by bolts, after its installation, the outward end is movably locked in the groove of the bottom panel 6, and the two shafts are respectively movably inserted into the two side walls of the groove in the bottom panel 6, and are set in a rotating state. After the first side panel 7 is flipped and folded on the bottom panel 6, the outward end of the main connecting frame 11 is flipped on the first side panel 7 with the assistance of the shafts and folded into its groove, and the outward end of the auxiliary connecting frame 12 is flipped on the bottom panel 6 with the assistance of the shafts and folded into its groove.

[0083] When the first side panel 7 and the second side panel 8 are flipped and folded, and the connecting components 10 at the corresponding positions are unlocked, the first side panel 7 has an integrated connecting seat with equal spacing on its upper side, and the second side panel 8 has an integrated connecting seat with equal spacing on its lower side. A shaft is inserted into and fixed to the lower connecting seat by bolts. After the second side panel 8 is installed, it is on the same vertical central axis as the first side panel 7. Its lower connecting seat and the upper connecting seat of the first side panel 7 are misaligned, interlocking and engaging. The shaft of the lower connecting seat movably passes through the upper connecting seat of the first side panel 7, rotating in a rotatable state, thus allowing the second side panel 8 to move. The second side panel 8 is positioned on the first side panel 7. Since the dimensions of the second side panel 8 are equal to those of the first side panel 7, the lower side of the second side panel 8 is folded outwards by means of a shaft column. The arrangement of the connecting component 10 at the connection between the bottom panel 6 and the first side panel 7 is the same as that at the connection between the first side panel 7 and the second side panel 8. After the second side panel 8 is folded on the first side panel 7, the outward end of the main connecting frame 11 is folded on the second side panel 8 by means of a shaft column and folded into its cavity. The outward end of the auxiliary connecting frame 12 is folded on the first side panel 7 by means of a shaft column and folded into its cavity.

[0084] When the second side panel 8 and the top panel 9 are flipped and folded, and the corresponding connecting components 10 are unlocked, the second side panel 8 is symmetrically arranged about the vertical centerline of the bottom panel 6. The upper side of the second side panel 8 has an integrated connecting seat at equal intervals. Similarly, the front and rear sides of the top panel 9 also have integrated connecting seats at equal intervals. A shaft is inserted into and bolted to the connecting seat. After the top panel 9 is installed, it is vertically positioned on the second side panel 8. The connecting seats and the upper connecting seats of the second side panel 8 are misaligned, interlocking and engaging. The shaft on the connecting seat moves through the upper connecting seat of the second side panel 8, rotating in a rotatable state. The top compartment 9 is positioned on the second side compartment 8 in a movable state. Since the size of the top compartment 9 is equal to that of the bottom compartment 6, the upper side of the second side compartment 8 is folded inward on the side of the top compartment 9 with the assistance of the shaft column, and the top compartment 9 is moved downward and folded. The arrangement of the connecting component 10 at the connection between the bottom compartment 6 and the first side compartment 7 is the same as the arrangement of the connecting component 10 at the connection between the second side compartment 8 and the top compartment 9. After the second side compartment 8 is folded on the top compartment 9, the outward end of the main connecting frame 11 is folded on the second side compartment 8 with the assistance of the shaft column and folded into its cavity. The outward end of the auxiliary connecting frame 12 is folded on the top compartment 9 with the assistance of the shaft column and folded into its cavity.

[0085] Based on the above, during the unfolding operation of the folding compartment 3, sealing strips are fixedly fastened to the front and rear sides of the bottom compartment 6, and sealing strips are also fixedly fastened to the upper and lower sides of the first side compartment 7, the upper and lower sides of the second side compartment 8, and the front and rear sides of the top compartment 9. When the first side compartment 7 is flipped and unfolded on the bottom compartment 6, it is locked by the connecting assembly 10. The lower sealing strip of the first side compartment 7 and the sealing strip in the bottom compartment 6 are locked together. The two sides are pressed together and sealed by a sealing strip. When the second side panel 8 is flipped and unfolded on the first side panel 7, it is locked by the connecting assembly 10. The lower sealing strip of the second side panel 8 is pressed together with the upper sealing strip of the first side panel 7 and sealed by the sealing strip. When the top panel 9 is flipped and unfolded on the second side panel 8, it is locked by the connecting assembly 10. The sealing strip in the top panel 9 is pressed together with the upper sealing strip of the second side panel 8 and sealed by the sealing strip.

[0086] When the mushroom cabin of this intelligent optimized cultivation space is in use, the moving mechanism 5 is set in the cabin cavity of the folding cabin section 3 in a symmetrical state on the left and right. It is used to adjust the position of the three-dimensional cultivation rack, adjust the passage of the growers, and make the most rational use of the space inside the mushroom cabin.

[0087] Specifically, as shown in Figures 3 and 13, integrated support columns are provided at the four corners of the lower side of the three-dimensional culture rack. Since the first moving plate 19 is horizontal after being placed, integrated tube seats are provided vertically upward at the four corners of its upper sidewall. Since the second moving plate 20 is located directly behind the first moving plate 19, its specifications and dimensions are the same as those of the first moving plate 19 and it is on the same horizontal line. After being placed, it is fixedly connected to the rear section of the bottom plate 6 by bolts and is in a horizontal state. Since the third moving plate 21 is located directly in front of the first moving plate 19, its specifications and dimensions are the same as those of the first moving plate 19 and it is on the same horizontal line. After being placed, it is fixedly connected to the front section of the bottom plate 6 by bolts and is in a horizontal state. After the three-dimensional culture rack is placed, the support columns are inserted into the tube cavity of the tube seat and are set vertically upward. With the assistance of the tube seat, the first moving plate 19, the second moving plate 20 and the third moving plate 21 are all limited and fixedly connected to the three-dimensional culture rack.

[0088] Because the bottom plate 6 is provided with an integrated shell base, the upper end of which has a sliding groove, and because the front and rear ends of the lead screw 23 are rotatably connected with bearings, the lead screw 23 is placed horizontally in the shell cavity of the bottom plate 6 after installation. One end of the lead screw 23, along with the bearing, is inserted into one side of the shell cavity wall, and the other end of the lead screw 23, along with the bearing, is inserted into the other side of the shell cavity wall. The servo motor 24 is installed and fixedly mounted on the shell cavity wall of the bottom plate 6 with bolts, in a horizontal and rearward state. The output end is inserted into and fixedly connected to the front end of the lead screw 23 with bolts. When the servo motor 24 is started, the lead screw 23 rotates in the shell cavity of the bottom plate 6 with the assistance of the bearings.

[0089] Because the longitudinal section of the drive block 22 has a "convex" shape, it is divided into a wide part and a narrow part. After the drive block 22 is installed, the wide part is movably locked in the shell cavity of the bottom plate 6, and the narrow part moves through the groove in the shell cavity of the bottom plate 6 and extends upward. The narrow part is inserted into and fixedly connected to the middle of the first moving plate 19 by bolts. After the lead screw 23 is installed, it moves through the wide part of the drive block 22, and the two are threaded together. After the ball bearing 1901 is installed, it is movably locked in the lower part of the tube seat of the first moving plate 19. At the lower end of the tube seat of the first moving disk 19, a rotating structure is formed, which is fitted to the body of the bottom plate 6. When the lead screw 23 is driven to rotate, the first moving disk 19 slides on the bottom plate 6 with the assistance of the ball bearings 1901. When the lead screw 23 rotates in the forward direction, the first moving disk 19 moves closer to the second moving disk 20, so that an artificial channel is formed between the first moving disk 19 and the third moving disk 21. Conversely, when the lead screw 23 rotates in the reverse direction, an artificial channel is formed between the first moving disk 19 and the second moving disk 20.

[0090] This is the entire working process of the mushroom chamber in the intelligent optimized cultivation space. Any content not described in detail in this manual is existing technology known to those skilled in the art.

[0091] All standard parts used in this invention can be purchased from the market, and irregular parts can be customized according to the description and drawings. The specific connection methods of each part adopt conventional methods such as bolts, rivets, and welding that are mature in the prior art. The machinery, parts and equipment adopt conventional models in the prior art, and the circuit connection adopts conventional connection methods in the prior art, which will not be described in detail here.

[0092] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A mushroom cultivation chamber with intelligent optimized cultivation space, comprising: The compartment head (1) and compartment tail (2) are arranged in a left-right correspondence, and a temperature control unit is fixedly installed on the compartment wall of the compartment head (1), and an openable and closable door is movably installed on the compartment wall of the compartment tail (2); characterized in that it further includes: a foldable compartment body (3), which is arranged between the compartment head (1) and the compartment tail (2), and is set in a foldable structural state, which reduces the volume and makes it easy to stack and store, and the foldable compartment body (3) can be increased or decreased. The quantity can be flexibly combined and adjusted to meet planting needs and expand or reduce the space of the mushroom cabin; wherein, the foldable cabin section (3) includes a bottom cabin plate (6), a first side cabin plate (7), a second side cabin plate (8) and a top cabin plate (9). The connection between the bottom cabin plate (6) and the first side cabin plate (7) is sealed with a sealing strip, and the connection between the first side cabin plate (7) and the second side cabin plate (8) is also sealed with a sealing strip, and the connection between the second side cabin plate (8) and the top cabin plate (9) is sealed with a sealing strip. The connection points are also sealed with sealing strips; wherein, the connection points between the foldable compartment body (3) and the compartment head (1), the connection points between two adjacent foldable compartment bodies (3) and the compartment tail (2) are all provided with assembly components (4) for sealing and fixing; wherein, the assembly component (4) includes an assembly frame (15), a zipper mechanism (17) and a compressed air mechanism (18), and an annular air chamber (1501) is provided on the left and right end frames of the assembly frame (15). Furthermore, a sealing airbag (16) is connected to the opening of the annular air chamber (1501), and the sealing airbag (16) is fixedly connected to the frame wall of the assembly frame (15) by bolts. A compressor (18) is provided on the front, back, upper and lower four sides of the frame wall of the assembly frame (15); a moving mechanism (5) is provided in the folding compartment body (3) in a symmetrical manner. It is used to adjust the position of the three-dimensional cultivation rack, adjust the passage of the planting personnel, and make the most reasonable use of the space inside the mushroom compartment.

2. The mushroom cultivation chamber with intelligent optimized cultivation space according to claim 1, characterized in that: The side of the bottom compartment plate (6) is connected to the lower side of the first side compartment plate (7) by means of a pivot column, and the upper side of the first side compartment plate (7) forms a flip structure on the lower side of the second side compartment plate (8) by means of a pivot column, and the upper side of the second side compartment plate (8) is connected to the side of the top compartment plate (9) by means of a pivot column. The second side compartment plate (8) and the first side compartment plate (7) are symmetrically arranged about the horizontal central axis of the bottom compartment plate (6). The connection points between the bottom compartment plate (6) and the first side compartment plate (7), the connection points between the first side compartment plate (7) and the second side compartment plate (8), and the connection points between the second side compartment plate (8) and the top compartment plate (9) are all provided with locking connection components (10) at equal intervals.

3. The mushroom cultivation chamber with intelligent optimized cultivation space according to claim 2, characterized in that: The connecting assembly (10) at the connection between the bottom deck (6) and the first side deck (7) includes a main connecting frame (11) and a secondary connecting frame (12). The outward end of the main connecting frame (11) is connected to the first side deck (7) by a pivot column, and the secondary connecting frame (12) is rotatably connected to the shaft tube of the main connecting frame (11). The outward end of the secondary connecting frame (12) is connected to the bottom deck (6) by a pivot column. A locking block (13) is slidably connected inside the cavity of the central tube section, and the middle part of the locking block (13) is rotatably connected to the end of the threaded bolt handle (14), and the bolt body of the threaded bolt handle (14) is threadedly connected to the inward end of the main connecting frame (11); wherein, the narrow side walls of the tube groove cavity of the secondary connecting frame (12) are provided with locking grooves (1201), and the locking grooves (1201) are connected to the block body of the locking block (13) by a snap-fit ​​method.

4. The mushroom cultivation chamber with intelligent optimized cultivation space according to claim 3, characterized in that: The placement of the connecting assembly (10) at the connection between the first side panel (7) and the second side panel (8) and the placement of the connecting assembly (10) at the connection between the second side panel (8) and the top panel (9) are the same as the placement of the connecting assembly (10) at the connection between the bottom panel (6) and the first side panel (7).

5. The mushroom cultivation chamber with intelligent optimized cultivation space according to claim 1, characterized in that: The left end of the assembly frame (15) at the connection between the foldable cabin body (3) and the cabin head (1) is sealed with a sealing airbag (16) on the outside of the cabin head (1), and the right end of the assembly frame (15) is sealed with a sealing airbag (16) on the outside of the foldable cabin body (3); wherein, the four outer frame walls of the assembly frame (15) are provided with a zipper mechanism (17).

6. The mushroom cultivation chamber with intelligent optimized cultivation space according to claim 5, characterized in that: The zipper mechanism (17) includes an "L"-shaped frame (1701) and a locking tongue (1703). The "L"-shaped frame (1701) forms a sliding structure on the "concave" seat in the assembly frame (15) with the assistance of a wedge-shaped strip. The transverse frame end of the "L"-shaped frame (1701) is fixedly connected to the output end of the bidirectional electric telescopic rod (1702) by bolts. The bidirectional electric telescopic rod (1702) is fixedly installed on the outer frame wall of the assembly frame (15) by bolts. In the "L"-shaped frame (1701), a locking tongue (1703) is telescopically slidably connected in the groove of the longitudinal frame, and a first spring (1704) is installed at the sliding connection between the locking tongue (1703) and the "L"-shaped frame (1701); wherein, the locking tongue (1703) on the left side of the assembly frame (15) is engaged with the bulkhead of the compartment head (1), and the locking tongue (1703) on the right side of the assembly frame (15) is engaged with the bulkhead of the folding compartment body (3).

7. The mushroom cultivation chamber with intelligent optimized cultivation space according to claim 1, characterized in that: The air compressor (18) includes an air compressor chamber (1801) and a piston (1802). The air compressor chamber (1801) is connected to the annular air chamber (1501) through an air passage. The piston (1802) is slidably connected to the chamber of the air compressor chamber (1801). A second spring (1803) is installed at the connection between the piston (1802) and the air compressor chamber (1801). The narrow part of the piston (1802) extends outward to the frame opening of the assembly frame (15). The piston (1802) on the left side of the assembly frame (15) is pushed and fitted to the hatch of the compartment head (1), and the piston (1802) on the right side of the assembly frame (15) is pushed and fitted to the hatch of the folding compartment body (3).

8. The mushroom cultivation chamber with intelligent optimized cultivation space according to claim 1, characterized in that: The connection method of the assembly component (4) at the connection between the foldable compartment body (3) and the tail (2) of the compartment body and the connection method of the assembly component (4) at the connection between two adjacent foldable compartment bodies (3) are the same as the connection method of the assembly component (4) at the connection between the foldable compartment body (3) and the head (1) of the compartment body.

9. The mushroom cultivation chamber with intelligent optimized cultivation space according to claim 1, characterized in that: The moving mechanism (5) includes a first moving disk (19), a second moving disk (20) and a third moving disk (21). The second moving disk (20) is located directly behind the first moving disk (19) and is fixedly connected to the rear section of the bottom plate (6) by bolts. The third moving disk (21) is located directly in front of the first moving disk (19) and is fixedly connected to the front section of the bottom plate (6) by bolts. The lower end of the tube seat of the first moving disk (19) is rotatably connected with a ball bearing (1901). The first moving disk (19), the second moving disk (20) and the third moving disk (21) are all fixedly connected to a three-dimensional culture rack by auxiliary limiting of the tube seat.

10. A mushroom cultivation chamber with intelligent optimized cultivation space according to claim 9, characterized in that: The first movable disk (19) forms a sliding structure on the bottom plate (6) with the assistance of ball bearings (1901). The middle part of the first movable disk (19) is fixedly connected to the narrow part of the drive block (22) by bolts. The wide part of the drive block (22) is threadedly connected to a lead screw (23), and the lead screw (23) forms a rotating structure in the shell cavity of the bottom plate (6) with the assistance of bearings. The front end of the lead screw (23) is fixedly connected to the output end of the servo motor (24) by bolts. The servo motor (24) is fixedly installed on the shell cavity wall of the bottom plate (6) by bolts.

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