Mushroom cabin capable of intelligently optimizing culture space

Abstract

The invention discloses a mushroom cabin capable of intelligently optimizing a culture space, which comprises a cabin section head, folding cabin section bodies and a moving mechanism, the folding cabin section bodies are arranged between the cabin section head and the cabin section tail, the folding cabin section bodies are flexibly combined and adjusted by increasing or reducing the number of the folding cabin section bodies, and the moving mechanism is arranged between the cabin section head and the cabin section tail. The space of the mushroom cabin body is expanded or reduced according to the planting requirements, the moving mechanisms are arranged in the cabin cavity of the folding cabin section body in a bilateral symmetry mode and used for regulating and controlling the position of the three-dimensional cultivation frame, a planter passage is regulated and controlled, and the space in the mushroom cabin is reasonably utilized to the maximum extent. According to the mushroom cabin capable of intelligently optimizing the cultivation space, through the arrangement of a combined structure, flexible adjustment and expansion of the cultivation space of the mushroom cabin can be reasonably achieved according to the number of the mushroom three-dimensional cultivation frames, then different use requirements are met, in addition, automatic sealing treatment is conducted while assembling and locking are conducted, and the sealing effect at the connecting position of the combined mushroom cabin is kept.

Description

Technical Field

[0001] The present invention relates to the technical field related to mushroom cabins, and in particular to a mushroom cabin capable of intelligently optimizing cultivation space. Background Art

[0002] Mushrooms usually refer to large fleshy or gelatinous fungi fruiting bodies that are visible to the naked eye and can be picked by hand, including most edible mushrooms, wood ears, and shiitake mushrooms. Mushrooms are rich in protein, amino acids, vitamins and other nutrients, and play an important role in maintaining normal physiological functions and promoting metabolism. When cultivating edible mushrooms, in order to realize continuous cultivation of edible mushrooms throughout the year and increase the annual cultivation yield of edible mushrooms, it is necessary to carry out artificial cultivation in the mushroom cabin and artificially control the temperature, humidity and ventilation of the cultivation environment, that is, to create the most suitable cultivation environment for the growth of edible mushrooms in the mushroom cabin.

[0003] After searching the invention patent with patent number CN118872543B, a circulating humidity-controlled mushroom intelligent cold and warm square cabin is disclosed, including a cabin, a cabin door, a temperature control unit and a cold and hot pipe, the cabin door is installed on the front side of the cabin, and the outer side of the cabin is provided with a temperature control unit, and the cabin is provided with a cold and hot pipe inside to control the temperature inside the cabin, the cabin is provided with an atomizing humidifying pipe inside, and the left end of the atomizing humidifying pipe is connected with a first movable disk, and the first movable disk is located inside the cabin, and the middle part of the first movable disk is penetrated with a first support column, and a rotation connection is formed between the first movable disk and the first support column. The circulating humidity-controlled mushroom intelligent cold and warm square cabin sets up the bottom of the cabin through the setting of the bottom support frame, which is convenient for the subsequent circulation of the air at the bottom of the mushrooms, and at the same time, an opening is set on the side of the support frame to provide a moving channel for the atomizing humidifying pipe and the circulating extraction pipe, so that they can move evenly in the cabin.

[0004] Based on the above patents and the existing solutions and the actual use process, the current mushroom cabin still has some problems, such as: 1. The cabin in the above patent is the same as the existing mushroom cabin, both of which are set in a fixed structural state. However, the fixed cabin usually has a fixed structure and size, that is, the accommodation space is limited. When dealing with the placement requirements of different numbers of mushroom cultivation racks, the fixed cabin is difficult to flexibly combine and adjust, and the accommodation space cannot be expanded, which affects the scope of application; 2. In the existing mushroom cabin, the mushroom cultivation racks are usually fixedly placed on the cabin bottom plate at a certain interval, and an aisle must be reserved for the cultivation personnel to pass through. However, the fixed cultivation racks and personnel passages cannot reasonably utilize the cabin space to the greatest extent, that is, more mushrooms cannot be grown in a limited space; Therefore, we propose a mushroom cabin that intelligently optimizes the culture space in order to solve the above-mentioned problems. Summary of the invention

[0005] The purpose of the present invention is to provide a mushroom cabin with intelligent optimized culture space, so as to solve the problem that the fixed square cabin proposed in the above background technology is difficult to flexibly combine and adjust, cannot expand the accommodating space, and cannot reasonably utilize the space in the cabin to the greatest extent, thus affecting the scope of application.

[0006] To achieve the above object, the present invention provides the following technical solution: a mushroom cabin with intelligent optimization of culture space, comprising: A cabin head, wherein the cabin head and the cabin tail are arranged in a left-right corresponding state, and a temperature control unit is fixedly installed on the bulkhead of the cabin head, and a cabin door that can be opened and closed is movably installed on the bulkhead of the cabin tail; Also includes: A foldable cabin body is arranged between the cabin head and the cabin tail. It is arranged in a foldable structural state, and is easy to be stacked and stored after the volume is reduced. By increasing or reducing the number of foldable cabin bodies, it can be flexibly combined and adjusted to expand or reduce the cabin space of the mushroom cabin to meet the planting needs; Wherein, the connection between the foldable cabin section body and the cabin section head, the connection between two adjacent foldable cabin section bodies, and the connection between the foldable cabin section body and the cabin section tail are all provided with assembly components for sealing and fixing; The moving mechanism is arranged in a left-right symmetrical state in the cabin cavity of the foldable cabin section body, and is used for adjusting the position of the three-dimensional cultivation rack, adjusting the aisle for the growers, and reasonably utilizing the space in the mushroom cabin to the greatest extent.

[0007] Preferably, the foldable cabin section body comprises a bottom cabin plate, a first side cabin plate, a second side cabin plate and a top cabin plate, the side edge of the bottom cabin plate is flipped and connected with the lower side edge of the first side cabin plate with the aid of a shaft column, and the upper side edge of the first side cabin plate is flipped and connected with the lower side edge of the second side cabin plate with the aid of a shaft column, and the upper side edge of the second side cabin plate is flipped and connected with the side edge of the top cabin plate with the aid of a shaft column, and the second side cabin plate and the first side cabin plate are both arranged front-to-back symmetrically about the horizontal center axis of the bottom cabin plate; Wherein, connection components for locking are evenly spaced at the connection between the bottom deck and the first side deck, the connection between the first side deck and the second side deck, and the connection between the second side deck and the top deck; Among them, the connection between the bottom deck and the first side deck is sealed by a sealing strip, and the connection between the first side deck and the second side deck is also sealed by a sealing strip, and the connection between the second side deck and the top deck is also sealed by a sealing strip.

[0008] Preferably, the connection assembly at the connection between the bottom deck and the first side deck comprises a main connection frame and a secondary connection frame, the outward end of the main connection frame is connected to the first side deck via an axial column assisted flipping, and the secondary connection frame is rotatably connected to the axial tube portion of the main connection frame, and the outward end of the secondary connection frame is connected to the bottom deck via an axial column assisted flipping, a locking block is slidably connected in the tube cavity of the axial tube portion of the main connection frame, and the middle part of the locking block is rotatably connected to the end of the threaded bolt handle, and the bolt body of the threaded bolt handle is threadedly connected to the inward end of the main connection frame; Wherein, locking grooves are provided on both side walls of the narrow portion of the tube groove cavity in the auxiliary connecting frame, and the locking grooves are connected to the block body in the locking block in a snap-fit ​​manner.

[0009] 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 at the connection 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.

[0010] Preferably, the assembly components at the connection between the foldable cabin section body and the cabin section head include an assembly frame, a zipper mechanism and an air compression mechanism, annular air cavities are provided on the frame opening walls at both ends of the assembly frame, and a sealing air bag is provided at the cavity opening of the annular air cavity, and the sealing air bag is sealed and fixed to the frame opening wall of the assembly frame by bolts, the left end of the assembly frame is sealed and sleeved on the outside of the cabin section head, and the right end of the assembly frame is sealed and sleeved on the outside of the foldable cabin section body together with the sealing air bag; Wherein, the four outer frame walls of the assembly frame are all provided with zipper mechanisms, and the four frame opening walls of the assembly frame are all provided with air compression mechanisms.

[0011] Preferably, the zipper mechanism comprises an "L"-shaped frame and a locking tongue member, the "L"-shaped frame forms a sliding structure on the "concave"-shaped seat of the assembly frame with the assistance of a wedge-shaped strip, and the end of the transverse frame body in the "L"-shaped frame is fixedly connected to the output end of the two-way electric telescopic rod by bolts, and the two-way electric telescopic rod is fixedly installed on the outer frame wall of the assembly frame by bolts; Wherein, a locking tongue piece is telescopically and slidably connected in the groove cavity of the longitudinal frame body of the "L"-shaped frame, and a first spring is installed at the sliding connection between the locking tongue piece and the "L"-shaped frame; The locking tongue piece on the left side of the assembly frame is connected by snapping with the bulkhead of the cabin section head, and the locking tongue piece on the right side of the assembly frame is connected by snapping with the bulkhead of the foldable cabin section body.

[0012] Preferably, the air compression mechanism comprises an air compression chamber and a piston member, wherein the air compression chamber is arranged in a state of being connected with the annular air chamber through an air passage therein, a piston member is telescopically and slidably connected in the chamber of the air compression chamber, a second spring is installed at the connection between the piston member and the air compression chamber, and a narrow portion of the piston member extends outward to the frame opening of the assembly frame; The piston member on the left side of the assembly frame is connected to the hatch of the cabin head by pushing and pressing, and the piston member on the right side of the assembly frame is connected to the hatch of the foldable cabin body by pushing and pressing.

[0013] Preferably, the connection mode between the assembly components at the connection between the foldable cabin body and the cabin tail and the connection mode between the assembly components at the connection between two adjacent foldable cabin bodies are the same as the connection mode between the assembly components at the connection between the foldable cabin body and the cabin head.

[0014] Preferably, the moving mechanism comprises a first moving plate, a second moving plate and a third moving plate, wherein the second moving plate is arranged directly behind the first moving plate and is fixedly connected to the rear plate of the bottom deck by bolts, and the third moving plate is arranged directly in front of the first moving plate and is fixedly connected to the front plate of the bottom deck by bolts; The lower end of the tube seat in the first movable disk is rotatably connected with a ball, and the first movable disk, the second movable disk and the third movable disk are all fixedly connected with a three-dimensional cultivation frame through the auxiliary limiting position of the tube seat.

[0015] Preferably, the first movable plate forms a sliding structure on the bottom cabin plate with the assistance of balls, and the middle part of the first movable plate is fixedly connected to the narrow part of the driving block by bolts; Among them, a screw rod is threadedly connected to the wide part of the driving block, and the screw rod is assisted by a bearing to form a rotating structure in the shell cavity of the bottom cabin plate, and the front end of the screw rod is fixedly connected to the output end of the private service motor by bolts, and the private service motor is fixedly installed on the shell cavity wall of the bottom cabin plate by bolts.

[0016] Compared with the prior art, the beneficial effects of the present invention are as follows: the mushroom cabin with intelligent optimization of the cultivation space can realize flexible adjustment and expansion of the cultivation space of the mushroom cabin according to the number of three-dimensional mushroom cultivation racks through a modular structure setting, thereby adapting to different usage requirements. In addition, automatic sealing is performed while assembling and locking, maintaining the sealing effect of the joints of the modular mushroom cabin, and effectively preventing the invasion of pathogens and pests. 1. A foldable cabin body and an assembly component are provided. After the foldable cabin body and the cabin head are butted, the two are sealed and fixed by the assembly component. After the two adjacent foldable cabin bodies are butted, the two are also sealed and fixed by the assembly component. After the foldable cabin body and the cabin tail are butted, the two are also sealed and fixed by the assembly component. Through the combined structural setting, the foldable cabin body can be flexibly combined and split and adjusted according to the number of three-dimensional mushroom cultivation racks, that is, the cultivation and accommodation space of the mushroom cabin can be adjusted, thereby adapting to different usage requirements and reasonably utilizing the floor space. Compared with the fixed mushroom cabin, the combined mushroom cabin has higher flexibility and scalability; Furthermore, when the assembly component is performing a sealing and fixing operation, taking the docking operation of the foldable cabin section body and the cabin section head as an example, the two locking tongue members are respectively engaged and connected with the bulkhead of the cabin section head and the bulkhead of the foldable cabin section body. After the "L"-shaped frame drives the locking tongue member to slide, the two locking tongue members slide relative to each other, respectively driving the cabin section head and the foldable cabin section body to move relative to each other, so that the cabin section head and the foldable cabin section body are respectively plugged into the two sides of the assembly component, and at the same time, the two piston members are pushed to make the piston members slide in the compressed air chamber to compress the air and inflate the sealing airbag. After the two sealing airbags are expanded, they are respectively sealed at the connection between the assembly component and the cabin section head and the connection between the assembly component and the foldable cabin section body. Through the setting of the linkage structure, the automatic sealing process is performed while locking, and the sealing effect of the connection of the combined mushroom cabin is maintained, which can effectively prevent the invasion of pathogens and pests and ensure the healthy growth of mushrooms. Furthermore, the foldable cabin section body is composed of a bottom cabin plate, a first side cabin plate, a second side cabin plate and a top cabin plate. After unlocking the connection assembly, the first side cabin plate is turned inwardly and folded on the bottom cabin plate, and the second side cabin plate is turned outwardly and folded on the first side cabin plate, and the second side cabin plate is turned inwardly and folded on the top cabin plate, and the top cabin plate is folded and moved downward, so that the foldable cabin section body is turned and folded to form a plate-like structure. By setting the foldable structural state, it is easy to stack and store after reducing the volume; 2. A first movable plate, a second movable plate and a third movable plate are provided, and a three-dimensional cultivation rack is arranged on the first movable plate, the second movable plate and the third movable plate, and the three movable plates are arranged on the same horizontal line. The first movable plate is fixedly mounted on the driving block by bolts, and the driving block drives the first movable plate to slide close to the second movable plate by rotating the screw rod in the forward and reverse directions, or drives the first movable plate to slide close to the third movable plate, so as to realize the intelligent automatic position adjustment of the three-dimensional cultivation rack, optimize the cultivation space of the mushroom cabin, and form an artificial channel after adjustment to assist the planting personnel in picking; Furthermore, the first movable tray, the second movable tray and the third movable tray have the same specifications and sizes. Taking the first movable tray as an example, the front, rear, left and right corners of the upper side wall of the first movable tray are all provided with tube seat parts of an integrated structure, and the front, rear, left and right corners of the lower side of the three-dimensional cultivation rack are all provided with foot columns of an integrated structure. After the three-dimensional cultivation rack is placed, the foot columns are inserted into the tube cavity of the tube seat part, so as to realize the limited placement of the three-dimensional cultivation rack, ensure the reliability after placement, and avoid tipping over during use. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the front view of the three-dimensional structure of the present invention; Figure 2 It is a schematic diagram of the side-view stereoscopic structure of the present invention; Figure 3 It is a schematic diagram of the three-dimensional structure of the foldable cabin section body from the side of the present invention; Figure 4 It is a schematic diagram of a side cross-sectional three-dimensional structure of a first side cabin panel and a second side cabin panel connected to each other according to the present invention; Figure 5 It is a schematic diagram of the front view of the three-dimensional structure of the foldable cabin section of the present invention in a folded state; Figure 6 This is a schematic diagram of the three-dimensional structure of the split front view of the connection assembly of the present invention; Figure 7 It is a schematic diagram of a front cross-sectional three-dimensional structure of the main connecting frame and the auxiliary connecting frame of the present invention; Figure 8 This is a schematic diagram of the front view of the three-dimensional structure of the assembly component of the present invention; Fig. 9 It is a schematic diagram of a front cross-sectional three-dimensional structure of the zipper mechanism of the present invention; Fig.10 It is a schematic diagram of the front sectional three-dimensional structure of the connection between the top deck plate and the locking tongue member of the present invention when viewed from the top; Fig.11 It is a schematic diagram of the front cross-sectional three-dimensional structure of the air compression mechanism of the present invention; Fig.12 It is a schematic diagram of a front view cross-sectional three-dimensional structure of the connection between the top deck plate and the sealing airbag of the present invention; Fig.13 It is a schematic diagram of the side cross-sectional three-dimensional structure of the moving mechanism of the present invention.

[0018] In the figure: 1, cabin head; 2, cabin tail; 3, foldable cabin body; 4, assembly component; 5, moving mechanism; 6, bottom cabin plate; 7, first side cabin plate; 8, second side cabin plate; 9, top cabin plate; 10, connecting component; 11, main connecting frame; 12, auxiliary connecting frame; 1201, locking groove; 13, locking block; 14, threaded bolt handle; 15, assembly frame; 1501, annular air cavity; 16, sealing airbag; 17 , zipper mechanism; 1701, "L"-shaped frame; 1702, two-way electric telescopic rod; 1703, lock tongue member; 1704, first spring; 18, air compression mechanism; 1801, air compression chamber; 1802, piston member; 1803, second spring; 19, first movable disk; 1901, ball bearing; 20, second movable disk; 21, third movable disk; 22, drive block; 23, screw rod; 24, private service motor. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0020] See also Figure 1-Figure 13 The present invention provides a technical solution: a mushroom cabin for intelligently optimizing culture space, including a cabin head 1, a foldable cabin body 3 and a moving mechanism 5.

[0021] The mushroom cabin of the intelligent optimized cultivation space is a modular mushroom cabin, the specifications and dimensions of the foldable cabin body 3, the specifications and dimensions of the cabin head 1 and the specifications and dimensions of the cabin tail 2 are all the same, the cabin head 1 and the cabin tail 2 are arranged in a left-right corresponding state, the left and right ends of the foldable cabin body 3 are arranged in an open state, and it is placed between the cabin head 1 and the cabin tail 2, the assembly component 4 is arranged in a square frame structure as a whole, the foldable cabin body 3 is connected to the cabin head 1 with the assistance of the assembly component 4 and sealed and fixed together, the two adjacent foldable cabin bodies 3 are also connected to each other with the assistance of the assembly component 4 and sealed and fixed together, the foldable cabin body 3 is also connected to the cabin tail 2 with the assistance of the assembly component 4 and sealed and fixed together, and the foldable cabin body 3 is also connected to the cabin tail 2 with the assistance of the assembly component 4 and sealed and fixed together, and the number of foldable cabin bodies 3 is increased or decreased to make flexible combinations and adjustments, so as to realize the expansion or reduction of the cabin space of the mushroom cabin in response to the planting needs; When the foldable compartment body 3 and the compartment head 1 are sealed and fixed by the assembly component 4, the left end of the assembly component 4 is sleeved on the compartment head 1 for sealing and fixing, and the right end is sleeved on the foldable compartment body 3 for sealing and fixing. Specifically, according to Figure 1 , Figure 2 , Figure 8 , Fig. 9 , Fig.10 , Fig.11 and Fig.12 As shown, the assembly frame 15 is arranged in a square frame structure, and its left and right ends are both in an open state. After the assembly component 4 is placed, the left end of the assembly frame 15 is sleeved on the cabin head 1, and the frame cavity wall is flush with the cabin cavity wall of the cabin head 1, and the right end of the assembly frame 15 is sleeved on the foldable cabin body 3, and the frame cavity wall is flush with the cabin cavity wall of the foldable cabin body 3. Since the zipper mechanism 17 is arranged on the four sides of the front, back, upper and lower outer frame walls of the assembly frame 15, the zipper mechanism 17 is arranged in a horizontal state after being placed, and is used for locking the assembly frame 15 and the foldable cabin body 3 after being sleeved, and for synchronous locking of the assembly frame 15 and the cabin head 1 after being sleeved; Since the locking tongue piece 1703 is provided with an inclined side wall, wherein the inclined side wall is arranged outward, and since the "L"-shaped frame 1701 in the zipper mechanism 17 is arranged symmetrically with respect to the vertical central axis of the assembly frame 15, the locking tongue piece 1703 is arranged in the longitudinal frame body of the "L"-shaped frame 1701, and the inclined side walls of the left and right locking tongue pieces 1703 are arranged in opposite directions, when the assembly frame 15 is sleeved with the cabin head 1, the cabin head 1 pushes the left locking tongue piece 1703 to shrink and slide with the assistance of the inclined side wall in the left locking tongue piece 1703, and the assembly frame 15 is locked. After the assembly frame 15 is sleeved with the cabin head 1, the elastic deformation of the left first spring 1704 is used to reset the left locking tongue piece 1703, so that the left locking tongue piece 1703 is reset and slid out, and the left locking tongue piece 1703 is engaged and connected with the bulkhead of the cabin head 1. Similarly, when the assembly frame 15 is sleeved with the foldable cabin body 3, the foldable cabin body 3 pushes the right locking tongue piece 1703 to shrink and slide. After the assembly frame 15 is sleeved with the foldable cabin body 3, the elastic deformation of the right first spring 1704 is used to reset the right locking tongue piece 1703, so that the right locking tongue piece 1703 is engaged and connected with the bulkhead of the foldable cabin body 3. Since the "L"-shaped frame 1701 is divided into two parts, the horizontal frame body and the longitudinal frame body, and since the longitudinal section of the lock tongue piece 1703 is a "convex"-shaped structure, after being installed, it is movably locked in the groove cavity of the longitudinal frame body in the "L"-shaped frame 1701, and its lower end movably penetrates through the groove cavity wall and extends outward. When the lock tongue piece 1703 is pushed, the lock tongue piece 1703 shrinks and slides in the groove cavity of the longitudinal frame body in the "L"-shaped frame 1701; Since a spring bin is provided in the middle of the lock tongue member 1703, and since a first spring 1704 is installed at the sliding connection between the lock tongue member 1703 and the "L"-shaped frame 1701, the first spring 1704 is movably inserted in the spring bin of the lock tongue member 1703 after being arranged, and one end of the first spring 1704 is pressed against the wall of the spring bin, and the other end of the first spring 1704 is pressed against the end cover of the "L"-shaped frame 1701. After the lock tongue member 1703 slides and contracts, the first spring 1704 is squeezed and elastically deformed. When the lock tongue member 1703 loses the pushing, the elastic deformation of the first spring 1704 is used to reset, so as to drive the lock tongue member 1703 to reset and slide. Since the outer frame walls of the four sides of the assembly frame 15 are all provided with an integrated "concave" seat, wherein the "concave" seat is symmetrically arranged about its vertical central axis, and the groove walls on both sides of the "concave" seat are provided with a through wedge-shaped slide groove, and since the two sides of the horizontal frame body in the "L"-shaped frame 1701 are both provided with an integrated wedge-shaped strip, after being installed, the horizontal frame body is movably clamped in the "concave" seat in the assembly frame 15, and the wedge-shaped strips on both sides are respectively movably clamped in the wedge-shaped slide grooves on both sides of the "concave" seat, so that the "L"-shaped frame 1701 is positioned on the "concave" seat in the assembly frame 15 in an active state; Since the two-way electric telescopic rod 1702 is installed on the outer frame wall of the assembly frame 15 by bolts after placement, it is arranged in a horizontal state, wherein the two output ends correspond to the two "L"-shaped frames 1701 respectively, and since the output end of the two-way electric telescopic rod 1702 is plugged and connected to the horizontal frame end of the "L"-shaped frame 1701 by bolts, the two-way electric telescopic rod 1702 is started to retract and operate, and with the assistance of the wedge-shaped strip in the "L"-shaped frame 1701, the "L"-shaped frame 1701 is retracted and slid on the "concave" seat in the assembly frame 15, that is, the left and right "L"-shaped frames 1701 are retracted and slid in opposite directions; When the left "L"-shaped frame 1701 is retracted and slid, the compartment head 1 is pulled to move by utilizing the engagement between the left locking tongue piece 1703 and the compartment head 1, so that the compartment head 1 and the assembly frame 15 are further sleeved, and the engagement and locking between the two are completed. When the right "L"-shaped frame 1701 is retracted and slid, the foldable compartment body 3 is pulled to move by utilizing the engagement between the right locking tongue piece 1703 and the foldable compartment body 3, so that the foldable compartment body 3 and the assembly frame 15 are further sleeved, and the engagement and locking between the two are completed. According to the above, when the assembly component 4 is released from the fixing operation, since the upper end of the longitudinal frame body in the "L"-shaped frame 1701 is fixedly connected with the end cover by bolts, the end cover is removed to release the lock tongue member 1703, so that the zipper mechanism 17 loses its locking function, and the assembly component 4 is disassembled; Since the air compression mechanism 18 is arranged on the four side frame opening walls of the front, back, top and bottom of the assembly frame 15, the air compression mechanism 18 is arranged in a horizontal state after being installed, and is arranged symmetrically with respect to the vertical center axis of the assembly frame 15. When the cabin head 1 is sleeved and locked with the assembly frame 15, the air compression mechanism 18 at the left end is pushed and squeezed, and is used for the inflation of the left sealing airbag 16. After the left sealing airbag 16 is expanded, it is pressed and fitted to the outer side of the cabin head 1 for sealing. When the foldable cabin body 3 is sleeved and locked with the assembly frame 15, the air compression mechanism 18 at the right end is pushed and squeezed, and is used for the inflation of the right sealing airbag 16. After the right sealing airbag 16 is expanded, it is pressed and fitted to the outer side of the foldable cabin body 3 for sealing. Since the compressed air chamber 1801 is provided on the frame opening wall of the assembly frame 15, the end cover is sealed and connected to the chamber opening by bolts, and since the longitudinal section of the piston member 1802 is a "convex"-shaped structure, it is divided into two parts, a wide part and a narrow part. After being installed, the wide part is inserted into the compressed air chamber 1801, and the narrow part movably passes through the end cover of the compressed air chamber 1801 and extends outward to the frame opening of the assembly frame 15, so that the piston member 1802 is positioned in the compressed air chamber 1801 in an active state; Since the wide portion of the piston 1802 is fixedly connected with sealing rings at equal intervals, the wide portion together with the sealing rings is sealed and plugged in the compressed air chamber 1801, and since the wide portion of the piston 1802 is provided with a spring compartment, a second spring 1803 is installed at the connection between the piston 1802 and the compressed air chamber 1801. After the second spring 1803 is installed, it is movably inserted in the spring compartment of the piston 1802, one end of which is pressed against the wall of the spring compartment, and the other end of which is pressed against the wall of the compressed air chamber 1801. When the cabin head 1 is sleeved and locked with the assembly frame 15, the left piston 180 2 is connected by pushing and pressing with the hatch of the cabin head 1, that is, the cabin head 1 pushes the left piston 1802 synchronously, so that the piston 1802 shrinks and slides in the chamber of the compressed air chamber 1801, and the second spring 1803 is squeezed to elastically deform. In addition, the second spring 1803 is used for the reset, extension and sliding of the piston 1802. When the foldable cabin body 3 is sleeved and locked with the assembly frame 15, the right piston 1802 is connected by pushing and pressing with the hatch of the foldable cabin body 3, that is, the foldable cabin body 3 synchronously pushes the right piston 1802 to shrink and slide as well; Since an annular air cavity 1501 is provided on the frame opening walls at both ends of the assembly frame 15, and an open cavity opening is provided on the annular air cavity 1501, the sealing air bag 16 is provided in an annular structure, and the rear cover is provided at the cavity opening of the annular air cavity 1501, and it is clamped and fixed to the frame opening wall of the assembly frame 15 by bolt sealing, and since an air passage is provided at the cavity tail of the compressed air cavity 1801, it is provided in a connected state with the annular air cavity 1501 through the air passage, and after the piston 1802 shrinks and slides in the compressed air cavity 1801, the gas in the compressed air cavity 1801 is pressed. The extruded gas enters the annular air cavity 1501 through the air passage in the compressed air cavity 1801. After the annular air cavity 1501 supplies air to the sealing airbag 16, the sealing airbag 16 expands and deforms. When the cabin head 1 and the assembly frame 15 are sleeved and locked, the left sealing airbag 16 is sealingly sleeved on the outside of the cabin head 1 to complete the sealing process. When the foldable cabin body 3 and the assembly frame 15 are sleeved and locked, the right sealing airbag 16 is sealingly sleeved on the outside of the foldable cabin body 3 to complete the sealing process. The sealing setting can effectively prevent the invasion of pathogens and pests.

[0022] When the sealing and fixing operation between two adjacent foldable cabin section bodies 3 is performed by the assembly component 4, according to the above, the connection method of the assembly component 4 at the connection between the foldable cabin section body 3 and the cabin head 1 is the same as the connection method of the assembly component 4 at the connection between two adjacent foldable cabin section bodies 3, the left end of the assembly frame 15 is sealingly sleeved on one foldable cabin section body 3 together with the sealing air bag 16, and its frame cavity wall is flush with the cabin cavity wall of one foldable cabin section body 3, and the two are locked in an engagement, and the right end of the assembly frame 15 is sealingly sleeved on the other foldable cabin section body 3 together with the sealing air bag 16, and its frame cavity wall is flush with the cabin cavity wall of the other foldable cabin section body 3, and the two are locked in an engagement.

[0023] When the sealing and fixing operation between the foldable cabin section body 3 and the cabin tail 2 is performed by the assembly component 4, according to the above, the connection method of the assembly component 4 at the connection between the foldable cabin section body 3 and the cabin head 1 is the same as the connection method of the assembly component 4 at the connection between the foldable cabin section body 3 and the cabin tail 2, the right end of the assembly frame 15 is sealingly sleeved on the cabin tail 2 together with the sealing air bag 16, and its frame cavity wall is flush with the cabin cavity wall of the cabin tail 2, and the two are locked in an engagement, and the left end of the assembly frame 15 is sealingly sleeved on the foldable cabin section body 3 together with the sealing air bag 16, and its frame cavity wall is flush with the cabin cavity wall of the foldable cabin section body 3, and the two are locked in an engagement.

[0024] When the mushroom cabin of the intelligent optimization cultivation space is used, Figure 1 , Figure 2 , Figure 3 , Figure 8 and Fig.10As shown, the cabin head 1 and the cabin tail 2 are both arranged in a square cover-shaped structure, and a plurality of foldable cabin bodies 3, the cabin tail 2 and the cabin head 1 are combined to form a complete mushroom cabin body. Since the lower side of the cabin head 1 is provided with an integrated tripod, the lower side of the cabin tail 2 is also provided with an integrated tripod, and since the four corners of the lower side of the bottom cabin board 6 are all provided with integrated tripods, the tripod, the tripod in the cabin head 1 and the tripod in the cabin tail 2 are in the same horizontal plane and flush, the mushroom cabin is placed in a vertical state on the site through the tripod; Since the middle of the upper bulkhead of the cabin section head 1 and the middle of the upper bulkhead of the cabin section tail 2 are both provided with an integrated structure of a perforated pipe, wherein the lower side of the perforated pipe is provided with an integrated structure of an "I"-shaped track, and since the middle of the top cabin plate 9 is also provided with an integrated structure of a perforated pipe, wherein the lower side of the perforated pipe is provided with an integrated structure of an "I"-shaped track, and since the middle of the upper frame wall of the assembly frame 15 is also provided with an integrated structure of a perforated pipe, wherein the lower side of the perforated pipe is provided with an integrated structure of an "I"-shaped track, the folding After the cabin body 3, the cabin tail 2 and the cabin head 1 are assembled, the perforated pipe in the cabin head 1 is sealed and plugged with the perforated pipe in the assembly frame 15, wherein the "I"-shaped track is butted and connected with the "I"-shaped track in the assembly frame 15, the perforated pipe in the cabin tail 2 is sealed and plugged with the perforated pipe in the assembly frame 15, wherein the "I"-shaped track is butted and connected with the "I"-shaped track in the assembly frame 15, the perforated pipe in the top cabin plate 9 is sealed and plugged with the perforated pipe in the assembly frame 15, wherein the "I"-shaped track is butted and connected with the "I"-shaped track in the assembly frame 15; Since a temperature control unit is fixedly installed on the bulkhead of the cabin head 1 (the temperature control unit is a prior art and is not described in the drawings of the specification), the perforated pipe in the cabin head 1 is connected to the temperature control unit, and since the perforated pipe in the cabin tail 2 is in a closed state, the perforated pipe is used for the circulation arrangement of the airflow in the temperature control unit, so as to perform intelligent optimization and control of the temperature of the cultivation space in the mushroom cabin; Since the "I"-shaped track in the cabin head 1 is used for the movement of the atomizing humidification device (the above-mentioned atomizing humidification device is a prior art and is not described in the drawings of the specification), the humidity of the cultivation space in the mushroom cabin is intelligently optimized and regulated by the atomizing humidification device; Since the moving mechanism 5 is provided with a three-dimensional cultivation rack (the three-dimensional cultivation rack is a prior art and is not described in the drawings of the specification), the three-dimensional cultivation rack is placed in the cabin cavity of the foldable cabin body 3, and a three-dimensional cultivation method is adopted, so that more mushroom sticks or mushrooms can be planted in a limited space. In addition, since a hatch that can be opened and closed is movably installed on the wall of the cabin tail 2 (the hatch is a prior art and is not described in the drawings of the specification), it is used for entering and exiting the mushroom cabin.

[0025] The foldable cabin section body 3 in the mushroom cabin for intelligently optimizing the culture space comprises a bottom cabin board 6, a first side cabin board 7, a second side cabin board 8 and a top cabin board 9. Connection components 10 for locking are evenly spaced at the connection between the bottom cabin board 6 and the first side cabin board 7, the connection between the first side cabin board 7 and the second side cabin board 8, and the connection between the second side cabin board 8 and the top cabin board 9. After unlocking the connection components 10, the foldable cabin section body 3 is arranged in a foldable structural state, and forms a plate-like structure after folding, which is easy to stack and store after reducing the volume; When the folding operation of the foldable cabin section body 3 is performed, specifically, according to Figure 3 , Figure 4 , Figure 5 , Figure 6 and Figure 7 As shown, the inward end of the main connecting frame 11 refers to the end close to the auxiliary connecting frame 12, and 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 close to the main connecting frame 11, and the outward end is the end away from the main connecting frame 11. Since the main connecting frame 11 is provided with an integrated shaft tube portion at the rotation center position of the inward end, the bolt body of the threaded bolt handle 14 is fixedly provided with a turning handle at the outward end, and after the bolt body is installed, it can be movably inserted through the inward end of the main connecting frame 11 and extend to the shaft tube The threaded bolt handle 14 is placed inside the main connecting frame 11, and the turning handle is placed outside the main connecting frame 11. Since the inner end of the bolt body of the threaded bolt handle 14 is fixedly connected to the limiting plate by a bolt, the end of the bolt body is movably inserted through the middle of the locking block 13 after it is placed. With the help of the limiting plate, the locking block 13 is positioned on the threaded bolt handle 14 in a movable state. The turning handle of the threaded bolt handle 14 is screwed and rotated, and the bolt body of the threaded bolt handle 14 is threadedly connected with the inner end of the main connecting frame 11, and the locking block 13 is pushed to move by the threaded bolt handle 14. Since both sides of the axis tube portion of the main connecting frame 11 are provided with positioning grooves in an open state, and since the middle part of the locking block 13 is rotatably connected with the end of the threaded bolt handle 14, both sides of the locking block 13 are provided with blocks of an integrated structure, which are movably clamped in the tube cavity of the axis tube portion of the main connecting frame 11 after being placed, and the blocks on both sides thereof are movably inserted through the positioning grooves on both sides of the axis tube portion and extend outward, so that the locking block 13 is positioned on the axis tube portion of the main connecting frame 11 in an active state. After the locking block 13 is pushed and moved, the locking block 13 slides in the tube cavity of the axis tube portion of the main connecting frame 11 through the limiting effect; Since the inner end of the auxiliary connecting frame 12 is provided with a through-going tube groove cavity, wherein the longitudinal section of the tube groove cavity is a "convex"-shaped structure, divided into a wide part and a narrow part, and the length dimension of the wide part of the tube groove cavity is greater than the length dimension of the block in the locking block 13, and since both side walls of the narrow part of the tube groove cavity in the auxiliary connecting frame 12 are provided with locking grooves 1201, the length dimension of the locking grooves 1201 is greater than the length dimension 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 groove cavity in the auxiliary connecting frame 12 in an active state, and the block in the locking block 13 loses the engagement connection with the locking groove 1201. After losing the engagement, the limit lock between the main connecting frame 11 and the auxiliary connecting frame 12 is released. Conversely, the threaded bolt handle 14 is rotated in the reverse direction to make the locking block 13 reset and slide in the tube cavity of the axial tube portion of the main connecting frame 11, and the block in the locking block 13 is reengaged with the locking groove 1201 for locking; Since the end of the axial tube portion of the main connecting frame 11 is sleeved and fixedly connected to the limiting ring by bolts, the auxiliary connecting frame 12 is assisted by the tube groove cavity to be movably sleeved on the axial tube portion of the main connecting frame 11 toward the inner end after being placed, and the auxiliary connecting frame 12 is positioned on the main connecting frame 11 in an active state through the blocking and limiting of the limiting ring in the main connecting frame 11, and the combination of the two forms a "V"-shaped structure. In addition, 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 axial tube portion of the main connecting frame 11; When the bottom deck 6 and the first side deck 7 are flipped and folded, the connecting assembly 10 at the corresponding position is unlocked. Since the front and rear sides of the bottom deck 6 are evenly spaced with connecting seats of an integrated structure, wherein the connecting seats are interspersed and fixedly connected by bolts, and since the first side deck 7 is symmetrically arranged front and back about the vertical center axis of the bottom deck 6, the lower side of the first side deck 7 is evenly spaced with connecting seats of an integrated structure. After the first side deck 7 is placed, it is in a vertical state on the bottom deck 6, and its lower side connecting seat is arranged in a staggered state with the connecting seat in the bottom deck 6. The two are engaged and movably arranged together, and the shaft column on the connecting seat in the bottom deck 6 is movably inserted through the lower side connecting seat of the first side deck 7 and is arranged in a rotating state, so that the first side deck 7 is positioned on the bottom deck 6 in an active state. Since the specification size of the first side deck 7 is less than half of the specification size of the bottom deck 6, the lower side of the first side deck 7 is assisted by the shaft column to flip and fold inward at the side of the bottom deck 6; Since both ends of the main connecting frame 11 facing outward are inserted with shaft columns and fixedly connected by bolts, the outward end thereof is movably clamped in the groove cavity of the first side cabin plate 7 after being installed, and the shaft columns at both ends are movably inserted in the cavity walls on both sides of the groove cavity in the first side cabin plate 7, and are arranged in a rotating state. Since both ends of the auxiliary connecting frame 12 facing outward are inserted with shaft columns and fixedly connected by bolts, the outward end thereof is movably clamped in the groove cavity of the bottom cabin plate 6 after being installed, and the shaft columns at both ends are movably inserted in the cavity walls on both sides of the groove cavity in the bottom cabin plate 6, and are arranged in a rotating state. After the first side cabin plate 7 is flipped and folded on the bottom cabin plate 6, the outward end of the main connecting frame 11 is assisted by the shaft column to flip on the first side cabin plate 7, and is folded and stored in its groove cavity, and the outward end of the auxiliary connecting frame 12 is assisted by the shaft column to flip on the bottom cabin plate 6, and is folded and stored in its groove cavity. When the first side panel 7 and the second side panel 8 are flipped and folded, the connecting components 10 at the corresponding positions are unlocked. Since the upper side edge of the first side panel 7 is evenly spaced with connecting seats of an integrated structure, and since the lower side edge of the second side panel 8 is evenly spaced with connecting seats of an integrated structure, wherein the lower connecting seats are interspersed with an axial column and are fixedly connected by bolts, the second side panel 8 is located on the same vertical central axis as the first side panel 7 after being placed, and its lower connecting seat is arranged in an offset state with the upper connecting seat of the first side panel 7, and the two are movably engaged with each other and clamped together, and the axial column in the lower connecting seat movably passes through the upper connecting seat of the first side panel 7 and is arranged in a rotating state, so that the second side panel 8 is movable. The second side panel 7 is positioned on the first side panel 7, and since the size of the second side panel 8 is equal to the size of the first side panel 7, the lower side edge of the second side panel 8 is turned over and folded outward on the upper side edge of the first side panel 7 with the assistance of the shaft column. The arrangement method of the connecting assembly 10 at the connection between the bottom panel 6 and the first side panel 7 is the same as the arrangement method of the connecting assembly 10 at the connection between the first side panel 7 and the second side panel 8. After the second side panel 8 is turned over and folded on the first side panel 7, the outward end of the main connecting frame 11 is turned over on the second side panel 8 with the assistance of the shaft column, and is folded and stored in its groove cavity, and the outward end of the auxiliary connecting frame 12 is turned over on the first side panel 7 with the assistance of the shaft column, and is folded and stored in its groove cavity; When the second side panel 8 and the top panel 9 are flipped and folded, the connecting assembly 10 at the corresponding position is unlocked. Since the second side panel 8 is symmetrically arranged front and back about the vertical center axis of the bottom panel 6, the upper side edge of the second side panel 8 is evenly spaced with connecting seats of an integrated structure, and since the front and rear sides of the top panel 9 are evenly spaced with connecting seats of an integrated structure, wherein the connecting seats are interspersed with shaft columns and fixedly connected by bolts, the top panel 9 is arranged in a vertical state on the second side panel 8 after installation, wherein the connecting seat and the upper connecting seat of the second side panel 8 are arranged in a staggered state, and the two are engaged with each other and movably clamped together, and the shaft column on the connecting seat movably passes through the upper connecting seat of the second side panel 8 and is arranged in a rotating state, so that The top deck 9 is positioned on the second side deck 8 in an active state, and because the size of the top deck 9 is equal to that of the bottom deck 6, the upper side of the second side deck 8 is turned inwardly on the side of the top deck 9 with the assistance of the shaft column, and the top deck 9 is moved downward and folded. The arrangement method of the connecting assembly 10 at the connection between the bottom deck 6 and the first side deck 7 is the same as the arrangement method of the connecting assembly 10 at the connection between the second side deck 8 and the top deck 9. After the second side deck 8 is turned over and folded on the top deck 9, the outward end of the main connecting frame 11 is turned over on the second side deck 8 with the assistance of the shaft column, and is folded and stored in its groove cavity, and the outward end of the auxiliary connecting frame 12 is turned over on the top deck 9 with the assistance of the shaft column, and is folded and stored in its groove cavity; According to the above, when the foldable cabin section body 3 is unfolded, since the front and rear side edge ends of the bottom cabin plate 6 are fixedly connected with sealing strips, the upper and lower side edge ends of the first side cabin plate 7 are also fixedly connected with sealing strips, the upper and lower side edge ends of the second side cabin plate 8 are also fixedly connected with sealing strips, and the front and rear side edge ends of the top cabin plate 9 are also fixedly connected with sealing strips. When the first side cabin plate 7 is turned over and unfolded on the bottom cabin plate 6, it is limited and locked through the connecting component 10, and the lower side sealing strip of the first side cabin plate 7 and the sealing strip in the bottom cabin plate 6 are fixedly connected. They are connected by pressing and fitting, and sealed by a sealing strip. When the second side panel 8 is flipped over and unfolded on the first side panel 7, it is limited and locked by the connecting component 10. The lower sealing strip of the second side panel 8 and the upper sealing strip of the first side panel 7 are pressed and fitted, and sealed by a sealing strip. When the top panel 9 is flipped over and unfolded on the second side panel 8, it is limited and locked by the connecting component 10. The sealing strip in the top panel 9 and the upper sealing strip of the second side panel 8 are pressed and fitted, and sealed by a sealing strip.

[0026] When the mushroom cabin with intelligent optimization of cultivation space is in use, the moving mechanism 5 is arranged in a left-right symmetrical state in the cabin cavity of the foldable cabin section body 3, which is used to adjust the position of the three-dimensional cultivation rack, adjust the aisle for the growers, and reasonably utilize the space in the mushroom cabin to the greatest extent; Specifically, according to Figure 3 and Fig.13As shown, the four corners of the front, back, left and right sides of the lower side of the three-dimensional cultivation frame are all provided with foot columns of an integrated structure. Since the first movable plate 19 is in a horizontal state after being placed, the four corners of the front, back, left and right sides of the upper side wall are all vertically provided with a tube seat portion of an integrated structure. Since the second movable plate 20 is arranged directly behind the first movable plate 19, its specifications and dimensions are the same as those of the first movable plate 19, and are on the same horizontal line, and after being placed, it is fixedly connected to the rear section of the bottom deck plate 6 by bolts, and is in a horizontal state. Since the third movable plate 21 is arranged directly in front of the first movable plate 19, its specifications and dimensions are the same as those of the first movable plate 19, and are on the same horizontal line, and after being placed, it is fixedly connected to the front section of the bottom deck plate 6 by bolts, and is in a horizontal state, after the three-dimensional cultivation frame is placed, the foot columns are inserted into the tube cavity of the tube seat portion, and are arranged in a vertically upward state. With the assistance of the tube seat portion, the first movable plate 19, the second movable plate 20 and the third movable plate 21 are all limited and fixedly connected with the three-dimensional cultivation frame. Since a shell seat of an integrated structure is provided on the plate body of the bottom deck plate 6, wherein a slide groove is provided at the upper end of the shell seat, and since the front and rear ends of the screw rod 23 are rotatably connected with bearings, the screw rod 23 is placed in a horizontal state in the shell cavity of the bottom deck plate 6 after being placed, and one end thereof is plugged into the cavity wall on one side of the shell cavity with the bearing, and the other end thereof is plugged into the cavity wall on the other side of the shell cavity with the bearing, and since the private service motor 24 is fixedly installed on the cavity wall of the bottom deck plate 6 by bolts after being placed, it is in a horizontal backward state, wherein the output end is plugged into and fixedly connected to the front end of the screw rod 23 by bolts, and the private service motor 24 is started to operate, so that the screw rod 23 is assisted by the bearing to rotate in the shell cavity of the bottom deck plate 6; Since the longitudinal section of the driving block 22 is in a "convex" shape, it is divided into two parts, a wide part and a narrow part. After the driving block 22 is installed, the wide part is movably clamped in the shell cavity of the bottom cabin plate 6, and the narrow part movably penetrates the slide groove of the shell cavity in the bottom cabin plate 6 and extends upward, and the narrow part is plugged and fixedly connected to the middle part of the first movable plate 19 by bolts. Since the screw rod 23 is movably inserted through the wide part of the driving block 22 after installation, the two are threadedly connected together, and since the ball 1901 is movably clamped in the lower part of the tube seat part of the first movable plate 19 after installation At the end, a rotating structure is formed at the lower end of the tube seat portion in the first movable disk 19, which is fitted with the plate body of the bottom cabin plate 6. After the screw rod 23 is driven to rotate, the first movable disk 19 is assisted by the ball 1901 to slide translationally on the bottom cabin plate 6. When the screw rod 23 rotates forward, the first movable disk 19 moves close to the second movable disk 20, so that an artificial channel is formed between the first movable disk 19 and the third movable disk 21. Conversely, when the screw rod 23 rotates reversely, an artificial channel is formed between the first movable disk 19 and the second movable disk 20.

[0027] This is the entire working process of the mushroom cabin with intelligent optimization of culture space. The contents not described in detail in this specification belong to the prior art known to professional and technical personnel in this field.

[0028] The standard parts used in the present invention can all be purchased from the market, and special-shaped parts can be customized according to the instructions and the drawings. The specific connection methods of each part adopt conventional means such as mature bolts, rivets, welding, etc. in the prior art. Machinery, parts and equipment all adopt conventional models in the prior art, and the circuit connection adopts the conventional connection method in the prior art, which will not be described in detail here.

[0029] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A mushroom cabin with intelligent optimization of culture space, comprising: A cabin head (1), the cabin head (1) and the cabin tail (2) being arranged in a left-right corresponding state, a temperature control unit being fixedly mounted on the bulkhead of the cabin head (1), and a cabin door that can be opened and closed being movably mounted on the bulkhead of the cabin tail (2); It is characterized by further comprising: A foldable cabin body (3), the foldable cabin body (3) being arranged between the cabin head (1) and the cabin tail (2), and being arranged in a foldable structural state, so that the volume can be reduced and the cabin body can be easily stacked and stored, and the number of foldable cabin bodies (3) can be increased or decreased to enable flexible combination and adjustment, so as to realize expansion or reduction of the cabin body space of the mushroom cabin in response to cultivation needs; Wherein, the connection between the foldable cabin section body (3) and the cabin section head (1), the connection between two adjacent foldable cabin section bodies (3), and the connection between the foldable cabin section body (3) and the cabin section tail (2) are all provided with assembly components (4) for sealing and fixing; The moving mechanism (5) is arranged in a left-right symmetrical state in the cabin cavity of the foldable cabin section body (3), and is used for adjusting the position of the three-dimensional cultivation rack, adjusting aisles for growers, and reasonably utilizing the space in the mushroom cabin to the greatest extent.

2. The mushroom cabin with intelligent optimization of culture space according to claim 1, characterized in that: The foldable cabin section body (3) comprises a bottom cabin plate (6), a first side cabin plate (7), a second side cabin plate (8) and a top cabin plate (9), the side edge of the bottom cabin plate (6) is connected to the lower side edge of the first side cabin plate (7) by means of a shaft column, the upper side edge of the first side cabin plate (7) is connected to the lower side edge of the second side cabin plate (8) by means of a shaft column, the upper side edge of the second side cabin plate (8) is connected to the side edge of the top cabin plate (9) by means of a shaft column, and the second side cabin plate (8) and the first side cabin plate (7) are both arranged front-to-back symmetrically with respect to the horizontal center axis of the bottom cabin plate (6); Wherein, connection components (10) for locking are evenly spaced at the connection between the bottom deck (6) and the first side deck (7), the connection between the first side deck (7) and the second side deck (8), and the connection between the second side deck (8) and the top deck (9); The connection between the bottom deck (6) and the first side deck (7) is sealed by a sealing strip, the connection between the first side deck (7) and the second side deck (8) is also sealed by a sealing strip, and the connection between the second side deck (8) and the top deck (9) is also sealed by a sealing strip.

3. The mushroom cabin with intelligent optimization of culture space according to claim 2, characterized in that: The connection assembly (10) at the connection point between the bottom deck (6) and the first side deck (7) comprises a main connection frame (11) and a secondary connection frame (12), the outward end of the main connection frame (11) is connected to the first side deck (7) by means of an axial column to assist in flipping, and the secondary connection frame (12) is rotatably connected to the axial tube portion of the main connection frame (11), and the outward end of the secondary connection frame (12) is connected to the bottom deck (6) by means of an axial column to assist in flipping, a locking block (13) is slidably connected in the tube cavity of the axial tube portion of the main connection frame (11), and the middle part of the locking block (13) is rotatably connected to the end of a threaded bolt handle (14), and the bolt body of the threaded bolt handle (14) is threadedly connected to the inward end of the main connection frame (11); Wherein, locking grooves (1201) are provided on both side walls of the narrow portion of the tube groove cavity in the auxiliary connecting frame (12), and the locking grooves (1201) are connected to the block body in the locking block (13) in a snap-fit ​​manner.

4. The mushroom cabin with intelligent optimization of culture space according to claim 3, characterized in that: The arrangement of the connection assembly (10) at the connection between the first side deck (7) and the second side deck (8) and the arrangement of the connection between the second side deck (8) and the top deck (9) are the same as the arrangement of the connection assembly (10) at the connection between the bottom deck (6) and the first side deck (7).

5. The mushroom cabin with intelligent optimization of culture space according to claim 1, characterized in that: The assembly component (4) at the connection between the foldable cabin section body (3) and the cabin section head (1) comprises an assembly frame (15), a zipper mechanism (17) and an air compression mechanism (18); an annular air cavity (1501) is provided on the frame opening walls at both the left and right ends of the assembly frame (15); a sealing air bag (16) is provided at the cavity opening of the annular air cavity (1501); and the sealing air bag (16) is fixedly connected to the frame opening wall of the assembly frame (15) by bolts; the left end of the assembly frame (15) is sealedly sleeved on the outer side of the cabin section head (1), and the right end of the assembly frame (15) is sealedly sleeved on the outer side of the foldable cabin section body (3); The four outer frame walls of the assembly frame (15) are provided with zipper mechanisms (17), and the four outer frame walls of the assembly frame (15) are provided with air compression mechanisms (18).

6. The mushroom cabin with intelligent optimization of culture space according to claim 5, characterized in that: The zipper mechanism (17) comprises an "L"-shaped frame (1701) and a locking tongue member (1703); the "L"-shaped frame (1701) forms a sliding structure on a "concave"-shaped seat in the assembly frame (15) with the assistance of a wedge-shaped strip; the end of a transverse frame body in the "L"-shaped frame (1701) is fixedly connected to the output end of a bidirectional electric telescopic rod (1702) by means of bolts; and the bidirectional electric telescopic rod (1702) is fixedly mounted on the outer frame wall of the assembly frame (15) by means of bolts; Wherein, a locking tongue member (1703) is telescopically and slidably connected in the groove cavity of the longitudinal frame body in the "L"-shaped frame (1701), and a first spring (1704) is installed at the sliding connection between the locking tongue member (1703) and the "L"-shaped frame (1701); The locking tongue piece (1703) on the left side of the assembly frame (15) is connected to the bulkhead of the cabin head (1) by snapping, and the locking tongue piece (1703) on the right side of the assembly frame (15) is connected to the bulkhead of the foldable cabin body (3) by snapping.

7. The mushroom cabin with intelligent optimization of culture space according to claim 5, characterized in that: The air compression mechanism (18) comprises an air compression chamber (1801) and a piston member (1802); the air compression chamber (1801) is arranged in a state of communication with the annular air chamber (1501) via an air passage therein; the piston member (1802) is telescopically and slidably connected in the chamber of the air compression chamber (1801); a second spring (1803) is installed at the connection between the piston member (1802) and the air compression chamber (1801); and a narrow portion of the piston member (1802) extends outward to a frame opening of the assembly frame (15); The piston member (1802) on the left side of the assembly frame (15) is connected to the hatch of the cabin head (1) by pushing and fitting, and the piston member (1802) on the right side of the assembly frame (15) is connected to the hatch of the foldable cabin body (3) by pushing and fitting.

8. The mushroom cabin with intelligent optimization of culture space according to claim 5, characterized in that: The connection method of the assembly component (4) at the connection between the foldable cabin body (3) and the cabin tail (2) and the connection method of the assembly component (4) at the connection between two adjacent foldable cabin bodies (3) are the same as the connection method of the assembly component (4) at the connection between the foldable cabin body (3) and the cabin head (1).

9. The mushroom cabin with intelligent optimization of culture space according to claim 1, characterized in that: The moving mechanism (5) comprises a first moving plate (19), a second moving plate (20) and a third moving plate (21); the second moving plate (20) is arranged directly behind the first moving plate (19), and the second moving plate (20) is fixedly connected to the rear section of the bottom deck plate (6) by bolts; the third moving plate (21) is arranged directly in front of the first moving plate (19), and the third moving plate (21) is fixedly connected to the front section of the bottom deck plate (6) by bolts; The lower end of the tube seat portion in the first movable disk (19) is rotatably connected to a ball (1901), and the first movable disk (19), the second movable disk (20) and the third movable disk (21) are all fixedly connected to a three-dimensional cultivation frame through the auxiliary limiting position of the tube seat portion.

10. The mushroom cabin with intelligent optimization of culture space according to claim 9, characterized in that: The first movable plate (19) forms a sliding structure on the bottom deck (6) with the assistance of a ball bearing (1901), and the middle portion of the first movable plate (19) is fixedly connected to the narrow portion of the driving block (22) by means of bolts; The wide portion of the driving block (22) is threadedly connected to a screw rod (23), and the screw rod (23) is assisted by a bearing to form a rotating structure in the shell cavity of the bottom cabin plate (6), and the front end of the screw rod (23) is fixedly connected to the output end of the private service motor (24) by bolts, and the private service motor (24) is fixedly mounted on the shell cavity wall of the bottom cabin plate (6) by bolts.

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