Granulation heat recovery structure

Abstract

The utility model discloses a granulation heat recovery structure which comprises a reaction box and a box body I. The reaction box is of a hollow structure, and a discharging opening is formed in the bottom of the reaction box. A first pipeline is arranged on the surface of the reaction box, the tail end of the first pipeline is connected with the first box body, a partition plate is embedded in the first box body and divides the first box body into a first cavity and a second cavity, a rotating wheel and a filter plate are arranged in the first cavity of the first box body, and a first fan is arranged in the second cavity of the first box body. According to the granulation heat recovery structure, a first fan and a rotating wheel are arranged, the fan drives heat to enter the first box body through a first pipeline, at the moment, hot air makes contact with a filter plate and the rotating wheel in sequence, meanwhile, air drives the rotating wheel, the rotating wheel dehumidifies the air at the moment, the heat can be absorbed, and the air can be cooled at the moment; meanwhile, the filtered air enters the box body II for secondary reaction, so that the practicability of the device is improved.

Description

Technical Field

[0001] This utility model relates to the field of heat recovery structure technology, specifically a granulation heat recovery structure. Background Technology

[0002] Granulation is the process of forming powdery or lumpy materials into granules of a specific shape and size through a certain process. The main purpose of granulation is to improve flowability, making materials easier to flow and handle, and facilitating metering and batching. Granular materials are easier to accurately measure and mix, and also easier to package and store, reducing problems such as moisture absorption and clumping. During granulation, heat pipe heat pumps can serve as a heat source to provide the necessary heat to the granulation equipment. For example, in wet granulation, they can be used to heat the air for drying granules, or in dry granulation, they can be used to preheat the materials to meet the temperature requirements of the granulation process and ensure smooth granulation. At the same time, when heat pipe heat pumps are used to heat granulation, the granulation heat recovery structure recovers heat to reduce heat waste and improve the practicality of the equipment. However, existing granulation heat recovery structures are not convenient to fully utilize heat, which can easily lead to heat waste and is inconvenient to use. Utility Model Content

[0003] The purpose of this invention is to provide a granulation heat recovery structure to solve the problems mentioned in the background art, such as the inconvenience in fully utilizing heat, the easy waste of heat, and the inconvenience of use.

[0004] To achieve the above objectives, this utility model provides the following technical solution: a granulation heat recovery structure, comprising a reaction chamber and a housing, wherein the reaction chamber is configured as a hollow structure and a discharge port is installed at the bottom of the reaction chamber;

[0005] The reaction chamber has a pipe 1 on its surface, and the end of pipe 1 is connected to chamber 1. A partition is embedded inside chamber 1, dividing chamber 1 into cavity 1 and cavity 2. A rotating wheel and a filter plate are installed inside cavity 1, and a fan 1 is installed inside cavity 2. Chamber 2 is installed on the surface of chamber 1. A heat pipe condensation layer 1 and a heat pipe evaporation section layer are installed inside chamber 2, and chamber 3 is installed on the surface of chamber 2. A support is installed on the surface of the reaction chamber, and a fan 2 is installed on the surface of the support. A heat pipe condensation layer 2 is installed inside chamber 3, and a collection box is installed on the surface of the reaction chamber. Pipe 2 is connected to the end of the collection box, and a fan 2 is connected to the end of pipe 2. An exhaust pipe is connected to the surface of fan 2, and the end of the exhaust pipe is connected to chamber 3. A telescopic pipe connects chamber 3 and chamber 2.

[0006] Preferably, an opening is provided at the connection between the first box body and the first pipe, and the opening is provided in a position corresponding to the cavity of the first box body.

[0007] Using the above technical solution, the heat inside the reaction chamber enters the interior of the chamber through pipe one.

[0008] Preferably, a vent is provided between the first box and the second box, and the vent is positioned corresponding to the cavity of the first box.

[0009] Using the above technical solution, the gas inside the first chamber enters the interior of the second chamber through the vent.

[0010] Preferably, the surface of the partition is provided with an opening, and the end of the fan is connected to the opening of the partition.

[0011] Using the above technical solution, the partition can divide the interior of the first chamber, and the first fan absorbs the gas inside the first cavity and enters the interior of the second cavity.

[0012] Preferably, the surface of the second housing is provided with an exhaust port, and the exhaust port of the second housing is located on one side of the heat pipe evaporation section layer, while the vents of the first housing and the second housing are located on one side of the heat pipe condensation layer.

[0013] Using the above technical solution, after the heat has reacted with the heat pipe evaporation section and the heat pipe condensation layer, it can be discharged through the exhaust port of the second housing.

[0014] Preferably, the housing three has openings on both sides, and the end of the exhaust pipe is connected to one of the openings of the housing three.

[0015] Using the above technical solution, the gas enters the interior of the third chamber through the exhaust pipe, and the air is cooled inside the third chamber. A copper pipe connects the second heat pipe condensation layer and the first heat pipe condensation layer.

[0016] Compared with the prior art, the beneficial effects of this utility model are: the granulation heat recovery structure:

[0017] 1. A fan is installed with a rotor. The fan drives the heat into the chamber through pipe one. The hot air then comes into contact with the filter plate and the rotor in sequence. At the same time, the gas drives the rotor, which dehumidifies the air. It can absorb heat and cool the air. After the air is filtered, it enters chamber two for a secondary reaction, which improves the practicality of the device.

[0018] 2. A third chamber is set up. Gas enters the interior of the third chamber through the collection box. At this time, the hot air moves to the surface of the second heat pipe condenser. The hot end of the second heat pipe condenser is heated, causing the heat to move to the other end. At the same time, the second heat pipe condenser cools down and converts the heat. Attached Figure Description

[0019] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0020] Figure 2 This is a three-dimensional structural diagram of the exhaust pipe installation of this utility model;

[0021] Figure 3 This is a schematic diagram of the three-dimensional installation structure inside the housing of this utility model;

[0022] Figure 4 This is a schematic diagram of the internal installation three-dimensional structure of the housing of this utility model;

[0023] Figure 5 This is a schematic diagram of the three-dimensional structure of the internal installation of the second box of this utility model.

[0024] In the diagram: 10, reaction chamber; 20, discharge port;

[0025] 30. Housing 1; 301. Pipe 1; 302. Rotor; 303. Filter plate; 304. Fan 1; 305. Partition plate;

[0026] 40. Box 2; 401. Heat pipe condensation layer 1; 402. Heat pipe evaporation section layer;

[0027] 50. Box 3; 501. Collection box; 502. Pipe 2; 503. Fan 2; 504. Exhaust pipe; 505. Telescopic pipe; 506. Support; 507. Heat pipe condensation layer 2. Detailed Implementation

[0028] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. 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.

[0029] Please see Figure 1-5 This utility model provides a technical solution: a granulation heat recovery structure, including a reaction box 10, a feeding port 20, a box body 30, a pipe 301, a rotor 302, a filter plate 303, a fan 304, a partition 305, a box body 40, a heat pipe condensation layer 401, a heat pipe evaporation section layer 402, a box body 50, a collection box 501, a pipe 502, a fan 503, an exhaust pipe 504, a support 506, a telescopic pipe 505, and a heat pipe condensation layer 507;

[0030] This granulation heat recovery structure can improve the recovery efficiency of the device. The specific implementation method is as follows:

[0031] The reaction chamber 10 is a hollow structure, and a discharge port 20 is installed at the bottom of the reaction chamber 10. A pipe 301 is installed on the surface of the reaction chamber 10, and the end of the pipe 301 is connected to the chamber body 30. A partition 305 is embedded inside the chamber body 30, dividing the chamber body 30 into cavity one and cavity two. A rotating wheel 302 and a filter plate 303 are installed inside cavity one of the chamber body 30, and a fan 304 is installed inside cavity two of the chamber body 30. The surface of the reaction chamber 10 is fitted with a second housing 40. Inside the second housing 40, a heat pipe condensation layer 401 and a heat pipe evaporation section 402 are installed. A third housing 50 is also fitted onto the surface of the second housing 40. A support 506 is fitted onto the surface of the reaction chamber 10, and a second fan 503 is fitted onto the surface of the support 506. Inside the third housing 50, a second heat pipe condensation layer 507 is installed. A collection box 501 is fitted onto the surface of the reaction chamber 10, and a second pipe 502 is connected to the end of the collection box 501. The end of the second pipe 502 is connected to... A second fan 503 is connected, and an exhaust pipe 504 is connected to the surface of the second fan 503. The end of the exhaust pipe 504 is connected to a third housing 50. A telescopic pipe 505 connects the third housing 50 and the second housing 40. An opening is provided at the connection between the first housing 30 and the first pipe 301, and this opening is positioned corresponding to the first cavity of the first housing 30. A vent is provided between the first housing 30 and the second housing 40, and this vent is positioned corresponding to the second cavity of the first housing 30. The surface of the partition 305 is... There is an opening, and the end of the fan 304 is connected to the opening of the partition 305. The surface of the second box 40 is provided with an exhaust port, and the exhaust port of the second box 40 is located on one side of the heat pipe evaporation section 402. The vents of the first box 30 and the second box 40 are located on one side of the heat pipe condensation layer 401. The third box 50 has openings on both sides, and the end of the exhaust pipe 504 is connected to one of the openings of the third box 50. A copper pipe is connected between the second heat pipe condensation layer 507 and the first heat pipe condensation layer 401.

[0032] Start fan 2 503 to evacuate air between pipe 2 502 and collection box 501. This creates negative pressure in collection box 501, allowing hot air to enter through reaction chamber 10. Collection box 501 is fixed to the surface of reaction chamber 10 via an air inlet pipe. The hot air then enters pipe 2 502, and through pipe 2 502 and fan 2 503, enters the interior of housing 3 50. Moving within housing 3 50, when the hot air reaches heat pipe condenser layer 2 507, it reacts with the hot air, absorbing heat from the air. The air then passes through the housing... The heat inside the three chambers 50 is discharged through the opening on the other side. At the same time, the heat inside the three chambers 50 can enter the interior of the two chambers 40 through the telescopic pipe 505. The fan 304 is started, and the fan 304 drives the gas inside the two chambers 40 and the pipe 301 to move. At this time, the heat inside the reaction chamber 10 enters the pipe 301 and enters the interior of the one chamber 30 through the pipe 301. At this time, the air passes through the rotor 302 and the filter plate 303. The rotor 302 can absorb the moisture in the air and reduce the moisture in the air. At this time, the gas enters the cavity 2 through the partition and enters the interior of the two chambers 40 through the cavity 2 and the vent.

[0033] The air flows inside the second chamber 40, causing it to move to the surface of the heat pipe condensation layer 401 and the heat pipe evaporation section layer 402. The two react with the air, which can absorb heat from the air a second time and then discharge the heat through the exhaust port of the second chamber 40.

[0034] Working principle: When using this granulation heat recovery structure, the following components are provided: box 2 40, heat pipe condensation layer 1 401, heat pipe evaporation section layer 402, box 3 50, and collection box 501, which can improve the recovery efficiency of the device and increase its overall practicality.

[0035] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A granulation heat recovery structure, comprising a reaction chamber (10) and a chamber body (30), wherein the reaction chamber (10) is configured as a hollow structure and a discharge port (20) is installed at the bottom of the reaction chamber (10). Its features are: The surface of the reaction chamber (10) is provided with a pipe (301), and the end of the pipe (301) is connected to the box body (30). The box body (30) is internally provided with a partition (305), and the partition (305) divides the box body (30) into a cavity one and a cavity two. The cavity one of the box body (30) is provided with a rotating wheel (302) and a filter plate (303), and the cavity two of the box body (30) is provided with a fan (304). The surface of the box body (30) is provided with a box body two (40). The interior of the box body two (40) is provided with a heat pipe condensation layer (401) and a heat pipe evaporation section layer (402), and the surface of the box body two (40) is provided with a heat pipe condensation layer (401) and a heat pipe evaporation section layer (402). The reaction chamber (10) is equipped with a housing (50), a support (506) is installed on the surface of the reaction chamber (10), and a fan (503) is installed on the surface of the support (506). A heat pipe condensation layer (507) is installed inside the housing (50), and a collection box (501) is installed on the surface of the reaction chamber (10). The end of the collection box (501) is connected to a pipe (502), and the end of the pipe (502) is connected to a fan (503). An exhaust pipe (504) is connected to the surface of the fan (503), and the end of the exhaust pipe (504) is connected to the housing (50). A telescopic pipe (505) is connected between the housing (50) and the housing (40).

2. The granulation heat recovery structure according to claim 1, characterized in that: An opening is provided at the connection between the box body (30) and the pipe (301), and the opening is provided in a position corresponding to the cavity of the box body (30).

3. The granulation heat recovery structure according to claim 1, characterized in that: A vent is provided between the first box (30) and the second box (40), and the vent is positioned corresponding to the cavity of the first box (30).

4. The granulation heat recovery structure according to claim 1, characterized in that: The surface of the partition (305) is provided with an opening, and the end of the fan (304) is connected to the opening of the partition (305).

5. The granulation heat recovery structure according to claim 1, characterized in that: The surface of the second box (40) is provided with an exhaust port, and the exhaust port of the second box (40) is located on one side of the heat pipe evaporation section layer (402). The vents of the first box (30) and the second box (40) are located on one side of the heat pipe condensation layer (401).

6. The granulation heat recovery structure according to claim 1, characterized in that: Both sides of the three boxes (50) are provided with openings, and the end of the exhaust pipe (504) is connected to one of the openings of the three boxes (50). A copper pipe is connected between the second heat pipe condensation layer (507) and the first heat pipe condensation layer (401).

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