CN219879880U

CN219879880U - Anti-scaling dynamic flow reactor

Info

Publication number: CN219879880U
Application number: CN202320851501.5U
Authority: CN
Inventors: 禹志宏; 陶万进; 邓昌胜; 高峰; 苏思丝; 陈志红
Original assignee: Guizhou Micro Chemical Technology Co ltd
Current assignee: Guizhou Micro Chemical Technology Co ltd
Priority date: 2023-04-17
Filing date: 2023-04-17
Publication date: 2023-10-24
Anticipated expiration: 2033-04-17

Abstract

The utility model discloses an anti-scaling dynamic flow reactor, which comprises: a reaction housing having a reaction chamber formed therein with a hollow space for accommodating a reaction material; the vibration excitation module is excited to generate vibration and uniformly paved on the inner wall of the reaction shell, and when the dirt layer is attached to the vibration module. Because the shock module evenly spreads over the inner wall of the reaction shell, after the shock module is excited to vibrate, the vibration can be evenly transmitted to clean the dirt layer attached to the inner wall of the reaction shell, the cleaning effect and efficiency of the dirt layer are improved, and the problem that the vibration amplitude of the vibration is beaten on the outer wall of the primary decomposition area II by the installation point of the vibrator and the dirt layer on the inner wall cannot be uniformly transmitted is solved.

Description

Anti-scaling dynamic flow reactor

Technical Field

The utility model relates to an anti-scaling dynamic flow reactor, and belongs to the technical field of chemical reactors.

Background

In the chemical production process, chemical reaction needs to be carried out in a hollow space inside a reactor, along with the accumulation of the service time of the reactor, materials inside the reactor can adhere to the inner wall area of the reactor to form a layer of dirt, the dirt can influence the heat exchange capacity of the materials to cause the reduction of the product quality, finally the obtained product which is subjected to the chemical reaction in the reactor can not meet the requirement, and the dirt on the inner wall of the reactor can be cleaned manually at regular intervals to influence the production efficiency.

The prior technology for cleaning dirt on the inner wall of a reactor by adopting excitation is as a calcium-based thermochemical high-temperature fluidized bed internal circulation reaction device with the Chinese patent publication number of CN105771819A and a working method thereof, and the technology is disclosed as follows: the vibrator is arranged on the outer wall of the primary decomposition area II; although the vibration amplitude of the beating vibration generated by the vibrator can shake off the dirt layer attached to the inner wall of the cylindrical shell, the vibrator is arranged on one point of the outer wall of the primary decomposition area II, and the problem that the vibration amplitude of the beating vibration cannot be uniformly transmitted to clean the dirt layer on the inner wall exists.

Disclosure of Invention

In order to solve the technical problems, the utility model provides an anti-scaling dynamic flow reactor.

The utility model is realized by the following technical scheme.

The utility model provides an anti-scaling dynamic flow reactor, which comprises:

a reaction housing having a reaction chamber formed therein with a hollow space for accommodating a reaction material;

the vibration excitation module is excited to generate vibration and uniformly paved on the inner wall of the reaction shell.

The reaction shell is internally provided with a rotating shaft body capable of rotating.

And a driving device is arranged on the top of the rotating shaft body and drives the rotating shaft body to rotate in the reaction shell.

The reaction shell is provided with a material inlet which is communicated with the bottom of the hollow reaction cavity of the reaction shell, and material raw materials enter the reaction cavity in the reaction shell from the material inlet.

The material inlet is positioned at the bottom of the reaction shell.

The reaction shell is provided with a material outlet which is communicated with the top of the hollow reaction cavity of the reaction shell, and the reacted compound is discharged from the material outlet to the reaction cavity inside the reaction shell.

The material outlet is positioned at the top of the reaction shell.

The utility model has the beneficial effects that: because the shock module evenly spreads over the inner wall of the reaction shell, after the shock module is excited to vibrate, the vibration can be evenly transmitted to clean the dirt layer attached to the inner wall of the reaction shell, the cleaning effect and efficiency of the dirt layer are improved, and the problem that the vibration amplitude of the vibration is beaten on the outer wall of the primary decomposition area II by the installation point of the vibrator and the dirt layer on the inner wall cannot be uniformly transmitted is solved.

Drawings

FIG. 1 is a schematic diagram of the structure of the present utility model;

in the figure: 1-a reaction housing; 11-a reaction chamber; 2-a shock module; 3-fouling layer; 4-rotating the shaft body; 5-a driving device; 61-material inlet; 62-material outlet.

Detailed Description

The technical solution of the present utility model is further described below, but the scope of the claimed utility model is not limited to the above.

As shown in fig. 1.

The utility model relates to an anti-scaling dynamic flow reactor, which comprises:

a reaction shell 1 with a hollow space inside, wherein a reaction cavity 11 formed by the hollow space of the reaction shell 1 is used for accommodating reaction materials, and chemical reaction between the materials is contacted with the reaction cavity 11 in the reaction shell 1 to generate chemical reaction;

the shock module 2 is arranged on the inner wall of the reaction shell 1, the shock module 2 is uniformly paved on the inner wall of the reaction shell 1, and when the dirt layer 3 is attached to the shock module 2, the shock module 2 is excited to generate shock to separate the dirt layer 3 from the inner wall of the reaction shell 1.

Because the shock module 2 evenly spreads over the inner wall of the reaction shell 1, after the shock module 2 is excited to vibrate, vibration can be evenly transmitted to clean the dirt layer 3 attached to the inner wall of the reaction shell 1, the cleaning effect and efficiency of the dirt layer 3 are improved, and the problem that the vibrator can not uniformly transmit vibration amplitude of beating vibration on the outer wall of the primary decomposition area II to clean the dirt layer on the inner wall is solved.

The reaction shell 1 is internally provided with a rotating shaft body 4 capable of rotating, a driving device 5 is arranged on the top of the rotating shaft body 4, and the driving device 5 drives the rotating shaft body 4 to rotate in the reaction shell 1.

A pipeline is arranged at the bottom of the reaction shell 1 to form a material inlet 61 which is communicated with the bottom of the hollow reaction cavity 11 of the reaction shell 1, and material raw materials enter the reaction cavity 11 in the reaction shell 1 from the material inlet 61; the top of the reaction shell 1 is provided with a pipeline forming material outlet 62 which is communicated with the top of the hollow reaction cavity 11 of the reaction shell 1, and the reacted compound is discharged from the material outlet 62 to the reaction cavity 11 in the reaction shell 1.

Claims

1. An anti-fouling dynamic flow reactor comprising:

a reaction shell (1), wherein a reaction cavity (11) formed by a hollow space is arranged in the reaction shell (1) to contain reaction materials;

the vibration excitation module (2) is excited to generate vibration, and the vibration excitation module (2) is uniformly paved on the inner wall of the reaction shell (1).

2. The anti-fouling dynamic flow reactor of claim 1, wherein: the reaction shell (1) is internally provided with a rotating shaft body (4) which can rotate.

3. The anti-fouling dynamic flow reactor of claim 2, wherein: a driving device (5) is arranged on the top of the rotating shaft body (4), and the driving device (5) drives the rotating shaft body (4) to rotate in the reaction shell (1).

4. The anti-fouling dynamic flow reactor of claim 1 or 3, wherein: the reaction shell (1) is provided with a material inlet (61) which is communicated with the hollow reaction cavity (11) of the reaction shell (1), and material raw materials enter the reaction cavity (11) inside the reaction shell (1) from the material inlet (61).

5. The anti-fouling dynamic flow reactor of claim 4, wherein: the material inlet (61) is positioned at the bottom of the reaction shell (1).

6. The anti-fouling dynamic flow reactor of claim 4, wherein: the reaction shell (1) is provided with a material outlet (62) which is communicated with the top of the hollow reaction cavity (11) of the reaction shell (1), and the reacted compound is discharged from the material outlet (62) to the reaction cavity (11) in the reaction shell (1).

7. The anti-fouling dynamic flow reactor of claim 6, wherein: the material outlet (62) is positioned at the top of the reaction shell (1).