Multi-stage circulating pipe type packed reactor

Abstract

The utility model belongs to the technical field of chemical reaction equipment, and particularly relates to a multistage circulating tubular packed reactor which comprises a tubular packed reactor main body, a connecting flange is arranged at one end of the tubular packed reactor main body, and a fixing bolt is arranged on one side of the connecting flange. By arranging the limiting block, the base, the limiting groove, the buffer spring and the connecting damper, when the tubular packed reactor main body is used, the buffer spring arranged in the base can be used for buffering vibration generated when the tubular packed reactor main body is used, so that the condition of resonance of the whole tubular packed reactor main body is avoided, and the service life of the tubular packed reactor main body is prolonged. Then the use stability of the buffer spring can be improved through the connection damping, the situation that the buffer spring rebounds during use is prevented, the use stability of the supporting seat can be improved through cooperation of a limiting block and a limiting groove, and the situation that the supporting seat swings in the use process is prevented; in this way, the use stability of the tubular packed reactor main body is improved.

Description

Technical Field

[0001] This utility model relates to the field of chemical reaction equipment technology, specifically to a tubular packed reactor. Background Technology

[0002] A multistage circulating tubular packed reactor is a device used for chemical reactions. It is mainly used to improve the contact efficiency and reaction rate between gases and liquids. It is widely used in chemical synthesis, catalytic reactions, gas absorption and other fields. The reactor is usually composed of multiple interconnected pipes, each of which is filled with packing material.

[0003] The existing technology has the following shortcomings: In the existing technology, application number 202022199331.6 proposes a novel multi-stage continuous tubular alkylation reactor, which belongs to the field of alkyl reactor technology. By feeding different raw materials into a metering feed assembly, the raw materials are quantitatively added into the spiral tube by opening the metering feed assembly. The spiral mixing and conveying assembly is activated to realize the function of conveying and mixing the raw materials. Further mixing is achieved by the stirring and mixing assembly. The raw materials enter the discharge pipe through the mixing chamber and are further mixed by the filtration and mixing assembly. Thus, the tubular structure achieves the function of efficient mixing.

[0004] In actual use, when the fluid flows rapidly within the pipes and undergoes changes such as turning or splitting, the aforementioned reactors experience significant impact forces on the pipes and internal structure, causing vibration. When the tubular packed reactor is subjected to vibration, the connecting parts between the tubular packed reactors may loosen, affecting their normal operation. Furthermore, during the extended service life of existing tubular packed reactors, corrosion and rust may occur on the outer surface due to external environmental factors. This corrosion and rust affects the strength of the tubular packed reactor, thus shortening its service life. Utility Model Content

[0005] To address the shortcomings of existing technologies, this invention provides a multi-stage circulating tubular packed reactor to solve the problems mentioned in the background section.

[0006] To achieve the above objectives, this utility model provides the following technical solution: a multi-stage circulating tubular packed reactor, comprising a tubular packed reactor body, a connecting flange at one end of the tubular packed reactor body, a fixing bolt on one side of the connecting flange, a connecting pipe on one side of the tubular packed reactor body, a support block at the bottom of the tubular packed reactor body, an outer support frame on the outside of the tubular packed reactor body, a support base at the bottom of the outer support frame, a limit block on one side of the support base, a base below the support base, a limit groove on the inner wall of the base, a buffer spring inside the base, a connecting damper on one side of the buffer spring, an anti-corrosion layer on the outer surface of the tubular packed reactor body, a first fiber strip on the inner wall of the anti-corrosion layer, a second fiber strip on one side of the first fiber strip, and a wear-resistant layer on the inner surface of the tubular packed reactor body.

[0007] As a preferred technical solution of this utility model, the number of the limiting blocks is several sets, the limiting blocks are symmetrically installed on both sides of the support base, and the limiting blocks are engaged with the limiting grooves.

[0008] As a preferred embodiment of this utility model, the number of buffer springs is several groups, the buffer springs are equidistantly installed inside the base, and the base is fixedly installed between the support and the base.

[0009] As a preferred technical solution of this utility model, the number of connecting dampers is several groups, the connecting dampers are installed equidistantly inside the base, and the top of the connecting damper is fixedly connected to the lower surface of the support.

[0010] As a preferred embodiment of this utility model, the anti-corrosion layer is made of fiberglass and is installed on the outer surface of the tubular packed reactor body and the connecting pipe.

[0011] As a preferred embodiment of the present invention, the first fiber strip is made of aramid fiber, the second fiber strip is made of carbon fiber, and the first fiber strip and the second fiber strip are embedded in the inner wall of the anti-corrosion layer in a cross shape.

[0012] As a preferred technical solution of this utility model, the wear-resistant layer is made of wear-resistant ceramic, and the wear-resistant layer is respectively installed on the inner surface of the tubular packed reactor body and the connecting pipe.

[0013] Compared with the prior art, this utility model provides a multi-stage circulating tubular packed reactor, which has the following beneficial effects:

[0014] 1. This multi-stage circulating tubular packed reactor, by setting a limiting block, a base, a limiting groove, a buffer spring, and a connecting damper, can buffer the vibration generated by the tubular packed reactor body during use by using the buffer spring inside the base, thus preventing the overall tubular packed reactor body from resonating. Then, the connecting damper can improve the stability of the buffer spring during use and prevent the buffer spring from rebounding during use. Furthermore, the cooperation between the limiting block and the limiting groove can improve the stability of the support base during use and prevent the support base from swaying during use. In this way, the stability of the tubular packed reactor body during use is improved.

[0015] 2. This multi-stage circulating tubular packed reactor, by setting an anti-corrosion layer, a first fiber strip, a second fiber strip, and a wear-resistant layer, improves the anti-corrosion effect of the outer surface of the tubular packed reactor body during use, preventing corrosion and rust caused by external environmental factors. Furthermore, the combination of the first and second fiber strips enhances the strength of the anti-corrosion layer, and the wear-resistant layer strengthens the inner wall of the tubular packed reactor body, preventing wear caused by the flowing medium. In this way, the overall strength of the tubular packed reactor body is improved. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall appearance and structure of the present utility model;

[0017] Figure 2 This is a schematic diagram of the internal structure of the base of this utility model;

[0018] Figure 3 This is a schematic diagram of the distribution structure of the anti-corrosion layer and wear-resistant layer of this utility model;

[0019] Figure 4 This is a schematic diagram of the internal structure of the anti-corrosion layer of this utility model.

[0020] In the diagram: 1. Main body of the tubular packed reactor; 2. Connecting flange; 3. Fixing bolts; 4. Connecting pipe; 5. Support block; 6. External support frame; 7. Support base; 8. Limiting block; 9. Base; 10. Limiting groove; 11. Buffer spring; 12. Connecting damping; 13. Anti-corrosion layer; 131. First fiber strip; 132. Second fiber strip; 14. Wear-resistant layer. Detailed Implementation

[0021] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0022] Please see Figure 1-4 In this embodiment: a multi-stage circulating tubular packed reactor includes a tubular packed reactor body 1, a connecting flange 2 at one end of the tubular packed reactor body 1, a fixing bolt 3 on one side of the connecting flange 2, a connecting pipe 4 on one side of the tubular packed reactor body 1, a support block 5 at the bottom end of the tubular packed reactor body 1, an outer support frame 6 on the outside of the tubular packed reactor body 1, a support seat 7 at the bottom end of the outer support frame 6, a limit block 8 on one side of the support seat 7, a base 9 below the support seat 7, a limit groove 10 on the inner wall of the base 9, a buffer spring 11 inside the base 9, a connecting damper 12 on one side of the buffer spring 11, an anti-corrosion layer 13 on the outer surface of the tubular packed reactor body 1, a first fiber strip 131 on the inner wall of the anti-corrosion layer 13, a second fiber strip 132 on one side of the first fiber strip 131, and a wear-resistant layer 14 on the inner surface of the tubular packed reactor body 1.

[0023] Reference Figure 1-2 The number of limit blocks 8 is several sets. The limit blocks 8 are symmetrically installed on both sides of the support base 7 and the limit blocks 8 are engaged with the limit groove 10.

[0024] Specifically, by utilizing the cooperation between the limiting block 8 and the limiting groove 10, the stability of the support base 7 can be improved, preventing the support base 7 from swaying during use.

[0025] Reference Figure 2 The number of buffer springs 11 is several sets, and the buffer springs 11 are installed equidistantly inside the base 9. The base 9 is fixedly installed between the support seat 7 and the base 9. The number of connecting dampers 12 is several sets, and the connecting dampers 12 are installed equidistantly inside the base 9. The top of the connecting damper 12 is fixedly connected to the lower surface of the support seat 7.

[0026] Specifically: The buffer spring 11 can buffer the vibration generated during the use of the tubular packed reactor body 1, and avoid the overall resonance of the tubular packed reactor body 1; the connecting damper 12 can improve the stability of the buffer spring 11 during use and prevent the buffer spring 11 from rebounding.

[0027] Reference Figure 3-4The anti-corrosion layer 13 is made of fiberglass and is installed on the outer surface of the tubular packed reactor body 1 and the connecting pipe 4 respectively; the first fiber strip 131 is made of aramid fiber and the second fiber strip 132 is made of carbon fiber. The first fiber strip 131 and the second fiber strip 132 are embedded in the inner wall of the anti-corrosion layer 13 in a cross shape.

[0028] Specifically: the anti-corrosion layer 13 can improve the anti-corrosion effect of the outer surface of the tubular packed reactor body 1, and prevent the outer surface of the tubular packed reactor body 1 from being corroded and rusted by the external environment; the combination of the first fiber strip 131 and the second fiber strip 132 can improve the strength of the anti-corrosion layer 13.

[0029] Reference Figure 3 The wear-resistant layer 14 is made of wear-resistant ceramic and is installed on the inner surface of the tubular packed reactor body 1 and the connecting pipe 4 respectively.

[0030] Specifically, the wear-resistant layer 14 can improve the inner wall strength of the tubular packed reactor body 1 and prevent wear on the inner surface of the tubular packed reactor body 1 caused by the flow medium. In this way, the service strength of the tubular packed reactor body 1 is improved.

[0031] The working principle and usage process of this utility model are as follows: When using the tubular packed reactor body 1, the operator connects the liquid inlet of the tubular packed reactor body 1 to the liquid inlet pipe, and then connects the liquid outlet to the liquid outlet pipe. The reactants are then introduced into the tubular packed reactor body 1 through the liquid inlet. During the use of the tubular packed reactor body 1, the buffer spring 11 installed inside the base 9 can buffer the vibration generated during use, preventing resonance of the entire tubular packed reactor body 1. The connecting damper 12 can improve the stability of the buffer spring 11 and prevent it from rebounding during use. Furthermore, the cooperation between the limiting block 8 and the limiting groove 10 can improve the support base. 7. To ensure stability during use and prevent the support base 7 from swaying, the stability of the tubular packed reactor body 1 is improved. Furthermore, during use, the anti-corrosion layer 13 enhances the corrosion resistance of the outer surface of the tubular packed reactor body 1, preventing corrosion and rust caused by external environmental factors. The combination of the first fiber strip 131 and the second fiber strip 132 increases the strength of the anti-corrosion layer 13, and the wear-resistant layer 14 improves the inner wall strength of the tubular packed reactor body 1, preventing wear on the inner surface caused by the flowing medium. These measures enhance the overall strength of the tubular packed reactor body 1.

[0032] Finally, it should be noted that the above description is merely a preferred embodiment of this utility model and is not intended to limit the utility model. Although the utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. A multistage looped tubular packed reactor comprising a tubular packed reactor body (1), characterized in that: The tubular filler reactor body (1) is provided with a connecting flange (2) at one end, the connecting flange (2) is provided with a fixed bolt (3) on one side, the tubular filler reactor body (1) is provided with a connecting pipeline (4) on one side, the tubular filler reactor body (1) is provided with a support block (5) at the bottom end, the tubular filler reactor body (1) is provided with an outer support frame (6) outside, the outer support frame (6) is provided with a support seat (7) at the bottom end, the support seat (7) is provided with a limiting block (8) on one side, the support seat (7) is provided with a base (9) below, the inner wall of the base (9) is provided with a limiting groove (10), the inside of the base (9) is provided with a buffer spring (11), the buffer spring (11) is provided with a connecting damping (12) on one side, the outer surface of the tubular filler reactor body (1) is provided with a corrosion-resistant layer (13), the inner wall of the corrosion-resistant layer (13) is provided with a first fiber strip (131), the first fiber strip (131) is provided with a second fiber strip (132) on one side, the inner surface of the tubular filler reactor body (1) is provided with a wear-resistant layer (14).

2. A multi-stage, cyclic, tubular packed reactor according to claim 1, characterized in that: The number of limiting blocks (8) is several groups, the limiting blocks (8) are symmetrically installed on both sides of the support seat (7), and the limiting blocks (8) are clamped with the limiting grooves (10).

3. A multi-stage, cyclic, pipe packed reactor according to claim 1, wherein: The number of buffer springs (11) is several groups, the buffer springs (11) are installed equidistantly inside the base (9), and the base (9) is fixedly installed between the support seat (7) and the base (9).

4. A multi-stage, cyclic, tubular packed reactor according to claim 1, wherein: The number of connecting dampings (12) is several groups, the connecting dampings (12) are installed equidistantly inside the base (9), and the connecting dampings (12) are fixedly connected with the lower surface of the support seat (7) at the top end.

5. A multi-stage, cyclic, tubular packed reactor according to claim 1, wherein: The corrosion-resistant layer (13) is made of glass steel, and the corrosion-resistant layer (13) is installed on the outer surfaces of the tubular filler reactor body (1) and the connecting pipeline (4) respectively.

6. A multi-stage, cyclic, tubular packed reactor according to claim 1, wherein: The first fiber strip (131) is made of aramid fiber, the second fiber strip (132) is made of carbon fiber, and the first fiber strip (131) and the second fiber strip (132) are cross-shaped embedded in the inner wall of the corrosion-resistant layer (13).

7. A multi-stage, cyclic, tubular packed reactor according to claim 1, wherein: The wear-resistant layer (14) is made of wear-resistant ceramic, and the wear-resistant layer (14) is installed on the inner surfaces of the tubular filler reactor body (1) and the connecting pipeline (4) respectively.

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