Nanoscale silicon dioxide slow-release preparation reaction kettle

Abstract

The utility model relates to the technical field of feed additive preparation equipment, in particular to a nanoscale silicon dioxide slow-release preparation reaction kettle which comprises a kettle body, the feeding structure is arranged on the surface of the kettle body, and the feeding structure is used for adding raw materials; the feeding structure comprises a feeding assembly arranged on the surface of the kettle body, and an auxiliary assembly is arranged on the surface of the feeding assembly; by arranging the feeding assembly, the effect that raw materials are temporarily stored in the temporary storage tank and then guided into the kettle body in batches for mixing and stirring after being added into the storage shell can be achieved, continuous adding by workers is not needed, operation is easy and convenient, meanwhile, solid sodium silicate can be crushed through the crushing mechanism, subsequent dissolution is facilitated, and the practicability is high. And dust generated by crushing can be reduced by using clear water under the action of the auxiliary assembly, the loss of the raw materials is reduced, and the flowability of the raw materials is improved, so that the raw materials are conveniently guided into the kettle body.

Description

Technical Field

[0001] The utility model relates to the technical field of feed additive preparation equipment, and particularly relates to a reaction kettle for preparing nano-silica sustained release. Background Technique

[0002] Although the dosage of feed additives is very small, their effects are remarkable, achieving effects such as strengthening the nutritional value of basic feed, improving animal production performance, and saving feed costs. Silica is a functional feed additive and can be used as a carrier for vitamins, antioxidants, etc.

[0003] After retrieval, a Chinese patent discloses a synthesis process for sustained-release highly adsorbent silica (publication number: CN115159533B). In this patented technology, solid sodium silicate is added to clear water in batches while stirring. However, the existing equipment is not convenient for adding solid sodium silicate in batches. Therefore, those skilled in the art have provided a reaction kettle for preparing nano-silica sustained release to solve the problems raised in the above background technique. Content of the Utility Model

[0004] The purpose of the utility model is to provide a reaction kettle for preparing nano-silica sustained release to solve the above problems, and it improves the problem that the existing equipment is not convenient for adding solid sodium silicate in batches.

[0005] The utility model realizes the above purpose through the following technical solutions. A reaction kettle for preparing nano-silica sustained release includes: a kettle body; a feeding structure, which is arranged on the surface of the kettle body and is used for adding raw materials; the feeding structure includes a feeding component arranged on the surface of the kettle body, and an auxiliary component is arranged on the surface of the feeding component; wherein, the feeding component includes a mounting shell arranged on the top of the kettle body, a feeding pipe is communicated with the surface of the mounting shell, the other end of the feeding pipe is communicated with the kettle body, and a storage shell is arranged on the top of the mounting shell.

[0006] Preferably, a rotating block is rotatably connected inside the mounting shell, uniformly distributed temporary storage grooves are formed on the surface of the rotating block, a motor is arranged on one side of the mounting shell, and an output shaft of the motor penetrates through the mounting shell and is fixedly connected with the center of the rotating block.

[0007] Preferably, a crushing mechanism is arranged inside the storage shell, a guide pipe is communicated with the bottom of the storage shell, and the other end of the guide pipe is communicated with the mounting shell.

[0008] Preferably, the auxiliary component includes a connection box embedded on the surface of the storage shell, uniformly distributed spray heads are communicated with the surface of the connection box, and the other ends of the spray heads penetrate into the storage shell.

[0009] Preferably, the installation height of the spray head is higher than that of the crushing mechanism, and the surface of the spray head away from the connection box is flush with the inner wall of one side of the storage shell.

[0010] Preferably, the other side of the connection box is communicated with a water inlet pipe, the other end of the water inlet pipe is spirally wound around the surface of the kettle body, and the other end of the water inlet pipe is used for introducing clean water.

[0011] The beneficial effects of the present utility model are as follows: by setting the feeding assembly, after the raw materials are added into the storage shell, they can be introduced into the kettle body in batches through the inside of the temporary storage tank for mixing and stirring, without the need for continuous addition by the staff, and the operation is simple. At the same time, the crushing mechanism can be used to crush solid sodium silicate to facilitate subsequent dissolution, and under the action of the auxiliary assembly, clean water can be used to reduce the dust generated by crushing, reduce the loss of raw materials, and increase the fluidity of the raw materials to facilitate introduction into the kettle body. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 is a schematic structural diagram of the present utility model;

[0013] Figure 2 is a schematic structural diagram of the feeding assembly of the present utility model;

[0014] Figure 3 is a schematic distribution diagram of the temporary storage tank of the present utility model;

[0015] Figure 4 is a schematic connection diagram of the auxiliary assembly and the storage shell of the present utility model.

[0016] In the figure: 1. Kettle body; 2. Feeding structure; 21. Feeding assembly; 2101. Storage shell; 2102. Crushing mechanism; 2103. Installation shell; 2104. Motor; 2105. Guide pipe; 2106. Rotating block; 2107. Feeding pipe; 2108. Temporary storage tank; 22. Auxiliary assembly; 2201. Water inlet pipe; 2202. Connection box; 2203. Spray head. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0017] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative work shall fall within the protection scope of the present utility model.

[0018] During specific implementation: as Figures 1-4As shown in the figure, a reaction kettle for the slow release preparation of nano-silica includes: a kettle body 1; a feeding structure 2, which is arranged on the surface of the kettle body 1 and is used for adding raw materials; the feeding structure 2 includes a feeding component 21 arranged on the surface of the kettle body 1, and an auxiliary component 22 is arranged on the surface of the feeding component 21; among them, the feeding component 21 includes a mounting shell 2103 arranged on the top of the kettle body 1, a feeding pipe 2107 is communicated with the surface of the mounting shell 2103, the other end of the feeding pipe 2107 is communicated with the kettle body 1, and a storage shell 2101 is arranged on the top of the mounting shell 2103;

[0019] By adding the raw materials to be added into the interior of the storage shell 2101, where the raw materials are specifically solid sodium silicate.

[0020] As Figure 1 、 Figure 2 、 Figure 3 and Figure 4 As shown in

[0021] a rotating block 2106 is rotatably connected to the interior of the mounting shell 2103, uniformly distributed temporary storage grooves 2108 are formed on the surface of the rotating block 2106, a motor 2104 is arranged on one side of the mounting shell 2103, the output shaft of the motor 2104 penetrates through the mounting shell 2103 and is fixedly connected to the center of the rotating block 2106, a crushing mechanism 2102 is arranged in the storage shell 2101, a guide pipe 2105 is communicated with the bottom of the storage shell 2101, and the other end of the guide pipe 2105 is communicated with the mounting shell 2103;

[0022] As Figure 1 、 Figure 2 and Figure 4As shown, the auxiliary component 22 includes a connection box 2202 embedded and installed on the surface of the material storage shell 2101. The surface of the connection box 2202 is communicated with evenly distributed spray nozzles 2203. The other end of the spray nozzle 2203 penetrates into the interior of the material storage shell 2101. The installation height of the spray nozzle 2203 is higher than that of the crushing mechanism 2102, and the surface of the spray nozzle 2203 away from the connection box 2202 is flush with one inner wall of the material storage shell 2101. The other side of the connection box 2202 is communicated with a water inlet pipe 2201. The other end of the water inlet pipe 2201 is spirally wound around the surface of the kettle body 1, and the other end of the water inlet pipe 2201 is used for introducing clean water;

[0023] The clean water is introduced into the interior of the connection box 2202 through the water inlet pipe 2201. During this process, due to winding around the surface of the kettle body 1, it can absorb the waste heat dissipated during the operation of the kettle body 1 and be sprayed out through the spray nozzles 2203. During this process, it can reduce the dust during the crushing process of the crushing mechanism 2102, reduce dust pollution, and avoid the situation of insufficient weight of the added raw materials caused by the splashing of dust during the crushing process. And the clean water sprayed out after absorbing the waste heat enters the interior of the temporary storage tank 2108 together with the raw materials, and realizes the effect of premixing during the rotation of the rotating block 2106. At the same time, after the temporary storage tank 2108 is communicated with the feed pipe 2107, the clean water can be used to enhance the fluidity of the raw materials, make their discharge more thorough, and the heated clean water can reduce the influence on the internal temperature of the kettle body 1.

[0024] When the utility model is in use, during the process of adding raw materials into the inside of the storage shell 2101, the crushing mechanism 2102 can be used to crush the raw materials to facilitate the subsequent dissolution of the raw materials. The crushed raw materials can be introduced into the inside of the temporary storage tank 2108 through the material guiding pipe 2105. By starting the motor 2104, the rotating block 2106 can be driven to rotate, so that the crushed raw materials can be introduced into the inside of the temporary storage tank 2108 in batches, and under the rotation of the rotating block 2106, the raw materials inside the temporary storage tank 2108 can be introduced into the kettle body 1 through the feed pipe 2107, so as to facilitate the full dissolution and mixing of the raw materials by the clear water pre-added inside the kettle body 1. The clear water is introduced into the inside of the connection box 2202 through the water inlet pipe 2201. During this process, since it surrounds the surface of the kettle body 1, it can absorb the waste heat dissipated during the working process of the kettle body 1 and be sprayed out through the nozzle 2203. During this process, it can reduce the dust during the crushing process of the crushing mechanism 2102, reduce dust pollution, and avoid the situation of insufficient weight of the added raw materials caused by the splashing of dust during the crushing process. Moreover, the clear water sprayed out after absorbing the waste heat is introduced into the inside of the temporary storage tank 2108 together with the raw materials, and the effect of pre-mixing is achieved during the rotation of the rotating block 2106. At the same time, after the temporary storage tank 2108 is communicated with the feed pipe 2107, the fluidity of the raw materials can be enhanced by the clear water, making its discharge more thorough, and the heated clear water can reduce the influence on the temperature inside the kettle body 1.

[0025] In addition, it should be understood that although this specification is described according to embodiments, not each embodiment only contains an independent technical solution. This narrative way of the specification is only for clarity. Those skilled in the art should regard 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 nano-scale silicon dioxide slow-release preparation reactor, characterized in that: include: Kettle body (1); A feeding structure (2), wherein the feeding structure (2) is arranged on the surface of the kettle body (1), and the feeding structure (2) is used for adding raw materials; The feeding structure (2) comprises a feeding component (21) arranged on the surface of the kettle body (1), and an auxiliary component (22) is arranged on the surface of the feeding component (21); The feed assembly (21) comprises a mounting shell (2103) arranged on the top of the kettle body (1); a feed pipe (2107) is connected to the surface of the mounting shell (2103); the other end of the feed pipe (2107) is connected to the kettle body (1); and a material storage shell (2101) is arranged on the top of the mounting shell (2103).

2. A nano-scale silicon dioxide slow-release preparation reactor according to claim 1, characterized in that: The mounting shell (2103) is internally rotatably connected to a rotating block (2106), and the surface of the rotating block (2106) is provided with evenly distributed temporary storage grooves (2108). A motor (2104) is arranged on one side of the mounting shell (2103), and the output shaft of the motor (2104) passes through the mounting shell (2103) and is fixedly connected to the axis of the rotating block (2106).

3. A nano-scale silicon dioxide slow-release preparation reactor according to claim 2, characterized in that: A crushing mechanism (2102) is arranged inside the material storage shell (2101), and a material guide pipe (2105) is connected to the bottom of the material storage shell (2101), and the other end of the material guide pipe (2105) is connected to the installation shell (2103).

4. A nano-scale silicon dioxide slow-release preparation reactor according to claim 2, characterized in that: The auxiliary component (22) comprises a connection box (2202) embedded and installed on the surface of the material storage shell (2101), the surface of the connection box (2202) is connected to uniformly distributed nozzles (2203), and the other end of the nozzle (2203) penetrates into the interior of the material storage shell (2101).

5. A nano-scale silicon dioxide slow-release preparation reactor according to claim 4, characterized in that: The nozzle (2203) is arranged at a height higher than the height of the crushing mechanism (2102), and the surface of the nozzle (2203) away from the connection box (2202) is flush with the inner wall of one side of the material storage shell (2101).

6. A nano-scale silicon dioxide slow-release preparation reactor according to claim 4, characterized in that: The other side of the connection box (2202) is connected to a water inlet pipe (2201), the other end of the water inlet pipe (2201) spirally surrounds the surface of the kettle body (1), and the other end of the water inlet pipe (2201) is used for the introduction of clean water.

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