Microbial fertilizer multi-strain symbiotic culture fermentation device

Abstract

The invention provides a microbial fertilizer multi-strain symbiotic culture fermentation device, and belongs to the technical field of fertilizer ferment.The microbial fertilizer multi-strain symbiotic culture fermentation device comprises a culture shell, a blending unit is arranged in the culture shell, the blending unit comprises a rotating rod, first circumferential disturbance rods, second disturbance rods, a delivery pipeline and a displacement disc, the two sides of the rotating rod are fixedly connected with the multiple first circumferential disturbance rods, and the multiple second disturbance rods are fixedly connected with the displacement disc; the rotating rod can pull the first circumferential disturbance rods to rotate, the second disturbance rods are arranged on the two sides of the rotating rod, and the second disturbance rods are arranged on the first circumferential disturbance rod on one side. The device solves the problems that at present, after strains are fed, the strains fall on the upper surface of a fertilizer and are slowly mixed with the fertilizer due to the stirring of an instrument, so that the mixing of the fertilizer and the strains at a low position is not efficient enough, the mixing is insufficient due to a large probability, and the stirring is generally performed in the circumferential direction during the stirring period, so that the stirring efficiency is low. The stirring and blending are not efficient enough due to the fact that the stirring and blending cannot be performed in the vertical direction.

Description

Technical Field

[0001] The invention belongs to the technical field of fertilizer fermentation, and in particular relates to a multi-strain symbiotic culture and fermentation device for microbial fertilizers. Background Art

[0002] Microbial fertilizers, also known as biological fertilizers, inoculants or bacterial manure, refer to a type of fertilizer products that use the life activities of microorganisms as the core to enable crops to obtain specific fertilizer effects. Microbial fertilizers have multiple advantages such as increasing soil fertility, improving soil structure, stimulating crop growth and development, and improving crop quality. The basis of the action of microbial fertilizers is living microorganisms that play a specific role. These microorganisms directly or indirectly affect the physiological metabolism of plants or soil environmental conditions through their growth, reproduction and physiological activities. Therefore, the high efficiency of the strain is the core of microbial fertilizers.

[0003] During the fertilizer fermentation period, if you want to fully ferment, you must use equipment to fully stir to facilitate the fermentation of the fertilizer. If you want to have multi-strain fermentation of the fertilizer, you must deliver multiple strains of bacteria for mixing during the fertilizer fermentation period. Currently, after the strains are delivered, the strains fall on the upper surface of the fertilizer and are slowly mixed with the fertilizer due to the stirring of the equipment. Such operation will cause the fertilizer and strains at the bottom to be mixed inefficiently, and there is a high probability that the mixing will be insufficient. Moreover, during the stirring period, it generally moves in a circumferential direction and cannot move in a vertical direction, which causes the stirring and mixing to be inefficient. Therefore, a multi-strain symbiotic culture and fermentation device for microbial fertilizer is proposed. Summary of the invention

[0004] The present invention provides a multi-strain symbiotic culture and fermentation device for microbial fertilizers, and its purpose is to solve the problem that after the strains are delivered, the strains fall on the upper surface of the fertilizer and are slowly mixed with the fertilizer due to the stirring of the equipment. Such operation will cause the mixing of the fertilizer and the strains at the bottom to be not efficient enough, and there is a high probability that the mixing will be insufficient. Moreover, during the stirring period, the stirring is generally carried out in a circumferential direction and cannot be moved in a vertical direction, which causes the stirring and mixing to be not efficient enough.

[0005] The embodiment of the present invention provides a multi-strain symbiotic culture and fermentation device for microbial fertilizer, comprising a culture shell, in which a blending unit is arranged, the blending unit comprises a rotating rod, a circumferential disturbance rod 1, a disturbance rod 2, a delivery pipeline and a displacement disk, a plurality of circumferential disturbance rods 1 are fixedly connected on both sides of the rotating rod, the rotating rod can pull the circumferential disturbance rod 1 to rotate, a disturbance rod 2 is arranged on both sides of the rotating rod, the disturbance rod 2 is arranged on the circumferential disturbance rod 1 on one side, an assembly cavity is reserved for the disturbance rod 2, the delivery pipeline is slidably arranged in the assembly cavity, a plurality of delivery holes are reserved on both sides of the disturbance rod 2, the displacement disk can pull the delivery pipeline to displace in the direction of the rotating rod, a plurality of unloading holes are reserved for the delivery pipeline, the unloading holes are displaced to overlap with the delivery holes, the delivery pipeline can be communicated with the delivery holes, and the disturbance rod 2 can be displaced circumferentially along the circumferential disturbance rod.

[0006] Furthermore, a rotating disk is installed on the top of the displacement disk, the rotating disk is fixedly connected to the rotating rod, the tail of the rotating disk is fixedly connected to a plurality of linear drivers, the power end of the linear driver is fixedly connected to the displacement disk, the displacement disk and the rotating rod are movably connected, the displacement disk reserves a delivery displacement hole 1, the delivery pipeline is slidably installed in the assembly cavity through the delivery displacement hole 1, a plurality of stop platforms are installed on the top and tail of the displacement disk, the stop platforms are fixedly connected to the delivery pipeline.

[0007] Furthermore, the mixing unit includes motor 2, a disk body, a sheet body, a displacement platform, and a connecting rod. The motor 2 is fixedly connected to the tail area of ​​the rotating disk. The power end of the motor 2 is fixedly connected to the disk body with multiple tooth openings reserved. The top of the displacement disk has multiple disturbance displacement holes 2 reserved. The connecting rod is fixedly connected to disturbance rod 2 through disturbance displacement holes 2. The circumferential disturbance rod 1 is fixedly connected to disturbance rod 2. The side of the circumferential disturbance rod 1 closer to the disk body is fixedly connected to a sheet body with multiple tooth openings reserved. The sheet bodies are all engaged with the disk body.

[0008] Furthermore, a clean unit is arranged in the culture shell, and the clean unit comprises a reject rod, a spray nozzle, a screw, a motor three and a supporting rod. The rotating rod is fixedly connected to a plurality of supporting rods, and the end of the supporting rod farther from the rotating rod is fixedly connected to the reject rod, and a plurality of motors three are fixedly connected to the top of the displacement disk. A plurality of screws are arranged in the culture shell, and the tail of the screw is screwed to the supporting rod close to the tail of the rotating rod, and the power end of the motor three is fixedly connected to the screw through the rotating disk and the supporting rod close to the top of the rotating rod, and a spray nozzle is arranged on the screw, and the spray nozzle is threadedly connected to the screw.

[0009] Furthermore, the spray nozzle is fixedly connected to the indexing platform at the side farther from the rotating rod, a indexing cavity is reserved at the end of the indexing platform closer to the rejecting rod, the rejecting rod is fixedly connected to the sliding platform at the side closer to the rotating rod, the sliding platform and the indexing cavity are slidingly connected, the rotating disk is fixedly connected to the liquid storage shell, a plurality of liquid delivery rubber pipelines are installed at the tail of the liquid storage shell, one end of the liquid delivery rubber pipeline is fixedly connected to the liquid storage shell through the rotating disk, and the other end is fixedly connected to the spray nozzle through the displacement disk.

[0010] Furthermore, a plurality of storage shells are fixedly connected to the top of the rotating disk, a plurality of rubber movable pipelines are installed at the tail of the storage shells, one end of the rubber movable pipeline is fixedly connected to the storage shell through the rotating disk, and the other end is fixedly connected to the delivery pipeline.

[0011] Furthermore, the sheet bodies are respectively located at two sides of the disc body, and the displacement platform reserves a displacement hole three, and the inner structure of the displacement hole three is the same as the outer structure of the sheet body.

[0012] Furthermore, a plurality of stop rods are fixedly connected to the top of the displacement disk, and the stop rods pass through the rotating disk and are slidably connected to the rotating disk.

[0013] Furthermore, the top of the culture shell is fixedly connected to a motor 1, the power end of the motor 1 is fixedly connected to the rotating rod through the culture shell, the culture shell is reserved with a delivery hole, and the delivery hole area is fixedly connected to a fertilizer pipeline.

[0014] The beneficial effects of the present invention are:

[0015] 1. During the displacement of the delivery pipeline by the second disturbance rod, the displacement plate pulls the delivery pipeline toward the top, so that the unloading hole and the delivery hole are connected, and the bacteria are leaked from the delivery hole through the delivery pipeline, so that the bacteria fermented by the fertilizer are delivered into the culture shell and disturbed together with the fertilizer. The bacteria are displaced back and forth through the second disturbance rod, and melted into multiple areas of the disturbed fertilizer from each delivery hole, and can be evenly mixed with the fertilizer for fermentation, thereby preventing the fertilizer and bacteria from being incompletely mixed, resulting in insufficient fermentation, making the mixing more efficient, and being beneficial to the fermentation of the fertilizer.

[0016] 2. The fertilizer of the present invention is delivered to the culture shell through the fertilizer pipeline. Motor 1 pulls the rotating rod to rotate, and the rotating rod rotates and pulls the circumferential disturbance rod 1 and the disturbance rod 2 to rotate. The circumferential disturbance rod 1 disturbs the fertilizer along the rotation direction. The disturbance rod 2 moves back and forth along the circumferential disturbance rod 1 during the rotation. The disturbance rod 2 can be deeply mixed with the disturbance during the displacement. The fertilizer in the area closer to the rotating rod will be pulled and moved to the inner wall of the culture shell. The fertilizer closer to the inner wall of the culture shell can be moved and pulled to the rotating rod area, so that the fertilizer can be mixed more comprehensively.

[0017] 3. The present invention causes the rejecting rod to rotate by pulling the rotating rod, and the rejecting rod removes the contaminated fertilizer on the inner wall of the culture shell to prevent the inner wall of the culture shell from being contaminated with a large amount of fertilizer, which is not conducive to the use of the device, and is beneficial to the subsequent cleaning of the inside of the culture shell. After the mixing action stops, the motor three pulls the screw to rotate, and the screw pulls the spray nozzle to move in the direction of the rotating rod and spray the rotating rod, the circumferential disturbance rod one, and the disturbance rod two with water to clean it, so that the purpose of cleaning the rotating rod, the circumferential disturbance rod one, and the disturbance rod two can be easily achieved, which is beneficial to cleaning and makes the cleaning efficient.

[0018] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures particularly pointed out in the description and the drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] 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:

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

[0021] Figure 2 It is a schematic diagram of the structure of the inside of an embodiment of the present invention;

[0022] Figure 3 For the embodiment of the present invention Figure 2 The schematic diagram of the structure at W;

[0023] Figure 4 It is a structural schematic diagram from another perspective of an embodiment of the present invention;

[0024] Figure 5 For the embodiment of the present invention Figure 4 Schematic diagram of the structure at X;

[0025] Figure 6 It is a structural schematic diagram from another perspective of an embodiment of the present invention;

[0026] Figure 7 For the embodiment of the present invention Figure 6 Schematic diagram of the structure at Y;

[0027] Figure 8 It is a schematic diagram of the structure of the inside of an embodiment of the present invention;

[0028] Fig. 9 For the embodiment of the present invention Figure 8 Schematic diagram of the structure at Z;

[0029] Fig.10 This is a schematic structural diagram of a second disturbance rod according to an embodiment of the present invention;

[0030] Figure numerals: 12, culture shell; 1212, rotating disk; 1213, motor 1; 1214, fertilizer pipeline; 13, blending unit; 1312, rotating rod; 1313, circumferential disturbance rod 1; 1314, disturbance rod 2; 1315, delivery pipeline; 1316, displacement disk; 1317, delivery hole; 1318, linear drive; 1319, stop table; 1320, motor 2; 1321, disk body; 1322, sheet body; 1323, position Transfer platform; 1324, connecting rod; 1325, delivery displacement hole one; 1326, disturbance displacement hole two; 1327, inventory shell; 1328, rubber movable pipeline; 1329, displacement hole three; 1330, stop rod; 14, clean unit; 1412, rejection rod; 1413, spray nozzle; 1414, screw; 1415, motor three; 1416, supporting rod; 1417, guide platform; 1418, liquid storage shell; 1419, liquid delivery rubber pipeline. DETAILED DESCRIPTION

[0031] 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 in conjunction with the drawings of specific embodiments of the present invention. The same figure marks in the drawings represent the same parts. 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.

[0032] Reference Figure 1-10 The embodiment of the present invention provides a microbial fertilizer multi-strain symbiotic culture and fermentation device, comprising a culture shell 12, in which a blending unit 13 is arranged, the blending unit 13 comprises a rotating rod 1312, a circumferential disturbance rod 1 1313, a disturbance rod 2 1314, a delivery pipeline 1315 and a displacement disk 1316, a plurality of circumferential disturbance rods 1 1313 are fixedly connected on both sides of the rotating rod 1312, the rotating rod 1312 can pull the circumferential disturbance rod 1 1313 to rotate, a disturbance rod 2 1314 is arranged on both sides of the rotating rod 1312, and the disturbance rod 2 1314 is arranged at the position On the circumferential disturbance rod 1 1313 on one side, the disturbance rod 2 1314 reserves an assembly cavity, and the delivery pipeline 1315 is slidably installed in the assembly cavity. Multiple delivery holes 1317 are reserved on both sides of the disturbance rod 2 1314. The displacement plate 1316 can pull the delivery pipeline 1315 to move toward the rotating rod 1312. The delivery pipeline 1315 reserves multiple unloading holes. When the unloading holes are moved to overlap with the delivery holes 1317, the delivery pipeline 1315 can communicate with the delivery holes 1317, and the disturbance rod 2 1314 can be circumferentially displaced along the circumferential disturbance rod 1 1313.

[0033] During operation, the fertilizer is delivered to the culture shell 12, the rotating rod 1312 rotates to pull the circumferential disturbance rod 1 1313 and the disturbance rod 2 1314 to rotate, the circumferential disturbance rod 1 1313 disturbs the fertilizer along the rotation direction, and the disturbance rod 2 1314 moves back and forth along the circumferential disturbance rod 1 1313 during the rotation, and the fertilizer cooperates with the circumferential disturbance rod 1 1313 to disturb the fertilizer in multiple directions, so that the disturbance of the fertilizer is more efficient and has excellent disturbance ability; while the disturbance rod 2 1314 pulls the delivery pipeline 1315 to move, the displacement disk 1316 moves toward The top displacement pulls the delivery pipeline 1315 to move, allowing the unloading hole and the delivery hole 1317 to communicate, and the bacteria leak out from the delivery hole 1317 through the delivery pipeline 1315, allowing the bacteria fermented by the fertilizer to be delivered into the culture shell 12 and disturbed together with the fertilizer. The bacteria are displaced back and forth through the disturbance rod 1314, and melt into multiple areas of the disturbed fertilizer from each delivery hole 1317, and can be evenly mixed with the fertilizer for fermentation, preventing the fertilizer and bacteria from being incompletely mixed, resulting in insufficient fermentation, making the mixing more efficient, and being beneficial to the fermentation of the fertilizer.

[0034] A rotating disk 1212 is installed on the top of the displacement disk 1316, and the rotating disk 1212 is fixedly connected to the rotating rod 1312. A plurality of linear actuators 1318 are fixedly connected to the tail of the rotating disk 1212. The power end of the linear actuator 1318 is fixedly connected to the displacement disk 1316. The displacement disk 1316 and the rotating rod 1312 are variably connected. The displacement disk 1316 reserves a delivery displacement hole 1325. The delivery pipeline 1315 is slidably installed in the assembly cavity through the delivery displacement hole 1325. A plurality of stop platforms 1319 are installed on the top and tail of the displacement disk 1316, and the stop platforms 1319 are fixedly connected to the delivery pipeline 1315.

[0035] During operation, the rotating rod 1312 pulls the rotating disk 1212 to rotate. When the bacteria are to be delivered, the linear driver 1318 pulls the displacement disk 1316 to move toward the rotating rod 1312. The displacement of the displacement disk 1316 pulls the delivery pipeline 1315 to move, so that the unloading hole and the delivery hole 1317 are connected. The bacteria are moved into the culture shell 12 through the delivery pipeline 1315 and the delivery hole 1317.

[0036] The mixing unit 13 includes a second motor 1320, a disk 1321, a sheet 1322, a displacement platform 1323, and a connecting rod 1324. The second motor 1320 is fixedly connected to the tail region of the rotating disk 1212. The power end of the second motor 1320 is fixedly connected to the disk 1321 with a plurality of teeth reserved. A plurality of second disturbance displacement holes 1326 are reserved on the top of the displacement disk 1316. The connecting rod 1324 is fixedly connected to the second disturbance rod 1314 through the second disturbance displacement holes 1326. The circumferential disturbance rod 1313 is fixedly connected to the second disturbance rod 1314. The side of the circumferential disturbance rod 1313 closer to the disk 1321 is fixedly connected to the sheet 1322 with a plurality of teeth reserved. The sheet 1322 is engaged with the disk 1321.

[0037] During operation, motor 2 1320 rotates in the opposite direction in stages, thereby pulling the disk body 1321 to rotate in the opposite direction in stages, and the disk body 1321 pulls the sheet body 1322 to move back and forth in stages, thereby pulling the disturbance rod 2 1314 to move back and forth along the circumferential disturbance rod 1 1313. The disturbance rod 2 1314 can penetrate deeply and mix with the disturbance during the displacement, and the fertilizer in the area closer to the rotating rod 1312 will be pulled and moved to the inner wall of the culture shell 12, and the fertilizer closer to the inner wall of the culture shell 12 can be moved and pulled to the rotating rod 1312 area, so that the fertilizer can be mixed more comprehensively.

[0038] The culture shell 12 is provided with a clean unit 14, which includes a reject rod 1412, a spray nozzle 1413, a screw 1414, a motor 3 1415 and a support rod 1416. The rotating rod 1312 is fixedly connected to a plurality of support rods 1416. The end of the support rod 1416 farther from the rotating rod 1312 is fixedly connected to the reject rod 1412. The top of the displacement plate 1316 is fixedly connected to a plurality of motor 3 1415. A plurality of screws 1414 are arranged in the culture shell 12, and the tail of the screw 1414 is screwed to a supporting rod 1416 near the tail of the rotating rod 1312, and the power end of the motor 3 1415 is fixedly connected to the screw 1414 through the rotating disk 1212 and the supporting rod 1416 near the top of the rotating rod 1312, and a spray nozzle 1413 is arranged on the screw 1414, and the spray nozzle 1413 and the screw 1414 are threadedly connected;

[0039] During use, the rotating rod 1312 pulls the rejecting rod 1412 to rotate, and the rejecting rod 1412 removes the fertilizer contaminated on the inner wall of the culture shell 12 to prevent the inner wall of the culture shell 12 from being contaminated with a large amount of fertilizer that is not conducive to the use of the device, and is conducive to the subsequent cleaning of the inside of the culture shell 12. After the mixing action stops, the motor three 1415 pulls the screw 1414 to rotate, and the screw 1414 pulls the spray nozzle 1413 to move in the direction of the rotating rod 1312 and clean the rotating rod 1312, the circumferential disturbance rod 1 1313, and the disturbance rod 2 1314 with water, so that the purpose of cleaning the rotating rod 1312, the circumferential disturbance rod 1 1313, and the disturbance rod 2 1314 can be easily achieved, which is conducive to cleaning and makes the cleaning efficient.

[0040] The spray nozzle 1413 is fixedly connected to the indexing platform 1417 at the side farther from the rotating rod 1312, and the indexing platform 1417 is reserved with an indexing cavity at the side closer to the rejecting rod 1412. The rejecting rod 1412 is fixedly connected to the sliding platform at the side closer to the rotating rod 1312, and the sliding platform and the indexing cavity are slidably connected. The rotating disk 1212 is fixedly connected to the liquid storage shell 1418, and a plurality of liquid delivery rubber pipes 1419 are arranged at the tail of the liquid storage shell 1418. One end of the liquid delivery rubber pipe 1419 is fixedly connected to the liquid storage shell 1418 through the rotating disk 1212, and the other end is fixedly connected to the spray nozzle 1413 through the displacement disk 1316.

[0041] During operation, the liquid storage shell 1418 transports the liquid to the spray nozzle 1413 area via the liquid delivery rubber pipe 1419.

[0042] A plurality of storage shells 1327 are fixedly connected to the top of the rotating disk 1212, and a plurality of rubber movable pipes 1328 are installed at the tail of the storage shells 1327. One end of the rubber movable pipes 1328 is fixedly connected to the storage shells 1327 through the rotating disk 1212, and the other end is fixedly connected to the delivery pipe 1315;

[0043] During use, the bacteria are delivered to the storage shell 1327. When the bacteria need to be mixed, the storage shell 1327 transports the bacteria to the delivery pipeline 1315 via the rubber movable pipeline 1328.

[0044] The sheet bodies 1322 are respectively located on both sides of the plate body 1321, and the displacement platform 1323 reserves a displacement hole 1329, and the structure inside the displacement hole 1329 is the same as the structure outside the sheet body 1322;

[0045] During use, the sheet 1322 is displaced back and forth in stages. During the displacement, the sheet 1322 passes through the displacement hole 1329, and the displacement platform 1323 blocks the displacement of the sheet 1322. The two sheets 1322 are respectively fixed on the matching displacement platform 1323, and the displacement hole 1329 is reserved on the displacement platform 1323 relative to the sheet 1322 fixed on the other displacement platform 1323.

[0046] A plurality of stop rods 1330 are fixedly connected to the top of the displacement plate 1316. The stop rods 1330 pass through the rotating plate 1212 and are slidably connected to the rotating plate 1212.

[0047] During use, the stop rod 1330 constrains the displacement disk 1316 during displacement to prevent the displacement disk 1316 from being misplaced.

[0048] The top of the culture shell 12 is fixedly connected to a motor 1213, and the power end of the motor 1213 is fixedly connected to the rotating rod 1312 through the culture shell 12. The culture shell 12 is reserved with a delivery hole, and the delivery hole area is fixedly connected to a fertilizer pipeline 1214;

[0049] During operation, the motor 1213 pulls the rotating rod 1312 to rotate, and the fertilizer is delivered to the culture shell 12 through the fertilizer pipeline 1214.

[0050] The specific implementation method is as follows: during operation, fertilizer is delivered to the culture shell 12 via the fertilizer pipeline 1214, the motor 1213 pulls the rotating rod 1312 to rotate, the rotating rod 1312 pulls the circumferential disturbance rod 1313 and the disturbance rod 2 1314 to rotate, the circumferential disturbance rod 1 1313 is deeply mixed in the circumferential direction, the motor 2 1320 pulls the disc body 1321 to rotate, the disc body 1321 rotates and pulls the sheet body 1322 to move back and forth, thereby pulling the disturbance rod 2 1314 to move back and forth along the circumferential disturbance rod 1 1313, and the disturbance rod 2 1314 is deeply mixed in the fertilizer during the displacement, and the rotation distance is 100%. The fertilizer in the area closer to the rotating rod 1312 will be pulled and moved to the inner wall of the culture shell 12, and the fertilizer closer to the inner wall of the culture shell 12 can be moved and pulled to the area of ​​the rotating rod 1312, so that the fertilizer can be mixed more comprehensively; when the bacteria need to be delivered, the linear drive 1318 pulls the displacement disk 1316 to move in the direction of the rotating rod 1312, and the displacement of the displacement disk 1316 pulls the delivery pipeline 1315 to move, so that the unloading hole and the delivery hole 1317 are connected, and the storage shell 1327 delivers the bacteria to the delivery pipeline 1315 through the rubber movable pipeline 1328, and the bacteria are delivered through the delivery pipeline 1315 and the delivery hole 1317. The delivery hole 1317 is moved to the culture shell 12, and the fermented bacteria are delivered to the fertilizer. The bacteria are moved back and forth from each delivery hole 1317 to multiple areas of the fertilizer through the disturbance rod 1314, and can be evenly mixed with the fertilizer for fermentation, preventing the fertilizer and bacteria from being incompletely mixed, resulting in insufficient fermentation, making the mixing more efficient and conducive to the fermentation of the fertilizer; during the mixing, the rotating rod 1312 pulls the rejection rod 1412 to rotate, and the rejection rod 1412 removes the contaminated fertilizer on the inner wall of the culture shell 12, preventing the inner wall of the culture shell 12 from being contaminated with a large amount of fertilizer, which is not conducive to the device The use is beneficial to the subsequent cleaning of the culture shell 12. After the mixing action stops, the motor three 1415 pulls the screw 1414 to rotate, and the screw 1414 pulls the spray nozzle 1413 to move in the direction of the rotating rod 1312. The liquid storage shell 1418 transports the liquid to the spray nozzle 1413 area through the liquid delivery rubber pipe 1419. The spray nozzle 1413 cleans the rotating rod 1312, the circumferential disturbance rod 1 1313, and the disturbance rod 2 1314 with water, so that the purpose of cleaning the rotating rod 1312, the circumferential disturbance rod 1 1313, and the disturbance rod 2 1314 can be easily achieved, which is beneficial to cleaning and makes cleaning efficient.

[0051] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A microbial fertilizer multi-strain symbiotic culture and fermentation device, comprising a culture shell (12), characterized in that: The culture shell (12) is provided with a mixing unit (13), and the mixing unit (13) comprises a rotating rod (1312), a circumferential disturbance rod one (1313), a disturbance rod two (1314), a delivery pipeline (1315) and a displacement disk (1316). A plurality of circumferential disturbance rods one (1313) are fixedly connected on both sides of the rotating rod (1312), and the rotating rod (1312) can pull the circumferential disturbance rod one (1313) to rotate. Disturbance rods two (1314) are provided on both sides of the rotating rod (1312), and the disturbance rods two (1314) are provided on the circumferential disturbance rods one (1313) on one side. The second disturbance rod (1314) is reserved with an assembly cavity, and the delivery pipeline (1315) is slidably installed in the assembly cavity. A plurality of delivery holes (1317) are reserved on both sides of the second disturbance rod (1314). The displacement disk (1316) can pull the delivery pipeline (1315) to move in the direction of the rotating rod (1312). The delivery pipeline (1315) is reserved with a plurality of unloading holes. When the unloading holes are moved to overlap with the delivery holes (1317), the delivery pipeline (1315) can communicate with the delivery holes (1317), and the second disturbance rod (1314) can be displaced circumferentially along the circumferential disturbance rod (1313).

2. A microbial fertilizer multi-strain symbiotic culture and fermentation device according to claim 1, characterized in that: A rotating disk (1212) is arranged on the top of the displacement disk (1316), the rotating disk (1212) is fixedly connected to the rotating rod (1312), a plurality of linear drivers (1318) are fixedly connected to the rear of the rotating disk (1212), a power end of the linear driver (1318) is fixedly connected to the displacement disk (1316), the displacement disk (1316) and the rotating rod (1312) are movably connected, the displacement disk (1316) is reserved with a delivery displacement hole (1325), the delivery pipeline (1315) is slidably arranged in the assembly cavity through the delivery displacement hole (1325), a plurality of stop platforms (1319) are arranged on the top and rear of the displacement disk (1316), the stop platforms (1319) are fixedly connected to the delivery pipeline (1315).

3. A microbial fertilizer multi-strain symbiotic culture and fermentation device according to claim 2, characterized in that: The mixing unit (13) comprises a second motor (1320), a disk (1321), a sheet (1322), a displacement platform (1323), and a connecting rod (1324). The second motor (1320) is fixedly connected to the tail region of the rotating disk (1212). The power end of the second motor (1320) is fixedly connected to a plurality of toothed disks (1321) reserved therein. The top of the displacement disk (1316) is reserved therein with a plurality of disturbance displacement holes. The second (1326), the connecting rod (1324) is fixedly connected to the disturbance rod second (1314) through the disturbance displacement hole second (1326), the circumferential disturbance rod first (1313) is fixedly connected to the disturbance rod second (1314), and the side of the circumferential disturbance rod first (1313) closer to the disk body (1321) is fixedly connected to a sheet body (1322) with a plurality of teeth reserved, and the sheet body (1322) is engaged with the disk body (1321).

4. A microbial fertilizer multi-strain symbiotic culture and fermentation device according to claim 3, characterized in that: The culture shell (12) is provided with a clean unit (14), and the clean unit (14) comprises a reject rod (1412), a spray nozzle (1413), a screw (1414), a motor three (1415) and a supporting rod (1416). The rotating rod (1312) is fixedly connected to a plurality of supporting rods (1416), and the end of the supporting rod (1416) which is farther from the rotating rod (1312) is fixedly connected to the reject rod (1412). The top of the displacement disk (1316) is fixedly connected to a plurality of motor three (1415). ), a plurality of screws (1414) are arranged in the culture shell (12), the tail of the screw (1414) is screwed to a supporting rod (1416) close to the tail of the rotating rod (1312), the power end of the motor three (1415) is fixedly connected to the screw (1414) through the rotating disk (1212) and the supporting rod (1416) close to the top of the rotating rod (1312), and the screw (1414), a spray nozzle (1413) is arranged on the screw (1414), and the spray nozzle (1413) and the screw (1414) are threadedly connected.

5. The device for multi-strain symbiotic culture and fermentation of microbial fertilizer according to claim 4, characterized in that: The side of the spray nozzle (1413) farther from the rotating rod (1312) is fixedly connected to the indexing platform (1417), and the side of the indexing platform (1417) closer to the rejecting rod (1412) is reserved with an indexing cavity. The side of the rejecting rod (1412) closer to the rotating rod (1312) is fixedly connected to the sliding platform, and the sliding platform and the indexing cavity are slidably connected. The rotating disk (1212) is fixedly connected to a liquid storage shell (1418), and a plurality of liquid delivery rubber pipelines (1419) are arranged at the tail of the liquid storage shell (1418). One end of the liquid delivery rubber pipeline (1419) is fixedly connected to the rotating disk (1212) and the liquid storage shell (1418), and the other end is fixedly connected to the spray nozzle (1413) through the displacement disk (1316).

6. The microbial fertilizer multi-strain symbiotic culture and fermentation device according to claim 3, characterized in that: The top of the rotating disk (1212) is fixedly connected to a plurality of storage shells (1327), and the tail of the storage shells (1327) is provided with a plurality of rubber movable pipes (1328). One end of the rubber movable pipes (1328) is fixedly connected to the storage shells (1327) through the rotating disk (1212), and the other end is fixedly connected to the delivery pipe (1315).

7. The microbial fertilizer multi-strain symbiotic culture and fermentation device according to claim 6, characterized in that: The sheet bodies (1322) are respectively located on both sides of the disc body (1321), and the displacement platform (1323) reserves a displacement hole three (1329), and the inner structure of the displacement hole three (1329) is the same as the outer structure of the sheet body (1322).

8. The device for multi-strain symbiotic culture and fermentation of microbial fertilizer according to claim 7, characterized in that: A plurality of stop rods (1330) are fixedly connected to the top of the displacement disk (1316), and the stop rods (1330) pass through the rotating disk (1212) and are slidably connected to the rotating disk (1212).

9. The device for multi-species symbiotic culture and fermentation of microbial fertilizer according to claim 7, characterized in that: The top of the culture shell (12) is fixedly connected to a motor 1 (1213), and the power end of the motor 1 (1213) is fixedly connected to the rotating rod (1312) through the culture shell (12). The culture shell (12) is provided with a delivery hole, and the delivery hole area is fixedly connected to a fertilizer pipeline (1214).

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