TW202106164A - Insect Disinfection Device with Automatic Medicine Supply - Google Patents

Abstract

The present invention relates to an insect disinfection device with automatic medicine supply, comprising: an insect disinfection base, a liquid storage container and a carrier. The insect disinfection comprises a containing portion and a connection portion, the inside of the liquid storage container stores insecticide and connects with the connection portion, so the insecticide flows into the inside of the containing portion and forms. The horizontal plane aligns an open of the connection portion. The carrier is provided with a soak portion and a volatile portion. Wherein, the soak portion is soaked in the insecticide which is inside the insect disinfection base; the soak portion will absorb the insecticide so the volatile portion will contain the insecticide as well.Therefore, when there is insecticide inside the liquid storage container, the horizontal plane of insecticide would still align the open. The soak portion of carrier soaked in the insecticide continuously, the insecticide of the volatile portion will be kept in certain concentration, so the insect disinfection function would be stable and kept for a long time.

Description

Automatic drug supply and pest control device (1)

The present invention relates to an insect exterminating device that achieves an insect-killing effect through the volatilization of a medicament, in particular to an insect-killing device that can automatically supply medicament so that the insect-killing effect can be kept very stable and durable.

A comfortable and clean living environment is the goal pursued by modern people. However, today’s living environment is accompanied by many insect creatures that are harmful to the cleanliness of the environment and human health, such as mosquitoes, flies... etc. Among them, flies like to spoil food. The harmful substances on the spoiled food will stick to another object, thus causing flies to become a vector for spreading diseases, which in turn brings many infectious diseases to humans. On the other hand, mosquitoes not only bite and suck human blood, but also cause red and swollen skin. Itching, even dengue fever, malaria and many other diseases are spread through mosquitoes as a vector, which brings great threats to people's lives.

In order to prevent spotted mosquitoes from infecting the virus to humans, there are currently products on the market that are allowed to eliminate mosquitoes, such as fly swatters, fly papers, spray insecticides, and mosquito coils. However, fly swatters and fly papers The method of catching spotted mosquitoes will expose the carcass of spotted mosquitoes to the environment, which is not only unsightly, but also affects environmental hygiene. Among them, after a period of time, fly paper will not only be caused by dust and dirt attached to the air. As a result, the viscosity is reduced and the effect of catching spotted mosquitoes is reduced. In order to prevent the effect of catching spotted mosquitoes from being reduced by the fly paper, it is necessary to replace the fly paper frequently with new ones. Frequent replacement of the fly paper will result in a waste of resources. In addition, spray insecticides and mosquito coils rely on aerosols and smoke to kill or drive away spotted mosquitoes. However, the aerosols and smoke generated by insecticides and mosquito coils can also cause adverse effects on human health and cause more damage. Due to environmental issues, many companies continue to develop innovative mosquito traps.

At present, common mosquito traps are insect traps and insect traps. Among them, the insect trap uses the phototaxis of mosquitoes and is provided with a grid layer around the lamp tube, so that when the mosquitoes fly toward the lamp tube and touch the grid layer, Electric current is used to kill mosquitoes with electric shocks. Although this method of killing mosquitoes has a certain effect, the mosquito trap lamp has the disadvantages of power consumption and safety concerns. As for the insect trap, the trap is placed inside. Bait and liquid that can kill mosquitoes quickly, and the insect trap uses the bait to get the mosquitoes into the trap, and then uses the liquid insecticide to kill the mosquitoes. However, the insect trap only contains a certain amount of liquid to kill the insects. Liquid insecticides will gradually decrease with the use of time, and if the liquid insecticide is not refilled regularly, the insect trap will be in a dry state without liquid insecticide, and the insect trap will not be stable. Exterminate mosquitoes. In this way, the service life of the insect trap is often limited by whether the liquid insecticide can be refilled in time. If the liquid insecticide is not refilled in time, it will cause the liquid insecticide to expire and lose its extermination. The effect of insects, and the insect trap cannot kill the mosquitoes. Moreover, the insect trap must be regularly maintained and cleaned after long-term use. Otherwise, the mosquito body will be stinky due to uncleaned, which will affect the insecticide, which will also lead to the trapping of insects. Insect traps cannot kill mosquitoes. Therefore, insect traps still have inconvenience in use.

The main purpose of the present invention is to automatically supply the insecticide to the inside of the exterminator, so that the carrier will be in a state of containing the insecticide for a long time, so that the volatile part can not only continue to contain a fixed dose of the insecticide, but also in the volatilized part. The insecticidal agent in the part can also be maintained at a specific concentration for a long time, so that the insecticidal time effect of the insect exterminator can be stable and lasting.

The secondary purpose of the present invention is that when the liquid storage container is separated from the exterminator seat, the insecticide remaining in the liquid storage container will not flow out of the inside of the liquid storage container, thereby preventing the exterminator located inside the liquid storage container The medicament is overturned and exposed, which relatively avoids environmental pollution.

In order to achieve the foregoing objective, the present invention relates to an automatic pesticide supply and pest control device. The automatic pesticide supply and pest control device is mainly composed of a pest control seat, a liquid storage container and a carrier. The pest control seat has a capacity A liquid containing portion and a connecting portion connected to the containing portion, the liquid storage container stores a volatilized pesticidal agent inside, and is connected to the connecting portion, and the pesticidal agent can flow into the containing portion The inside of the carrier forms a horizontal plane, and the horizontal plane is aligned with a liquid surface opening in the connecting portion, wherein a part of the carrier is set as a immersion section below the horizontal plane, and the remaining part of the carrier Set as a volatile part above the horizontal plane, the immersion part is in the accommodating part to be immersed in the insecticide located in the accommodating part, and the soaking part absorbs the insecticide to keep the volatile part in 1. The drug-containing state of the above-mentioned insecticide.

In one embodiment, the above-mentioned automatic medicine supply and pest control device further has a connecting plate, and the above-mentioned connecting plate is located on a side of the carrier opposite to the above-mentioned pest control seat body so as to contact with the above-mentioned carrier, and the above-mentioned connecting plate is connected to the container. The locating part allows the connecting plate to restrict the soaking part from being continuously immersed in the insecticide located in the accommodating part. In this embodiment, a part of the connecting plate forms a covered area, and the remaining part of the connecting plate forms In a ventilation area, a part of the carrier is covered by the covering area, and the remaining part of the carrier is located in the ventilation area.

In another embodiment, the connecting portion is mainly composed of a first connecting seat, a second connecting seat, and a switching unit. The first connecting seat is formed on the pest control seat body and has a connecting seat connected to the container. The first communication hole of the set portion and a first connection space connected to the first communication hole.

The second connecting seat is assembled to the liquid storage container and is provided with a second connecting space having the liquid surface opening, and the second connecting seat can be selectively assembled or separated from the first connecting seat, and the switching unit It is located between the first connection seat and the second connection seat, and can selectively block or open the liquid surface opening, so that the first connection space and the second connection space cannot pass through the liquid surface opening. The isolated state of communication is switched to a communication state capable of communicating with each other through the above-mentioned liquid surface opening.

In this embodiment, when the first connecting seat and the second connecting seat are transformed from a separated state to a connected state, both the first connecting space and the second connecting space pass through the The switching unit simultaneously switches from the isolation state to the communication state.

Wherein, the switching unit has a freely movable movable part and a fixed fixed part. The outline of the movable part is larger than the liquid surface opening and can cover the liquid surface opening so that the first connection space and the first connection space can be covered. Both of the two connecting spaces are in the above-mentioned isolated state, and the fixing member is formed on the first connecting seat. When the first connecting seat and the second connecting seat are transformed from the separated state to the connecting state, the fixing member can The movable part is driven away from the liquid surface opening, so that the first connection space and the second connection space are in the above-mentioned communication state. In addition, the movable part is located inside the second connection space, and the fixed part The contour is smaller than the opening on the liquid surface, and can pass through the opening on the liquid surface to touch the movable part, and keep the movable part away from the opening on the liquid surface.

In another embodiment, the second connecting seat is provided with a piercing member inside the second connecting space, and the piercing member can pierce a closed film formed on the liquid storage container to give way to the liquid storage container The insecticide can flow into the accommodating portion, and the second connecting seat further penetrates to form a second communication hole communicating with the second connecting space, and a second connecting seat is provided between the first connecting seat and the second connecting seat. The engagement unit that can selectively connect the second communication hole or not to the first communication hole.

In this embodiment, the engaging unit includes: an engaging groove and an engaging protrusion, the engaging groove is formed on the first connecting seat, and has a set of connecting sections and an engaging section, and The engaging protrusion is formed on the second connecting seat, and can be selectively assembled to the assembling section so that the second communication hole does not communicate with the first through hole or the engaging section is assembled to allow the second communication The hole communicates with the above-mentioned first via hole.

In the foregoing three embodiments, when the insecticide contained in the volatile part can continue to evaporate, the insecticide located inside the liquid storage container will automatically flow to the accommodating part, so that the horizontal plane can continue to be aligned with The liquid surface has holes so that the soaking part can continuously absorb the insecticide.

In addition, the bottom surface of the accommodating portion is inclined downward toward the direction away from the connecting portion to form a guiding surface, and the guiding surface can guide the insecticide located inside the liquid storage container to flow toward the immersion of the carrier The pest control seat body forms a support part contacting the volatile part on one side of the accommodating part, and the support part is used to prop up the volatile part and keep the volatile part away from the volatile part located in the accommodating part. An insecticide, wherein the supporting part is provided with a plurality of ventilation holes covered by the volatile part, and an air stream can flow through the ventilation holes to flow to the volatile part.

The feature of the present invention is that in the state that there is an insecticide inside the liquid storage container, the insecticide located in the liquid storage container can automatically flow into the exterminator seat body, so that the level of the insecticide will continue to be flush with the liquid surface. Hole, so that the soaking part of the carrier can be immersed in the insecticide located in the exterminator for a long time, so that the volatile part can be in a drug-containing state containing the insecticide for a long time, thereby, the insecticide contained in the volatile part The medicament can not only prolong the volatilization time, but also keep the pest control effect very stable and lasting.

In addition, the connecting part has two connecting seats and a switching unit. The two connecting seats are respectively assembled on the pest control seat body and the liquid storage container, and can selectively present a connected state of mutual connection or a separated state of mutual separation, when the first When the connecting seat and the second connecting seat are transformed from the separated state to the connected state, the switching unit can switch the first connecting space and the second connecting space from the isolated state that cannot communicate with each other through the communicating hole to the one that can communicate with each other through the communicating hole. In the connected state, the insecticide remaining inside the liquid storage container can pass through the switching unit of the connection part without flowing out from the inside of the liquid storage container, and the structural design of the connection part can prevent the insecticide located inside the liquid storage container. Insect medicine indirectly pollutes the environment by flowing out during the process of changing the liquid storage container from the inverted state to the upright state.

In order to facilitate a deeper, clear and detailed knowledge and understanding of the structure, use and characteristics of the present invention, a preferred embodiment is given, which is described in detail in conjunction with the drawings as follows:

Please refer to Figures 1 and 2, the automatic medicine supply and pest control device 1 of the present invention is mainly composed of a liquid storage container 10, a pest control base body 20, a plurality of carriers 30 and a connecting plate 40, and the liquid storage container 10 It has a receiving portion 11 and a water outlet 12 on one side of the receiving portion 11. The receiving portion 11 has a containing space 111 for storing an insecticide 50 (as shown in FIG. 7A), and the water outlet 12 has a communicating The water outlet space 121 in the accommodating space 111 and a water outlet 122 connected to the water outlet space 121, wherein the water outlet 122 is connected to a closed membrane 13 that can be pierced. In this embodiment, the closed membrane 13 can prevent destruction. The insect medicine 50 flows out through the water outlet 122.

The pest control seat body 20 has a ring plate 21 with a circular appearance and a bottom plate 22 with a horizontal appearance. The ring plate 21 is formed on the outer edge of the bottom plate 22, wherein the upper surface of the bottom plate 22 extends upward to form a The block body 23 and a connecting portion 24 formed on one side of the block body 23. The outline size of the block body 23 is smaller than that of the ring plate 21, so that a gap is formed between the outer edge of the block body 23 and the inner edge of the ring plate 21. The overflow portion 25 that can accommodate the insecticide 50 (as shown in FIG. 7A), and the overflow portion 25 is connected to an overflow port 211 formed in the ring plate 21, and the bottom surface of the bottom plate 22 extends downward to form A plurality of support frames 26 that can be in contact with the ground makes the base form a space 27 with the ground through the support frame 26.

As shown in the figure, the block 23 of the pest control seat body 20 is provided with a containing portion 28 capable of containing liquid and a supporting portion 29 on the side of the containing portion 28 on the surface away from the bottom plate 22, which is implemented here. In an example, the accommodating portion 28 is set as a plurality of accommodating grooves 281 formed by the block 23 recessed downward, and the plurality of accommodating grooves 281 are communicated with each other, and the bottom surface of each accommodating groove 281 jointly constitutes a The guiding surface 282 (as shown in FIG. 7C) that can guide the liquid flow direction. In this embodiment, the guiding surface 282 is set as a downwardly inclined slope from the connecting portion 24 to the supporting portion 29. In addition, the supporting portion 29 is set as a plurality of supporting protrusions 291 formed by protruding upward from the block 23, and each supporting protrusion 291 penetrates to form a plurality of ventilation holes 292 connected to the space 27.

2 and 3, the connecting portion 24 is located between the liquid storage container 10 and the exterminator body 20, and is mainly composed of a first connecting seat 241, a second connecting seat 242, and a switching unit 243. The first connecting seat 241 is integrally formed on the bottom plate 22 of the pest control seat body 20, and has a first connecting space 241a and a first communicating hole 241b that communicate with each other, and the first communicating hole 241b communicates with one of them. The accommodating groove 281 of the accommodating portion 28 enables the first connecting space 241a to communicate with the accommodating portion 28 through the first communicating hole 241b, wherein the second connecting seat 242 can be selectively assembled or separated from the liquid storage container through the thread 10, and has a second connection space 242a penetrating from the upper end of the second connection seat 242 toward the lower end of the second connection seat 242, and a plurality of second communication holes 242b recessed and formed toward the second connection space 242a, and the second connection The inside of the space 242a has a liquid surface opening 242c close to the lower end of the second connecting seat 242. As shown in the figure, the inside of the second connection space 242a is fixedly connected to a penetration member 244 arranged at intervals on the liquid surface opening 242c. The piercing member 244 has a plurality of sharp and tough pillars 244a extending in a direction away from the liquid surface opening 242c and a plurality of circulation ports 244b.

As shown in the figure, an engaging unit 60 is provided between the first connecting seat 241 and the second connecting seat 242, and the engaging unit 60 is used to selectively assemble or separate the second connecting seat 242 from the first connecting seat 241. In this embodiment, the engaging unit 60 has a plurality of engaging grooves 61 forming the first connecting seat 241 and a plurality of engaging protrusions 62 formed on the second connecting seat 242, and each engaging groove 61 There is an assembling section 611 formed by a recessed upper end of the first connecting seat 241 and an engaging section 612 formed by an assembling section 611 recessed along the inner contour of the first connecting seat 241.

Please refer to FIG. 3 and FIG. 4A, the second connecting seat 242 is separated from the first connecting seat 241, so that the first and second connecting seats 241, 242 jointly present a separated state A1, and when the first, When the two connecting seats 241 and 242 are both in the separated state A1, the engaging protrusion 62 of the engaging unit 60 is not located inside the engaging groove 61. Please refer to FIGS. 3 and 4B as shown in the second connecting seat. 242 is close to the first connecting seat 241 so that the engaging protrusion 62 is located in the assembling section 611 of the engaging groove 61. Then, the second connecting seat 242 rotates so that the engaging protrusion 62 is separated from the assembling section 611. Move to the engaging section 612 of the engaging groove 61. At this time, the second connecting seat 242 is assembled to the first connecting seat 241 through the engaging unit 60, so that the first and second connecting seats 241 and 242 jointly present a mutual relationship. The assembled connection state A2, and when the first and second connecting seats 241, 242 are both in the connecting state A2, the second connecting space 242a of the second connecting seat 242 can communicate with the first connecting seat through the liquid surface opening 242c 241 of the first connection space 241a.

Please refer to FIGS. 5A and 5B. In this embodiment, when the engagement protrusion 62 of the engagement unit 60 is located inside the assembly section 611 of the engagement groove 61, the opening direction of the second communication hole 242b Facing the inner wall surface of the first connecting seat 241, the first connecting seat 241 is covered by the second communicating hole 242b, so that the second communicating hole 242b is not connected to the first communicating hole 241b of the first connecting seat 241, but is engaged When the protrusion 62 is moved from the assembly section 611 to the engagement section 612 via the rotating second connecting seat 242, the second communication hole 242b is located in the first communication hole 241b and communicates with the first communication hole 241b. Thereby, the engaging unit 60 can not only selectively assemble or separate the second connecting seat 242 from the first connecting seat 241, but also selectively connect or disconnect the second connecting hole 242b with the first connecting hole 241b.

2 and 3, the switching unit 243 is located between the first connecting seat 241 and the second connecting seat 242, and can be used to selectively block or open the liquid surface opening of the second connecting seat 242 242c. In this embodiment, the switching unit 243 has a movable member 243a with a contour larger than the liquid surface opening 242c and a fixed member 243b with a contour smaller than the liquid surface opening 242c. The movable member 243a is set as a sphere and can be used in the second The inside of the connecting space 242a is free to move. In this embodiment, the movable member 243a is located between the liquid surface opening 242c and the piercing member 244, and is attracted by gravity to move toward the liquid surface opening 242c. When 243a moves to the bottom end of the second connecting space 242a, the movable part 243a can completely cover the liquid surface opening 242c. In addition, the fixed part 243b is fixedly formed on the first connecting seat 241, and the contour size of the fixed part 243b is smaller than The liquid surface has a hole 242c.

Please refer to FIGS. 4A and 4B again. When the first connecting seat 241 and the second connecting seat 242 are in a separated state A1, the movable member 243a of the switching unit 243 is positioned at the end of the second connecting space 242a through gravity. At the bottom end, the movable member 243a covers the entire liquid surface opening 242c, so that the second connection space 242a of the second connection seat 242 cannot directly penetrate the liquid surface opening 242c and communicates with the first connection space 241a of the first connection seat 241 , Causing the first and second connecting spaces 241a, 242a to jointly present an isolated state A3 that cannot penetrate the liquid surface opening 242c and communicate with each other. In addition, when the first connecting seat 241 and the second connecting seat 242 are separated from each other When A1 transitions to the connected state A2, the fixed part 243b will pass through the liquid surface opening 242c to touch the movable part 243a, so that the fixed part 243b drives the movable part 243a away from the liquid surface opening 242c, so that the movable part 243a is not covered by the liquid surface opening 242c. The liquid surface opening 242c. At this time, the second connection space 242a can directly penetrate the liquid surface opening 242c to communicate with the first connection space 241a, so that the first and second connection spaces 241a, 242a jointly present a liquid surface permeable The communicating state A4 in which the hole 242c is connected to each other, whereby when both the first connecting seat 241 and the second connecting seat 242 transition from the separated state A1 to the connecting state A2, the first connecting space 241a and the second connecting space 242a Both can be simultaneously switched from the isolation state A3 to the connected state A4 through the switching unit 243.

2 and 6, the left and right parts of each carrier 30 are respectively set as a soaking part 31, and the remaining part of the carrier 30 is set as a volatile part 32 between the two soaking parts 31, wherein, The two soaking parts 31 of each carrier 30 are respectively located in different accommodating grooves 281, so that the two soaking parts 31 are both located inside the accommodating part 28, and the volatile part 32 of each carrier 30 is in contact with it on a one-to-one basis. A supporting portion 29 allows the supporting portion 29 to prop up the volatile portion 32 to keep the volatile portion 32 away from the accommodating portion 28.

2 and 6 again, the connecting plate 40 is located on the side of the carrier 30 opposite to the supporting portion 29 of the pest control base body 20, so that the carrier 30 is located between the connecting plate 40 and the supporting portion 29, and the connecting plate 40 is assembled in the accommodating portion 28 of the pest control seat body 20 to restrict the soaking portion 31 of the carrier 30 from being continuously positioned inside the accommodating portion 28, and when the connecting plate 40 is assembled in the accommodating portion 28, the connecting plate 40 is in contact with The carrier 30 allows the carrier 30 to be clamped together by the connecting plate 40 and the supporting portion 29 to prevent the carrier 30 from being separated from the supporting portion 29 of the pest control base body 20. In this embodiment, a part of the connecting plate 40 forms a covering area 41, The remaining part of the connecting plate 40 forms an air-permeable area 42 through which airflow can pass. When the connecting plate 40 is assembled to the accommodating portion 28, the covering area 41 covers a part of the carrier 30, and the remaining part of the carrier 30 is located opposite In the air-permeable area 42, in this embodiment, the carrier 30 can be made of cloth, gauze (net), paper, PET spun woven cloth (net) or carbon fiber cloth (net).

Please refer to FIG. 7A, in a specific application, the second connecting seat 242 of the connecting portion 24 is installed on the water outlet 12 of the liquid storage container 10, so that the water outlet 122 of the water outlet 12 and the sealing film 13 are positioned in the second connection In the second connecting space 242a of the seat 242, when the second connecting seat 242 and the liquid storage container 10 are assembled with each other, the movable part 243a of the switching unit 243 contacts the piercing part 244, and the plurality of sharp and tough columns of the piercing part 244 244a pierces the sealing film 13 of the liquid storage container 10, allowing the insecticide 50 in the containing space 111 to flow out from the water outlet 122 of the liquid storage container 10.

Referring to FIG. 7B, the liquid storage container 10 is turned upside down so that the water outlet 122 of the liquid storage container 10 faces the first connecting seat 241 of the connecting portion 24. At this time, the movable member 243a of the switching unit 243 is attracted by gravity. While moving toward the liquid surface opening 242c of the second connecting seat 242, when the movable piece 243a moves to the bottom end of the second connecting space 242a, the movable piece 243a is completely covered by the liquid surface opening 242c, so that it is located in the containing space The insecticide 50 of 111 can flow through the circulation port 244b of the piercing member 244 and flow into the second connection space 242a of the second connection seat 242.

Please refer to FIG. 7C, when the engaging protrusion 62 of the engaging unit 60 is located in the connecting section 611 of the engaging groove 61, the second communicating hole 242b of the second connecting seat 242 is not connected to the first connecting The first communicating hole 241b of the seat 241 (as shown in FIG. 5A), and the fixing member 243b of the switching unit 243 penetrates the liquid surface opening 242c to push the movable member 243a, so that the movable member 243a is away from the second connecting seat 242 The liquid surface opening 242c of the second connecting seat 242 is not covered by the movable part 243a. At this time, the first connecting space 241a of the first connecting seat 241 communicates with the second connecting seat 242 through the liquid surface opening 242c of the second connecting seat 242. The second connecting space 242a of the second connecting seat 242 makes both the first and second connecting spaces 241a, 242a change from the isolated state A3 to the connected state A4, whereby the mosquito killer located in the containing space 111 can flow into the first connection The first connecting space 241a of the seat 241, and subsequently, the liquid storage container 10 and the second connecting seat 242 simultaneously rotate in the direction of the arrow in the figure, so that the engaging protrusion 62 moves to the engaging section of the engaging groove 61 612, and then the second connecting seat 242 is assembled to the first connecting seat 241 through the engaging unit 60 to transform from the separated state A1 to the connected state A2. When the first and second connecting seats 241 and 242 are in the connected state A2, the first connecting seat 242 is in the connected state A2. The second connecting hole 242b of the second connecting seat 242 is located in the first connecting hole 241b of the first connecting seat 241 (as shown in FIG. 5B), and communicates with the first connecting hole 241b, thereby being located in the receiving space 111 The insecticide 50 can flow into the accommodating portion 28 through the first connecting space 241a to form a horizontal plane F that is the same as the liquid surface opening 242c, and the insecticide 50 located in the containing space 111 can penetrate The guiding surface 282 of the accommodating portion 28 can flow to the soaking portion 31 of the carrier 30 so that the volatilizing portion 32 of the carrier 30 presents a medicine-containing state containing the insecticide 50.

As shown in the figure, when the accommodating portion 28 of the pest control container contains the pest control agent 50, the soaking portion 31 of the carrier 30 is located below the horizontal plane F, and the volatile portion 32 of the carrier 30 is located above the horizontal plane F, where, Since the soaking part 31 is located below the horizontal plane F, the soaking part 31 is soaked in the insecticide 50 located in the accommodating part 28 to absorb the insecticide 50, wherein the insecticide 50 in the containing space 111 flows When reaching the accommodating part 28 of the exterminator seat body 20, the insect exterminator 50 may splash from the accommodating part 28 out of the overflow part 25, and the insect exterminator 50 located in the overflow part 25 can flow to the overflow port 211 , And discharge the insecticide 50 to the outside of the liquid storage container 10 through the overflow port 211.

Referring to FIG. 7D, the volatilizing part 32 of the carrier 30 is exposed to the external space, so that the insecticide 50 contained in the volatilizing part 32 can volatilize. Among them, the insecticide 50 contained in the volatilizing part 32 continues to volatilize. Reduce the volume of the insecticide 50 in the accommodating part 28, and when the volume of the insecticide 50 in the accommodating part 28 is reduced, the insecticide 50 in the accommodating space 111 will automatically Flow into the accommodating portion 28 of the pest control seat body 20, so that the level of the pesticidal agent 50 located in the accommodating portion 28 can be continuously aligned with the liquid surface opening 242c, so that the soaking portion 31 can be immersed for a long time In the insecticide 50, the volatilizing part 32 can be in a medicine-containing state for a long time, thereby extending the volatilization time effect of the insecticide 50 contained in the volatilizing part 32.

Please refer to FIG. 7E. In order to increase the volatilization effect of the insecticide 50 contained in the volatile part 32, the insect exterminator body 20 can be equipped with a fan 70 located in the space 27. As shown in the figure, when the fan performs After rotating, the fan will generate an air flow 71 flowing toward the carrier 30, and the air flow 71 flows through the ventilation holes 292 of the pest control base 20 to pass through the volatilizing portion 32 of the carrier 30, thereby increasing the amount of air contained in the volatilizing portion 32. The volatilization efficiency of the insecticide 50.

Please refer to FIG. 7F. To replace another liquid storage container 10, the liquid storage container 10 and the second connecting seat 242 are rotated in the direction of the arrow in the figure at the same time, so that the engaging protrusion 62 of the engaging unit 60 Move from the engaging section 612 of the engaging groove 61 to the connecting section 611 of the engaging groove 61. At this time, the second connecting hole 242b of the second connecting seat 242 is not connected to the first connecting seat 241 The through hole 241b (as shown in FIG. 5A) prevents the insecticide 50 in the liquid storage container 10 from flowing into the accommodating portion 28 of the insect exterminator body 20. Then, the liquid storage container 10 and the second connecting seat 242 At the same time, it is upwardly away from the pest control seat body 20, so that the first and second connecting seats 241 and 242 are in a separated state A1. At this time, the movable member 243a of the switching unit 243 is attracted by gravity and opens toward the liquid surface of the second connecting seat 242. The hole 242c moves so that the movable member 243a is completely covered by the liquid surface opening 242c so that the insecticide 50 remaining in the containing space 111 will not flow out of the liquid container 10, so that when the liquid container 10 is replaced , The connecting part 24 can prevent the insecticide 50 located inside the liquid storage container 10 from being overturned and exposed, thereby avoiding environmental pollution.

The above-mentioned embodiments are only used to facilitate the description of the present invention and are not intended to limit them. Without departing from the scope of the present invention, those skilled in the industry who are familiar with the scope of the invention’s patent application and the description of the invention make various simple modifications and modifications that should still contain Included in the scope of the following patent applications.

1: Automatic drug supply and pest control device 10: Liquid storage container 11: Containment Department 111: Containment Space 12: Water outlet 121: water space 122: water outlet 13: closed film 20: Exterminator 21: Ring plate 211: Overflow Port 22: bottom plate 23: lumps 24: Connection part 241: The first connecting seat 241a: The first connection space 241b: first communication hole 242: The second connecting seat 242a: second connection space 242b: second communication hole 242c: Liquid surface opening 243: switching unit 243a: moving parts 243b: fixed parts 244: Wearing Pieces 244a: sharp and tough column 244b: Circulation port 25: overflow 26: Support frame 27: Interval 28: Containment Department 281: Containment Slot 282: Guiding Surface 29: Support 291: Support convex column 292: Vent Hole 30: Carrier 31: Soaking part 32: Volatile part 40: connecting plate 41: Covered area 42: Ventilation area 50: Pesticide 60: Circulation port 61: Snap groove 611: Assemble Section 612: Locking section 62: Snap bump 70: Fan 71: Air flow A1: separated state A2: Connection status A3: Isolated state A4: Connected state F: horizontal plane

Figure 1 is a three-dimensional view of the automatic drug supply and pest control device of the present invention; Figure 2 is an exploded view of the automatic drug supply and pest control device of the present invention; Figure 3 is an exploded view of the connecting part; 4A is a schematic diagram of the first connecting seat and the second connecting seat in a separated state; 4B is a schematic diagram of the first connecting seat and the second connecting seat in a connected state; 5A is a schematic diagram of the second communicating hole not communicating with the liquid surface opening; 5B is a schematic diagram of the second communication hole communicating with the liquid surface opening; Figure 6 is a cross-sectional view of the A-A section in Figure 1; Figure 7A is a schematic diagram of the piercing member piercing the closed membrane; Figure 7B is a schematic diagram of the water outlet facing the exterminator; Figure 7C is a schematic diagram of the exterminator flowing into the exterminator; Figure 7D is a schematic diagram of the volatilization of the insecticide; Figure 7E is a schematic diagram of the fan installed on; and Figure 7F is a schematic diagram showing that the insecticide cannot flow into the exterminator.

1: Automatic drug supply and pest control device

10: Liquid storage container

11: Containment Department

111: Containment Space

12: Water outlet

121: water space

122: water outlet

13: closed film

20: Exterminator

21: Ring plate

211: Overflow Port

22: bottom plate

23: lumps

24: Connection part

241: The first connecting seat

242: The second connecting seat

244: Wearing Pieces

25: overflow

26: Support frame

27: Interval

28: Containment Department

281: Containment Slot

29: Support

291: Support convex column

292: Vent Hole

30: Carrier

31: Soaking part

32: Volatile part

40: connecting plate

41: Covered area

42: Ventilation area

Claims (3)

An automatic medicine supply and pest control device, including: A pest control base with a containing portion capable of containing liquid and a connecting portion connected to the containing portion; A liquid container containing a volatilized insecticide agent and connected to the connecting part. The insecticide agent can flow into the accommodating part to form a horizontal plane, and the horizontal plane is aligned with one position on the above-mentioned connecting part. The liquid surface opening in the connecting part; and A carrier, a part of which is set as a immersion part below the above-mentioned horizontal plane, and the remaining part is set as a volatile part above the above-mentioned horizontal plane. Insecticide, so that the soaking part absorbs the insecticide to keep the volatile part in a medicated state containing the insecticide; Wherein, the pest control seat body forms a supporting part contacting the volatile part on one side of the accommodating part. Insecticide, and the support part is provided with a plurality of ventilation holes covered by the volatile part, and an air stream can flow through the ventilation holes to flow to the volatile part. The automatic pesticide-supplying and pest-killing device according to claim 1, wherein when the pest-killing drug contained in the volatilizing part can continuously volatilize, the pest-killing drug located in the liquid storage container will automatically flow to the accommodating part , So that the horizontal surface can be continuously cut in line with the liquid surface to open the holes, and the soaking part can continue to absorb the insecticide. According to claim 1 of the automatic drug supply and pest control device, wherein the bottom surface of the accommodating portion is inclined downwards in a direction away from the connecting portion to form a guiding surface, and the guiding surface can be positioned in the storage The insecticide inside the liquid container is guided to flow to the soaking part of the carrier.

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