A solar mosquito eradication device

Abstract

This application discloses a solar-powered mosquito-killing device, which includes a solar module, a mosquito-killing module, and a support module. The mosquito-killing module is located on one side of the solar module and includes a frame assembly, an electrical grid located in the frame assembly, a control component electrically connected to the electrical grid, a button disposed on the frame assembly and electrically connected to the control component, and a flexible waterproof cover covering the button; the support module is connected to the mosquito-killing module to support the mosquito-killing module.

Description

Technical Field

[0001] This application relates to a solar-powered mosquito-killing device, which is applied in the field of outdoor mosquito-killing lamp technology. Background Technology

[0002] Currently, outdoor solar-powered mosquito killers typically use chemical agents or high-voltage electric grids to eliminate mosquitoes. However, these devices have several problems. For example, the use of chemical agents may be harmful to humans and the environment, while high-voltage electric grids pose safety hazards. Furthermore, most existing solar-powered mosquito killers require an external power source, limiting their flexibility and convenience. They usually have an umbrella-shaped rain cover to prevent rainwater from seeping in through gaps around the buttons, but in heavy rain or wind, rainwater can still easily seep into the device. They are also inconvenient to use in areas with rivers, and touching the buttons with wet hands poses a safety risk. Utility Model Content

[0003] In view of the aforementioned problems that most existing solar-powered mosquito killers require an external power source, which limits their flexibility and convenience, and that the umbrella-shaped rain cover on top, which usually poses certain safety hazards to prevent rainwater from seeping in, this application provides a solar-powered mosquito killer that is mainly powered by a solar module. The buttons are covered with a flexible waterproof sleeve to prevent rainwater from seeping into the interior of the solar-powered mosquito killer through the gaps at the buttons. This solves the problems that most solar-powered mosquito killers require an external power source and that water can easily seep into the interior of the solar-powered mosquito killer through the gaps at the buttons.

[0004] This application provides a solar-powered mosquito killer device. The solar-powered mosquito killer device includes a solar module, a mosquito killer module, and a support module. The mosquito killer module is located on one side of the solar module and includes a frame assembly, an electrical grid located in the frame assembly, a control component electrically connected to the electrical grid, a button disposed on the frame assembly and electrically connected to the control component, and a flexible waterproof cover covering the button. The support module is connected to the mosquito killer module to support the mosquito killer module.

[0005] Based on the solar-powered mosquito killer device in this application embodiment, a solar module is designed to convert solar energy into electrical energy to power the power grid, control components, and other structures within the mosquito killer module. Compared to existing solar-powered mosquito killer devices that require connection to an external power source, the solar-powered mosquito killer device in this application embodiment is not constrained by an external power source, offering greater flexibility and convenience. A flexible waterproof sleeve is designed to cover the buttons, providing waterproofing. Compared to existing solar-powered mosquito killer devices that do not waterproof exposed switches, the solar-powered mosquito killer device in this application embodiment effectively waterproofs exposed buttons through the flexible waterproof sleeve, preventing liquids such as rainwater from seeping into the interior of the solar-powered mosquito killer device through gaps in the buttons, thus preventing damage to the device. Attached Figure Description

[0006] Figure 1 This is a perspective view of the solar-powered mosquito-killing device provided in Embodiment 1 of this application;

[0007] Figure 2 This is an exploded view of the mosquito-killing module in Embodiment 1 of this application;

[0008] Figure 3 yes Figure 1 Enlarged view of point A in the middle;

[0009] Figure 4 This is a perspective view of the mosquito-killing module and the solar energy module in Embodiment 1 of this application;

[0010] Figure 5 yes Figure 4 Enlarged view of point B in the middle;

[0011] Figure 6 This is a perspective view of the solar-powered mosquito-killing device provided in Embodiment 1 of this application from another angle;

[0012] Figure 7 yes Figure 6 Enlarged view of point C in the middle;

[0013] Figure 8 This is a perspective view of the power grid in Embodiment 1 of this application;

[0014] Figure 9 yes Figure 8 Enlarged view at point D;

[0015] Figure 10 This is a perspective view of the electrical connection component in Embodiment 1 of this application;

[0016] Figure 11 yes Figure 10 A three-dimensional view of the pin-end connector of the electrical connection component in the image;

[0017] Figure 12 yes Figure 10 A perspective view of the end connector of the electrical connection component in the image;

[0018] Figure 13 This is a perspective view of the mosquito-killing module and the solar energy module in Embodiment 1 of this application from another angle;

[0019] Figure 14 yes Figure 13 Enlarged view at point E in the middle;

[0020] Figure 15 This is an exploded view of the mosquito-attracting lamp in Embodiment 1 of this application;

[0021] Figure 16 This is a cross-sectional view of the mosquito-attracting lamp in Embodiment 1 of this application;

[0022] Figure 17 This is a partial exploded view of the solar-powered mosquito-killing device provided in Embodiment 1 of this application;

[0023] Figure 18 This is a partial exploded view of the solar-powered mosquito-killing device provided in Embodiment 1 of this application;

[0024] Figure 19 This is a circuit diagram of the solar-powered mosquito-killing device in Embodiment 1 of this application;

[0025] Figure 20 This is a schematic diagram of the boost circuit of the solar-powered mosquito killer device in Embodiment 1 of this application;

[0026] Figure 21 This is a three-dimensional representation of the solar-powered mosquito-killing device provided in Embodiment 2 of this application. Figure 1 ;

[0027] Figure 22 yes Figure 21 An exploded view of the lighting fixtures in the image;

[0028] Figure 23 This is a perspective view of the solar-powered mosquito-killing device provided in Embodiment 3 of this application. Detailed Implementation

[0029] To make the objectives, technical solutions, and effects of this application clearer and more explicit, the following detailed description of this application is provided with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only for explaining this application and are not intended to limit this application.

[0030] Example 1

[0031] Please see Figures 1 to 2This application provides a solar-powered mosquito-killing device, which includes a solar module 1, a mosquito-killing module 2, and a support module 3. The mosquito-killing module 2 is located on one side of the solar module 1. The mosquito-killing module 2 is electrically connected to the solar module 1. The solar module 1 can receive light (such as sunlight) and convert the light into electrical energy to power the mosquito-killing module 2.

[0032] The mosquito-killing module 2 includes a frame assembly 21, an electric grid 22 located in the frame assembly 21, a control component 23 electrically connected to the electric grid 22, a button 24 disposed on the frame assembly 21 and electrically connected to the control component 23, and a flexible waterproof sleeve 25 covering the button 24. A support module 3 is connected to the mosquito-killing module 2 to support it.

[0033] The flexible waterproof sleeve 25 can be made of polyethylene polypropylene composite material, rubber material or other composite material, but it is generally recommended to use a single waterproof material that has the ability to fit or shrink and stretch.

[0034] Button 24 can be the on / off switch of the solar-powered mosquito killer or the power intensity switch of the electric grid 22, etc. Here, button 24 is preferably the on / off switch of the solar-powered mosquito killer.

[0035] The support module 3 is used to provide support for the mosquito killing module 2. The support module 3 may include multiple sets of inserts 31 (described below), or a base, or three or four support columns, but preferably detachable inserts 31.

[0036] Based on the solar-powered mosquito killer device in this embodiment, a solar module 1 is designed to convert solar energy into electrical energy to power the power grid 22, control components 23, and other structures in the mosquito killer module 2. Compared to existing solar-powered mosquito killer devices that require connection to an external power source, the solar-powered mosquito killer device in this embodiment is not constrained by an external power source, thus offering greater flexibility and convenience. A flexible waterproof sleeve 25 is designed to cover the button 24, providing waterproofing. Compared to existing solar-powered mosquito killer devices that do not waterproof exposed switches, the solar-powered mosquito killer device in this embodiment effectively waterproofs the exposed button 24 through the flexible waterproof sleeve 25. This effectively prevents liquids such as rainwater from seeping into the interior of the solar-powered mosquito killer device through gaps in the button 24, thus preventing damage.

[0037] It is understandable that the flexible waterproof sleeve 25 is used to effectively waterproof the exposed button 24. The specific form of the flexible waterproof sleeve 25 may include, but is not limited to, the following two situations.

[0038] In the first case, such as Figures 3 to 5 As shown, the flexible waterproof sleeve 25 is made of an opaque material. The outer surface of the frame assembly 21 (specifically the box body 201 described below) is provided with an annular groove 21a surrounding the button 24 at the position corresponding to the button 24. At this time, the opaque flexible waterproof sleeve 25 includes a main body 251 that can cover the button 24 and a connecting part 252 that connects the main body 251. The connecting part 252 is arranged around the circumference of the main body 251 and is fixed to the frame assembly 21. Specifically, the non-transparent flexible waterproof sleeve 25 also includes a connector 253, which is connected to the connecting part 252. The main body 251, the connecting part 252, and the connector 253 are integrally formed by injection molding or 3D printing. The outer surface of the frame assembly 21 (specifically the box body 201 described below) is also provided with a socket 21b for the connector 253 to be inserted. The connector 253 is inserted into the socket 21b to realize the connection between the non-transparent flexible waterproof sleeve 25 and the frame assembly 21. When the non-transparent flexible waterproof sleeve 25... When the connecting portion 252 is placed over the button 24, it is embedded in the annular groove 21a. The static friction between the outer surface of the connecting portion 252 and the groove wall of the annular groove 21a is used to position the non-transparent flexible waterproof sleeve 25, preventing it from detaching from the frame assembly 21. This allows the non-transparent flexible waterproof sleeve 25 to effectively waterproof the button 24. When the user needs to trigger the button 24, they can simply apply force to the non-transparent flexible waterproof sleeve 25 to disengage the connecting portion 252 from the annular groove 21a. In this design, the non-transparent flexible waterproof sleeve 25 can movably cover the button 24, preventing liquids such as rainwater from seeping into the interior of the solar-powered mosquito killer device through the assembly gaps of the button 24.

[0039] In the second case, such as Figures 6 to 7 As shown, the flexible waterproof sleeve 25 is made of a transparent material. This transparent flexible waterproof sleeve 25 can be fixed to the frame assembly 21 using an adhesive that covers the outer perimeter of the button 24. The adhesive used here is transparent. The transparent flexible waterproof sleeve 25 is flexible and is directly fixed to the frame assembly 21 via the adhesive, facilitating the connection between the transparent flexible waterproof sleeve 25 and the frame assembly 21. Users can directly press the transparent flexible waterproof sleeve 25 to deform it and compress the button 24, thereby triggering the button 24. This provides good waterproofing for the button 24 while also effectively improving the safety of triggering the button 24 when the surface of the transparent flexible waterproof sleeve 25 is wet or when the user's hands are wet.

[0040] In this embodiment, as Figures 8 to 9As shown, the power grid 22 includes a positive electrode assembly 221, a negative electrode assembly 222, and at least one connecting strip 223; the positive electrode assembly 221 includes a positive electrode connection portion 2211 and multiple positive electrode strip portions 2212 sequentially connected to the positive electrode connection portion 2211; the negative electrode assembly 222 includes a negative electrode connection portion 2221 and multiple negative electrode strip portions 2222 sequentially connected to the negative electrode connection portion 2221; the multiple positive electrode strip portions 2212 and the multiple negative electrode strip portions 2222 are arranged alternately and are located between the positive electrode connection portion 2211 and the negative electrode connection portion 2221; at least one connecting strip 223 connects the multiple positive electrode strip portions 2212 and the multiple negative electrode strip portions 2222 into one unit. The electric grid 22 is designed to kill mosquitoes through its positive and negative electrode structure. When a mosquito lands on the grid 22, it comes into contact with the adjacent positive electrode strips 2212 and negative electrode strips 2222, forming a conductive loop. Current flows through this loop, electrocuting the mosquito. The connecting strip 223 serves to fix multiple positive electrode strips 2212 and multiple negative electrode strips 2222 together, and also acts as an insulator between the positive and negative electrodes. Since the connecting strip 223 serves both insulating and fixing functions, and is located in the middle of the entire frame assembly 21, with multiple positive electrode strips 2212 and multiple negative electrode strips 2222 alternating, it is preferable to use a transparent material for the connecting strip 223 to make the structure clearer.

[0041] In this embodiment, as Figures 8 to 9 As shown, the number of at least one connecting strip 223 includes two. One connecting strip 223 is set near the positive terminal connection part 2211, and the other connecting strip 223 is set near the negative terminal connection part 2221. Setting two connecting strips 223 can achieve the function of fixing insulation, save processes, improve production efficiency, and save materials. It is best to set the two connecting strips 223 to be parallel to each other, so as to make the appearance neater, the texture higher, and facilitate the clear division and installation of the structure.

[0042] In this embodiment, as Figures 8 to 9 As shown, at least one connecting strip 223 is made of transparent material, preferably all connecting strips 223 are made of transparent material, which facilitates clear division and installation of the structure; multiple positive electrode strips 2212 and multiple negative electrode strips 2222 are parallel to each other, and at least one connecting strip 223 is perpendicular to multiple positive electrode strips 2212 and multiple negative electrode strips 2222. This structure makes the appearance of the solar mosquito killer device neater, more orderly and clearly visible, improving the user experience.

[0043] Furthermore, such as Figure 8 and Figure 9As shown, in order to achieve the connection between the connecting strip 223 and multiple positive electrode strips 2212 and multiple negative electrode strips 2222, during the manufacturing process of the positive electrode assembly 221, at least one first hook 2213 is formed on each positive electrode strip 2212, and during the manufacturing process of the negative electrode assembly 222, at least one second hook 2223 is formed on each negative electrode strip 2222. The connecting strip 223 is fixed on the first hook 2213 and the second hook 2223. In this way, multiple positive electrode strips 2212 and multiple negative electrode strips 2222 can be connected together through the connecting strip 223, making the overall structure of the power grid 22 more stable and effectively preventing the multiple positive electrode strips 2212 and multiple negative electrode strips 2222 from swinging and bending under the action of external forces such as wind.

[0044] In this embodiment, as Figure 6 , Figure 10 , Figure 11 and Figure 12 As shown, the solar-powered mosquito killer device also includes an electrical connection component 4. The solar module 1 is electrically connected to the mosquito killer module 2 through the electrical connection component 4. The electrical connection component 4 includes a first electrical connector 41 and a second electrical connector 42. The first electrical connector 41 is connected to the solar module 1 through a first wire 41a, and the second electrical connector 42 is connected to the mosquito killer module 2 through a second wire 42a. The first electrical connector 41 and the second electrical connector 42 are detachably electrically connected. In this way, the solar module 1 achieves a detachable electrical connection with the mosquito killer module 2 through the second electrical connector 42 and the first electrical connector 41. The solar module 1, the mosquito killer module 2, and the electrical connection component 4 are modularly designed to be independent of each other, which facilitates user disassembly, assembly, and replacement of parts, as well as parts repair.

[0045] In this embodiment, as Figure 6 , Figure 10 , Figure 11 and Figure 12As shown, one of the first electrical connector 41 and the second electrical connector 42 includes a hole-end connector 401, and the other of the first electrical connector 41 and the second electrical connector 42 includes a pin-end connector 402. The pin 4022 of the pin-end connector 402 is inserted into the hole 4012 of the hole-end connector 401 to contact and electrically connect with another pin of the hole-end connector 401. The pin 4022 of the pin-end connector 402 has a surrounding wall 4023, which covers the outer surface of the hole-end connector 401. A waterproof sealing ring 43 is also provided between the inner surface of the surrounding wall 4023 of the pin-end connector 402 and the outer surface of the hole-end connector 401. The waterproof sealing ring 43 can be made of, but is not limited to, elastic materials such as rubber or silicone. When the needle end connector 402 and the hole end connector 401 are inserted into each other, the inner surface of the surrounding wall 4023 of the needle end connector 402 and the outer surface of the hole end connector 401 press against the waterproof sealing ring 43. The waterproof sealing ring 43 deforms under force to make an interference fit with the inner surface of the surrounding wall 4023 of the needle end connector 402 and the outer surface of the hole end connector 401, thereby achieving the function of waterproof sealing. The structure is simple and easy to implement.

[0046] In this embodiment, as Figures 10 to 12 As shown, the outer surface of the enclosure 4023 of the needle connector 402 is provided with an external thread 4021. The electrical connection assembly 4 also includes a connecting cover 44, which is sleeved around the periphery of the hole connector 401. The inner wall surface of the connecting cover 44 is provided with an internal thread 441. After the needle connector 402 is inserted into the hole connector 401, the internal thread 441 of the connecting cover 44 is used to connect with the external thread 4021 of the needle connector 402 to fix the first electrical connector 41 and the second electrical connector 42. After the needle connector 402 is inserted into the hole connector 401, the user can rotate the connecting cover 44 sleeved on the hole connector 401 to make the internal thread 441 on the inner wall surface of the connecting cover 44 threadedly connected with the external thread 4021 on the outer surface of the enclosure 4023 of the needle connector 402. In this way, the relative position between the needle connector 402 and the hole connector 401 can be fixed by means of threaded connection. The structure is simple and the connection is firm. The operation is simple and convenient for users. In addition, the threaded connection of the connecting cover 44, combined with the waterproof sealing ring 43, enables a stable electrical connection between the needle end connector 402 and the hole end connector 401, and also provides a good waterproof seal, effectively preventing liquid from seeping into the pin 4022 of the needle end connector 402 and the hole 4012 of the hole end connector 401.

[0047] In this embodiment, as Figures 10 to 12As shown, a limiting protrusion 4011 is provided on the outer side of the end connector 401. A waterproof sealing ring 43 is disposed on the end connector 401 and close to the limiting protrusion 4011. When the needle end connector 402 is inserted into the end connector 401, the end face of the needle end connector 402 presses against the waterproof sealing ring 43, and the connecting cover 44 covers the waterproof sealing ring 43. By designing the limiting protrusion 4011, the limiting protrusion 4011 provides support for the waterproof sealing ring 43. When the needle end connector 402 is inserted into the end connector 401, the inner surface of the surrounding wall 4023 of the needle end connector 402 and the outer surface of the end connector 401 press against the waterproof sealing ring 43, causing the waterproof sealing ring 43 to deform under force and press against the limiting protrusion 4011. On the other hand, the limiting protrusion 4011 prevents the waterproof sealing ring 43 from loosening due to the pressure, thus playing a good limiting role for the waterproof sealing ring 43.

[0048] In this embodiment, as Figures 10 to 12 As shown, the needle connector 402 is provided with a guide shaft 4024, and the hole connector 401 is provided with a guide groove 4013. The guide shaft 4024 is used for insertion into the guide groove 4013. If the user is too hasty in inserting the pin 4022 of the needle connector 402 into the hole 4012 of the hole connector 401, and the pin 4022 is not accurately inserted into the hole 4012 of the hole connector 401, the end of the pin 4022 connected to the needle connector body may easily loosen, leading to damage to the needle connector 402. However, by setting the guide shaft 4024 and the guide groove 4013, the guide shaft 4024 and the guide groove 4013 play a calibration and positioning role. The user inserts the needle connector 402 and the hole connector 401 after aligning the guide shaft 4024 with the guide groove 4013, thus protecting the needle connector 402 and extending its service life. Alternatively, the needle end connector 402 may be provided with a guide groove 4013, and the hole end connector 401 may be provided with a guide shaft 4024, which is used to be inserted into the guide groove 4013.

[0049] In this embodiment, as Figure 2 , Figure 13 and Figure 14As shown, the frame assembly 21 includes two mounting posts 211, a top beam 212, a bottom beam 213, and two protective nets 214. The two mounting posts 211, the top beam 212, the bottom beam 213, and the two protective nets 214 are interconnected to form a frame. The two mounting posts 211 are arranged opposite each other, the top beam 212 and the bottom beam 213 are arranged opposite each other, and the two protective nets 214 are arranged opposite each other. Each of the two mounting posts 211 is provided with a first insertion hole 2111 for mounting the two ends of the power grid 22. The control component 23 and the button 24 are both mounted on one of the mounting posts 211. By designing the mounting posts 211, the top beam 212, the bottom beam 213, and the protective nets 214, and assembling and connecting them to form a frame, it is convenient to install and disassemble the various components in the frame assembly 21. By designing first insertion holes 2111 on the two mounting posts 211 for inserting the two ends of the power grid 22, the power grid 22 can be fixed without the need for screws or other parts, which facilitates the installation between the power grid 22 and the frame assembly 21, making the assembly more convenient and faster and saving processes.

[0050] In this embodiment, as Figure 2 , Figure 13 and Figure 14 As shown, the mosquito-killing module 2 also includes at least one mosquito-attracting lamp 26, which is electrically connected to the control component 23. The mosquito-attracting lamp 26 attracts mosquitoes into the frame component 21 by emitting light. Each of the two mounting posts 211 has a second insertion hole 2112 for mounting the mosquito-attracting lamp 26 at both ends. The mosquito-attracting lamp 26 can be an LED light, and the aforementioned button 24 can also be a brightness adjustment button for the mosquito-attracting lamp 26. By providing the second insertion hole 2112 on the two mounting posts 211, the mosquito-attracting lamp 26 is installed between itself and the two mounting posts 211 by inserting into the second insertion hole 2112. This eliminates the need for screws or other parts to fix the mosquito-attracting lamp 26, making assembly more convenient and faster, and saving steps. Each of the two mounting posts 211 has a fixing groove 2113 on both sides near the protective net 214, and the two ends of the protective net 214 are installed in the fixing groove 2113. By designing a fixing groove 2113 on the mounting post 211, the protective net 214 is installed between the protective net 214 and the mounting post 211 by inserting it into the fixing groove 2113. In this way, the protective net 214 can be fixed without screws or other parts, making the assembly more convenient and faster and saving processes.

[0051] Specifically, such as Figure 15 and Figure 16As shown, the mosquito-attracting lamp 26 includes a lampshade 261 and a circuit board assembly 262. The lampshade 261 includes a cover body 2611 and a fixing part 2612. The end of the cover body 2611 is inserted into a second insertion hole 2112. The fixing part 2612 is fixedly connected to the inner surface of the cover body 2611, and the fixing part 2612 and the cover body 2611 can be an integrally formed structure made of the same material. The circuit board assembly 262 includes a circuit board 2621 and multiple light-emitting elements 2622. The circuit board 2621 is a strip extending along the length direction of the mosquito-killing module 2. The circuit board 2621 is fixed on the fixing part 2621, and the multiple light-emitting elements 2622 can be fixed on the circuit board 2621. Specifically, the fixing part 2612 may include two L-shaped fasteners arranged opposite each other, so that the fixing part 2612 and the cover body 2611 can form a storage groove. The circuit board assembly 262 can slide from one end of the lampshade 261 into the storage groove and be fixed on the fixing part 2621 and in the storage groove. Circuit board 2621 is electrically connected to control component 23, and light-emitting element 2622 is disposed on circuit board 2621 and electrically connected to circuit board 2621. Light-emitting element 2622 can be LED.

[0052] The light-emitting element 2622 can be an ultraviolet LED, and the peak wavelength of the light emitted can fall within the range of 360nm to 405um. In addition, the peak wavelengths of the light emitted by multiple light-emitting elements 2622 can be slightly different, such as 365nm, 370nm, 395nm, 397um, 400nm, etc.

[0053] In one embodiment, for multiple light-emitting elements 2622, the peak wavelength difference between the light-emitting element 2622 with the largest peak wavelength and the light-emitting element 2622 with the smallest peak wavelength is generally within 5 nm, specifically within 3 nm (wherein the error value of the data endpoints in the data range does not exceed ±0.5 nm). It can be understood that the peak wavelength refers to the wavelength point where the spectral radiant energy or light intensity reaches its maximum value. In other words, it is the wavelength of the point with the highest light intensity on the spectral curve.

[0054] In some embodiments, the peak wavelength range of the multiple light-emitting elements 2622 can be set according to actual needs, such as between a first peak wavelength range of 369nm-372nm, a second peak wavelength range of 395nm-400nm, a third peak wavelength range of 397nm-400nm, or a fourth peak wavelength range of 400nm-403nm (the error value of each data endpoint does not exceed ±0.5nm). In this way, the setting of the peak wavelength can make the radiation energy of the multiple light-emitting elements 2622 more concentrated, and have a better mosquito-attracting effect.

[0055] Of course, in other embodiments, the plurality of light-emitting elements 2622 may also include a plurality of first light-emitting elements 2622a and a plurality of second light-emitting elements 2622b. The plurality of first light-emitting elements 2622a and the plurality of second light-emitting elements 2622b may be arranged alternately on the circuit board 2621. The peak wavelength range of the plurality of first light-emitting elements 2622a may be different from the peak wavelength range of the plurality of second light-emitting elements 2622b. For example, the peak wavelength range of the plurality of first light-emitting elements 2622a may be between 369nm and 372nm, and the peak wavelength range of the plurality of second light-emitting elements 2622b may be between 395nm and 400nm. With the above arrangement, the mosquito-attracting lamp 26 can not only attract mosquitoes, but also attract moths and flies, achieving a better mosquito and flying insect control effect.

[0056] In one embodiment, the light-emitting element 2622 may further include a light-emitting chip and a convex lens structure disposed above the light-emitting chip. The convex lens structure is used to focus the light emitted by the light-emitting chip. In particular, when used with the light-emitting element 2622 with a peak wavelength between 369nm and 372nm, it can better focus the energy of low-wavelength light to achieve a better mosquito-attracting effect.

[0057] In this embodiment, as Figure 2 , Figure 13 and Figure 14 As shown, each of the two mounting posts 211 has a first placement groove 2131 for placing the two ends of the bottom beam 213 and a second placement groove 2121 for placing the two ends of the top beam 212. By setting the first placement groove 2131 at the bottom of the inner side of the two mounting posts 211, the two ends of the bottom beam 213 are respectively inserted into the first placement groove 2131 of the two mounting posts 211. The bottom beam 213 is installed between itself and the two mounting posts 211 by inserting it into the first placement groove 2131. In this way, the bottom beam 213 can be fixed without screws or other parts, making the assembly more convenient and faster and saving process. By setting a second placement groove 2121 at the top of the inner side of the two mounting columns 211, the two ends of the top beam 212 are respectively inserted into the second placement groove 2121 of the two mounting columns 211. The installation between the top beam 212 and the two mounting columns 211 is achieved by inserting the top beam 212 into the second placement groove 2121. In this way, the top beam 212 can be fixed without screws or other parts, making the assembly more convenient and quick, and saving process.

[0058] In this embodiment, as Figure 2As shown, both mounting posts 211 are box-shaped structures, each including a box body 201 and a cover 202. The cover 202 is detachably fitted onto the box body 201, and the control component 23 is located between the box body 201 and the cover 202. The cover 202 can be detachably connected to the box body 201 by at least one of the following methods: screwing, snap-fitting, or plugging. By designing both mounting posts 211 as detachably connected box bodies 201 and covers 202, it is convenient for maintenance personnel to remove the cover 202 to inspect and repair components such as the control component 23 installed inside the mounting posts 211.

[0059] In this embodiment, as Figure 2 As shown, the extended directions of the tops of the two mounting columns 211 are tapered. The solar module 1 is mounted on the mounting column 211 by bolts 5 and is mounted on the tapered end 211a of the mounting column 211. The tapered end 211a of the mounting column 211 facilitates the installation of the solar module 1 and improves the appearance. It is recommended to use hand-tightening bolts 5, which is convenient for workers to install and for users to disassemble without tools. If the solar module 1 is not used indoors, it can be removed by turning the bolts 5, so that the solar mosquito killer device in this embodiment can be used in multiple scenarios.

[0060] It should be noted that the bolt 5 includes a cap 51 and a stud 52 fixedly connected to the cap 51. The user can rotate the stud 52 by holding the cap 51 and rotating the cap 51, thereby enabling the installation and removal of the solar module 1 from the tapered end 211a of the mounting post 211.

[0061] In this embodiment, as Figure 17 As shown, the bottom of the frame assembly 21 is provided with at least one mounting hole 210 for inserting one end of the support module 3, and the other end of the support module 3 is used to mount it on an external carrier. The external carrier can be, but is not limited to, soil or cement ground in an outdoor environment. By designing at least one mounting hole 210 for inserting the support module 3 on the frame assembly 21 (specifically, the bottom beam 213 described above), a detachable connection between the support module 3 and the frame assembly 21 can be achieved. When the solar-powered mosquito killer is used indoors, the user can remove the support module 3 from the frame assembly 21 as needed to reduce the overall space occupancy of the solar-powered mosquito killer. When the solar-powered mosquito killer is used outdoors, the user can assemble the support module 3 onto the frame assembly 21 through the mounting hole 210 as needed, so that the support module 3 effectively supports the mosquito killer module 2, thereby facilitating the fixation of the solar-powered mosquito killer in an outdoor environment.

[0062] In this embodiment, as Figure 17As shown, the support module 3 includes multiple inserts 31 that can be stably inserted into the ground surface; the number of at least one mounting hole 210 corresponds to the number of inserts 31 (that is, each mounting hole 210 is used to insert one insert 31). The mounting hole 210 can be a threaded hole, in which case the insert 31 (specifically, the support column 310 described below) is threadedly connected to the threaded hole to achieve installation between the insert 31 and the frame assembly 21; the mounting hole 210 can also be a snap-fit ​​hole, in which case the insert 31 (specifically, the support column 310 described below) engages with the snap-fit ​​hole to achieve installation between the insert 31 and the frame assembly 21.

[0063] Specifically, the insert 31 includes a support post 310 inserted into the mounting hole 210 at the top and a grounding insert 311 disposed at the bottom of the support post 310. The grounding insert 311 includes a grounding structure 3111 and a connecting post 3112 extending into an opening 310a at the bottom of the support post 310. The connecting post 3112 is interference-fitted with or threaded to the opening 310a at the bottom of the support post 310. The connection between the connecting post 3112 and the grounding structure 3111 can be detachable or non-detachable. For example, when the connection between the connecting post 3112 and the grounding structure 3111 is detachable, the connecting post 3112 can be fixedly connected to the grounding structure 3111 by means of screwing, snap-fitting, or plugging, but is not limited to this. Conversely, when the connection between the connecting post 3112 and the grounding structure 3111 is non-detachable, the connecting post 3112 can be fixedly connected to the grounding structure 3111 by means of riveting or welding, but is not limited to this. When the connecting post 3112 is interference-fitted with the opening 310a at the bottom of the support post 310, the opening 310a at the bottom of the support post 310 becomes a snap-fit ​​hole. In this case, the connecting post 3112 acts as a snap-fit ​​post, inserted into the snap-fit ​​hole at the bottom of the support post 310. The outer surface of the snap-fit ​​post is interference-fitted with the wall of the snap-fit ​​hole, thus connecting the grounding plug 311 and the support post 310 through the snap-fit ​​engagement of the snap-fit ​​post and the snap-fit ​​hole. When the connecting post 3112 is threadedly connected to the opening 310a at the bottom of the support post 310, the opening 310a at the bottom of the support post 310 becomes a threaded hole. In this case, the connecting post 3112 acts as a stud, threadedly connecting to the threaded hole. Thus, connecting the grounding plug 311 and the support post 310 through the threaded engagement of the stud and the threaded hole.

[0064] In this embodiment, as Figure 17 As shown, the grounding structure 3111 includes a U-shaped structure 3111a. By designing the grounding structure to include, for example... Figure 17 The U-shaped structure 3111a shown makes it easy for the ground-insertion structure 3111 to be inserted into the soil or cement ground in the outdoor environment, so that the support module 3 can effectively support the mosquito-killing module 2, thereby facilitating the fixation of the solar mosquito-killing device in the outdoor environment.

[0065] In this embodiment, as Figure 18 As shown, the grounding structure 3111 includes multiple ring-connected grounding strips 3111b with barbed structures. The grounding structure 3111 is designed to include, for example... Figure 18 The ground insertion strip 3111b shown has a barbed structure, which makes it easy for the ground insertion structure 3111 to be inserted into the soil or cement ground in the outdoor environment, so that the support module 3 can effectively support the mosquito killing module 2, thereby facilitating the fixation of the solar mosquito killing device in the outdoor environment.

[0066] Understandably, more insert strips 3111b can increase the stability of the fixation.

[0067] Furthermore, such as Figure 4 As shown, button 24 can have multiple settings, which correspond to different states of mosquito killing module 2. Specifically, the multiple settings can be automatic (AUTO), off (OFF), and on (ON), which correspond to automatic working state, normally off state, and normally on state, respectively.

[0068] In automatic operation, the mosquito-killing module 2 can automatically switch between off and on mosquito-killing states based on the operating status of the solar module 1. Specifically, during the day, when the solar module 1 receives sunlight and converts it into electrical energy (i.e., the solar module 1 is in normal operating condition), the mosquito-killing module 2 can obtain a detection signal and thus know that the solar module 1 is in normal operating condition. At this time, the mosquito-killing module 2 enters the off mosquito-killing state, meaning that the mosquito-attracting lamp 26 and the power grid 22 are not turned on, but the mosquito-killing module 2 can receive electrical energy to charge the internal battery 8. When it gets late at night, the solar module 1 cannot obtain enough sunlight and enters an abnormal operating state. At this time, the mosquito-killing module 2, based on the detection signal, knows that the solar module 1 is in an abnormal operating state and thus enters the on mosquito-killing state. At this time, the battery 8 supplies power to the mosquito-attracting lamp 26 and the power grid 22, and the mosquito-attracting lamp 26 and the power grid 22 turn on to kill mosquitoes.

[0069] Furthermore, such as Figure 2 As shown, the mosquito-killing module 2 may also have a power supply interface 29, which is electrically connected to the main circuit board 28 of the control component 23. The power supply interface 29 may be located above the button 24 and may be a USB interface. The power supply interface 29 may be exposed through another opening 292 on the frame component 21 to connect to an external power source. A protective cap 291 may also be detachably connected to the power supply interface 29. The protective cap 291 may have an identification pattern to indicate the type of the power supply interface, such as a USB interface or a Type-C interface.

[0070] like Figure 19As shown, the control component 23 of the mosquito killing module 2 may include a control chip U1. The power supply terminal VIN of the control chip U1 is electrically connected to the power supply interface 29 and the solar module 1 via the node VYH. The output terminal LX of the control chip U1 is electrically connected to the battery 8 via the node VK. Specifically, the control chip U1 obtains electrical energy from at least one of the power supply interface 29 and the solar module 1 to operate and charge the battery 8.

[0071] In one embodiment, the output terminal LX of the control chip U1 can provide a charging voltage to the battery 8. In this case, the supply current of the battery 8 is preferably less than a predetermined value (e.g., 1A). In another embodiment, the output terminal LX of the control chip U1 provides a charging voltage to the battery 8 through an inductor L1. The oscillation of the inductor L1 can improve the heat generation of the control chip U1 during charging. In addition, the control chip U1 can also control the charging signal output by the output terminal LX according to the real-time voltage of the battery 8. For example, in the initial charging stage of the battery 8, if the voltage of the battery 8 is in the first voltage range (e.g., less than 2.5V), the control chip U1 can control the charging signal of the output terminal LX to charge the battery 8 at the first operating current. If in the middle charging stage of the battery 8, if the voltage of the battery 8 is in the second voltage range (e.g., greater than or equal to 2.5V and less than or equal to 4.1V), the control chip U1 can control the charging signal of the output terminal LX to charge the battery 8 at the second operating current (e.g., greater than the first operating current). If in the later charging stage of the battery 8, if the voltage of the battery 8 is in the third voltage range (e.g., greater than 4.1V), the control chip U1 can control the charging signal of the output terminal LX to charge the battery 8 at a preset operating voltage (e.g., 4.2V).

[0072] like Figure 20 The circuit diagram shown includes a button 24, which may include (or be equivalent to) a first switch K1 and a second switch K2. Through the first switch K1, the second switch K2, and the switch control circuit 232, the mosquito-killing module 2 can switch between automatic operation, normally off, and normally on states. Furthermore, in automatic operation, the mosquito-killing module 2 can automatically switch between off and on states based on the operating status of the solar module 1.

[0073] Specifically, the second switch K2 is connected between the solar module 1 and the switch Q2 (and the battery 8 and the switch Q2), and the first switch K1 is connected in parallel with the switch Q2.

[0074] It can be understood that the switch control circuit 232 is electrically connected to the solar module 1 and to the power grid 22 and / or mosquito-attracting lamp 26 of the battery 8 and mosquito-killing module 2. Under the control of the switch control circuit 232, the mosquito-killing module 2 can automatically enter or exit the mosquito-killing state according to the working state of the solar module 1. Specifically, the switch control circuit 232 may include switches Q2, Q3, and Q4. The two conducting terminals of switch Q2 are respectively connected between the button 24 and the mosquito-killing module 2. The control terminal of switch Q2 is grounded through the two conducting terminals of switch Q3, the control terminal of switch Q3 is grounded through the two conducting terminals of switch Q4, and the control terminal of switch Q4 is electrically connected to the solar module 1. Switch Q2 can be a field-effect transistor, and switches Q3 and Q4 can be bipolar transistors.

[0075] In the normally closed state, the second switch K2 is open and the first switch K1 is open, so the solar module 1 and the battery 8 cannot supply power to the mosquito-killing module 2, and the mosquito-killing module 2 is in the closed state; in the normally open state, the second switch K2 is on and the first switch K1 is on, so at least one of the solar module 1 and the battery 8 supplies power to the mosquito-killing module 2, and the mosquito-killing module 2 is in the open state.

[0076] In automatic operation, the second switch K2 is on and the first switch K1 is off. The voltage at the output terminal SUN IN of the solar module 1 controls switches Q4, Q3, and Q2, thereby further controlling the on / off state of switch Q2. During the day, when the output terminal SUN IN of the solar module 1 has sufficient voltage to control switch Q2 to be off via switches Q4 and Q3 (at this time, switch Q4 is on, switch Q3 is off, and switch Q2 is off), the solar module 1 supplies power to the mosquito-killing module 2 via the first switch K1. In the evening or at night, when the output terminal SUN IN of the solar module 1 does not have sufficient voltage to control switch Q4 to be off, switch Q3 is on, switch Q2 is on, and battery 8 supplies power to the mosquito-killing module 2 via switch Q2.

[0077] Furthermore, the power supply voltage V1 output by the solar module 1 or battery 8 can be a low DC voltage, such as a DC voltage between 3V and 4.2V. An isolation circuit 234 can also be provided between the solar module 1 and the button 24. The isolation circuit 234 can include multiple unidirectional diodes (such as D3, D5, and D7). A unidirectional element D4 can also be provided between the battery 8 and the button 24.

[0078] like Figure 19 and Figure 20As shown, the control component 23 may further include a boost circuit 233. The supply voltage V1 can be further provided to the input terminal IN of the boost circuit 233. The boost circuit 233 includes a boost device T1 (such as a winding) to boost the supply voltage V1, and then outputs a drive voltage from the first output terminal VNU and the second output terminal VU1. The two ends of the first output terminal VNU and the second output terminal VU1 are respectively used to connect the positive terminal component 221 and the negative terminal component 222 of the power grid 22. Specifically, the first output terminal VNU and the second output terminal VU1 can be connected to a first connector, and the positive terminal component 221 and the negative terminal component 222 of the power grid 22 can be connected to a second connector. The first connector and the second connector are plugged together to realize the electrical connection between the first output terminal VNU, the second output terminal VU1 and the power grid 22.

[0079] Example 2

[0080] Please see Figures 21 to 22 This application provides a solar-powered mosquito killer device in Embodiment 2. It should be noted that the solar-powered mosquito killer device in Embodiment 2 is structurally similar to the solar-powered mosquito killer device in Embodiment 1 of this application (and can be referred to the description in Embodiment 1 above). The following description focuses only on the differences between the solar-powered mosquito killer device in Embodiment 2 and the solar-powered mosquito killer device in Embodiment 1.

[0081] In this embodiment, as Figures 21 to 22 As shown, the solar-powered mosquito killer device also includes a mounting piece 6 that connects to the frame assembly 21. The mounting piece 6 is electrically connected to the control assembly 23 and has an electrical connection mounting part 61. The electrical connection mounting part 61 is used to detachably connect the lighting lamp 9 of the solar-powered mosquito killer device, so that the control assembly 23 supplies power to the lighting lamp 9.

[0082] It is understood that the solar-powered mosquito killer also includes a battery 8 that is electrically connected to the control component 23. The solar module 1 converts solar energy into electrical energy and stores excess electrical energy in the battery 8. The battery 8 can be installed inside the aforementioned frame component 21 or on the solar module 1.

[0083] When the battery 8 is mounted on the frame assembly 21, one end of the electrical connection assembly 4 is connected to the solar module 1, and the other end of the electrical connection assembly 4 is connected to the first connector 81 of the battery 8. The electrical connection mounting part 61 of the mounting part 6 is connected to the second connector 91 of the lighting lamp 9, and the other electrical connection mounting part 62 of the mounting part 6 is connected to the first connector 81 of the battery 8. When the electrical connection mounting part 61 of the mounting part 6 is disconnected from the second connector 91 of the lighting lamp 9 and / or the other electrical connection mounting part 62 of the mounting part 6 is disconnected from the first connector 81 of the battery 8, the power supply circuit between the battery 8 and the lighting lamp 9 is broken, and the control assembly 23 cannot control the battery 8 to supply power to the lighting lamp 9. When the electrical connection mounting part 61 of the mounting part 6 is installed on the second connector 91 of the lighting lamp 9, and the other electrical connection mounting part 62 of the mounting part 6 is installed on the first connector 81 of the battery 8, the power supply circuit between the battery 8 and the lighting lamp 9 is connected, and the control assembly 23 can control the battery 8 to supply power to the lighting lamp 9.

[0084] In this embodiment, the lighting lamp 9 includes a lamp body 92, a bracket 93, and a connecting structure 94. The lamp body 92 is connected to the bracket 93 via the connecting structure 94, and the bracket 93 is connected to the frame assembly 21 (specifically, the mounting post 211 mentioned above). The bracket 93 includes a frame body 931 and a connecting ball head 932. One end of the frame body 931 has a U-shaped structure for engaging with the mounting post 211 of the frame assembly 21, and the other end of the frame body 931 is fixedly connected to the connecting ball head 932. The connecting structure 94 includes a first latching seat 941 and a second latching seat 942. The first latching seat 941 is fixedly connected to the bottom of the lamp body 92. The second latching seat 942 includes a base 9421, connecting walls 9422, and a locking sleeve 9423. The base 9421 is fixedly connected to the first latching seat 941 by a snap-fit ​​mechanism, and the base 9421 is detachable from the first latching seat 941. There are multiple connecting walls 9422 (two or more), which are cantilevered and fixedly connected to the base 9421. The connecting walls 9422 together enclose a cavity 9422a for inserting the connecting ball head 932. The outer surfaces of the multiple connecting walls 9422 are provided with external threads. The locking sleeve 9423 is sleeved around the multiple connecting walls 9422, and the inner surface of the locking sleeve 9423 is provided with internal threads. By rotating the locking sleeve 9423, the locking sleeve 9423 is threadedly connected to the multiple connecting walls 9422. The multiple connecting walls 9422 deform and converge inward to clamp the connecting ball head 932. In this way, the installation between the lamp body 92 and the bracket 93 can be realized.

[0085] Example 3

[0086] Please see Figure 23This application provides a solar-powered mosquito killer device in Embodiment 3. It should be noted that the solar-powered mosquito killer device in Embodiment 3 is structurally similar to the solar-powered mosquito killer device in Embodiment 1 of this application (and can be referred to the description in Embodiment 1 above). The following description focuses on the differences between the solar-powered mosquito killer device in Embodiment 4 and the solar-powered mosquito killer device in Embodiment 3.

[0087] In this embodiment, as Figure 23 As shown, the solar-powered mosquito-killing device also includes a hanging chain 7. The frame assembly 21 (specifically the two mounting posts 211 described above) has hanging chain connecting parts 71 on opposite sides. The two ends of the hanging chain 7 are detachably connected to the two hanging chain connecting parts 71, and the hanging chain 7 is used to hang the mosquito-killing module 2 on an external object. The hanging chain 7 can be detachably connected to the hanging chain connecting parts 71 by at least one of the following methods: hooking, screwing, snapping, or plugging. By designing the hanging chain 7, when the support module 3 is detached from the mosquito-killing module 2, the mosquito-killing module 2 can be hooked onto an object such as a tree branch or hook via the hanging chain 7, thus enabling multi-scenario use of the solar-powered mosquito-killing device in this application.

[0088] It should be understood that the application of this application is not limited to the examples above. Those skilled in the art can make improvements or modifications based on the above description, and all such improvements and modifications should fall within the protection scope of the appended claims.

Claims

1. A solar mosquito eradication device, characterized in that, include: Solar module; A mosquito-killing module, located on one side of the solar module, includes a frame assembly, an electrical grid located in the frame assembly, a control component electrically connected to the electrical grid, a button disposed on the frame assembly and electrically connected to the control component, and a flexible waterproof cover covering the button; as well as A support module is connected to the mosquito-killing module to support the mosquito-killing module.

2. The solar mosquito eradication device of claim 1, wherein, The flexible waterproof sleeve includes a main body portion that can cover the button and a connecting portion that connects to the main body portion, the connecting portion being fixed to the frame assembly.

3. The solar mosquito eradication device of claim 1, wherein, The flexible waterproof sleeve is made of transparent material and is fixed to the frame assembly by an adhesive and covers the periphery of the button.

4. The solar mosquito eradication device of claim 1, wherein, The power grid includes a positive electrode assembly, a negative electrode assembly, and at least one connecting strip. The positive electrode assembly includes a positive electrode connection portion and multiple positive electrode strip portions connected sequentially to the positive electrode connection portion. The negative electrode assembly includes a negative electrode connection portion and multiple negative electrode strip portions connected sequentially to the negative electrode connection portion. The multiple positive electrode strip portions and the multiple negative electrode strip portions are arranged alternately and are located between the positive electrode connection portion and the negative electrode connection portion. At least one connecting strip connects the multiple positive electrode strip portions and the multiple negative electrode strip portions together.

5. The solar mosquito eradication device of claim 4, wherein, The number of the at least one connecting strip includes two, one of which is disposed near the positive electrode connection portion and the other is disposed near the negative electrode connection portion; the two connecting strips are parallel to each other; the at least one connecting strip is made of transparent material; the plurality of positive electrode strip portions and the plurality of negative electrode strip portions are all parallel to each other, and the at least one connecting strip is perpendicular to the plurality of positive electrode strip portions and the plurality of negative electrode strip portions.

6. The solar mosquito eradication device of claim 1, wherein, The solar module is electrically connected to the mosquito-killing module via an electrical connection assembly. The electrical connection assembly includes a first electrical connector and a second electrical connector. The first electrical connector is connected to the solar module via a first wire, and the second electrical connector is connected to the mosquito-killing module via a second wire. The first electrical connector and the second electrical connector are detachably electrically connected.

7. The solar mosquito eradication device of claim 6, wherein, One of the first electrical connector and the second electrical connector includes a hole-end connector, and the other of the first electrical connector and the second electrical connector includes a pin-end connector. The pin of the pin-end connector is used to insert into the hole of the hole-end connector and contact and electrically connect with the other pin of the hole-end connector. The pin of the pin-end connector has a surrounding wall, which covers the outer surface of the hole-end connector. A waterproof sealing ring is also provided between the inner surface of the surrounding wall of the pin-end connector and the outer surface of the hole-end connector. The pin-end connector is provided with a guide shaft, and the hole-end connector is provided with a guide groove. The guide shaft is used to be inserted into the guide groove. Alternatively, the pin-end connector is provided with a guide groove, and the hole-end connector is provided with a guide shaft. The guide shaft is used to be inserted into the guide groove.

8. The solar mosquito eradication device of claim 7, wherein, The outer surface of the enclosure of the needle end connector is provided with external threads. The electrical connection assembly also includes a connecting cover. The inner wall surface of the connecting cover is provided with internal threads. After the needle end connector is inserted into the hole end connector, the internal threads of the connecting cover are used to connect with the external threads to fix the first electrical connector and the second electrical connector.

9. The solar mosquito eradication device of claim 1, wherein, The frame assembly includes two mounting posts, a top beam, a bottom beam, and two protective nets. The two mounting posts, the top beam, the bottom beam, and the two protective nets are interconnected to form a frame. The two mounting posts are arranged opposite each other, the top beam and the bottom beam are arranged opposite each other, and the two protective nets are arranged opposite each other. Each mounting post has a first insertion hole for mounting at both ends of the power grid. The control component and the button are both mounted on one of the mounting posts; or... The bottom of the frame assembly is provided with at least one mounting hole for inserting one end of the support module. The other end of the support module is used to mount it on an external carrier. The support module includes multiple inserts that can be stably inserted into the ground surface. The number of the at least one mounting hole corresponds to the number of the multiple inserts; or, The solar-powered mosquito killer device further includes a mounting component connecting to the frame assembly. This mounting component is electrically connected to the control assembly and has an electrical connection mounting portion for detachably connecting a light source to the solar-powered mosquito killer device, allowing the control assembly to supply power to the light source; or... The solar-powered mosquito-killing device also includes a hanging chain. The frame assembly has hanging chain connecting parts on opposite sides. The two ends of the hanging chain are detachably connected to the two hanging chain connecting parts, and the hanging chain is used to hang the mosquito-killing module on an external object.

10. The solar-powered mosquito-killing device according to claim 9, characterized in that, The mosquito-killing module also includes at least one mosquito-attracting lamp. Each of the two mounting posts has a second insertion hole for mounting the at least one mosquito-attracting lamp at both ends. Fixing grooves are provided on both sides of the mounting posts near the protective net, and the two ends of the protective net are installed in the fixing grooves. The mosquito-attracting lamp includes a lampshade and a circuit board assembly. The lampshade includes a cover body and a fixing part connected to the inside of the cover body. The fixing part and the cover body form a strip-shaped storage groove. The circuit board assembly slides from one end of the lampshade into the storage groove and is thus fixed in the storage groove.

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