A device for producing a full-silicon water-soluble fertilizer

Abstract

The application provides a full-silicon water-soluble fertilizer production device, which comprises a reaction tank body, support columns welded around the bottom, a top cover detachably installed on the top of the reaction tank body through bolts, a feeding pipe communicated around the surface of the top cover, a discharge pipe communicated on one side of the bottom of the reaction tank body and a speed reducer one detachably installed on the top of the top cover through bolts, a stirring pipe is rotatably installed inside the top cover, a discharge port is formed on the top of one side of the surface of the stirring pipe, and a lifting ring is sleeved on the bottom of the surface of the stirring pipe. The application can quickly mix new material elements with other layers of materials, can shorten the preparation time, and solves the problem that in the prior art, new element components added in the mixing production device are difficult to quickly and uniformly mixed with bottom layer elements, a long stirring time is required for slowly stirring, sedimentation and uniform mixing, and thus the overall production speed is reduced.

Description

Technical Field

[0001] This invention relates to the field of water-soluble fertilizer production technology, and more particularly to a production apparatus for a fully silicon-based water-soluble fertilizer. Background Technology

[0002] Silicon is an important component of plants. It is a crucial nutrient element for plants, and most plants are rich in it. Tests show that from 1000 kg of rice, the amount of silicon dioxide absorbed by the rice paddy reaches 150 kg, exceeding the total absorption of nitrogen, phosphorus, and potassium by the rice. In the ash of crops such as rice, wheat, barley, and soybeans, silicon oxide accounts for 14.2%–61.4%. As a new type of inorganic mineral fertilizer, silicon is an excellent quality fertilizer, a health-promoting fertilizer, and a plant regulator. It is a new type of multifunctional fertilizer that other chemical fertilizers cannot match. It can be used as fertilizer to provide nutrients, and also as a soil conditioner to improve soil. Water-soluble fertilizer is a compound fertilizer containing nitrogen, phosphorus, potassium, calcium, magnesium, and trace elements that can completely dissolve in water. During the production of water-soluble fertilizer, a large amount of silicon needs to be stirred and integrated. To ensure fertilization effectiveness, even with the large-scale application of silicon, it is necessary to mix it with other elements to comprehensively enhance its fertility and form a highly efficient fertilizer.

[0003] In existing technologies, when mixing fertilizers, other elements need to be added according to the processing of the raw materials. However, the added new elements are difficult to quickly and evenly integrate with the underlying elements. A long mixing time is required to slowly stir and settle the fertilizer to achieve uniform integration, thus reducing the overall production speed. Summary of the Invention

[0004] To address the shortcomings of existing technologies, the present invention aims to provide a production device for all-silica water-soluble fertilizer that can quickly integrate newly added material elements with other layers of materials, thereby reducing preparation time. This solves the problem that existing mixing production devices struggle to quickly and uniformly integrate newly added element components with the underlying elements, requiring a long stirring time for slow sedimentation to achieve uniform integration, thus reducing the overall production speed.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a production apparatus for all-silica water-soluble fertilizer, comprising a reaction tank, support columns welded to the bottom perimeter, a top cover detachably bolted to the top of the reaction tank, a feeding pipe connected to the perimeter of the top cover, a discharge pipe connected to one side of the bottom of the reaction tank, and a reduction motor detachably bolted to the top of the top cover. A stirring tube is rotatably mounted inside the top cover. A discharge port is opened at the top of one side of the stirring tube. A lifting ring is fitted at the bottom of the stirring tube. A pump is connected to the bottom of the stirring tube. A three-way pipe is connected to the input end of the pump. Movable suction components are connected to both ends of the three-way pipe away from the pump. A vibration-damping shaft is welded to the bottom of the three-way pipe. The bottom of the vibration-damping shaft is rotatably installed to the bottom of the inner wall of the reaction tank. A mounting bracket is welded to the top of the top cover. A drive shaft is rotatably installed inside the mounting bracket. The drive shaft is fixedly installed to the output end of a geared motor. A stabilizing bracket is welded to one side of the top of the top cover. A synchronous shaft is rotatably installed inside the stabilizing bracket. A gear is keyed to the top of the surface of the stirring tube. A material pumping and lifting drive mechanism is provided on one side of the top of the gear. A conductive slip ring is fixedly installed on the top of the surface of the stirring tube, located on the top of the gear, and the conductive slip ring is electrically connected to an external power supply. A sliding stirring mechanism is sleeved on the top of the surface of the stirring tube. A synchronous drive assembly is sleeved on the surface of the drive shaft.

[0006] Furthermore, the material conveying and lifting drive mechanism includes a support frame welded to the top of gear one. A second geared motor is detachably mounted on the top of the support frame via bolts. A winding reel is fixedly mounted on the output end of the second geared motor. The second geared motor is electrically connected to a conductive slip ring via a guide. A winding rope is wound around the surface of the winding reel, and two sets of winding ropes are symmetrically arranged on both sides of the stirring tube. The end of the winding rope away from the winding reel passes through gear one and is fixedly connected to the top of the lifting ring. A stabilizing plate is welded to the top of gear one on the side away from the support frame. The stabilizing plate is rotatably engaged with the output end of the second geared motor.

[0007] Furthermore, the sliding stirring mechanism includes a mounting sleeve, which is provided in three sets. Stirring columns are welded to the surface of the mounting sleeve. There are three sets of stirring columns, and each set has three columns. The three stirring columns are distributed in a ring at equal distances. The three sets of stirring columns arranged longitudinally are staggered. Vortex mixing cylinders are welded to both sides of the top and bottom of the stirring column surface. Springs are provided at the bottom of each of the three sets of mounting sleeves, and the springs are sleeved on the surface of the winding rope. One end of the bottom spring is fixedly installed to the top of the lifting ring, and the other end of the other two sets of springs contacts the top of the mounting sleeve. Through holes are opened on both sides of the inside of the mounting sleeve for use with the winding rope.

[0008] Furthermore, inserts are fixedly installed on both sides of the inner wall of the mounting sleeve. The inserts have a trapezoidal cross-section, and the surface of the stirring tube has a slot for use with the inserts.

[0009] Furthermore, the synchronous drive assembly includes a second gear, which is keyed to the bottom of the drive shaft surface. The top and bottom of the synchronous shaft surface are keyed to a third gear and a fourth gear, respectively. The fourth gear meshes with the first gear, and the second gear meshes with the third gear.

[0010] Furthermore, the mobile suction assembly includes a guide tube with an electric heating wire wound around its surface. An adjusting tube is slidably installed inside the guide tube. An inlet crushing assembly is fixedly installed at the end of the adjusting tube away from the guide tube. A connecting rod is welded to the end of the adjusting tube near the stirring tube. The other end of the connecting rod is welded and fixed to the lifting ring. The suction pump and the electric heating wire are both electrically connected to the conductive slip ring through wires.

[0011] Furthermore, the inlet crushing assembly includes a cross, inside which a rotating shaft is rotatably mounted. A guide vane is fixedly mounted on one side of the rotating shaft surface, and a crushing rod is fixedly mounted on the other side of the rotating shaft surface.

[0012] Furthermore, a stirring blade is welded to the side of the guide tube away from the stirring tube, and a sealing ring is fixedly installed at the bottom of the surface of the stirring tube, which is used in conjunction with the inner wall of the guide tube.

[0013] The beneficial effects of this invention are as follows: This invention uses a pump to quickly mix and blend materials at a suitable bottom temperature with newly added trace element ingredients. At the same time, the material pumping and lifting drive mechanism can lift and extract materials at different levels. In addition, the sliding stirring mechanism allows the stirring structure to slide and adapt to different levels of stirring without affecting the lifting ring, thus ensuring stirring performance and efficiency and reducing the fusion time of the new additives. Attached Figure Description

[0014] Other features, objects, and advantages of the present invention will become more apparent from the following detailed description of non-limiting embodiments with reference to the accompanying drawings:

[0015] Figure 1 This is a schematic diagram of the structure of the present invention;

[0016] Figure 2 This is a schematic diagram of the internal structure of the reaction vessel of the present invention;

[0017] Figure 3 This is a schematic diagram of the three-dimensional structure of a partial component of the sliding stirring mechanism;

[0018] Figure 4 A three-dimensional structural diagram of the components of the inlet scrap assembly;

[0019] Figure 5 This is a schematic diagram of a partial cross-section of the stirring tube in three dimensions.

[0020] Figure 6 for Figure 2 Enlarged view of A in the middle;

[0021] Figure 7 for Figure 2 Enlarged view of B in the middle;

[0022] Figure 8 A three-dimensional structural diagram of the parts of the material conveying and lifting drive mechanism and synchronous drive assembly.

[0023] In the diagram: 1. Reaction tank; 2. Support column; 3. Top cover; 4. Feed pipe; 5. Discharge pipe; 6. Gear motor 1; 7. Stirring pipe; 8. Discharge port; 9. Lifting ring; 10. Pump; 11. T-connector; 12. Moving suction assembly; 121. Guide pipe; 122. Electric heating wire; 123. Adjusting pipe; 124. Inlet crushing assembly; 1241. Cross; 1242. Rotating shaft; 1243. Guide vane; 1244. Crushing rod; 125. Connecting rod; 13. Anti-vibration shaft; 14. Mounting bracket; 15. Drive shaft; 16. 17. Stable frame; 18. Synchronous shaft; 19. Gear 1; 10. Material conveying and lifting drive mechanism; 11. Support frame; 192. Gear motor 2; 193. Rewinding reel; 194. Rewinding rope; 195. Stable plate; 20. Conductive slip ring; 21. Sliding stirring mechanism; 211. Mounting sleeve; 212. Stirring column; 213. Vortex mixing cylinder; 214. Spring; 215. Perforation; 22. Synchronous drive assembly; 221. Gear 2; 222. Gear 3; 223. Gear 4; 23. Insert bar; 24. Slot; 25. Stirring blade. Detailed Implementation

[0024] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.

[0025] Please see Figure 1 , Figure 1 This is a schematic diagram of the structure of the present invention.

[0026] A production apparatus for a fully silicon-based water-soluble fertilizer includes a reaction tank 1, support columns 2 welded to the bottom perimeter, a top cover 3 detachably bolted to the top of the reaction tank 1, a feeding pipe 4 connected to the perimeter of the top cover 3, a discharge pipe 5 connected to one side of the bottom of the reaction tank 1, and a reduction motor 6 detachably bolted to the top of the top cover 3. A stirring pipe 7 is rotatably mounted inside the top cover 3. A discharge port 8 is opened on the top of one side of the stirring pipe 7. A lifting ring 9 is fitted onto the bottom of the stirring pipe 7. A suction pump 10 is connected to the bottom of the stirring pipe 7. A three-way pipe 11 is connected to the input end of the suction pump 10. Movable suction components 12 are connected to both ends of the three-way pipe 11 away from the suction pump 10. An anti-vibration shaft 13 is welded to the bottom of the three-way pipe 11. The bottom of the anti-vibration shaft 13 is rotatably mounted to the bottom of the inner wall of the reaction tank 1. A guide pipe 121 is located away from the stirring pipe 7. A stirring blade 25 is welded to the side. A mounting bracket 14 is welded to the top of the top cover 3. A drive shaft 15 is rotatably mounted inside the mounting bracket 14. The drive shaft 15 is fixedly mounted to the output end of the geared motor 6. A stabilizing bracket 16 is welded to one side of the top of the top cover 3. A synchronous shaft 17 is rotatably mounted inside the stabilizing bracket 16. A gear 18 is keyed to the top of the surface of the stirring tube 7. A material pumping and lifting drive mechanism 19 is provided on one side of the top of the gear 18. An electric heating wire 122 is wound around the surface of the guide tube 121. A conductive slip ring 20 located on the top of the gear 18 is fixedly mounted on the top of the surface of the stirring tube 7. The material pump 10 and the electric heating wire 122 are electrically connected to the conductive slip ring 20 through wires. The conductive slip ring 20 is electrically connected to an external power supply. A sliding stirring mechanism 21 is sleeved on the top of the surface of the stirring tube 7. A synchronous drive assembly 22 is sleeved on the surface of the drive shaft 15.

[0027] Please see Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 , Figure 7 and Figure 8 , Figure 2 This is a schematic diagram of the internal structure of the reaction vessel of the present invention; Figure 3 This is a schematic diagram of the three-dimensional structure of a partial component of the sliding stirring mechanism; Figure 4 A three-dimensional structural diagram of the components of the inlet scrap assembly; Figure 5 This is a schematic diagram of a partial cross-section of the stirring tube in three dimensions. Figure 6 for Figure 2 Enlarged view of A in the middle; Figure 7 for Figure 2 Enlarged view of B in the middle; Figure 8 A three-dimensional structural diagram of the parts of the material conveying and lifting drive mechanism and synchronous drive assembly.

[0028] The material conveying and lifting drive mechanism 19 includes a support frame 191 welded to the top of gear 18. A geared motor 192 is detachably mounted on the top of the support frame 191 via bolts. A winding reel 193 is fixedly mounted on the output end of the geared motor 192. The geared motor 192 is electrically connected to the conductive slip ring 20 via a guide. A winding rope 194 is wound around the surface of the winding reel 193. Two sets of winding ropes 194 are symmetrically arranged on both sides of the stirring tube 7. The end of the winding rope 194 away from the winding reel 193 passes through the gear 18 and the top of the lifting ring 9. The gear 18 is fixedly connected, and a stabilizing plate 195 is welded to the top of the gear 18 away from the support frame 191. The stabilizing plate 195 is rotatably engaged with the output end of the geared motor 192. After the geared motor 192 is started, it can drive the winding reel 193. The support frame 191 can improve the stability of the winding reel 193 when winding. The rotation of the winding reel 193 can drive the winding rope 194 to wind up. The winding rope 194 can drive the lifting ring 9 to move up and down. When the geared motor 192 rotates with the stirring tube 7, it can rotate and conduct electricity through the conductive slip ring 20.

[0029] The sliding stirring mechanism 21 includes mounting sleeves 211, of which three sets are provided. Stirring columns 212 are welded to the surface of the mounting sleeves 211. Each set of three sets of stirring columns 212 has three columns, arranged in a ring with equal spacing. The three sets of stirring columns 212 are also staggered longitudinally. Vortex mixing cylinders 213 are welded to both the top and bottom sides of the stirring columns 212. Springs 214 are provided at the bottom of each of the three sets of mounting sleeves 211, and these springs 214 are fitted onto the surface of the winding rope 194. One end of the bottom spring 214 is fixedly installed to the top of the lifting ring 9, while the other ends of the other two sets of springs 214 contact the top of the mounting sleeve 211. Through holes 215 are provided on both sides of the interior of the mounting sleeves 211 for use with the winding rope 194. The three sets of mounting sleeves 211, in conjunction with the springs 214… 14 allows for stirring at three different stirring positions. The elastic force of spring 214 is greater than the weight of the three sets of stirring columns 212 and mounting sleeves 211, which can stably lift the mounting sleeves 211. This ensures that when the reduction motor 2 192 is turned off, the three sets of mounting sleeves 211 will be reset in time for multi-layer stirring. The rotating stirring column 212 can drive the vortex mixing drum 213 to rotate as well. The vortex mixing drum 213 can repeatedly fuse trace elements. After being discharged through the vortex section of the vortex mixing drum 213, it can form a vortex to impact and mix with other fertilizers, accelerating the fusion. The perforation 215 allows the winding rope 194 to pass through easily. While lifting the lifting ring 9, it drives multiple sets of mounting sleeves 211 to rise. After the top mounting sleeve 211 contacts the bottom of the inner wall of the top cover 3, the other two sets at the bottom can overlap, making it easy for the lifting ring 9 to move upward to the position where the material needs to be sucked up.

[0030] Inserts 23 are fixedly installed on both sides of the inner wall of the mounting sleeve 211. The cross-section of the insert 23 is trapezoidal. The surface of the stirring tube 7 has a slot 24 that works with the insert 23. The insert 23 and the slot 24 allow the mounting sleeve 211 to rotate with the stirring tube 7 to perform stirring operations. The longer slot 24 can ensure space for multiple mounting sleeves 211 to slide up and down.

[0031] The synchronous drive assembly 22 includes gear 221, which is keyed to the bottom of the surface of the drive shaft 15. Gear 3 222 and gear 4 223 are keyed to the top and bottom of the surface of the synchronous shaft 17, respectively. Gear 4 223 meshes with gear 1 18, and gear 221 meshes with gear 3 222. Gear 2 221 rotates with the drive shaft 15 and drives gear 3 222 to rotate. Gear 3 222 drives gear 4 223, which is coaxially mounted with it, to rotate. Gear 4 223 drives gear 1 18, which meshes with it, to rotate. Gear 1 18 drives the stirring tube 7 to rotate through a keyed connection with the stirring tube 7.

[0032] The mobile material suction assembly 12 includes a guide tube 121, an electric heating wire 122 wound around the surface of the guide tube 121, an adjusting tube 123 slidably installed inside the guide tube 121, an inlet crushing assembly 124 fixedly installed at the end of the adjusting tube 123 away from the guide tube 121, a connecting rod 125 welded to the end of the adjusting tube 123 near the stirring tube 7, and the other end of the connecting rod 125 welded and fixed to the lifting ring 9. The pump 10 and the electric heating wire 122 are both electrically connected to the conductive slip ring 20 through wires. After the guide tube 121 and the adjusting tube 123 are combined, the position of the upper and lower material absorption can be adjusted. The inlet crushing assembly 124 can break up the material once before it enters the stirring tube 7.

[0033] The inlet crushing assembly 124 includes a cross 1241, inside which a rotating shaft 1242 is rotatably mounted. A guide vane 1243 is fixedly mounted on one side of the surface of the rotating shaft 1242, and a crushing rod 1244 is fixedly mounted on the other side of the surface of the rotating shaft 1242. After the cross 1241 is fixed to the inner wall of the regulating pipe 123, it can limit the rotation of the rotating shaft 1242. The guide vane 1243 on the surface of the rotating shaft 1242 is affected by the suction force of the pump 10. The fluid sucked in will cause the guide vane 1243 to rotate around the rotating shaft 1242. Then the rotating shaft 1242 drives the crushing rod 1244 to rotate and crush trace elements and waste materials to better integrate.

[0034] A stirring blade 25 is welded to the side of the guide tube 121 away from the stirring tube 7. A sealing ring is fixedly installed at the bottom of the surface of the stirring tube 7. The sealing ring is used in conjunction with the inner wall of the guide tube 121. The stirring blade 25 can improve the stirring effect of the stirring tube 7. At the same time, the sealing ring can make the suction force of the material pump 10 more concentrated.

[0035] Working Principle: After a large amount of raw materials are added for mixing, the electric heating wire 122 is activated according to the mixing requirements to raise the mixing temperature and improve the fusion efficiency. The drive motor 6 drives gear 221 to rotate via drive shaft 15. Gear 221 drives gear 322, which meshes with it. Gear 322 drives gear 423, which is coaxially mounted with it. Gear 423 drives gear 18, which meshes with it. Gear 18, connected to the mixing tube 7 via a key, drives the mixing tube 7 to rotate. The mixing tube 7, through insert 23 and slot 24, drives the mounting sleeve 211 to rotate. The mounting sleeve 211 drives multiple sets of mixing columns 212 to rotate. The mixing columns 212 drive multiple vortex mixing cylinders 123 to rotate accordingly. The vortex mixing cylinders 213 enable repeated fusion of trace elements. After exiting the vortex section of the vortex mixing cylinder 213, the resulting vortex forms an impact and mixes with other fertilizers, accelerating the process. When trace elements need to be added, the geared motor 192 is started to drive the winding reel 193. The rotation of the winding reel 193 drives the winding rope 194 to wind up. The winding rope 194 drives the lifting ring 9 to move up and down. At the same time, the lifting ring 9 drives the guide tube 121 to move up and down through the connecting rod 125 to adsorb materials. When adsorbing materials, the guide vanes 1243 on the surface of the rotating shaft 1242 are affected by the adsorption force of the pump 10. The fluid sucked in will cause the guide vanes 1243 to rotate around the rotating shaft 1242. Then the rotating shaft 1242 drives the crushing rod 1244 to rotate and crush the trace elements and waste materials to better integrate. After the trace elements are adsorbed by the pump 10, the adsorbed material is discharged through the discharge port 8. The adsorbed material will be piled up and integrated with the newly added trace elements. With the help of the rotating stirring column 212, the newly added trace elements are quickly integrated with the materials on other layers.

[0036] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered illustrative and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the scope of the invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0037] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A production apparatus for a fully silicon-based water-soluble fertilizer, comprising a reaction tank (1), support columns (2) welded around the bottom, a top cover (3) detachably mounted on the top of the reaction tank (1) by bolts, a feeding pipe (4) connecting around the surface of the top cover (3), a discharge pipe (5) connecting to one side of the bottom of the reaction tank (1), and a geared motor (6) detachably mounted on the top of the top cover (3) by bolts, characterized in that: The top cover (3) is rotatably mounted with a stirring tube (7). A discharge port (8) is opened on the top of one side of the surface of the stirring tube (7). A lifting ring (9) is fitted on the bottom of the surface of the stirring tube (7). A suction pump (10) is connected to the bottom of the stirring tube (7). A three-way pipe (11) is connected to the input end of the suction pump (10). Both ends of the three-way pipe (11) away from the suction pump (10) are connected to a moving suction assembly (12). An anti-vibration shaft (13) is welded to the bottom of the three-way pipe (11). The bottom of the anti-vibration shaft (13) is rotatably mounted to the bottom of the inner wall of the reaction tank (1). A mounting bracket (14) is welded to the top of the top cover (3). A drive shaft (15) is rotatably mounted inside the mounting bracket (14). The top cover (3) is fixedly installed with the output end of the geared motor (6). A stabilizing frame (16) is welded to one side of the top of the top cover (3). A synchronous shaft (17) is rotatably installed inside the stabilizing frame (16). A gear (18) is keyed to the top of the surface of the stirring tube (7). A material pumping and lifting drive mechanism (19) is provided on one side of the top of the gear (18). A conductive slip ring (20) located on the top of the gear (18) is fixedly installed on the top of the surface of the stirring tube (7). The conductive slip ring (20) is electrically connected to an external power supply. A sliding stirring mechanism (21) is sleeved on the top of the surface of the stirring tube (7). A synchronous drive assembly (22) is sleeved on the surface of the drive shaft (15). The material pumping and lifting drive mechanism (19) includes a component welded to the gear. The support frame (191) at the top of the first wheel (18) is detachably mounted with a second geared motor (192) by bolts. A winding reel (193) is fixedly mounted at the output end of the second geared motor (192). The second geared motor (192) is electrically connected to a conductive slip ring (20) through a guide. A winding rope (194) is wound around the surface of the winding reel (193). Two sets of winding ropes (194) are symmetrically arranged on both sides of the stirring tube (7). The end of the winding rope (194) away from the winding reel (193) passes through the first gear (18) and is fixedly connected to the top of the lifting ring (9). A stabilizing plate (195) is welded to the side of the top of the first gear (18) away from the support frame (191). The plate (195) rotates in conjunction with the output end of the second geared motor (192). The sliding stirring mechanism (21) includes a mounting sleeve (211), which has three sets. The mounting sleeve (211) has stirring columns (212) welded to its surface. The stirring columns (212) have three sets, and each set has three stirring columns (212). The three stirring columns (212) are distributed in a ring at equal distances. The three sets of stirring columns (212) arranged longitudinally are staggered. The top and bottom sides of the stirring column (212) are welded with vortex mixing cylinders (213). The bottom of each of the three sets of mounting sleeves (211) is provided with a spring (214), and the spring (214) is sleeved on the surface of the winding rope (194).One end of the bottom spring (214) is fixedly installed to the top of the lifting ring (9), and the other ends of the other two sets of springs (214) are in contact with the top of the mounting sleeve (211). The mounting sleeve (211) has through holes (215) on both sides inside for use with the winding rope (194). The synchronous drive assembly (22) includes a second gear (221), which is keyed to the bottom of the surface of the drive shaft (15). The top and bottom of the surface of the synchronous shaft (17) are keyed to a third gear (222) and a fourth gear (223), respectively. The fourth gear (223) meshes with a first gear (18), and the second gear (221) meshes with a third gear (222). The moving suction assembly (12) includes a guide tube (121), and an electric heating wire (122) is wound around the surface of the guide tube (121). The guide tube (121) has an adjusting tube (123) slidably installed inside. An inlet crushing assembly (124) is fixedly installed at one end of the adjusting tube (123) away from the guide tube (121). A connecting rod (125) is welded to one end of the adjusting tube (123) near the stirring tube (7). The other end of the connecting rod (125) is welded and fixed to the lifting ring (9). The pump (10) and the electric heating wire (122) are both electrically connected to the conductive slip ring (20) via wires. The inlet crushing assembly (124) includes a cross (1241). A rotating shaft (1242) is rotatably installed inside the cross (1241). A guide vane (1243) is fixedly installed on one side of the rotating shaft (1242), and a crushing rod (1244) is fixedly installed on the other side of the rotating shaft (1242).

2. The production apparatus for a fully silicon-based water-soluble fertilizer according to claim 1, characterized in that: Inserts (23) are fixedly installed on both sides of the inner wall of the mounting sleeve (211). The cross-section of the insert (23) is trapezoidal. The surface of the stirring tube (7) is provided with a slot (24) that is used in conjunction with the insert (23).

3. The production apparatus for a fully silicon-based water-soluble fertilizer according to claim 1, characterized in that: A stirring blade (25) is welded to the side of the guide tube (121) away from the stirring tube (7). A sealing ring is fixedly installed on the bottom surface of the stirring tube (7), and the sealing ring is used in conjunction with the inner wall of the guide tube (121).

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