Electric mosquito swatter

Abstract

The invention discloses an electric mosquito swatter which comprises a swatter net assembly and a swatter rod assembly, the swatter rod assembly is movably connected to the lower end of the swatter net assembly, and the swatter net assembly is of a circular swatter net structure and comprises a first swatter net, a second swatter net, a third swatter net, a fourth swatter net and a mosquito swatter middle net. The first swatter net is movably connected with the second swatter net, the second swatter net is movably connected with the third swatter net, the third swatter net is movably connected with the fourth swatter net, and the first swatter net is detachably connected with the fourth swatter net; the mosquito swatter middle net is arranged among the first swatter net, the second swatter net, the third swatter net and the fourth swatter net and is movably connected with the first swatter net. The foldable and detachable swatter net assembly is combined with the swatter rod assembly which can be connected in a turnover mode, so that the electric mosquito swatter can be used as a handheld electric mosquito swatter and can also be installed on a fan to achieve continuous mosquito trapping and electric shock mosquito eradication.

Description

Technical Field

[0001] This invention belongs to the technical field of mosquito-killing devices, specifically relating to an electric mosquito swatter for killing mosquitoes. Background Technology

[0002] Mosquitoes not only affect people's living comfort but can also transmit various diseases, making effective mosquito control a key concern. Currently, common mosquito control devices on the market mainly include handheld electric mosquito swatters, mosquito-attracting lamps, and electric mosquito killers installed indoors.

[0003] Handheld electric mosquito swatters are widely used due to their simple structure, ease of use, and low price. However, these electric mosquito swatters usually rely on manual operation, requiring users to actively find and swat mosquitoes. Prolonged use can easily lead to fatigue, and their mosquito-killing effect is limited at night or when unattended, making it difficult to meet the need for continuous and automatic mosquito control.

[0004] On the other hand, while some fixed mosquito-killing devices can operate continuously, their structures are relatively complex, their installation locations are fixed, they occupy a large amount of space, and their applicable scenarios are relatively limited, making them inconvenient for flexible use in different environments. In addition, some existing fan-assisted mosquito-killing solutions simply place the mosquito-killing device near the fan or at the air inlet, with unreliable fixing methods. This can easily cause the device to shake or even fall off during fan operation, posing certain safety hazards and also affecting the mosquito-killing effect.

[0005] Therefore, overcoming the shortcomings of the existing technology is an urgent problem to be solved in this technical field. Summary of the Invention

[0006] In view of the technical problems mentioned in the background art, the purpose of this invention is to provide an electric mosquito swatter to solve the technical problems mentioned in the background art.

[0007] To achieve the above objectives, the present invention provides the following technical solution: an electric mosquito swatter, comprising a swatter net assembly and a swatter shaft assembly, wherein the swatter shaft assembly is movably connected to the lower end of the swatter net assembly, the swatter net assembly is a circular swatter net structure, comprising a first swatter net, a second swatter net, a third swatter net, a fourth swatter net, and a mosquito swatter inner net, wherein the first swatter net and the second swatter net are movably connected, the second swatter net and the third swatter net are movably connected, the third swatter net and the fourth swatter net are movably connected, and the first swatter net and the fourth swatter net are detachably connected; the mosquito swatter inner net is disposed between the first swatter net, the second swatter net, the third swatter net, and the fourth swatter net, and is movably connected to the first swatter net; the swatter net assembly has an openable and closable connection structure, allowing the swatter net assembly to be fitted onto the air inlet of a fan in the open state, and to be fixedly installed on the fan after being closed.

[0008] The present invention has the following main advantages: By combining a foldable and detachable swatter net assembly with a flip-connectable swatter handle assembly, the electric mosquito swatter can be used as a handheld electric mosquito swatter or installed on a fan to continuously attract and electrocute mosquitoes; the swatter net assembly has an openable and foldable connection structure, allowing it to be fitted onto the fan's air inlet in the open state and fixedly installed on the fan in the folded state; the swatter net assembly can be installed on the back of the fan, and when the fan is working, the suction force from the back of the fan attracts mosquitoes to the swatter net assembly, and the suction force is used to attract and electrocute the mosquitoes, thereby enhancing the efficiency of electrocution; and the combined use of the electric mosquito swatter and the fan reduces the space occupied by a separate mosquito-killing device, improving space utilization. Meanwhile, the multi-mesh enclosure structure, movable mosquito swatter net, mosquito-attracting light source component, and double-hooked rubber band auxiliary fixing settings not only increase the probability of mosquitoes entering the electric shock area, but also enhance the stability and safety of the overall structure under different usage conditions, thus achieving a simple structure, diverse usage methods, and high mosquito-killing efficiency. Attached Figure Description

[0009] Figure 1 This is a schematic diagram of the overall three-dimensional structure of the present invention.

[0010] Figure 2 This is a schematic diagram of the overall exploded structure of the present invention.

[0011] Figure 3 This is a schematic diagram of the racket shaft assembly structure of the present invention.

[0012] Figure 4 This is a schematic diagram of the structure of the netting assembly of the present invention.

[0013] Figure 5 This is an exploded structural diagram of the netting assembly of the present invention.

[0014] Figure 6 This is an exploded structural diagram of the mesh plate support, the first outer mesh plate, the second outer mesh plate, and the inner mesh plate of the present invention.

[0015] Figure 7 This is an exploded structural diagram of the mesh support, light source component, and mesh connector of the present invention.

[0016] Figure 8 This is an exploded structural diagram of the mosquito swatter net and the swatter net connector of the present invention.

[0017] Figure 9 This is a schematic diagram of the unfolded structure of the first, second, third, and fourth mosquito swatter nets and the mosquito swatter net of the present invention.

[0018] Figure 10This is a schematic diagram of the bowl-shaped structure formed by the netting assembly of the present invention.

[0019] Figure 11 This is a schematic diagram of the open structure of the mosquito swatter net of the present invention.

[0020] Figure 12 This is a schematic diagram of the application state of the mesh assembly of the present invention mounted on a fan.

[0021] Reference numerals: 10 for swatter net assembly; 20 for swatter arm assembly; 11 for first swatter net; 12 for second swatter net; 13 for third swatter net; 14 for fourth swatter net; 15 for mosquito swatter middle net; 16 for first swatter net connecting part; 17 for second swatter net connecting part; 30 for connecting component; 31 for connecting rod; 32 for connecting female part; 18 for net plate bracket; 181 for first outer net plate; 182 for second outer net plate; 183 for inner net plate; 184 for light source component; 19 for swatter net connector; 191 for movable connecting position; 192 for movable connecting rod; 151 for middle net connecting rod; 193 for middle net connecting position; 40 for swatter net hook; 41 for double hook elastic band; 131 for swatter arm connecting part; 132 for connecting post; 21 for post connecting position; 50 for control circuit board; 60 for rechargeable battery; 161 for first wire channel; 171 for second wire channel. Detailed Implementation

[0022] like Figures 1 to 12 As shown, an electric mosquito swatter includes a net assembly 10 and a handle assembly 20. The handle assembly 20 is movably connected to the lower end of the net assembly 10. In use, the handle assembly 20 is held by the user to drive the net assembly 10 to swat and kill mosquitoes. When not in use, the handle assembly 20 can be flipped or folded relative to the net assembly 10, allowing the net assembly 10 to be placed or hung independently. This enables the electric mosquito swatter to have multiple usage modes, improving its flexibility and convenience.

[0023] In practical implementation, the mosquito swatter assembly 10 is a circular swatter net, comprising a first swatter net 11, a second swatter net 12, a third swatter net 13, a fourth swatter net 14, and a mosquito swatter inner net 15. The first swatter net 11 and the second swatter net 12 are movably connected; the second swatter net 12 and the third swatter net 13 are movably connected; the third swatter net 13 and the fourth swatter net 14 are movably connected; and the first swatter net 11 and the fourth swatter net 14 are detachably connected. The mosquito swatter inner net 15 is disposed between the first swatter net 11, the second swatter net 12, the third swatter net 13, and the fourth swatter net 14, and is movably connected to the first swatter net 11. In use, the first swatter net 11, the second swatter net 12, the third swatter net 13, and the fourth swatter net 14... The net 14 forms an overall circular swatter net structure. The mosquito swatter net 15 is located in the middle of the overall circular swatter net structure. After the first swatter net 11 and the fourth swatter net 14 are separated, the first swatter net 11, the second swatter net 12, the third swatter net 13 and the fourth swatter net 14 are unfolded in sequence and set around the outer periphery of the fan motor. Then the first swatter net 11 and the fourth swatter net 14 are locked together again, so that the first swatter net 11, the second swatter net 12, the third swatter net 13 and the fourth swatter net 14 are enclosed to form a circular structure again. Then the mosquito swatter net 15 is opened and electricity is turned on so that the first swatter net 11, the second swatter net 12, the third swatter net 13, the fourth swatter net 14 and the mosquito swatter net 15 form an electric shock area, so that mosquitoes near the motor area are electrocuted and killed when the fan is running.

[0024] In practical implementation, the first net 11, the second net 12, the third net 13, and the fourth net 14 are respectively provided with a first net connecting part 16 and a second net connecting part 17 on both sides. Adjacent nets are movably connected by corresponding first net connecting parts 16 and second net connecting parts 17 passing through pins, so that each of the first net 11, the second net 12, the third net 13, and the fourth net 14 can be flipped or unfolded relative to each other. The adjacent first net connecting parts 16 and second net connecting parts 17 between the first net 11 and the fourth net 14 are detachably connected by connecting parts 30 so that the overall circular net structure can be opened or reassembled when needed.

[0025] In practical implementation, the connecting component 30 includes a connecting rod 31 and a connecting female 32. The connecting rod 31 passes through the first net connecting part 16 and the second net connecting part 17, and is threadedly connected and fixed to the connecting female 32, thereby realizing a detachable connection between the first net 11 and the fourth net 14. When disassembly is required, the connecting rod 31 can be separated from the connecting female 32 by rotating the connecting female 32, so that the overall circular net structure can be opened. After installation or use, the connecting rod 31 and the connecting female 32 can be re-locked through the threaded engagement, so that the overall structure can be re-locked. The circular mosquito swatter structure is stably formed, and the connection between the swatter components 10 is an openable and closable structure. This allows the swatter components 10 to be fitted onto the air inlet of the fan in the open state and to be fixedly installed on the fan in the closed state. The swatter components can be installed on the back of the fan. When the fan is working, the suction force of the airflow from the back of the fan attracts mosquitoes to the swatter components. Through the combined action of the suction force, mosquitoes are sucked up and then electrocuted, thereby enhancing the efficiency of electric mosquito killing. Furthermore, the combination of the electric mosquito swatter and the fan reduces the space occupied by a separate mosquito killing device and improves space utilization.

[0026] In practical implementation, the first swatter net 11, the second swatter net 12, the third swatter net 13, the fourth swatter net 14, and the mosquito swatter net 15 are each equipped with a mesh plate bracket 18. A first outer mesh plate 181 is installed on the front side of the mesh plate bracket 18, a second outer mesh plate 182 is installed on the rear side of the mesh plate bracket 18, and an inner mesh plate 183 is installed on the middle side of the mesh plate bracket 18. The first outer mesh plate 181 and the second outer mesh plate 182 are spaced apart from each other, and the inner mesh plate 183 is located between the first outer mesh plate 181 and the second outer mesh plate 182. The three together form a multi-layer mesh plate structure. When energized, an electric shock gap is formed between the inner mesh plate 183 and the first outer mesh plate 181 and the second outer mesh plate 182, thereby achieving electric shock and killing when mosquitoes come into contact with it.

[0027] In practical implementation, the mesh support 18 is a light-transmitting support, and a light source component 184 is installed at the end of the mesh support 18. The light source component 184 is used to emit mosquito-attracting light to the area where the first swatter net 11, the second swatter net 12, the third swatter net 13, the fourth swatter net 14 and the mosquito swatter net 15 are located, so that mosquitoes are attracted by the light source and approach the swatter net assembly 10, thereby increasing the probability of mosquitoes coming into contact with the electric shock area and further improving the mosquito-killing effect of the electric mosquito swatter.

[0028] In practical implementation, the inner sides of the first net 11, the second net 12, the third net 13, and the fourth net 14 are respectively movably connected with net connectors 19. The first net 11, the second net 12, the third net 13, and the fourth net 14 are respectively provided with movable connection positions 191 on both sides. The net connectors 19 are respectively provided with movable connecting rods 192 on both sides. The movable connecting rods 192 are correspondingly connected to the movable connection positions 191 and are movably connected by pins, so that the net connectors 19 can rotate or swing relative to the corresponding nets.

[0029] In practical implementation, the side end of the mosquito swatter net 15 is provided with a net connecting rod 151, and the outer side of the net connecting member 19 is provided with a net connecting position 193. The net connecting rod 151 and the net connecting position 193 are connected to each other and are movably connected by a pin, so that the mosquito swatter net 15 can rotate or fold relative to the net connecting member 19, thereby cooperating with each net structure during unfolding, enclosing or installation, and ensuring the positional stability and structural reliability of the mosquito swatter net 15 under different usage conditions.

[0030] In practical implementation, the outer edge of the meshing assembly 10 is evenly provided with a plurality of meshing hook positions 40, and each of the meshing hook positions 40 is hooked with a double-hook rubber band 41. When the present invention is installed on a fan, in order to prevent the meshing assembly 10 from shaking or swaying during the operation of the fan, it can be assisted in fixing by the double-hook rubber band 41. One end of the double-hook rubber band 41 is hooked to the meshing hook position 40, and the other end is hooked to the protective net or support structure of the fan, thereby limiting and stabilizing the meshing assembly 10, improving the overall installation stability and safety of use.

[0031] In practical implementation, the outer side of the third swatting net 13 is provided with a swatting rod connecting part 131, and the swatting rod connecting part 131 is provided with a connecting post 132. The upper end of the swatting rod assembly 20 is provided with a post connecting position 21. The end of the connecting post 132 is inserted into the post connecting position 21 and is movably connected by bolts, so that the swatting rod assembly 20 can rotate relative to the third swatting net 13, thereby switching between handheld swatting and use on a fan, improving the flexibility of using the electric mosquito swatter.

[0032] In practical implementation, the control circuit board 50 and the rechargeable battery 60 are installed inside the swatter assembly 20. The control circuit board 50 is electrically connected to the rechargeable battery 60, the swatter net assembly 10 and the light source component 184, and is used to control the power on / off, working status and charging process of the electric mosquito swatter. The rechargeable battery 60 is used to provide working power to the swatter net assembly 10 and the light source component 184.

[0033] In specific implementation, the inner side of the first net connecting part 16 is provided with a first wire passage groove 161, and the inner side of the second net connecting part 17 is provided with a second wire passage groove 171. The first wire passage groove 161 and the second wire passage groove 171 are arranged correspondingly to each other, so as to allow the wires inside the net assembly 10 to pass through, so as to realize electrical connection between each net, and at the same time avoid the wires from being squeezed or pulled during the folding, unfolding or rotating of the net, thereby improving the stability of the wire connection and the safety of use.

[0034] When used as a handheld electric mosquito swatter, the user holds the swatter arm assembly 20 and controls the swatter net assembly 10 to be energized via the control circuit board 50. This creates an electric shock zone between the first swatter net 11, the second swatter net 12, the third swatter net 13, the fourth swatter net 14, and the mosquito swatter's central net 15. When a mosquito comes into contact with the swatter net assembly 10, it is killed by an electric shock. When used as a fan-mounted electric mosquito swatter, the swatter net assembly 10 is unfolded and placed around the motor of the fan. The first swatter net 11 and the fourth swatter net 14 are then relocked via the connecting component 30 and the double-hooked rubber band. 41. The swatting net assembly 10 is then fixed to the protective net or support structure of the fan. After the power is turned on, during the operation of the fan, mosquitoes are attracted to the swatting net assembly 10 by the airflow and the light source component 184 and enter the electric shock area, thereby achieving continuous electric shock killing of mosquitoes. At the same time, the first swatting net 11, the second swatting net 12, the third swatting net 13, and the fourth swatting net 14 can move along several swatting net connectors 19 and flip inward to form a bowl-shaped enclosure structure, making it easier for mosquitoes to be confined in the internal area of ​​the swatting net assembly 10, thereby further improving the mosquito capture rate and electric shock killing effect.

Claims

1. An electric mosquito swatter, characterized by: The utility model provides a mosquito swatter, which comprises a net component (10) and a rod component (20), wherein the rod component (20) is movably connected to the lower end of the net component (10), the net component (10) is a circular net structure, and comprises a first net (11), a second net (12), a third net (13), a fourth net (14) and a mosquito swatter middle net (15), wherein the first net (11) is movably connected to the second net (12), the second net (12) is movably connected to the third net (13), the third net (13) is movably connected to the fourth net (14), and the first net (11) is detachably connected to the fourth net (14); the mosquito swatter middle net (15) is arranged between the first net (11), the second net (12), the third net (13) and the fourth net (14) and movably connected to the first net (11); the net component (10) is movably connected in an openable and foldable manner, so that the net component (10) can be arranged at the air inlet of a fan in an open state and fixedly installed on the fan for use after being folded.

2. The electric insect swatter of claim 1, wherein: The first net (11), the second net (12), the third net (13) and the fourth net (14) are respectively provided with a first net connecting part (16) and a second net connecting part (17) on two sides, adjacent nets are movably connected through the first net connecting part (16) and the second net connecting part (17) arranged in a corresponding manner by penetrating a pin shaft, so that the nets can move relative to each other.

3. The electric insect swatter of claim 2, wherein: The first net connecting part (16) and the second net connecting part (17) adjacent to each other between the first net (11) and the fourth net (14) are detachably connected through a connecting part (30).

4. The electric mosquito flip of claim 3, wherein: The connecting part (30) comprises a connecting male rod (31) and a connecting female part (32), the connecting male rod (31) penetrates the first net connecting part (16) and the second net connecting part (17) and is threadedly connected and fixed with the connecting female part (32).

5. The electric insect swatter of claim 1, wherein: The first net (11), the second net (12), the third net (13), the fourth net (14) and the mosquito swatter middle net (15) are respectively provided with a net plate support (18) inside, a first outer net plate (181) is arranged on the front side of the net plate support (18), a second outer net plate (182) is arranged on the back side of the net plate support (18), and an inner net plate (183) is arranged on the middle side of the net plate support (18), the inner net plate (183) is located between the first outer net plate (181) and the second outer net plate (182) and forms an electric shock gap therebetween in a powered state.

6. The electric insect swatter of claim 5, wherein: The net plate support (18) is a light-transmitting support, and a light source part (184) is arranged at the end of the net plate support (18), the light source part (184) is used for emitting a mosquito-attracting light source to the area where the net component (10) is located.

7. The electric insect swatter of claim 1, wherein: The first net (11), the second net (12), the third net (13) and the fourth net (14) are respectively movably connected with a net connecting part (19) inside, the net connecting part (19) is provided with a movable connecting rod (192) on two sides and movably connected with a movable connecting position (191) arranged on each net through a pin shaft.

8. The electric insect swatter of claim 7, wherein: The side end of the screen (15) is provided with a screen connecting rod (151), the outer side of the screen connecting piece (19) is provided with a screen connecting position (193), and the screen connecting rod (151) and the screen connecting position (193) are movably connected through a pin shaft.

9. The electric insect swatter of claim 1, wherein: The outer side edge of the screen assembly (10) is uniformly provided with a plurality of screen hook positions (40), the screen hook position (40) is hooked with a double-hook rubber band (41), one end of the double-hook rubber band (41) is hooked to the screen hook position (40), and the other end is used for hooking to the protective screen structure of the fan to assist in fixing the screen assembly (10).

10. The electric insect swatter of claim 1, wherein: The outer side of the third screen (13) is provided with a screen rod connecting part (131), the screen rod connecting part (131) is provided with a connecting penetrating column (132), the upper end of the screen rod assembly (20) is provided with a penetrating column connecting position (21), the connecting penetrating column (132) is inserted into the penetrating column connecting position (21) and movably connected through a bolt, the inside of the screen rod assembly (20) is provided with a control circuit board (50) and a charging battery (60), and the control circuit board (50) is electrically connected with the charging battery (60), the screen assembly (10) and the light source part (184).

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