A mushroom intelligent cooling and heating cabin with circulating humidity control

Abstract

The present invention discloses a mushroom intelligent cold and warm square cabin with circulation and humidity control, which relates to the field of mushroom cultivation, and includes a cabin, a cabin door, a temperature control unit and a cold and hot pipe, wherein 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 interior of the cabin is provided with a cold and hot pipe to control the temperature inside the cabin, and the interior of the cabin is provided with an atomizing humidifying pipe, 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 mushroom intelligent cold and warm square cabin with circulation and humidity control sets up the bottom of the cabin by setting a bottom support frame, which is convenient for the subsequent circulation of 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 circulation extraction pipe, so that they can move evenly in the cabin.

Description

Technical Field

[0001] The invention relates to the technical field of mushroom cultivation, and in particular to an intelligent cooling and heating square cabin for mushrooms with circulation and humidity control. Background Art

[0002] A mushroom shelter is a mushroom production plant where edible fungi are cultivated artificially and the temperature, humidity and ventilation environment can be controlled manually. The overall goal of the shelter environment system solution is to achieve unified monitoring and control of the environment and equipment in the edible fungi shelter, so as to effectively ensure the temperature, humidity, CO2 concentration and other environmental conditions for the growth of edible fungi, improve the yield and quality of edible fungi, and regulate the growth environment of mushrooms through intelligent cold and warm shelters so that they can grow stably. Although the current shelters can achieve temperature and humidity regulation, their humidification positions are fixed and the humidity uniformity in the shelters is poor.

[0003] Prior art 1 (publication number CN118000013A, Chinese patent published on May 10, 2024) An intelligent mushroom production cabin, which includes a cabin, a refrigeration module, a heating module, a humidification module, a fresh air module, an audio-visual alarm module and a control module; the control module can realize intelligent control of the refrigeration module, the heating module, the humidification module and the fresh air module, and can automatically and intelligently adjust according to the changes in the production environment of the mushrooms in the cabin, which is beneficial to ensure the mushroom yield and growth rate of the mushrooms. At the same time, by starting the module track, the slide seat can drive the drainage plate pipe to move evenly in the cabin through the linkage plate, thereby ensuring that the atomizing nozzle can evenly spray atomized water in the cabin. When the linkage plate moves, under the magnetic force of the first synchronizer and the second synchronizer, the first slider can be driven to move in the first slideway, and at the same time, the second slider can be driven to move synchronously in the second slideway, so that the suction pipe and the drainage board pipe can be kept synchronized, and the suction pipe can be used to absorb the atomized water to increase the spray distance of the atomized water and increase the advection effect of the atomized water; Prior art 2 (publication number CN217722249U, published on November 4, 2022) A mushroom smart cabin, a smart cabin designed for mushrooms, can accurately control temperature, light, humidity, and air to provide perfect growth conditions for mushrooms. Remote control system, technicians can remotely control by mobile phone, and help farmers correct mushroom growth parameters in time to ensure that mushrooms are always in the best growth environment. Within the control range set by technicians, the control parameters are automatically corrected according to weather conditions. The high-definition video system cooperates with precise sensing probes to transmit accurate temperature, humidity, and carbon dioxide concentration parameters to the cloud in real time, so that technicians can remotely view the growth of mushrooms inside the cabin in real time. The cabin is equipped with an automatic alarm function. When the relevant set data exceeds the warning set value, an alarm signal will be automatically sent to the cloud and mobile terminal.

[0004] Although the current shelters can achieve intelligent control of the environment and related humidity control effects, when performing humidification control, the humidification module is located in a part of the shelter. During the humidification process, the humidity in other locations in the shelter needs to rely on the automatic diffusion of air, which has low uniformity and efficiency. In addition, the air fluidity in the shelter is poor, and the poor air fluidity in local locations is prone to breeding mold. In addition, the bottom of the shelter directly serves as a supporting structure, and its surface is closed. The air fluidity at the bottom is poor, and the growth of mushrooms at the bottom is prone to unevenness. Summary of the invention

[0005] The purpose of the present invention is to provide a mushroom intelligent cooling and heating cabin with circulating humidity control to solve the problem proposed in the above background technology that when humidification control is performed, the humidification module is located in a part of the cabin, and the humidity in other positions in the cabin needs to rely on the automatic diffusion of air during the humidification process, which has low uniformity and efficiency, and the air fluidity in the cabin is poor. The poor air fluidity in local positions is prone to breeding mold, and the air fluidity at the bottom of the cabin is poor.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a mushroom intelligent heating and cooling cabin with circulating humidity control, comprising a cabin, a cabin door, a temperature control unit and hot and cold pipes, the cabin door is installed on the front side of the cabin, and a temperature control unit is provided on the outside of the cabin, and hot and cold pipes are installed inside the cabin to control the temperature inside the cabin, an atomizing humidification tube is provided inside the cabin, and a first movable disk is connected to the left end of the atomizing humidification tube, and the first movable disk is located inside the cabin, a first supporting column passes through the middle of the first movable disk, a rotating connection is formed between the first movable disk and the first supporting column, and a fixed connection is formed between the first supporting column and the cabin. The right end of the atomizing humidifying tube is connected to a second movable disk, and a second supporting column is passed through the middle of the second movable disk, and a fixed plate is fixed to the left side of the second supporting column and the right side of the first supporting column, and a bottom supporting frame is fixed to the surface of the fixed plate to raise the bottom of the mushrooms, and a rotation control mechanism is provided on the outer side of the second movable disk to control the rotation of the second movable disk to drive the atomizing humidifying tube to move, a water conveying mechanism is provided inside the first movable disk, a circulating extraction pipe is connected to the left side of the second movable disk, and a circulating control mechanism is provided inside the second movable disk to provide suction for the circulating extraction pipe and circulate the sucked gas back to the cabin.

[0007] To further optimize the technical solution, the water delivery mechanism includes a liquid supply connector, a delivery channel and a through groove;

[0008] The liquid supply connector is fixed on the left side of the first support column, and the interior of the first support column is designed to be hollow, and the liquid supply connector is connected to an external liquid supply system;

[0009] The delivery channel is opened inside the first movable disk and is connected to the left end of the atomizing humidifying tube, and the inner end of the delivery channel is designed to be an open structure;

[0010] The through groove is arranged on the surface of the first supporting column, and the through groove and the conveying channel are communicated with each other.

[0011] Further optimizing the technical solution, the circulation control mechanism includes a conveying channel, a through groove, a suction connector, a conveying pipe, an aspirator, a connecting channel and an air outlet;

[0012] A conveying channel is provided inside the second movable disk and is connected to the right end of the circulating extraction pipe;

[0013] The through groove is formed on the surface of the second support column, and the interior of the second support column is designed to be hollow;

[0014] A suction connector, fixed to the right end of the second support column and connected to the second support column;

[0015] The delivery pipe is installed at the right end of the suction connector;

[0016] A suction device connected to the delivery pipe to provide suction thereto;

[0017] A connecting passage is provided inside the cabin and connected to the delivery pipe;

[0018] The gas outlet is evenly arranged laterally on the front side of the connecting channel to deliver gas into the cabin.

[0019] To further optimize the technical solution, mounting heads are fixed on the right side of the first movable disk and the left side of the second movable disk, and the mounting heads and the conveying channel are connected to each other, and a rotational connection is formed between the mounting head and the circulating extraction pipe, and between the mounting head and the atomizing humidification pipe, a rotational connection is formed between the atomizing humidification pipe and the second movable disk, and a rotational connection is formed between the circulating extraction pipe and the first movable disk.

[0020] To further optimize the technical solution, a rotation mechanism is provided on the outer sides of the atomizing humidifying tube and the circulating extraction tube to control the rotation of the atomizing humidifying tube and the circulating extraction tube.

[0021] To further optimize the technical solution, the self-rotation mechanism includes a connecting gear and a gear ring;

[0022] The connecting gears are respectively fixed to the left ends of the atomizing humidifying pipe and the circulating extraction pipe to keep synchronous rotation with the atomizing humidifying pipe and the circulating extraction pipe;

[0023] The gear ring is fixed on the right side of the fixed plate, and a meshing connection is formed between the gear ring and the connecting gear.

[0024] Further optimizing the technical solution, the rotation control mechanism includes a gear block, a transmission gear, an output shaft and a motor;

[0025] The gear blocks are evenly fixed on the radial outer surface of the second movable disk;

[0026] A transmission gear is arranged on the outer side of the gear block and meshes with the gear block to form a meshing connection;

[0027] An output shaft is fixed to the middle of the transmission gear, and a rotation connection is formed between the output shaft and the cabin body;

[0028] The motor is mounted on the surface of the cabin and connected to the output shaft to control the rotation of the output shaft.

[0029] To further optimize the technical solution, a movable adjustment mechanism is provided on the front side of the air outlet to control the air outlet range of the air outlet.

[0030] To further optimize the technical solution, the movable adjustment mechanism includes a baffle, a slider, a drive block and a reciprocating screw;

[0031] A baffle, arranged at the front side of the air outlet to shield the air outlet;

[0032] A slider is fixed to the rear side of the baffle, and a left-right sliding structure is formed between the slider and the cabin body to guide the movement of the baffle;

[0033] A driving block is fixed to the front side of the slider and moves synchronously with the slider;

[0034] The reciprocating screw penetrates through the driving block and forms a threaded connection between the driving blocks, and the right end of the reciprocating screw is connected to the output shaft and keeps synchronous rotation with the output shaft.

[0035] Compared with the prior art, the present invention has the following beneficial effects:

[0036] The bottom support frame is set up to raise the bottom of the cabin, which is convenient for the subsequent circulation of air at the bottom of the mushrooms. At the same time, an opening is set on the side of the support frame to provide a moving channel for the atomizing humidification pipe and the circulating extraction pipe, so that they can move evenly in the cabin, thereby improving the humidification uniformity.

[0037] The humidification effect is provided in the cabin through the atomizing humidification tube, and the atomizing humidification tube is installed on the surface of the first movable disk and the second movable disk. The subsequent rotation of the first movable disk and the second movable disk can drive the atomizing humidification tube to rotate and move in the cabin, so that it can evenly pass around the mushrooms for humidification, thereby improving the humidification uniformity;

[0038] The liquid is supplied to the atomizing humidifying pipe through the connection between the conveying channel and the through grooves, and the through grooves are evenly distributed, so that the connection effect between the through grooves and the conveying channel can be maintained when the first movable disk and the second movable disk rotate, so that the conveying can be kept continuous;

[0039] The meshing of the connecting gear and the gear ring enables the atomizing humidifying tube to rotate with the first movable disk and the second movable disk, thereby increasing its humidification range. At the same time, the circulating extraction tube can also move to extract air from different positions, thereby making the air flow in the cabin more uniform.

[0040] The circulated gas is sent back through the air outlet, and a baffle is set on the front side of the air outlet to control the air outlet range of the air outlet. The air outlet range of the air outlet is adjusted by moving the baffle to avoid insufficient air outlet at the end of the air outlet, which is conducive to the uniform circulation of gas in the cabin. BRIEF DESCRIPTION OF THE DRAWINGS

[0041] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0042] Figure 2 It is a side view structural schematic diagram of the present invention;

[0043] Figure 3 This is a schematic diagram of the cabin structure from a top view of the present invention;

[0044] Figure 4 This is a schematic diagram of the internal structure of the cabin of the present invention;

[0045] Figure 5 It is a schematic diagram of the side section structure of the cabin body of the present invention;

[0046] Figure 6 This is a schematic diagram of the main cross-sectional structure of the cabin body of the present invention;

[0047] Figure 7 This is a schematic cross-sectional structure diagram of the first movable disk of the present invention;

[0048] Figure 8 It is a schematic diagram of the side cross-section structure of the first movable disk of the present invention;

[0049] Fig. 9 It is a schematic cross-sectional structure diagram of the second movable disk of the present invention;

[0050] Fig.10 It is a schematic diagram of the side cross-section structure of the second movable disk of the present invention;

[0051] Fig.11 It is a schematic diagram of the top-sectional structure of the connecting channel of the present invention.

[0052] In the figure: 1. Cabin body; 2. Cabin door; 3. Temperature control unit; 4. Hot and cold pipes; 5. Atomizing humidifying pipe; 6. First movable disk; 7. First support column; 8. Liquid supply connector; 9. Mounting head; 10. Delivery channel; 11. Through groove; 12. Fixed plate; 13. Bottom support frame; 14. Second movable disk; 15. Second support column; 16. Suction connector; 17. Circulating extraction pipe; 18. Delivery pipe; 19. Aspirator; 20. Connection channel; 21. Air outlet; 22. Connecting gear; 23. Gear ring; 24. Baffle; 25. Sliding block; 26. Driving block; 27. Reciprocating screw; 28. Gear block; 29. ​​Transmission gear; 30. Output shaft; 31. Motor. DETAILED DESCRIPTION

[0053] 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.

[0054] See also Figure 1-Figure 11 The present invention provides the following technical solutions: a mushroom intelligent cold and warm cabin with circulation and humidity control, comprising a cabin 1, a cabin door 2, a temperature control unit 3 and a cold and hot pipe 4, wherein the cabin door 2 is installed at the front side of the cabin 1, and the temperature control unit 3 is arranged at the outside of the cabin 1, and the cold and hot pipe 4 is installed inside the cabin 1 to control the temperature inside the cabin 1;

[0055] Embodiment 1: The invention provides a technical solution, which discloses that a misting humidifying tube 5 is arranged inside the cabin 1, and the left end of the misting humidifying tube 5 is connected to a first movable disk 6, and the first movable disk 6 is located inside the cabin 1, and a first support column 7 is passed through the middle of the first movable disk 6, and a rotation connection is formed between the first movable disk 6 and the first support column 7, and a fixed connection is formed between the first support column 7 and the cabin 1, and a second movable disk 14 is connected to the right end of the misting humidifying tube 5, and a second support column 15 is passed through the middle of the second movable disk 14, and the second support column 1 A fixing plate 12 is fixed to the left side of the first support column 5 and the right side of the first support column 7. A bottom support frame 13 is fixed to the surface of the fixing plate 12 to support the bottom of the mushroom. A rotation control mechanism is arranged on the outer side of the second movable disk 14 to control the rotation of the second movable disk 14 to drive the atomizing humidification tube 5 to move. A water body conveying mechanism is arranged inside the first movable disk 6. A circulation extraction pipe 17 is connected to the left side of the second movable disk 14, and a circulation control mechanism is arranged inside the second movable disk 14 to provide suction for the circulation extraction pipe 17 and circulate the sucked gas back to the cabin 1.

[0056] When in use, the temperature in the cabin 1 is controlled by program control in conjunction with the temperature control unit 3 and the hot and cold pipes 4. A corresponding lighting structure is arranged in the cabin 1 to control the lighting environment. When humidity adjustment is required, humidification is controlled through the atomizing humidifying tube 5. During humidification, the atomizing humidifying tube 5 can move with the rotation of the first movable disk 6 and the second movable disk 14 to adjust its humidification range. A bottom support frame 13 is arranged at the bottom of the cabin 1 to allow air at the bottom of the mushrooms to circulate, and a circulating moving space can also be provided for the atomizing humidifying tube 5. The air in the cabin 1 is extracted and circulated in conjunction with the circulating extraction tube 17. At the same time, the extracted gas can be filtered and sent back to improve the air quality. The air humidity can also be detected during circulation to provide feedback control for humidification.

[0057] The cabin body 1 can be designed as a whole by assembling a steel structure base and a polyurethane insulation board enclosure structure. The temperature control unit 3 can be controlled by an intelligent temperature control system. Each control system can control an intelligent mushroom cabin and can realize remote control. The controller signal transmission adopts wired or 4G Internet of Things form. The control system is password protected and has a sensor calibration function. The sensor's own measurement difference can be corrected by software; it has a sensor disconnection alarm function; humidification can adopt ultrasonic atomization humidification.

[0058] Embodiment 2: Based on Embodiment 1, a water body conveying mechanism is disclosed, including a liquid supply connector 8, a conveying channel 10 and a through groove 11. The liquid supply connector 8 is fixed on the left side of the first support column 7, and the interior of the first support column 7 is designed to be hollow. The liquid supply connector 8 is connected to an external liquid supply system. The conveying channel 10 is opened inside the first movable disk 6 and is connected to the left end of the atomizing humidification tube 5. The inner end of the conveying channel 10 is designed to be open. The through groove 11 is opened on the surface of the first support column 7. The through groove 11 and the conveying channel 1 0 are interconnected, the circulation control mechanism includes a conveying channel 10, a through groove 11, a suction connector 16, a conveying pipe 18, an aspirator 19, a connecting channel 20 and an air outlet 21, the conveying channel 10 is opened inside the second movable disk 14 and is connected to the right end of the circulation extraction pipe 17, the through groove 11 is opened on the surface of the second support column 15, and the interior of the second support column 15 is designed to be hollow, the suction connector 16 is fixed at the right end of the second support column 15 and is interconnected with the second support column 15, the conveying pipe 18 is installed at the suction connector 16 At the right end, the aspirator 19 is connected to the delivery pipe 18 to provide suction therefor, the connecting channel 20 is opened inside the cabin 1 and connected to the delivery pipe 18, and the gas outlet 21 is evenly opened in the front side of the connecting channel 20 to deliver gas into the cabin 1. The right side of the first movable disk 6 and the left side of the second movable disk 14 are both fixed with mounting heads 9, and the mounting heads 9 and the delivery channel 10 are interconnected, and the mounting heads 9 and the circulation extraction pipe 17 as well as the mounting heads 9 and the atomizing humidifying pipe 5 are all rotatably connected, and the atomizing humidifying pipe 5 and the second movable disk 14 are connected. A rotation connection is formed between them, a rotation connection is formed between the circulation extraction pipe 17 and the first movable disk 6, and a self-rotation mechanism is arranged on the outer side of the atomizing humidification pipe 5 and the circulation extraction pipe 17 to control the self-rotation of the atomizing humidification pipe 5 and the circulation extraction pipe 17. The self-rotation mechanism includes a connecting gear 22 and a gear ring 23. The connecting gear 22 is respectively fixed to the left end of the atomizing humidification pipe 5 and the circulation extraction pipe 17 to keep synchronous rotation with the atomizing humidification pipe 5 and the circulation extraction pipe 17. The gear ring 23 is fixed to the right side of the fixed plate 12, and a meshing connection is formed between the gear ring 23 and the connecting gear 22;

[0059] When it is necessary to control the movement of the atomizing and humidifying tube 5, the second movable disk 14 can be driven to rotate, so that it drives the atomizing and humidifying tube 5 to move, and the first movable disk 6 rotates synchronously at the same time, and the circulating extraction tube 17 will also move synchronously. When the atomizing and humidifying tube 5 and the circulating extraction tube 17 move, the connecting gear 22 drives the atomizing and humidifying tube 5 and the circulating extraction tube 17 to rotate by engaging with the ring gear 23, thereby increasing their range of movement, and when the first movable disk 6 and the second movable disk 14 rotate, the conveying channel 10 and the through groove 11 remain connected to ensure their connection effect, and the gas extracted by the circulating extraction tube 17 enters the interior of the connecting channel 20 through the conveying pipe 18, and returns to the interior of the cabin 1 through the air outlet 21.

[0060] Embodiment 3: Based on the embodiment 2, a rotation control mechanism is disclosed, which includes a tooth block 28, a transmission gear 29, an output shaft 30 and a motor 31. The tooth block 28 is evenly fixed on the radial outer surface of the second movable disk 14. The transmission gear 29 is arranged on the outer side of the tooth block 28 and is meshed with the tooth block 28. The output shaft 30 is fixed to the middle of the transmission gear 29, and the output shaft 30 and the cabin body 1 are rotationally connected. The motor 31 is installed on the surface of the cabin body 1 and is connected to the output shaft 30 to control the rotation of the output shaft 30. The front side of the air outlet 21 is provided with a movable adjustment mechanism to adjust the air outlet range of the air outlet 21. The movable adjustment mechanism includes a baffle 24, a slider 25, a driving block 26 and a reciprocating screw 27. The baffle 24 is arranged at the front side of the air outlet 21 to block the air outlet 21. The slider 25 is fixed at the rear side of the baffle 24, and a left-right sliding structure is formed between the slider 25 and the cabin body 1 to guide the movement of the baffle 24. The driving block 26 is fixed at the front side of the slider 25 and moves synchronously with the slider 25. The reciprocating screw 27 penetrates the driving block 26 and forms a threaded connection between the driving block 26, and the right end of the reciprocating screw 27 is connected to the output shaft 30, and keeps synchronous rotation with the output shaft 30.

[0061] When controlling the second movable disk 14 to rotate, the motor 31 can be started to drive the output shaft 30 and the transmission gear 29 to rotate. When rotating, the transmission gear 29 drives the second movable disk 14 to rotate by engaging with the tooth block 28. At the same time, the output shaft 30 will drive the reciprocating screw 27 to rotate. The reciprocating screw 27 drives the drive block 26 to move back and forth on its surface, so that it drives the baffle 24 to move, change the blocking position of the baffle 24 on the air outlet 21, adjust the air outlet range of the air outlet 21, and improve its air outlet uniformity.

[0062] The contents not described in detail in this specification belong to the prior art known to professional and technical personnel in this field.

[0063] 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 intelligent cold and warm cabin with circulation and humidity control, comprising a cabin (1), a cabin door (2), a temperature control unit (3) and cold and hot pipes (4), wherein the cabin door (2) is installed on the front side of the cabin (1), the temperature control unit (3) is arranged on the outside of the cabin (1), and the cold and hot pipes (4) are installed inside the cabin (1) to control the temperature inside the cabin (1); Features: The cabin (1) is provided with an atomizing humidifying tube (5), and the left end of the atomizing humidifying tube (5) is connected to a first movable disk (6), and the first movable disk (6) is located inside the cabin (1), a first support column (7) passes through the middle of the first movable disk (6), a rotational connection is formed between the first movable disk (6) and the first support column (7), and a fixed connection is formed between the first support column (7) and the cabin (1), the right end of the atomizing humidifying tube (5) is connected to a second movable disk (14), and a second support column (15) passes through the middle of the second movable disk (14), and the left side of the second support column (15) and the first movable disk (14) are connected to the second movable disk (14). A fixing plate (12) is fixed to the right side of a support column (7), a bottom support frame (13) is fixed to the surface of the fixing plate (12) to support the bottom of the mushrooms, a rotation control mechanism is arranged on the outer side of the second movable disk (14) to control the rotation of the second movable disk (14) to drive the atomizing humidification tube (5) to move, a water body conveying mechanism is arranged inside the first movable disk (6), a circulation extraction tube (17) is connected to the left side of the second movable disk (14), and a circulation control mechanism is arranged inside the second movable disk (14) to provide suction for the circulation extraction tube (17) and circulate the sucked gas back to the cabin (1); The circulation control mechanism comprises a conveying channel (10), a through groove (11), a suction connector (16), a conveying pipe (18), a suction device (19), a connecting channel (20) and an air outlet (21); A conveying channel (10) is provided inside the second movable disk (14) and is connected to the right end of the circulating extraction pipe (17); The through groove (11) is formed on the surface of the second support column (15), and the interior of the second support column (15) is designed to be hollow; A suction connector (16) fixed to the right end of the second support column (15) and connected to the second support column (15); A delivery pipe (18) mounted on the right end of the suction connector (16); A suction device (19) is connected to the delivery pipe (18) to provide suction thereto; A connecting passage (20) is provided inside the cabin (1) and is connected to the delivery pipe (18); The gas outlet (21) is evenly arranged in the transverse direction on the front side of the connecting channel (20) to deliver gas into the cabin (1); A mounting head (9) is fixed to the right side of the first movable disk (6) and the left side of the second movable disk (14), and the mounting head (9) and the conveying channel (10) are in communication with each other. A rotational connection is formed between the mounting head (9) and the circulating extraction pipe (17) as well as between the mounting head (9) and the atomizing humidification pipe (5), a rotational connection is formed between the atomizing humidification pipe (5) and the second movable disk (14), and a rotational connection is formed between the circulating extraction pipe (17) and the first movable disk (6).

2. The intelligent cooling and heating cabin for mushrooms with circulating humidity control according to claim 1, characterized in that: The water body conveying mechanism comprises a liquid supply connector (8), a conveying channel (10) and a through groove (11); A liquid supply connector (8) is fixed on the left side of the first support column (7), and the interior of the first support column (7) is designed to be hollow, and the liquid supply connector (8) is connected to an external liquid supply system; The delivery channel (10) is opened inside the first movable disk (6) and is connected to the left end of the atomizing and humidifying tube (5), and the inner end of the delivery channel (10) is designed to be an open structure; A through groove (11) is formed on the surface of the first support column (7), and the through groove (11) and the conveying channel (10) are connected to each other.

3. The intelligent cooling and heating cabin for mushrooms with circulation and humidity control according to claim 2 is characterized by: The outer sides of the atomizing and humidifying tube (5) and the circulating extraction tube (17) are provided with a rotation mechanism for controlling the rotation of the atomizing and humidifying tube (5) and the circulating extraction tube (17).

4. The intelligent cooling and heating cabin for mushrooms with circulation and humidity control according to claim 3 is characterized by: The self-rotating mechanism comprises a connecting gear (22) and a gear ring (23); A connecting gear (22) is fixed to the left ends of the atomizing humidifying pipe (5) and the circulating extraction pipe (17) respectively so as to rotate synchronously with the atomizing humidifying pipe (5) and the circulating extraction pipe (17); The gear ring (23) is fixed on the right side of the fixed plate (12), and the gear ring (23) and the connecting gear (22) are meshedly connected.

5. The intelligent cooling and heating cabin for mushrooms with circulation and humidity control according to claim 4 is characterized by: The rotation control mechanism comprises a gear block (28), a transmission gear (29), an output shaft (30) and a motor (31); The tooth blocks (28) are evenly fixed on the radial outer surface of the second movable disk (14); A transmission gear (29) is arranged on the outer side of the tooth block (28) and is meshedly connected with the tooth block (28); An output shaft (30) is fixed to the middle of the transmission gear (29), and a rotation connection is formed between the output shaft (30) and the cabin (1); The motor (31) is mounted on the surface of the cabin (1) and connected to the output shaft (30) to control the rotation of the output shaft (30).

6. The intelligent cooling and heating cabin for mushrooms with circulation and humidity control according to claim 5, characterized in that: A movable adjustment mechanism is provided on the front side of the air outlet (21) to control the air outlet range of the air outlet (21).

7. The intelligent cooling and heating cabin for mushrooms with circulation and humidity control according to claim 6 is characterized by: The movable adjustment mechanism comprises a baffle (24), a slider (25), a drive block (26) and a reciprocating screw (27); A baffle (24) is arranged at the front side of the air outlet (21) to shield the air outlet (21); A slider (25) is fixed to the rear side of the baffle (24), and a left-right sliding structure is formed between the slider (25) and the cabin (1) to guide the movement of the baffle (24); A driving block (26) is fixed to the front side of the slider (25) and moves synchronously with the slider (25); The reciprocating screw (27) passes through the driving block (26) and forms a threaded connection between the driving block (26), and the right end of the reciprocating screw (27) is connected to the output shaft (30) and keeps synchronous rotation with the output shaft (30).

Images