Polypeptide coagulated silicon nano ecological fertilizer production device and process

Abstract

The invention provides a polypeptide gel silicon nano ecological fertilizer production device and process, and belongs to the technical field of ecological fertilizer manufacturing. The production device comprises a reaction shell, a heating mechanism, a screening mechanism, an air filtering mechanism, a pressurizing mechanism and a plurality of material pumping mechanisms, the reaction shell comprises a first section, a second section and a third section which are detachably connected in sequence; the first section is connected with the gas filtering mechanism; the screening mechanism is arranged in the second section, and a feeding opening is formed in the second section; the pressurizing mechanism is connected with the end, away from the second section, of the third section, the heating mechanism is used for providing hot air into the reaction shell, and the pressurizing mechanism is used for pressurizing hot air entering the reaction shell; the partial material pumping mechanism is connected with the second section and is used for pumping the ecological fertilizer on the screening mechanism; the partial material pumping mechanism is connected with the third section and is used for pumping the screened ecological fertilizer. The production device has the effects of improving the production quality and the production efficiency of the polypeptide gel silicon nano ecological fertilizer.

Description

Technical Field

[0001] The present disclosure relates to the technical field of ecological fertilizer production, and in particular to a polypeptide condensed silicon nano-ecological fertilizer production device and process. Background Art

[0002] Polypeptide condensed silicon nano-ecological fertilizer is a new type of ecological fertilizer that combines peptides, condensed silicon and nanotechnology, aiming to improve the growth efficiency of crops and the health of the soil. It has the following advantages: First, peptides are a small molecule protein that can promote the growth of plant roots and enhance the plant's ability to absorb nutrients. Polypeptides can also improve the stress resistance of plants and help plants resist pests and diseases and environmental pressures; second, condensed silicon is one of the important elements for plant growth. It can enhance the strength of plant stems and improve the resistance of crops to lodging. At the same time, condensed silicon can also improve the photosynthesis efficiency of crops and increase the yield and quality of crops. Based on this, polypeptide condensed silicon nano-ecological fertilizer is very popular in crop cultivation.

[0003] However, in the relevant technology, the particle size of polypeptide condensed silicon nano-ecological fertilizer is the same, which causes limitations in the application of the ecological fertilizer to different types of crops (when applying fertilizer to crops, there are certain requirements for the particle size of the ecological fertilizer. For example, small-particle ecological fertilizer has a large contact area with the soil and releases nutrients faster, so it is suitable for topdressing. Large-particle ecological fertilizer has a small contact area with the soil and releases nutrients slower, so it is suitable for use as base fertilizer).

[0004] It should be noted that the information disclosed in the above background technology section is only used to enhance the understanding of the background of the present disclosure, and therefore may include information that does not constitute the prior art known to ordinary technicians in the field. Summary of the invention

[0005] The purpose of the present disclosure is to overcome the deficiencies of the above-mentioned prior art and provide a polypeptide condensed silicon nano-ecological fertilizer production device and process to improve the production quality and production efficiency of polypeptide condensed silicon nano-ecological fertilizer and to be able to screen polypeptide condensed silicon nano-ecological fertilizer.

[0006] According to the first aspect of the present disclosure, a polypeptide condensed silicon nano-ecological fertilizer production device is provided, which adopts the following technical solution: A polypeptide condensed silicon nano-ecological fertilizer production device, the production device includes a reaction shell, a heating mechanism, a screening mechanism, an air filtering mechanism, a pressurizing mechanism and a plurality of extraction mechanisms; the reaction shell includes a first section, a second section and a third section that are detachably connected in sequence; wherein the first section is connected to the air filtering mechanism, and the air filtering mechanism is used to filter the gas flowing out of the first section; the screening mechanism is arranged in the second section, and is used to screen the ecological fertilizer particles, and the second section has a feed port; the pressurizing mechanism is connected to an end of the third section away from the second section, the heating mechanism is connected to the pressurizing mechanism, and the heating mechanism is used to provide hot air into the reaction shell, and the pressurizing mechanism is used to pressurize the hot air entering the reaction shell; part of the extraction mechanism is connected to the second section, and is used to extract the ecological fertilizer on the screening mechanism; part of the extraction mechanism is connected to the third section, and is used to extract the screened ecological fertilizer.

[0007] By adopting the above technical scheme, the prepared filter residue raw material is added into the second section through the feed port. When the filter residue raw material is passed into the second section, the heating mechanism is turned on, and a large amount of hot air is generated by the heating mechanism. The hot air generated by the heating mechanism is passed into the pressurizing mechanism, and the pressurizing mechanism pressurizes the hot air. Under the treatment of the pressurizing mechanism, the hot air enters the third section and the second section in sequence. The hot air entering the second section combines with the filter residue. Under the action of the hot air, the moisture on the filter residue is evaporated. After a period of time, the filter residue is granular. The formed granular filter residue (due to its certain weight) falls onto the screening mechanism on the second section, and the screening machine is turned on. The screening mechanism screens the granular filter residue, and part of the screened granular filter residue stays on the screening mechanism, and part of it falls to the third section through the screening mechanism. In this way, the classification of the granular filter residue is achieved. After the screening of the granular filter residue is completed, the extraction mechanism is turned on, and part of the extraction mechanism extracts and collects the granular filter residue on the screening mechanism, and part of the extraction mechanism extracts and collects the screened granular filter residue. The screening mechanism can realize accurate screening of the ecological fertilizer in the process of preparing the ecological fertilizer, thereby improving the processing efficiency of the ecological fertilizer, so that the ecological fertilizer can be used according to different crop states.

[0008] Optionally, the screening mechanism includes a swing assembly and a knocking assembly; the swing assembly includes a swing bracket, a swing frame, a swing connecting rod and a power piece; the swing bracket is arranged in the second section; the swing frame is movably arranged on the swing bracket, and the swing frame has screening holes; one end of the swing connecting rod is connected to the power piece, and the other end is hinged to the swing frame, and the power piece is used to drive the swing connecting rod to move; wherein, the second section has a recessed portion corresponding to the swing frame; a plurality of knocking assemblies are correspondingly arranged at at least one end of the swing frame, for knocking the swing frame, and are located in the recessed portion.

[0009] By adopting the above technical solution, when the granular filter residue falls onto the swing frame, the power part is turned on, and the movement of the power part drives the swing connecting rod to move, and the movement of the swing connecting rod drives the swing frame to move, and the movement of the swing frame causes the granular filter residue on it to move, thereby achieving the screening of the granular filter residue. When screening the granular filter residue, there is a phenomenon that the granular filter residue is stuck in the screening hole. When the swing frame moves, the movement of the swing frame drives the knocking component to move, and the knocking component knocks the swing frame to make the granular filter residue stuck in the screening hole fall down, which can effectively ensure the screening effect of the granular filter residue, reduce the process of manually disassembling and cleaning the production equipment for long-term use, and improve the production efficiency of ecological fertilizer.

[0010] Optionally, the knocking assembly includes a knocking rack, a knocking gear, a knocking rotating rod, a knocking protrusion, a driving rod and a knocking hammer; the knocking rack is connected to the rocking frame, and the movement direction of the knocking rack is the same as the movement direction of the rocking frame; the knocking gear is rotatably connected in the recessed portion, and the knocking gear is meshed with the knocking rack; the knocking protrusion is connected to the knocking gear through the knocking rotating rod; the driving rod is rotatably connected in the recessed portion, the driving rod has a protrusion, and the protrusion can contact the knocking protrusion; the knocking hammer is arranged on the driving rod, and the knocking hammer can contact the rocking frame.

[0011] By adopting the above technical scheme, when the granular filter residue is screened, the swing frame moves forward, and the movement of the swing frame drives the knocking rack to move, and the movement of the knocking rack drives the knocking gear to rotate, and the rotation of the knocking gear drives the knocking rotating rod to rotate, and the rotation of the knocking rotating rod drives the knocking protrusion to rotate, and when one side of the long axis of the knocking protrusion contacts the protrusion, the driving rod moves, and the driving rod drives the knocking hammer to move away from the swing frame; the swing frame moves backward, and the movement of the swing frame drives the knocking rack to move, and the movement of the knocking rack drives the knocking gear to rotate, and the rotation of the knocking gear drives the knocking rotating rod to rotate, and the rotation of the knocking rotating rod drives the knocking protrusion to rotate, and when one side of the short axis of the knocking protrusion contacts the protrusion, the driving rod moves, and the driving rod drives the knocking hammer to move close to the swing frame, and when the knocking hammer contacts the swing frame, the granular filter residue stuck in the screening hole can be cleaned, and in the repeated movement of the swing frame, the swing frame is continuously knocked by the knocking assembly to improve the screening effect of the granular filter residue.

[0012] Optionally, the screening mechanism further includes at least two flexible sealing plates; the flexible sealing plates are arranged at the recessed portion, and the flexible sealing plates are symmetrically arranged with respect to the movement direction of the swing frame, and the flexible sealing plates are used to seal the recessed portion.

[0013] By adopting the above technical solution, when the filter residue in the second section becomes granular under the action of hot air, the flexible sealing plate is in a closed state to prevent part of the granular filter residue from entering the recessed part and affecting the normal operation of the knocking component; when it is necessary to knock the swing frame, the swing frame can break through the gap between the relatively set flexible sealing plates and enter the recessed part (since the flexible sealing plates are relatively set, there is a gap between the relatively set flexible sealing plates, which allows the swing frame to enter the recessed part), and the movement of the swing frame can drive the knocking component to knock the swing frame, thereby achieving the purpose of cleaning the granular filter residue stuck in the screening hole. The recessed part can be closed by the flexible sealing plate to prevent the filter residue from entering the recessed part and affecting the normal operation of the knocking component.

[0014] Optionally, the air filter mechanism includes a filter pipe, a blocking plate and at least two air filter components; the filter pipe includes a first pipe section and a second pipe section; one end of the first pipe section and one end of the second pipe section are respectively connected to the first section, the first pipe section and the second pipe section meet at one end away from the first section, and the air filter components are arranged in the first pipe section and the second pipe section; wherein the blocking plates are movably arranged in the first pipe section and the second pipe section respectively; the air filter component includes a filter plate, a filter bag, a pushing cylinder and a driving member corresponding to the first pipe section and the second pipe section; the filter plate is slidably connected to the first section through the pushing cylinder, and the filter bag is connected to the filter plate; the driving member is connected to the filter plate and is used to drive the blocking plate to move, wherein the filter plate corresponding to the first pipe section drives the blocking plate in the second pipe section to move through the driving member, and the filter plate corresponding to the second pipe section drives the blocking plate in the first pipe section to move through the driving member.

[0015] By adopting the above technical solution, after the filter residue is processed for a period of time (part of the filter residue dust will accumulate on the filter bag, affecting the filtering effect of the processed gas, and at the same time, too much filter residue dust will accumulate on the filter bag, resulting in material waste), the pushing cylinder is turned on, and the movement of the pushing cylinder drives the filter plate to move, and the filter plate moves downward and drives the filter bag to move. The movement of the filter bag causes the filter residue dust accumulated thereon to be shaken off. At the same time, when the filter plate of the first pipe section moves, the filter plate of the first pipe section drives the blocking plate corresponding to the second pipe section to move through the driving member, and when the filter plate of the second pipe section moves, the filter plate of the second pipe section drives the blocking plate corresponding to the first pipe section to move through the driving member, so that the first pipe section and the second pipe section can be opened alternately to prevent fine dust from being discharged through the corresponding first pipe section when the filter residue dust is shaken off in the first pipe section (or to prevent fine dust from being discharged through the corresponding second pipe section when the filter residue dust is shaken off in the second pipe section), resulting in material waste and reduced air filtration effect.

[0016] Optionally, the driving member includes a driving rack, a driving gear, a first rod, a first bevel gear set, a second rod, a second bevel gear set and a third rod; the driving rack is connected to the filter plate, and the movement direction of the driving rack is the same as the movement direction of the filter plate; the driving gear is rotatably connected to the first section, and the driving gear is meshed with the driving rack; the first rod is connected to the driving gear, and the axial direction of the first rod is perpendicular to the movement direction of the driving rack; the second rod is connected to the end of the first rod away from the driving gear through the first bevel gear set, and the axial direction of the second rod is perpendicular to the axial direction of the first rod; the third rod is connected to the second rod through the second bevel gear set, and the axial direction of the third rod is perpendicular to the axial direction of the second rod; the blocking plate is connected to the third rod.

[0017] By adopting the above technical solution, when the filter plate moves downward, the movement of the filter plate drives the driving gear to move, the movement of the driving rack drives the driving gear to rotate, the rotation of the driving gear drives the first rod to rotate, the rotation of the first rod drives the first bevel gear set to move, the movement of the first bevel gear set drives the second rod to move, the movement of the second rod drives the second bevel gear set to move, the movement of the second bevel gear set drives the third rod to move, the movement of the third rod drives the blocking plate to move, thereby realizing the opening of the corresponding pipe section of the blocking plate (for example, the movement of the filter plate in the first pipe section causes the blocking plate in the second pipe section to open, and the movement of the filter plate in the second pipe section causes the blocking plate in the first pipe section to open).

[0018] Optionally, the pressurizing mechanism includes a pressurizing frame; the pressurizing frame is arranged at one end of the third section away from the second section, and the heating mechanism is connected to the pressurizing frame, wherein the inner wall of the pressurizing frame has a spiral protrusion, and the spiral protrusion is used to make the hot air entering the pressurizing frame rise in a spiral shape.

[0019] By adopting the above technical solution, when the hot air generated by the heating mechanism is passed into the pressurized frame, the hot air is pressurized and rises in a spiral shape under the action of the spiral protrusion, so that the hot air can fully contact the filter residue, thereby improving the efficiency of converting the filter residue into ecological fertilizer particles, and correspondingly improving the quality of ecological fertilizer processing.

[0020] Optionally, the production device also includes a stirring mechanism; the stirring mechanism includes a stirring frame, a stirring motor and a cleaning block; the stirring frame is rotatably connected to the third section through the stirring motor, and the stirring frame has a stirring part and a ventilation part; the stirring part is used to stir the ecological fertilizer in the third section; the ventilation part is used to allow hot air from the heating mechanism to pass through; the cleaning block includes a fixed section and a cleaning section; the cleaning section is connected to the stirring frame through the fixed section, and the cleaning section can contact the inner wall of the third section; the stirring motor is used to drive the stirring frame to rotate.

[0021] By adopting the above technical scheme, when the sieved granular filter residue is in the second section to the third section, the granular filter residue falls onto the stirring part, the stirring motor is turned on, the stirring motor rotates to drive the stirring frame to move, the movement of the stirring frame drives the stirring part to move, and the movement of the stirring part realizes the stirring of the granular filter residue in the third section to prevent the granular filter residue from sticking; at the same time, the movement of the stirring frame drives the movement of the fixed section, the movement of the fixed section drives the movement of the cleaning section, and the cleaning section cleans the ecological fertilizer stuck to the inner wall of the third section, which can reduce the waste of materials.

[0022] Optionally, the production device also includes a crushing mechanism; the crushing mechanism includes a crushing sleeve, a crushing rod and a plurality of crushing blocks; the crushing sleeve is arranged on the third section and extends into the third section; the crushing rod is slidably connected to the crushing sleeve, the crushing rod can extend into the third section, and the crushing rod has a sampling notch; a plurality of the crushing blocks are arranged on the crushing rod, wherein adjacent crushing blocks form a crushing space for the ecological fertilizer in the third section.

[0023] By adopting the above technical scheme, when the sieved granular filter residue falls into the third section, the granular filter residue rotates in the third section under the action of the stirring mechanism, and the granular filter residue contacts the crushing block, and the sieved granular filter residue is crushed under the action of the crushing block to prevent the sieved granular filter residue from sticking together (the granular filter residue on the screening mechanism will not stick together due to continuous swinging and knocking); at the same time, while the granular filter residue is being crushed, part of the granular filter residue enters the sampling notch, and the staff can pull out the crushing rod on the crushing sleeve to sample and test the granular filter residue in the sampling notch, so as to adjust the production ratio of the ecological fertilizer in time.

[0024] According to the second aspect of the present disclosure, a polypeptide condensed silicon nano-ecological fertilizer production process is provided, which adopts the following technical scheme: the production process comprises: Modification of ecological nanomaterials; Mixing the modified eco-nanomaterials with auxiliary raw materials in a predetermined ratio; Provide silicon ore and extract silicon element from the silicon ore; The solvent and the purifier are mixed in proportion, added into blast furnace slag for stirring, filtered to obtain filter residue, and the filter residue is treated by the production device to form nano silicon fertilizer; Polypeptide is added into the nano silicon fertilizer.

[0025] In summary, the present application includes at least one of the following beneficial technical effects: 1. The screening mechanism can realize accurate screening of ecological fertilizer in the process of preparing ecological fertilizer, thereby improving the processing efficiency of ecological fertilizer, so that ecological fertilizer can be used according to different crop conditions.

[0026] 2. Through the forward movement of the rocking frame, the movement of the rocking frame drives the movement of the knocking rack, the movement of the knocking rack drives the knocking gear to rotate, the rotation of the knocking gear drives the knocking rotating rod to rotate, and the rotation of the knocking rotating rod drives the knocking protrusion to rotate. When one side of the long axis of the knocking protrusion contacts the protrusion, the driving rod moves, and the driving rod drives the knocking hammer to move away from the rocking frame; the rocking frame moves backward, the movement of the rocking frame drives the movement of the knocking rack, the movement of the knocking rack drives the knocking gear to rotate, the rotation of the knocking gear drives the knocking rotating rod to rotate, and the rotation of the knocking rotating rod drives the knocking protrusion to rotate. When one side of the short axis of the knocking protrusion contacts the protrusion, the driving rod moves, and the driving rod drives the knocking hammer to move close to the rocking frame. When the knocking hammer contacts the rocking frame, the granular filter residue stuck in the screening hole can be cleaned. During the repeated movement of the rocking frame, the rocking frame is continuously knocked by the knocking assembly to improve the screening effect of the granular filter residue.

[0027] 3. By opening the push cylinder, the movement of the push cylinder drives the filter plate to move, and the filter plate moves downward and drives the filter bag to move. The movement of the filter bag causes the filter residue and dust accumulated on it to be shaken off. At the same time, when the filter plate of the first pipe section moves, the filter plate of the first pipe section drives the blocking plate corresponding to the second pipe section to move through the driving member. When the filter plate of the second pipe section moves, the filter plate of the second pipe section drives the blocking plate corresponding to the first pipe section to move through the driving member. In this way, the first pipe section and the second pipe section can be opened alternately to prevent fine dust from being discharged through the corresponding first pipe section when the filter residue and dust are shaken off in the first pipe section (or to prevent fine dust from being discharged through the corresponding second pipe section when the filter residue and dust are shaken off in the second pipe section), resulting in material waste and reduced air filtration effect.

[0028] 4. The movement of the filter plate drives the driving gear to move, the movement of the driving rack drives the driving gear to rotate, the rotation of the driving gear drives the first rod to rotate, the rotation of the first rod drives the first bevel gear set to move, the movement of the first bevel gear set drives the second rod to move, the movement of the second rod drives the second bevel gear set to move, the movement of the second bevel gear set drives the third rod to move, the movement of the third rod drives the blocking plate to move, and then the corresponding pipe section of the blocking plate is opened (for example, the movement of the filter plate in the first pipe section causes the blocking plate in the second pipe section to open, and the movement of the filter plate in the second pipe section causes the blocking plate in the first pipe section to open). BRIEF DESCRIPTION OF THE DRAWINGS

[0029] The accompanying drawings herein are incorporated into the specification and constitute a part of the specification, illustrate embodiments consistent with the present disclosure, and together with the specification are used to explain the principles of the present disclosure. Obviously, the accompanying drawings described below are only some embodiments of the present disclosure, and for ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without creative work.

[0030] Figure 1 This is a schematic diagram of the overall structure of a polypeptide condensed silicon nano-ecological fertilizer production device in one embodiment of the present disclosure.

[0031] Figure 2 This is a partial structural schematic diagram of a polypeptide silicon nano-ecological fertilizer production device in one embodiment of the present disclosure.

[0032] Figure 3 This is a cross-sectional view of a polypeptide silicon nano-ecological fertilizer production device in one embodiment of the present disclosure.

[0033] Figure 4 yes Figure 3 Enlarged view of part A.

[0034] Figure 5 This is a cross-sectional view of a polypeptide silicon nano-ecological fertilizer production device in one embodiment of the present disclosure.

[0035] Figure 6 yes Figure 5 Enlarged view of part B.

[0036] Figure 7 This is a cross-sectional view of a polypeptide silicon nano-ecological fertilizer production device in one embodiment of the present disclosure.

[0037] Figure 8 yes Figure 7 Enlarged view of part C.

[0038] Fig. 9 yes Figure 8 Enlarged view of part D.

[0039] Fig.10It is a structural diagram of the mixing mechanism and the crushing mechanism.

[0040] Fig.11 It is a structural diagram of the mixing mechanism and the crushing mechanism from another perspective.

[0041] Description of reference numerals: 1. Reaction shell; 11. First section; 12. Second section; 121. Feed port; 122. Concave portion; 13. Third section; 2. Heating mechanism; 3. Screening mechanism; 31. Swinging assembly; 311. Swinging bracket; 312. Swinging frame; 3121. Screening hole; 313. Swinging connecting rod; 314. Power piece; 3141. Power motor; 3142. Power connecting rod; 32. Knocking assembly; 321. Knocking rack; 322. Knocking gear; 323. Knocking rotating rod; 324. Knocking bump; 325. Driving rod; 3251. Raised portion; 326. Knocking hammer; 33. Flexible sealing plate; 4. Air filtering mechanism; 41. Filter pipe; 411. First pipe section; 412. Second pipe section; 42. Blocking plate; 43. Air filtering assembly; 431. Filter plate; 432. Filter bag; 4 33. Push cylinder; 434. Driving member; 4341. Driving rack; 4342. Driving gear; 4343. First rod; 4344. First bevel gear set; 43441. First active bevel gear; 43442. First driven bevel gear; 4345. Second rod; 4346. Second bevel gear set; 43461. Second active bevel gear; 43462. Second driven bevel gear; 4347. Third rod; 5. Pressurizing mechanism; 51. Pressurizing frame; 52. Spiral convex block; 6. Extracting mechanism; 7. Stirring mechanism; 71. Stirring frame; 711. Stirring part; 712. Ventilation part; 72. Stirring motor; 73. Cleaning block; 731. Fixed section; 732. Cleaning section; 8. Crushing mechanism; 81. Crushing sleeve; 82. Crushing rod; 821. Sampling notch; 83. Crushing block. DETAILED DESCRIPTION

[0042] Example embodiments will now be described more fully with reference to the accompanying drawings. However, the example embodiments can be implemented in a variety of forms and should not be construed as limited to the embodiments set forth herein; rather, these embodiments are provided so that the present disclosure will be comprehensive and complete and fully convey the concepts of the example embodiments to those skilled in the art. The same reference numerals in the figures represent the same or similar structures, and thus their detailed description will be omitted. In addition, the drawings are only schematic illustrations of the present disclosure and are not necessarily drawn to scale.

[0043] The following is combined with Figure 1-11 This application is described in further detail.

[0044] In a first aspect, the embodiments of the present application disclose a device for producing polypeptide silicon nano-ecological fertilizer.

[0045] See also Figures 1 to 11 , a polypeptide condensed silicon nano-ecological fertilizer production device, the production device includes a reaction shell 1, a heating mechanism 2, a screening mechanism 3, an air filtering mechanism 4, a pressurizing mechanism 5, a stirring mechanism 7, a crushing mechanism 8 and a plurality of extraction mechanisms 6; wherein the heating mechanism 2 is connected to the reaction shell 1, and is used to provide hot air to the reaction shell 1; the screening mechanism 3 is arranged inside the reaction shell 1, and is used to screen the filter residue particles in the reaction shell 1; the air filtering mechanism 4 is connected to the reaction shell 1, and is used to filter the gas processed by the reaction shell 1; one side of the pressurizing mechanism 5 is connected to the reaction shell 1, and the other side is connected to the heating mechanism 2, and is used to pressurize the gas heated by the heating mechanism 2 and send it to the reaction shell 1; the stirring mechanism 7 is connected to the reaction shell 1, and is used to stir the prepared granular filter residue; the crushing mechanism 8 is connected to the reaction shell 1, and is used to crush the prepared granular filter residue to prevent the granular filter residue from sticking; the extraction mechanism 6 is connected to the reaction shell 1, and is used to collect and process the prepared granular filter residue.

[0046] In some embodiments of the present disclosure, the reaction shell 1 includes a first section 11, a second section 12 and a third section 13 which are detachably connected in sequence; wherein the first section 11 is connected to an air filter mechanism 4, and the air filter mechanism 4 is used to filter the gas flowing out of the first section 11; the screening mechanism 3 is arranged in the second section 12, and is used to screen the ecological fertilizer particles, and the second section 12 has a feed port 121; the pressurizing mechanism 5 is connected to an end of the third section 13 away from the second section 12, and the heating mechanism 2 is connected to the pressurizing mechanism 5, and the heating mechanism 2 is used to provide hot air into the reaction shell 1, and the pressurizing mechanism 5 is used to pressurize the hot air entering the reaction shell 1; the partial extraction mechanism 6 is connected to the second section 12, and is used to extract the ecological fertilizer on the screening mechanism 3; the partial extraction mechanism 6 is connected to the third section 13, and is used to extract the screened ecological fertilizer.

[0047] It should be noted that in the embodiment of the present disclosure, the function of the heating mechanism 2 is to provide hot air to the reaction shell 1, which is well known to those skilled in the art and will not be elaborated in this application.

[0048] Furthermore, the extraction mechanism 6 can be provided in multiple numbers. In the embodiment of the present disclosure, the extraction mechanism 6 can be provided in two numbers, wherein one extraction mechanism 6 is connected to the second section 12, and is used to extract the granular filter residue on the screening mechanism 3; the other extraction mechanism 6 is provided to be connected to the third section 13, and is used to extract the granular filter residue after screening by the screening mechanism 3. With such a configuration, the collection of granular filter residues of different specifications can be realized. It should be noted that, in some embodiments, the number of the extraction mechanisms 6 is not limited to this.

[0049] In some embodiments of the present disclosure, see Figure 3 , Figure 4 , Figure 5 as well as Figure 6 The screening mechanism 3 includes a swing component 31 and a knocking component 32; the swing component 31 includes a swing bracket 311, a swing frame 312, a swing connecting rod 313 and a power piece 314; the swing bracket 311 is arranged in the second section 12; the swing frame 312 is movably arranged on the swing bracket 311, and the swing frame 312 has a screening hole 3121; one end of the swing connecting rod 313 is connected to the power piece 314, and the other end is hinged to the swing frame 312, and the power piece 314 is used to drive the swing connecting rod 313 to move; wherein, the second section 12 has a recessed portion 122 corresponding to the swing frame 312; multiple knocking components 32 are correspondingly arranged at at least one end of the swing frame 312, used to knock the swing frame 312, and are located in the recessed portion 122.

[0050] As an example, the power component 314 includes a power motor 3141 and a power connecting rod 3142; wherein, the power motor 3141 is arranged in the recessed portion 122, one end of the power connecting rod 3142 is connected to the output shaft of the power motor 3141, the swing connecting rod 313 is hinged at the other end of the power connecting rod 3142, and the axial direction of the hinge axis of the swing connecting rod 313 and the power connecting rod 3142 is the same as the axial direction of the output shaft of the power motor 3141, and the swing frame 312 is hinged at the other end of the swing connecting rod 313, and the axial direction of the hinge axis of the swing frame 312 and the swing connecting rod 313 is the same as the axial direction of the output shaft of the power motor 3141.

[0051] Specifically, the power motor 3141 is turned on, the power motor 3141 drives the power connecting rod 3142 to move, the movement of the power connecting rod 3142 drives the swing connecting rod 313 to move, the movement of the swing connecting rod 313 drives the swing frame 312 to move on the swing bracket 311, and then the granular filter residue on the swing frame 312 is screened.

[0052] In some embodiments of the present disclosure, the knocking assembly 32 includes a knocking rack 321, a knocking gear 322, a knocking rotating rod 323, a knocking protrusion 324, a driving rod 325 and a knocking hammer 326; the knocking rack 321 is connected to the swing frame 312, and the movement direction of the knocking rack 321 is the same as the movement direction of the swing frame 312; the knocking gear 322 is rotatably connected to the recessed portion 122, and the knocking gear 322 is meshed with the knocking rack 321; the knocking protrusion 324 is driven by the knocking The striking rod 323 is connected to the striking gear 322; the driving rod 325 is rotatably connected to the recessed portion 122 (the driving rod 325 passes through the striking gear 322 and is rotatably connected to the side wall of the recessed portion 122, and the movement of the striking gear 322 will not act on the driving rod 325), and the driving rod 325 has a protrusion 3251, and the protrusion 3251 can contact the striking bump 324; the striking hammer 326 is arranged on the driving rod 325, and the striking hammer 326 can contact the swing frame 312.

[0053] It can be understood that the cross section of the knocking protrusion 324 is elliptical, including one end with a long axis and one end with a short axis. When the swing frame 312 moves, the swing frame 312 drives the knocking rack 321 to move, and the movement of the knocking rack 321 drives the knocking gear 322 to rotate in the recessed portion 122. The rotation of the knocking gear 322 drives the rotation of the knocking rotating rod 323 connected thereto, and the rotation of the knocking rotating rod 323 drives the knocking protrusion 324 to rotate. When the side of the knocking protrusion 324 with a long axis contacts the raised portion 3251, , the knocking hammer 326 is away from the swing frame 312; when the side of the knocking protrusion 324 with the short axis contacts the protrusion 3251, the knocking hammer 326 approaches the swing frame 312 to knock on the swing frame 312. Since the swing frame 312 reciprocates in the second section 12, the knocking hammer 326 can continuously knock on the swing frame 312, thereby cleaning the granular filter residue stuck in the screening hole 3121 (the granular filter residue is stuck in the screening hole 3121, proving that its specifications do not meet the requirements).

[0054] In some embodiments of the present disclosure, see Figure 4 , Figure 5 The screening mechanism 3 also includes at least two flexible sealing plates 33 ; the flexible sealing plates 33 are installed at the recessed portion 122 , and the flexible sealing plates 33 are symmetrically arranged with respect to the movement direction of the swing frame 312 , and the flexible sealing plates 33 are used to seal the recessed portion 122 .

[0055] It should be noted that when the filter residue is further processed, part of the filter residue enters the recessed portion 122, and the knocking assembly 32 is arranged in the recessed portion 122, which will cause too much filter residue to accumulate in the recessed portion 122, making it difficult for the knocking assembly 32 to work, and even requiring the staff to regularly clean the recessed portion 122, affecting the preparation efficiency of the filter residue. In the embodiment of the present disclosure, the flexible sealing plate 33 is arranged to prevent the filter residue from entering the recessed portion 122 during the preparation process. At the same time, the flexible sealing plate 33 is flexibly arranged, so that part of the swing frame 312 can enter the recessed portion 122 after breaking through the flexible sealing plate 33, and then the knocking assembly 32 can knock the swing frame 312.

[0056] In summary, the flexible sealing plate 33 can, on the one hand, prevent the filter residue from entering the recessed portion 122 during the filter residue preparation process, causing the operation of the knocking component 32 to be affected; on the other hand, while achieving the sealing of the recessed portion 122, the swing frame 312 can enter the recessed portion 122 to facilitate the knocking of the swing frame 312 by the knocking component 32.

[0057] In some embodiments of the present disclosure, see Figure 7 , Figure 8 , Fig. 9 , the air filter mechanism 4 includes a filter pipe 41, a baffle plate 42 and at least two air filter components 43; the filter pipe 41 includes a first pipe section 411 and a second pipe section 412; one end of the first pipe section 411 and one end of the second pipe section 412 are connected to the first section 11 respectively, the first pipe section 411 and the second pipe section 412 meet at one end away from the first section 11, and the air filter components 43 are arranged in the first pipe section 411 and the second pipe section 412; wherein the baffle plate 42 is movably arranged in the first pipe section 411 and the second pipe section 412 respectively. The air filter mechanism 4 is set up, when the filter residue is prepared, the prepared gas still contains some materials. If the gas is directly discharged, it will cause waste of materials and damage to the environment. In the embodiment of the present disclosure, the air filter mechanism 4 can collect the materials in the gas, which can reduce waste of materials and damage to the environment.

[0058] It can be understood that in the embodiment of the present disclosure, the filter pipe 41 includes a first pipe section 411 and a second pipe section 412 , and the first pipe section 411 and the second pipe section 412 are separated in the first section 11 .

[0059] In some embodiments, at least two air filter components 43 are provided. In the embodiment of the present disclosure, two air filter components 43 are provided, wherein one air filter component 43 is provided at a position corresponding to the first pipe segment 411 , and the other air filter component 43 is provided at a position corresponding to the second pipe segment 412 .

[0060] In this embodiment, the air filter assembly 43 includes a filter plate 431, a filter bag 432, a pushing cylinder 433 and a driving member 434; the filter plate is slidably connected to the first section 11 through the pushing cylinder 433, and the filter bag 432 is connected to the filter plate 431; wherein the movement direction of the pushing cylinder 433 is the same as the height direction of the first section 11, the filter plate 431 moves under the action of the pushing cylinder 433, and the movement direction of the filter plate 431 is the same as the movement direction of the pushing cylinder 433; the driving member 434 is connected to the filter plate 431, and is used to drive the blocking plate 42 to move, wherein the filter plate corresponding to the first pipe section 411 drives the blocking plate 42 in the second pipe section 412 to move through the driving member 434, and the filter plate 431 corresponding to the second pipe section 412 drives the blocking plate 42 in the first pipe section 411 to move through the driving member 434. Specifically, the pushing cylinder 433 is turned on and the pushing cylinder 433 moves. The movement of the pushing cylinder 433 drives the filter plate 431 to move. The movement of the filter plate 431 drives the driving member 434 to move. The movement of the driving member 434 opens the blocking plate 42, thereby achieving the goal of shaking off the material on the filter bag 432 without affecting the filtration of the prepared gas.

[0061] It is understandable that after a long period of preparation of the filter residue, a lot of materials will be attached to the filter bag 432, which not only leads to waste of materials, but also affects the filtration of the prepared gas. Therefore, the filter plate 431 can be driven to move, and the movement of the filter plate 431 can shake off the materials attached to the filter bag 432. However, if the filter plate 431 corresponding to the first pipe segment 411 is driven to move and the blocking plate 42 corresponding to the first pipe segment 411 is opened, the shaken-off material will be sent out of the first segment 11 through the first pipe segment 411 (or, the filter plate 431 corresponding to the second pipe segment 412 is driven to move and the blocking plate 42 of the second pipe segment 412 is opened, the shaken-off material will be sent out of the first segment 11 through the second pipe segment 412). This will cause waste of material. Based on this, in the embodiment of the present disclosure, the movement of the air filter assembly 43 corresponding to the first pipe segment 411 will cause the blocking plate 42 corresponding to the second pipe segment 412 to open (or, the movement of the air filter assembly 43 corresponding to the second pipe segment 412 will cause the blocking plate 42 corresponding to the first pipe segment 411 to open). This will ensure that the material in the filter bag 432 is shaken off without affecting the filtration of the prepared air.

[0062] In some embodiments of the present disclosure, the driving member 434 includes a driving rack 4341, a driving gear 4342, a first rod 4343, a first bevel gear set 4344, a second rod 4345, a second bevel gear set 4346 and a third rod 4347; the driving rack 4341 is connected to the filter plate 431, and the movement direction of the driving rack 4341 is the same as the movement direction of the filter plate 431; the driving gear 4342 is rotatably connected to the first section 11, and the driving gear 4342 is meshed with the driving rack 4341; the first rod 434 3 is connected to the driving gear 4342, and the axial direction of the first rod 4343 is perpendicular to the moving direction of the driving rack 4341; the second rod 4345 is connected to the end of the first rod 4343 away from the driving gear 4342 through the first bevel gear set 4344, and the axial direction of the second rod 4345 is perpendicular to the axial direction of the first rod 4343; the third rod 4347 is connected to the second rod 4345 through the second bevel gear set 4346, and the axial direction of the third rod 4347 is perpendicular to the axial direction of the second rod 4345; the blocking plate 42 is connected to the third rod 4347.

[0063] As an example, the first bevel gear set 4344 includes a first active bevel gear 43441 and a first driven bevel gear 43442; wherein the first active bevel gear 43441 is fixed to the first rod 4343 by a key connection, the second driven bevel gear 43462 is fixed to the second rod 4345 by a key connection, and the first active bevel gear 43441 is meshed with the first driven bevel gear 43442. The second bevel gear set 4346 includes a second active bevel gear 43461 and a second driven bevel gear 43462; wherein the second active bevel gear 43461 is fixed to the second rod 4345 by a key connection, the second driven bevel gear 43462 is fixed to the third rod 4347 by a key connection, the second active bevel gear 43461 is meshed with the second driven bevel gear 43462, and the blocking plate 42 is connected to the third rod 4347.

[0064] In some embodiments of the present disclosure, the pressurizing mechanism 5 includes a pressurizing frame 51; the pressurizing frame 51 is arranged at one end of the third section 13 away from the second section 12, and the heating mechanism 2 is connected to the pressurizing frame 51, wherein the inner wall of the pressurizing frame 51 has a spiral protrusion 52, and the spiral protrusion 52 is used to make the hot air entering the pressurizing frame 51 rise in a spiral shape.

[0065] It can be understood that the hot air generated by the heating mechanism 2 enters the pressurizing frame 51. Under the action of the spiral protrusion 52 in the pressurizing frame 51, the transportation path of the hot air changes, so that the hot air is in a pressurized state. At the same time, the spiral protrusion 52 makes the hot air rise in a spiral shape, which can increase the contact time with the filter residue, thereby improving the processing efficiency of the filter residue.

[0066] In some embodiments of the present disclosure, see Fig.10 , Fig.11 The stirring mechanism 7 includes a stirring frame 71, a stirring motor 72 and a cleaning block 73; the stirring frame 71 is connected to the third section 13 by the stirring motor 72, and the stirring frame 71 has a stirring part 711 and a ventilating part 712, and the stirring motor 72 is used to drive the stirring frame 71 to rotate; the stirring part 711 is used to stir the ecological fertilizer in the third section 13; the ventilating part 712 is used for the hot air of the heating mechanism 2 to pass through. Specifically, the stirring motor 72 is turned on, and the stirring motor 72 drives the stirring part 711 to rotate, and the stirring part 711 stirs the filter residue falling into the third section 13; when the heating mechanism 2 transports hot air into the pressurized frame 51, the hot air contacts the filter residue in the second section 12 through the ventilating part 712. Further, the movement of the stirring frame 71 drives the cleaning block 73 to move, and the cleaning block 73 cleans the inner wall of the third section 13, so as to improve the quality of ecological fertilizer processing while reducing material waste.

[0067] As an example, the cleaning block 73 includes a fixed section 731 and a cleaning section 732; the cleaning section 732 is connected to the stirring frame body 71 through the fixed section 731, and the cleaning section 732 can contact the inner wall of the third section 13. When the stirring frame body 71 rotates, the stirring frame body 71 drives the fixed end to rotate, and the fixed section 731 drives the cleaning section 732 to rotate (the cleaning section 732 is in contact with the inner wall of the third section 13), thereby cleaning the inner wall of the third section 13.

[0068] In some embodiments of the present disclosure, the crushing mechanism 8 includes a crushing sleeve 81, a crushing rod 82 and a plurality of crushing blocks 83; the crushing sleeve 81 is arranged on the third section 13 and extends into the third section 13; the crushing rod 82 is slidably connected to the crushing sleeve 81, the crushing rod 82 can extend into the third section 13, and the crushing rod 82 has a sampling notch 821; a plurality of crushing blocks 83 are arranged on the crushing rod 82, wherein adjacent crushing blocks 83 form a crushing space for the ecological fertilizer in the third section 13.

[0069] It is understandable that, in the disclosed embodiment, the crushing block 83 is made of a flexible material, and such a configuration makes it easy to pull the crushing rod 82 out of the crushing sleeve 81 , and can also achieve the crushing of the granular filter residue in the third section 13 .

[0070] Specifically, the movement of the stirring part 711 drives the granular filter residue in the third section 13 to move, and the moving granular filter residue contacts the crushing block 83, and the granular filter residue is broken up by the crushing block 83, thereby preventing the granular filter residue from sticking together, which helps to improve the processing quality of the ecological fertilizer.

[0071] Furthermore, part of the granular filter residue will enter the material taking gap, and the staff can pull out the crushing rod 82 in the crushing sleeve 81 to test the sample, so as to facilitate the subsequent timely adjustment of the process.

[0072] In a second aspect, the present application provides a polypeptide condensed silicon nano-ecological fertilizer production process, the production process comprising: S1: Modification of ecological nanomaterials.

[0073] Specifically, the ecological nanomaterials are pre-treated, and the treatment methods include screening and crushing (not described in detail in the embodiments of the present disclosure) to ensure the quality and particle size of the raw materials.

[0074] S2: Mixing the modified eco-nano material with auxiliary raw materials in a predetermined ratio.

[0075] Specifically, the successfully modified ecological nanomaterial is mixed with water, water reducing agent, cement, limestone powder, fly ash, etc. in a predetermined ratio. It is understandable that the proportion of the materials can be reasonably adjusted according to the purpose of the ecological fertilizer, and the embodiments of the present disclosure will not be elaborated on this.

[0076] S3: Provide silicon ore and extract silicon element from the silicon ore.

[0077] Specifically, first select silicon ore, then screen and crush the raw materials of silicon ore, and choose silicon ore with high silicon content; then prepare the leaching solution, extract silicon element through chemical treatment; then precipitate and separate, use a centrifuge to separate the suspension into solid and liquid, the solid part is silicon mud. Finally, acid leaching or high-temperature reduction is carried out to treat the silicon mud to extract silicon element.

[0078] S4: mixing the solvent and the purifier in proportion, adding blast furnace slag, stirring, filtering to obtain filter residue, and treating the filter residue with the production device to form nano silicon fertilizer; Specifically, the solvent and the purifier are mixed in proportion, added with blast furnace slag, stirred and filtered to obtain filter residue. The filter residue is processed in the polypeptide condensed silicon nano-ecological fertilizer production device, and the rotation speed and temperature are set to prepare the granular filter residue to become nano-silicon fertilizer.

[0079] S5: adding polypeptide to the nano-silicon fertilizer.

[0080] Adding polypeptides to the above mixture can promote plant root growth and nutrient absorption.

[0081] Those skilled in the art will readily appreciate other embodiments of the present disclosure after considering the specification and practicing the invention disclosed herein. This application is intended to cover any modification, use or adaptation of the present disclosure, which follows the general principles of the present disclosure and includes common knowledge or customary techniques in the art that are not disclosed in the present disclosure. The specification and examples are intended to be exemplary only, and the true scope and spirit of the present disclosure are indicated by the appended claims.

Claims

1. A polypeptide condensed silicon nano-ecological fertilizer production device, characterized in that: The production device comprises a reaction shell (1), a heating mechanism (2), a screening mechanism (3), a gas filtering mechanism (4), a pressurizing mechanism (5) and a plurality of extraction mechanisms (6); the reaction shell (1) comprises a first section (11), a second section (12) and a third section (13) which are detachably connected in sequence; wherein the first section (11) is connected to the gas filtering mechanism (4), and the gas filtering mechanism (4) is used to filter the gas flowing out of the first section (11); the screening mechanism (3) is arranged in the second section (12) and is used to screen the ecological fertilizer particles; the second section (12) has a feed inlet (121); the pressurizing mechanism (5) is connected to the end of the third section (13) away from the second section (12); the heating mechanism (2) is connected to the pressurizing mechanism (5); the heating mechanism (2) is used to provide hot air into the reaction shell (1); the pressurizing mechanism (5) is used to pressurize the hot air entering the reaction shell (1); part of the extraction mechanism (6) is connected to the second section (12) for extracting the ecological fertilizer on the screening mechanism (3); part of the extraction mechanism (6) is connected to the third section (13) for extracting the screened ecological fertilizer.

2. A polypeptide condensed silicon nano-ecological fertilizer production device according to claim 1, characterized in that: The screening mechanism (3) comprises a swing assembly (31) and a knocking assembly (32); the swing assembly (31) comprises a swing bracket (311), a swing frame (312), a swing connecting rod (313) and a power member (314); the swing bracket (311) is arranged in the second section (12); the swing frame (312) is movably arranged on the swing bracket (311), and the swing frame (312) has a screening hole (3121); the swing connecting rod (313) One end of the swing frame (312) is connected to the power piece (314), and the other end is hinged to the swing frame (312), and the power piece (314) is used to drive the swing connecting rod (313) to move; wherein the second section (12) has a recessed portion (122) corresponding to the swing frame (312); a plurality of knocking components (32) are correspondingly arranged at at least one end of the swing frame (312), and are used to knock on the swing frame (312), and are located in the recessed portion (122).

3. A polypeptide condensed silicon nano-ecological fertilizer production device according to claim 2, characterized in that: The knocking assembly (32) comprises a knocking rack (321), a knocking gear (322), a knocking rotating rod (323), a knocking protrusion (324), a driving rod (325) and a knocking hammer (326); the knocking rack (321) is connected to the swing frame (312), and the movement direction of the knocking rack (321) is the same as the movement direction of the swing frame (312); the knocking gear (322) is rotatably connected to the recessed portion (122), and the knocking gear (322) and the knocking gear (323) are connected to each other. The knocking protrusion (324) is connected to the knocking gear (322) through the knocking rotating rod (323); the driving rod (325) is rotatably connected to the recessed portion (122), and the driving rod (325) has a protrusion (3251), and the protrusion (3251) can contact the knocking protrusion (324); the knocking hammer (326) is provided on the driving rod (325), and the knocking hammer (326) can contact the swing frame (312).

4. A polypeptide condensed silicon nano-ecological fertilizer production device according to claim 3, characterized in that: The screening mechanism (3) further comprises at least two flexible sealing plates (33); the flexible sealing plates (33) are arranged at the recessed portion (122), and the flexible sealing plates (33) are symmetrically arranged with respect to the movement direction of the swing frame (312), and the flexible sealing plates (33) are used to seal the recessed portion (122).

5. The polypeptide condensed silicon nano-ecological fertilizer production device according to claim 1 is characterized in that: The air filtering mechanism (4) comprises a filtering pipe (41), a blocking plate (42) and at least two air filtering components (43); the filtering pipe (41) comprises a first pipe section (411) and a second pipe section (412); one end of the first pipe section (411) and one end of the second pipe section (412) are respectively connected to the first section (11), the first pipe section (411) and the second pipe section (412) meet at one end away from the first section (11), and the air filtering components (43) are both arranged in the first pipe section (411) and the second pipe section (412); wherein the blocking plate (42) is movably arranged in the first pipe section (411) and the second pipe section (412) respectively; the air filtering components (43) comprise a filtering plate (431), a filtering bag (432), a pushing cylinder ( 433) and a driving member (434) corresponding to the first pipe section (411) and the second pipe section (412); the filter plate (431) is slidably connected to the first section (11) through the pushing cylinder (433), and the filter bag (432) is connected to the filter plate (431); the driving member (434) is connected to the filter plate (431) and is used to drive the blocking plate (42) to move, wherein the filter plate (431) corresponding to the first pipe section (411) drives the blocking plate (42) in the second pipe section (412) to move through the driving member (434), and the filter plate (431) corresponding to the second pipe section (412) drives the blocking plate (42) in the first pipe section (411) to move through the driving member (434).

6. A polypeptide condensed silicon nano-ecological fertilizer production device according to claim 5, characterized in that: The driving member (434) comprises a driving rack (4341), a driving gear (4342), a first rod (4343), a first bevel gear set (4344), a second rod (4345), a second bevel gear set (4346) and a third rod (4347); the driving rack (4341) is connected to the filter plate, and the movement direction of the driving rack (4341) is the same as the movement direction of the filter plate; the driving gear (4342) is rotatably connected to the first section (11), and the driving gear (4342) is meshed with the driving rack (4341); the first rod (4343) is connected to the driving gear (4342) The axial direction of the first rod (4343) is perpendicular to the movement direction of the driving rack (4341); the second rod (4345) is connected to the end of the first rod (4343) away from the driving gear (4342) through the first bevel gear set (4344), and the axial direction of the second rod (4345) is perpendicular to the axial direction of the first rod (4343); the third rod (4347) is connected to the second rod (4345) through the second bevel gear set (4346), and the axial direction of the third rod (4347) is perpendicular to the axial direction of the second rod (4345); the blocking plate (42) is connected to the third rod (4347).

7. The polypeptide condensed silicon nano-ecological fertilizer production device according to claim 1 is characterized in that: The pressurizing mechanism (5) comprises a pressurizing frame (51); the pressurizing frame (51) is arranged at one end of the third section (13) away from the second section (12); the heating mechanism (2) is connected to the pressurizing frame (51), wherein the inner wall of the pressurizing frame (51) has a spiral protrusion (52), and the spiral protrusion (52) is used to make the hot air entering the pressurizing frame (51) rise in a spiral shape.

8. The polypeptide condensed silicon nano-ecological fertilizer production device according to claim 1 is characterized in that: The production device further comprises a stirring mechanism (7); the stirring mechanism (7) comprises a stirring frame (71), a stirring motor (72) and a cleaning block (73); the stirring frame (71) is rotatably connected to the third section (13) through the stirring motor (72); the stirring frame (71) comprises a stirring portion (711) and a ventilating portion (712); the stirring portion (711) is used for stirring the ecological fertilizer in the third section (13); the ventilating portion (712) is used for allowing hot air from the heating mechanism (2) to pass through; the cleaning block (73) comprises a fixing portion (731) and a cleaning portion (732); the cleaning portion (732) is connected to the stirring frame (71) through the fixing portion (731), and the cleaning portion (732) can contact the inner wall of the third section (13); the stirring motor (72) is used for driving the stirring frame (71) to rotate.

9. A polypeptide condensed silicon nano-ecological fertilizer production device according to any one of claims 1 to 8, characterized in that: The production device also includes a crushing mechanism (8); the crushing mechanism (8) includes a crushing sleeve (81), a crushing rod (82) and a plurality of crushing blocks (83); the crushing sleeve (81) is arranged on the third section (13) and extends into the third section (13); the crushing rod (82) is slidably connected to the crushing sleeve (81), the crushing rod (82) can extend into the third section (13), and the crushing rod (82) has a sampling notch (821); a plurality of crushing blocks (83) are arranged on the crushing rod (82), wherein adjacent crushing blocks (83) form a crushing space for the ecological fertilizer in the third section (13).

10. A polypeptide condensed silicon nano-ecological fertilizer production process, characterized in that: The production process comprises: Modification of ecological nanomaterials; Mixing the modified eco-nanomaterials with auxiliary raw materials in a predetermined ratio; Provide silicon ore and extract silicon element from the silicon ore; The solvent and the purifier are mixed in proportion, added into blast furnace slag, stirred, and filtered to obtain filter residue, and the filter residue is treated by the production device according to claims 1 to 9 to form nano silicon fertilizer; Polypeptide is added into the nano silicon fertilizer.

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