Organic fertilizer, organic fertilizer processing equipment and organic fertilizer processing technology
By designing an organic fertilizer processing equipment equipped with temperature and humidity sensors and drying devices, the temperature control problem during the secondary fermentation of organic fertilizers is solved, accurate temperature adjustment under no turning conditions is achieved, and fermentation efficiency and finished product quality are improved.
Patent Information
- Application Number
- CN202510464993.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-15
- Publication Date
- 2025-06-13
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
The prior art is difficult to accurately judge and control the temperature in the composting during the secondary fermentation of organic fertilizers, especially without turning the composting.
An organic fertilizer processing equipment is designed, including multiple barrier mechanisms, each barrier mechanism is equipped with a temperature and humidity sensor and a drying device, and real-time monitoring and adjustment of the temperature and humidity of fermentation raw materials through the rotating shaft and the water hole.
It realizes that the temperature of fermentation raw materials is accurately judged and controlled without turning the compost, improves the efficiency and quality of the fermentation process, and ensures the quality of the finished product of organic fertilizers.
Smart Images
Figure CN120136592A_ABST
Abstract
Description
Technical Field
[0001] The present invention belongs to the technical field of organic fertilizer processing, and more specifically, relates to an organic fertilizer, an organic fertilizer processing device, and an organic fertilizer processing technology. Background Art
[0002] The secondary fermentation of organic fertilizers refers to further reducing the harmful substances that have not been completely degraded in organic waste through the method of adding auxiliary materials and re-fermenting on the basis of primary fermentation. Compared with the organic fertilizers obtained from primary fermentation, the organic fertilizers obtained from secondary fermentation have the advantages of easy quality control, low harmful component content, easy spreading and utilization, etc.
[0003] The secondary fermentation carried out by the wet method is to mix the fermented waste with a certain proportion of water, and then add microorganisms and auxiliary materials to convert the harmful substances. The number of times of turning the pile during secondary fermentation is small, but since it is necessary to continuously decompose the refractory substances, it is necessary to continuously maintain the adjustment of temperature, humidity and oxygen ratio during the fermentation process to balance high-temperature sterilization and maintaining the activity of functional flora. Summary of the Invention
[0004] To overcome the deficiencies of the prior art, the present invention provides an organic fertilizer, an organic fertilizer processing device, and an organic fertilizer processing technology, which can accurately judge and control the temperature inside the compost without turning the compost during the secondary fermentation and aging process.
[0005] The technical solution adopted by the present invention to solve its technical problems is as follows:
[0006] An organic fertilizer processing device includes a box body, on which a plurality of partition mechanisms are inserted. The plurality of partition mechanisms are inserted into the box body in sequence from top to bottom. The partition mechanism includes a plurality of horizontal partitions. Both ends of the horizontal partition are fixedly connected with perforated insertion plates. A rotating shaft is inserted inside the horizontal partition. The two ends of the rotating shaft are respectively fixedly connected with a front rotating head and a rear rotating head. A temperature and humidity sensor and a drying device are fixedly connected to the rotating shaft. A water passing hole is opened on the rotating shaft. The drying device and the water passing hole are respectively arranged on the left and right sides of the temperature and humidity sensor. The inner wall of the rotating shaft is thicker in the direction of the temperature and humidity sensor. A horizontal partition opening is opened on the horizontal partition. The temperature and humidity sensor is arranged inside the horizontal partition opening. The plurality of horizontal partitions are all inserted into a vertical partition belt. Both ends of the vertical partition belt are fixedly connected with non-perforated insertion plates.
[0007] A plurality of side openings are opened on the box body. The perforated insertion plates and the non-perforated insertion plates are all inserted inside the corresponding side openings. A sealing groove is arranged on the inner edge of the side opening. Plugging edges corresponding to the sealing groove are arranged on both the perforated insertion plates and the non-perforated insertion plates.
[0008] Plugging grooves corresponding to the plugging edges are opened on the upper sides of the perforated insertion plates and the non-perforated insertion plates.
[0009] An organic fertilizer processing technology includes the following steps:
[0010] S1: Conduct preliminary fermentation on organic waste to obtain fermentation raw materials;
[0011] S2: Interleave and lay the fermentation raw materials and the partition mechanism inside the box body to conduct secondary fermentation on the fermentation raw materials;
[0012] S3: When the temperature of the fermentation raw materials in the box body rises, rotate the partition mechanism in the corresponding area to make the front rotating head open upward and the rear rotating head open downward;
[0013] S4: Inject temperature-adjusted water into the front rotating head to cool the corresponding area of the fermentation raw materials until the temperature of the fermentation raw materials returns to normal;
[0014] S5: Repeat steps S3 - 4 until the secondary fermentation of the fermentation raw materials is completed to obtain the finished organic fertilizer.
[0015] An organic fertilizer, which is prepared by the above-mentioned organic fertilizer processing process. Description of the Drawings
[0016] The present invention will be further described in detail below with reference to the drawings and specific implementation methods.
[0017] Figure 1 is the overall structure of an organic fertilizer processing equipment Figure 1 ;
[0018] Figure 2 is the overall structure of an organic fertilizer processing equipment Figure 2 ;
[0019] Figure 3 is the schematic structural diagram of the box body;
[0020] Figure 4 is Figure 3 the partial enlarged structural schematic diagram of part I in
[0021] Figure 5 is the schematic structural diagram of the partition mechanism;
[0022] Figure 6 is the schematic structural diagram of the vertical baffle belt;
[0023] Figure 7 is the schematic structural diagram of the rotation shaft induction state;
[0024] Figure 8 is the schematic structural diagram of the perforated plug board;
[0025] Figure 9 is the schematic structural diagram of the rotation shaft cooling state;
[0026] Figure 10 is the cross-sectional schematic diagram when the rotation shaft is inserted inside the horizontal baffle. Detailed implementation mode
[0027] As Figures 1-5 And Figure 10 Shown below:
[0028] An organic fertilizer processing device includes a box body 000, and a plurality of partition mechanisms 100 are inserted into the box body 000. The plurality of partition mechanisms 100 are inserted into the box body 000 in sequence from top to bottom. The partition mechanism 100 includes a plurality of crossbars 110. Both ends of the crossbar 110 are connected with perforated insertion plates 120 by bolts. A rotating shaft 130 is inserted into the crossbar 110. The two ends of the rotating shaft 130 are respectively connected with a front rotating head 140 and a rear rotating head 150 by threads. A temperature and humidity sensor 160 and a drying device 161 are connected to the rotating shaft 130 by screws. Water passing holes 131 are provided on the rotating shaft 130. A plurality of water passing holes 131 are provided, and porous materials are arranged inside the plurality of water passing holes 131. The drying device 161 and the water passing holes 131 are respectively arranged on the left and right sides of the temperature and humidity sensor 160. The inner wall of the rotating shaft 130 is thicker in the direction of the temperature and humidity sensor 160. A crossbar opening 111 is provided on the crossbar 110. The temperature and humidity sensor 160 is arranged inside the crossbar opening 111. The plurality of crossbars 110 are all inserted into a vertical bar belt 170. Both ends of the vertical bar belt 170 are connected with non-perforated insertion plates 180 by bolts;
[0029] When the processing device is needed for the secondary fermentation of organic fertilizer, all the partition mechanisms 100 can be taken out, and then the fermentation raw materials that have completed the preliminary fermentation are spread into the box body 000 for static placement and secondary fermentation. It is also possible to alternately spread the fermentation raw materials and the partition mechanisms 100 into the box body 000, so that the inside of the box body 000 can be simply layered by the partition mechanisms 100, and the fermentation raw materials are processed when the fermentation raw materials are spread, so that the newly added microorganisms and auxiliary materials can be spread into the middle area of the box body 000, thus simply completing the addition of microorganisms and auxiliary materials inside the secondary fermentation raw materials, providing convenience for subsequent fermentation and improving the fermentation conversion rate.
[0030] Under normal conditions, when the processing device is used for secondary fermentation, the front rotating head 140 and the rear rotating head 150 in the partition mechanism 100 are both in a state with the opening facing downwards, as Figure 1As shown, at this time, the temperature and humidity sensor 160 with an integrated temperature and humidity probe is located above the rotating shaft 130 and within the horizontal baffle opening 111, so that the temperature and humidity sensor 160 can directly contact the fermentation raw materials, convert the temperature and humidity signal values inside the fermentation raw materials into electrical signals and feedback them outward. The electrical signals can be received by an electrical signal receiving device, such as a display device or a sounding device. The above devices are all mature technical devices and will not be elaborated here. When the staff receives the change signals of temperature and humidity, they can rotate the corresponding front rotating head 140 according to the feedback results, so that the rotating shaft 130 rotates driven by the front rotating head 140, thus obtaining the corresponding effect and further stabilizing the temperature and humidity inside the fermentation raw materials.
[0031] Example 1 of stabilizing the temperature and humidity inside the fermentation raw materials by rotating the front rotating head 140: When the temperature inside the fermentation raw materials is too high or too low, rotate the front rotating head 140 by 180°, so that the front rotating head 140 can drive the rotating shaft 130 and the rear rotating head 150 to rotate 180° at the same time. At this time, the temperature and humidity sensor 160 is located below the rotating shaft 130. Then, temperature-adjusted water with appropriate temperature can be injected into the opening of the front rotating head 140, so that the inside of the fermentation raw materials can be cooled or heated by the temperature-adjusted water, and thus the stable control of too high or too low temperature inside the fermentation raw materials can be simply completed. Temperature-adjusted water can be injected into the inside of the rotating shaft 130 by connecting a water pipe to the front rotating head 140, thus facilitating the cooling of the secondary fermentation raw materials. Since the inner wall of the rotating shaft 130 is thicker on one side of the temperature and humidity sensor 160 and thinner on the opposite side of the temperature and humidity sensor 160, as Figure 10 shown, when the temperature and humidity sensor 160 rotates to the lower side of the rotating shaft 130, the fermentation raw materials can contact the temperature-adjusted water through the thinner inner wall of the rotating shaft 130, thereby improving the heat exchange efficiency between the fermentation raw materials and the temperature-adjusted water, and further facilitating the temperature control of the fermentation raw materials and increasing the temperature change speed.
[0032] Example 2 of stabilizing the internal temperature and humidity of the fermentation raw materials by rotating the front rotating head 140: When the humidity inside the fermentation raw materials is too high, rotate the front rotating head 140 clockwise by 90°, so that the front rotating head 140 can drive the rotating shaft 130 and the rear rotating head 150 to rotate clockwise by 90° simultaneously. At this time, the drying device 161 is located above the rotating shaft 130. The drying device can be a filter membrane that can unidirectionally filter water molecules, or it can be a drying bag that is waterproof on one side and water-permeable on the other side and contains a reusable water-absorbing desiccant inside. At this time, the water inside the fermentation raw materials can be retained inside the drying device 161 or slowly pass through the drying device 161 and enter the inside of the rotating shaft 130, thereby filtering and absorbing the water inside the fermentation raw materials. At the same time, to prevent the fermentation raw materials from entering the inside of the rotating shaft 130 through the drying device 161, the drying device 161 can be supported by adding a support frame to the drying device 161 to avoid the situation where the drying device 161 is deformed due to excessive pressure from the fermentation raw materials.
[0033] In addition, the water absorption speed through the filter membrane is relatively slow, but the water can be stored inside the rotating shaft 130 and discharged from the inside of the rear rotating head 150, and the water absorption capacity is relatively large; the water absorption speed through the drying bag is relatively fast, but when the fermentation raw materials are too wet, the drying bag is likely to exceed the water absorption upper limit, resulting in the loss of the original drying effect.
[0034] Example 3 of stabilizing the internal temperature and humidity of the fermentation raw materials by rotating the front rotating head 140: When the humidity inside the fermentation raw materials is too low, rotate the front rotating head 140 counterclockwise by 90°, so that the front rotating head 140 can drive the rotating shaft 130 and the rear rotating head 150 to rotate counterclockwise by 90° simultaneously. At this time, the water passing hole 131 is located above the rotating shaft 130. At this time, supplementary water with an appropriate temperature can be injected into the opening of the front rotating head 140, so that the supplementary water can penetrate into the inside of the fermentation raw materials through the water passing hole 131 to complete the supplementary water inside the fermentation raw materials.
[0035] Through the arrangement of multiple water passing holes 131 and the porous material inside the water passing holes, the pore diameter of the connection between the rotating shaft 130 and the fermentation raw materials can be reduced. After filling supplementary water inside the rotating shaft 130, since the humidity inside the fermentation raw materials is relatively low at this time, the supplementary water can diffuse upward through capillary action, enabling the supplementary water to seep into the interior of the fermentation raw materials by itself. In addition to being able to generate the effect of specifically supplementing the moisture inside the fermentation raw materials by selectively adding water inside the rotating shaft 130, compared with the traditional method of directly spraying water or injecting water under pressure into the fermentation raw materials after turning the pile, using the porous material to block the fermentation raw materials and only allowing the water to penetrate upward through capillary action can ensure that the fermentation raw materials will not fall into the inside of the rotating shaft 130 while ensuring that water penetration occurs only when the humidity inside the fermentation raw materials is lower than a certain level. That is, on the premise of ensuring sufficient injection of supplementary water, it can ensure that the water seeping into the fermentation raw materials is always within an appropriate range, avoiding the situation where excessive water is added when supplementing water to the fermentation raw materials by itself, resulting in too high humidity of the fermented fertilizer. In addition, by allowing the water to penetrate upward into the fermentation raw materials through capillary action, it can ensure that the water seeping into the fermentation raw materials always moves and diffuses towards the area with lower humidity, and further ensure uniform distribution of water inside the fermentation raw materials without the need to turn the pile.
[0036] In addition, since the water passing holes 131 can connect the fermentation raw materials with the inside of the rotating shaft 130, when it is necessary to supplement oxygen inside the fermentation raw materials, the position of the rear rotating head 150 can also be blocked by a plug, and then air can be introduced into the rotating shaft from the front rotating head 140 through an air pump, enabling the air to pass through the water passing holes 131 and enter the interior of the fermentation raw materials, thereby completing the oxygen supplementation work inside the fermentation raw materials. By supplementing oxygen in the above manner, it can avoid the manpower consumed during oxygen supplementation by turning the materials, save oxygen supplementation time, improve oxygen supplementation efficiency, and at the same time can specifically supplement oxygen to some areas inside the fermentation raw materials, such as the areas closer to the bottom and the center, improving the overall fermentation effect of the fermentation raw materials.
[0037] At the same time, the air pressure of the air pumped into the water passing holes 131 can be adjusted to form a pressure airflow, which blows the fermented fertilizer coated on the outside of the porous material, avoiding the situation where the fermented fertilizer softens after contacting the supplementary water and then blocks the porous material.
[0038] Since the front rotating head 140 is fixed on the rotating shaft 130, the rotation condition of the rotating shaft 130 at this time can be judged by observing the rotation position of the front rotating head 140, avoiding the situation where the temperature and humidity sensor 160, the drying device 161 or the water passing holes 131 are blocked by the crossbar 110, resulting in poor temperature and humidity sensing effect and poor stability of temperature and humidity.
[0039] Secondly, the arrangement of multiple partition mechanisms 100 and multiple cross bars 110 on the partition mechanism 100 enables the internal temperature of the fermentation raw materials to quickly locate the temperature-rising area inside the fermentation raw materials when the temperature rises, so that the temperature-rising area can be quickly and accurately cooled without affecting other non-temperature-rising areas;
[0040] Meanwhile, when the secondary fermentation raw materials need to be turned over, the partition mechanism 100 can be used as a barrier. When using turning devices such as shovels and scrapers to turn over, the partition mechanism 100 can prevent the turning device from penetrating into the lower layer of the fermentation raw materials, thereby ensuring that the turning device only turns the fermentation raw materials above the partition mechanism 100, so that the inside and outside of the fermentation raw materials can be quickly turned over. Secondly, by rotating the front rotating head 140, the outer sides of the temperature and humidity sensor 160, the drying device 161 or the water passing hole 131 can be rubbed against the inner side of the edge of the cross bar opening 111, so as to remove the fermentation raw materials adhered to the outer sides of the temperature and humidity sensor 160, the drying device 161 or the water passing hole 131. When turning over the fermentation raw materials, it can ensure that the position of the fermentation raw materials contacted by the temperature and humidity sensor 160 can change, thereby enhancing the sensing effect of the temperature and humidity sensor 160 on the temperature of the fermentation raw materials;
[0041] Secondly, since the processing equipment only needs to provide energy for the temperature and humidity sensor 160, a small battery can be used to provide electric energy for the temperature and humidity sensor 160, reducing the use cost and expanding the applicable environment. Or the processing equipment can be directly powered by a small solar panel, further reducing the maintenance cost, use cost and environmental dependence.
[0042] Such as Figures 3-4 、8 shown:
[0043] A plurality of side openings 010 are formed on the box body 000. The perforated plug board 120 and the non-perforated plug board 180 are both inserted into the corresponding inner sides of the side openings 010. A sealing groove 001 is arranged on the inner edge of the side opening 010. The perforated plug board 120 and the non-perforated plug board 180 are both provided with plugging edges 002 corresponding to the sealing groove 001. Therefore, through the arrangement of the sealing groove 001 and the plugging edge 002, when the partition mechanism 100 is inserted into the inside of the box body 000, the plugging edge 002 can be inserted into the inside of the sealing groove 001, while ensuring that the partition mechanism 100 will not be driven to shift by the pressure of the fermentation raw materials, and preventing the fermentation raw materials from leaking out from the gap between the partition mechanism 100 and the side opening 010.
[0044] Such as Figure 8 shown:
[0045] The upper sides of the perforated plug board 120 and the non-perforated plug board 180 are both provided with plug slots 003 corresponding to the plugging edges 002; thus, it can be ensured that multiple partition mechanisms 100 can be plugged into each other, and at the same time, multiple partition mechanisms 100 can be randomly sorted and stacked on the box body 000, improving the interchangeability between the partition mechanisms 100; when a certain partition mechanism 100 is damaged and cannot be immediately replenished and replaced, only the amount of fermentation raw materials for secondary fermentation needs to be reduced, and the fermentation raw materials can still be normally subjected to secondary fermentation without affecting the overall processing equipment.
[0046] As Figure 7 , 9 shown:
[0047] The rear rotating head 150 can rotate on the rotating shaft 130. When it is necessary to inject supplementary water into the rotating shaft 130, the rear rotating head 150 can be rotated so that the opening of the rear rotating head 150 faces upward. At this time, the supplementary water injected through the inward-facing opening of the front rotating head 140 can stay inside the cavity of the rotating shaft 130 and fill the cavity, facilitating the penetration of the supplementary water. At the same time, when the user raises the water level in the upward-opening rear rotating head 150 and blocks the opening of the front rotating head 140, the higher water level in the rear rotating head 150 can pressurize the supplementary water inside the rotating shaft 130, enabling the supplementary water inside the rotating shaft 130 to quickly penetrate into the fermentation raw materials.
[0048] When it is necessary to inject temperature-regulated water into the rotating shaft 130, the rear rotating head 150 can be rotated so that the opening of the rear rotating head 150 faces downward. At this time, temperature-regulated water can be continuously injected into the front rotating head 140, and the temperature-regulated water can pass through the rotating shaft 130 and directly flow out from the opening position of the rear rotating head 150, thereby improving the heat exchange efficiency between the temperature-regulated water and the fermentation raw materials and effectively increasing the temperature control speed of the fermentation raw materials.
[0049] As Figure 9 shown:
[0050] An indicator light 190 communicated with the temperature and humidity sensor 160 is connected to the front rotating head 140 by screws; since the inner wall of the rotating shaft 130 is relatively thick in the direction of the temperature and humidity sensor 160, the temperature and humidity sensor 160 can be connected to the indicator light 190 and the power supply by drilling holes in the inner wall of the rotating shaft 130 in the direction of the temperature and humidity sensor 160. Thus, the temperature inside the fermentation raw materials can be quickly feedback through the flashing of the indicator light 190. When the temperature inside the fermentation raw materials rises to a certain level, the temperature and humidity sensor 160 at the corresponding position can feedback a signal to the indicator light 190, causing the indicator light 190 to flash, facilitating the staff to timely detect temperature abnormalities.
[0051] As Figure 6 shown:
[0052] The vertical barrier belt 170 is an inelastic binding belt. When the barrier mechanism 100 is not needed, multiple cross bars 110 can be bundled and stored together through the vertical barrier belt 170, so that when fermentation is not needed, the placement space of the barrier mechanism 100 can be reduced. At the same time, since the perforated plug plate 120 and the non-perforated plug plate 180 are both connected to the cross bar 110 and the vertical barrier belt 170 by bolts, when the processing equipment is not needed for secondary fermentation, the perforated plug plate 120 and the non-perforated plug plate 180 can be removed from the barrier mechanism 100 and plugged into the inside of the box body 000, so that the box body 000 and the perforated plug plate 120 and the non-perforated plug plate 180 form a closed container, so that the box body 000 can be used for primary fermentation that can be frequently turned over, or the box body 000 can be used for other purposes to improve the overall applicability of the processing equipment.
[0053] like Figure 7 and Figure 10 As shown:
[0054] The outer side surface of the rotating shaft 130 is arranged in close contact with the inner side surface of the cross block 110, and the outer sides of the temperature and humidity sensor 160, the drying device 161 and the water hole 131 all coincide with the outer side surface of the rotating shaft 130; thereby ensuring that the temperature and humidity sensor 160, the drying device 161 and the water hole 131 can only contact with the fermentation raw materials when they are located at the cross block opening 111, avoiding the fermentation raw materials, temperature regulating water or supplementary water from contacting and penetrating each other through the gap between the rotating shaft 130 and the cross block 110.
[0055] At the same time, while being completely blocked by the cross bar 110, the two ends of the cross bar opening 111 can scrape the temperature and humidity sensor 160, so that the fermentation raw materials attached to the temperature and humidity sensor 160 will not enter the interior of the cross bar 110;
[0056] In addition, since the outer side surface of the temperature and humidity sensor 160 overlaps with the outer side surface of the rotating shaft 130, it can further ensure that the fermentation raw materials adhered to the temperature and humidity sensor 160, the drying device 161 or the water hole 131 can be completely scraped off by the cross opening 111 during the rotation of the rotating shaft 130, and will not be retained on the surface of the temperature and humidity sensor 160 and thus affect the sensing effect of the temperature and humidity sensor 160 on the temperature of the fermentation raw materials.
[0057] like Figure 3 As shown:
[0058] A discharge guide port 020 is welded on the left side of the box body 000, and the discharge guide port 020 is arranged on the outside of the corresponding side opening 010; a container can be placed on the outside of the discharge guide port 020, and when the fermentation raw materials need to be stacked, the topmost non-porous plug plate 180 at the corresponding position can be pulled out, and the fermentation raw materials located on the upper side of the corresponding barrier mechanism 100 can be pushed into the container along the discharge guide port 020, thereby easily completing the stacking of the secondary fermentation raw materials.
[0059] An organic fertilizer processing technology, comprising the following steps:
[0060] S1: Conduct preliminary fermentation on organic waste to obtain fermentation raw materials;
[0061] S2: Interleave and lay the fermentation raw materials and the partition mechanism 100 into the box body 000 to conduct secondary fermentation on the fermentation raw materials;
[0062] S3: When the temperature of the fermentation raw materials in the box body 000 rises, rotate the partition mechanism 100 in the corresponding area to make the front rotating head 140 open upward and the rear rotating head 150 open downward;
[0063] S4: Inject temperature-adjusted water into the front rotating head 140 to cool the corresponding area of the fermentation raw materials until the temperature of the fermentation raw materials returns to normal;
[0064] S5: Repeat steps S3 - 4 until the secondary fermentation of the fermentation raw materials is completed to obtain the finished organic fertilizer.
[0065] An organic fertilizer, which is prepared by the above-mentioned organic fertilizer processing technology.
Claims
1. An organic fertilizer processing equipment, characterized in that: It includes a box body, on which a plurality of partition mechanisms are plugged, and the plurality of partition mechanisms are plugged into the box body in sequence from top to bottom, the partition mechanism includes a plurality of cross bars, both ends of the cross bars are fixedly connected with plug plates with holes, a rotating shaft is inserted inside the cross bar, both ends of the rotating shaft are respectively fixedly connected with a front rotating head and a rear rotating head, a temperature and humidity sensor and a drying device are fixedly connected to the rotating shaft, a water hole is provided on the rotating shaft, the drying device and the water hole are respectively arranged on the left and right sides of the temperature and humidity sensor, a plurality of water holes are provided, and porous materials are arranged inside the plurality of water holes, a cross bar opening is provided on the cross bar, the temperature and humidity sensor is arranged on the inner side of the cross bar opening, the inner wall of the rotating shaft is thicker in the direction of the temperature and humidity sensor, a cross bar opening is provided on the cross bar, the temperature and humidity sensor is arranged on the inner side of the cross bar opening, a plurality of cross bars are plugged into the vertical block belt, and both ends of the vertical block belt are fixedly connected with plug plates without holes.
2. A kind of organic fertilizer processing equipment according to claim 1, characterized in that: The box body is provided with a plurality of side openings, and the plug plates with holes and the plug plates without holes are both plugged into the inner sides of the corresponding side openings. The inner edges of the side openings are provided with sealing grooves, and the plug plates with holes and the plug plates without holes are both provided with plugging edges corresponding to the sealing grooves.
3. A kind of organic fertilizer processing equipment according to claim 2, characterized in that: The upper sides of the plug board with holes and the plug board without holes are both provided with plug grooves corresponding to the plug edges.
4. An organic fertilizer processing equipment according to claim 1, characterized in that: The rear turret can rotate on a rotating shaft.
5. An organic fertilizer processing equipment according to claim 1, characterized in that: An indicator light connected to the temperature and humidity sensor is fixedly connected to the front rotating head.
6. An organic fertilizer processing equipment according to claim 1, characterized in that: The vertical barrier belt is an inelastic binding belt.
7. An organic fertilizer processing equipment according to claim 5, characterized in that: The outer side surface of the rotating shaft is arranged closely against the inner side surface of the horizontal block, and the outer side surfaces of the temperature and humidity sensor, the drying device and the water through hole all overlap with the outer side surface of the rotating shaft.
8. An organic fertilizer processing equipment according to claim 1, characterized in that: A material discharging guide port is fixedly connected to the left side of the box body, and the material discharging guide port is arranged outside the corresponding side opening.
9. An organic fertilizer processing technology, characterized in that: Using an organic fertilizer processing device according to any one of claims 3 to 8 to process organic fertilizer comprises the following steps: S1: Preliminary fermentation of organic waste to obtain fermentation raw materials; S2: The fermentation raw materials and the partition mechanism are staggered and placed inside the box to perform secondary fermentation on the fermentation raw materials; S3: When the temperature of the fermented raw materials in the box rises, the corresponding area barrier mechanism is rotated so that the front rotor opening is upward and the rear rotor opening is downward; S4: Inject cooling water into the forward rotor to cool down the corresponding area of the fermentation raw material until the temperature of the fermentation raw material returns to normal; S5: Repeat steps S3-4 until the secondary fermentation of the fermented raw materials is completed to obtain a finished organic fertilizer.
10. An organic fertilizer, characterized in that: The organic fertilizer is produced by an organic fertilizer processing process as described in claim 9.