Temperature control type fermentation system

Abstract

The invention provides a temperature control type fermentation system, and belongs to the technical field of fermentation, the temperature control type fermentation system comprises a fermentation shell, an electric heating plate is arranged in the side wall of the fermentation shell, the upper part of the fermentation shell is rotatably connected with a rotating wafer X, the bottom wall surface of the rotating wafer X is provided with a falling blending part, the upper part of the rotating wafer X is rotatably connected with a discharging wafer, and the discharging wafer is provided with a discharging opening. And the upper part of the fermentation shell is provided with a fixed connection cover which is fixedly connected with the side wall of the unloading wafer. The invention solves the problems that the existing fermentation device generally adopts single raw material fermentation and is not beneficial to full blending fermentation of various kinds of raw materials, is not efficient enough and is not beneficial to execution of heating fermentation action during blending fermentation of different kinds of fermentation raw materials.

Description

Technical Field

[0001] The invention belongs to the technical field of fermentation, and in particular relates to a temperature-controlled fermentation system. Background Art

[0002] Fermentation generally refers to the process of using microorganisms to manufacture industrial raw materials or products. It is carried out under certain temperature and pH conditions by microorganisms (bacteria, yeast, etc.), organic matter (mainly carbohydrates), culture medium, etc. Generally, a fermentation tank is used, which is an industrial device used for microbial fermentation. Its main body is generally a main cylinder made of stainless steel plates. In design and processing, attention should be paid to strict and reasonable structure, certain operational flexibility, minimum internal accessories (avoid dead corners), and strong material and energy transfer performance.

[0003] However, current fermentation devices generally ferment single raw materials. During the fermentation period, when different types of fermentation raw materials are mixed together, it is not conducive to the full mixing and fermentation of various types of raw materials, which is not efficient and is not conducive to the execution of heating fermentation. Therefore, a temperature-controlled fermentation system is proposed. Summary of the Invention

[0004] The present invention provides a temperature-controlled fermentation system, which aims to solve the problem that current fermentation devices generally ferment single raw materials, and during the fermentation period when different types of fermentation raw materials are mixed together, it is not conducive to the sufficient mixing and fermentation of various types of raw materials, is not efficient, and is not conducive to the execution of heating fermentation actions.

[0005] An embodiment of the present invention provides a temperature-controlled fermentation system, comprising a fermentation shell, wherein an electric heating plate is installed in the side wall of the fermentation shell, the upper portion of the fermentation shell is screwed to a rotating disc X, the bottom wall of the rotating disc X is installed with a falling mixing portion, the upper portion of the rotating disc X is screwed to a discharge disc, and the upper portion of the fermentation shell is installed with a fixed cover fixed to the side wall of the discharge disc;

[0006] A rotating power unit for driving the rotating disc X to rotate is arranged between the upper part of the fermentation shell and the fermentation shell;

[0007] The discharge disc and the rotating disc X are provided with a staged conduction discharge portion, which includes a plurality of discharge cavities arranged at equal intervals in a circular shape on the bottom wall of the discharge disc. The discharge cavities are curved in structure. The rotating disc X is provided with discharge holes that penetrate and are arranged at equal intervals in a circular shape. The discharge holes and discharge cavities are adapted to each other. A delivery shell adapted to the discharge cavities is provided on the upper part of the discharge disc.

[0008] The falling mixing part includes a connecting rod fixedly connected to the lower wall of the rotating disc X. The lower part of the connecting rod is screwed to the fermentation shell. The lower wall of the rotating disc X is equipped with a plurality of multi-directional connecting parts. The plurality of multi-directional connecting parts and the unloading hole are adapted to be connected to each other. The lower part of the multi-directional connecting part is equipped with a discharge channel connected to the multi-directional connecting part. The side of the discharge channel closer to the connecting rod is reserved with a plurality of discharge outlets arranged in sequence from high to low. The discharge channel is equipped with a discharge sprinkling part. The connecting rod is connected to the high and low displacement platform. The upper part of the high and low displacement platform is an umbrella-shaped structure to prevent raw materials from gathering on the upper part of the high and low displacement platform. The side wall of the high and low displacement platform and the lower part of the discharge channel are pinned with a deflection rod. During the high and low displacement of the high and low displacement platform, the discharge channel is deflected by pulling through the deflection rod. The inner wall of the fermentation shell is provided with a high and low power part that drives the high and low displacement platform to move up and down. The lower part of the high and low displacement platform and the side wall of the multi-directional connecting part are provided with a rotating mixing part.

[0009] Furthermore, the height power part includes a height displacement ring that is slidably connected to the inner wall of the fermentation shell. The inner ring of the height displacement ring reserves a circular cavity. The lower part of the height displacement platform reserves a circular support rod. The end of the support rod farther from the height displacement platform is slidably connected to the circular cavity. The upper part of the height displacement ring is provided with traction rods that are equidistantly arranged in a circular shape. The upper parts of several traction rods pass through the upper part of the fermentation shell and are together provided with traction rings. The fixed cover is provided with a linear module that drives the traction ring to move up and down.

[0010] Furthermore, the rotating mixing part includes several movable rods 1 fixedly connected to the side wall of the connecting rod and arranged in a circle. The lower pin of the high and low displacement platform is connected to the disturbance rod. The disturbance rod and the movable rod 1 are adapted to each other. The lower part of the disturbance rod is slidably connected to the movable rod 1 through the displacement guide unit. A vertical movable rod X is arranged under the movable rod 1.

[0011] Furthermore, the displacement guide unit includes an assembly seat pinned to the lower part of the disturbance rod, and the assembly seat is screwed with the translation rods installed in high and low mirror images. A penetration space is formed between the two translation rods and the assembly seat, and the movable rod is inserted into the penetration space.

[0012] Furthermore, the side wall of the forward moving rod has a triangular cross section, the upper and lower ends of the movable rod 1 are both triangular structures, and the triangular spaces on the two forward moving rods are respectively embedded in the adapted side wall on the movable rod 1.

[0013] Furthermore, the discharging and throwing part is composed of a plurality of curved protruding platforms, which are fixedly connected to the inner wall of the discharge channel on the side closer to the connecting rod, and the plurality of curved protruding platforms and the plurality of discharge ports are staggered from high to low.

[0014] Furthermore, the rotating power unit includes a ring body with a pre-set tooth gap fixedly connected to the rotating disc X, the upper part of the fermentation shell is screwed to a traction column, the traction column is fixedly connected to a disc 1 with a pre-set tooth gap on the side wall that engages with the ring body, and the upper part of the traction column is screwed through the fixed cover.

[0015] Furthermore, a rod body is arranged on the side of the disturbance rod farther from the connecting rod.

[0016] Furthermore, a sphere is installed at the lower part of the vertical movable rod X, and the sphere rotates at the lower part of the inner wall of the fermentation shell.

[0017] Furthermore, the upper portion of the elevation platform is an umbrella-shaped structure.

[0018] The beneficial effects of the present invention are:

[0019] 1. The present invention actively discharges the raw materials periodically and mixes and ferments them by themselves through the cooperation among the stage-conducting discharge part, the rotating power part and the falling mixing part. During the period when the raw materials are delivered to the fermentation shell, the raw materials are mixed in multiple ways, including the first stage mixing, the second stage throwing mixing, the deflected throwing mixing in the discharge channel and the final stage circular mixing. The raw materials are mixed in multiple directions and in multiple ways during the falling period. When the electric heating plate, temperature sensor, industrial control computer and various structures cooperate, the raw materials are fully and efficiently mixed with each other while the temperature is controlled, which is beneficial to fermentation.

[0020] 2. The present invention can pull the high and low displacement platform to move up and down through the high and low power parts, so that the unloading channel can perform deflection action and change the position of the disturbance rod, and the central area of the connecting rod can be supported by the supporting rod and the high and low displacement platform, so that the connecting rod, deflection rod and unloading channel can rotate more smoothly, achieving a dual effect.

[0021] 3. The disturbance rod in the rotary mixing part of the present invention changes its position as the elevation platform moves when the elevation platform is at the high and low positions, so that the activity area of the disturbance rod is wider, which is conducive to efficient mixing and fermentation.

[0022] Other features and advantages of the present invention will be described in the following description, and in part will become apparent from the description, or will be understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained through the structures particularly pointed out in the description and the drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0024] Figure 1 Schematic diagram of the structure of an embodiment of the present invention;

[0025] Figure 2 For the embodiment of the present invention Figure 1 Schematic diagram of the structure after the fermentation shell and the fixed cover are hidden;

[0026] Figure 3 This is a structural diagram of the rotating power unit and the falling mixing unit according to an embodiment of the present invention;

[0027] Figure 4 For the embodiment of the present invention Figure 3 Schematic diagram of the structure at X;

[0028] Figure 5 This is a schematic diagram of the unloading disc, rotating disc X, and delivery shell structure of an embodiment of the present invention;

[0029] Figure 6 For the embodiment of the present invention Figure 1 Schematic diagram of cross-section structure;

[0030] Figure 7 For the embodiment of the present invention Figure 6 Schematic diagram of the structure at Y;

[0031] Reference numerals: 11, electric heating plate; 12, fermentation shell; 13, rotating disc X; 14, falling mixing unit; 141, connecting rod; 142, multi-directional connecting piece; 143, discharge channel; 144, discharge port; 145, discharge and throwing unit; 1451, curved protruding platform; 146, height displacement platform; 147, deflection rod; 148, height displacement power unit; 1481, height displacement ring; 1483, ring-shaped cavity; 1484, supporting rod; 1485, traction rod; 1486. Traction ring; 149. Rotating mixing unit; 1491. Movable rod 1; 1492. Disturbing rod; 1493. Vertical movable rod X; 14101. Assembly seat; 14102. Shifting rod; 14103. Rod body; 15. Discharging disc; 16. Connecting cover; 17. Rotating power unit; 171. Ring body; 172. Traction column; 173. Disc 1; 18. Staged conduction discharging unit; 181. Unloading cavity; 182. Unloading hole; 183. Delivery shell. DETAILED DESCRIPTION

[0032] In order to make the purpose, technical solution and advantages of the technical solution of the present invention clearer, the technical solution of the embodiment of the present invention will be clearly and completely described below in conjunction with the drawings of specific embodiments of the present invention. The same figure marks in the drawings represent the same components. It should be noted that the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the described 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.

[0033] Reference Figure 1-7 The embodiment of the present invention provides a temperature-controlled fermentation system, which includes a fermentation shell 12, an electric heating plate 11 is installed in the side wall of the fermentation shell 12, the upper part of the fermentation shell 12 is screwed to a rotating disc X13, the bottom wall of the rotating disc X13 is installed with a falling mixing part 14, the upper part of the rotating disc X13 is screwed to a discharging disc 15, and the upper part of the fermentation shell 12 is installed with a fixed cover 16 fixed to the side wall of the discharging disc 15; a rotating power part 17 for driving the rotating disc X13 to rotate is installed between the upper part of the fermentation shell 12 and the fermentation shell 12, and the fermentation shell 12 can be installed with a temperature sensor and an externally installed industrial control computer to control the temperature during mixing and fermentation. The connection between the electric heating plate 11, the temperature sensor and the industrial control computer is a prior art and does not need to be elaborated on.

[0034] A stage-conducting unloading portion 18 is installed on the unloading disc 15 and the rotating disc X13. The stage-conducting unloading portion 18 includes a plurality of unloading cavities 181 arranged at equal intervals in a circle on the bottom wall of the unloading disc 15. The unloading cavity 181 is a curved structure. The rotating disc X13 is reserved with unloading holes 182 that penetrate and are arranged at equal intervals in a circle. The unloading holes 182 and the unloading cavities 181 are adapted to each other. A delivery shell 183 adapted to the unloading cavity 181 is installed on the upper part of the unloading disc 15.

[0035] A discharge channel is reserved at the bottom of the fermentation shell 12 for discharging the mixed and fermented raw materials.

[0036] The rotating disc X13 is rotated by being pulled by the rotating power unit 17. During the rotation of the rotating disc X13, each unloading hole 182 is periodically connected to a number of unloading chambers 181 arranged at equal intervals, and various raw materials are delivered from a number of delivery shells 183 into the unloading chamber 181 connected to the delivery shells 183. During the period when the unloading hole 182 and the unloading chamber 181 are connected, the raw materials in the unloading chamber 181 are moved to the unloading hole 182. The unloading chamber 181 has a curved structure, thereby increasing the duration of the connection between the unloading hole 182 and the unloading chamber 181 during the rotation of the rotating disc X13, thereby increasing the delivery volume of the raw materials during the period when the unloading chamber 181 and the unloading hole 182 are connected.

[0037] The rotary power unit 17 includes a ring body 171 with a pre-set toothed portion fixedly connected to the rotating disc X13. The upper portion of the fermentation shell 12 is screwed to a traction column 172. The traction column 172 is fixedly connected to a disc 173 with a pre-set toothed portion on the side wall that engages with the ring body 171. The upper portion of the traction column 172 is screwed through the fixed cover 16 and connected to the motor X installed on the fixed cover 16. The motor X rotates the traction column 172. The traction column 172 rotates the rotating disc X13 through the engagement of the disc 173 and the ring body 171. During the rotation, the rotating disc X13 pulls the mixing unit 14 downward to rotate and mix the raw materials.

[0038] The falling mixing part 14 includes a connecting rod 141 fixedly connected to the lower wall of the rotating disc X13, the lower part of the connecting rod 141 is screwed to the fermentation shell 12, and a plurality of multi-directional connecting parts 142 are installed on the lower wall of the rotating disc X13. The multi-directional connecting part 142 is composed of an intermediate platform connected to the lower part of the rotating disc X13 and a hollow spherical shell screwed to the intermediate platform. The upper part of the hollow spherical shell is open, and a plurality of multi-directional connecting parts 142 and the unloading hole 182 are adapted and connected to each other. The lower part of the multi-directional connecting part 142 is provided with a discharge channel 143 connected to the multi-directional connecting part 142, that is, connected to the hollow spherical shell. The discharge channel 143 is closer to the connecting rod 141 and is reserved for sequential arrangement from high to low. There are several discharge outlets 144, and a discharge sprinkling part 145 is installed in the discharge channel 143. The connecting rod 141 is connected to the height displacement platform 146. The upper part of the height displacement platform 146 is an umbrella-shaped structure to prevent the raw materials from gathering on the upper part of the height displacement platform 146. The side wall of the height displacement platform 146 and the lower part of the discharge channel 143 are pinned with a deflection rod 147. During the height displacement of the height displacement platform 146, the discharge channel 143 is deflected by the deflection rod 147. The inner wall of the fermentation shell 12 is provided with a height power part 148 that drives the height displacement platform 146 to move up and down, and the lower part of the height displacement platform 146 and the side wall of the multi-directional connecting member 142 are provided with a rotating mixing part 149.

[0039] At the beginning, the unloading channel 143 is in an oblique shape, and the rotating disc X13 pulls the connecting rod 141 to rotate during the rotation. The connecting rod 141 pulls the height displacement platform 146, the deflection rod 147, the unloading channel 143 and the multi-directional connecting member 142 to rotate. Each unloading hole 182 is periodically connected to the several unloading chambers 181 arranged in a circle, thereby allowing the various raw materials in the various unloading chambers 181 to be periodically displaced to the unloading holes 182 in sequence, and then displaced from the multi-directional connecting member 142 to the unloading channel 143. Several types of raw materials are mixed in the first stage in the unloading channel 143. After the raw materials are displaced to the unloading channel 143, they are discharged from several unloading outlets 144 under the uniform distribution effect of the discharge sprinkling part 145, and several unloading channels 143 dynamically sprinkle and mix the raw materials during rotation. This is the second stage mixing of the raw materials.

[0040] The high and low power unit 148 pulls the high and low displacement platform 146 to move downward, and the high and low displacement platform 146 pulls the unloading channel 143 through the deflection rod 147 to rotate along the multi-directional connecting member 142, so that the lower part of the unloading channel 143 rotates and moves toward the connecting rod 141, thereby achieving the ability to pull the unloading channel 143 to deflect, and through the side deflection and rotation of the unloading channel 143, the discharged raw materials are side deflected and mixed in the area on the inner wall of the fermentation shell 12 and closer to the upper part, thereby achieving sufficient mixing of the raw materials. This stage is the three-stage mixing. Then, the rotating mixing unit 149 is pulled by the rotation of the connecting rod 141 to mix the raw materials falling in the fermentation shell 12 in a circle. This stage is the final stage of mixing.

[0041] The falling mixing part 14, the rotating power part 17, the unloading hole 182 and the unloading chamber 181 are adapted to each other. The raw materials are mixed through multiple mixing methods such as the first stage mixing, the second stage throwing mixing, the deflection throwing mixing of the unloading channel 143 and the final stage circular mixing, so that the raw materials can be mixed in multiple directions and in multiple ways during the falling period, so that the raw materials can be mixed with each other fully and efficiently, which is conducive to fermentation.

[0042] The discharging and scattering part 145 is composed of a plurality of curved protrusions 1451, which are fixedly connected to the inner wall of the discharge channel 143 on the side closer to the connecting rod 141. The plurality of curved protrusions 1451 and the plurality of discharge outlets 144 are staggered from high to low. The curved protrusions 1451 are used to block the raw materials moving from high to low in the discharge channel 143 to prevent the raw materials from moving toward the lower part of the discharge channel 143 after they move into the discharge channel 143, so that the raw materials cannot be evenly scattered from the discharge outlet 144 closer to the upper part of the discharge channel 143 to the lower part.

[0043] The height power part 148 includes a height displacement ring 1481 that is slidably connected to the inner wall of the fermentation shell 12. The inner ring of the height displacement ring 1481 is reserved with a circular cavity 1483. The lower part of the height displacement platform 146 is reserved with a circular supporting rod 1484. The end of the supporting rod 1484 farther from the height displacement platform 146 is slidably connected to the circular cavity 1483. The upper part of the height displacement ring 1481 is provided with traction rods 1485 that are arranged in a circular shape at equal intervals. The upper parts of several traction rods 1485 pass through the upper part of the fermentation shell 12 and are together provided with traction rings 1486. A linear module that drives the traction ring 1486 to move up and down is provided in the fixed cover 16.

[0044] During the rotation, the connecting rod 141 pulls the height displacement table 146 to rotate together, and the supporting rod 1484 at the bottom of the height displacement table 146 slides along the circular cavity 1483. The circular cavity 1483 supports the center area of the height displacement table 146 and the connecting rod 141 through the supporting rod 1484, so that the rotation of the connecting rod 141, the deflection rod 147 and the discharge channel 143 is more stable, and the linear module pulls the traction ring 1486 toward the lower position. The traction ring 1486 pulls the traction rod 1485, the height displacement ring 1481, the supporting rod 1484 and the height displacement platform 146 toward a lower position. During the displacement of the height displacement platform 146 toward a lower position, the deflection rod 147 pulls the unloading channel 143 to rotate along the multi-directional connecting member 142, so that the lower part of the unloading channel 143 rotates and moves toward the connecting rod 141, thereby achieving the ability to pull the unloading channel 143 for deflection.

[0045] The rear linear module pulls the traction ring 1486 toward the upper position, allowing the elevation power unit 148 to pull the elevation platform 146 toward the upper position. The elevation platform 146 is deflected by the deflection rod 147 to expand and return to the lower part of the discharge channel 143.

[0046] The rotating mixing part 149 includes several movable rods 1491 fixedly connected to the side wall of the connecting rod 141 and arranged in a circle. The lower pin of the high and low displacement platform 146 is connected to the disturbance rod 1492. The disturbance rod 1492 and the movable rod 1491 are adapted to each other. The lower part of the disturbance rod 1492 is slidably connected to the movable rod 1491 through the displacement guide unit. A vertical movable rod X1493 is arranged under the movable rod 1491. The rod body 14103 is arranged on the side of the disturbance rod 1492 farther from the connecting rod 141. The rod body 14103 is used to obtain another route to form multi-directional disturbance during the mixing of the raw materials, thereby making the mixing of the raw materials more complete.

[0047] During the rotation, the connecting rod 141 pulls the movable rod 1491 and the vertical movable rod X1493 to rotate and mix the raw materials. The movable rod 1491 and the high and low displacement platform 146 pull the disturbance rod 1492 to rotate, obtaining another moving route. During the displacement of the high and low displacement platform 146 toward the lower position, the disturbance rod 1492 is pulled to move toward the lower position. The lower part of the disturbance rod 1492 slides along the movable rod 1491 through the displacement guide unit, thereby changing the position of the disturbance rod 1492, allowing the disturbance rod 1492 to have a wider mixing area and obtain better raw material mixing ability.

[0048] The displacement guide unit includes an assembly seat 14101 pinned to the lower part of the disturbance rod 1492, and the assembly seat 14101 is screwed with the translation rod 14102 installed in high and low mirror images. A penetration space is formed between the two translation rods 14102 and the assembly seat 14101, and the movable rod 1491 extends into the penetration space. The lower part of the disturbance rod 1492 is slidingly connected to the two high and low translation rods 14102 and the movable rod 1491 in the displacement guide unit, thereby reducing the resistance of the disturbance rod 1492 during displacement on the high and low displacement circle 1481.

[0049] The side wall of the forward moving rod 14102 is reserved with a triangular cross-section, and the upper and lower ends of the movable rod 1491 are both triangular structures. The triangular spaces on the two forward moving rods 14102 are respectively embedded in the matching side walls on the movable rod 1491. The upper wall of the movable rod 1491 is a triangular structure, which can prevent the material from gathering on the movable rod 1491. The triangular space on the forward moving rod 14102 is matched with the side wall of the movable rod 1491, and can perform constraints during the displacement of the forward moving rod 14102 along the movable rod 1491, so that the disturbance rod 1492 can be more stable during mixing.

[0050] A sphere is installed at the bottom of the vertical movable rod X1493, which rotates at the bottom of the inner wall of the fermentation shell 12, so that the movable rod 1491 has sufficient support during the mixing of the raw materials, and the disturbance rod 1492 and the high and low displacement platform 146 can obtain more support.

[0051] During operation, the rotating disc X13 is rotated by the rotating power unit 17, and when the unloading hole 182 and the unloading cavity 181 are connected, the raw materials in the unloading cavity 181 are moved into the unloading hole 182.

[0052] The rotating disc X13 pulls the connecting rod 141 to rotate during rotation, and the connecting rod 141 pulls the height displacement platform 146, the deflection rod 147, the unloading channel 143 and the multi-directional connecting part 142 to rotate. The raw materials in the unloading hole 182 are displaced from the multi-directional connecting part 142 into the unloading channel 143, and some raw materials are mixed in the first stage in the unloading channel 143. After the raw materials are displaced into the unloading channel 143, they are discharged at several unloading outlets 144 under the diffusion capacity of the discharge and spreading part 145. During the rotation, several unloading channels 143 diffuse, scatter and mix the raw materials. This stage is the second stage mixing.

[0053] The high and low power unit 148 pulls the high and low displacement platform 146 to move downward, and the high and low displacement platform 146 pulls the unloading channel 143 through the deflection rod 147 to rotate along the multi-directional connecting member 142, so that the lower part of the unloading channel 143 rotates and moves toward the connecting rod 141, thereby achieving the ability to pull the unloading channel 143 to deflect. Through the deflection and rotation of the unloading channel 143, the discharged raw material flanks are deflected and mixed in the area that is on the inner wall of the fermentation shell 12 and closer to the upper part, thereby achieving sufficient mixing of the raw materials. This stage is the three-stage mixing. Then, the rotating mixing unit 149 is pulled by the rotation of the connecting rod 141 to mix the raw materials falling in the fermentation shell 12 in a circle. This stage is the final stage of mixing.

[0054] The falling mixing part 14, the rotating power part 17, the unloading hole 182 and the unloading chamber 181 are adapted to each other. The raw materials are mixed through multiple mixing methods such as the first stage mixing, the second stage throwing mixing, the deflection throwing mixing of the unloading channel 143 and the final stage circular mixing, so that the raw materials can be mixed in multiple directions and in multiple ways during the falling period, so that the raw materials can be mixed with each other fully and efficiently, which is conducive to fermentation.

[0055] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and modifications may be made to the present invention without departing from the spirit and scope of the present invention. Such changes and modifications are intended to fall within the scope of the present invention. The scope of protection claimed in the present invention is defined by the appended claims and their equivalents.

Claims

1. A temperature-controlled fermentation system comprising a fermentation shell (12), characterized in that: An electric heating plate (11) is installed in the side wall of the fermentation shell (12), the upper part of the fermentation shell (12) is screwed with a rotating disc X (13), the bottom wall of the rotating disc X (13) is installed with a falling mixing part (14), the upper part of the rotating disc X (13) is screwed with a discharge disc (15), and the upper part of the fermentation shell (12) is installed with a fixed cover (16) fixed to the side wall of the discharge disc (15); A rotating power unit (17) for driving the rotating disc X (13) to rotate is arranged between the upper portion of the fermentation shell (12) and the fermentation shell (12); The discharge disc (15) and the rotating disc X (13) are provided with a stage-conducting discharge portion (18). The stage-conducting discharge portion (18) comprises a plurality of unloading cavities (181) arranged at equal intervals in a circle on the bottom wall of the discharge disc (15). The unloading cavities (181) are of a curved structure. The rotating disc X (13) is provided with a penetrating unloading hole (182) arranged at equal intervals in a circle. The unloading hole (182) and the unloading cavity (181) are adapted to each other. A delivery shell (183) adapted to the unloading cavity (181) is provided on the upper portion of the discharge disc (15). The falling mixing part (14) includes a connecting rod (141) fixedly connected to the lower wall of the rotating disc X (13), the lower part of the connecting rod (141) is screwed to the fermentation shell (12), and a plurality of multi-directional connecting members (142) are installed on the lower wall of the rotating disc X (13). The plurality of multi-directional connecting members (142) and the unloading hole (182) are adapted to be connected to each other. A discharge channel (143) connected to the multi-directional connecting member (142) is installed at the lower part of the multi-directional connecting member (142). The side of the discharge channel (143) closer to the connecting rod (141) is reserved with a plurality of discharge outlets (144) arranged in sequence from high to low. A discharge sprinkling part (145) is installed in the discharge channel (143). The connecting rod (141) is connected to the high and low displacement platform (146) of high and low displacement. The upper part of the high and low displacement platform (146) is an umbrella-shaped structure to prevent raw materials from gathering on the upper part of the high and low displacement platform (146). The side wall of the high and low displacement platform (146) and the lower part of the discharge channel (143) are connected to the deflection rod (147). During the high and low displacement, the high and low displacement platform (146) is deflected by pulling the discharge channel (143) through the deflection rod (147). The inner wall of the fermentation shell (12) is provided with a high and low power part (148) that drives the high and low displacement platform (146) to move up and down. The lower part of the high and low displacement platform (146) and the side wall of the multi-directional connecting member (142) are provided with a rotating mixing part (149).

2. A temperature-controlled fermentation system according to claim 1, characterized in that: The high and low power part (148) includes a high and low displacement ring (1481) that is slidably connected to the inner wall of the fermentation shell (12). The inner ring of the high and low displacement ring (1481) is reserved with a circular cavity (1483). The lower part of the high and low displacement platform (146) is reserved with a circular support rod (1484). The end of the support rod (1484) farther from the high and low displacement platform (146) is slidably connected to the circular cavity (1483). The upper part of the high and low displacement ring (1481) is provided with traction rods (1485) that are equidistantly arranged in a circular shape. The upper parts of several traction rods (1485) pass through the upper part of the fermentation shell (12) and are together provided with a traction ring (1486). The fixed cover (16) is provided with a linear module that drives the traction ring (1486) to move up and down.

3. A temperature-controlled fermentation system according to claim 2, characterized in that: The rotating mixing part (149) includes a plurality of movable rods (1491) fixedly connected to the side wall of the connecting rod (141) and arranged in a circle. The lower pin of the high and low displacement platform (146) is connected to the disturbance rod (1492). The disturbance rod (1492) and the movable rod (1491) are adapted to each other. The lower part of the disturbance rod (1492) is slidably connected to the movable rod (1491) via a displacement guide unit. A vertical movable rod X (1493) is arranged below the movable rod (1491).

4. A temperature-controlled fermentation system according to claim 3, characterized in that: The displacement guide unit includes an assembly seat (14101) pinned to the lower part of the disturbance rod (1492), and the assembly seat (14101) is screwed with a forward movement rod (14102) installed in a high and low mirror image. A penetration space is formed between the two forward movement rods (14102) and the assembly seat (14101), and the movable rod (1491) is inserted into the penetration space.

5. A temperature-controlled fermentation system according to claim 4, characterized in that: The side wall of the forward moving rod (14102) is reserved with a triangular cross section, and the upper and lower ends of the movable rod (1491) are both triangular structures. The triangular spaces on the two forward moving rods (14102) are respectively embedded in the adapted side wall on the movable rod (1491).

6. The temperature-controlled fermentation system according to claim 1, characterized in that: The discharging and throwing portion (145) is formed by a plurality of curved protruding platforms (1451), and the curved protruding platforms (1451) are fixedly connected to the inner wall of the discharge channel (143) on the side closer to the connecting rod (141). The plurality of curved protruding platforms (1451) and the plurality of discharge ports (144) are staggered and arranged from high to low.

7. The temperature-controlled fermentation system according to claim 1, characterized in that: The rotating power unit (17) includes a ring body (171) with a reserved tooth gap fixed on the rotating disc X (13), the upper part of the fermentation shell (12) is screwed to a traction column (172), the traction column (172) is fixed to a disc (173) with a reserved tooth gap on the side wall that is engaged with the ring body (171), and the upper part of the traction column (172) is screwed through the fixed cover (16).

8. The temperature-controlled fermentation system according to claim 4, characterized in that: The disturbance rod (1492) is provided with a rod body (14103) on the side farther from the connecting rod (141).

9. The temperature-controlled fermentation system according to claim 3, characterized in that: A sphere is arranged at the lower portion of the vertical movable rod X (1493), and the sphere rotates at the lower portion of the inner wall of the fermentation shell (12).

10. The temperature-controlled fermentation system according to claim 1, characterized in that: The upper portion of the height displacement platform (146) is an umbrella-shaped structure.

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