TWM511211U - Lighting of mosquito zapper - Google Patents

Description

Lighting mosquito trap

This creation is about a pest control device, especially an illumination mosquito trap that has both lighting and mosquito trapping functions.

Mosquitoes are the vector of many diseases, especially in the high temperature and high humidity environment in summer, which is more suitable for the growth and reproduction of mosquitoes, and the diseases transmitted by mosquitoes are also more rampant in this environment. According to the statistics of the World Health Organization, about one million people die each year from infectious diseases spread by mosquitoes. Therefore, how to effectively reduce the number of mosquitoes and prevent mosquitoes from biting the human skin, thus preventing the spread and spread of infectious diseases. Issues of concern to people.

Referring to FIG. 1 , a conventional lighting mosquito trap 9 is provided. The conventional lighting mosquito trap 9 is provided with an outer casing 91. The upper end of the outer casing 91 is provided with an upper cover 911, and the upper cover 911 is provided. The outer end surface is provided with a solar panel 92. A suction fan 93 is disposed in the outer casing 91. A plurality of suction holes 912 are defined in the outer periphery of the outer casing 91 corresponding to the suction fan 93. The outer casing 91 is provided with a plurality of rows corresponding to the lower end of the suction fan 93. Wind hole 913. A control unit 94 is further disposed in the outer casing 91. The control unit 94 is electrically connected to the suction fan 93. The control unit 94 is provided with a battery 941 for supplying power required for the integral circuit from the battery 941. The battery 941 is also connected to the solar panel 92 to charge the battery 941 with solar energy. The control unit 94 is connected to the upper cover 911 of the outer casing 91 to be connected with a control switch 942 and an illumination source 943. The control unit 94 is further connected to the outer casing 91 to provide a mosquito light source 944 capable of emitting long-wave ultraviolet light. . A positioning rod 95 is connected to the bottom end of the outer casing 91 to erect the conventional lighting mosquito trap 9 at a predetermined place. Similar to the conventional An embodiment of the lighting mosquito trap device 9 has been disclosed in the Patent No. M492620 of the Republic of China.

When the conventional lighting mosquito trap 9 is used, the plurality of illumination sources 943 can provide an illumination function to the environment, and the mosquito light source 944 can attract mosquitoes to be approached, so that the mosquitoes are affected by the airflow guided by the suction fan 93. It is sucked and killed by the suction hole 912 of the outer casing 91. Accordingly, the conventional lighting mosquito trap 9 can have both illumination and mosquito trapping functions.

Wherein, since the long-wave ultraviolet light directly causes damage to the human eye, the conventional lighting mosquito trap 9 assembles the mosquito light source 944 inside the outer casing 91, and causes the mosquito light source 944 to face Under the illumination, the long-wave ultraviolet light is prevented from directly shining into the human eye, but the light generated by the mosquito light source 944 is mostly confined in the outer casing 91; even if the outer portion of the outer casing 91 is made light transmissive, the mosquito is trapped. The illumination characteristic of the light source 944 is still that most of the light is directed downward, while only a small portion of the light is directed downwardly to the outer periphery of the outer casing 91. Therefore, from the periphery of the conventional lighting mosquito trap 9, the illumination range of the mosquito light source 944 is relatively small, and the relative mosquito trapping range is small, and the mosquito is only flying near the conventional lighting mosquito trap 9. It is attracted by the light of the mosquito light source 944, so that the mosquito trapping effect of the conventional lighting mosquito trap device 9 is not good.

In addition, since the illumination range of the mosquito light source 944 is too small, the conventional illumination mosquito trap 9 needs to additionally provide the illumination source 943 to generate dual functions of "lighting" and "crawling", and the illumination The light source 943 is disposed on the upper cover 911 of the outer casing 91, so that the light of the illumination source 943 is directly exposed to the human eye. The light of the illumination source 943 is not ultraviolet light, and although it does not harm the human eye, it still produces glare discomfort. .

In view of this, the conventional lighting mosquito traps do have to be improved.

This creative department provides an illumination mosquito trap that expands the illumination range of the mosquito light source without harming or stimulating the human eye, and provides the dual functions of "lighting" and "mosquito" by the mosquito light source.

An illuminating mosquito trap device includes: a pedestal having a box body; the top of the box body is provided with a plurality of suction ports; a fan, the fan is disposed in the box body, and the air inlet of the fan faces the a plurality of suction ports; a mosquito light source, the mosquito light source is disposed at the top of the box; and a reflector, the reflector has a reflective surface, the reflector is mounted on the base, and the reflective surface faces the lure Mosquito light source.

The reflective mask has a central portion and a second reflecting portion. The central portion is located between the two reflecting portions. The central portion is a portion of the reflective surface that is closest to the mosquito light source, and the free end of the reflective portion is They are the parts farthest from the mosquito light source on the reflective surface.

Wherein, the top edge of the mosquito light source has a reference surface, and the vertical height of the two reflection portions to the reference surface is increased from the central portion to the free end.

Each of the reflecting portions includes a first segment, a second segment and a third segment. The first segment is connected to the central portion, and one side of the second segment is connected to the first segment, and the second segment is connected to the second segment. The third section is connected to one side, and the first section, the second section and the third section are planes of different inclination angles.

The angle between the first segment and the reference surface is 30 to 60 degrees, the angle between the second segment and the first segment is 150 to 170 degrees, and the angle between the third segment and the second segment is 150 to 170 degrees. degree.

The projection distance from the first segment to the reference surface is 20-40 mm, the projection distance from the second segment to the reference surface is 20-40 mm, and the projection distance from the reflection portion to the reference surface is 120-150 mm.

Wherein the angle between the first segment and the reference surface is 45 degrees, the angle between the second segment and the first segment is 170 degrees, and the angle between the third segment and the second segment is 150 degrees, the first segment The projection distance to the reference surface is 40 mm, the projection distance from the second segment to the reference surface is 40 mm, the projection distance from the reflection portion to the reference surface is 140 mm, and the vertical height from the center portion to the reference surface is 20~ 30mm.

Wherein, the mosquito light source is an LED light strip, and the extending direction of the central portion is parallel to the longitudinal direction of the mosquito light source.

The two reflecting portions are symmetrical, and the center portion is located at a center line of the mosquito light source in the longitudinal direction.

The vertical height of the central portion to the reference surface is 10 to 30 mm.

The projection range of the free end edge of the reflective surface of the reflective surface on the reference surface respectively forms a projection width, and the projection width is 200-330 mm.

Each of the reflecting portions includes a first segment, a second segment and a third segment. The first segment is connected to the central portion, and one side of the second segment is connected to the first segment, and the second segment is connected to the second segment. The third segment is connected to one side, and each of the reflecting portions has a continuous curved shape.

The inner surface of the box body is provided with a positioning portion, and a collecting bucket is detachably coupled to the positioning portion.

Wherein, a plurality of guiding pieces are disposed between the plurality of suction ports and the positioning portion, and each of the guiding pieces is obliquely connected to the inner surface of the box by one side edge, and the other opposite side of each of the guiding pieces The edges together form a guiding inlet.

Wherein, the collecting bucket is divided into an upper cup and a lower cup, the upper cup and the ring wall of the lower cup are nested with each other, and the top edge of the upper cup extends outward to form a disc, and the collecting bucket is coupled to the positioning by the disc unit.

Wherein, the collecting bucket is provided with a holding portion, and the holding portion is connected to the disc.

Wherein, the upper cup is provided with an escape prevention structure, and the anti-escape structure is in the shape of a funnel having an upper width and a lower width, and a top edge of the anti-escape structure is coupled to an inner wall surface of the upper cup.

Wherein, the fan is assembled on the disc of the collecting bucket, and the air outlet of the fan faces the anti-escape structure.

Wherein, a plurality of vents are provided between the top edge and the bottom edge of the anti-escape structure.

Among them, the lower cup is provided with a plurality of air outlets.

Wherein, the top end of the reflector is provided with a solar module, and the two ends of the plurality of brackets are respectively connected to the solar module and the box, and the plurality of brackets extend through the reflector to The bracket jointly supports the solar module and positions the reflector.

The base further includes a support frame, and the top of the support frame is provided with two positioning struts extending upwardly, and the two positioning struts are oppositely disposed; the opposite surfaces of the box body are respectively provided with a joint portion, the box body The two positioning portions are coupled to the two positioning struts of the support frame.

Accordingly, the lighting mosquito trap device of the present invention can expand the illumination range of the mosquito light source by the reflector, and control the light generated by the mosquito light source to not directly hit the human eye, so that the damage can be avoided without damaging the human eye. It can make the range of attracting mosquitoes wider, and achieve the effect of greatly improving the effect of mosquito trapping. It can directly provide the functions of "lighting" and "mosquito catching" by the mosquito light source to simplify the structure.

[this creation]

1‧‧‧Base

11‧‧‧ cabinet

111‧‧‧Inhalation

112‧‧‧ Positioning Department

113‧‧‧Guiding film

114‧‧‧Intersection

12‧‧‧Collection bucket

12a‧‧‧上杯

12b‧‧‧The next cup

121‧‧‧

122‧‧‧ Holding Department

123‧‧‧Anti-escape structure

124‧‧‧ vent

125‧‧‧ exhaust vents

13‧‧‧Support frame

131‧‧‧ positioning support

2‧‧‧fan

3‧‧‧ Mosquito light source

4‧‧‧reflector

41‧‧‧ Reflective surface

41a‧‧‧ Central Department

41b‧‧‧Reflection Department

411‧‧‧ first paragraph

412‧‧‧ second paragraph

413‧‧‧ third paragraph

5‧‧‧Solar modules

A‧‧‧ guided entrance

D1, D2, D3‧‧‧ projection distance

H1, H2‧‧‧ vertical height

Light intensity curve of L1, L2, L3‧‧‧

R‧‧‧ bracket

S‧‧‧ datum

W‧‧‧projection width

θ 1, θ 2, θ 3‧‧‧ angle

[study]

9‧‧‧Lighting mosquito trap

91‧‧‧Outer casing

911‧‧‧Upper body

912‧‧‧Sucking hole

913‧‧‧Air vents

92‧‧‧ solar panels

93‧‧‧ suction fan

94‧‧‧Control unit

941‧‧‧Battery

942‧‧‧Control switch

943‧‧‧Light source

944‧‧‧ Mosquito light source

95‧‧‧ Positioning rod

Figure 1: Schematic diagram of a conventional lighting mosquito trap.

Fig. 2 is a perspective exploded perspective view of an embodiment of the present invention.

Fig. 3 is a side sectional structural view showing an embodiment of the present invention.

Fig. 4 is a side sectional structural view showing another direction of an embodiment of the present invention.

Fig. 5 is a side sectional structural view showing a reflector of an embodiment of the present invention.

Fig. 6 is a top plan view showing a reflector of an embodiment of the present invention.

Figure 7 is a schematic view showing the reflected light reflected from the reflective surface of the reflector of the present embodiment.

Figures 8a~8g: This creation uses different types of reflective surfaces to reflect the intensity of light generated by the mosquito source.

Fig. 9 is a side sectional structural view showing a reflector of another embodiment of the present invention.

The above and other objects, features and advantages of the present invention will become more apparent and understood. "Bottom" is based on the direction of the map. The time is no longer one by one.

Please refer to FIG. 2 , which is an embodiment of the present invention. The lighting mosquito trap generally includes a base 1 , a fan 2 disposed on the base 1 , and a mosquito light source 3 . A reflector 4.

The susceptor 1 has a hollow housing 11, the top of the housing 11 is provided with a plurality of suction openings 111, the fan 2 is disposed in the housing 11, the air inlet of the fan 2 faces the plurality of suction openings 111; Accordingly, when the fan 2 is in operation, air surrounding the casing 11 can be sucked into the casing 11 through the plurality of suction ports 111.

The mosquito trapped by the lighting mosquito trap can be directly accommodated in the interior of the casing 11; alternatively, the base 1 can be provided with a collecting bucket 12, and one side of the casing 11 can be detachable or The tumbling type can be placed in the box 11 to accommodate the mosquito corpse, and the collection bucket 12 can be removed when cleaning, which helps to improve the convenience of cleaning.

In detail, please refer to the figures 2 and 3, in this embodiment, the inner surface of the box 11 may be provided with a positioning portion 112 for positioning the collecting bucket 12; the positioning portion 112 may be, for example, two opposite A clip, or three clips arranged in a U shape as shown in the drawing of the present invention. The inner surface of the casing 11 may further be provided with a plurality of guiding pieces 113. The plurality of guiding pieces 113 are located between the plurality of suction ports 111 and the positioning portion 112, and each of the guiding pieces 113 is inclined from one side. The edge is connected to the inner surface of the casing 11, and the other opposite side edges of each of the guiding pieces 113 together form a guiding inlet A.

The collecting bucket 12 can be divided into an upper cup 12a and a lower cup 12b. The upper cup 12a and the ring wall of the lower cup 12b can be nested with each other. The upper cup 12a can extend outward from the top edge thereof to form a disc 121. The collecting tub 12 can be coupled to the positioning portion 112 of the casing 11 by the disc 121 so that the upper cup 12a and the lower cup 12b that are fitted to each other can be suspended at a predetermined position in the casing 11. Referring to FIG. 2 and FIG. 4 , the collecting bucket 12 is provided with a holding portion 122 . The holding portion 122 can be connected to the disc 121 for the user to hold the holding portion 122 when the user opens the housing 11 . The collection bin 12 is placed or removed.

Referring to FIG. 2 and FIG. 3 again, the upper cup 12a may further be provided with an escape structure 123. The anti-escape structure 123 may be, for example, a funnel shape having a width and a width, and a top edge of the escape structure 123 is coupled thereto. The inner wall surface of the cup 12a. The fan 2 can be assembled on the disk 121 of the collecting bucket 12. The air inlet of the fan 2 faces the plurality of suction ports 111, and the air outlet of the fan 2 faces the anti-escape structure 123. Accordingly, when the fan 2 is in operation, the airflow sucked into the casing 11 can be guided by the plurality of guiding pieces 113 to be concentrated in the middle, and then flows into the fan 2 through the guiding inlet A, and flows out of the fan 2 The fan 2 then flows into the escape structure 123 and flows into the collection tub 12.

Preferably, the anti-escape structure 123 is provided with a plurality of vents 124 between the top edge and the bottom edge. The vents 124 may be slits or small holes, and the gap of each of the vents 124 is smaller than the mosquito volume, and is only for airflow. Passed and the mosquito could not pass. The lower cup 12b may be provided with a plurality of air outlets 125 on the bottom surface or the circumferential surface thereof, and the gap of each of the air outlets 125 is also smaller than the mosquito volume, and only the airflow passes through the mosquitoes, so that the airflow can pass through the plurality of air outlets. The collecting bucket 12 is discharged from the collecting bucket 12 to maintain the fan 2 to smoothly guide the airflow.

The pedestal 1 can further include a support frame 13 , the support frame 13 is connected to the box body 11 , and the shape of the support frame 13 is not limited, so as to be capable of supporting and raising the box body 11 , and can be used for The lighting mosquito trap is erected at a predetermined location. In this embodiment, the top of the support frame 13 is provided with two positioning ribs 131 extending upwardly, and the two positioning ribs 131 are oppositely disposed; the opposite surfaces of the box body 11 are also respectively provided with a joint portion 114, the box The body 11 is coupled to the two positioning struts 131 of the support frame 13 by the two engaging portions 114, and the height of the box 11 to the ground can be adjusted by the two engaging portions 114 and the two positioning struts 131.

The mosquito light source 3 is disposed at the top of the box 11, and the mosquito light source 3 preferably scatters ultraviolet light to effectively attract the mosquitoes to approach. The mosquito light source 3 can be selected as a long strip of LED light strips, so that the mosquito light source 3 can not excessively shield the plurality of suction ports 111 at the top of the box 11.

Referring to FIGS. 2 and 4, the reflector 4 has a reflective surface 41, and the reflective surface 41 can be a high reflectance material such as a mirror or aluminum foil. The reflector 4 is mounted on the susceptor 1 , and the reflective surface 41 of the reflector 4 is directed toward the mosquito light source 3 to reflect the light emitted by the mosquito light source 3 to both sides, thereby expanding the mosquito The illumination range of the light source 3.

In detail, please refer to the second and fifth figures. In the embodiment, the reflective surface 41 has a central portion 41a and two reflective portions 41b. The central portion 41a is located between the two reflective portions 41b. 41b is preferably symmetrical. The central portion 41a is a portion of the reflective surface 41 that is closest to the mosquito light source 3, and the free ends of the two reflective portions 41b are respectively the portions of the reflective surface 41 that are farthest from the mosquito light source 3, such that the two reflections The vertical height of the portion 41b to the mosquito light source 3 is increased from the central portion 41a toward the free end. That is, the top edge of the mosquito light source 3 has a reference surface S, the central portion 41a to the reference surface S has a vertical height H1, and the free end of each of the reflective portions 41b has a vertical height H2 to the reference surface S. The vertical height of the two reflecting portions 41b to the reference plane S is increased from the vertical height H1 to the vertical height H2.

Each of the reflection portions 41b may include a first segment 411, a second segment 412, and a third segment 413. The first segment 411 is connected to the central portion 41a, and one side of the second segment 412 is connected to the first portion. Segment 411, the other side of the second segment 412 is coupled to the third segment 413. As shown in FIG. 7, the first segment 411 can be used to control the divergence of the emitted light to adjust the field of view; the second segment 412 can be used to control the angle between the reflected light and reduce the glare, preventing the emitted light from directly hitting the human eye. Damage is caused; the third segment 413 is used to control the intensity of the reflected light and to change the half angle of the light output. Accordingly, the light reflecting surface 41 of the reflector 4 can diverge the light generated by the mosquito light source 3 to both sides by the two reflecting portions 41b, thereby achieving the effect of high emission and wide emitting surface, so that the mosquito light source The light produced by the 3 can be widely dispersed around, thereby increasing the field of view of the mosquitoes to see the light, so as to greatly enhance the effect of attracting mosquitoes.

Referring to FIG. 5 again, in the embodiment, the first segment 411, the second segment 412, and the third segment 413 of each of the reflecting portions 41b may be planes of different inclination angles. The first segment 411 has an angle θ 1 with the reference surface S, and the angle θ 1 is about 30-60 degrees; the second segment 412 is The first segment 411 has an included angle θ 2 , and the included angle θ 2 is about 150-170 degrees. The third segment 413 and the second segment 412 have an included angle θ 3 , and the included angle θ 3 is about 150-170 degrees. In addition, the first segment 411 has a projection distance D1 on the reference surface S, and the projection distance D1 is about 20-40 mm. The second segment 412 has a projection distance D2 on the reference surface S, and the projection distance D2. The projection portion 41b has a projection distance D3 on the reference surface S, and the projection distance D3 is about 120 to 150 mm. Further, the vertical height H1 of the center portion 41a to the reference surface S is approximately 10 to 30 mm.

Referring to FIG. 6, the extending direction of the central portion 41a of the reflecting surface 41 of the reflector 4 is parallel to the longitudinal direction of the mosquito light source 3, and the central portion 41a is preferably located in the longitudinal direction of the mosquito light source 3. Up the centerline. The projection range of the free end edge of the two reflecting portions 41b of the reflecting surface 41 on the reference surface S forms a projection width W, which is about 200 to 330 mm.

Referring to FIG. 2 and FIG. 4, the top of the reflector 4 can also be provided with a solar module 5, and the two ends of the plurality of brackets R are respectively connected to the solar module 5 and the box 11, and the plurality of The bracket R extends through the reflector 4 to support the solar module 5 by the plurality of brackets R and to position the reflector 4.

The solar module 5 can absorb sunlight to generate electric energy, and the solar module 5 is electrically connected to the electric component such as the fan 2 and the mosquito light source 3 to supply electric energy converted from the sun to the fan. 2 and the components such as the mosquito light source 3 operate. The fan 2 and the mooring light source 3 and the like may also be connected to the general commercial power, so that when the solar module 5 cannot generate sufficient electric energy, the commercial power supply is maintained to maintain its normal operation.

Referring to FIG. 3, according to the foregoing structure, when the illumination mosquito trap device of the present invention is operated, the light generated by the mosquito light source 3 can be sufficiently diverged to the both sides via the reflective surface 41 of the reflector 4 to increase The mosquito can see the field of view of the light, so that the mosquito can see the light of the mosquito light source 3 even if it is a few meters away from the lighting mosquito trap, and then is attracted to the mosquito The lighting mosquito trap is close. When the mosquitoes fly close to the casing 11, the mosquitoes are caught in the interior of the casing 11 as the airflow passes through the plurality of suction ports 111, and are killed or injured when passing through the fan 2, thereby falling into the Collect the bucket 12 . Wherein, even if the mosquito dropped into the collecting tub 12 does not die, since the fan 2 can continuously blow the airflow from above the collecting tub 12, the mosquito cannot retreat from the center of the anti-escape structure 123 away from the collecting tub 12 So that the mosquito will eventually die in the collection bin 12.

Moreover, since the light mosquito trap device of the present invention can diffuse the light generated by the mosquito light source 3 to both sides, the light of the mosquito light source 3 can not only attract mosquitoes, but also have the function of illumination. The light of the mosquito light source 3 can be controlled below the line of sight of the human eye by the reflector 4, thereby ensuring that the light of the mosquito light source 3 does not directly hit the human eye and cause damage.

Hereinafter, the equal light intensity maps obtained by reflecting the light generated by the mosquito light source 3 through the different types of reflective surfaces 41 are shown in FIGS. 8a to 8g; wherein, the thin light lines are drawn with a radiation intensity of 45 w/sr. The strong curve L1 is drawn by a broken line with an equal intensity curve L2 having a radiation intensity of 90 w/sr, and a thick solid line is an equal intensity curve L3 having a radiation intensity of 135 w/sr.

Referring to FIG. 5, when the angle θ 1 is 45 degrees, the angle θ 2 is 170 degrees, the angle θ 3 is 160 degrees, the projection distance D1 is 33 mm, the projection distance D2 is 40 mm, the projection distance D3 is 155 mm, and the vertical height H1 is At 30 mm, an iso-intensity map as shown in Fig. 8a can be obtained.

Referring to FIG. 5, when the angle θ 1 is 45 degrees, the angle θ 2 is 170 degrees, the angle θ 3 is 160 degrees, the projection distance D1 is 30 mm, the projection distance D2 is 40 mm, the projection distance D3 is 130 mm, and the vertical height H1 is At 20 mm, an iso-intensity map as shown in Fig. 8b can be obtained. When the vertical height H1 is changed to 30 mm, an iso-intensity map as shown in Fig. 8c can be obtained.

Please refer to Fig. 5, when the angle θ 1 is 45 degrees, the angle θ 2 is 170 degrees, the angle θ 3 is 165 degrees, the projection distance D1 is 40 mm, and the projection distance D2 is 40 mm. When D3 is 140 mm and the vertical height H1 is 20 mm, an iso-intensity map as shown in Fig. 8d can be obtained. When the vertical height H1 is changed to 30 mm, an iso-intensity map as shown in Fig. 8e can be obtained.

Referring to FIG. 5, when the angle θ 1 is 45 degrees, the angle θ 2 is 170 degrees, the angle θ 3 is 150 degrees, the projection distance D1 is 40 mm, the projection distance D2 is 40 mm, the projection distance D3 is 140 mm, and the vertical height H1 is At 20 mm, an iso-intensity map as shown in Fig. 8f can be obtained. When the vertical height H1 is changed to 30 mm, an iso-intensity map as shown in Fig. 8g can be obtained.

Among them, since the half-angle value of the equal-enhanced light map shown in Fig. 8a is low, the reflecting plate 4 corresponding to the 8a figure is still unable to completely guide the reflected light to the surrounding area, and some light will be irradiated thereto. The structure of the solar module 5 and the like above the mosquito light source 3. In contrast, the half-angle value of the equal-intensity map shown in the 8th to 8th graph is relatively high, so that the reflector 4 corresponding to the 8b to 8g map can completely guide the reflected light to the surrounding area, thereby reducing the pair of shields. The effect of the illumination range.

In particular, in the equal-intensity diagrams shown in Fig. 8f and 8g, the iso-optic intensity curve L3 with a radiation intensity of 135w/sr exhibits a light-like curve similar to the shape of the butterfly wing, indicating that the range of divergent rays is wider. Experiments have shown that more mosquitoes can be captured, helping to slow down and eliminate the dengue epidemic.

In addition, referring to Fig. 9, in the illumination mosquito trap of the present invention, each of the reflecting portions 41b of the reflecting surface 41 of the reflector 4 may be in a continuous curved shape, so that light can pass through the reflecting surface 41. A segment 411, a second segment 412, and a third segment 413 form a continuous, dead angled reflection that averages the light reflected around the casing 11.

In summary, the lighting mosquito trap device of the present invention can be configured by the reflector to cause the light source to emit light onto the reflector to form an indirect illumination region, and the reflected light can reach the global light. Divergence, expand the range of light of the mosquito light source, and control the light generated by the mosquito light source does not directly hit the human eye, so it can make the range of attracting mosquitoes wider without harming and stimulating the human eye, and achieve a substantial increase in catching The effect of mosquito effects. At the same time, the mosquito light source produces The light can provide illumination, so the lighting mosquito traps created by this creation do not need to be equipped with additional lights, which not only simplifies the structure, reduces the cost, but also reduces the energy consumption even when the solar module is illuminated. Not long, it is enough to supply the mosquito light source to operate.

Although the present invention has been disclosed by the above-described preferred embodiments, it is not intended to limit the present invention, and it is still within the spirit and scope of the present invention to make various changes and modifications to the above embodiments. The technical scope of the protection is created, so the scope of protection of this creation is subject to the definition of the patent application scope attached.

1‧‧‧Base

11‧‧‧ cabinet

111‧‧‧Inhalation

112‧‧‧ Positioning Department

113‧‧‧Guiding film

12‧‧‧Collection bucket

12a‧‧‧上杯

12b‧‧‧The next cup

121‧‧‧

122‧‧‧ Holding Department

123‧‧‧Anti-escape structure

124‧‧‧ vent

125‧‧‧ exhaust vents

13‧‧‧Support frame

2‧‧‧fan

3‧‧‧ Mosquito light source

4‧‧‧reflector

41‧‧‧ Reflective surface

41a‧‧‧ Central Department

41b‧‧‧Reflection Department

5‧‧‧Solar modules

A‧‧‧ guided entrance

R‧‧‧ bracket

Claims (22)

An illuminating mosquito trap comprising: a base having a box body, the top of the box is provided with a plurality of suction ports; a fan, the fan is disposed in the box, and the air inlet of the fan faces the number a suction port; a mosquito light source, the mosquito light source is disposed at the top of the box; and a reflector, the reflector has a reflective surface, the reflector is mounted on the base, and the reflective surface faces the mosquito light source. The illuminating mosquito trap device of claim 1, wherein the reflective mask has a central portion and a second reflecting portion, the central portion being located between the two reflecting portions, the central portion being the closest to the reflecting surface At the portion of the mosquito light source, the free ends of the two reflecting portions are respectively the portions of the reflecting surface that are farthest from the mosquito light source. The illuminating mosquito trap device of claim 2, wherein the top edge of the mosquito light source has a reference surface, and the vertical height of the two reflecting portions to the reference surface is connected to the free end Increment. The illuminating mosquito trap device of claim 3, wherein each of the reflecting portions comprises a first segment, a second segment and a third segment, the first segment connecting the central portion, the second segment One side of the second section is connected to the first section, and the other side of the second section is connected to the third section. The first section, the second section and the third section are planes of different inclination angles. The illuminating mosquito trap device of claim 4, wherein the angle between the first segment and the reference surface is 30 to 60 degrees, and the angle between the second segment and the first segment is 150 to 170 degrees. The angle between the third segment and the second segment is 150 to 170 degrees. The illuminating mosquito trap device of claim 5, wherein a projection distance from the first segment to the reference surface is 20 to 40 mm, and a projection distance from the second segment to the reference surface is 20 to 40 mm. The projection distance from the reflection portion to the reference surface is 120 to 150 mm. The lighting mosquito trap of claim 6, wherein the first segment and the base The angle between the second surface and the first portion is 170 degrees, the angle between the third portion and the second portion is 150 degrees, and the projection distance from the first segment to the reference surface is 40 mm, the projection distance of the second segment to the reference surface is 40 mm, the projection distance from the reflection portion to the reference surface is 140 mm, and the vertical height from the center portion to the reference surface is 20 to 30 mm. The illuminating mosquito trap device of claim 3, wherein the mosquito light source is an LED light strip, and the central portion extends in a direction parallel to the longitudinal direction of the mosquito light source. The illuminating mosquito trap device of claim 8, wherein the two reflecting portions are symmetrical, and the central portion is located at a center line of the mosquito light source in the longitudinal direction. The illuminating mosquito trap device of claim 8, wherein the vertical height of the central portion to the reference surface is 10 to 30 mm. The illuminating mosquito trap device of claim 8, wherein the projection end of the free end edge of the reflective surface of the reflective surface on the reference surface forms a projection width, and the projection width is 200-330 mm. The illuminating mosquito trap device of claim 3, wherein each of the reflecting portions comprises a first segment, a second segment and a third segment, the first segment connecting the central portion, the second segment One side of the second section is connected to the first section, and the other side of the second section is connected to the third section, and each of the reflecting portions has a continuous curved shape. The illuminating mosquito trapping device according to any one of claims 1 to 12, wherein the inner surface of the casing is provided with a positioning portion, and a collecting bucket is detachably coupled to the positioning portion. The illuminating mosquito trap device of claim 13, wherein a plurality of guiding pieces are disposed between the plurality of suction ports and the positioning portion, and each of the guiding pieces is obliquely connected to the box by one side edge. The inner surface of the body, the other opposite side edges of each of the guiding sheets, together form a guiding inlet. The illuminating mosquito trap device of claim 13, wherein the collecting bucket is divided into an upper cup and a lower cup, and the upper cup and the ring wall of the lower cup are nested with each other, and the top edge of the upper cup is outward Extending to form a disk, the collecting bucket is coupled to the positioning portion by the disk. The illuminating mosquito trap device of claim 15, wherein the collecting bucket is provided with a holding portion connected to the disc. The illuminating mosquito trap device of claim 15, wherein the upper cup is provided with an escape preventing structure, and the escaping structure has a funnel shape with an upper width and a lower width, and a top edge of the anti-escape structure is coupled thereto. The inner wall of the cup. The illuminating mosquito trap device of claim 17, wherein the fan is assembled on a disc of the collecting tub, and an air outlet of the fan faces the anti-escape structure. The illuminating mosquito trap device of claim 17, wherein a plurality of venting ports are provided between the top edge and the bottom edge of the anti-escape structure. The illuminating mosquito trap device of claim 15, wherein the lower cup is provided with a plurality of air vents. The illuminating mosquito trap device of any one of the above-mentioned items, wherein the top end of the reflector is provided with a solar module, and the two ends of the plurality of brackets respectively connect the solar module and the cabinet The plurality of brackets extend through the reflector to support the solar module and position the reflector jointly by the plurality of brackets. The illuminating mosquito trap device of any one of the preceding claims, wherein the pedestal further comprises a support frame, the top of the support frame is provided with two positioning struts extending upward, the two positioning The struts are oppositely disposed; the opposite surfaces of the box are respectively provided with a joint portion, and the box body is combined by the two joint portions to be positioned on the two positioning struts of the support frame.