An intelligent high-temperature aerobic fermentation device

Abstract

The present invention discloses a technology in the field of waste treatment, specifically an intelligent high-temperature aerobic fermentation device, which includes a high-temperature fermentation tank, a position adjustment component, a temperature monitoring component, and a telescopic component. A number of combined connection windows are symmetrically opened on the high-temperature fermentation tank, and temperature monitoring supports are inserted through the combined connection windows by threads. When it is necessary to perform a large-range temperature detection on the fermentation materials in the high-temperature fermentation tank, the control component can be used to quickly detect the temperature in the center and on the side of the materials in the high-temperature fermentation tank. When the materials in the high-temperature fermentation tank are stirred, the protective sleeve fits with the inner side wall of the high-temperature fermentation tank to avoid excessive disturbance to the protective sleeve. When the temperature sensing module is not in use, the telescopic component can be used to store the temperature sensing module, reducing the later replacement and maintenance rate of the protective sleeve, effectively improving the quality of material fermentation in the high-temperature fermentation tank, and the operation is simple and convenient.

Description

Technical Field

[0001] The present invention relates to the technical field of waste treatment, and particularly to an intelligent high-temperature aerobic fermentation device. Background Art

[0002] An intelligent high-temperature aerobic fermentation device is used for high-temperature aerobic fermentation treatment of organic wastes such as municipal sludge, kitchen waste, and livestock manure. It utilizes the activity of microorganisms to decompose and decay the organic matter in the wastes, and finally produces organic fertilizer raw materials. It is a treatment device for the harmless, stable, reduced, and resource-utilized treatment of organic wastes, mainly composed of a fermentation chamber, agitation, a hydraulic system, a temperature sensing module, feeding and lifting, high-pressure air supply, deodorization, an automatic control device, etc.

[0003] The prior art patent CN212041989U discloses a new type of distributed organic waste aerobic fermentation device, which relates to the technical field of organic waste treatment equipment. To solve the problem that the existing organic waste aerobic fermentation device has a simple structure and reduces the treatment effect, during the fermentation process of organic waste, a certain amount of heat will be generated, and a suitable temperature is also more conducive to the fermentation treatment of the waste. Therefore, it is necessary to regularly or real-time monitor the temperature changes in the fermentation chamber during the fermentation process, including the material temperatures of the upper and lower layers, the center, and the edge. The existing temperature monitoring in the fermentation tank mainly collects by horizontally inserting multiple temperature sensors on the outer wall of the fermentation tank. However, in this operation mode, when the horizontally inserted temperature sensing module is relatively long, it is easy to cause disturbance and damage to the temperature sensing module when stirring the materials in the fermentation chamber. When the length of the temperature sensing module inserted into the fermentation chamber is relatively short, it is not convenient to comprehensively measure the materials in the fermentation chamber, affecting the fermentation regulation and causing problems such as incomplete fermentation or poor quality. Summary of the Invention

[0004] The purpose of the present invention is to provide an intelligent high-temperature aerobic fermentation device to solve the problems raised in the above background art.

[0005] To achieve the above purpose, the present invention provides the following technical solution: An intelligent high-temperature aerobic fermentation device, comprising:

[0006] A high-temperature fermentation tank, on which a plurality of combined connection windows are symmetrically opened. In each of the plurality of combined connection windows, a temperature monitoring support is inserted through threads. On one side of the temperature monitoring support located inside the high-temperature fermentation tank, two flipping and positioning grooves are symmetrically opened. In the two flipping and positioning grooves, position adjustment components are movably inserted through control components respectively. Each control component includes a control rod and a worm gear, and one side of the control rod penetrates through the temperature monitoring support and is placed outside the high-temperature fermentation tank;

[0007] The position adjustment assembly includes a flipping support base and a protective sleeve. The flipping support base is movably inserted into the flipping displacement groove. One side of the control rod is movably inserted into the flipping support base. The protective sleeve is hermetically inserted into the side of the flipping support base away from the temperature monitoring support through threads.

[0008] The temperature monitoring assembly, the temperature monitoring assembly is movably inserted into the side of the protective sleeve away from the temperature monitoring support through the telescopic assembly. The temperature monitoring assembly includes a temperature sensing module. The telescopic assembly includes a pushing piston and a telescopic guide rod. And one side of the pushing piston is fixedly connected to the temperature sensing module through threads.

[0009] Preferably, a sealing extension groove is horizontally penetrated through the temperature monitoring support on one side of the flipping displacement groove. The control rod horizontally movably penetrates through the sealing extension groove. And there are multiple sealing rings between the control rod and the sealing extension groove.

[0010] Preferably, a control seat is provided on the side of the temperature monitoring support outside the high-temperature fermentation tank. On the side of the upper end of the control seat close to the control rod, bearing vertical plates are vertically provided. On one side of each bearing vertical plate, a worm gear is rotatably provided through a bearing sleeve. A control internal thread is provided in the bearing sleeve. An external thread is provided on the outer peripheral surface of one side of the control rod. And the external thread side of the control rod penetrates through the control internal thread of the thread sleeve.

[0011] Preferably, support plates are vertically and symmetrically provided on both sides of the upper end of the control seat. A synchronous worm is horizontally provided between the two support plates through a bearing. On the side of the synchronous worm close to the worm gear, worm threads are provided. And the lower ends of the two worm gears are respectively meshed and connected to the two worm threads of the synchronous worm.

[0012] Preferably, a driving bevel gear is horizontally provided at the center of the upper end of the control seat. On the side of the synchronous worm close to the driving bevel gear, driven bevel gears are sleeved. And one side of the driven bevel gear is meshed and connected to the driving bevel gear.

[0013] Preferably, the lower end of the flipping displacement groove is of an inclined structure. A positioning shaft is vertically provided on one side of the flipping displacement groove. The flipping support base is placed in the flipping displacement groove and is movably sleeved. A moving adaptation groove is provided on one side inside the flipping support base. One side of the moving adaptation groove is communicated with the side of the protective sleeve inserted into the flipping support base. One side of the control rod is inserted into the moving adaptation groove.

[0014] Preferably, arc-shaped sliding grooves are provided at the upper and lower ends on one side inside the moving adaptation groove. A stabilizing block is provided on the side of the control rod placed in the moving adaptation groove. Sliding blocks are respectively provided at the upper and lower ends of the stabilizing block. And the two sliding blocks are respectively movably inserted into the two arc-shaped sliding grooves.

[0015] Preferably, a rubber scraping sleeve is inserted and fixed on the side of the protective sleeve away from the flipping support seat. The rubber scraping sleeve is sleeved on the temperature sensing module. On the side of the protective sleeve close to the temperature sensing module, a partition guiding block is provided. A telescopic guide rod is movably inserted through the center of the partition guiding block. A pushing piston is arranged on the side of the telescopic guide rod away from the temperature sensing module. The temperature sensing module is fixedly connected to one side of the telescopic guide rod by a thread.

[0016] Preferably, a second flexible wire is provided on one side of the telescopic guide rod inserted into the temperature sensing module. A wiring plug is provided on one side of the second flexible wire. The wiring plug is electrically connected to the temperature sensing module. At the center of one side of the wiring plug, a first flexible wire is electrically connected to the second flexible wire. On the side of the protective sleeve placed in the flipping support seat, a transfer plug is hermetically inserted. One side of the first flexible wire hermetically penetrates through the center of the transfer plug.

[0017] Preferably, a groove is formed on the side of the stabilizing block close to the transfer plug. An air inlet / outlet groove is formed in the center of the control rod and communicates with the groove. An annular air groove is formed in the transfer plug. One side of the annular air groove penetrates through the transfer plug and communicates with the inside of the protective sleeve. A connecting hose is connected to the annular air groove on one side of the transfer plug. And one side of the connecting hose is placed in the groove and communicates with the air inlet / outlet groove.

[0018] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0019] Two protective sleeves that can be adjusted in position are installed on the side wall of the high-temperature fermenter through temperature monitoring supports. When it is necessary to perform a large-range temperature detection on the fermented materials in the high-temperature fermenter, the control component can be used to quickly detect the temperature at the center and the side of the materials in the high-temperature fermenter. When the materials in the high-temperature fermenter are stirred, the protective sleeves are attached to the inner side wall of the high-temperature fermenter, avoiding excessive disturbance to the protective sleeves. When the temperature sensing module is not in use, the telescopic component can be used to store the temperature sensing module, reducing the later replacement and maintenance rate of the protective sleeves, effectively improving the quality of the fermentation of the materials in the high-temperature fermenter, and the operation is simple and convenient. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic structural diagram of the present invention;

[0021] Figure 2 It is a partial schematic diagram of the temperature monitoring support setting of the present invention;

[0022] Figure 3 For the present invention Figure 2 Schematic diagram of part A;

[0023] Figure 4 It is a schematic diagram of the side cut structure of the connection of the temperature monitoring support of the present invention;

[0024] Figure 5 For the present inventionFigure 4 Schematic diagram of part B;

[0025] Figure 6 This is for the present invention Figure 5 Schematic diagram of part C;

[0026] Figure 7 This is for the present invention Figure 5 Schematic diagram of part D;

[0027] Figure 8 This is for the present invention Figure 4 Schematic diagram of part E;

[0028] Figure 9 Schematic diagram of the turning displacement groove structure of the present invention;

[0029] Figure 10 Schematic diagram of the synchronous worm connection control of the present invention;

[0030] Figure 11 This is for the present invention Figure 10 Schematic diagram of part F;

[0031] Figure 12 Explosion diagram of the connection between the protective sleeve and the turning support seat of the present invention.

[0032] In the figure: high-temperature fermentation tank 1, combined connection window 2, temperature monitoring support 3, turning displacement groove 4, positioning shaft 5, turning support seat 6, protective sleeve 7, moving adaptation groove 8, arc-shaped sliding groove 9, stabilizing block 11, slider 12, control rod 13, bearing vertical plate 14, worm gear 15, control internal thread 16, external thread 17, synchronous worm 18, driven bevel gear 20, driving bevel gear 21, protective cover 22, temperature induction module 23, pushing piston 24, telescopic guide rod 25, wiring plug 26, first flexible wire 27, adapter plug 28, annular air groove 29, connecting hose 30, air inlet and outlet groove 32, rubber scraping sleeve 33, second flexible wire 34, heat preservation layer 35. Detailed implementation manners

[0033] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0034] Please refer to the attached Figure 1-12 , and the following technical solutions are provided in this application.

[0035] An intelligent high-temperature aerobic fermentation device includes a high-temperature fermentation tank 1. A number of combined connection windows 2 are symmetrically opened on the high-temperature fermentation tank 1. Temperature monitoring supports 3 are inserted through the combined connection windows 2 by threads. On one side of the temperature monitoring supports 3 located inside the high-temperature fermentation tank 1, two turnover displacement grooves 4 are symmetrically opened. Position adjustment components are movably inserted into the two turnover displacement grooves 4 through control components respectively. The control components each include a control rod 13 and a worm gear 15. One side of the control rod 13 penetrates through the temperature monitoring support 3 and is located outside the high-temperature fermentation tank 1. A sealing extension groove is horizontally opened through the temperature monitoring support 3 on one side inside the turnover displacement groove 4. The control rod 13 horizontally movably penetrates through the sealing extension groove, and multiple sealing rings are arranged between the control rod 13 and the sealing extension groove. The control rod 13 can move horizontally through the temperature monitoring support 3. When the control rod 13 passes through the temperature monitoring support 3, the organic matter inside the high-temperature fermentation tank 1 is sealed and isolated through multiple sealing rings. The sealing material can be an elastic corrosion-resistant modified rubber material. The side wall of the high-temperature fermentation tank 1 is of a sandwich structure, and a heat insulation layer 35 is arranged inside the sandwich structure.

[0036] On one side of the temperature monitoring support 3 located outside the high-temperature fermentation tank 1, there is a control seat. On one side of the control seat close to the control rod 13, bearing vertical plates 14 are vertically arranged. Worm gears 15 are rotatably arranged on one side of each bearing vertical plate 14 through bearing sleeves. Control internal threads 16 are opened in the bearing sleeves. External threads 17 are arranged on the outer peripheral surface of one side of the control rod 13, and the external threads 17 on one side of the control rod 13 penetrate through the control internal threads 16 of the threaded sleeve. On both sides of the upper end of the control seat, support plates are vertically and symmetrically arranged. A synchronous worm 18 is horizontally arranged between the two support plates through bearings. Worm threads are arranged on one side of the synchronous worm 18 close to the worm gears 15. The lower ends of the two worm gears 15 are respectively meshed and connected with the two worm threads of the synchronous worm 18. A driving bevel gear 21 is horizontally arranged at the center of the upper end of the control seat. Driven bevel gears 20 are sleeved on one side of the synchronous worm 18 close to the driving bevel gear 21, and one side of the driven bevel gear 20 is meshed and connected with the driving bevel gear 21. A motor is arranged inside the control seat. When the motor rotates, the driven bevel gear 20 is driven to rotate through the driving bevel gear 21. At this time, the synchronous worm 18 drives the two worm gears 15, so that the two worm gears 15 horizontally pull or push the control rod 13 to realize the control operation of the internal mechanism.

[0037] In addition, a protective cover 22 is covered on one side of the temperature monitoring support 3 located outside the high-temperature fermentation tank 1 through bolts. The position of the temperature monitoring support 3 is arranged to be vertically offset from the blades for stirring and mixing inside the high-temperature fermentation tank 1, without affecting the mixing and fermentation treatment of the materials inside the high-temperature fermentation tank 1.

[0038] The position adjustment component includes a flipping support base 6 and a protective sleeve 7. The flipping support base 6 is movably inserted into the flipping displacement groove 4. One side of the control rod 13 is movably inserted into the flipping support base 6. The protective sleeve 7 is hermetically inserted into the side of the flipping support base 6 away from the temperature monitoring support 3 by means of threads. The lower end inside the flipping displacement groove 4 is of an inclined structure. A positioning shaft 5 is vertically arranged on one side inside the flipping displacement groove 4. The flipping support base 6 is placed inside the flipping displacement groove 4 and is movably sleeved with the flipping support base 6. A moving adaptation groove 8 is formed on one side inside the flipping support base 6. One side of the moving adaptation groove 8 is communicated with the side of the protective sleeve 7 inserted into the flipping support base 6. One side of the control rod 13 is inserted into the moving adaptation groove 8. The flipping support base 6 is connected to the controllable control rod 13 inside the high-temperature fermenter 1, and the movable control of the flipping support base 6 can be realized;

[0039] In addition, in order to avoid excessive contamination of the material in the high-temperature fermenter 1 to 6a and the flipping displacement groove 4, customized rubber sleeves can be provided on the side of the temperature monitoring support 3 placed inside the high-temperature fermenter 1 through hoop. The two sides of 6a sleeving the protective sleeve 7 are hermetically penetrated through the customized rubber sleeves by means of hoop, and the connection position of the flipping displacement groove 4 and 6a is shielded and protected.

[0040] Arc-shaped sliding grooves 9 are formed at both the upper and lower ends on one side inside the moving adaptation groove 8. A stabilizing block 11 is arranged on one side of the control rod 13 placed inside the moving adaptation groove 8. Sliders 12 are respectively arranged at the upper and lower ends of the stabilizing block 11, and the two sliders 12 are respectively movably inserted into the two arc-shaped sliding grooves 9. When the control rod 13 moves horizontally towards the outside of the high-temperature fermenter 1, the control rod 13 and the stabilizing block 11 move synchronously. When the slider 12 reaches the corner of the arc-shaped sliding groove 9, since the control rod 13 moves stably along the original track, at this time, under the pulling action, the two flipping support bases 6 rotate towards the side wall of the high-temperature fermenter 1 along the positioning shaft 5. The moving track of the protective sleeve 7 is a fan-shaped surface coverage, and it can be stopped at will, and the protective sleeves 7 in the same plane are arranged without interference with each other.

[0041] A temperature monitoring component is set to accurately monitor the fermentation materials in the high-temperature fermenter 1 as required. The temperature monitoring component is movably inserted into the side of the protective sleeve 7 away from the temperature monitoring support 3 through a telescopic component. The temperature monitoring component includes a temperature sensing module 23. The telescopic component includes a push piston 24 and a telescopic guide rod 25. One side of the push piston 24 is fixedly connected to the temperature sensing module 23 by a thread. On the side of the protective sleeve 7 away from the flipping support 6, a rubber scraping sleeve 33 is inserted and fixed. The rubber scraping sleeve 33 is sleeved on the temperature sensing module 23. On the side of the protective sleeve 7 close to the temperature sensing module 23, a partition guiding block is provided. The center of the partition guiding block is movably penetrated and inserted with a telescopic guide rod 25. The push piston 24 is arranged on the side of the telescopic guide rod 25 away from the temperature sensing module 23. The temperature sensing module 23 is fixedly connected to one side of the telescopic guide rod 25 by a thread. When the temperature sensing module 23 and the protective sleeve 7 are combined and used, through the threaded connection method between the temperature sensing module 23 and the telescopic guide rod 25, it is convenient for maintenance and replacement in later stages. The setting of the rubber scraping sleeve 33 can scrape the residual dry or wet fermentation waste on the surface of the temperature sensing module 23 when the temperature sensing module 23 retracts into the protective sleeve 7 during non-use, avoiding a large amount of dirt caking on the surface of the temperature sensing module 23 and affecting temperature sensing.

[0042] On one side of the telescopic guide rod 25 inserted into the temperature sensing module 23, a second flexible wire 34 is provided. On one side of the second flexible wire 34, a wiring plug 26 is provided. The wiring plug 26 is electrically connected to the temperature sensing module 23. At the center of one side of the wiring plug 26, a first flexible wire 27 is electrically connected to the second flexible wire 34. On the side of the protective sleeve 7 placed in the flipping support 6, a transfer plug 28 is hermetically inserted. One side of the first flexible wire 27 hermetically penetrates through the center of the transfer plug 28. The wiring plug 26 is always connected to an external data receiving or transmitting module through the first flexible wire 27. When the temperature sensing module 23 and the telescopic guide rod 25 are assembled, the temperature sensing module 23 can perform data output and electrical connection through the wiring plug 26.

[0043] One side of the stabilizing block 11 close to the adapter plug 28 is provided with a groove. An air inlet / outlet groove 32 is provided in the center of the control rod 13 to communicate with the groove. An annular air groove 29 is provided in the adapter plug 28. One side of the annular air groove 29 penetrates through the adapter plug 28 and is connected to the inside of the protective sleeve 7. One side of the adapter plug 28 communicating with the annular air groove 29 is provided with a connecting hose 30. One side of the connecting hose 30 is placed in the groove and is connected to the air inlet / outlet groove 32. When high-pressure gas is injected into the air inlet / outlet groove 32 of the control rod 13, the high-pressure gas causes the piston 24 and the telescopic guide rod 25 to move. The temperature sensing module 23 extends out of the protective sleeve 7 along with it for temperature sensing and monitoring. When the monitoring is completed or temporarily not required, the air inlet / outlet groove 32 performs negative pressure suction, generating negative pressure on one side of the piston 24 inside the protective sleeve 7. Under the action of the internal and external pressure difference, the protective sleeve 7 together with the piston 24 moves towards the temperature monitoring support 3 to protect the protective sleeve 7.

[0044] When performing waste fermentation treatment in the high-temperature fermentation tank 1, prepare bedding, auxiliary materials or recycled materials in advance. Bedding (i.e., fermentation strain fertilizer, which contains high-temperature biological bacteria that have been screened multiple times, with high activity and a large number, can quickly decompose organic substances, accelerate the fermentation speed, and improve the fermentation quality);

[0045] Auxiliary materials (mushroom residue, sawdust, corn straw, corn cob, peanut shell after being crushed, with 80% particle size ≤ 5mm and moisture content below 20%. According to the actual situation, the auxiliary materials are selected accordingly. The main function of the auxiliary materials is to adjust the moisture content, carbon-nitrogen ratio, etc. of the fermentation materials to make the materials reach the best fermentation conditions);

[0046] Recycled materials (i.e., the discharged materials fermented well by the fermentation equipment). If there are no recycled materials in the first mixing, auxiliary materials can be used instead. Then, use a mixer (or mix with a loader) to mix the organic waste, auxiliary materials, and recycled materials. The mixing ratio (volume ratio) is organic waste:auxiliary materials:recycled materials = 2:1:1. It is required to mix evenly. If it is not uniform, it needs to be mixed multiple times. The moisture content of the mixed materials should be between 50% - 65%. If it is not within this range, the mixing ratio can be adjusted appropriately. On the first day, add the bedding (i.e., fermentation strain fertilizer) into the high-temperature fermentation tank 1. On the second day, add a part of the mixed materials into the high-temperature fermentation tank 1. On the third day, add a part of the materials. After the fourth day, start observing the height of the materials in the high-temperature fermentation tank 1 and feed appropriately until the appropriate height is reserved in the high-temperature fermentation tank 1;

[0047] For the first few days before fermentation, it is in a static state. When starting stirring and ventilation, the auxiliary stirring operation during feeding should not exceed 30 minutes each time, and the interval should not be less than 30 minutes. After the fermentation temperature in the high-temperature fermentation tank 1 increases, the operations of stirring, fan ventilation, oxygen supply, and deodorization are coordinated. If the tank body is large, keep the temperature of the fermentation materials constant at about 55°C in the upper layer, 50°C in the middle layer, and 40°C in the lower layer. During this period, by adjusting the positions of the protective sleeve 7 and the temperature sensing module 23, the fermentation organic matter in the high-temperature fermentation tank 1 is monitored for accurate temperature in all directions, improving the fermentation quality of the waste. The number of temperature monitoring supports 3 can be set according to the size of the tank body of the high-temperature fermentation tank 1 to correspond to the number of layers.

[0048] Oxygen is continuously supplied to the materials through the high-pressure air supply system. Under the action of aerobic fermentation bacteria, the organic matter decomposes continuously, generating a large amount of heat, promoting the evaporation of water in the materials. At the same time, pathogens, parasites, and weed seeds are killed under high-temperature conditions, achieving the treatment purposes of harmlessness, reduction, and stabilization. The fermented materials can be used as raw materials for organic fertilizers, realizing resource utilization.

[0049] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An intelligent high-temperature aerobic fermentation device, characterized in that, Including: A high-temperature fermentation tank (1), on which a number of combined connection windows (2) are symmetrically opened. Temperature monitoring supports (3) are inserted through the combined connection windows (2) by threads. On one side of the temperature monitoring supports (3) located inside the high-temperature fermentation tank (1), two turnover displacement grooves (4) are symmetrically opened respectively. Position adjustment components are movably inserted into the two turnover displacement grooves (4) through control components. The control components each include a control rod (13) and a worm gear (15), and one side of the control rod (13) penetrates through the temperature monitoring support (3) and extends out of the high-temperature fermentation tank (1). The position adjustment component includes a turnover support seat (6) and a protective sleeve (7). The turnover support seat (6) is movably inserted into the turnover displacement groove (4). One side of the control rod (13) is movably inserted into the turnover support seat (6). The protective sleeve (7) is hermetically inserted into one side of the turnover support seat (6) away from the temperature monitoring support (3) by threads. A temperature monitoring component, the temperature monitoring component is movably inserted into one side of the protective sleeve (7) away from the temperature monitoring support (3) through a telescopic component. The temperature monitoring component includes a temperature sensing module (23). The telescopic component includes a push piston (24) and a telescopic guide rod (25), and one side of the push piston (24) is fixedly connected to the temperature sensing module (23) by threads.

2. The intelligent high-temperature aerobic fermentation equipment according to claim 1, wherein: On one side of the turnover displacement groove (4), a sealing extension groove is horizontally penetrated through the temperature monitoring support (3). The control rod (13) horizontally movably penetrates through the sealing extension groove, and multiple sealing rings are arranged between the control rod (13) and the sealing extension groove.

3. The intelligent high-temperature aerobic fermentation equipment according to claim 2, characterized in that: On one side of the temperature monitoring support (3) located outside the high-temperature fermentation tank (1), there is a control seat. On one side of the upper end of the control seat close to the control rod (13), bearing vertical plates (14) are vertically arranged. Worm gears (15) are rotatably arranged on one side of the bearing vertical plates (14) through bearing sleeves. Control internal threads (16) are opened in the bearing sleeves. External threads (17) are arranged on the outer peripheral surface of one side of the control rod (13), and the external threads (17) on one side of the control rod (13) penetrate through the control internal threads (16) of the thread sleeve.

4. An intelligent high-temperature aerobic fermentation device according to claim 3, characterized in that: On both sides of the upper end of the control seat, support plates are vertically and symmetrically arranged. A synchronous worm (18) is horizontally arranged between the two support plates through bearings. On one side of the synchronous worm (18) close to the worm gear (15), worm threads are arranged, and the lower ends of the two worm gears (15) are respectively meshed with the two worm threads of the synchronous worm (18).

5. An intelligent high-temperature aerobic fermentation device according to claim 4, characterized in that: A driving bevel gear (21) is horizontally arranged at the center of the upper end of the control seat. Driven bevel gears (20) are sleeved on one side of the synchronous worm (18) close to the driving bevel gear (21), and one side of the driven bevel gear (20) is meshed with the driving bevel gear (21).

6. The intelligent high-temperature aerobic fermentation equipment according to claim 5, wherein: The lower end inside the turnover displacement groove (4) is of an inclined structure. A positioning shaft (5) is vertically arranged on one side inside the turnover displacement groove (4). The turnover support base (6) is placed inside the turnover displacement groove (4) and is movably sleeved. One side inside the turnover support base (6) is provided with a moving adaptation groove (8). One side of the moving adaptation groove (8) is communicated with the side of the protection sleeve (7) inserted into the turnover support base (6). One side of the control rod (13) is inserted into the moving adaptation groove (8).

7. An intelligent high-temperature aerobic fermentation device according to claim 6, characterized in that: Arc-shaped sliding grooves (9) are respectively arranged at the upper and lower ends on one side inside the moving adaptation groove (8). A stabilizing block (11) is arranged on one side of the control rod (13) placed inside the moving adaptation groove (8). Sliders (12) are respectively arranged at the upper and lower ends of the stabilizing block (11), and the two sliders (12) are respectively movably inserted into the two arc-shaped sliding grooves (9).

8. An intelligent high-temperature aerobic fermentation device according to claim 7, characterized in that: A rubber scraping sleeve (33) is inserted and fixedly arranged on the side of the protection sleeve (7) away from the turnover support base (6). The rubber scraping sleeve (33) is sleeved on the temperature sensing module (23). A partition guiding block is arranged on one side inside the protection sleeve (7) close to the temperature sensing module (23). A telescopic guide rod (25) is movably inserted through the center of the partition guiding block. A push piston (24) is arranged on the side of the telescopic guide rod (25) away from the temperature sensing module (23). The temperature sensing module (23) is fixedly connected to one side of the telescopic guide rod (25) by threads.

9. An intelligent high-temperature aerobic fermentation device according to claim 8, characterized in that: A second flexible wire (34) is arranged on one side of the telescopic guide rod (25) inserted into the temperature sensing module (23). A wiring plug (26) is arranged on one side of the second flexible wire (34). The wiring plug (26) is electrically connected to the temperature sensing module (23). A first flexible wire (27) is electrically connected to the center of one side of the wiring plug (26) and the second flexible wire (34). A transfer plug (28) is hermetically inserted on one side of the protection sleeve (7) placed inside the turnover support base (6). One side of the first flexible wire (27) hermetically penetrates through the center of the transfer plug (28).

10. An intelligent high-temperature aerobic fermentation device according to claim 9, characterized in that: A groove is arranged on one side of the stabilizing block (11) close to the transfer plug (28). An air inlet and outlet groove (32) is arranged in the center of the control rod (13) and communicated with the groove. An annular air groove (29) is arranged inside the transfer plug (28). One side of the annular air groove (29) penetrates through the transfer plug (28) and is communicated with the inside of the protection sleeve (7). A connecting hose (30) is communicated with the annular air groove (29) on one side of the transfer plug (28), and one side of the connecting hose (30) is placed inside the groove and communicated with the air inlet and outlet groove (32).

Images