A photon insect repellent lamp and a photon mosquito repellent method

Abstract

The present invention discloses a photon insect repellent lamp and a photon mosquito repellent method, which includes a base, a light-emitting component, and a scattering cover. The base is connected to the cover opening provided on the scattering cover, and a cavity is formed inside. A light-emitting component is arranged inside the cavity, and an energy supply device is provided on the light-emitting component. The energy supply device transmits electric energy through a wire penetrating the base, and the wire is connected to an external power supply to supply energy to the light-emitting component. The light-emitting component receives electric energy to form a light source, and the light source is scattered and propagated after penetrating the scattering cover. The scattering cover can scatter the light source into multiple strong light beams and multiple domains of scattered light, and the multiple strong light beams and multiple domains of scattered light can respectively form a strong light area and a scattered light area on the irradiation surface; the present invention drives away mosquitoes by the light-emitting component exciting the light that mosquitoes dislike, and further stimulates the compound eyes of mosquitoes by scattering the light excited by the light-emitting component through the scattering cover, thereby increasing the effect of driving away mosquitoes.

Description

Technical Field

[0001] The present invention relates to the field of photon repelling insects, and particularly to a photon insect repelling lamp and a photon mosquito repelling method. Background Art

[0002] As one of the four pests, mosquitoes not only cause itchy discomfort to the human body when biting, but also spread diseases. Based on the harm of mosquitoes, people have designed different countermeasures. Among these different countermeasures, a new type of photon insect repelling lamp has emerged, which irradiates and repels mosquitoes by generating light that mosquitoes dislike (light of a certain wavelength range, such as yellow light). However, existing photon mosquito repelling lamps usually use diffused light sources (light sources that are uniformly dispersed without distinction) to repel mosquitoes, and the compound eyes of mosquitoes can easily adapt to diffused light sources, making the mosquito repelling effect of traditional photon mosquito repelling lamps still not ideal even with the addition of light that mosquitoes dislike;

[0003] Based on this, it is very necessary to further improve the light source state of the photon mosquito repelling lamp, thereby further stimulating the compound eyes of mosquitoes and enhancing the mosquito repelling effect of existing mosquito repelling lamps. Summary of the Invention

[0004] The purpose of the present invention is to provide a photon insect repelling lamp and a photon mosquito repelling method to solve the above problems.

[0005] The present invention is achieved through the following technical solutions:

[0006] Generally, a photon insect repelling lamp includes a base, a light emitting component, and a scattering cover. The base is connected to the cover opening of the scattering cover, and a cavity is formed inside. A light emitting component is arranged inside the cavity, and a power supply device is arranged on the light emitting component. The power supply device transmits electrical energy through a wire penetrating the base, and the wire is connected to an external power supply to supply energy to the light emitting component. The light emitting component receives electrical energy to form a light source, and the light source is scattered and propagated after penetrating the scattering cover. The surface layer of the scattering cover is a multi-faceted structure, and the scattering cover can scatter the light source into multiple strong light beams and multiple dispersed light regions. The multiple strong light beams and multiple dispersed light regions can respectively form a strong light area and a dispersed light area on the irradiation surface. By scattering the light into multiple strong lights and multiple scattered lights by the photon insect repelling lamp of the present invention, the light source of the present invention can form a light emitting body with a large change in light intensity in its irradiation space, that is, a light environment with interspersed strong and weak lights, increasing the discomfort of mosquitoes with compound eyes and preferring darkness, and increasing the mosquito repelling effect of the mosquito repelling lamp of the present invention from the change of the light source.

[0007] Preferably, the scattering cover is formed by connecting the sides of multiple polygonal light-transmitting sheets, and the connecting parts form a multi-faceted structure on the outer surface of the scattering cover. Through the mutual connection of the polygonal light-transmitting sheets, the light-emitting component of the present invention has a light-transmitting surface that can directly penetrate the light efficiently, forming multiple strong light beams. At the same time, the prismatic light-transmitting structure of the multi-faceted structure causes the light of the light source to be scattered after passing through the multi-faceted structure formed by the connection of the light-transmitting sheet, forming multi-domain scattered light, so that the light source diffused by the light-emitting component forms multi-domain scattered light and multiple strong light beams after passing through the scattering cover, that is, a light source with greatly varying light intensity is formed.

[0008] Preferably, the light source of the light-emitting component can penetrate the multiple polygonal light-transmitting sheets that constitute the scattering cover and directly illuminate the irradiated surface to form a strong light area. The light source of the light-emitting component can penetrate the multi-faceted structure of the scattering cover and scatter to the irradiated surface outside the strong light area of the irradiated surface to form a scattered light area. The multiple strong lights and multi-domain scattered lights of the present invention are irradiated to the irradiated surface to form a strong light area and a scattered light area respectively, thereby stimulating and driving away mosquitoes living on the irradiated surface.

[0009] Furthermore, the light-emitting components use LED light-emitting elements, and by using LED light-emitting devices, energy can be saved by utilizing the low energy consumption characteristics of LED.

[0010] Preferably, the light-emitting component receives energy from the energy supply device to generate light that mosquitoes hate, and by wrapping a yellow light-transmitting layer on the surface of the LED lamp, the LED lamp emits yellow light that mosquitoes hate, thereby driving away mosquitoes.

[0011] Furthermore, the bottom surface of the base is horizontally formed into a horizontal arrangement surface, and the photon insect repellent lamp can be arranged on an external plane structure through the horizontal arrangement surface. By setting the bottom surface of the base as a horizontal arrangement surface, the present invention is easier to arrange on a plane structure, for example, on a desktop or on a wall.

[0012] Preferably, a photon insect repellent method is implemented using the photon insect repellent lamp of the present invention, and the steps of the method are:

[0013] Step 1: Arrange the photon insect repellent lamp in the mosquito repellent field so that the emitted light of the photon insect repellent lamp can illuminate the mosquito resting carrier, and the space between the photon insect repellent lamp and the mosquito resting carrier forms a mosquito repellent space, and the mosquito repellent space overlaps with the space where mosquitoes move. By arranging the present invention in the mosquito repellent field and directing it toward the mosquito resting carrier, the photon insect repellent lamp of the present invention can drive away the mosquitoes living on the resting carrier, and at the same time, by overlapping the mosquito repellent space of the photon insect repellent lamp of the present invention with the mosquito activity space, the present invention can spread mosquito repellent light with variable light intensity in the mosquito activity space;

[0014] Step 2: Connect the photon insect repellent lamp's conducting wire laid in Step 1 to an external power source to supply energy to the light-emitting component of the photon insect repellent lamp. The light-emitting component receives the energy supply to form a light source. The light source penetrates the scattering cover and scatters to form multiple strong light beams and multi-domain scattered light. The multiple strong light beams are dispersed in the mosquito repellent space to form a dense light network. Turn on the photon insect repellent lamp of the present invention, so that the mosquito repellent space forms a mosquito repellent light with a light sense change that fits the dense light network and multi-domain scattered light. In the space where the mosquitoes are in the propagation path of this light, they are subjected to the aversion light stimulus of the steep change in light sense intensity, increasing the repelling effect of the mosquitoes in this space.

[0015] Preferably, the multiple strong light beams in Step 2 irradiate on the mosquito resting carrier to form multiple strong light areas, and the multi-domain scattered light irradiates on the mosquito resting carrier to form multi-domain scattered light areas. The multiple strong light areas and the multi-domain scattered light areas fit to form an irradiation surface. Through the irradiation surface formed by the strong light area and the scattered light area, the mosquitoes inhabiting the irradiation surface are stimulated and repelled.

[0016] Compared with the prior art, the present invention has the following advantages and beneficial effects:

[0017] 1. In the present invention, a scattering cover with multiple plane light-transmitting plates connected to each other on the outer side of the light-emitting component scatters the light of the insect repellent lamp of the present invention in the propagation space into a light environment with a light sense intensity that changes greatly with the space, formed by multiple strong light beams and multi-domain scattered light. This increases the discomfort level of mosquitoes with compound eyes and preferring darkness, thus increasing the effect of repelling mosquitoes by the present invention;

[0018] 2. The present invention uses a light-emitting component that can emit light with a wavelength of 580 - 595 nm (yellow light) that makes mosquitoes feel aversion. While stimulating the compound eyes of mosquitoes through the light change in the present invention, it further increases the repelling effect of the light on mosquitoes. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The drawings described herein are used to provide a further understanding of the embodiments of the present invention, form a part of this application, and do not constitute a limitation to the embodiments of the present invention. In the drawings:

[0020] Figure 1 It is a schematic structural diagram of Embodiment 1;

[0021] Figure 2 It is an exploded schematic diagram of Embodiment 1;

[0022] Figure 3 It is a schematic structural diagram of Embodiment 2;

[0023] Figure 4 It is an exploded schematic diagram of Embodiment 2;

[0024] Figure 5 It is an exploded schematic diagram of Embodiment 3;

[0025] Figure 6 For Figure 5 the detailed schematic diagram of part A in

[0026] The reference numerals represent: 1 - energy supply device, 2 - base, 3 - first scattering cover, 4 - light-emitting component, 5 - second scattering cover, 6 - top plate, 7 - vibration base plate, 701 - electromagnet, 702 - spring, 703 - armature plate, 8 - control unit. Specific implementation mode

[0027] To make the objectives, technical solutions and advantages of the present invention clearer and more understandable, the present invention will be further described in detail below in conjunction with embodiments and drawings. The illustrative embodiments of the present invention and their descriptions are only used to explain the present invention and do not limit the present invention. It should be noted that the present invention has been in the actual R & D and use stage. At the same time, it is worth mentioning that the multi-sided structure of the scattering cover in the following embodiments is provided with hexagonal edges or triangular edges. The specific multi-sided configurations shown are only the specific implementation modes of the present invention and do not limit the specific number of edges of the multi-sided structure of the scattering cover of the present invention.

[0028] Embodiment 1:

[0029] As Figures 1 to 2 shown, this embodiment includes a base 2, a light-emitting component 4 and a scattering cover. The base 2 is cylindrical, and the bottom is a circular plane. The mosquito repellent lamp of the embodiment can be attached to a horizontally placed position or a vertical plane position, such as a desktop, a wall surface, etc. through the plane at the bottom. There is a cavity above the base 2, and a light-emitting component 4 is arranged in the middle of the cavity. The light-emitting component 4 adopts an LED lamp group. The light-emitting component 4 is also correspondingly provided with an energy supply device 1. The energy supply device 1 correspondingly includes electric wires. The electric wires pass through the side wall of the cavity of the base 2, and a plug is arranged at the end of the electric wire outside the base 2. In the embodiment, electric energy is obtained by connecting the plug of the electric wire to an external power supply. It is worth mentioning that obtaining electric energy by connecting the electric plug to an external power supply is only the specific way of obtaining electric energy in this embodiment, and the present invention does not limit the specific way of obtaining electric energy for the light-emitting component 4; The upper end of the base 2 is connected to the first scattering cover 3. The cavity on the base 2 is correspondingly connected to the cover space of the scattering cover, and the light-emitting component 4 is correspondingly accommodated in the space accommodated by both. At the same time, the first scattering cover 3 is integrally a circular shell. The first scattering cover 3 is formed by connecting the side edges of a plurality of planar hexagons and pentagonal light-transmitting plates. The connected side edges form a plurality of polygonal planes on the outer side of the first scattering cover 3. The side edges of the plurality of polygonal planes form corresponding multi-sided edge structures, and the plurality of multi-sided edge structures cooperate with a plurality of polygons to form the first scattering cover 3.

[0030] The first scattering cover 3 is divided into a high-density scattering structure by a polygonal edge structure. When the photon mosquito repellent lamp described in Embodiment 1 is turned on, the first light-emitting component 4 uses an LED light source and correspondingly generates yellow light that mosquitoes dislike (the yellow light has the effect of repelling mosquitoes). The light source of the first light-emitting component 4 penetrates through multiple planar light-transmitting plates constituting the first scattering cover 3 to form multiple strong light beams, and penetrates through the multi-edge structure formed by the connection between the planar light-transmitting plates to form multi-domain scattered light. The multi-path optical network formed by the multiple strong light beams and the multi-domain scattered light form a scattered light source with non-diffuse and greatly varying light intensity with space. Mosquitoes in the mosquito repellent space fly under the scattered light source, and their compound eyes are repeatedly affected by the drastic change of the disliked light, which enhances the effect of the mosquito-disliked light on repelling mosquitoes.

[0031] Embodiment 2:

[0032] As Figures 3 to 4 shown, in Embodiment 2, a second scattering cover 5 is formed by connecting multiple triangular light-transmitting plates. The difference between Embodiment 2 and Embodiment 1 is that the optical network formed by the second scattering cover 5 is less than that formed by the first scattering cover 3, but the multi-edge structure of the second scattering cover 5 has fewer edges than the multi-edge structure of the first scattering cover 3, and the scattered light source thereof is less, so that the scattered light source of Embodiment 2 is less than that of Embodiment 1, and the optical network formed by the strong light beams of Embodiment 2 is larger. Combining the difference features, Embodiment 2 has a lower optical network density and a higher light intensity than Embodiment 1.

[0033] Combined with Embodiment 1 and Embodiment 2, Embodiment 1 has a large number of optical networks and high density. Embodiment 1 is suitable for outdoor mosquito repellent scenarios. For example, when there are gatherings of people outdoors, Embodiment 1 is deployed, and it can irradiate the resting carriers of mosquitoes (the positions where mosquitoes rest), and the light emitted by Embodiment 1 can propagate in the space where people gather (the mosquito repellent space). When Embodiment 1 is turned on, the strong light area (light spot) and the scattered light area (dark light surface) formed stimulate the compound eyes of mosquitoes to drive away the mosquitoes from perching on the resting carriers of mosquitoes (the mosquitoes in the strong light area are stimulated and driven away, and the mosquitoes perching in the scattered light area are continuously stimulated by the reflected light source in the strong light area, thus driving away the mosquitoes). At the same time, in the irradiation space formed by multi-domain scattered light and multiple strong lights, when mosquitoes fly, their compound eyes are repeatedly subjected to aversion light stimuli with a large change in light intensity, accelerating the degree of physiological discomfort of mosquitoes. At the same time, taking advantage of the large number of optical networks in Embodiment 1, the probability of mosquitoes being irradiated and stimulated by the optical networks is increased in the large outdoor space, and its outdoor effect is better than that of Embodiment 2; correspondingly, Embodiment 2 is more suitable for mosquito repellent scenarios in small spaces. In a small space, in addition to Embodiment 2 having a stronger light intensity than Embodiment 1 itself, the side walls of the space still have the ability to reflect the light source. While changing the light intensity of the light source in the space through the second scattering cover 5, the aversion light (yellow light) intensity of mosquitoes in the small space reaches the highest, creating a light environment that causes the maximum degree of physiological discomfort to mosquitoes in the small space range, thereby driving away the mosquitoes.

[0034] Embodiment 3:

[0035] As a compound eye organism, mosquitoes, in addition to repelling light with wavelengths of the aversion characteristics, their preference for darkness makes their compound eyes naturally repel dynamic light. The mosquito repellent lamp of the present invention has a dense optical network formed by the scattering cover in the space and a strong light area formed on the re-irradiation surface. The mosquito repellent effect in the static state will be lower than that of the dynamic dense optical network and the dynamic strong light area. Therefore, on the basis of the above Embodiment 1, this embodiment adds a dynamic light source for the experiment of driving away mosquitoes, and determines the optimal mosquito repellent frequency indoors and the optimal mosquito repellent frequency outdoors through experimental data. It is worth mentioning that the control chip adopted by the control unit 8 mentioned in Embodiment 3, the MOS tube model for controlling the on-off of the control circuit, and its control circuit are all conventional electronic technologies, and at the same time, they are not within the scope of the distinguishing features of the present invention, so Embodiment 3 will not be described in detail.

[0036] Combined Figure 5 and Figure 6As shown in the figure, a vibration chassis is added on the basis of the photon mosquito repellent lamp in Embodiment 1. The vibration chassis includes a vibration base plate 7 and a top plate 6. A plurality of groups of electromagnets 701 are evenly arranged on the circumference of the vibration base plate 7. The electromagnets 701 are vertically upward. A spring 702 is arranged above the electromagnet 701. An armature plate 703 is arranged above the spring 702. The top of the armature plate 703 is connected to the bottom of the top plate 6. A shaft rod is fixed at the center of the top of the armature plate 703. The shaft rod passes through a shaft hole arranged at the axis of the electromagnet 701. The base 2 of the photon mosquito repellent lamp is fixed on the top plate 6. The plurality of groups of electromagnets 701 with armatures are controlled by a control unit 8 arranged at the center of the vibration base plate 7. It can control the on-off of the windings of each electromagnet 701 according to a specified frequency, so as to control the up and down movement of the armature above the electromagnet 701; the control unit 8 can randomly control the on-off of the winding current of any one or more groups of electromagnets 701 among the plurality of groups of electromagnets 701, so that the top plate arranged above the vibration base plate 7 can generate disordered vibration (biased vibration), thereby driving the photon mosquito repellent lamp fixed on the top plate 6 to vibrate disorderly;

[0037] Further, six groups of electromagnets 701 are arranged on the circumference of the vibration base plate 7. The six groups of electromagnets 701 are evenly distributed on the circumference of the axis of the vibration base plate 7. The electromagnets 701 are cylindrical and vertically upward. An armature of a circular plate is arranged above. A shaft rod is arranged at the bottom center of the armature. The shaft rod passes through a circular hole arranged in the middle of the iron core of the cylindrical electromagnet 701. At the same time, a spring 702 is arranged outside the shaft rod between the armature plate 703 and the electromagnet 701. The two ends of the spring 702 are connected to the armature and the iron core of the electromagnet 701. When the winding of the electromagnet 701 is energized, the armature is attracted downward by the electromagnet 701. When the electromagnet 701 is powered off, the armature is pushed back to the initial position by the upward push of the spring 702;

[0038] Further, the control unit 8 controls the on-off of any one group of electromagnets 701 among six consecutive groups of electromagnets 701 to form a micro-vibration. The control unit 8 continuously controls the on-off of any two adjacent groups of electromagnets 701 among the six groups of electromagnets 701 at the same time to form a medium-vibration. The control unit 8 continuously controls the on-off of any three adjacent groups of electromagnets 701 among the six groups of electromagnets 701 at the same time to form a strong-vibration.

[0039] Furthermore, the mosquito dispersal effects of micro-earthquakes, moderate earthquakes, and strong earthquakes at different frequencies were measured through experiments. The experimental conditions were as follows: mosquitoes purchased from a mosquito repellent center were used, and a third-party mosquito testing laboratory was also employed. The laboratory was evenly divided into two spaces by a light-shielding board. Two photon mosquito repellent lamps with vibrating bases were placed at the bottoms of the two spaces. The two spaces were isolated from other light sources, and the partition board in the middle was provided with a connected passage through which mosquitoes could shuttle between the two spaces to conduct Experiment 1. The vibrating bases of the two photon mosquito repellent lamps used the same vibration parameters. The light-emitting component 4 of one photon mosquito repellent lamp was connected to the power supply (emitting light), while the light-emitting component 4 of the other photon mosquito repellent lamp was not connected to the power supply (not emitting light). Each time, 75 mosquitoes were released at the same position in the space where the light was on for a test duration of five minutes. After the test was completed, the connected passage of the partition board was closed, and the number of mosquitoes in the space where the photon mosquito repellent lamp emitting light was located was collected (when collecting, the mosquitoes were first killed, and the mosquitoes on the ground were gathered together by a blower and then collected). The following data were obtained through different frequencies:

[0040] Vibration frequency (HZ) Micro-vibration (number) Moderate earthquake (number) Strong earthquake (number) 0.1 27 19 13 1 19 13 9 5 9 11 5 10 14 9 8 15 17 14 6 20 21 12 7 25 24 9 16 30 15 15 11 35 20 17 23 40 28 21 22

[0041] Using the above experimental method simultaneously for multiple experiments (15 times), and finally analyzing the data, it was found that when the vibration frequency was 5 Hz, the mosquito dispersal effect was the most obvious. At the same time, as the vibration amplitude increased, the mosquito dispersal effect became better. When the vibration frequency increased to a certain extent, the mosquito dispersal effect gradually weakened and finally stabilized.

[0042] However, as a mosquito repellent product, when used in a family indoor environment, the dense light network formed by the strong light beam of the photon mosquito repellent lamp and the multiple strong light areas formed by the strong light beam sweep over a large area in the indoor space and on the indoor walls under the action of strong vibrations, which will interfere with the line of sight of indoor personnel and have an adverse impact. Considering the negative impact of use, further experiments were carried out. In Experiment 2, at the frequency of 5 Hz of the vibration disk, the random combination of micro-vibrations and moderate vibrations (a certain number of micro-vibrations interspersed with a certain number of moderate vibrations) was used to form the indoor vibration combination method to further measure the best test data. Using the conditions described in Experiment 1, the vibration frequencies of the mosquito repellent vibrating bases of the two photon mosquito repellent lamps were fixed at 5 Hz. Each time, 75 mosquitoes were released, and the following data were obtained by taking the average value of the experiments:

[0043] Micro-vibration (times) Moderate earthquake (times) Mosquito (number) 1 1 8 2 1 7 3 1 9 4 1 10 5 1 12 6 1 11

[0044] Using the above experimental method simultaneously for multiple experiments (15 times) again, and through the analysis of the experimental data, it was found that when used indoors, the effect was the best when one moderate vibration was interspersed after two micro-vibrations. At the same time, the vibration mode of micro-vibrations combined with moderate vibrations had a low degree of interference with the line of sight of indoor personnel. This mode was set as the medium mosquito repellent mode indoors, while 5 Hz micro-vibrations were used as the weak mosquito repellent mode, and 5 Hz moderate vibrations were used as the strong mosquito repellent mode;

[0045] Further, a strong earthquake of 5HZ is used as the outdoor mosquito repellent mode.

[0046] It is worth mentioning that although the number of the electromagnets 701 mentioned in Embodiment 3 is a definite number, it does not constitute a limiting condition for the specific number of the electromagnets 701 of the vibrating disk. At the same time, the vibrations of any frequency described in Embodiment 3 are the irregular vibrations of the invented mosquito repellent lamp formed by randomly controlling the on-off of any electromagnet 701 in Embodiment 3 by the controller, rather than the regular vibrations formed by continuously turning on and off the electricity of the electromagnetism of a certain group of the six groups of electromagnets 701.

[0047] The specific embodiments described above have further elaborated on the purpose, technical solutions, and beneficial effects of the present invention. It should be understood that the above are only specific embodiments of the present invention and are not used to limit the protection scope of the present invention. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A photon insect repellent lamp, comprising a base (2), a light-emitting component (4) and a scattering cover. The base (2) is connected to the cover opening of the scattering cover, and a cavity is formed inside. A light-emitting component (4) is arranged inside the cavity, and an energy supply device (1) is arranged on the light-emitting component (4). The energy supply device (1) transmits electric energy through a wire penetrating the base (2), and the wire is connected to an external power supply to supply energy to the light-emitting component (4). The light-emitting component (4) receives electric energy to form a light source, and the light source is scattered and propagated after penetrating the scattering cover. It is characterized in that, The surface layer of the scattering cover is a multi-edge structure. The scattering cover can scatter the light source into multiple strong light beams and multiple domains of scattered light. The multiple strong light beams and multiple domains of scattered light can respectively form a strong light area and a scattered light area on the irradiation surface. It further includes a vibration chassis, which includes a vibration base plate (7) and a top plate (6). A plurality of groups of electromagnets (701) are evenly arranged on the circumference of the vibration base plate (7). The electromagnets (701) are vertically upward. A spring (702) is arranged above the electromagnets (701). An armature plate (703) is arranged above the spring (702). The top of the armature plate (703) is connected to the bottom of the top plate (6). A shaft rod is fixed at the center of the top of the armature plate (703). The shaft rod passes through the shaft hole arranged at the axis of the electromagnet (701). The base (2) is fixed on the top plate (6). The plurality of groups of electromagnets (701) with armatures are controlled by a control unit (8) arranged at the center of the vibration base plate (7). It can control the on-off of the windings of each electromagnet (701) according to a specified frequency, so as to control the up and down movement of the armature above the electromagnet (701). The control unit (8) can randomly control the on-off of the winding current of any one or more groups of electromagnets (701) among the plurality of groups of electromagnets (701), so that the top plate (6) generates disordered vibrations. The vibration frequency of the vibration base plate (7) is 5HZ.

2. The photon insect repellent lamp according to claim 1, wherein The scattering cover is formed by connecting the sides of a plurality of polygonal light-transmitting sheets, and the connection parts form a multi-edge structure on the outer surface of the scattering cover.

3. The photon insect repellent lamp according to claim 2, wherein The light source of the light-emitting component (4) can penetrate through the plurality of polygonal light-transmitting sheets that make up the scattering cover and directly irradiate the irradiation surface to form a strong light area. The light source of the light-emitting component (4) can penetrate through the multi-edge structure of the scattering cover and scatter to the irradiation surface outside the strong light area of the irradiation surface to form a scattered light area.

4. The photon insect-repellent lamp according to claim 3, characterized in that The light-emitting component (4) uses LED light-emitting components.

5. The photon insect repellent lamp according to claim 3, characterized in that, The light-emitting component (4) receives the energy supplied by the energy supply device (1) and can generate light that mosquitoes dislike.

6. A photon insect repellent lamp according to claim 1, characterized in that, The bottom surface of the base (2) is horizontally formed into a horizontal layout surface, and the photon mosquito repellent lamp can be arranged on an external plane structure through the horizontal layout surface.

7. A photon mosquito repellent method, which is realized by using the photon mosquito repellent lamp according to any one of claims 1 to 5. The steps of the method are as follows: Step 1, arrange the photon mosquito repellent lamp in the mosquito repellent field so that the emitted light of the photon mosquito repellent lamp can irradiate the mosquito resting carrier. The space between the photon mosquito repellent lamp and the mosquito resting carrier forms a mosquito repellent space, and the mosquito repellent space overlaps with the space where mosquitoes move. Step 2, connect the conducting wire of the photon mosquito repellent lamp arranged in Step 1 to an external power supply to supply energy to the light-emitting component (4) of the photon mosquito repellent lamp. The light-emitting component (4) receives the energy supply to form a light source. The light source penetrates through the scattering cover and scatters to form multiple strong light beams and multiple domains of scattered light. The multiple strong light beams are dispersed in the mosquito repellent space to form a dense light network.

8. A photon insect repellent method according to claim 7, characterized in that, In Step 2, the multiple strong light beams irradiate the mosquito resting carrier to form multiple strong light areas, and the multiple domains of scattered light irradiate the mosquito resting carrier to form multiple domains of scattered light areas. The multiple strong light areas and the multiple domains of scattered light areas fit together to form an irradiation surface.

Images