KR101533396B1 - Plasma generating apparatus contained a holeroad of ventilation - Google Patents

Abstract

The present invention relates to a plasma ion generator having a ventilation duct. The structure includes a first cell, a second cell, a dielectric barrier, a cell fixing cap, an ESD protection cap, a housing, and a control unit. The plasma generating unit generates plasma to sterilize, deodorize, A gap between the dielectric barriers is formed on one or both surfaces of a first cell and a second cell made of a conductive metal so as to form a gap between the dielectric barriers so that both surfaces of the cell An air vent formed in one of a circular shape, an elliptical shape and a long hole so as to allow air to flow in and out through a dielectric barrier of a dielectric paste capable of performing charging and discharging on one side, A cell fixing cap which forms a single cell unit by being coupled with the guide and the guide groove in correspondence with each other, A housing for fixing one cell unit to be fixed, a single cell unit fastened according to the application of power, for ensuring safety according to the flow of electricity, and for preventing electric shock due to power application, And an anti-shock cap. As a result, the thickness and gap of the dielectric barrier coating of the first cell and the second cell are optimized, and the voltage and pulse of the inverter control system are controlled to switch the plasma generation intensity and the amount of ions and active species to various levels, You can provide sex.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a plasma generating apparatus,

The present invention relates to a plasma ion generator having a ventilation duct, and more particularly, to a plasma ion generator having a dielectric barrier between a first cell and a second cell, The unit is attached to the unit housing and the air suction pen is installed on the rear surface, so that one to many units can be conveniently inserted according to the capacity of the product, and the control unit can be attached and detached, And a ventilation duct for removing bacteria and viruses by discharging ions and active species to perform deodorization.

The present invention also provides a method of forming a gap between dielectric barriers by coating a dielectric barrier on one or both sides of a first cell and a second cell to form a gap between the dielectric barriers to perform charging and discharging on both sides or one side of the cell And more particularly, to a plasma ion generator having a ventilation duct capable of introducing and discharging air through a dielectric barrier of a dielectric paste to ensure stability.

The technology that controls the atmospheric air is the adsorption technology using activated carbon and physical technology equipped with filters. Light technology based on UV lamp or Led lamp. And various types of discharge technologies based on plasma discharge.

Filter control technology can capture dust and bacteria viruses in the air but it does not have the function to remove bacteria attached to places such as walls and floors. Therefore, it relies on deodorant and antimicrobial disinfectant treatment. The cost increases.

Activated carbon adsorption technology is good in deodorization function, but it requires all filtering, filter control technology is combined with it, and the size of the device is increased, and the maintenance cost is increased due to the exchange of activated carbon and filter, and there is no function to remove the attached bacteria and virus .

Lamp-based light technology can remove both airborne and bacterial germs from the air, but it does not remove germs that are not irradiated with light because the function of irradiating light is limited. The control ability is determined by the initial brightness and the middle and late brightness. In order to maintain the initial function, the maintenance cost is increased due to the frequent replacement of the lamp and the use of high energy. Is short.

The main discharge technique of the conventional plasma generating apparatus is mainly using a needle type or corona discharge, and one pole or an anode is formed into a rod shape or a needle shape, and the electric field near the pole becomes particularly strong, causing a spark discharge to emit light or sound. Such a state is referred to as a corona discharge, and a disadvantage is that the service life is short due to abrasion of parts due to a strong electric field. Especially, it discharges a large amount of harmful substances such as ozone, which is excellent in sterilizing function but is harmful to human body.

Ionization occurs mainly by electron collision, and it creates positive ions, anions, atoms, and molecular ions. The ionization energy is about 8 to 25 eV, which is higher than the average electron energy of the low-temperature plasma. Therefore, only the electrons in the high energy tail of the electron distribution contribute to ionization.

When the electronegativity of an atom or molecule is high, anion is generated in a low-temperature plasma.

In addition to direct ionization, dissociative attachment, anions are generated by radiation or non-dissociative electron capture, while low energy (<1 eV) electrons are adsorbed to a negative gas, (about 10-13 seconds) to make anions. Anions are known to provide beneficial benefits in many ways to the health of the human body.

Also, the chemical properties of the plasma are determined by the collision between the particles in the plasma, and plasma density and electron temperature are the important factors affecting the collision.

The temperature of the electron is much higher than the temperature of the heavy particles because the thermodynamic equilibrium is not achieved and the electron temperature is about 1-10eV, but the gas temperature Tg is as low as room temperature.

Since these two parameters are determined by various external variables such as the structure of the plasma generation method and the control method, it is possible to make an optimal plasma generation device by controlling them well.

This condition is called cold plasma. In this case, bacteria, viruses, odorous substances and harmful substances moved along the ventilation path are firstly removed, and active species such as anions and cations are generated in the air, The gas removes the far-off live bacteria, attachment bacteria, viruses, harmful substances, etc. in a second order.

[Related Technical Literature]

1. PLASMA GENERATOR AND PLASMA GENERATING METHOD (Patent Application No. 10-2013-7014824)

2. Plasma Generating Device and A Plasma Generating Device and A Cooking Machine Thereof (Patent Application No. 10-2007-0031643)

PLASMA GENERATING APPARATUS FOR AIR CLEANING AND STERILIZING (Patent Application No. 10-2010-0060983)

SUMMARY OF THE INVENTION In order to solve the above-described problems, the present invention provides a method of manufacturing an air suction pen, comprising: forming a dielectric barrier between a first cell and a second cell; The unit to be installed on the back side is formed so that one to many units can be conveniently inserted according to the capacity of the product and the control unit can be detached so that the plasma is generated without space limitation to perform sterilization and deodorization, And a ventilation duct for removing bacteria and viruses from the plasma.

The present invention also provides a method of forming a gap between dielectric barriers by coating a dielectric barrier on one or both sides of a first cell and a second cell to form a gap between the dielectric barriers to perform charging and discharging on both sides or one side of the cell The present invention is to provide a plasma ion generator having a ventilation duct capable of introducing and discharging air through a dielectric barrier of a dielectric paste, thereby ensuring stability.

In addition, the cell unit can be integrally formed by being inserted into the front panel, and can be formed in multiple stages by inserting the cover and the cover together. It is also possible to fasten the cell unit to the front panel of the multi- The present invention is to provide a plasma ion generator having a ventilation duct that can be applied in a variable manner according to a product to be applied by forming a unit.

However, the objects of the present invention are not limited to the above-mentioned objects, and other objects not mentioned can be clearly understood by those skilled in the art from the following description.

In order to accomplish the above object, a plasma ion generating apparatus having an air passage according to an embodiment of the present invention includes a first cell, a second cell, a dielectric barrier, a cell fixing cap, an ESD protection cap, a housing, 1. A plasma ion generating apparatus comprising: a first cell and a second cell made of a conductive metal; a first cell and a second cell each having a gas barrier, A gap is formed between the dielectric barriers to form a gap between the dielectric barriers to allow charging and discharging on both sides or one side of the cell according to the plasma generation. A ventilation passage formed in one of the first and second cells and the second cell, A cell fixing cap which is coupled to the guide and the guide groove to form a single cell unit, a housing which fixes and attaches one cell unit formed by the cell fixing cap, and a single cell unit And an electric shock prevention cap attached to a plastic or ceramic material to ensure safety according to the flow of electricity and to prevent electric shock due to power application.

At this time, the plasma ion generating device having the ventilation duct according to the present invention has two or more diagonal angles on the outer side of the cell, and one or more cells are arranged on the inner side, so that the first cell and the second cell face each other, And an emboss for holding the plasma generating space by adjusting the spacing of the cells when fastened by the holding member.

The plasma ion generating device according to the present invention comprises four cells vertically and horizontally symmetrically arranged on the outer surface of the cell fixing cap to adjust the gap between the first cell and the second cell to generate ozone and / And an exhaust port for exhausting the inside air so as to lower the concentration of ozone by combining the nitrification gas with the oxygen and the active molecule, wherein the cell fixing portion is formed under the cell fixing cap so as to be etched, And the guide holes are formed such that the two guides and the two guide holes are symmetrically joined to each other so that the cells seated on the cell fixing portion are fixed.

In the plasma ion generating device having the ventilation duct according to the present invention, the terminal portions of the first cell and the terminal portions of the second cell are respectively secured to the cell fixing portions of the cell fixing caps and are coupled with the guide and guide grooves so as to be symmetrical to each other The front cover is integrally formed with the front cover and is integrally formed by being inserted into the front panel by one unit and can be formed in multiple stages by inserting the cover and the cover together. Thereby forming a multi-stage unit.

A plasma ion generator having an airway according to an embodiment of the present invention includes a first cell and a second cell coated with a dielectric barrier on one or both sides of a first cell and a second cell to form a gap between the dielectric barriers, Air can be introduced and discharged through the dielectric barrier of the dielectric paste, which can perform charging and discharging on both sides or one side of the cell. It can float in the air and track the bacteria and viruses attached to the surface, the corner, And it is possible to provide a deodorizing effect for sterilization or removing odors containing harmful substances in the air.

According to another aspect of the present invention, there is provided a plasma ion generator having a ventilation channel, wherein a dielectric barrier is formed between a first cell and a second cell, The unit is attached to the unit housing and the air suction pen is installed on the rear side, so that it can be easily attached and detached from one to many units according to the capacity of the product, making it easy to use, It is possible to freely control sterilization and deodorization without sacrificing cost, and it is possible to reduce cost in production.

In addition, the plasma ion generating device having the air passage according to another embodiment of the present invention is a stable control technique in which a dielectric barrier is coated on the symmetric surfaces of the first cell and the second cell to prevent dielectric breakdown. And the control unit, the body, the suction pen, and the first / second cell assemblies are integrally formed to control the values of ions and active species by controlling the gap between the cells, and all the products requiring sterilization and deodorization So that it is possible to maximize the application of the product.

In addition, the plasma ion generator having the ventilation duct according to another embodiment of the present invention adjusts the gap between the cells through four exhaust ports so as to be symmetrical with each other on the outer surface of the cell fixing cap so that ozone and nitric oxide gas Is combined with oxygen and an active molecule to discharge ozone to the outside, thereby reducing ozone concentration, suppressing harmful ozone to the human body, and discharging ions and active species in an appropriate amount, thereby providing an effect of keeping indoor air pleasant.

In addition, the plasma ion generator including the air passage according to another embodiment of the present invention optimizes the dielectric barrier coating thickness and gap of the first cell and the second cell to switch and control the voltages and pulses of the inverter control system, It is possible to adjust the emission intensity and the emission amount of ions and active species so that it can be adjusted in various stages to provide ease of use.

In addition, the plasma ion generating apparatus having the ventilation duct according to another embodiment of the present invention is integrally formed by inserting the cell unit into the front panel, and can be formed in multiple stages by interposing the cover and the covers, The front panel of the front panel can be fastened to the groove of the guide tab in the left and right directions or fastened vertically to form a multi-stage unit, thereby providing an effect that the apparatus can be variably applied according to the applied product.

1 is a schematic view of a plasma ion generating apparatus having a ventilation duct according to an embodiment of the present invention
FIG. 2 is a cross-sectional view of a cell of a plasma ion generator having a ventilation duct according to an embodiment of the present invention shown in FIG. 1
FIG. 3 is a cross-sectional view of a cell of a plasma ion generator having a ventilation duct according to an embodiment of the present invention shown in FIG. 1
FIG. 4 is a cross-sectional view of a cell fixing cap of a plasma ion generator having a ventilation duct according to an embodiment of the present invention shown in FIG. 1; FIG.
FIG. 5 is a view illustrating a combined state of a cell and a fixed cap of a plasma ion generator having a ventilation duct according to an embodiment of the present invention shown in FIG. 1. FIG.
6 is a cross-sectional view of a cell according to the plasma generation according to an embodiment of the present invention.
Fig. 7 is a cross-sectional view showing the configuration of the bacteria elimination and deodorization according to the plasma generation according to Fig. 6
FIG. 8 is a state diagram of a plasma ion generator having a ventilation duct according to another embodiment of the present invention
FIG. 9 is a state diagram showing a plurality of plasma ion generating apparatuses assembled according to another embodiment of the present invention; FIG.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, a detailed description of preferred embodiments of the present invention will be given with reference to the accompanying drawings. In the following description of the present invention, detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear.

FIG. 1 is a configuration diagram of a plasma ion generator having a ventilation duct according to an embodiment of the present invention. FIG. 2 is a cross-sectional view of a plasma ion generator having a ventilation duct according to an embodiment of the present invention, Sectional view of the cell of FIG. 1 to 2, a detailed configuration of the plasma ion generating device having the air passage is described. The plasma generating device having the air passage includes a first cell 10, a second cell 20, a dielectric barrier 30 A cell fixing cap 40, an electric shock preventing cap 50, a housing 60 and a control unit 70. [

The terminal inserting portion 15 of the cell 10 is seated and fixed to the cell fixing portion 44 of the cell fixing cap 40 and the terminal inserting portion 25 of the second cell 20 is fixed to the cell fixing cap 40. [ The first cell 10 and the second cell 20 are seated on the cell fixing portion 44 of the cell fixing cap 40 so that the guide 46 and the guide groove 48 of the cell fixing cap 40 are alternately engaged, And a dielectric barrier 30 is formed between the first cell 10 and the second cell 20 fastened together.

Meanwhile, the one cell unit is attached to the housing 60, and safety is ensured according to the flow of electricity to one cell connected according to the application of the power source connected to the control unit 70, An electric shock prevention cap 50 is laid on a plastic or ceramic mesh or the like, and it can also be used as a filter for decomposing and removing ozone and by-product gas. When used as a filter to remove ozone and by-product gases, a separate coating process is required. The coating material should be made of a metal capable of decomposing gases such as Au, Ag, and Pt, which are nanomaterials. It is preferable to use Pt (platinum) which can be safely used with antimicrobial function, deodorization function, catalytic function and the like.

1, when the plasma generator is completed as one unit, a control procedure is performed through the controller 70 according to the application of power. The controller 70 converts the AC into a DC An inverter circuit unit 72 which is provided at one side of the inside of the control unit 70 and supplies the DC current to the cells 10 and 20, And the inverter circuit portion 72 regulates the driving value of the plasma generating device and simultaneously regulates the generation value of ions and active species.

The air suction pen (not shown) is arranged behind the cells 10 and 20, and the wind intensity is variably applied depending on the use of the plasma generating device to be used, the size of the suction pen, the speed of the suction pen, And the air suction pen can be adjusted to the front, back, top, front and rear surfaces of the cells 10 and 20 according to the application of the plasma generator according to the use thereof.

1, a dielectric barrier 30 is coated on the first cell 10 and the second cell 20 and a clearance is provided between the two cells 10 and 20 to form a cell fixing cap 40 (Not shown) is attached to the housing 60 to make a unit for installing the air suction pen on the rear surface, and the control unit can be attached and detached so that one to many units can be conveniently inserted according to the capacity of the product, It is possible to freely control the air in the medium, small, and large spaces, to generate plasma to sterilize and deodorize, and to discharge a proper amount of ions and active species, thereby removing bacteria and viruses from the airborne floating bacteria and adhered surfaces.

As shown in FIG. 2, a dielectric barrier 30 is formed on a cross section of the cells 10 and 20. The materials of the cells 10 and 20 are SUS-301, 304, 316, 321, 409, 410, 430, 434, 436, and 444 are selectively used. Dielectric powders such as BaTio-3, Glass, Tio-2 and alumina are added to the cross- And a dielectric barrier is formed by coating a dielectric barrier on one or both sides of the cell. At this time, the terminal inserting portions 15 and 25 of the cells 10 and 20, which are seated in the cell fixing portion 44 of the cell fixing cap 40, do not coat the terminal fixing portions 40 and 40 so as to facilitate energization.

When the cells 10 and 20 respectively secured to the cell fixing cap 40 are symmetrically fastened, the embossing is performed at the adjustment positions of the cells 10 and 20 in order to maintain the gap between the cells 10 and 20, 2, when the first and second cells 10 and 20 are symmetrically combined, the gap is formed as two or more diagonal lines on the outer side of the plane as shown in FIG. 2, It is possible to accurately maintain the plasma generating space when assembled in face-to-face relationship.

Meanwhile, in order that the cells (10, 20) have a maximum possible area (60% to 95%) of the air passage through which the air can pass, the shape of the ventilation path of the cells may be selectively formed in the shape of a circle, an ellipse or a long hole .

FIG. 3 is a cross-sectional view of a cell of a plasma ion generator having a ventilation duct according to another embodiment of the present invention. The area of the ventilation channel 35 may be maximized to maximize the effect of cells of the same size. The material used here is a sus-316 material or other similar material, and a wire mesh, a metal plate, a pressed plate, an etched plate, or the like is used.

A plurality of stopper holes are formed in the terminal inserting portions 15 and 25 so as to be stably fixed when the other terminal inserting portion is fastened. As shown in F-1, the shape of the constituent body can be formed into various shapes such as a trapezoidal shape or a conical shape, and the interval and height are in the order of several um to several millimeters Mattress type, or oblique type.

In order to prevent the warp caused by unevenness processed on one side of the cell, concave processing is formed in the lower part of the concave and the convex of the cell to maintain the flatness as shown in F-2, The flatness is formed with precise intervals and precise height to induce the electrical stabilization of the drive inverter and to form uniform voltage and pulse to increase the efficiency of the plasma generator and to stabilize and maximize the quality.

FIG. 4 is a cross-sectional view of a cell fixing cap of a plasma ion generator having a ventilation duct according to an embodiment of the present invention shown in FIG. 1, FIG. 5 is a cross-sectional view of a plasma having a ventilation duct according to an embodiment of the present invention The cell fixing cap 40 of the plasma ion generating device having the air duct according to the present invention is provided with an exhaust port 42, a cell fixing portion 44, A guide 46 and a guide groove 48. The cell fixing cap 40 is made of plastic or ceramic and has a cell fixing cap 40 on which the first cell 10 is mounted, The cells 10 and 20 are fixed to the first cell 10 and the second cell 20 by the cell fixing portions 44. The cell fixing portions 40 are symmetrical with respect to each other, As shown in FIG.

Referring to FIGS. 1 to 4, the configuration and operation of the cell fixing cap 40 will be described. First, the exhaust port 42 is formed on the outer circumferential surface of the cell fixing cap 40 to reduce the concentration of ozone (O ₃ ) The ozone generated during the plasma generation combines ozone and nitric oxide gas generated in the air discharged through the exhaust port 42 with oxygen and active molecules to lower the concentration of ozone, The gap between one cell 10 and the second cell 20 is adjusted to stabilize the generation of plasma, thereby preventing spark discharge which generates a large amount of ozone and lowering the generation of ozone, thereby securing safety against the human body.

The cell fixing portion 44 is formed under the cell fixing cap 40 so that the terminal inserting portions 15 and 25 of the cells 10 and 20 are respectively seated and the guide 46 and the guide hole 48 are formed such that two places of guides and two places of the guide holes are formed so as to fix the cells 10, 20 seated on the cell fixing portion 44 and are symmetrically fastened to each other.

The terminal inserting portion 15 of the cell 10 is seated and fixed to the cell fixing portion 44 of the cell fixing cap 40 as shown in FIG. The terminal insertion portion 25 of the cell fixing cap 40 is seated in the cell fixing portion 44 of the cell fixing cap 40 so that the first cell 10 and the second cell 20 are inserted into the guide 46, And guide grooves 48 are alternately coupled to each other to form one cell unit.

FIG. 6 is a cross-sectional view of a plasma generating cell according to an embodiment of the present invention. FIG. 7 is a cross-sectional view illustrating a configuration of filtering and deodorizing according to plasma generation according to an embodiment of the present invention. 1 to 7, the first cell 10 and the second cell 20 are symmetrically installed, and a gap between the dielectric barriers 30 is formed to generate a plasma A dielectric paste capable of performing charging and discharging insulation is formed on both sides or one side of each cell 10, 20 made of metal of a conductor according to the present invention, and a ventilation passage 35 .

The air inhaled is a general air flotation layer in daily life. It contains bacteria and virus malodorous components. The primary air sucked into the plasma zone is caused by the high electrical temperature and chemical elements such as anions, cations and ozone After the sterilization and deodorization are performed and the generated gas contains ions and active species, it is discharged secondarily to remove the floating bacteria, viruses, adhesion bacteria and fungi in the air, and this series of operations is continuously circulated High eradication rate and deodorization rate are secured.

That is, as shown in FIG. 7, a plasma zone is formed on the dielectric barrier coated on the first cell 10 and the second cell 20 according to air suction, and the plasma zone is formed between the first cell 10 and the second cell 20, The amount of generated power and the amount of generated plasma are different depending on the thickness of the dielectric barrier coated on the charged surface of the cell.

FIG. 8 is a state view of a plasma ion generator having a ventilation duct according to another embodiment of the present invention, FIG. 9 is a view illustrating an assembly state of a plurality of plasma ion generators according to another embodiment of the present invention, The plasma ion generator according to the present invention is configured to be able to variably expand according to a position to which the unit is to be applied, and the unit can be extended from one channel to a plurality of channels.

The terminal portions 15 of the first cells 10 and the terminal portions 15 of the second cells 20 are respectively seated on the cell fixing portions 44 of the cell fixing caps 40 and are symmetrical The unit can be integrally formed by inserting the cover 46 into the front panel, and the unit can be integrally formed with the cover 46 and the cover 46, , A multi-stage unit can be formed by fastening the front panel of the multi-stage cover to the left or right of the groove of the guide tab 90 or by fastening it vertically.

The matrix-type products manufactured through the above procedure can be freely installed in small, medium, and large spaces according to the quantity of units (channels), and can appropriately remove airborne matters such as bacteria, viruses, odors, and harmful substances do.

As shown in FIG. 8, a plurality of channels can be freely installed in one channel of the unit according to the use space of the product to be installed. In the puzzle type front cover part, as shown in FIG. 9, It is possible to make a variety of products from small to large by combining and combining cover and cover using? Dance technique.

Therefore, the plasma generating apparatus of the present invention can be applied to all product groups such as an air conditioner, an air conditioner, a refrigerator, an automobile, a dish sterilizer, an infant syringe sterilizer, an airplane, a humidifier, a medical device, a public toilet, an indoor space, It can be assembled according to the usage area, and the development cost is reduced remarkably, resulting in a considerable cost saving effect. The front cover material may be made of plastic or metal, and stainless steel which is resistant to rust when it is made of metal is preferable.

Meanwhile, the shape of the guide tab 90 may be changed into various shapes during designing and manufacturing processes. In addition, a special installation method is required when installing inside the air conditioner. A separate suction pen and ventilation housing may not be necessary, and only one unit shape may be installed and controlled.

In addition, in the present invention, a portion close to the cell is made of non-conductive material, and the ventilation grille may be formed using a conductor such as a mesh as shown in FIG. 8. When the entire ventilation grille is applied as a conductor such as a mesh, It is also safe to cover with the insulating material. As shown in FIG. 4, it is possible to connect two or more cells of one entity by connecting them, which further complements the strong sterilizing power.

A discharge test was conducted by incorporating a cell and a fixed cap into a plasma ion generator equipped with a ventilation duct according to the present invention. As a first example, a cell wall thickness of a first cell and a second cell was set to 100 mu, The voltage and frequency were set from AC 800V to AC 1400V / 1.2Khz. When the electricity was applied, corona discharge started at AC 1250V and insulation breakdown occurred at AC 1350V and spark discharge started.

As the second embodiment, when the voltage and frequency are set to AC 800V to AC 950V / 500hz and the electricity is applied, partial discharge starts at AC 800V and very stable plasma generation occurs between AC 850V and AC 950V And no abnormal phenomena such as dielectric breakdown were found, and it was confirmed that a proper quantity of chemical element was discharged.

As described above, preferred embodiments of the present invention have been disclosed in the present specification and drawings, and although specific terms have been used, they have been used only in a general sense to easily describe the technical contents of the present invention and to facilitate understanding of the invention , And are not intended to limit the scope of the present invention. It is to be understood by those skilled in the art that other modifications based on the technical idea of the present invention are possible in addition to the embodiments disclosed herein.

10: first cell 15:
20: second cell 25: terminal insertion portion
30: Genetic barrier 35: Ventilation path
40: cell fixing cap 42: exhaust port
44: cell fixing part 46: guide
48: guide groove 50: electric shockproof cap
60: housing 70:
80: side plate 90: guide tab

Claims (5)

The plasma is generated by the first cell 10, the second cell 20, the dielectric barrier 30, the cell fixing cap 40, the ESD protection cap 50, the housing 60 and the control unit 70, 1. A plasma ion generating device comprising a ventilation duct for sterilizing, deodorizing, and removing airborne germs and viruses,
A gap between the dielectric barrier 30 and the first barrier layer 30 is formed on one or both sides of the first cell 10 and the second cell 20 formed of the conductive metal to form a cell A ventilation passage 35 formed in one of a circular shape, an elliptical shape, and a long hole so as to allow air to flow in and out through the dielectric barrier of the dielectric paste capable of performing charging and discharging on both sides or one side of the electrodes 10,
The first cell 10 and the second cell 20 that are mounted on the cell fixing portion 44 are provided with cell fixing portions 44 on which the terminal inserting portions 15 and 25 of the cells 10 and 20 are respectively seated, A cell fixing cap 40 which is coupled to the guide 46 and the guide groove 48 so as to form one cell unit,
A housing 60 for fixing and attaching one cell unit formed by the cell fixing cap 40,
And an electric shock prevention cap (50) attached to a single cell unit secured according to the application of a power source to secure safety according to the flow of electric power and to prevent electric shock due to power application by a plastic or ceramic material Wherein the air flow path is formed in the air passage.
The method according to claim 1,
The first cell 10 and the second cell 20 are formed on the outer side of the cells 10 and 20 in diagonal directions with one or more inside and the first cell 10 and the second cell 20 are opposed to each other by the cell fixing cap 40 Further comprising: an embossing unit configured to adjust an interval of the cells to be clamped to maintain a plasma generating space.
The method according to claim 1,
And the second cell 20 are adjusted so as to be symmetrical with respect to each other on the outer circumferential surface of the cell fixing cap 40. The ozone and the nitrification gas generated during the plasma generation are adjusted to oxygen and active And an exhaust port (42) for exhausting the inside air so as to lower the concentration of ozone by binding with molecules,
The cell fixing part 44 is etched under the cell fixing cap 40 so that the terminal inserting parts 15 and 25 of the cells 10 and 20 are respectively seated and the guide 46 and the guide hole 48 are formed. Is formed such that two guides and two guide holes are symmetrically joined to each other so that the cells (10, 20) seated on the cell fixing part (44) are fixed.
The method according to claim 1,
The terminal portions 15 of the first cell 10 and the terminal portions 15 of the second cell 20 are mounted on the cell fixing portions 44 of the cell fixing caps 40 so as to be symmetrical with each other, The cover is integrally formed with the guide grooves 48 and is combined with the front cover to be inserted into the front panel as one unit. The cover and the cover are interposed between the guide grooves 48 and the multi- 90), or a multi-stage unit is formed by fastening the unit up and down.
The method according to claim 1,
A plurality of stopper holes formed in one side of the cells 10 and 20 under the terminal inserting portions 15 and 25 to be seated in the cell fixing portions 44 of the cell fixing caps 40 are inserted into the cell fixing caps 40 In order to prevent the occurrence of warping due to unevenness processed on one side of the cell, concave processing is formed in the lower part of the concave and convex of the cell to maintain the flatness, Wherein flatness is formed at a precise interval and a height to induce electrical stabilization of the drive inverter and to form a uniform voltage and a pulse.

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