A temperature regulation system for mixing agricultural microbial inoculants

Abstract

The present invention discloses a temperature regulation system for mixing agricultural microbial agents, which relates to the technical field of agricultural fertilizer production, and includes a support base, a mixing tank and a rotating pipe assembly. Fixed plates are arranged on both sides of the top of the support base, and a first motor is connected to the outer side of the left part of the fixed plate. A steering shaft is arranged at the output end of the first motor, and the mixing tank is arranged at the outer end of the steering shaft. Through the covering of the communication groove by the docking sleeve, the inside of the mixing tank can be kept in a vacuum state for a long time. By keeping the inside of the mixing tank in a vacuum state, it can effectively prevent external miscellaneous bacteria from affecting the mixing and catalysis of the microbial agents. In addition, the agents in the material are anaerobic bacteria. By keeping the inside of the mixing tank in a vacuum state, the growth rate of the anaerobic bacteria can be effectively increased. In addition, the vacuum state has a good heat insulation effect, which can effectively prevent the external temperature from interfering with the material mixing, and also enables the system to better control the mixing temperature of the material.

Description

Technical Field

[0001] The present invention relates to the technical field of agricultural fertilizer production, and specifically relates to a temperature regulation system for mixing agricultural microbial agents. Background Technique

[0002] The rapid development of agriculture has led to a significant increase in the use of chemical fertilizers. However, the excessive use of chemical fertilizers has caused a decline in the quality of agricultural soil, a reduction in the yield and quality of agricultural products, and has caused a certain degree of damage to the ecological environment. In order to better fit the natural environment and produce beneficial positive effects, microbial agents have emerged. During the production of microbial agents, it is usually necessary to heat and mix various fermented substances and agents.

[0003] During the mixing process of microbial agents, strict control of temperature is required. Both too high and too low temperatures will affect the normal fermentation process. However, in the existing temperature regulation system for mixing agricultural microbial agents, it is difficult to accurately control the mixing temperature in a timely manner during use, and it is difficult to quickly adjust the temperature when the temperature is too high or too low.

[0004] Therefore, in view of this, research and improvement are carried out on the existing structure and deficiencies, and a temperature regulation system for mixing agricultural microbial agents is proposed. Summary of the Invention

[0005] The purpose of the present invention is to provide a temperature regulation system for mixing agricultural microbial agents to solve the problems raised in the above background technique.

[0006] To achieve the above purpose, the present invention provides the following technical solution: A temperature regulation system for mixing agricultural microbial agents, including a support base, a mixing tank, and a rotating pipe assembly. On both sides of the top of the support base, there are fixed plates, and on the outer side of the left part of the fixed plate, a first motor is connected. The output end of the first motor is provided with a steering shaft, and the mixing tank is arranged at the outer end of the steering shaft. The outer end of the bottom of the mixing tank is provided with a heating base, and a feeding port is opened on the right side of the top of the mixing tank. A second motor is arranged on the outer side of the top of the mixing tank, and the output end of the second motor is connected with a magnetic attraction seat. The rotating pipe assembly is arranged on the outer side of the bottom of the magnetic attraction seat, and the outer end of the rotating pipe assembly is connected with a material mixing assembly. A ventilation valve is arranged on the outer side of the left part of the mixing tank, and a pressure pump is arranged on the outer side of the right part of the mixing tank. A vacuum pumping tank is arranged on the outer side of the bottom of the mixing tank, and a discharge port is opened on the outer side of the bottom of the vacuum pumping tank. A rotating cutter is connected to the inner side of the discharge port.

[0007] Furthermore, the first motor is rotationally connected to the mixing tank through the steering shaft, and there are two steering shafts arranged at the outer end of the mixing tank.

[0008] Further, the mixing box and the heating base are fixedly connected by bolts, and the inner surface of the heating base is in contact with the outer surface of the mixing box.

[0009] Further, the second motor is rotatably connected to the magnetic attraction seat, and the vertical center line of the magnetic attraction seat coincides with the vertical center line of the mixing box.

[0010] Further, the rotating pipe assembly includes a pipe body, a communication groove and a limiting groove. Communication grooves are formed on the left and right sides of the pipe body, and limiting grooves are formed on the front and back sides of the pipe body.

[0011] Further, the pipe body is welded to the magnetic attraction seat, and the pipe body is communicated with the vacuum pumping box through the communication groove.

[0012] Further, the mixing component includes a docking sleeve, stirring paddles, a temperature sensor and an electromagnetic docking head. Stirring paddles are connected to the outer sides of both sides of the docking sleeve, a temperature sensor is arranged inside the stirring paddles, and an electromagnetic docking head is connected to the outer side of the top of the docking sleeve.

[0013] Further, the docking sleeve is sleeved on the pipe body, and the stirring paddles are distributed in an array at the outer end of the docking sleeve.

[0014] Further, the docking sleeve and the electromagnetic docking head are integrated, and the electromagnetic docking head is electromagnetically adsorbed to the magnetic attraction seat.

[0015] Further, the vacuum pumping box is communicated with the discharge port, and the vertical center line of the discharge port coincides with the vertical center line of the rotating cutter.

[0016] The present invention provides a temperature regulation system for mixing agricultural microbial agents, which has the following beneficial effects: By covering the communication groove with the docking sleeve, the inside of the mixing box can be kept in a vacuum state for a long time. By keeping the inside of the mixing box in a vacuum state, it can effectively prevent external miscellaneous bacteria from affecting the mixing and catalysis of microbial agents. In addition, the microbial agents in the material are anaerobic bacteria. By keeping the inside of the mixing box in a vacuum state, the growth rate of anaerobic bacteria can be effectively increased. In addition, the vacuum state has a good heat insulation effect, which can effectively prevent the external temperature from interfering with the material mixing, and this also enables the system to better control the mixing temperature of the material. When the mixing box returns to the normal position, the communication groove at the outer end of the pipe body will be exposed again. The pressure pump and the vacuum pumping box work simultaneously, and the microbial agent will enter the vacuum pumping box through the communication groove due to the pressure difference. The microbial agent that enters the vacuum pumping box will be discharged from the discharge port. During the process of discharging the microbial agent from the discharge port, the rotating cutter rotates and can cut the microbial agent into small pieces of uniform size. This enables the equipment to complete the feeding by using the temperature control component without adding a feeding device, which can effectively reduce the manufacturing cost of the equipment.

[0017] 1. When the first motor of the present invention operates, it can drive the steering shaft to drive the mixing box to rotate and turn the mixing box upside down, which enables all the materials in the mixing box to move closer to the top of the mixing box. At this time, the vacuum pumping box operates, and the suction force can enter the inside of the mixing box through the communication groove at the outer end of the pipe body, which enables the inside of the mixing box to be evacuated. After the inside of the mixing box is evacuated, the steering shaft rotates to drive the mixing box to return to its original position. During the process of the mixing box returning to its original position, the magnetic seat loses power, which can release the electromagnetic adsorption between the magnetic seat and the electromagnetic docking head. This enables the electromagnetic docking head to drive the docking sleeve to slide on the surface of the pipe body during the process of the mixing box returning to its original position, and move the docking sleeve to the bottom end of the pipe body to cover the communication groove on the surface of the pipe body. By covering the communication groove with the docking sleeve, the inside of the mixing box can maintain a vacuum state for a long time. By keeping the inside of the mixing box in a vacuum state, it can effectively prevent external miscellaneous bacteria from affecting the mixing and catalysis of microbial agents. In addition, the agents in the materials are anaerobic bacteria. By keeping the inside of the mixing box in a vacuum state, it can effectively improve the growth rate of anaerobic bacteria. In addition, the vacuum state has a good heat insulation effect, which can effectively prevent the external temperature from interfering with the material mixing, and also enables the system to better control the mixing temperature of the materials.

[0018] 2. A temperature sensor is installed inside the stirring paddle of the present invention. Since the stirring paddle is in contact with the materials in real time, by installing the temperature sensor inside the stirring paddle, it can effectively improve the real-time performance of the system's grasp of the material temperature. When the microbial agent is in the catalysis process, if the temperature sensor senses that the temperature is too high, the first motor can drive the steering shaft to rotate, which enables the materials to move from the side of the mixing box with the heating seat to the side without the heating seat during the process of the mixing box turning over. This enables the materials to quickly stop heating up, which can effectively prevent the materials from being affected by too high temperature during catalysis. In addition, during the process of the mixing box turning, the mixing component can turn along with the mixing box, which enables the materials to still be normally stirred and the temperature detected after the position adjustment. When the temperature of the materials after the position adjustment is too low, the mixing box can turn back to its original position to continue heating the materials.

[0019] 3. After the catalysis of the materials of the present invention is completed, the mixing box can continue to rotate, and the heating seat can continue to heat the materials during this process to improve the mixing effect between the materials. During the mixing process after the catalysis of the materials is completed, if the temperature inside the mixing box is too high, the vent valve at the outer end of the mixing box will be opened. After the vent valve is opened, the low-temperature air from the outside will flow into the inside of the mixing box due to the pressure difference between the inside and outside of the mixing box, which allows the materials with too high temperature to be quickly cooled. Since the catalysis of the materials is completed, the outside air will not affect the stirring of the materials at this time. When the temperature in the mixing box is too low, the pressure pump can work to pressurize the inside of the mixing box. By increasing the air pressure inside the mixing box, the temperature in the mixing box can be increased to ensure that the temperature of the mixed materials in the mixing box remains normal. By adopting a variety of different methods to heat and cool the materials, the system can heat and cool the materials in an appropriate manner at different stages of the mixing of the microbial agents, which can improve the mixing effect of the microbial agents.

[0020] 4. After the preparation of the microbial agent of the present invention is completed, the mixing box rotates to cause the docking sleeve to move toward the direction of the magnetic seat. After the electromagnetic docking head and the magnetic seat are re-fitted, the magnetic seat works to re-adsorb the electromagnetic docking head. At this time, the mixing box returns to the original position, and the connecting groove at the outer end of the tube body is exposed again. At this time, the pressure pump and the vacuum pump box work at the same time. The microbial agent will pass through the connecting groove into the interior of the vacuum pump box due to the pressure difference, and the microbial agent entering the interior of the vacuum pump box will be discharged from the discharge port. During the process of the microbial agent being discharged from the discharge port, the rotating cutter rotates to cut the microbial agent into small pieces of uniform size. This allows the equipment to complete the unloading using a temperature control component without adding unloading equipment, which can effectively reduce the manufacturing cost of the equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 This is a schematic diagram of the overall structure of a temperature regulating system for mixing agricultural microbial agents according to the present invention;

[0022] Figure 2 This is a schematic diagram of the structure of a heating seat of a temperature regulating system for mixing agricultural microbial agents according to the present invention;

[0023] Figure 3 This is a cross-sectional structural schematic diagram of a rotating tube assembly of a temperature regulating system for mixing agricultural microbial agents according to the present invention;

[0024] Figure 4 This is a schematic diagram of the structure of a mixing component of a temperature regulating system for mixing agricultural microbial agents according to the present invention;

[0025] Figure 5 It is a schematic diagram of the three-dimensional structure of a rotating tube assembly of a temperature regulating system for mixing agricultural microbial agents according to the present invention;

[0026] Figure 6 Schematic diagram of the rotating cutting knife structure of the temperature regulation system for mixing an agricultural microbial inoculant according to the present invention;

[0027] Figure 7 Schematic diagram of the process of Temperature Regulation Scheme A of the temperature regulation system for mixing an agricultural microbial inoculant according to the present invention;

[0028] Figure 8 Schematic diagram of the process of Temperature Regulation Scheme B of the temperature regulation system for mixing an agricultural microbial inoculant according to the present invention.

[0029] In the figure: 1, support base; 2, fixed plate; 3, first motor; 4, steering shaft; 5, mixing tank; 6, heating base; 7, feeding port; 8, second motor; 9, magnetic attraction seat; 10, rotating pipe assembly; 1001, pipe body; 1002, communication groove; 1003, limiting groove; 11, mixing component; 1101, docking sleeve; 1102, stirring paddle; 1103, temperature sensor; 1104, electromagnetic docking head; 12, ventilation valve; 13, pressure pump; 14, vacuum pumping box; 15, discharge port; 16, rotating cutting knife. Detailed implementation manners

[0030] Please refer to Figure 1-8 , the present invention provides a technical solution: a temperature regulation system for mixing an agricultural microbial inoculant, including a support base 1, a mixing tank 5 and a rotating pipe assembly 10. On both sides of the top of the support base 1, there are fixed plates 2, and on the outer side of the left part of the fixed plate 2, there is a first motor 3. The output end of the first motor 3 is provided with a steering shaft 4, and the mixing tank 5 is arranged at the outer end of the steering shaft 4. At the outer end of the bottom of the mixing tank 5, there is a heating base 6, and on the right side of the top of the mixing tank 5, there is a feeding port 7. On the outer side of the top of the mixing tank 5, there is a second motor 8, and the output end of the second motor 8 is connected with a magnetic attraction seat 9. The rotating pipe assembly 10 is arranged on the outer side of the bottom of the magnetic attraction seat 9, and the outer end of the rotating pipe assembly 10 is connected with a mixing component 11. On the outer side of the left part of the mixing tank 5, there is a ventilation valve 12, and on the outer side of the right part of the mixing tank 5, there is a pressure pump 13. On the outer side of the bottom of the mixing tank 5, there is a vacuum pumping box 14, and at the outer side of the bottom of the vacuum pumping box 14, there is a discharge port 15. Inside the discharge port 15, there is a rotating cutting knife 16.

[0031] Please refer to Figure 1-8, the first motor 3 is rotatably connected to the mixing box 5 through the steering shaft 4, and two steering shafts 4 are arranged at the outer end of the mixing box 5. The mixing box 5 is fixedly connected to the heating base 6 by bolts, and the inner surface of the heating base 6 is fitted with the outer surface of the mixing box 5. The second motor 8 is rotatably connected to the magnetic attraction seat 9, and the vertical center line of the magnetic attraction seat 9 coincides with the vertical center line of the mixing box 5. The rotating pipe assembly 10 includes a pipe body 1001, a communication groove 1002 and a limiting groove 1003. Communication grooves 1002 are formed on the left and right sides of the pipe body 1001, and limiting grooves 1003 are formed on the front and back sides of the pipe body 1001. The pipe body 1001 is welded to the magnetic attraction seat 9, and the pipe body 1001 is communicated with the vacuum pumping box 14 through the communication groove 1002. The mixing component 11 includes a docking sleeve 1101, a stirring paddle 1102, a temperature sensor 1103 and an electromagnetic docking head 1104. Stirring paddles 1102 are connected to the outer sides of the docking sleeve 1101, and a temperature sensor 1103 is arranged inside the stirring paddle 1102. An electromagnetic docking head 1104 is connected to the outer side of the top of the docking sleeve 1101. The docking sleeve 1101 is sleeved on the pipe body 1001, and the stirring paddles 1102 are arranged in an array at the outer end of the docking sleeve 1101. The docking sleeve 1101 and the electromagnetic docking head 1104 are integrated, and the electromagnetic docking head 1104 is magnetically adsorbed to the magnetic attraction seat 9. The vacuum pumping box 14 is communicated with the discharge port 15, and the vertical center line of the discharge port 15 coincides with the vertical center line of the rotating cutter 16.

[0032] The specific operation is as follows. After opening the feeding port 7, the staff can put the materials for preparing the fermented product and the bacterial agent into the interior of the mixing box 5. After the material input is completed, the staff closes the feeding port 7. At the same time, the first motor 3 at the outer end of the fixing plate 2 works, enabling the steering shaft 4 to drive the mixing box 5 to rotate and turn the mixing box 5 upside down. This causes the materials in the mixing box 5 to all move closer to the top of the mixing box 5. At this time, the vacuum pumping box 14 works, enabling the suction force to enter the interior of the mixing box 5 through the communication groove 1002 at the outer end of the pipe body 1001. This makes the interior of the mixing box 5 be pumped into a vacuum state. After the interior of the mixing box 5 is pumped into a vacuum state, the steering shaft 4 rotates, driving the mixing box 5 to return to the normal position. During the process of the mixing box 5 returning to the normal position, the magnetic seat 9 loses power, enabling the electromagnetic adsorption between the magnetic seat 9 and the electromagnetic docking head 1104 to be released. This allows the electromagnetic docking head 1104 to drive the docking sleeve 1101 to slide on the surface of the pipe body 1001 during the process of the mixing box 5 returning to the normal position, and makes the docking sleeve 1101 move to the bottom end of the pipe body 1001 to cover the communication groove 1002 on the surface of the pipe body 1001. By covering the communication groove 1002 with the docking sleeve 1101, the interior of the mixing box 5 can be kept in a vacuum state for a long time. By keeping the interior of the mixing box 5 in a vacuum state, it can effectively prevent external miscellaneous bacteria from affecting the mixing and catalysis of the microbial bacterial agent. In addition, the bacterial agent in the material is an anaerobic bacterium. By keeping the interior of the mixing box 5 in a vacuum state, it can effectively improve the growth rate of the anaerobic bacterium. Additionally, the vacuum state has a good heat insulation effect, which can effectively prevent the external temperature from interfering with the material mixing, and also enables the system to better control the mixing temperature of the materials. After the interior of the mixing box 5 is pumped into a vacuum, the heating seat 6 works, heating the bottom of the mixing box 5. At the same time, the second motor 8 works, driving the magnetic seat 9 and the pipe body 1001 to rotate. The docking sleeve 1101 can be limited by the limiting groove 1003 at the outer end of the pipe body 1001, which enables the docking sleeve 1101 to also rotate with the pipe body 1001. During the rotation of the docking sleeve 1101, it can drive the stirring paddle 1102 at its outer end to rotate and stir the materials. Through the stirring of the stirring paddle 1102 and the heating of the heating seat 6, it can effectively ensure the mixing and catalysis of the microbial bacterial agent. A temperature sensor 1103 is installed inside the stirring paddle 1102. Since the stirring paddle 1102 is in contact with the materials in real time, by installing the temperature sensor 1103 inside the stirring paddle 1102, it can effectively improve the real-time performance of the system's control of the material temperature. When the microbial bacterial agent is in the catalysis process, if the temperature sensor 1103 senses that the temperature is too high, the first motor 3 can drive the steering shaft 4 to rotate. This causes the materials to move from the side of the mixing box 5 with the heating seat 6 to the side without the heating seat 6 during the flipping process of the mixing box 5, enabling the materials to quickly stop heating up. This can effectively prevent the materials from being affected by too high a temperature during catalysis. In addition, during the turning process of the mixing box 5, the mixing component 11 can turn together with the mixing box 5.This enables the material to be normally stirred and its temperature to be detected after the position adjustment. When the temperature of the material after the position adjustment is too low, the mixing box 5 can rotate back to its original position to continue heating the material. After the material is catalyzed, the mixing box 5 can continue to rotate. At the same time, during this process, the heating seat 6 can continue to heat the material to improve the mixing effect between the materials. During the mixing process after the material is catalyzed, if the temperature inside the mixing box 5 is too high, the ventilation valve 12 at the outer end of the mixing box 5 will open. After the ventilation valve 12 opens, the low-temperature air from the outside will rush into the inner side of the mixing box 5 due to the pressure difference between the inside and outside of the mixing box 5. This enables the material with too high a temperature to be quickly cooled. Since the material is catalyzed, the outside air will not affect the stirring of the material at this time. When the temperature inside the mixing box 5 is too low, the pressure pump 13 can work to pressurize the inside of the mixing box 5. By increasing the air pressure inside the mixing box 5, the temperature inside the mixing box 5 can be increased to ensure that the temperature of the mixed material inside the mixing box 5 remains normal. By using a variety of different methods to heat and cool the material, the system can use appropriate methods to increase and decrease the temperature at different stages of the mixing of the microbial inoculant, which can improve the mixing effect of the microbial inoculant. After the microbial inoculant is prepared, the mixing box 5 rotates, which can cause the docking sleeve 1101 to move in the direction of the magnetic seat 9. After the electromagnetic docking head 1104 is reattached to the magnetic seat 9, the magnetic seat 9 works and can re-adsorb the electromagnetic docking head 1104. At this time, the mixing box 5 returns to its normal position, and the communication groove 1002 at the outer end of the pipe body 1001 will be exposed again. At this time, the pressure pump 13 and the vacuum extraction box 14 work simultaneously, and the microbial inoculant will enter the vacuum extraction box 14 through the communication groove 1002 due to the pressure difference. The microbial inoculant that enters the vacuum extraction box 14 will be discharged from the discharge port 15. During the process of the microbial inoculant being discharged from the discharge port 15, the rotating cutter 16 rotates and can cut the microbial inoculant into small pieces of uniform size. This enables the equipment to complete the blanking by using the temperature control component without adding a blanking device, which can effectively reduce the manufacturing cost of the equipment.

[0033] In summary, for this temperature regulation system for mixing agricultural microbial inoculants, when in use, first, after opening the feed inlet 7, the staff can put the fermentation substances and inoculants to be prepared into the inside of the mixing box 5. After the material is put in, the staff closes the feed inlet 7. At the same time, by operating the first motor 3 at the outer end of the fixed plate 2, the steering shaft 4 can drive the mixing box 5 to rotate and turn the mixing box 5 upside down, which enables all the materials in the mixing box 5 to move closer to the top of the mixing box 5;

[0034] Then the vacuum pumping box 14 works, enabling the suction force to enter the interior of the mixing box 5 through the communication groove 1002 at the outer end of the pipe body 1001, which makes the interior of the mixing box 5 evacuated. After the interior of the mixing box 5 is evacuated, the steering shaft 4 rotates, driving the mixing box 5 to return to the upright position. During the process of the mixing box 5 returning to the upright position, the magnetic seat 9 loses power, enabling the electromagnetic adsorption between the magnetic seat 9 and the electromagnetic docking head 1104 to be released. This allows the electromagnetic docking head 1104 to drive the docking sleeve 1101 to slide on the surface of the pipe body 1001 during the process of the mixing box 5 returning to the upright position, and move the docking sleeve 1101 to the bottom end of the pipe body 1001 to cover the communication groove 1002 on the surface of the pipe body 1001. By covering the communication groove 1002 with the docking sleeve 1101, the interior of the mixing box 5 can be kept in a vacuum state for a long time. By keeping the interior of the mixing box 5 in a vacuum state, it can effectively prevent external miscellaneous bacteria from affecting the mixing and catalysis of microbial agents. In addition, the agents in the material are anaerobic bacteria. By keeping the interior of the mixing box 5 in a vacuum state, the growth rate of anaerobic bacteria can be effectively increased. In addition, the vacuum state has a good heat insulation effect, which can effectively prevent the external temperature from interfering with the material mixing, and also enables the system to better control the mixing temperature of the material;

[0035] Next, after the interior of the mixing box 5 is evacuated, the heating seat 6 works to heat the bottom of the mixing box 5. At the same time, the second motor 8 works to drive the magnetic seat 9 and the pipe body 1001 to rotate. The docking sleeve 1101 can be limited by the limiting groove 1003 at the outer end of the pipe body 1001, which allows the docking sleeve 1101 to also rotate with the pipe body 1001. During the rotation of the docking sleeve 1101, it can drive the stirring paddle 1102 at its outer end to rotate and stir the material. Through the stirring of the stirring paddle 1102 and the heating of the heating seat 6, the mixing and catalysis of microbial agents can be effectively ensured. A temperature sensor 1103 is installed inside the stirring paddle 1102. Since the stirring paddle 1102 is in contact with the material in real time, by installing the temperature sensor 1103 inside the stirring paddle 1102, the real-time performance of the system's control of the material temperature can be effectively improved;

[0036] Subsequently, during the catalysis process of the microbial inoculant, if the temperature sensor 1103 senses that the temperature is too high, the first motor 3 can drive the steering shaft 4 to rotate. This causes the mixing box 5 to flip, and during the flipping process, the materials can move from the side of the mixing box 5 with the heating seat 6 to the side without the heating seat 6. This enables the materials to quickly stop heating up, effectively avoiding the influence of excessive temperature on catalysis. In addition, during the turning process of the mixing box 5, the mixing component 11 can turn together with the mixing box 5. This allows the materials to still be normally stirred and the temperature detected after the position adjustment. When the temperature of the materials after the position adjustment is too low, the mixing box 5 can turn back to its original position and continue to heat the materials. After the materials are catalyzed, the mixing box 5 can continue to rotate, and at the same time, the heating seat 6 can continue to heat the materials during this process to improve the mixing effect between the materials;

[0037] Then, during the mixing process after the materials are catalyzed, if the temperature inside the mixing box 5 is too high, the ventilation valve 12 at the outer end of the mixing box 5 will open. After the ventilation valve 12 opens, the low-temperature air from the outside will rush into the inner side of the mixing box 5 due to the pressure difference between the inside and outside of the mixing box 5. This enables the materials with too high a temperature to be quickly cooled. Since the materials are catalyzed, the outside air will not affect the stirring of the materials at this time. When the temperature inside the mixing box 5 is too low, the pressure pump 13 can work to pressurize the inside of the mixing box 5. By increasing the air pressure inside the mixing box 5, the temperature inside the mixing box 5 can be increased to ensure that the mixing temperature inside the mixing box 5 remains normal. By using a variety of different methods to heat and cool the materials, the system can use appropriate methods to increase and decrease the temperature at different stages of the microbial inoculant mixing, which can improve the mixing effect of the microbial inoculant;

[0038] Finally, after the microbial inoculant is prepared, the mixing box 5 rotates, causing the docking sleeve 1101 to displace towards the magnetic seat 9. After the electromagnetic docking head 1104 re - fits with the magnetic seat 9, the magnetic seat 9 works and can re - adsorb the electromagnetic docking head 1104. At this time, the mixing box 5 returns to its upright position, and the communication groove 1002 at the outer end of the pipe body 1001 will be exposed again. At this time, the pressure pump 13 and the vacuum pumping box 14 work simultaneously, and the microbial inoculant will enter the vacuum pumping box 14 through the communication groove 1002 due to the pressure difference. The microbial inoculant that enters the vacuum pumping box 14 will be discharged from the discharge port 15. During the process of the microbial inoculant being discharged from the discharge port 15, the rotating cutting knife 16 rotates and can cut the microbial inoculant into small pieces of uniform size. This enables the equipment to complete the feeding using the temperature control component without adding a feeding device, which can effectively reduce the manufacturing cost of the equipment.

[0039] The embodiments of the present invention are given for purposes of illustration and description, and are not exhaustive or limit the invention to the disclosed forms. Many modifications and variations are obvious to those of ordinary skill in the art. The embodiments are chosen and described in order to best explain the principles of the invention and its practical application, and to enable those of ordinary skill in the art to understand the invention so as to design various embodiments with various modifications suitable for a particular purpose.

Claims

1. A temperature regulation system for mixing agricultural microbial inoculants, characterized in that, It includes a support base (1), a mixing box (5) and a rotating pipe assembly (10). On both sides of the top of the support base (1), there are fixed plates (2). On the outer side of the left part of the fixed plate (2), a first motor (3) is connected. The output end of the first motor (3) is provided with a steering shaft (4). The mixing box (5) is arranged at the outer end of the steering shaft (4). At the outer end of the bottom of the mixing box (5), there is a heating base (6). On the right side of the top of the mixing box (5), there is a feeding port (7). On the outer side of the top of the mixing box (5), a second motor (8) is arranged. The output end of the second motor (8) is connected with a magnetic attraction seat (9). The rotating pipe assembly (10) is arranged at the outer side of the bottom of the magnetic attraction seat (9). The outer end of the rotating pipe assembly (10) is connected with a mixing component (11). On the outer side of the left part of the mixing box (5), there is a ventilation valve (12). On the outer side of the right part of the mixing box (5), there is a pressure pump (13). At the outer side of the bottom of the mixing box (5), there is a vacuum pumping box (14). At the outer side of the bottom of the vacuum pumping box (14), there is a discharge port (15). Inside the discharge port (15), there is a rotating cutter (16); The rotating pipe assembly (10) includes a pipe body (1001), a communication groove (1002) and a limiting groove (1003). On the left and right sides of the pipe body (1001), there are communication grooves (1002). On the front and back sides of the pipe body (1001), there are limiting grooves (1003); The pipe body (1001) is welded to the magnetic attraction seat (9), and the pipe body (1001) is communicated with the vacuum pumping box (14) through the communication groove (1002); The mixing component (11) includes a docking sleeve (1101), a stirring paddle (1102), a temperature sensor (1103) and an electromagnetic docking head (1104). On the outer sides of both sides of the docking sleeve (1101), there are stirring paddles (1102). Inside the stirring paddle (1102), there is a temperature sensor (1103). On the outer side of the top of the docking sleeve (1101), there is an electromagnetic docking head (1104); The docking sleeve (1101) is sleeved on the pipe body (1001), and the stirring paddles (1102) are arranged in an array at the outer end of the docking sleeve (1101); The docking sleeve (1101) and the electromagnetic docking head (1104) are integrated, and the electromagnetic docking head (1104) is electromagnetically adsorbed to the magnetic attraction seat (9).

2. The temperature regulation system for mixing agricultural microbial agents according to claim 1, characterized in that, The first motor (3) is rotationally connected to the mixing box (5) through the steering shaft (4), and there are two steering shafts (4) arranged at the outer end of the mixing box (5).

3. The temperature regulation system for mixing agricultural microbial inoculants according to claim 1, characterized in that, The mixing box (5) is fixedly connected to the heating base (6) by bolts, and the inner surface of the heating base (6) is fitted to the outer surface of the mixing box (5).

4. The temperature regulation system for mixing agricultural microbial agents according to claim 1, characterized in that, The second motor (8) is rotationally connected to the magnetic attraction seat (9), and the vertical center line of the magnetic attraction seat (9) coincides with the vertical center line of the mixing box (5).

5. A temperature regulation system for mixing agricultural microbial agents according to claim 1, characterized in that, The vacuum pumping box (14) is communicated with the discharge port (15), and the vertical center line of the discharge port (15) coincides with the vertical center line of the rotating cutter (16).

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