TWM526278U - Automatic water-supplying type aedes trap - Google Patents

Description

Automatic water supply mosquito trap

This creation is about a mosquito trap, especially a mosquito trap that automatically feeds water to create a moist environment and attracts mosquitoes.

Comfortable and clean living environment is the goal pursued by modern people. However, in today's living environment, there are many insect organisms that are harmful to the environment and human health, such as mosquitoes, flies, etc. Among them, flies like corrupt food, and It will stick the harmful substances on the corrupted food to another item, thus causing the flies to become a medium for spreading diseases, which will bring a lot of infectious diseases to human beings. On the other hand, the mosquitoes will not only bite and suck the human blood, but also cause redness and swelling of the human skin. Itching, even dengue fever, malaria and many other diseases are transmitted through mosquitoes as a medium, which in turn poses a great threat to people's lives.

In order to prevent the mosquitoes from transmitting the virus to humans, there are currently products on the market that have been shown to eliminate mosquitoes, such as flycatchers, fly-catching papers, insecticides, and mosquito coils. However, fly traps and fly-catching papers The method of trapping mosquitoes will cause the bodies of the mosquitoes to be exposed to the environment, which will not only hinder or even affect the sanitation. In addition, after using the fly paper for a period of time, it will not only be contaminated by dust and dirt in the air. The viscosity is reduced, and the effect of catching the mosquitoes is reduced. In order to prevent the flytrap from catching the mosquitoes, it is necessary to replace the new fly papers frequently, and the frequent replacement of the fly papers will result in waste of resources. In addition, insecticides and mosquito-repellent incense rely on gas to achieve the effect of culling or repelling mosquitoes. However, the gases produced by insecticides and mosquito coils also have adverse effects on human health, and environmental problems are also derived. Develop innovative mosquito traps.

At present, mosquito traps are commonly used as insect traps and insect traps. Among them, the traps use the phototaxis of mosquitoes and set up a power grid layer around the lamp tube to make the mosquitoes fly toward the tube and touch the power grid layer. The use of electric current to kill mosquitoes with electric shock, although this method of killing mosquitoes has certain effects, but the mosquito traps have the lack of power consumption and safety concerns in use, as the traps are placed inside. The bait and the liquid that can quickly kill the mosquito, and the insect trapper allows the mosquito to enter the insect trap through the bait, and then the mosquito is culled through the liquid. However, when the insect trap is actually used, the liquid is easily overturned and exposed. Causes environmental pollution and difficulties in cleaning up.

The main purpose of this creation is to automatically supply liquid to the inside of the trap, so that the liquid forms a gas through volatilization, and then the gas is passed through to make the interior of the trap appear humid, so that the humid environment can induce the mosquito to enter the trap.

The secondary purpose of this creation is to achieve the effect of killing the mosquitoes without using harmful substances, so as not to cause environmental pollution, and not to cause harm to human health.

Another object of the creation is to perform the action of killing the mosquitoes regardless of any environmental conditions, thereby increasing the practicality of the trap.

In order to achieve the above object, the present invention provides an automatic water supply type mosquito trap, which is mainly composed of a liquid storage container and a mosquito trap container. The liquid storage container stores a liquid inside; the mosquito trapping container has a body and a trapping body located above the seat body, and the base body is provided with a connecting portion and a water storage portion, and the connecting portion is assembled to the liquid storage container And the water storage device is configured to receive the liquid in the liquid storage container, wherein the trapping body has a trapping chamber in which the top end is in a closed state, and the closed chamber is connected to the water storage portion.

The liquid in the liquid storage container flows to the water storage portion to form a horizontal surface having a set height, and a gas is formed by volatilization, and the gas can flow from the water storage portion to the trapping chamber of the trap body.

In addition, when the liquid inside the water storage portion continues to volatilize, the liquid inside the liquid storage container will automatically flow to the inside of the water storage portion to maintain the set height of the horizontal plane, so that the inside of the trap chamber passes through the gas to present A humid environment.

In a preferred embodiment, the top of the base body integrally extends to form the trapping body, and the trapping chamber is provided with a trapping opening for the mosquito to enter the trapping chamber.

In another preferred embodiment, the mosquito trap body has a support outer cylinder integrally formed on the base body, a replaceable inner cylinder selectively attachable to the support outer cylinder, and an assembled body. a cover for supporting the outer cylinder. In this embodiment, the support outer cylinder forms a trapping opening for the mosquito to enter the trapping chamber, and the replaceable inner cylinder extends outwardly to at least one of the trapping openings. The flange.

In the above two embodiments, the opening direction of the trapping opening faces the outer peripheral side of the trapping chamber, and the liquid storage container has a water outlet that is flush with the horizontal plane, and the water storage portion further has a drainage channel for the trapping The body further has a filter portion, the drain passage communicates with the outside of the mosquito trap container, and has a drain port having a horizontal height higher than the horizontal plane, and the filter portion has a horizontal height higher than a set height of the liquid, and is located at the above The trap chamber.

In addition, the inside of the trapping chamber is provided with a viscose material for catching mosquitoes, and the seat of the mosquito trapping container is further provided with an overflow portion located on the outer peripheral side of the water storage portion, and the mosquito trapping container The water storage portion is composed of a guiding groove and a water storage groove communicating with the guiding groove, and the guiding groove has a depth lower than a depth of the water storage groove.

It can be seen from the foregoing description that the present invention is characterized in that when the liquid inside the water storage portion is continuously volatilized into the gas flowing into the trapping chamber, the liquid inside the liquid storage container will automatically flow to the inside of the water storage portion to maintain the set height of the horizontal plane, so that The trapping chamber can pass through the gas for a long time to present a humid environment, so that the mosquito can enter the trapping chamber of the trapping body through the humid environment.

In addition, the liquid stored inside the liquid storage container is a common aqueous solution. Therefore, if the trap is used in an incorrect manner, the liquid is overturned or the gas formed by volatilization does not cause harm to the human body and the environment. .

Furthermore, the trapping opening direction of the opening for the mosquito to enter the trapping chamber faces the outer peripheral side of the trapping chamber and the tip end of the trapping chamber is closed, whereby in the rainy environment, the rainwater is not trapped by the trapping chamber. At the top, it enters the trap chamber, causing water to accumulate inside the trap chamber, which effectively increases the service life.

In order to further understand the structure, use and characteristics of this creation, we have a deeper and clearer understanding and understanding. The preferred embodiment is described below with reference to the following:

Referring to FIG. 1 and FIG. 2, the automatic water supply type mosquito trap 1 of the present invention is mainly composed of a liquid storage container 10 and a mosquito trap container 20 in the first preferred embodiment. The liquid storage container 10 has a receiving portion 11 and a water outlet portion 12 on the side of the receiving portion 11. The receiving portion 11 has a receiving space 111 for storing a liquid 30 (shown in FIG. 4), and the water is discharged. The portion 12 has a water outlet space 121 that communicates with the accommodating space 111 and a water outlet 122 that communicates with the water outlet space 121.

Referring to FIG. 2 and FIG. 3, the mosquito trap container 20 is mainly composed of a main body 21 and a trap body 22 located above the base body 21. The base body 21 has a base 211 and a cover plate 212. The 211 has a bottom plate 211a that is horizontally formed, a first ring plate 211b that is formed by extending from the bottom plate 211a, and a second ring plate 211c that is extended upwardly from the outer peripheral side of the bottom plate 211a, wherein the base 211 is The local area and the first ring plate 211b together form a water storage portion 23 for receiving the liquid 30 in the liquid storage container 10, and a gap between the first ring plate 211b and the second ring plate 211c is formed on the outer periphery of the water storage portion 23. The side of the water storage portion 23 is provided with a guiding groove 231 at one end, and a drain channel 232 communicating with the outside of the mosquito container 20 at the other end, and the guiding groove 231 A drainage groove 233 is communicated with the drainage channel 232, and the drainage channel 232 has a drainage port 232a, and the depth of the guiding groove 231 is lower than the depth of the water storage groove 233. The overflow portion 24 has three An overflow port 241 penetrating the base 211.

The cover plate 212 has a hollow connecting pipe 212a connected to the water outlet portion 12, and the hollow connecting pipe 212a forms a connecting portion 25 connected to the liquid storage container 10. The cover plate 212 is assembled to the base 211. The second ring plate 211c penetrates a partial section of the hollow connecting pipe 212a into the guiding groove 231 of the water storage portion 23.

Referring to FIG. 1 and FIG. 2, the trapping body 22 of the mosquito trapping container 20 is mainly composed of a supporting outer cylinder 221, a replaceable inner cylinder 222 and a cover 223 in this embodiment. The supporting outer cylinder 221 has a supporting portion 221a integrally formed on the cover plate 212 and a receiving portion 221b partially located in the water storage groove 233, wherein the receiving portion 221b of the supporting outer cylinder 221 has a trapping chamber 221c located above the water storage groove 233, an opening 221d opening toward the upper side of the supporting outer tube 221, and a trapping opening 221e facing the outer peripheral side of the supporting outer tube 221, and the trapping chamber The chamber 221c, the assembly opening 221d, and the trapping opening 221e are in communication with each other. As shown in the figure, the accommodating portion 221b has a filter portion 26 that exhibits a horizontal state in the trap chamber 221c. The filter portion 26 has a plurality of filters that communicate the trap chamber 221c and the water storage groove 233. The hole 261 and an overflow passage 262 communicating with the water storage groove 233. In this embodiment, the filter hole 261 has a width of less than 1.2 mm.

The interchangeable inner cylinder 222 has a shape of a hollow tubular body and extends horizontally outward to form two flanges 222a. The two flanges 222a abut against the trapping opening 221e of the receiving portion 221b, so that the above-mentioned replaceable The inner cylinder 222 is located in the trapping chamber 221c of the accommodating portion 221b, and the replaceable inner cylinder 222 is selectively assembled or detached from the trapping chamber 221c, as shown in the above, the replaceable inner cylinder The adhesive layer 222b for restricting the action of the mosquitoes is disposed on the inner side of the 222, and the cover 223 is assembled to the assembly opening 221d of the accommodating portion 221b such that the tip end of the trapping chamber 221c is closed.

Referring to FIG. 4, in a specific application, the accommodating portion 11 of the liquid storage container 10 is positioned above the seat body 21, and the liquid 30 of the liquid storage container 10 flows through the water discharge portion 12 and the connecting portion 25 to the above. The guiding groove 231 of the water storage portion 23, and the guiding groove 231 can be guided to the water storage portion 23 by the depth of the groove lower than the depth of the water storage groove 233. The groove 233 further causes the liquid 30 to form a horizontal surface 31 inside the water storage portion 23, and when the horizontal surface 31 of the liquid 30 is aligned with the water outlet 122 of the water discharge space 121, the liquid 30 of the liquid storage container 30 The water storage portion 23 flowing into the seat body 21 is stopped, and a set height 32 is formed between the horizontal surface 31 of the liquid 30 and the bottom plate 211a. As shown, the level of both the drain port 232a and the filter portion 26 of the drain passage 232 is higher than the set height 32.

Wherein, when the liquid 30 of the liquid storage container 10 flows to the water storage portion 23 of the seat body 21, the liquid 30 may splash from the water storage portion 23 to the overflow portion 24, and is located at the overflow. The liquid 30 of the portion 24 can flow to the overflow port 241, and the liquid 30 can be discharged to the outside of the mosquito trap 20 by the overflow port 241.

Referring to FIG. 5, after a period of time, the liquid 30 located in the water storage portion 23 forms a gas 40 via volatilization, and the gas 40 passes from the water storage groove 233 of the water storage portion 23 via the filter portion 26. The filter hole 261 flows to the trap chamber 221c of the trap body 22, wherein when the liquid 30 inside the water storage portion 23 continues to volatilize, the capacity of the liquid 30 inside the water storage portion 23 is reduced, when the water storage portion 23 When the capacity of the internal liquid 30 is reduced, the liquid 30 inside the liquid storage container 10 will automatically flow into the inside of the water storage portion 23 to maintain the set height 32.

Referring to FIG. 6, the gas 40 flows inside the trap chamber 221c to cause a humid environment inside the trap chamber 221c, and the cover 223 of the mosquito trap 20 prevents the gas 40 from diffusing to the above. The outside of the mosquito trapping container 20 allows the gas 40 to continuously circulate inside the trapping chamber 221c, thereby causing the inside of the trapping chamber 221c to be filled with rich moisture, wherein the trapping chamber 221c exhibits a moist environment and attracts spots. The mosquito enters the trapping chamber 221c from the trapping opening 221e, and catches the mosquito by the above-mentioned adhesive material 222b, thereby achieving the effect of killing the mosquito.

However, when the above-mentioned adhesive material 222b is adhered to a plurality of mosquitoes, the surface of the above-mentioned adhesive material 222b is covered with a mosquito, and at this time, the replaceable inner cylinder 222 is removed from the trap chamber 221c, and then The other replaceable inner cylinder 222 is assembled to the trap chamber 221c, and the action of catching the mosquitoes is performed by the adhesive 222b.

Wherein, the liquid 30 can be added with a mosquito-repellent substance (for example, an extract of concentrated grass extract, yeast powder, animal liver powder...), or a variety of oily mosquito-repellent flavors (for example, apple flavor, Lactic acid flavor) and pheromones (human sweat extract) to increase the effect of attracting mosquitoes.

In addition, the liquid 30 is a common aqueous solution. Therefore, if the trap is used in an incorrect manner, the liquid 30 is overturned or the gas 30 formed by volatilization of the liquid 30 does not affect the human body and the environment. Causes harm.

Referring to FIG. 7 , the cover 223 of the mosquito trap container 20 can block the rainwater from flowing into the trap chamber 221 c of the trap body 22 in a specific application in a rainy environment, thereby preventing rainwater from contacting the adhesive material 222 b. The service life of the above-mentioned adhesive material 222b is lowered. However, in the rainy environment, some rainwater still enters the trapping chamber 221c from the trapping opening 221e, and the excess rainwater first flows from the filtering hole 261 or the overflow passage 262 to the water storage recess 233. Then, the drainage channel 232 is discharged to the outside of the mosquito trap container 20.

In addition, the mosquito may be spawned in the trapping chamber 221c, and the egg may not fall to the upper water storage groove 233 because the contour shape is larger than the aperture of the filter hole 261, so that the mosquito eggs can only fall. The filter unit 261 or the overflow passage 262 can guide the rainwater to the water storage groove 233 so that water does not accumulate above the filter portion 26, and the spot is further removed. The eggs of the mosquitoes are not exposed to the above liquid 30 and cannot be hatched to achieve the effect of killing mosquitoes.

Referring to FIG. 8, in the second preferred embodiment, the difference from the first preferred embodiment is that the trapping body 22 of the mosquito trapping container 20 is composed of only the supporting outer cylinder 221 and the cap 223. The adhesive material 222b is formed on the accommodating portion 221b of the support outer cylinder 221, and the manner of use is the same as that of the first preferred embodiment, and will not be described herein.

The above-mentioned embodiments are only used to facilitate the description of the present invention and are not limited. In the spirit of the creative spirit, all kinds of simple deformations and modifications made by those skilled in the industry in accordance with the scope of the patent application and the new description of the creation should still be It is included in the scope of the following patent application.

1‧‧‧Automatic water supply mosquito trap
10‧‧‧Liquid container
11‧‧‧ Housing Department
111‧‧‧ accommodating space
12‧‧‧Water Department
121‧‧‧Water space
122‧‧‧Water outlet
20‧‧‧Mosquito container
21‧‧‧ body
211‧‧‧Base
211a‧‧‧floor
211b‧‧‧ first ring plate
211c‧‧‧second ring plate
212‧‧‧ cover
212a‧‧‧ hollow connecting tube
22‧‧‧ trapping ontology
221‧‧‧Support outer tube
221a‧‧‧Support
221b‧‧‧Receipt Department
221c‧‧‧ trapping chamber
221d‧‧‧Assembly opening
221e‧‧‧ trapping opening
222‧‧‧Replaceable inner cylinder
222a‧‧‧Flange
222b‧‧‧Viscose
223‧‧‧ Cover
23‧‧‧Water Storage Department
231‧‧‧ guiding groove
232‧‧‧Drainage channel
232a‧‧‧Drainage
233‧‧‧Water storage groove
24‧‧‧Overflow
241‧‧‧Overflow
25‧‧‧Connecting Department
26‧‧‧Filter Department
261‧‧‧ Filter holes
262‧‧‧Overflow channel
30‧‧‧Liquid
31‧‧‧ horizontal plane
32‧‧‧Set height
40‧‧‧ gas

Figure 1 is a perspective view of the first embodiment of the present invention; Figure 2 is an exploded view of Figure 1; Figure 3 is a schematic view of the base; Figure 4 is a schematic view of the liquid flowing to the water storage portion; Figure 5 is a schematic diagram of a liquid volatilized into a gas; Figure 6 is a schematic view of the mosquito-trapping mosquito; Figure 7 is a schematic view of the mosquito trap in a rainy environment; and Figure 8 is a schematic diagram of the automatic water-feeding mosquito trap A schematic diagram of a preferred embodiment.

1‧‧‧Automatic water supply mosquito trap

10‧‧‧Liquid container

11‧‧‧ Housing Department

111‧‧‧ accommodating space

12‧‧‧Water Department

121‧‧‧Water space

122‧‧‧Water outlet

20‧‧‧Mosquito container

21‧‧‧ body

211‧‧‧Base

211a‧‧‧floor

211b‧‧‧ first ring plate

211c‧‧‧second ring plate

212‧‧‧ cover

212a‧‧‧ hollow connecting tube

22‧‧‧ trapping ontology

221‧‧‧Support outer tube

221a‧‧‧Support

221b‧‧‧Receipt Department

221c‧‧‧ trapping chamber

221d‧‧‧Assembly opening

221e‧‧‧ trapping opening

222‧‧‧Replaceable inner cylinder

222a‧‧‧Flange

222b‧‧‧Viscose

223‧‧‧ Cover

23‧‧‧Water Storage Department

231‧‧‧ guiding groove

232‧‧‧Drainage channel

232a‧‧‧Drainage

233‧‧‧Water storage groove

24‧‧‧Overflow

241‧‧‧Overflow

25‧‧‧Connecting Department

26‧‧‧Filter Department

261‧‧‧ Filter holes

262‧‧‧Overflow channel

Claims (11)

An automatic water supply type mosquito trap comprises: a liquid storage container for storing a liquid inside; and a mosquito trapping container having a body and a trapping body above the seat body, wherein the seat body is provided with an assembly a connecting portion of the liquid container and a water storage portion for receiving the liquid in the liquid storage container, wherein the trapping body has a trapping chamber connected to the water storage portion, and the liquid of the liquid storage container flows to the water storage portion to form a Having a horizontal level of a set height and volatilizing to form a gas capable of flowing in the trapping chamber; wherein, when the liquid inside the water storage portion is continuously volatilized, the liquid inside the liquid storage container will automatically flow to the storage The inside of the water portion maintains the set height of the above-mentioned horizontal plane, so that the inside of the trap chamber penetrates the gas to present a humid environment. The automatic water supply type mosquito trap according to claim 1, wherein the liquid storage container has a water outlet that is flush with the horizontal surface. The automatic water supply type mosquito trap according to claim 1, wherein the water storage portion further comprises a drainage channel communicating with the outside of the mosquito trap, the drainage channel having a drainage level higher than the horizontal plane mouth. The automatic water supply type mosquito trap according to claim 1, wherein the trap body further forms a filter portion higher than the set height in the trap chamber. The automatic water supply type mosquito trap according to claim 1, wherein the top of the base body integrally extends to form the mosquito trapping body, and the trapping chamber is provided with at least one mosquito for entering the trapping chamber. The opening is trapped, and the opening direction of the trapping opening faces the outer peripheral side of the trap body. The automatic water supply type mosquito trap according to claim 1, wherein the mosquito trap body has a support outer tube formed on the base body, and a replaceable type that can be selectively attached and detached to the support outer tube An inner cylinder and a cover assembled to the support outer cylinder. The automatic water supply type mosquito trap according to claim 6, wherein the support outer tube forms a trapping opening for the mosquito to enter the trapping chamber, and the replaceable indoor tube extends outward to protrude at least one The flange of the trapping opening is opposed to the opening direction of the trapping opening toward the outer peripheral side of the trapping body. The automatic water supply type mosquito trap according to claim 1, wherein the inside of the trapping chamber is provided with a viscose material for catching mosquitoes. The automatic water supply type mosquito trap according to claim 1, wherein the seat of the mosquito trap container is further provided with an overflow portion located on an outer peripheral side of the water storage portion. The automatic water supply type mosquito trap according to claim 1, wherein the water storage portion of the mosquito trap container is constituted by a guiding groove and a water storage groove communicating with the guiding groove. The depth of the guiding groove is lower than the depth of the water storage groove. The automatic water supply type mosquito trap according to claim 1, wherein the top end of the trapping chamber is in a closed state.