KR100432064B1 - Vacuum cleaner for prevention of the breeding and extermination - Google Patents

Abstract

The present disclosure relates to a vacuum cleaner having a control function. In particular, the suction and the secondary water separators can separate the sucked water with a large amount of air, thereby allowing dry cleaning and wet cleaning, respectively. And it relates to a vacuum cleaner having a pharmaceutical container containing a medicament for sterilization and inhaling the medicament in the medicine container with a nebulizer, and then electrostatically spraying it in the form of ultra-fine particles. Such a vacuum cleaner having a control function of the present invention forms a suction port for suctioning dust and foreign substances at the front end, and has a motor for generating suction force by driving a shock in the inside, and contains an agent for insecticide and sterilization. A body having a medicine container; And a nebulizer for inhaling and spraying a medicament in the medicament container provided inside the main body. The vacuum cleaner having the control function of the present invention guides the discharged air of the cleaner to a nebulizer and sprays an agent to be sprayed in the form of ultra fine particles, and at the same time, electrostatically atomizes the atomized particles so that the atomized particles can be accurately sprayed onto a target. In addition to being able to disinfect and sterilize at low consumption, it is also possible to easily remove various soils containing moisture by installing a suction body and a secondary water separator and using it as a wet vacuum cleaner.

Description

Vacuum cleaner with prevention function {Vacuum cleaner for prevention of the breeding and extermination}

The present invention relates to a vacuum cleaner having a control function, and in particular, it is possible to separate dry moisture and wet cleaning with a large amount of air in the suction body and the secondary water separator, respectively, and to insecticide on the main body. And a medicine container containing a medicine for sterilization, and inhaling the medicine in the medicine container with a nebulizer, and electrostatically spraying it in the form of ultra-fine particles, thereby preventing insecticide, sterilization and odor removal. will be.

In general, the vacuum cleaner collects and removes dust and foreign matter by the powerful suction force (Fan).

Conventional prior art is disclosed in Utility Model Publication 1995-010889. The present invention relates to a vacuum cleaner having a spray function, and more particularly, a vacuum capable of spraying water using a strong wind of air forced into the gas and discharged to the outside through the dust collecting chamber by driving the cleaner. It is about a cleaner.

However, such a conventional vacuum cleaner is a method of storing the dust introduced with the air in the air filter bag and then replacing it when the air filter bag is full of dust, resulting in an increase in the cost of air bag replacement, The dust collected in the filter bag has a disadvantage that the fine dust gradually reduced by the strong flow rate of the suction air every time the vacuum cleaner is used to escape from the dust filter and scattered into the air to enter the respiratory tract of the person.

In addition, the conventional spraying method is a method in which spray particles, which have been used for a long time in paddy fields, fields, orchards, are sprayed largely, such as dust mites, mold removal, futon and bed mattress disinfection in greenhouses and homes such as plastic houses. Its use is not suitable. Unlike greenhouses, fields, and orchards, the greenhouse is sealed and hot and humid. Therefore, if a large amount of water is diluted and sprayed, the humidity inside the greenhouse will increase further. Will provide the cause. In addition, the general spray method is directly sprayed only directly on the target crops, pests hidden in the back of the leaves of the plant or the gap of the facility is difficult to control.

In addition, the conventional method was unable to control the error of the dilution ratio and spray particles for each pesticide in the process of diluting a large amount of water by the user. In addition, the conventional ultra-fine particle spraying method has a disadvantage that it is impossible for the user to control the spray particles for each pesticide because the spray particles are small invisible state when spraying.

Accordingly, an object of the present invention is to devise to solve the above-mentioned drawbacks, and can be used as a wet vacuum cleaner by separating the water by forming a water separator in the suction body, microbial pesticides, etc. Spray the medicine directly to the object when controlling pests of hygiene pests and greenhouses such as cockroaches and dust mites in homes and buildings by using a low-pneumatic sprayer at room temperature without applying heat or high pressure. It can be sprayed precisely on the target even as a space spray, so it is possible to maximize the economic effect by reducing the waste of drugs.Additional agents such as diluting water or adjusting the spraying volume as in the case of spraying harmful pesticides such as pesticides It can automatically spray the optimum particles for each pesticide without any need for manual or separate operation. The purpose is to provide a vacuum cleaner.

1 is a perspective view of a vacuum cleaner having a control function according to the present invention

Figure 2 is a cross-sectional view of the vacuum cleaner having a control function according to the present invention

3A is a perspective view of a secondary water separator according to the present invention

Figure 3b is a cross-sectional view of the secondary water separator according to the present invention

4A is a perspective view of a silencer according to the present invention

4b is a cross-sectional view of a silencer according to the present invention

Figure 4c is a perspective view of the main portion of the hose coupled to the inlet of the vacuum cleaner having a control function according to the present invention

Figure 4d is a perspective view of the lid fitted to the nebulizer spout when using a vacuum cleaner having a control function according to the present invention only.

5a is a perspective view of an absorbent body according to the present invention;

5b is a cross-sectional view of an absorbent body according to the present invention.

Figure 6a is a perspective view of the medicine container according to the present invention

Figure 6b is a cross-sectional view of the medicine container according to the present invention

7a is a perspective view of a nebulizer according to the present invention

7B is a cross-sectional view of the nebulizer according to the present invention.

Figure 7c is a block diagram for explaining the inhalation and spraying the medicament of the medicine container provided inside the main body with a sprayer according to the present invention.

Figure 8a is a side cross-sectional view of another embodiment of a vacuum cleaner having a control function according to the present invention

8b is an exploded perspective view of an injector portion in accordance with the present invention;

Figure 8c is a block diagram for explaining the injection of the drug with an injector according to the present invention

Figure 9 is a side sectional view showing another embodiment of the vacuum cleaner body having a control function according to the present invention

※ Explanation of symbols for main parts of drawing

100: body 102: suction

103: accommodation space 104: cover

106: atomizer connector cover 107: accommodation space

108: dry air connector 109: wet air connector

110: silencer 112: air outlet

114: air inlet 120: second order separator

122: dust filter 123: direction control plate

124: dry air inlet 125: safety valve

126: wet air inlet 128: air outlet

129: water collecting space 130: motor

132: 휀 140: Pharmaceutical container

142: Orifice tube 144: lid

146: drug delivery pipe 148: air delivery pipe

150: high voltage power supply unit 160: wire storage

170: wall 172: hole

173 connector 174 holes

175: connector 180: atomizer connector

200: atomizer 202: hose

210: porous filter 212: screw

214: lever 216: conductive member

218: Spring 220: Spray nozzle

230: first air buff 240: second air baffle

250: Venturi building 300: Suction body

310: inlet 320: first direction control plate

330: second direction control plate 332: water holding space

340: Separator 350: Safety Plate

360: air outlet 400: extension tube

410: Handle 420: Variable resistance switch

430: hose 432: connection

434: a wet air hole 436: a dry air hole

510: air filter case 512: air inlet

514: filter frame 516: air filter

520: A body 522: A handle

524: operation button 526: power cord

530: motor 532:

540: spray case 542: discharge outlet

546: coupling portion 544: spraying control valve

550: atomizer part 552: pharmaceutical container

554: hose 560: spraying device

562: first bonding plate 564: spray nozzle

566: discharge hole 570: porous filter

572: 1st Air Buffle 574: Venturi Tube

578: secondary air baffle 580: second bonding plate

582: exit 584: pin

600: body 610: upper function

611: motor 612:

613: connector 614: lid

620: pharmaceutical container 650: lower body

651: inlet 652: dust passage

653: wet air passage 654: moisture storage space

630: wet filter 660: dust filter

Vacuum cleaner having a control function according to the present invention for achieving the above object forms a suction port for suctioning dust and foreign matter at the front end, and has a motor for generating a suction force by driving the fan, the insecticide and sterilization action A body having a medicine container containing a medicine to be made; And an atomizer for inhaling and spraying a drug in the medicine container provided in the main body.

In particular, the main body is preferably provided with a high voltage generator for supplying a high voltage to the atomizer.

[Claim 3] The vacuum cleaner of claim 1 or 2, wherein the nebulizer is formed of a first air air baffle for forming the air discharged from the fan into a whirlwind form, and a swirling air passing through the first air air baffle. Venturi tube to maintain the, and the spray particles of the drug transported by the vacuum pressure of the venturi tube is subjected to a high voltage generated in the high voltage generating unit to adjust, and electrostatically passed through the porous sheet, and the porous sheet It is preferable to form a spray nozzle for spraying spray particles into the venturi tube, and a second air bubble for spraying ultra-fine particles by rotating the air discharged from the fan back to the fine particles sprayed on the venturi tube.

In addition, the main body is preferably provided with a silencer to reduce the noise, and to prevent the water from being scattered by the wind when the water is introduced.

In addition, the main body is preferably provided with a sprayer connecting port for selectively inducing the air discharged from the fan to a muffler or sprayer.

In addition, the main body is preferably provided with a secondary water separator for removing the water not removed from the suction body.

In addition, the secondary water separator is preferably provided with a safety filter for separating the water that is not separated from the suction body, preventing the water from flowing back to the water, and a dust filter for removing dust.

In addition, it is preferable to have an orifice tube for adjusting the flow rate in order to form spray particles suitable for the characteristics of each drug in the medicine container.

In addition, the medicament of the medicine container is preferably to be delivered to the nebulizer by the discharge air pressure of the vacuum pressure in the nebulizer and 휀 generated by the air discharged through the primary air baffle and the venturi tube.

In addition, a hose is coupled to the suction port of the main body, it is preferable to have a suction body for separating the water sucked in the front end of the hose.

In addition, the inside of the suction body is preferably provided with an inclined separator for separating air and water, and a safety plate for preventing the water sucked from the suction port to flow back into the main body.

In addition, it is preferable to form a hole in the suction port of the main body to select the wet cleaning and dry cleaning by adjusting the direction of the air sucked.

In addition, the silencer and the secondary water separator is preferably detached from the main body.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings.

1 is a perspective view of a vacuum cleaner according to the present invention, Figure 2 is a cross-sectional view of a vacuum cleaner having a control function according to the present invention.

The overall structure of the vacuum cleaner of the present invention according to the drawings forms a suction port 102 for sucking dust and foreign matter, and has a motor 130 for generating a suction force by driving the fan 132, insecticide and sterilization action It consists of a main body 100 having a medicine container 140 containing a drug to the drug, and a nebulizer 200 to inhale and electrostaticize the medicine in the medicine container 140, spraying in the form of ultra-fine particles.

The inside of the main body 100 is divided into a front part and a rear part based on the wall 170. The front end of the front portion is connected to the suction hose 430 is formed with a suction port 102 is a dust and foreign matter suction. Inside the suction port 102, a silencer 110 to reduce noise when using a vacuum cleaner and prevent water from being scattered by the wind when water is introduced into the suction port 102, and a secondary water separator to remove water sucked into the main body 100. The space 107 for attaching the 120 is formed. On the other hand, on the side wall of the suction port 102 on the space 107, a connection pipe 108 for transferring the dust sucked through the suction port 102 to the upper portion of the secondary water separator 120 protrudes. A connection pipe 109 is formed to protrude from the connection pipe 108 to a lower portion of the secondary water separator 120 to suck the moisture sucked through the suction port 102. The connection pipe 108 for transporting dust is coupled to the dry air inlet 124 of the secondary water separator 120, and the connection pipe 109 for transporting moisture is the wet air inlet 126 of the secondary water separator 120. Combined with.

The rear portion is a motor 130 for generating a suction force by driving the fan 132, a medicine container 140 containing a drug such as insecticide, sterilization and antibacterial liquid, high-voltage power supply unit 150 for generating a high voltage power and A space 103 is formed to accommodate the wire storage box 160.

The wall 170 has a hole 172 that transmits the suction force generated by the drive of the fan 132 to the air outlet 128 of the secondary water separator 120. The hole 172 is equipped with a connection pipe 173 coupled to the air outlet 128 of the secondary water separator 120. In addition, the wall 170 is formed with a hole 174 connecting the atomizer connector 180 and the silencer 110. The hole 174 is equipped with a connecting pipe 175 coupled with the air inlet 114 of the silencer 110.

The atomizer connector 180 functions to select the air discharged from the fan 132 to the nebulizer 200 in the wet cleaner mode and to the muffler 110 in the cleaner mode. Therefore, when the sprayer is used, the hose 202 is coupled to the sprayer connector 180. At this time, the high pressure power line of the high pressure power supply unit 150 and the drug transport pipe for transporting the drug in the medicine container 140 is also connected. When using only a cleaner without using a sprayer, the sprayer connector cover 106 as shown in FIG. 4D is coupled to the sprayer connector 180. Holes 106a are formed in the lid 106 to guide the air discharged from the fin 132 toward the muffler 110 to reduce the noise of the cleaner.

On the other hand, the silencer 110 and the secondary water separator 120 provided inside the main body 100 is open at the top is opened and closed by the cover 104 of the main body when using the cleaner. In addition, the secondary water separator 120 and the silencer 110 can be detachably removed to easily remove accumulated water and dust collected in the dust filter 122.

In addition, the hose 430 coupled to the suction port 102 of the main body 100 is connected to the extension pipe 400 having the suction unit 300 at the distal end. The handle 410 of the extension pipe 400 is provided with a variable resistance switch 420 for adjusting the strength of the suction force.

As shown in FIGS. 3A and 3B, the secondary water separator 120 includes a dust filter 122 therein, and a dry air in which dust is sucked into an upper sidewall of the dust filter 122. An inlet 124 is formed, a wet air inlet 126 is formed on the lower sidewall, and an air outlet 128 is formed on the opposite sidewall corresponding to the wet air inlet 126. On the other hand, the air outlet 128 of the lower dust filter 122 is provided with a safety plate 125 for preventing water from being sucked into the fin 132, the wet air inlet 126 through the suction port The direction control plate 123 for moving the suctioned wet air to the water collecting space 129 is provided to be inclined.

As shown in FIGS. 4A and 4B, the silencer 110 includes an air inlet 114 and an air outlet 112 for guiding the air discharged by the fan 132 into the silencer in the cleaner mode. Forming.

Figure 4c is a perspective view of the main portion of the hose coupled to the suction port of the vacuum cleaner body having a control function according to the present invention.

Holes 434 and 436 are formed in the connection portion 432 of the hose 430. The hole 434 communicates with a connecting pipe 109 for transferring moisture from the suction port 102 in the wet mode. In addition, the hole 436 is in communication with a connecting pipe 108 for transporting dust from the suction port 102 in the dry mode. In other words, in the dry mode, the connection pipe 108 formed at the suction port 102 and the hole 436 formed at the connection portion 432 of the hose 430 communicate with each other, and dust is transferred to the secondary water separator by suction force of the fan. In the wet mode, the connection pipe 109 formed at the suction port 102 and the hole 434 formed at the connection portion 432 of the hose 430 communicate with each other, so that the water is collected by the suction force of the secondary water separator. 129).

As shown in FIGS. 5A and 5B, the suction body 300 has a suction port 310 that sucks dust, moisture, and the like into the bottom surface. The suction port 310 inside the suction body 300 is provided with the first and second direction control plates 320 and 330 to be inclined to separate the water sucked through the suction port 310, and the suction to the air outlet 360. An inclined safety plate 350 and a separation plate 340 are provided to prevent the water (water) from flowing back into the main body. On the other hand, the suction body 300 is used for wet cleaning, when dry cleaning can be used by replacing the suction body (not shown) formed only the suction port.

6A and 6B, the medicine container 140 includes an orifice 142 for restricting the flow of the amount of the drug to form an optimal particle according to the component of the drug to be sprayed therein, as shown in FIGS. 6A and 6B. The upper portion is opened and closed by a flexible lid 144 that does not react chemically with the medicament. The lid 144 is inserted into the medicine container 140 to be injected into the needle-shaped drug transport tube 146 and the liquid container 140 is injected to transport the discharge air of 휀 into the medicine container 140 is injected A needle-shaped air transfer pipe 148 is provided. Detailed description of the process of inhaling the medicine in the medicine container 140 to the nebulizer 200 will be described later.

As shown in FIGS. 7A and 7B, the nebulizer 200 includes a porous filter 210 to which a high voltage (DC voltage) of 10000 V or more generated from the high-voltage power supply unit 150 inside the main body 100 is applied. And a spray nozzle 220 for spraying the medicament that has passed through the porous filter 210, and for spraying the medicament sprayed through the spray nozzle 220 to a smaller size by using the discharge air of 휀. The air is disposed between the first air baffle 230 and the second air baffle 240 and the first and second air baffles 230 and 240 to form a whirlwind, and pass through the first air baffle 230. It is composed of a venturi tube 250 is a primary air is mixed with the discharged air and the spray particles sprayed from the spray nozzle 220. The first air baffle, the second air baffle, and the venturi tube are the same as the separated perspective view of FIG. 8B.

The porous filter 210 is formed of a fine mesh of the circular type is made of a variable that can control the depth with respect to the spray nozzle (220). For example, in order to spray very small atomizing particles, when the adjusting screw 212 formed on the upper part of the sprayer 200 is released, one end of the lever 214 which is in contact with the tip of the screw 212 is moved upward along the adjusting screw 212. The other side of the lever 214 pushes the conductive member 216 forward by elasticity. In this way, the porous filter 210 is deeply inserted into the injection nozzle 220, and the flow rate of the drug is controlled according to the exposed area of the porous filter 210, so that the spray particle size can be finely adjusted. In this case, if the above description is performed in reverse, the porous filter 210 is reversed due to the spring force of the spring 218, thereby greatly controlling the spray particle size.

In addition, the porous filter 210 has a pointed shape of the electrode tip in order to reduce the particle size and to easily generate static electricity when the drug is released.

Referring to FIG. 7C, the medicine in the medicine container 140 is sucked out through the hose 202 through the orifice pipe 142 and the medicine transporting pipe 146. When the discharged air pressure is applied to the nebulizer and passes through the first air baffle 230, a vortex phenomenon is generated. The swirling air passes through the venturi-shaped venturi tube 250 to form a high flow rate. Then, a vacuum pressure is formed at the outlet of the injection nozzle 220 located in the center of the venturi tube 250. By the vacuum pressure, the medicine in the medicine container 140 is transferred to the porous filter 210 made of a porous material applied with the high-pressure DC power supply of the sprayer 200 along the medicine transport pipe 146 connected to the orifice pipe 142. . The drug transported to the porous filter 210 is formed of small particles by the minute hole and static electricity while passing through the minute hole of the porous filter 210. The small particles are again injected into the venturi tube 250 through the injection nozzle 220 and mixed with the swirling air passing through the first air baffle 230 to form fine spray particles. The fine spray particles passing through the venturi tube 250 are finely broken again by the air passing through the second air baffle 240 which reversely rotates the air, and thus becomes a fine particle spray state of 10 μm or less, together with the discharged air. Scattered to the desired target.

1 to 7c will be described in detail an embodiment of a vacuum cleaner having a control function according to the present invention.

As illustrated, when the variable resistance switch 420 provided in the handle 410 is operated, the shock absorber 132 of the motor 130 is driven to suck the force to the suction body 300. The suction force transmitted sucks dust and water from the bottom through the suction port 310. The sucked dust and water are dropped into the water receiving space 332 by the first and second direction control plates 320 and 330 which are inclined toward the suction port 310 of the suction body 300, and the air exits the dust outlet 360. It is sucked into the body 100 through. In this case, the safety plate 350 and the separation plate 340 provided at the dust outlet 360 prevent the water from flowing back to the main body 100. The dust sucked into the main body 100 via the extension pipe 400 and the hose 430 is collected in the dust filter 122 through the dry air inlet 124 of the secondary water separator 120 in the dry cleaning mode. In the wet cleaner mode, the water that is not filtered out of the suction body 300 is stored in the water collecting space 129 below the secondary water separator 120 through the wet air inlet 126. On the other hand, the secondary water separator 120 can be easily removed from the inside of the main body can be easily removed to remove the dust and the water stored in the water collecting space 129 by the dust filter 122. In addition, the dust filter 122 is removed dust can be sucked and reused.

On the other hand, in order to use the vacuum cleaner and the sprayer 200 at the same time coupled to the air discharge side of the fan 132 is coupled to the hose 202 connecting the sprayer 200 to the sprayer port 180 to select the cleaning / spraying mode do. Then, the air discharged by the fin 132 is transferred to the nebulizer 200 through the hose 202. The conveyed air passes through the venturi tube 250 while causing a vortex while rapidly passing through the first air baffle 230. Then, a vacuum pressure is formed at the outlet of the injection nozzle 220 located in the center of the venturi tube 250. The medicine in the medicine container 140 is transported by the vacuum pressure to the porous filter 210 made of a porous material applied with the high-pressure DC power of the sprayer 200 along the medicine transport pipe 146 connected to the orifice pipe 142. . The drug transported to the porous filter 210 is formed into small particles by the minute hole and static electricity while passing through the minute hole of the porous filter 210. The small particles are again injected into the venturi tube 250 through the injection nozzle 220 and mixed with the swirling air passing through the first air baffle 230 to form fine spray particles. The fine spray particles passing through the venturi tube are broken down again by the air passing through the second air baffle 240 which reversely rotates the air, and is made into an ultra-fine particle spray state of 10 μm or less and sprinkled on a desired target with discharged air. You lose.

On the other hand, if you want to use only for the purpose of the vacuum cleaner, the hose 202 coupled to the atomizer connector 180 on the upper part of the main body 100 is separated and the atomizer 200 is removed from the main body 100, the atomizer connector cap Blocking the atomizer connector 180 with the 106 to guide the air discharged from the fan 132 to the silencer can be used independently of the cleaner.

Figure 8a is a cross-sectional side view of another embodiment of a vacuum cleaner having a control function according to the present invention, Figure 8b is an exploded perspective view of the injector portion according to the present invention, Figure 8c is a spraying the medicine with the injector according to the present invention It is a block diagram for demonstrating this.

As shown in the figure, the vacuum cleaner having a control function forms an air inlet 512 at one end, and an air filter case 510 in which an air filter 516 is detachably coupled to an inner space thereof. And, while being detachably coupled to the rear of the air filter case 510, the inner space is provided with a motor body 520 is provided with a motor 530 and a fan 532 rotated by the motor 530. It includes a spray device 560 is detachably coupled to the rear of the body 520 is configured in the form of a module set in the direction of the discharge port formed in the center of the rear, the coupling below the spray device 600 The medicine container 152 can be detachably mounted via the unit 546.

The body 520 has a handle 522 integrally formed on the upper portion thereof, and one end of the handle 522 is provided with an operation button 524 and a power cord 526.

The air filter 516 is coupled to the inlet side of the fan 532 in a detachable manner so that the air filter 516 can be easily cleaned periodically.

In addition, the spray nozzle 564, the chemical container 552, the spray amount control valve 544, and the like are integrated into the spray case 540, which is the discharge port side of the tank 532, and these are detached from the body 520. It is possible to use a vacuum cleaner and a nebulizer at the same time or by using the nebulizer portion 550 modularized so that it can be selectively used for the purpose of the nebulizer. In addition, when using only for the purpose of the vacuum cleaner, the modular nebulizer portion 550 can be easily separated from the body 520 to be used.

On the other hand, the air filter 516 forms an A-type structure to secure a larger area in order to pass as much air as possible at a time, so as not to be sucked in the direction of air (532) by the pressure of the air sucked in The filter frame 514 is provided.

When the discharge port 542 of the sprayer part 550 adjusts the direction of the air discharged through the primary air baffle 572, a vortex occurs, and when the spray nozzle 564 is positioned at the center of the vortex air, the vortex air The drug in the medicine container 552 is quickly sucked through the hose 554 by the suction force of the liquid, and the drug in the liquid state is crushed and stored in the venturi tube 574 by the swirling air pressure. In addition, the secondary air baffle 578 is coupled to the pin 584 so that the air can be reversely rotated at the outlet 582 of the injection nozzle 564, so that the drug is made into smaller particles by the reversely rotating air. After being broken, the spray particles are discharged into the air through the discharge port 542 by the discharge air.

The spraying device 560 is configured to be detachable to the first coupling plate 562 by improving the structure of the spray nozzle 564 simply installed in the center of the primary air baffle 572 of the whirlwind nozzle, the porous filter ( 570 is a variable that can control the depth with respect to the injection nozzle 564, when a small particle is desired to insert a porous filter 570 made of a porous material in the discharge hole 566 of the injection nozzle 564 By controlling the depth, the flow rate of the liquid may be adjusted according to the exposed area of the porous filter 570, and the spray particle size may be finely adjusted.

Figure 9 is a cross-sectional side view for explaining another embodiment of the vacuum cleaner body having a control function according to the present invention.

The main body 600 includes an upper functional part 610 and a lower main body 650 for storing dust and water. The upper function portion 610 is detachable from the lower body 650.

In the upper function unit 610, a fin 612 that generates suction force to drive the motor 611 is vertically installed. In addition, there is provided a medicine container 620 containing pesticide and sterilizing agent spaced apart from the predetermined interval therefrom. The medicine container 620 can be easily exchanged due to the hinged lid 614. In addition, the upper function portion 610 is formed with a connector 613 connected to the sprayer 200.

The lower body 650 is connected to the hose 430 to form a suction port 651 on which one side of the dust and water is sucked. The suction port 651 is provided with a dust passage 652 for sucking dust and a passage 653 for sucking water. In addition, a dust filter 660 for removing dust is detachably received at the lower portion of the upper portion 612 of the upper function portion 610 in which the upper portion 612 is installed vertically. The lower portion of the dust filter 660 is accommodated in the wet filter 630 to prevent the moisture passing through the passage (653) through which the water is sucked into the 휀 (612) through the water storage space (654). According to this embodiment, when the fan 612 is rotated by the driving of the motor 611, suction force is generated, and dust and moisture are sucked in through the suction port 651 connected to the hose 430. The sucked moisture passes through the passage 653 and is collected in the moisture (water) storage space 654, and dust is collected in the dust filter 660 while passing through the dust passage 652.

On the other hand, the hose 202 connected to the injector 200 is fitted into the connector 613 in order to inject the medicine of the medicine container 620. The injection of the medicament is as described with reference to FIG. 7C. The structure of the main body as described above is used for industrial purposes.

As described above, the vacuum cleaner having the control function of the present invention can reduce the cost by storing the dust and foreign matter in the conventional disposable trash bag and replacing the trash bag by using a removable water separator. have. On the other hand, it is possible not only to prevent air contamination by fine particles exiting the filth bag, but also to effectively spray microorganisms that cannot be erosolized using a propellant such as liquefied petroleum gas. In addition, pesticides harmful to the human body, such as general insecticides, may be sprayed by automatically adjusting the spray particle size without a user's separate operation. In addition, since the spray particles can be electrostatically sprayed on the target accurately, not only can save the chemicals such as pesticides, bactericides, insecticides, deodorants, etc., it also provides an effect that can reduce the cost.

Claims (13)

In the vacuum cleaner for forcibly sucking dust and foreign substances through the hose and the suction port by the suction force generated by the motor and the fan drive in the main body, A silencer which reduces noise in the main body and prevents water from being scattered by wind when water is introduced; A secondary water separator for removing water introduced into the main body; Drug passing through the inside of the main body so that the drug for insecticide and sterilization is contained; An atomizer for inhaling and spraying drugs in the medicine container; A high voltage generator supplying a voltage to the sprayer; Vacuum cleaner having a control function including a. delete The venturi tube of claim 1, wherein the nebulizer maintains a vacuum pressure by a first air baffle for forming the air discharged from the fan into a whirlwind form, and a swirling air passing through the first air baffle. And spraying the spray particles passed through the porous sheet into the venturi tube, the porous sheet electrostatically controlling the spray particles of the drug transferred by the vacuum pressure of the venturi tube by applying a high voltage generated from the high voltage generator. And a spray nozzle, and a secondary air bubble that reversely rotates the air discharged from the fan to fine particles injected into the venturi tube and sprays the particles into ultra-fine particles. delete The vacuum cleaner according to claim 1, wherein the main body includes a sprayer connector for selectively introducing air discharged from the fan into the silencer or the sprayer. delete The vacuum cleaner according to claim 1, wherein the secondary water separator is provided with a dust filter for removing dust together with a safety plate to separate the water and the air and prevent the separated water from flowing back to the tank. The vacuum cleaner according to claim 1, wherein the chemical container has a flow control orifice tube for forming spray particles according to chemical properties. delete The inlet of claim 1, wherein a tip of the hose is provided with a suction plate having a safety plate for preventing the water sucked from the suction port from flowing back into the main body along with an inclined separator for separating air and water sucked. Vacuum cleaner with control function. delete The vacuum cleaner according to claim 10, wherein an air inlet of the main body is formed with a hole for selecting wet cleaning and dry cleaning by adjusting a direction of air sucked in. delete