KR20100133718A - Fan and air-purification device - Google Patents

Abstract

PURPOSE: A blower and a cleaning scrubber including the same are provided to generate vortex about contaminated air by an impeller, thereby performing atomized moisture. CONSTITUTION: A housing(110) receives air including the contaminant from external side. The housing induces the exhaustion of air in set direction. A liquid spray member(120) spray the liquid to the air including the contaminant. The liquid absorbs contaminant. The liquid spray member purifies the discharged air. A whirlpool generator generates vortex inside the housing. By grain refining of liquid, the whirlpool generator improves the mixing characteristic of the contaminant and the liquid.

Description

Blower and cleaning dust collector equipped with it {FAN AND AIR-PURIFICATION DEVICE}

     The present invention relates to a blower and a cleaning dust collector having the same, and more particularly, the exhaust gas is introduced into the apparatus by using a centrifugal force, and the gas-absorbing contact area is increased by atomizing the absorbent liquid due to the strong rotational force of the impeller and the vortex state. It is a facility that induces complete gas-liquid reaction and smoothly removes harmful gases. By effectively removing harmful gaseous substances, dust, and soot generated at industrial sites, it can reduce the risks to the environment and create a pleasant atmosphere. It relates to a blower and to a cleaning dust collector having the same to enable.

Generally, there are absorption methods (wet), adsorption methods (dry), incineration and other metal oxidation methods, and condensation recovery methods. Among them, absorption methods are common methods.

There are two types of absorption methods, liquid dispersion and gas dispersion.

There are types of liquid dispersion type such as packed column type, water membrane filtration type, wet wall type, spray tower type, stirring type, and gas dispersion type includes porous plate type, cross flow type, and bubble type type.

Among them, the most widely used in industrial sites is the packed column type. The packed tower is manufactured in the form of a large cylindrical vertical tower. The structure is equipped with a mist eliminator for suppressing the discharge of droplets at the top of the tower, and a nozzle for spraying absorbent liquid [water + chemicals (acid or alkaline liquid)] is installed at the bottom of the tower, A filling layer filled with (polling, Rasihi ring, etc.) is formed and at the bottom is composed of a reservoir for storing wastewater.

When the absorption liquid is injected from the top of the packed column, the absorption liquid flows while forming a thin film on the surface of the packing material. At this time, the harmful gas flowing from the bottom of the tower (top of the reservoir) passes through the filling layer as it rises to the top, and the harmful gas reacts with the absorbing liquid (gas-liquid contact) in the thin film layer, so that the pollutants (dust, gas, etc.) Only the dissolved and clean air is discharged through the dehumidifier, the wastewater containing pollutants including harmful gases flows into the bottom reservoir, the wastewater is neutralized and reused as absorbent liquid, and the salt produced by chemical reaction is precipitated. Final processing through

Existing scrubbers require a separate blower when injecting clean gas, and the liquid ratio, which is the ratio of absorbing liquid and air for treating proper exhaust gas, is a relatively large amount of absorbing liquid of about 2 ~ 5ℓ / ㎥ Is required. Such packed towers tend to be reluctant from the industry because some contaminants that could not be removed due to complete gas-liquid contact can be leaked as they are, and because of their large size, they require a lot of land, cost a lot of facilities, and require little operating costs. Therefore, there is a need for improvement.

The present invention has been made to solve the above problems, by installing an impeller in the housing to atomize the absorbent liquid due to the strong rotational force of the impeller and the impact of the impingement plate, increase the gas-liquid contact area to induce a complete gas-liquid reaction contaminants The purpose of the present invention is to provide a blower and a cleaning precipitator having the same, to simplify the system and the scale by allowing the operation of the blower to serve as a blower to remove the low liquid ratio, so as to remove.

The blower according to the present invention includes: a housing for introducing air containing contaminants from the outside and then discharging the air in a set direction; And a vortex generating unit for generating a vortex in the housing to purify the liquid, and vortexing to improve the mixing property of the contaminant and the liquid by atomizing the liquid.

The housing has an inlet for introducing air containing contaminants, a spiral member for forming a natural vortex in the incoming air, imparts straightness to the air flowing and connected to the lower side of the spiral member, and the liquid spray inside. A vortex generating chamber having a member and a vortex generating chamber having a discharge port for discharging the purified air and connected to the lower side of the flow channel and having the vortex generating unit therein.

The vortex generating chamber preferably forms an inclined surface inclined toward the outlet side.

The vortex generator is rotatably inserted into the housing and is rotated at a constant speed by an external force, and is formed and rotated at a position located in the vortex generating chamber of the first rotary shaft to rotate the liquid flow into the vortex. The first impeller for converting, the first impact plate extending from the upper upper side of the vortex generating chamber to be located outside the first impeller to impinge the vortex-producing liquid to first atomize to widen the specific surface area, the first rotating shaft A second rotary shaft inserted into the shaft and exposed to the outside of the first rotary shaft in the vortex generating chamber and rotating at a different speed from the first rotary shaft, and formed on a circumferential surface of the second rotary shaft corresponding to the vortex generating chamber And a second impeller for rotating the liquid and converting the flow of the liquid into the vortex, and the vortex generating chamber so as to be located outside the second impeller. Cooled by extending from the lower portion to find a vortex fluid leaking to secondary atomization with a second impingement plate widening the surface area.

The second impact plate is preferably formed on the support extending from the inner lower side of the vortex generating chamber.

Cleaning dust collector according to the present invention: a blower for atomizing the liquid to the air containing the contaminant to absorb the contaminant as much as possible and increase the specific surface area of the liquid, and storing the liquid absorbing the contaminant from the blower Storage tank, and a dehumidifying unit for reducing the exhaust after the moisture and odor of the purified air passed through the storage tank.

The blower is discharged into the storage tank by absorbing contaminants by spraying liquid into the air containing the contaminants introduced into the housing, the housing to guide the discharge to the storage tank after the air containing the contaminants from the outside A liquid spray member for purifying the air to be formed, and a vortex generating portion for generating a vortex inside the housing to atomize the liquid to improve the mixing of the contaminant and the liquid.

The storage tank is connected to the lower side of the housing to temporarily store the air discharged and to store the wastewater after the gas-liquid reaction, the generated salt (鹽, SALT, product by the chemical reaction of the contaminants and absorbent liquid) contained in the wastewater A reservoir for precipitating and a clarification liquid containing only a floating material having a relatively small specific gravity connected to the reservoir are overflowed and simultaneously guide the air of the reservoir to the dehumidifying unit. A pump to perform.

As described above, the blower and the cleaning dust collector having the same according to the present invention, unlike the prior art, is provided with an impeller inside the housing to generate a vortex in the polluted air containing moisture to atomize the pollutants by atomizing the moisture It can be removed as much as possible. In addition, the present invention can operate with a good liquid ratio by atomizing the moisture containing contaminants. In addition, the present invention can remove the existing blower by reducing the existing blower by acting as a blowing induction function as an impeller to generate the vortex in the polluted air.

Hereinafter, with reference to the accompanying drawings will be described an embodiment of a blower according to the present invention and a cleaning dust collector having the same. In this process, the thickness of the lines or the size of the components shown in the drawings may be exaggerated for clarity and convenience of description. In addition, the terms described below are defined in consideration of the functions of the present invention, which may vary depending on the intention or custom of the user, the operator. Therefore, definitions of these terms should be made based on the contents throughout this specification.

1 is a front view of a cleaning dust collector provided with a blower according to an embodiment of the present invention, Figure 2 is a plan view of a cleaning dust collector provided with a blower according to an embodiment of the present invention, Figure 3 is 1 is a vertical cross-sectional view of a cleaning dust collector provided with a blower according to an embodiment.

1 to 3, the cleaning dust collector in accordance with one embodiment of the present invention includes a blower 100, a storage tank 200, and a dehumidifying unit 300.

The air blower 100 improves the absorption of the liquid and the contaminants through the enlarged specific surface area of the atomized liquid by introducing air containing contaminants from the outside, so that the particulate liquid absorbing the contaminants falls naturally. As it serves to separate the contaminants to pre-purify the air, the storage tank 200 stores the liquid containing the contaminants and serves as a movement passage of the purified air, the dehumidifying unit 300 to the purified air Moisture and odor contained in the filter and serves to induce exhaust into the atmosphere.

Here, the blower device 100 includes a housing 110, a liquid spray member 120, and a vortex generator 130.

The housing 110 serves to directly introduce air including contaminants from the outside, and discharges the atomized liquid absorbing the purified air and contaminants therein to the set position.

In this case, the housing 110 may be formed of various shapes and various materials.

In addition, the liquid spray member 120 serves to absorb contaminants contained in the introduced air by spraying the liquid supplied from the outside provided in the housing 110.

Thus, the air introduced into the housing 110 is exhausted in a purified state by removing contaminants.

Here, the liquid injection member 120 is preferably a spray nozzle, one or more are provided on the inner surface of the housing 110, it may be integrally formed or detachably installed on the inner surface of the housing (110).

In addition, the liquid spray member 120 may be made of a variety of shapes and materials.

In particular, the liquid spray member 120 is connected to the pipe 122, which is connected to the pump 124. Thus, when the pump 124 is operated, the liquid in the pump tank is forced to flow through the pipe 122, whereby the liquid is forcibly sprayed inside the housing 110 through the liquid spray member 120.

Herein, the liquid is preferably an absorbent (acid or alkali) containing water or a cleaning liquid.

In addition, the vortex generator 130 converts air and liquid including contaminants introduced into the housing 110 into a vortex flow, thereby forming an inner wall of the housing 110 or a first collision plate 134 and a second material. By hitting the collision plate 137 serves to improve the absorption of the liquid and contaminants having increased the specific surface area.

Meanwhile, the housing 110 includes a spiral member 112, a flow channel 114, and a vortex generating chamber 116.

Spiral member 112 is formed on the upper side of the housing 110, and has an inlet 113 for introducing air containing contaminants.

In particular, the spiral member 112 is formed in a spiral vane shape.

This is to naturally remove the particulate pollutants from the air by centrifugal force by naturally converting the flow of air including the pollutants into the spiral.

In addition, the flow channel 114 is directly connected to the lower side of the spiral member 112.

The flow channel 114 serves to impart straightness to air having a centrifugal force while passing through the spiral member 112. That is, the flow channel 114 serves to guide the air to flow directly inside the housing 110. Thus, the flow channel 114 is preferably formed in a cylindrical shape.

In addition, the flow channel 114 is preferably provided with a liquid spray member 120 inside.

In addition, the vortex generating chamber 116 is formed under the housing 110 to be connected to the flow channel 114, and includes a vortex generating unit 130. Thus, the vortex generator 130 generates vortices in the air and the liquid in the vortex generating chamber 116. As a result, the liquid is atomized to increase the specific surface area to absorb the contaminant as much as possible.

Therefore, the liquid injection member 120 is formed in the flow channel 114 before the liquid and air flows to the vortex generating chamber 116, which flow channel 114 converts the flow of air into straightness. To be properly mixed with the liquid sprayed from the liquid spray member 120.

In particular, the spiral member 112, the flow channel 114 and the vortex generating chamber 116 is preferably integrally molded so that the housing 110 is formed.

On the other hand, the vortex generating unit 130 is the first rotating shaft 132, the first impeller 133, the first impact plate 134, the second rotation shaft 135, the second impeller 136 and the second impact plate ( 137).

The first rotating shaft 132 is rotatably inserted into the housing 110 and rotated at a constant speed.

That is, the first rotary shaft 132 is inserted into the housing 110 so as to be inserted into the spiral member 112, the flow channel 114 and the vortex generating chamber 116 at the same time, and transmits the driving force of the motor 131. It is rotated.

At this time, the driving force of the motor 131 may rotate the first rotation shaft 132 by various power transmission elements, for convenience, this power transmission element is shown to be a belt.

In addition, the first impeller 133 is fixed to the circumferential surface of the first rotation shaft 132 to be located in the vortex generating chamber 116. Thus, the first impeller 133 rotates in the same direction and at the same rotational speed as the first rotation shaft 132.

The first impeller 133 rotates in one direction to absorb air and some of the contaminants introduced into the vortex generating chamber 116 through the flow channel 114 and to spread the sprayed liquid radially. do. Thus, air containing contaminants and liquids absorbing some of these contaminants form vortices.

At this time, the first impeller 133 is fixed to the first rotary shaft 132 by a method such as a pin coupling to the first rotary shaft 132.

In addition, the first collision plate 134 extends from the upper side of the vortex generating chamber 116 so as to be located outside the first impeller 133.

Thus, air including contaminants that radially spread while causing vortices and the liquid absorbing some of the contaminants hit the first collision plate 134.

As a result, the liquid is first atomized to increase the specific surface area, and the liquid having the specific surface area can absorb more contaminants.

Here, the first collision plate 134 may be formed at various positions inside the vortex generating chamber 116, or may be formed in various numbers, and may be modified in various materials and various shapes.

In other words, the front side of the first collision plate 134 is formed sharply and serves to form a turbulence by finely crushing and scattering the water droplets flying in the form of small water droplets. The absorbed liquid and the exhaust gas are brought into gas-liquid contact with each other, and through the gas-liquid reaction, pollutants are absorbed by the absorbed liquid.

In addition, the left and right side plates of the first collision plate 134 flow through the surface of the absorbent liquid which is not scattered, and gas-liquid contact occurs at the interface of the absorbent liquid.

At the end of the first collision plate 134, the absorbent liquid that flows through the first collision plate 134 is gradually broken apart without breaking. At the same time, the flue gas flowing in the streamline along the boundary of the first collision plate 134 forms a fine vortex at the end and accelerates the dropping of water droplets that are gradually falling, and also makes gas-liquid contact and causes a gas-liquid reaction. Is melted into the absorbent liquid.

The first collision plate 134 may be manufactured in various forms to satisfy the above conditions. For example, the front part may have a sharp shape, and the rear part may have a bullet shape connected to a round bar having a cut cross section, a triangular strut shape that is folded at a certain angle by cutting flat iron at an angle. The first colliding plate 134 is installed to face the flow of the fluid, but may collide with water droplets as much as possible, and it is more effective to arrange the plurality of rows in two or more rows so that the exhaust gas can pass in a zigzag rather than a straight passage. .

In particular, a series of individual reactions occurring in the front, rear, left, and right sides of the first collision plate 134, namely, collision of fluid, atomization of absorbent liquid, scattering of absorbent liquid and flue gas, flow of unscattered absorbent liquid, mixing of absorbed liquid and flue gas, Their interaction accelerates turbulent and vortex flows, resulting in a foggy shape in the space between the first impeller 133 and the second impeller 136.

The absorbed liquid, which has a large surface area, has been continuously contacted with the exhaust gas in a vortex state, causing a gas-liquid reaction to absorb contaminants.

In addition, the atomization phenomenon and the vortex phenomenon of the absorbent liquid are increased by a more intense action while the other impingement with the fluid subsequently blown from the first impeller 133.

In addition, a second collision plate 137 is formed inside the vortex generating chamber 116 corresponding to the outside of the second impeller 136.

The second impact plate 137 is hit by the air containing the contaminant that is radially spread while passing through the second impeller 136 and the liquid absorbing some of the contaminant.

As a result, the liquid is secondarily atomized to increase the specific surface area, and the liquid having the larger specific surface area can absorb most of the pollutants. So, the air is purified.

In other words, the unreacted gas and the absorbent liquid between the first impeller 133 and the second impeller 136 flow toward the second impeller 136 and are rotated by the second powerful impeller 136. Strongly scattered outside of 136.

The chemical reaction occurring outside of the second impeller 136 is the same as the reaction occurring between the first impeller 133 and the second impeller 136.

 The second collision plate 137 is installed in a plurality of arrangements on a fixed plate separately installed under the second impeller 136, and plays the same role as the first collision plate 134.

The second collision plate 137 may also be manufactured in various forms. The front part may have a sharp shape, and the rear part may have a bullet shape connected to a round bar having a cut cross section, and a triangular strut shape that is folded at a predetermined length by folding flat iron at an angle.

The second collision plate 137 is installed to face the flow of the fluid, but may collide with water droplets as much as possible, and it is more effective to arrange the plurality of rows in two or more rows so that the exhaust gas can pass in a zigzag rather than a straight passage. .

In addition, in the sharp front end of the second collision plate 137 serves to form a turbulence by finely crushing and scattering the water droplets flying in the form of small droplets, wherein the finely atomized absorbent liquid and exhaust gas contact each other with gas-liquid contact After the gas-liquid reaction, contaminants are absorbed into the absorbent liquid.

On the left and right side plate surfaces of the second collision plate 137, non-spreading absorbent liquid flows through the surface of the plate, and gas-liquid contact occurs at the absorbent liquid interface.

At the end of the second collision plate 137, the absorbent liquid that flows in unbroken and gradually flows out in small numbers. At the same time, the flue gas flowing in the streamlined shape along the boundary of the second collision plate 137 forms a fine vortex at the end and accelerates the dropping of water droplets that are gradually falling, and at the same time comes into gas-liquid contact and causes a gas-liquid reaction. Melt into absorbent liquid.

A series of reactions occurring in the front, rear, left, and right sides of the second collision plate 137, namely, collision of fluid, atomization of absorbent liquid, scattering of absorbent liquid and exhaust gas, flow of non-spreading absorbent liquid, mixing of flowing absorbent liquid and flue gas, and their interactions Accelerates turbulence and eddy currents in the airflow, resulting in a foggy shape between the first impeller 133 and the second impeller 136. The absorbed liquid, which has a large surface area, has been continuously contacted with the exhaust gas in a vortex state, causing a gas-liquid reaction to absorb contaminants.

In addition, the atomization phenomenon and the vortex phenomenon of the absorbent liquid are increased by the more intense action while performing another collision with the fluid which is subsequently blown from the second impeller 136.

These fluids are strongly scattered in the opposite direction due to the repulsive force caused by the collision with the inner wall of the vortex generating chamber 116 and at the same time, they are scattered in all directions while colliding with the airflows coming from the impellers 133 and 136, and again with the constant airflow and the constant airflow. The collision creates a turbulent state. Absorption liquid is finely atomized by a restless collision, violently vortex and generate vortex, so that absorption reaction by gas-liquid contact occurs in this process.

In the space between the impellers 133 and 136, a series of centrifugal forces, droplet collisions, reverse air currents caused by repulsive forces, mutual collisions with forward air currents, turbulence formation, vortex generation, complete mixing of gas and liquid, smooth gas-liquid contact, and complete gas-liquid reaction Reactor action of occurs entirely.

Some of the non-repelled absorbent liquid flows through the wall of the vortex generating chamber 116 and flows into the lower reservoir with another gas-liquid contact, and the absorbent liquid containing contaminants, which are atomized like fog and has a larger specific surface, is pushed down to the lower reservoir. Goes.

The gas-liquid reaction occurring outside the second impeller 136 is a reaction in which contaminants of the exhaust gas that are not reacted between the impellers 133 and 136 are absorbed.

On the other hand, the housing 110 is rotatably provided with a second rotary shaft 135 to be parallel to the first rotary shaft 132.

Of course, although the first rotary shaft 132 and the second rotary shaft 135 may be arranged in parallel, it is preferable to insert the second rotary shaft 135 in the interior of the first rotary shaft 132 to save the installation space. Do. That is, the first rotation shaft 132 is formed in a hollow shape.

At this time, the second rotary shaft 135 is formed longer than the length of the first rotary shaft 132. Therefore, the lower side of the second rotary shaft 135 is mounted to be exposed to the lower portion of the first rotary shaft 132.

In addition, the second rotary shaft 135 has a different rotation speed from the first rotary shaft 132. In addition, a second impeller 136 is fixed to the second rotation shaft 135. Thus, the second impeller 136 rotates at a different speed than the first impeller 133.

At this time, the diameter of the first impeller 133 is formed smaller than the diameter of the second impeller 136.

In particular, the rotational speed of the first impeller 133 is preferably faster than the rotational speed of the second impeller 136.

This is because when the second impeller 136 has a faster rotational speed than the first impeller 133, the fineness of the liquid is reduced by sucking the air and the liquid radially spread by the first impeller 133 too quickly.

That is, since the rotational speed of the first impeller 133 is faster than the rotational speed of the second impeller 136, the liquid absorbs the pollutant contained in the air sufficiently between the first impeller 133 and the second impeller 136. Done.

Here, the second impeller 136 is coupled to the second rotation shaft 135 by a variety of methods, such as a pin coupling method.

In particular, the second rotary shaft 135 is rotated by receiving the driving force of the motor 131, for convenience, one motor 131 is shown as rotating the first rotary shaft 132 and the second rotary shaft 135 at the same time. .

For example, in order for the first rotation shaft 132 and the second rotation shaft 135 to rotate at different rotation speeds, a flywheel disposed to correspond to each other on the first rotation shaft 132 and the motor 131 may have a second rotation shaft 135. It is formed larger than the diameter of the flywheel disposed to correspond to each other on the motor 131.

The flywheels corresponding to each other are preferably connected by a belt.

Of course, the method of transmitting power to the motor 131 so as to have a different rotation speed to the first rotary shaft 132 and the second rotary shaft 135 can be variously applied.

On the other hand, the liquid containing the purified air and the contaminants passed through the second impeller 136 hit the wall of the vortex generating chamber 116, the liquid attached to the wall surface of the outlet 117 of the vortex generating chamber 116 Will flow down.

In particular, the vortex generating chamber 116 has an inclined surface 118 on the bottom surface. The inclined surface 118 is formed to be inclined toward the discharge port 117 to guide the flow of the liquid.

In addition, it is preferable that the first collision plate 134 and the second collision plate 137 are alternately formed. This is to maximize the atomization by hitting the liquid spreading radially as much as possible.

Thus, the first collision plate 134 extends from the inner upper portion of the vortex generating chamber 116 to the lower direction, and the second collision plate 137 extends from the inner lower portion of the vortex generating chamber 116 to the upper direction. Do. That is, radially spreading liquid and air flow along the wave wave.

At this time, the first impeller 133 and the second impeller 136 is preferably formed to be close to the lower side of the flow channel 114 to generate vortices in all the liquid and air flowing.

Accordingly, the first impeller 133 and the second impeller 136 are located above the vortex generating chamber 116.

That is, when the second collision plate 137 extends upward from the bottom surface of the vortex generating chamber 116, the side impact plate may be damaged by the air and the liquid that generated the vortex.

Accordingly, the vortex generating chamber 116 extends to form a rigid support 138, and a plurality of second impact plates 137 are formed on the support 138 to minimize the damage within the possible range, thereby reducing damage. .

Here, the shape and material of the support 138 and the second impact plate 137 may be variously applied.

In addition, each of the first collision plate 134 and the second collision plate 137 is preferably made of the minimum size and the minimum thickness within the possible range to minimize the deposition of liquid and contaminants.

The support 138 is integrally formed or detachably formed on the bottom surface of the vortex generating chamber 116.

On the other hand, the descending liquid inside the housing 110 and the particulate liquid containing the polluted air flows to the storage tank 200.

The storage tank 200 is connected to the open lower side of the housing 110, in particular, the outlet 117 of the vortex generating chamber 116 to temporarily store all the purified air and at the same time contain the particulate liquid including all contaminants. Stores wastewater riding down walls.

Here, the storage tank 200 may be formed integrally with the lower side of the housing 110, it may be formed detachably. Of course, the storage tank 200 is applicable to a variety of shapes and materials.

In particular, the storage tank 200 is divided into a reservoir 210 and a water tank 220.

The reservoir 210 is directly connected to the lower side of the housing 110 to store the atomized liquid including contaminants and temporarily store the purified air.

At this time, the gaseous contaminant changed into a salt form by reacting with a relatively large particle contaminant and the absorbent liquid contained in the atomized liquid sinks to the bottom of the reservoir 210.

Thus, the reservoir 210 serves to separate pollutants having a relatively high specific gravity from the liquid to be stored.

In addition, the reservoir 210 and the pumping tank 220 is preferably partitioned through the partition wall (230). Here, the partition 230 is made of a height overflowing the water tank 220 when the liquid stored in the reservoir 210 is above a certain level.

That is, the water tank 220 filters the pollutants having a relatively high specific gravity among the liquids that are continuously stored in the water storage tank 210 and serves to receive some purified liquid.

At this time, the pump 220 is also supplied with a relatively small floating matter floating in the liquid in the reservoir 210.

Although not shown, it is preferable that the pumping tank 220 is separately provided with a metering pump and a chemical tank capable of continuously injecting a neutralizing agent of a certain concentration according to the site conditions.

Although not shown, a pH meter that can automatically measure the concentration of hydrogen ions in the water is preferably installed.

In addition, the drain valve 212 is installed in the lower portion of the reservoir 210 to allow the extraction of a relatively large amount of contaminants, that is, precipitated sludge, and the amount of sludge to be discarded and the amount of evaporated water. Process water piping (not shown) is preferably installed so that is supplied.

  In addition, the water tank 220 of the storage tank 200 serves to guide the purified air to the dehumidifying unit (300).

That is, the purified air is guided to the dehumidifying unit 300 through the reservoir 210 and the water tank 220.

Here, the dehumidifying unit 300 includes a casing 310 and a dehumidifying filter 320.

The casing 310 is formed in a cylindrical shape that communicates with the upper and lower sides, and is directly connected to the upper open portion of the water tank 220.

That is, the casing 310 forms the inlet port 312 at the lower side and the exhaust port 314 at the upper side.

Thus, the purified air is introduced into the casing 310 through the inlet 312 after passing through the reservoir 210 and the pump 220, and exhausted outside the casing 310 through the exhaust port 314.

At this time, the casing 310 may be integrally molded with the pump 220, or may be fixed while being firmly sealed by welding or the like. The shape of the casing 310 can be variously applied.

In addition, the dehumidification filter 320 is formed in the casing 310 to guide the entire purified air flowing from the lower side of the casing 310 to the upper side.

The dehumidification filter 320 serves to filter the liquid (humidity) of the particulate state contained in the purified air, and also serves to filter out the odor factor contained in the purified air.

Therefore, the dehumidification filter 320 is preferably formed to be separated from the casing 310. This is to maintain the cleanness of the dehumidification filter 320. At this time, the casing 310 is preferably provided with an opening / closing door (not shown) on the circumferential surface so that the dehumidification filter 320 can be easily detached.

Of course, the dehumidification filter 320 may be detachably formed inside the casing 310 by various methods. In addition, the dehumidification filter 320 is a filter for removing the general moisture and odor.

Although the present invention has been described with reference to the embodiments shown in the drawings, this is merely exemplary, and those skilled in the art to which the art belongs can make various modifications and other equivalent embodiments therefrom. I will understand. Therefore, the true technical protection scope of the present invention will be defined by the claims below.

1 is a front view of a cleaning dust collector equipped with a blower according to an embodiment of the present invention.

2 is a plan view of a cleaning dust collector equipped with a blower according to an embodiment of the present invention.

3 is a longitudinal cross-sectional view of the cleaning precipitator having a blower according to an embodiment of the present invention.

<Explanation of symbols on main parts of the drawings>

100: blower 110: housing

116: vortex generating chamber 120: liquid spray member

130: vortex generation unit 200: storage tank

210: reservoir 220: pump

300: dehumidifying unit

Claims (9)

A housing for introducing air containing contaminants from the outside and inducing discharge in a set direction; A liquid spray member which cleans the discharged air by spraying a liquid on the air including the pollutant introduced into the housing to absorb the pollutant; And And a vortex generator for generating a vortex inside the housing to atomize the liquid to improve the mixing property of the contaminant and the liquid. The method of claim 1, wherein the housing, A spiral member having an inlet for introducing air containing contaminants and for forming a natural vortex in the incoming air; A flow channel connected to the lower side of the spiral member, to impart straightness to the flowing air, and to form the liquid spray member inside; And And a vortex generating chamber having a discharge port for discharging the purified air and connected to a lower side of the flow channel and having the vortex generating unit therein. 3. The method of claim 2, The vortex generating chamber is a blower, characterized in that for forming an inclined surface inclined toward the outlet side. The vortex generating unit according to claim 1 or 2, A first rotational shaft rotatably inserted into the housing to be rotated at a constant speed by an external force and be hollow; A first impeller formed at a portion of the first rotation shaft located in the vortex generating chamber and rotating to convert a flow of liquid into a vortex; And a first collision plate extending from an upper upper side of the vortex generating chamber so as to be located outside of the first impeller so as to collide with the vortex-generating liquid, thereby first atomizing to widen a specific surface area. The method of claim 4, wherein the vortex generating unit, A second rotary shaft inserted into the first rotary shaft, exposed to the outside of the first rotary shaft in the vortex generating chamber, and rotated at a speed different from that of the first rotary shaft; A second impeller formed on a circumferential surface of the second rotation shaft corresponding to the vortex generating chamber and rotating to convert a flow of liquid into a vortex; And And a second colliding plate extending from an inner lower side of the vortex generating chamber so as to be located outside the second impeller so as to collide with the vortex-generating liquid and thereby secondary atomizing to widen a specific surface area. The method of claim 5, The second impact plate is a blower, characterized in that formed on the support extending from the lower side inside the vortex generating chamber. A blower that atomizes the liquid to air containing the contaminants to maximize the absorption of the contaminants and to increase the specific surface area of the liquid; A storage tank for storing the liquid absorbing the contaminants from the dust collector; And And a dehumidifying unit configured to reduce moisture and odor of the purified air passing through the storage tank and to exhaust the same. The method of claim 7, wherein the blower, A housing for introducing air containing contaminants from the outside to be discharged to the storage tank; A liquid spray member for purifying the air discharged to the storage tank by spraying a liquid on air containing the pollutant introduced into the housing to absorb the pollutant; And And a vortex generator for generating a vortex in the housing to atomize the liquid to improve the mixing property of the contaminant and the liquid. The method of claim 8, wherein the storage tank, A storage tank connected to the lower side of the housing to temporarily store the air being exhausted and to deposit the generated salt contained in the wastewater while storing the wastewater after the gas-liquid reaction; And a pumping tank connected to the water storage tank, the clarification liquid containing only a floating material having a relatively small specific gravity, and a pumping tank simultaneously serving to guide the air of the water storage tank to the dehumidifying unit.

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