Carbon dioxide recycling equipment capable of efficiently capturing mosquitoes

Abstract

The utility model discloses carbon dioxide recycling equipment for efficiently catching mosquitoes, and belongs to the technical field of mosquito catching equipment.The carbon dioxide recycling equipment comprises an equipment shell, a mosquito catching pipe, a mosquito catching cavity, a collecting groove, a circulating pipeline, a carbon dioxide input structure and a draught fan, under the action of the draught fan, mosquitoes are sucked into the mosquito catching pipe, and threads on the inner wall of the mosquito catching pipe can enable air to form eddy currents; meanwhile, the carbon dioxide input structure can release carbon dioxide into the mosquito catching pipe, the mosquitoes are prevented from escaping, after the mosquitoes are killed by the mosquito killing device in the mosquito catching cavity, dead bodies can fall into the detachable collecting tank to wait for being treated by workers, and gas rich in carbon dioxide can be output from the gas outlet of the circulating pipeline after continuously entering the circulating pipeline; a high-concentration carbon dioxide area can be formed between the gas inlet and the second end of the circulating pipeline, so that mosquitoes are continuously attracted, gas rich in carbon dioxide can enter the gas inlet again, and cyclic utilization of carbon dioxide is achieved.

Description

Technical Field

[0001] This application belongs to the technical field of mosquito trapping equipment, specifically relating to a carbon dioxide recycling device for efficiently trapping mosquitoes. Background Technology

[0002] Mosquito bites not only bring trouble to people's lives, but also spread serious diseases such as malaria. In daily life, mosquitoes are usually killed by mosquito coils, while in large public places such as parks, pesticides are often sprayed to kill larvae. However, both methods have drawbacks such as poor killing effect and strong side effects.

[0003] Studies have found that high concentrations of carbon dioxide gas have a strong attractant effect on female mosquitoes, leading to the development of carbon dioxide-attracting mosquito traps. These traps typically use carbon dioxide to lure mosquitoes; when attracted and flying in a high-concentration carbon dioxide environment, the mosquitoes touch the electric grid set up in the trap, thus killing them. However, existing carbon dioxide mosquito traps have the following drawbacks:

[0004] 1. Existing carbon dioxide mosquito traps typically passively wait for mosquitoes to touch the electric grid, resulting in low mosquito-catching efficiency;

[0005] 2. The carbon dioxide utilization and recycling mechanism is imperfect, which makes it unable to effectively attract and continuously capture mosquitoes. At the same time, it also lacks in terms of safety in use and rationality of carbon dioxide release. Utility Model Content

[0006] To address the problems mentioned in the background art, this application provides a carbon dioxide recycling device for efficiently capturing mosquitoes, thereby solving the problems of low mosquito-catching efficiency and imperfect carbon dioxide utilization and recycling mechanisms in existing carbon dioxide mosquito traps.

[0007] To achieve the above objectives, this application provides the following technical solution:

[0008] Highly efficient carbon dioxide recycling equipment for mosquito capture includes:

[0009] Equipment casing; the equipment casing is equipped with an air inlet and an air outlet, and the bottom surface of the equipment casing is also equipped with a collection outlet;

[0010] Mosquito trap; The mosquito trap is installed inside the equipment casing, with its top end connected to the air inlet, and the inner wall of the mosquito trap has threads.

[0011] Mosquito trapping chamber; The mosquito trapping chamber is located on the inner bottom surface of the equipment casing. The top of the mosquito trapping chamber is connected to the bottom of the mosquito trapping tube, and the bottom surface of the mosquito trapping chamber is connected to the collection outlet. A mosquito killing device is installed in the mosquito trapping chamber.

[0012] Collection trough; The collection trough is located outside the equipment casing. The collection trough has a topless box structure. The top of the collection trough is connected to the bottom of the equipment casing through a detachable structure. The top of the collection trough covers the mosquito outlet.

[0013] The first end of the circulation pipe is located inside the equipment housing and is connected to the side of the mosquito trapping chamber. The second end of the circulation pipe passes through the air outlet and is positioned towards the air inlet.

[0014] Carbon dioxide input structure; The carbon dioxide input structure includes an inlet end, an outlet end and a carbon dioxide production unit. The carbon dioxide input structure is set inside the equipment shell. The inlet end of the carbon dioxide input structure passes through the equipment shell and is connected to the outside. The outlet end of the carbon dioxide input structure is connected to the mosquito trapping tube. The carbon dioxide production unit is used to produce carbon dioxide.

[0015] Fan; The fan is installed inside the circulation pipe and is used to control the flow of air from the air inlet, the air intake end of the carbon dioxide input structure to the second end of the circulation pipe.

[0016] Preferably, the first end of the mosquito trap is provided with soft guide bristles, which have flexibility and electrostatic adsorption capabilities.

[0017] Preferably, the carbon dioxide recycling equipment also includes two funnel-shaped diffusion pipes, one diffusion pipe with its small diameter end connected to the air outlet and the other diffusion pipe with its small diameter end connected to the air inlet, and the two diffusion pipes with their large diameter ends facing each other.

[0018] Preferably, the carbon dioxide input structure includes:

[0019] Air intake pipe; the first end of the air intake pipe passes through the equipment casing and connects to the outside.

[0020] The reaction unit is connected to the top of the air inlet pipe. The reaction unit is filled with carbon dioxide adsorption material. When the carbon dioxide adsorption material is not heated, it adsorbs carbon dioxide in the air. When the carbon dioxide adsorption material is heated, it releases the adsorbed carbon dioxide.

[0021] The exhaust pipe is connected at the top to the bottom of the carbon dioxide adsorption unit.

[0022] Settling chamber; the top of the settling chamber is connected to the bottom of the outlet pipe;

[0023] Output tube; the first end of the output tube is connected to the side of the sedimentation chamber, and the second end of the output tube passes through the side wall of the mosquito trap and is connected to the mosquito trap.

[0024] Preferably, the reaction unit includes:

[0025] The reaction shell is connected to the second end of the inlet pipe at its top and to the top of the outlet pipe at its bottom.

[0026] At least one adsorption plate; the adsorption plate is vertically installed in the reaction shell, the adsorption plate is provided with multiple vent holes, the carbon dioxide adsorption material is granular, and carbon dioxide adsorption material is filled between adsorption plates and between adsorption plates and the reaction shell.

[0027] Temperature control device; The temperature control device is installed in the reaction shell and is used to control the temperature inside the reaction shell.

[0028] Preferably, the second end of the output pipe is provided with a guide plate, which is a triangular prism. Both ends of the guide plate are fixedly connected to the inner sidewall of the second end of the output pipe. A rectangular surface of the guide plate is set facing the opening of the second end of the output pipe, and the rectangular surface is flush with the opening of the second end of the output pipe.

[0029] Preferably, the mosquito-killing device is an electric grid.

[0030] Preferably, the detachable structure includes:

[0031] Two fixing plates; the two fixing plates are fixedly installed on both sides of the collection tank respectively. The top surface of the fixing plates is flush with the top surface of the collection tank. Each fixing plate has a through groove on its top surface. The cross-section of the through groove is "convex".

[0032] Two fixing strips; the cross-section of both fixing strips is "convex" shaped. The top surface of the fixing strip is fixedly connected to the bottom surface of the equipment shell. When the collection tank is installed, each fixing strip is inserted into the through groove of a fixing plate, and the top surface of the fixing plate is flush with the top surface of the fixing strip.

[0033] Preferably, the collection trough is equipped with a handle.

[0034] Preferably, a filter screen is provided inside the first end of the air intake pipe.

[0035] Compared with the prior art, the beneficial effects of this application are:

[0036] This application includes a casing, a mosquito-catching tube, a mosquito-catching chamber, a collection tank, a circulation pipe, a carbon dioxide input structure, and a fan. Under the action of the fan, mosquitoes are sucked into the mosquito-catching tube. Because the inner wall of the mosquito-catching tube has threads, a vortex is formed inside, creating a low-pressure area at the center of the tube according to Bernoulli's principle, enhancing suction and preventing mosquitoes from escaping. Simultaneously, the carbon dioxide input structure releases carbon dioxide into the mosquito-catching tube, further interfering with the mosquitoes' flight. Once the mosquitoes are carried into the mosquito-catching chamber by the airflow, the mosquito-killing device inside the chamber kills them, and the dead mosquitoes fall out. The gas is placed in a detachable collection tank for handling by staff. After the carbon dioxide-rich gas continues to enter the circulation pipe, it will be output from the outlet of the circulation pipe. A high-concentration carbon dioxide area can be formed between the inlet and the second end of the circulation pipe, thereby continuously attracting mosquitoes. The carbon dioxide-rich gas can also re-enter the inlet, realizing the recycling of carbon dioxide. This application increases the difficulty for mosquitoes to escape and improves the mosquito-catching efficiency through the design of gas flow. Moreover, the carbon dioxide utilization and circulation mechanism of this application is perfect and can effectively attract and continuously capture mosquitoes. Attached Figure Description

[0037] Figure 1 This is a schematic diagram of the specific structure of this application;

[0038] Figure 2 This is a top view of the specific structure of the reaction unit;

[0039] Figure 3 This is a schematic diagram of the specific structure of the adsorption plate;

[0040] Figure 4 This is a schematic diagram of the detachable structure.

[0041] Figure 5 This is a structural diagram of the fixed plate;

[0042] Figure 6 This is a structural diagram of the fixing strip;

[0043] The diagram is marked as follows:

[0044] 1-Diffusion pipe; 2-Soft guiding bristles; 3-Mosquito trapping tube; 4-Air inlet pipe; 5-Reaction shell; 6-Air outlet pipe; 7-Sedimentation chamber; 8-Equipment shell; 9-Output pipe; 10-Baffle plate; 11-Electric grid; 12-Handle; 13-Collection tank; 14-Mosquito trapping chamber; 15-Fan; 16-Circulation pipe; 17-Adsorption plate; 18-Carbon dioxide adsorption material; 19-Heating wire; 20-Ventilation hole; 21-Fixing plate; 22-Fixing strip. Detailed Implementation

[0045] To facilitate understanding of the technical content of this application by those skilled in the art, the following detailed description is provided in conjunction with the accompanying drawings and specific examples. It should be understood that the specific examples described herein are merely illustrative and are not intended to limit the scope of this application.

[0046] Example 1

[0047] like Figure 1 As shown, the highly efficient carbon dioxide recycling device for capturing mosquitoes includes:

[0048] Equipment housing 8; the top of equipment housing 8 is provided with an air inlet and an air outlet, and the bottom of equipment housing 8 is also provided with a collection outlet;

[0049] Mosquito trap 3; The mosquito trap 3 is installed in the outer casing 8 of the device. The top of the mosquito trap 3 is connected to the air inlet. The inner wall of the mosquito trap 3 is threaded and coated with a superhydrophobic coating. The superhydrophobic coating is used to reduce the friction between the airflow and the thread.

[0050] Mosquito trapping chamber 14; The mosquito trapping chamber 14 is located on the inner bottom surface of the outer casing 8 of the device. The top of the mosquito trapping chamber 14 is connected to the bottom of the mosquito trapping tube 3, and the bottom surface of the mosquito trapping chamber 14 is connected to the collection outlet. The bottom surface of the mosquito trapping chamber 14 and the collection outlet have the same shape and size. A mosquito killing device is installed in the mosquito trapping chamber 14. The mosquito trapping chamber 14 is rectangular. When the airflow enters the mosquito trapping chamber 14 from the mosquito trapping tube 3, the airflow speed changes due to the change in cross-section, causing the airflow direction to deflect and forming a complex three-dimensional airflow network, which further hinders the escape of mosquitoes. The cavity wall of the mosquito trapping chamber 14 is made of a smooth material with a certain degree of reflectivity, which can reduce airflow resistance and, to a certain extent, use reflection to interfere with the vision of mosquitoes.

[0051] Collection trough 13; Collection trough 13 is set outside the device housing 8. Collection trough 13 has a topless box structure. The top of collection trough 13 is connected to the bottom of the device housing 8 through a detachable structure. The top of collection trough 13 covers the mosquito outlet.

[0052] Circulation pipe 16; The first end of the circulation pipe 16 is disposed in the equipment housing 8, and the first end of the circulation pipe 16 is connected to the side of the mosquito trapping chamber 14. The second end of the circulation pipe 16 passes through the air outlet and is positioned towards the air inlet.

[0053] Carbon dioxide input structure; the carbon dioxide input structure includes an inlet end, an outlet end, and a carbon dioxide production unit. The carbon dioxide input structure is set inside the equipment housing 8. The inlet end of the carbon dioxide input structure passes through the equipment housing 8 and is connected to the outside. The outlet end of the carbon dioxide input structure is connected to the mosquito trapping tube 3. The carbon dioxide production unit is used to produce carbon dioxide. The carbon dioxide adsorption material 18 is a DAC technology material, such as the carbon dioxide capture material for mosquito trapping equipment involved in the patent with patent number ZL202410482343.X.

[0054] Fan 15; Fan 15 is installed in the circulation pipe 16. Fan 15 is used to control the flow of air from the air inlet, the air inlet end of the carbon dioxide input structure to the second end of the circulation pipe 16.

[0055] In this embodiment, the application includes a device housing 8, a mosquito-catching tube 3, a mosquito-catching chamber 14, a collection tank 13, a circulation pipe 16, a carbon dioxide input structure, and a fan 15. Under the action of the fan 15, mosquitoes are sucked into the mosquito-catching tube 3. Because the inner wall of the mosquito-catching tube 3 is threaded, a vortex is formed inside the mosquito-catching tube 3. According to Bernoulli's principle, a low-pressure area is generated in the center of the mosquito-catching tube 3, which enhances the suction and prevents mosquitoes from escaping. At the same time, the carbon dioxide input structure releases carbon dioxide into the mosquito-catching tube 3, thereby further interfering with the flight of mosquitoes. When mosquitoes are carried into the mosquito-catching chamber 14 by the airflow, the mosquito-killing device in the mosquito-catching chamber 14 can kill them. Mosquitoes and their carcasses fall into a detachable collection tank 13 for processing by staff. The carbon dioxide-rich gas continues to enter the circulation pipe 16 and is then output from the outlet of the circulation pipe 16. A high-concentration carbon dioxide area can be formed between the inlet and the second end of the circulation pipe 16, thereby continuously attracting mosquitoes. The carbon dioxide-rich gas can also re-enter the inlet, realizing the recycling of carbon dioxide. This application increases the difficulty for mosquitoes to escape and improves mosquito-catching efficiency through the design of gas flow. Moreover, the carbon dioxide utilization and recycling mechanism of this application is perfect and can effectively attract and continuously capture mosquitoes.

[0056] Example 2

[0057] The difference between this embodiment and Embodiment 1 is that, as Figure 1 As shown, the first end of the mosquito trap 3 is provided with soft guide bristles 2, which have flexibility and electrostatic adsorption capabilities.

[0058] In this embodiment, when air flows over the soft guide bristles 2, the soft guide bristles 2 generate slight vibrations under the action of airflow, forming a weak air disturbance. Together with the electrostatic adsorption properties of the soft guide bristles 2, they attract mosquitoes to approach the air inlet.

[0059] Example 3

[0060] The difference between this embodiment and Embodiment 1 is that, as Figure 1 As shown, the carbon dioxide recycling equipment also includes two funnel-shaped diffusion pipes 1. The small diameter end of one diffusion pipe 1 is connected to the gas outlet, and the small diameter end of the other diffusion pipe 1 is connected to the gas inlet. The large diameter ends of the two diffusion pipes 1 are arranged opposite each other.

[0061] In this embodiment, the diffusion pipe 1 can confine and guide the high-concentration carbon dioxide gas to promote the formation of a high-concentration carbon dioxide region between the air inlet and the second end of the circulation pipe 16.

[0062] Example 4

[0063] The difference between this embodiment and Embodiment 1 is that, as Figure 1 , Figure 2 and Figure 3 As shown, the carbon dioxide input structure includes:

[0064] Air inlet pipe 4; the first end of air inlet pipe 4 passes through the equipment housing 8 and connects to the outside;

[0065] The reaction unit is connected to the top of the inlet pipe 4 at the second end, and the reaction unit is filled with carbon dioxide adsorption material 18.

[0066] Exhaust pipe 6; The top end of exhaust pipe 6 is connected to the bottom end of carbon dioxide adsorption unit;

[0067] Sedimentation chamber 7; the top of sedimentation chamber 7 is connected to the bottom of vent pipe 6;

[0068] Output tube 9; the first end of the output tube 9 is connected to the side of the sedimentation chamber 7, and the second end of the output tube 9 passes through the side wall of the mosquito trapping tube 3 and communicates with the mosquito trapping tube 3.

[0069] Example 5

[0070] The difference between this embodiment and embodiment 4 is that, as Figure 1 , Figure 2 and Figure 3 As shown, the reaction unit includes:

[0071] The reaction shell 5 is connected to the second end of the air inlet pipe 4 at its top end and to the top end of the air outlet pipe 6 at its bottom end. The reaction shell 5 is made of ceramic fiber insulation material with a thermal conductivity of less than 0.03 W / (m·K).

[0072] Three adsorption plates 17 are vertically installed in the reaction shell 5. Multiple ventilation holes 20 are provided on the adsorption plates 17. The carbon dioxide adsorption material 18 is granular. Carbon dioxide adsorption material 18 is filled between adsorption plates 17 and between adsorption plates 17 and reaction shell 5.

[0073] Temperature control device; The temperature control device is installed in the reaction shell 5. The temperature control device is used to control the temperature inside the reaction shell 5. The temperature control device uses heating wire 19. Each adsorption plate 17 is attached with heating wire 19.

[0074] In this embodiment, the heating wire 19 is not working in the initial state. Air enters the reaction shell 5 under the action of the fan 15. The carbon dioxide adsorption material 18 adsorbs carbon dioxide in the air. During the mosquito trapping process, the heating wire 19 heats up, and the carbon dioxide adsorption material 18 desorbs carbon dioxide. Since carbon dioxide is denser than air, it will automatically sink into the precipitation chamber 7 in an environment without airflow disturbance. Therefore, the processes of preparing carbon dioxide and trapping mosquitoes can be carried out at different times. This application can use time control switches and other methods to realize intermittent slow release and respiratory release of carbon dioxide. This application can precisely control the release amount and release frequency of carbon dioxide, so that carbon dioxide is more evenly and continuously distributed in the mosquito trapping chamber 14, forming a release mode similar to breathing.

[0075] Example 6

[0076] The difference between this embodiment and embodiment 4 is that, as Figure 1 As shown, the second end of the output pipe 9 is provided with a guide plate 10. The guide plate 10 is triangular prism-shaped. Both ends of the guide plate 10 are fixedly connected to the inner sidewall of the second end of the output pipe 9. A rectangular surface of the guide plate 10 is set facing the pipe opening of the second end of the output pipe 9, and the rectangular surface is flush with the pipe opening of the second end of the output pipe 9.

[0077] In this embodiment, the guide plate 10 divides the carbon dioxide airflow into two streams at an angle of 30°-60°, which then enter the mosquito trap 3. The carbon dioxide is rapidly entrained into the main airflow stream by the kinetic energy of the airflow, rather than simply diffusing in a straight line. According to the principle of gas diffusion, carbon dioxide molecules diffuse in all directions under the influence of the airflow. However, due to the directional movement of the airflow, its diffusion range and speed are constrained and guided, thus forming a distribution with a certain directionality and concentration gradient within the mosquito trap 3.

[0078] For example, the carbon dioxide concentration is relatively high near the release point and gradually decreases with increasing distance. This concentration gradient is important for attracting mosquitoes, as they can sense changes in carbon dioxide concentration and fly towards areas with higher concentrations. Furthermore, the complex three-dimensional dynamic airflow constantly interferes with the mosquitoes' flight as they pursue the carbon dioxide source, making their flight more difficult and further improving the capture efficiency of the mosquito-catching device.

[0079] Example 7

[0080] The difference between this embodiment and Embodiment 1 is that, as Figure 1 As shown, the mosquito-killing device consists of two parallel electric grids 11, both of which are parallel to the plane at the bottom opening of the mosquito-catching tube 3.

[0081] Example 8

[0082] The difference between this embodiment and Embodiment 1 is that, as Figure 4 , Figure 5 and Figure 6 As shown, the detachable structure includes:

[0083] Two fixing plates 21; the two fixing plates 21 are respectively fixedly installed on both sides of the collection tank 13, the top surface of the fixing plates 21 is flush with the top surface of the collection tank 13, and each fixing plate 21 has a through groove on its top surface, such as Figure 5 As shown, when the cut is made vertically downward along the straight line aa', the cross-section of the through groove is convex.

[0084] Two fixed strips 22; such as Figure 6 As shown, when the cut is made vertically downward along the straight line bb', the cross-section of the fixing strip 22 is "convex" shaped. The top surface of the fixing strip 22 is fixedly connected to the bottom surface of the equipment housing 8. When the collection trough 13 is installed, each fixing strip 22 is inserted into the through groove of a fixing plate 21, and the top surface of the fixing plate 21 is flush with the top surface of the fixing strip 22.

[0085] Example 9

[0086] The difference between this embodiment and embodiment 8 is that, as Figure 1 As shown, the collection tank 13 is equipped with a handle 12, which allows the operator to easily pull the collection tank 13 out from the fixing strip 22.

[0087] Example 10

[0088] The difference between this embodiment and embodiment 4 is that a filter screen is provided inside the first end of the air intake pipe 4, which can prevent impurities from entering the reaction unit.

Claims

1. A highly efficient carbon dioxide recycling device for capturing mosquitoes, characterized in that, include: Equipment housing (8); the equipment housing (8) is provided with an air inlet and an air outlet, and the bottom surface of the equipment housing (8) is also provided with a collection outlet; Mosquito trap (3); The mosquito trap (3) is installed in the outer casing (8) of the equipment. The top of the mosquito trap (3) is connected to the air inlet. The inner wall of the mosquito trap (3) is threaded. Mosquito trapping chamber (14); The mosquito trapping chamber (14) is located on the inner bottom surface of the outer shell (8) of the equipment. The top of the mosquito trapping chamber (14) is connected to the bottom of the mosquito trapping tube (3), and the bottom surface of the mosquito trapping chamber (14) is connected to the collection outlet. A mosquito-killing device is provided in the mosquito trapping chamber (14). Collection trough (13); The collection trough (13) is set outside the equipment shell (8). The collection trough (13) is a topless box structure. The top of the collection trough (13) is connected to the bottom surface of the equipment shell (8) through a detachable structure. The top of the collection trough (13) is covered with a mosquito outlet. Circulation pipe (16); The first end of the circulation pipe (16) is set in the equipment housing (8), the first end of the circulation pipe (16) is connected to the side of the mosquito trapping chamber (14), and the second end of the circulation pipe (16) passes through the air outlet and is set towards the air inlet; Carbon dioxide input structure; The carbon dioxide input structure includes an inlet end, an outlet end and a carbon dioxide production unit. The carbon dioxide input structure is set inside the equipment shell (8). The inlet end of the carbon dioxide input structure passes through the equipment shell (8) and is connected to the outside. The outlet end of the carbon dioxide input structure is connected to the mosquito trap (3). The carbon dioxide production unit is used to produce carbon dioxide. Fan (15); Fan (15) is installed in the circulation pipe (16). Fan (15) is used to control the flow of air from the air inlet, the air inlet end of the carbon dioxide input structure to the second end of the circulation pipe (16).

2. The high-efficiency mosquito-catching carbon dioxide recycling device according to claim 1, characterized in that, The first end of the mosquito trap (3) is provided with soft guide bristles (2), which have flexibility and electrostatic adsorption capabilities.

3. The high-efficiency mosquito-catching carbon dioxide recycling device according to claim 1, characterized in that, The carbon dioxide recycling equipment also includes two funnel-shaped diffusion pipes (1). The small diameter end of one diffusion pipe (1) is connected to the outlet, and the small diameter end of the other diffusion pipe (1) is connected to the inlet. The large diameter ends of the two diffusion pipes (1) are arranged opposite each other.

4. The high-efficiency mosquito-catching carbon dioxide recycling device according to claim 1, characterized in that, The carbon dioxide input structure includes: Air inlet pipe (4); the first end of the air inlet pipe (4) passes through the equipment housing (8) and connects to the outside; The reaction unit is connected to the top of the reaction unit at the second end of the air inlet pipe (4). The reaction unit is filled with carbon dioxide adsorbent material (18). When the carbon dioxide adsorbent material (18) is not heated, the carbon dioxide adsorbent material (18) adsorbs carbon dioxide in the air. When the carbon dioxide adsorbent material (18) is heated, the carbon dioxide adsorbent material (18) releases the adsorbed carbon dioxide. The top end of the exhaust pipe (6) is connected to the bottom end of the carbon dioxide adsorption unit; Settling chamber (7); The top of the settling chamber (7) is connected to the bottom of the outlet pipe (6); Output tube (9); the first end of the output tube (9) is connected to the side of the sedimentation chamber (7), and the second end of the output tube (9) passes through the side wall of the mosquito trap (3) and is connected to the mosquito trap (3).

5. The high-efficiency mosquito-catching carbon dioxide recycling device according to claim 4, characterized in that, The reaction unit includes: The reaction shell (5) is connected to the second end of the inlet pipe (4) at the top and to the top of the outlet pipe (6) at the bottom. At least one adsorption plate (17); the adsorption plate (17) is vertically installed in the reaction shell (5), and the adsorption plate (17) is provided with multiple ventilation holes (20). The carbon dioxide adsorption material (18) is granular, and carbon dioxide adsorption material (18) is filled between the adsorption plates (17) and between the adsorption plates (17) and the reaction shell (5). Temperature control device; The temperature control device is installed in the reaction shell (5) and is used to control the temperature inside the reaction shell (5).

6. The efficient carbon dioxide recycling device for capturing mosquitoes according to claim 4, characterized in that, The second end of the output pipe (9) is provided with a guide plate (10). The guide plate (10) is a triangular prism. Both ends of the guide plate (10) are fixedly connected to the inner sidewall of the second end of the output pipe (9). A rectangular surface of the guide plate (10) is set facing the pipe opening of the second end of the output pipe (9), and the rectangular surface is flush with the pipe opening of the second end of the output pipe (9).

7. The high-efficiency mosquito-catching carbon dioxide recycling device according to claim 1, characterized in that, The mosquito-killing device is an electric grid (11).

8. The high-efficiency mosquito-catching carbon dioxide recycling device according to claim 1, characterized in that, The detachable structure includes: Two fixing plates (21); the two fixing plates (21) are respectively fixedly installed on both sides of the collection tank (13). The top surface of the fixing plate (21) is flush with the top surface of the collection tank (13). Each fixing plate (21) has a through groove on its top surface. The cross-section of the through groove is "convex". Two fixing strips (22); the cross-section of the two fixing strips (22) is "convex" shaped. The top surface of the fixing strip (22) is fixedly connected to the bottom surface of the equipment shell (8). When the collection tank (13) is installed, each fixing strip (22) is inserted into the through groove of a fixing plate (21), and the top surface of the fixing plate (21) is flush with the top surface of the fixing strip (22).

9. The high-efficiency mosquito-catching carbon dioxide recycling device according to claim 8, characterized in that, The collection trough (13) is equipped with a handle (12).

10. The efficient carbon dioxide recycling device for capturing mosquitoes according to claim 4, characterized in that, A filter screen is installed inside the first end of the air intake pipe (4).

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