Carbon dioxide mosquito attract and kill device

Abstract

The present application relates to the field of household appliances, and particularly to a carbon dioxide mosquito trapping and killing device. The present application comprises a shell, a carbon dioxide enrichment and release unit, and a carbon dioxide releaser. The carbon dioxide enrichment and release unit is fixed on the shell, and a carbon dioxide gas outlet on the carbon dioxide enrichment and release unit is connected to a carbon dioxide gas inlet on the carbon dioxide releaser through a gas delivery pipeline system. The present application further comprises an electric grid device, and the carbon dioxide releaser is arranged inside or on the side of the electric grid device. In implementation, the carbon dioxide releaser releases carbon dioxide gas to attract mosquitoes to the area where the electric grid device is located, and the mosquitoes are killed by the electric grid. The electric grid device also has the advantages of voltage stabilization, silent killing, etc.

Description

Technical Field

[0001] This invention relates to the field of household appliances, and in particular to a carbon dioxide mosquito attracting and killing device. Background Technology

[0002] Mosquitoes are carriers of many pathogens, easily transmitting various diseases including malaria and dengue fever, seriously endangering human health. Currently, widely used chemical mosquito control methods have potential pollution risks, and the impact of prolonged and excessive close contact on human health cannot be ignored.

[0003] Conventional mosquito traps typically use a light source to attract mosquitoes. Once the mosquitoes are attracted to the vicinity of the light source, a fan sucks them into the device, where they are dried out and die. This type of device relies solely on light to attract mosquitoes, making it inefficient, especially during the day.

[0004] To address this, the applicant's earlier patent application (publication number CN215012865U) provides a mosquito trapping device, including a shell, an attraction light source, and a fan. It also includes a carbon dioxide enrichment and release unit, a carbon dioxide releaser, an air duct, and a mosquito storage box. The carbon dioxide enrichment and release unit is fixed to the top inside the shell, the mosquito storage box is fixed to the shell, and the air duct is fixed inside the shell. The air outlet of the air duct is connected to the mosquito storage box, and the air inlet of the air duct faces the bottom of the shell. A fan is fixed inside the air duct, and the attraction light source and carbon dioxide releaser are fixed at the air inlet of the air duct. The carbon dioxide enrichment and release unit releases carbon dioxide gas through the carbon dioxide releaser. This device uses a continuously generating carbon dioxide enrichment and release unit as a gas source, utilizing the attraction of carbon dioxide to mosquitoes to trap and kill them, thus improving mosquito trapping efficiency to some extent. Although the above solution changes the mosquito attraction method, the mosquito killing method still requires sucking the mosquitoes into the device, causing them to dry out and die. Therefore, the overall killing efficiency still needs improvement. Summary of the Invention

[0005] The technical problem to be solved by the present invention is to provide a carbon dioxide mosquito attracting and killing device that is more efficient in mosquito trapping and is non-toxic and environmentally friendly.

[0006] The technical solution adopted by this invention to solve its technical problem is as follows: a carbon dioxide mosquito attracting and killing device, comprising a shell, a carbon dioxide enrichment and release unit, and a carbon dioxide releaser. The carbon dioxide enrichment and release unit is fixed on the shell, and the carbon dioxide gas outlet on the carbon dioxide enrichment and release unit is connected to the carbon dioxide gas inlet on the carbon dioxide releaser through a gas delivery pipeline system. The carbon dioxide mosquito attracting and killing device also includes an electric grid device, with the carbon dioxide releaser located inside or on the side of the electric grid device. When the carbon dioxide releaser is located inside the electric grid device, it releases carbon dioxide gas, allowing the carbon dioxide gas to pass through the electric grid device from its interior and diffuse outside, thereby using the attraction of carbon dioxide to mosquitoes to lure them close to and touch the electric grid device, ultimately causing them to be electrocuted and killed. When the carbon dioxide releaser is located on the side of the electric grid device, it releases carbon dioxide gas, allowing the carbon dioxide gas to diffuse through the electric grid device, thereby using the attraction of carbon dioxide to mosquitoes to lure them close to and touch the electric grid device, ultimately causing them to be electrocuted and killed.

[0007] Furthermore, the outer casing also includes a fan assembly, an air duct, and a mosquito storage box. The air outlet of the air duct is connected to the mosquito storage box, and the air inlet of the air duct is preferably oriented downwards. When the fan assembly is working, the airflow inside the air duct flows from the air inlet to the air outlet. A carbon dioxide emitter is fixed at the air inlet of the air duct. In the first working mode, the carbon dioxide emitter continuously releases carbon dioxide gas at the air inlet of the air duct. When mosquitoes are lured to the air inlet area of ​​the air duct, they must first pass through the electric grid device. The mosquitoes are mainly killed by the electric grid device. If some mosquitoes pass through the electric grid device, these mosquitoes enter the air duct and are captured and killed in the mosquito storage box. In the second working mode, the electric grid device is not working, and carbon dioxide gas is used directly to lure mosquitoes. The mosquitoes enter the air duct and are captured and killed in the mosquito storage box.

[0008] Furthermore, the main body of the power grid device is a cage-shaped mesh structure. The power grid device is located at the air inlet of the air duct, and one end of the air inlet of the air duct is connected to the top of the main body of the power grid.

[0009] Furthermore, a lampshade is fixedly installed at the air inlet of the duct. Both the upper and lower ends of the lampshade are open structures. The upper opening of the lampshade is connected to the air inlet of the duct. An attraction light source is fixedly installed inside the lampshade, and an electric grid device is fixedly installed at the lower end of the lampshade.

[0010] Furthermore, a carbon dioxide emitter is installed on the lampshade, and a carbon dioxide gas inlet is located at the top of the lampshade.

[0011] Furthermore, the fan assembly is located on one side of the mosquito storage box, and the fan assembly is not located inside the air duct. The fan assembly is connected to the mosquito storage box through the exhaust duct.

[0012] Furthermore, the outer shell includes a hollow outer shell body, with a lower cover fixedly connected to the bottom of the outer shell body, an openable and closable upper cover connected to the top of the outer shell body, an inner sealing plate fixedly connected to the upper part of the inner cavity of the outer shell body, a mosquito storage box detachably installed on the inner sealing plate, and a carbon dioxide enrichment and release unit and a fan assembly installed inside the outer shell body.

[0013] Furthermore, the carbon dioxide enrichment and release unit includes an exchange chamber shell, a carbon dioxide capture box, a first blower, a second blower, a first duct, and a second duct. A partition is installed inside the exchange chamber shell to divide the shell into a first chamber and a second chamber. The carbon dioxide capture box is installed on the partition and has a first air outlet communicating with the first chamber and a second air outlet communicating with the second chamber. The carbon dioxide capture box contains carbon dioxide capture material and a carbon dioxide release element, which is a heating element, a humidifying element, or a heating and humidifying element. The air inlet of the first blower is connected to the first duct, and the air outlet is connected to the first chamber. The air inlet of the second blower is connected to the second duct, and the air outlet is connected to the second chamber. Solenoid valves for controlling the opening and closing of the pipelines are installed in both the first and second ducts. The carbon dioxide gas outlet is connected to the inner cavity of the exchange chamber shell.

[0014] Furthermore, the end of the first duct furthest from the first blower has its opening facing downwards; the end of the second duct furthest from the second blower also has its opening facing downwards.

[0015] Furthermore, one end of the top cover is rotatably connected to the outer shell body, while the other end is connected to the outer shell body via a magnetic structure.

[0016] Furthermore, the power grid device is equipped with a human infrared sensor, which controls the start and stop of the power grid device.

[0017] Furthermore, it also includes a support rod and a base, with the support rod fixed to the top of the base and the outer shell fixed to the support rod.

[0018] The beneficial effects of this invention are as follows: During implementation, the carbon dioxide emitter releases carbon dioxide gas, attracting mosquitoes to the area where the electric grid device is located, where they are killed by the grid. The electric grid device also has the advantages of stable voltage and silent killing. In a preferred embodiment, the electric grid device is located at the air inlet of the duct. When mosquitoes are attracted to the air inlet area of ​​the duct, they must first pass through the electric grid. Most mosquitoes are killed by the grid, and only a small number enter the duct, eventually drying out and dying in the mosquito storage box, further improving the overall mosquito-catching efficiency. Furthermore, this invention optimizes the layout of the fan assembly and duct. The fan assembly is no longer located inside the duct but is located on one side of the mosquito storage box, which facilitates mosquito entry into the storage box. This invention also optimizes the specific structure of the carbon dioxide enrichment and release unit. When the carbon dioxide enrichment and release unit is not working, closing the solenoid valves in the first and second ducts effectively ensures the airtightness of the inner cavity of the exchange chamber shell, increasing the concentration of carbon dioxide gas released when the carbon dioxide emitter is working. During operation, the alternating operation of the first and second blowers improves the efficiency of carbon dioxide enrichment. Attached Figure Description

[0019] Figure 1 This is an exploded structural diagram of the present invention (the base and power grid device are not shown);

[0020] Figure 2 This is a three-dimensional diagram of the overall structure of the present invention after assembly;

[0021] Figure 3 This is a side view of the present invention;

[0022] Figure 4 yes Figure 3 AA section view;

[0023] Figure 5 This is a three-dimensional diagram of the overall structure of the lampshade in this invention;

[0024] Figure 6 This is a three-dimensional diagram of the overall structure of the carbon dioxide enrichment and release unit in this invention;

[0025] Figure 7 This is a three-dimensional diagram of the upper inner cavity structure of the carbon dioxide enrichment and release unit in this invention (the upper cover plate of the exchange chamber shell is not shown).

[0026] Figure 8 This is a three-dimensional view of the lower inner cavity structure of the carbon dioxide enrichment and release unit in this invention (the lower cover plate of the exchange chamber shell is not shown).

[0027] Components, parts, and numbers in the diagram: Base 1, Carbon dioxide enrichment and release unit 2, Exchange chamber shell 21, Carbon dioxide capture box 22, First blower 23, Second blower 24, First air duct 25, Second air duct 26, Solenoid valve 27, Carbon dioxide gas outlet 28, Power grid device 3, Outer shell 4, Outer shell body 41, Lower cover 42, Upper cover 43, Inner sealing plate 44, Flip cover hinge 45, Lamp cover 5, Attracting light source 6, Support rod 7, Air duct 8, Fan assembly 9, Mosquito storage box 10, Carbon dioxide gas inlet 11, Lamp cover 12, Electrical control components 13, Electrical control box panel 14. Detailed Implementation

[0028] The invention will now be further described with reference to the accompanying drawings.

[0029] like Figures 1 to 8 As shown, the carbon dioxide mosquito attracting and killing device of the present invention includes a shell 4, a carbon dioxide enrichment and release unit 2, and a carbon dioxide releaser. The carbon dioxide enrichment and release unit 2 is fixed on the shell 4. The carbon dioxide gas outlet 28 on the carbon dioxide enrichment and release unit 2 is connected to the carbon dioxide gas inlet 11 on the carbon dioxide releaser through a gas delivery pipeline system. The present invention also includes an electric grid device 3, and the carbon dioxide releaser is set inside or on the side of the electric grid device 3. The term "side" should be interpreted broadly, and the upper side, lower side, left side, right side, front side, and rear side can all be called the side. The carbon dioxide releaser can be set on only one side or multiple sides can be arranged simultaneously.

[0030] The electric grid device 3 can be installed independently or on the outer casing 4. The main body of the electric grid device 3 can have various shapes, such as a cage-like mesh structure or a planar mesh structure. In the cage-like mesh structure design, the carbon dioxide emitter is located inside the electric grid device 3. The emitter releases carbon dioxide gas, which diffuses from inside the device 3 through the grid and outwards. This utilizes the attraction of carbon dioxide to mosquitoes, luring them closer to and touching the electric grid device 3, ultimately causing them to be electrocuted. In the planar mesh structure design, the carbon dioxide emitter can be located at the top, bottom, or side of the electric grid device 3. The emitter releases carbon dioxide gas, which diffuses through the electric grid device 3, again using the attraction of carbon dioxide to attract mosquitoes, luring them closer to and touching the electric grid device 3, ultimately causing them to be electrocuted.

[0031] This invention can also be used in conjunction with a suction-type mosquito trapping device. The outer casing 4 is equipped with a fan assembly 9, an air duct 8, and a mosquito storage box 10. The air outlet of the air duct 8 is connected to the mosquito storage box 10, and the air inlet of the air duct 8 faces downwards. When the fan assembly 9 is working, the airflow within the air duct 8 flows from the air inlet to the air outlet. A carbon dioxide emitter is fixed at the air inlet of the air duct 8. During operation, the carbon dioxide emitter continuously releases carbon dioxide gas at the air inlet of the air duct 8. When mosquitoes are lured to the air inlet area of ​​the air duct 8, they must first pass through an electric grid. Most mosquitoes are killed by the electric grid device 3. If some mosquitoes pass through the electric grid device 3, these mosquitoes enter the air duct 8 and are captured and killed in the mosquito storage box 10, greatly improving the overall mosquito-catching efficiency. Of course, the suction-type mosquito trapping device can also be used independently, i.e., the electric grid device 3 is not working, and the carbon dioxide gas is used directly to attract mosquitoes, which are then captured and killed in the mosquito storage box 10.

[0032] In the embodiment shown in the attached drawings, the main body of the power grid device 3 is preferably a cage-like mesh structure (i.e., it includes a ring-shaped power grid, and the power grid can be arranged in multiple layers at radial intervals). The power grid device 3 is located at the air inlet of the air duct 8, and one end of the air inlet of the air duct 8 is connected to the top of the main body of the power grid. The two can be directly connected or indirectly connected, for example, a lampshade 5 is added in the preferred embodiment of the present invention.

[0033] To further enhance the mosquito attraction effect, a lampshade 5 is fixedly installed at the air inlet of the air duct 8. Both the upper and lower ends of the lampshade 5 are open, with the upper opening communicating with the air inlet of the air duct 8. An attraction light source 6 is fixedly installed inside the lampshade 5, and an electric grid device 3 is fixedly installed at the lower end of the lampshade 5. The attraction light source 6 and the carbon dioxide emitter can be controlled independently according to different needs. For example, during the day, only the carbon dioxide emitter can be turned on while the attraction light source 6 is turned off, reducing the energy consumption of the device. At night, both the attraction light source 6 and the carbon dioxide emitter can be turned on simultaneously, working synergistically for better mosquito killing. The on / off control of the carbon dioxide emitter can be achieved by opening and closing the gas delivery pipeline system between the carbon dioxide gas outlet 28 on the carbon dioxide enrichment and release unit 2 and the carbon dioxide gas inlet 11 on the carbon dioxide emitter.

[0034] The carbon dioxide emitter is a pipe or canister with holes, mainly used to release carbon dioxide gas at the end of a pipeline. In this invention, the carbon dioxide emitter is preferably mounted on the lampshade 5, with the carbon dioxide gas inlet 11 located at the top of the lampshade 5. In this design, the carbon dioxide emitter can be a separate component or integrated with the lampshade 5, where the gas channel and carbon dioxide release hole are directly designed on the lampshade 5.

[0035] Preferably, the carbon dioxide enrichment and release unit 2 includes an exchange chamber shell 21, a carbon dioxide capture box 22, a first blower 23, a second blower 24, a first air duct 25, and a second air duct 26. A partition is provided inside the exchange chamber shell 21 to divide the exchange chamber shell 21 into a first chamber and a second chamber. The carbon dioxide capture box 22 is installed on the partition. The carbon dioxide capture box 22 is provided with a first air outlet communicating with the first chamber and a second air outlet communicating with the second chamber. The carbon dioxide capture box 22 is provided with carbon dioxide capture material and a carbon dioxide release element. The carbon dioxide release element is a heating element, a humidifying element, or a heating and humidifying element. The air inlet of the first blower 23 is connected to the first air duct 25, and the air outlet is connected to the first chamber. The air inlet of the second blower 24 is connected to the second air duct 26, and the air outlet is connected to the second chamber. Solenoid valves 27 for controlling the opening and closing of the pipeline are installed in both the first air duct 25 and the second air duct 26. The carbon dioxide gas outlet 28 is connected to the inner cavity of the exchange chamber shell 21. The carbon dioxide capture material is a material that can absorb carbon dioxide from the air and release the adsorbed carbon dioxide under heating and / or humidification conditions, such as ion exchange resin, zeolite molecular sieve, activated carbon, activated alumina, etc. The first blower 23 and the second blower 24 force air to flow within the carbon dioxide capture box 22, ensuring sufficient contact between the air and the carbon dioxide capture material for better carbon dioxide adsorption. Finally, energizing the carbon dioxide release element allows carbon dioxide gas to accumulate in the inner cavity of the exchange chamber housing 21. When not in operation, closing the solenoid valves in the first air duct 25 and the second air duct 26 effectively ensures the airtightness of the inner cavity of the exchange chamber housing 21, preventing carbon dioxide gas from escaping and increasing the carbon dioxide gas release concentration during operation. During operation, alternating operation of the first and second blowers improves the efficiency of carbon dioxide accumulation. The specific control method involves simultaneously opening the solenoid valves in the first duct 25 and the second duct 26, starting the first blower 23, and stopping the second blower 24. The airflow passes sequentially through the first duct 25, the first chamber, the carbon dioxide capture box 22, the second chamber, and the second duct 26. After a set interval, the first blower 23 is turned off, and the second blower 24 is turned on. The solenoid valves in the first duct 25 and the second duct 26 remain open, and the airflow passes sequentially through the second duct 26, the second chamber, the carbon dioxide capture box 22, the first chamber, and the first duct 25. This process is repeated in a cyclical manner.

[0036] Preferably, the end of the first duct 25 furthest from the first blower 23 has its opening facing downwards; the end of the second duct 26 furthest from the second blower 24 also has its opening facing downwards. The electrical control components 13 involved in the device are preferably located at the bottom of the housing 4.

[0037] The fan assembly 9 is preferably located on one side of the mosquito storage box 10, and the fan assembly 9 is not located inside the air duct 8. The fan assembly 9 is connected to the mosquito storage box 10 through the exhaust pipe.

[0038] Preferably, the outer casing 4 comprises a hollow outer casing body 41, a lower cover 42 fixedly connected to the bottom of the outer casing body 41, an openable and closable upper cover 43 connected to the top of the outer casing body 41, an inner sealing plate 44 fixedly connected to the upper part of the inner cavity of the outer casing body 41, a mosquito storage box 10 detachably installed on the inner sealing plate 44, and a carbon dioxide enrichment and release unit 2 and a fan assembly 9 both installed inside the outer casing body 41. The mosquito storage box 10 can be removed for cleaning by opening the upper cover 43.

[0039] The preferred installation method for the top cover 43 is that one end of the top cover 43 is rotatably connected to the outer shell body 41, and the other end is connected to the outer shell body 41 via a magnetic attraction structure. The magnetic attraction structure includes a first magnet and a second magnet, which can be connected and fixed together by magnetic attraction. The first magnet can be installed on the top cover 43, and the second magnet can be installed on the outer shell body 41 or the inner sealing plate 44. With this structure, the opening and closing of the top cover 43 is relatively convenient.

[0040] To ensure safe operation, the electric grid device 3 is equipped with a human infrared sensor. When a person approaches the electric grid, the device automatically cuts off power and restores power after the person leaves, thus ensuring safe mosquito control.

[0041] For ease of use, the present invention also includes a support rod 7 and a base 1, with the support rod 7 fixed to the top of the base 1 and the outer shell 4 fixed to the support rod 7.

Claims

1. A carbon dioxide mosquito attracting and killing device comprising a housing (4), a carbon dioxide enrichment release unit (2) and a carbon dioxide releaser, the carbon dioxide enrichment release unit (2) being fixed to the housing (4), a carbon dioxide gas outlet (28) on the carbon dioxide enrichment release unit (2) being connected to a carbon dioxide gas inlet (11) on the carbon dioxide releaser by a gas delivery piping system, characterized in that: The grid device (3) is further provided with a carbon dioxide releaser arranged inside or on the side of the grid device (3); when the carbon dioxide releaser is arranged inside the grid device (3), the carbon dioxide gas releaser releases carbon dioxide gas, the carbon dioxide gas passes through the grid device (3) from the inside of the grid device (3) to the outside of the grid device (3), and the carbon dioxide gas is diffused to the outside of the grid device (3), so that the carbon dioxide gas attracts mosquitoes, the mosquitoes are attracted to the grid device (3) and touch the grid device (3), and finally the mosquitoes are electrocuted and killed; when the carbon dioxide releaser is arranged on the side of the grid device (3), the carbon dioxide gas releaser releases carbon dioxide gas, the carbon dioxide gas diffuses through the grid device (3), so that the carbon dioxide gas attracts mosquitoes, the mosquitoes are attracted to the grid device (3) and touch the grid device (3), and finally the mosquitoes are electrocuted and killed; The housing (4) is further provided with a fan assembly (9), an air duct (8) and a mosquito storage box (10), the air outlet of the air duct (8) is communicated with the mosquito storage box (10), the air inlet of the air duct (8) is arranged downward, the fan assembly (9) works to make the airflow in the air duct (8) flow from the air inlet to the air outlet of the air duct (8), and the carbon dioxide releaser is fixed at the air inlet of the air duct (8); the first working mode is that the carbon dioxide releaser continuously releases carbon dioxide gas at the air inlet of the air duct (8), when the mosquitoes are attracted to the air inlet area of the air duct (8), the mosquitoes need to pass through the grid device (3) first, the mosquitoes are mainly electrocuted and killed by the grid device (3), if part of the mosquitoes pass through the grid device (3), the mosquitoes enter the air duct (8) and are captured and killed in the mosquito storage box (10); the second working mode is that the grid device (3) does not work, the mosquitoes are directly attracted by the carbon dioxide gas, the mosquitoes enter the air duct (8) and are captured and killed in the mosquito storage box (10); The carbon dioxide enrichment and release unit (2) comprises an exchange chamber shell (21), a carbon dioxide capture box (22), a first air blower (23), a second air blower (24), a first air duct (25) and a second air duct (26), a partition plate is arranged in the exchange chamber shell (21) to divide the exchange chamber shell (21) into a first chamber and a second chamber, the carbon dioxide capture box (22) is installed on the partition plate, the carbon dioxide capture box (22) is provided with a first air inlet communicated with the first chamber and a second air inlet communicated with the second chamber, the carbon dioxide capture box (22) is provided with carbon dioxide capture material and a carbon dioxide release element, the carbon dioxide release element is a heating element or a humidifying element or a heating and humidifying element, the air inlet end of the first air blower (23) is connected with the first air duct (25), the air outlet end is communicated with the first chamber, the air inlet end of the second air blower (24) is connected with the second air duct (26), the air outlet end is communicated with the second chamber, and the electromagnetic valves (27) for controlling the opening and closing of the pipelines are installed in the first air duct (25) and the second air duct (26); the carbon dioxide gas outlet (28) is communicated with the inner cavity of the exchange chamber shell (21); The first air blower and the second air blower are alternately worked, so that the enrichment efficiency of the carbon dioxide is improved, and the specific operation is as follows: At the same time, the electromagnetic valves (27) in the first air pipe (25) and the second air pipe (26) are opened, the first air blower (23) works, the second air blower (24) does not work, and the airflow passes through the first air pipe (25), the first chamber, the carbon dioxide capture box (22), the second chamber, and the second air pipe (26) in sequence; after a set time interval, the first air blower (23) is turned off, the second air blower (24) works, and the electromagnetic valves (27) in the first air pipe (25) and the second air pipe (26) are kept in an open state, and the airflow passes through the second air pipe (26), the second chamber, the carbon dioxide capture box (22), the first chamber, and the first air pipe (25) in sequence; the above process is repeated.

2. The carbon dioxide mosquito-attracting and killing apparatus according to claim 1, wherein: The power grid body of the power grid device (3) is a cage-shaped net structure, and the power grid device (3) is arranged at the air inlet of the air pipe (8). The air inlet end of the air pipe (8) is connected to the top end of the power grid body and communicates with the power grid body.

3. The carbon dioxide mosquito-attracting and killing apparatus according to claim 2, wherein: A lampshade (5) is fixedly arranged at the air inlet of the air pipe (8). The upper end and the lower end of the lampshade (5) are both open structures. The upper end of the lampshade (5) is connected to the air inlet of the air pipe (8). The lampshade (5) is internally fixedly provided with an attracting light source (6). The power grid device (3) is fixedly arranged at the lower end of the lampshade (5).

4. The carbon dioxide mosquito-attracting and killing apparatus according to claim 3, wherein: The carbon dioxide release device is arranged on the lampshade (5), and the carbon dioxide gas inlet (11) is arranged at the top of the lampshade (5).

5. The carbon dioxide mosquito-attracting and killing apparatus according to claim 1, wherein: A fan assembly (9) is arranged on one side of the mosquito storage box (10), and the fan assembly (9) is not arranged in the air pipe (8). The fan assembly (9) is connected to the mosquito storage box (10) through an air suction pipe.

6. The carbon dioxide mosquito-attracting and killing apparatus according to claim 1, wherein: The shell (4) comprises a hollow shell body (41). The bottom of the shell body (41) is fixedly connected with a lower cover (42). The top of the shell body (41) is connected with an openable upper cover (43). The upper part of the inner cavity of the shell body (41) is fixedly connected with an inner sealing plate (44). The mosquito storage box (10) is detachably arranged on the inner sealing plate (44). The carbon dioxide enrichment and release unit (2) and the fan assembly (9) are both arranged in the shell body (41). One end of the upper cover (43) is rotatably connected with the shell body (41). The other end is connected with the shell body (41) through a magnetic attraction structure.

7. The carbon dioxide mosquito-attracting and killing apparatus according to claim 1, wherein: The end of the first air pipe (25) away from the first air blower (23) is downwardly open. The end of the second air pipe (26) away from the second air blower (24) is downwardly open.

8. The carbon dioxide mosquito attractant and killing device of any one of claims 1 to 7, wherein: The support rod (7) is fixedly arranged on the top of the base (1). The shell (4) is fixedly arranged on the support rod (7). The power grid device (3) is provided with a human body infrared sensor. The human body infrared sensor is used to control the start and stop of the power grid device (3).

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