KR20020084005A - Shoes sterilization capture device - Google Patents

Abstract

PURPOSE: An apparatus for sterilizing and deodorizing footwear is provided to simply and easily remove moisture and to sterilize and deodorize inner part of the footwear by adapting specific construction with different parts. CONSTITUTION: The apparatus(2) comprises a main body(4) having a pair of insertion parts(6,8) projected from front parts at both sides of the body(4) and inserted into the footwear. Each of the insertion parts(6,8) is embodied in a pipe form to provide a flow route to flow air into/out of the footwear and has a length sufficient to apply the apparatus to the footwear for adult or in a large size. The main body(4) is designed in a human-engineering structure to be easily gripped by fingers or one hand and placed on opening part of the footwear to provide stability in wearing the footwear. The apparatus further includes an ion-generator, an exhausting fan, a battery for supplying power, a compartment panel to divide inner space into and dispenser parts and inhalation parts, photo-catalysts and loess-fiber filter, a display lamp and/or a switch.

Description

Shoes sterilization capture device

The present invention relates to a shoe sterilization deodorizer equipped with an ion generating device, an ocher fiber filter, a photocatalyst, a furnace and an exhaust fan, and sterilizes, dehumidifies, and deodorizes by discharging the air ionized by the ion generating device into the shoe. To make the shoes feel more comfortable and comfortable, and to maintain the health of important feet in the human body, and the air discharged from the shoes is deodorized and purified by the action of an ocher fiber filter and a photocatalyst. will be.

As is well known, shoes are frequently contaminated with heavy odor and moisture caused by sweat, various bacteria or fungi, molds, and decaying odors, causing many problems for the wearer's foot health. In particular, during the hot summer or rainy season, causing foot athlete's foot, and always wearing wet shoes wet with sweat or rain can not give a comfortable fit.

In addition, the outside of the shoe can be easily wiped out when washing, but the deep deep areas that are not easily touched, there is a problem that does not wipe clean, the various germs or pathogens parasitic breeding in this place to damage the foot (더불어) health with bad smell There is a problem.

In addition, after washing the dirty shoes are usually ventilated in a well-ventilated place or naturally dried by solar heat, there is a problem that you can not dry shoes washed quickly, especially shoes made of leather Due to its nature, there are various restrictions on washing and ventilation.

And, in order to remove the moisture inside the shoe and to prevent corruption, such as a hot air or a naphthalin using a dryer, but this also had a problem such as leather shoes deformed by heat.

Accordingly, an object of the present invention is to provide a shoe sterilization deodorizer which can easily achieve germs, dehumidification, and deodorization of shoes, including various molds, easy to inhabit, smelly, and high humidity.

At the same time, the purpose is to provide a shoe sterilization deodorizer to maintain the environment-friendly indoor air at the same time to maintain a more comfortable and comfortable feeling and foot health when wearing shoes by adding a health function.

In order to achieve the above object, an ion generating device, an ocher fiber filter, a photocatalyst, a furnace, and an exhaust fan are provided inside the main body of the shoe sterilization deodorizer, and the air introduced from the outside by the exhaust fan is It is ionized and then discharged into the shoe through the discharge port to disinfect, decompose and remove various parasitic molds, bacteria, pathogens, organic substances, odors, moisture, etc. inside the shoe. Afterwards, clean air and negative ions deodorized by the ocher fiber filter and titanium coated photocatalyst are discharged to provide a more comfortable and comfortable feeling when wearing shoes, as well as maintaining foot health.

1 is an external perspective view of the shoe sterilization deodorizer of the present invention.

2 is an exploded perspective view of the shoe sterilization deodorizer of the present invention.

3: Front view of the shoe sterilization deodorizer of the present invention.

4 is a rear view of the shoe sterilization deodorizer of the present invention.

5 is a partial perspective view of the ion generating device of the present invention shoe sterilization deodorizer.

6 is a cross-sectional view of the shoe insert of the present invention.

7 is a circuit block diagram of the shoe sterilization deodorizer of the present invention.

8 is a state diagram used in the shoe sterilization deodorizer of the present invention.

<Description of the symbols for the main parts of the drawings>

(2)-Shoe Sterilization Deodorizer (4)-Body

(4a)-upper body (4b)-lower body

(6) (8)-Shoe Insertion (7)-Piece

(10)-Isolation Plate (12) (14)-Intake Room

(16) (18)-Discharge Room (20)-Exhaust Vent

(22) (24)-Intake vent (26) (28)-Photocatalyst

(30) (32)-ocher fiber filter (34)-exhaust fan

(36)-Air Inlet (38) (40)-Outlet

(42) (44)-Ion Generator (46)-Gap

(48) (50)-Combination Grooves (52) (54)-Support Members

(56)-plate electrode (58)-discharge electrode

(59) (63)-high voltage line (60)-needle electrode

(60a)-Needs (61)-Print Pattern

(62)-Ventilation (64)-High Voltage Generator

(65)-Discharge area (discharge space) (66)-Storage space

(68)-Controller (70)-Battery Battery

(72)-Power Button (74)-Setting Button

(76)-Operation Indicator (78)-Strength Indicator

(80)-Power Jack (82)-Hook Slot

(84)-power supply part (S)-shoes

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

Figure 1 is an external perspective view of the shoe sterilization deodorizer 2 shown in an embodiment of the present invention, Figure 2 is an exploded perspective view thereof.

The shoe sterilization deodorizer 2 of the present invention has a pair of shoes S insertion parts 6 and 8 protruding to the front in both side portions of the main body 4, and the shoes S of FIG. Can be inserted into each) Shape.

The shoe (S) inserting portion (6) (8) is a flow path formed therein so that the ozoneized air blows into the shoe (S) and the air inside the shoe (S) can be extracted to the outside It is tubular and has a length that can be sufficiently inserted into the shoe to be applied to adult shoes (S) or large shoes (S).

And, the cross-sectional shape of the insertion portion (6) (8) is generally a good round tube shape, of course, can be diversified into a round tube, ellipsoidal tube, triangular tube, rectangular tube, polygon tube or deformed tube thereof. will be.

In addition, the main body 4 is ergonomically designed and shaped to be easily grasped by two or more fingers or one hand, and even when used as shown in FIG. 8, shoes (for example, shoes, sneakers, boots, boots, slippers, Indoor shoes, rubber shoes, etc.) will be placed on the open part of the stability is given according to the use.

Inside the main body 4, an ion generating device, which will be described later, discharges ionized air generated by the ion generating device into the shoe S, and supplies an exhaust fan for discharging the air inside the shoe S to the outside, and operating power. Rechargeable battery, a separator separating the internal space of the main body into the discharge chamber and the intake chamber, a photocatalyst and an ocher fiber filter, a light indicator, a switch, and the like are installed or installed.

On the other hand, the insertion portion 6, 8 including the main body 4 is configured to be separated into the upper body (4a) and lower body (4b) as shown in Figure 2 can be separated / combined into a piece (7), The separator 10 is horizontally coupled between the upper and lower main bodies 4a and 4b so that the inner space of the main body 4 is separated up and down.

Therefore, the upper portion of the separator 10 is " "A pair of intake chambers 12, 14 are formed to be connected to each other in the form, and also in the lower part of the separator 10" A pair of discharge chambers 16 and 18 are formed to be connected to each other in the form of &quot;. The intake chambers 12 and 14 and the discharge chambers 16 and 18 are formed by tight coupling of the separator 10. The confidentiality of the liver is maintained.

Meanwhile, an exhaust port 20 having a grill structure connected to the intake chambers 12 and 14 is formed at the rear end of the upper main body 4a, and the intake chamber ( 12) and the grille inlets 22 and 24 are formed to be connected to each other.

In addition, each of the intake chambers 12 and 14 is installed in a structure in which the ocher fiber filters 30 and 32 in which the titanium-coated photocatalysts 26 and 28 are embedded may be attached and detached. An exhaust fan 34 is provided on the rear surface of the exhaust port 20.

Therefore, the air inside the shoe S is sucked by the suction force of the exhaust fan 34 so that the air inlet 22, 24 ⇒ the intake chamber 12, 14, the photocatalyst 26, 28 and the ocher fiber filter 30. (32) ⇒ Intake chamber 12 (14) ⇒ exhaust fan 34 ⇒ exhaust port 20 is discharged, the vacuum pressure (vacuum negative pressure) is generated inside the shoe (S).

In addition, an air inlet 36 having a grille structure connected to the discharge chambers 16 and 18 is formed at a rear end of the lower main body 4b, and the discharge chamber is formed at a tip end of the inserting portions 6 and 8. Discharge openings 38 and 40 of the grill structure connected to the 16 and 18 are formed, and the ion generating devices 42 and 44 are provided in the discharge chambers 14 and 16, respectively.

And, since the inside of the shoe (S) is discharged by the exhaust fan 34 to generate a vacuum pressure, the air outside the shoe (S) is inlet 36 ⇒ discharge chamber (16) (18) ⇒ ion generator ( 42) (44) ⇒ discharge chamber 16 (18) ⇒ through the discharge port 38, 40 diffused and discharged into the shoe (S), the air discharged into the shoe (S) is ion generator 42 Passing 44 it is already ionized.

That is, the ionized air discharged into the shoe S is diffused and discharged into the shoe S by the diffusing action of the grill and remains evenly dispersed for several seconds, and in particular, by the action of ozone O ₃ . ) Various germs and pathogens breeding or parasitic inside are clean and sterilized.

The oxidizing power of ozone (O ₃ ) is next to fluorine in nature, and is 7 times higher than that of chlorine, which is very sterilizing and purifying. It is widely used in various fields such as removing photo resist easily.

The sterilized and purified air is sucked into the intake chambers 12 and 14 by the suction force of the exhaust fan 34 and then the photocatalysts 26 and 28 coated with titanium and the like. While passing through the ocher fiber filters 30 and 32, it is neatly deodorized and purified again and then discharged to the exhaust port 20 through the exhaust fan 34.

On the other hand, ocher, which occupies about 10% of the earth's surface, is a soil made of very fine sand. The ocher is not easily broken, and turns into clay when water is poured, because it contains a lot of calcium carbonate. Ocher, which has a particle size of 0.02 ~ 0.05mm, is composed of various minerals such as quartz, feldspar, mica, and calcite, and has the most chemical composition of 60 ~ 65% of silica, 5 ~ 6% of iron, and 10 ~ 13 of alumina. %, Magnesium 2%, sodium 2%, potassium 1.5%, lime 8%.

On the other hand, a spoonful of ocher contains about 200 million microorganisms, which decompose organic matter, which is used as a nutrient source for plants and as a medicine for treating diseases of our body.

In the loess, various enzymes such as catalase, diphenol oxidase, saccharase, and protease are circulated. Due to the action of various enzymes in the loess, it is known to remove toxins, purify and decompose harmful substances, and emit far infrared rays that are beneficial to the body, thereby releasing waste and harmful substances of our bodies. In addition to the treatment of various diseases such as digestive diseases, easy, diarrhea, boils, bruises, as well as antibacterial, antiseptic, skin care, anti-aging is known to have an excellent effect.

Therefore, the ocher used in the present invention ocher fiber filter 30, 32 has a strong anion, and has a far infrared emission and strong deodorization, adsorption, antibacterial, dehumidification, so the ocher fiber filter 30, 32 Various bacteria and pathogens such as fungi, eczema, and athlete's foot in the air passing through are sterilized again, water is absorbed, and almost all of the odors in the air that are inhaled and discharged from the shoes are prevented. It is possible to obtain a satisfactory effect such as keeping the environment pleasant.

In addition, the ocher fiber filters 30 and 32 may vary depending on the frequency of use or the time of use, but are preferably replaced every six to twelve months so that various effects of the ocher are not halved.

The ocher fiber filter 30, 32 is a porous fiber mesh is coated or embedded on the surface or the surface and the center portion in order to prevent the wear of the ocher and maintain breathability, it may be slightly folded or bent as a fiber filter.

On the other hand, photocatalyst refers to a material that absorbs light and causes various chemical reactions, and metal oxides and sulfides are known.

That is, when light is irradiated to the photocatalysts 26 and 28, electrons move inside the photocatalyst, and the moved electrons cause a strong chemical reaction (oxidation and reduction). The strong chemical reaction of the electrons oxidizes the contaminated material and transforms it into a harmless material.

The most widely used photocatalyst is titanium dioxide (TiO₂), which absorbs ultraviolet rays to produce electrons and holes on its surface, and these active species (electrons, majors) decompose most harmful substances.

When the photocatalyst (TiO ₂ ) receives ultraviolet rays from sunlight or fluorescent light, electrons (e-) with electricity and holes (h +) with + electricity are formed, as in the principle of solar cells, among which holes (h +) In particular, it forms a strong oxidizing hydroxide (OH Radical) and has a stronger oxidizing power than chlorine or ozone hypochlorite to sterilize bacteria and pathogens in the air, decompose and deodorize organic matter.

In the present invention, the photocatalyst (26) and (28) solution is coated on the surface of the ocher fiber filters (30) and (32), or if the solid catalyst is placed in a small size, the reaction and the self-cleaning action of the photocatalysts (26) and (28) (SELF). -Cleaning) decomposes organic matters in the air discharged from the shoe (S), sterilizes and deodorizes, and easily removes various contaminants such as dust and oil, and prevents contamination of surrounding air and indoor air. It will be possible to obtain the effect of being purified.

In addition, the photocatalyst is completely harmless to the human body, and because it is water-soluble, it can be applied to a wide range of applications.

The titanium oxide photocatalyst is an n-type semiconductor, which is irradiated with ultraviolet (400 nm or less) electrons. Hole bands are formed to produce hydroxy radicals (* OH) and O ₂ − with strong oxidizing power. This oxidative power decomposes organic matter into carbon dioxide (CO ₂ ) and water, and is used for removing pollutants in water and air, sterilization, anti-corruption, and deodorization. Specific applications include household appliances such as air conditioners and microwave ovens, sanitary ware, kitchen equipment, medical appliances, atmospheric purification and wastewater treatment.

In addition, the titanium oxide photocatalyst is converted to a hydroxyl group when the surface receives light from an oxo compound, which becomes hydrophilic. This is possible and can be applied to windshields, mirrors, etc.

And, even if a vacuum pressure is generated in the shoe (S) in the present invention, a gap 46 is formed between the inserting portion (6) 8 and the shoe (S), as shown in Figure 7, through the gap 46 The air outside the shoe S is slightly introduced into the shoe S, and a part of the air is sucked into the intake chambers 12 and 14 through the intake ports 22 and 24 and then the exhaust fan ( Since the situation is discharged to the exhaust port 20 through 34), the phenomenon that the ionized air discharged into the shoe S is immediately discharged.

Accordingly, while the ionized air stays inside the shoe S for several seconds, various bacteria or pathogens that propagate and parasitic inside the shoe S are cleanly sterilized and then discharged to the outside by the exhaust.

In the present invention, the flow path of the air is summarized as follows, the outside air of the shoe (S) is inlet 36 ⇒ discharge chamber 16 (18) ⇒ ion generator (42) (44) ⇒ discharge chamber 16 (18) ) ⇒ outlet (38) (40) ⇒ shoes (S) interior ⇒ intake port (22) (24) ⇒ intake chamber (12) (14) ⇒ photocatalyst (26) (28) and ocher fiber filter (30) (32) ⇒ The intake chamber 12 (14) ⇒ exhaust fan 34 ⇒ the exhaust port 20 is discharged.

And, looking at the flow path of the air flowing into the shoe (S) through the gap 46, the gap 46 ⇒ the inside of the shoe (S) ⇒ intake port (22) (24) ⇒ intake chamber (12) (14) ⇒ photocatalysts 26, 28 and ocher fiber filters 30, 32 ⇒ intake chamber 12, 14 ⇒ exhaust fan 34 ⇒ exhaust 20 are discharged.

When ionization air is discharged by the grille structure of the discharge ports 38 and 40, the inside of the shoe S is spread evenly, and the air inside the shoe S is reversed by the grille structure of the inlet 22 and 24. Suction is sucked in a diffusion method, and in addition, foreign substances or impurities of large size are prevented from entering the intake chambers 12 and 14.

The discharge ports 38 and 40 and the intake ports 22 and 24 are symmetrically formed in opposite directions, that is, in the up and down directions or left and right directions, so that the discharge air is directly directed to the intake ports 22 and 24. It will not flow.

In addition, the outer surfaces (or surfaces) of the discharge ports 38 and 40 and the intake ports 22 and 24 are formed in an inclined surface structure that gradually narrows toward the ends thereof, thereby easily inserting or pulling out the shoes S without damage. I can make it.

4 and 5 are cross-sectional views and perspective views of the ion generating devices 42 and 44 installed in the discharge chambers 16 and 18, and the vertical coupling grooves 48 (at the bottom of the discharge chambers 16 and 18). A plurality of support members 52 and 54 formed with 50 are formed, and the plate electrodes 56 and the discharge electrodes 58 are coupled to the coupling grooves 48 and 50 so as to face each other, but in the air flow direction. Do not interfere with the flow of fluid (air) by installing in parallel in the same direction.

In the present invention, the separator 10 and the upper body 4a, including the lower body 4b on which the ion generators 42 and 44 are installed, are formed of an insulating material such as synthetic resin, thereby eliminating unnecessary discharge, power consumption, electric shock, The short circuit is prevented, and the life of ozone (O ₃ ) is extended compared to the metal material.

The discharge electrode 58 is made of an insulating plate such as phenol resin or bakelite, and one or more precipitation electrodes 60 are provided on the plate to protrude toward the plate electrode 56. Discharge charges are concentrated in the needle portion 60a.

In addition, the plate electrode 56 facing the discharge electrode 58 may be made of a metal plate having excellent conductivity and thermal conductivity and resistant to ozone or oxygen-based active species, such as a copper plate or a copper alloy plate or an aluminum plate or an aluminum alloy plate. In the portion facing 60, a relatively large inner diameter of the through hole 62 is formed so that the charge concentrated in the acicular portion 60a is discharged entirely through the corner portion formed around the edge of the through hole 62. This allows the discharge region 65 to be expanded and the discharge efficiency to be improved.

In addition, the shape of the plate electrode 56 may vary from triangular, square, pentagonal, circular, oval, and polygonal.

The precipitation electrode 60 and the plate electrode 56 are connected to the high voltage generator 64 by the high voltage lines 59 and 63, and a high voltage necessary for discharge is applied to discharge the discharge chamber through the inlet 36. 16, the outside air of the shoes S introduced into the 18 is ionized while passing through the discharge region 65, exits the discharge ports 38 and 40 and is diffused and discharged into the shoes S.

In addition, since part of the air passing through the discharge region 65 enters and exits the through hole 62 of the plate electrode 56, the plate electrode 56 is radiated to prevent overheating, thereby improving ion generation efficiency and improving ozone ( O ₃ ) is somewhat extended.

When the precipitation electrode 60 is formed of gold (Au) or platinum (Pt), or a film is formed by plating or coating gold or platinum on a steel or stainless steel surface, the needle portion 60a Elution and abrasion are prevented.

That is, when the material of the precipitation electrode 60 is formed of steel or stainless steel, the electrical resistance and heat resistance are increased by oxidation, and the oxidation is further promoted during corona discharge, so that the surface temperature is about 200 ° C. to 400 ° C. As the temperature rises to a high temperature, it is accompanied by heat excitation and hot electron emission, and the precipitation electrode 60 is worn out, harmful gas is generated, and the transfer phenomenon is accelerated by the reverse corona discharge (reverse ionization) and the dissolution of the needle tip occurs. In addition, there is a problem that fine control of the amount of ion generation is impossible, but by forming the deposit electrode 60 with gold or platinum or by coating them on the surface, the surface electrical resistance is lowered and the thermal conductivity is increased to elute the needle 60a. Wear is prevented, ion generation efficiency is greatly improved, and ion life is extended.

In addition, the high voltage applied to the ion generators 42 and 44 may be applied continuously with the DC or AC high voltage of a conventional self-multiplexing system or other method, but rather a square wave, a sine wave or a high frequency pulse high voltage may be applied. It is applied to suppress the temperature rise, negative and positive ions are generated alternately or alone to suppress the generation of harmful gases, to improve the generation and life of oxygen-based active species beneficial to the human body, and to reverse the corona discharge and dissolution It is desirable to reduce.

In addition, a high voltage generator 64 and a rechargeable battery 70 connected to the controller 68 are installed in the storage space 66 formed in the main body 4, and one end of the upper main body 4a is connected to the controller 68. The operating time of the power button 72 to be connected and the shoe sterilization deodorizer 2 of the present invention is set within the range of 0 to 90 minutes, and is controlled by controlling the output voltage, output current or output frequency of the high voltage generator 64. A setting button 74 for setting the intensity to high or low or high, medium or low, an operation indicator 76, an intensity indicator 78 and a power jack 80 are provided. In the front, the hook sterilization deodorizer (2) of the present invention is formed with a hook insertion groove (82) to hang on furniture or indoors.

It is preferable that the operation indicator 76 and the intensity indicator 78 use a light emitting diode (LED) having high luminance while having low power consumption.

4 is a circuit block diagram of the controller 68 of the shoe sterilization deodorizer 2 of the present invention shown in one embodiment.

The power button 72 and the setting button 74 are connected to an input of a control unit 82 having a memory and a timer function in which an operation program of the shoe sterilization deodorizer 2 of the present invention is stored, and to the output of the control unit 82. The high voltage generator 64 to which the ion generating electrode is connected, the operation indicator 76 and the intensity indicator 78 are connected, and the power supply 84 for supplying the operation power is connected.

The setting button 74 sets the operating time of the shoe sterilization deodorizer 2 within the range of 0 to 90 minutes as described above, and also controls the output voltage, output current or output frequency of the high voltage generator 64. The operating intensity can be set to high, low, or high, medium, or low, and the operating intensity is indicated by the intensity indicator 78.

In addition, the rechargeable battery 70 is charged with power supplied from the power jack 80, and overcharge is prevented by the controller 82.

In the present invention, when commercial power is supplied to a place where the shoe sterilization deodorizer 2 is installed or located, the commercial power is stepped down by using a power supply device (power adapter) for rectifying and leveling the commercial power. The necessary DC power supply may be supplied, and the internal rechargeable battery 70 may be used in a place where commercial power cannot be taken.

As described above, the present invention ionizes the outside air and then flows into the shoe (S) to remove sterilization and moisture in the shoe (S) and outflows the air while the ocher fiber filter (30) and the photocatalyst (26). It is characterized by deodorization with (28).

Unlike the conventional nonwoven fabric and paper filters, the ocher fiber filters 30 and 32 have excellent self-cleaning, degrading power, detoxification power, and abundant oxygen supply ability of any loess than any other filter material. As such, the air discharged from the shoe is deodorized and purified by the characteristic of only loess and fresh air is discharged, and the surrounding air is cleansed by far infrared rays and negative ions emitted from the loess, which is very beneficial to the human body.

In addition, organic matters in the air discharged from the shoe S are decomposed by the reaction and the self-cleaning action of the photocatalysts 26 and 28, and various contaminants such as dust, oil and the like are disinfected together with sterilization and deodorization effects. Easily removed, the pollution of the surrounding air and the indoor air can be prevented to obtain the effect of purifying the air.

In addition, the present invention shoe sterilization deodorizer (2) has a built-in rechargeable battery 70 and can be used in any place to carry, especially sterilized deodorizing shoes (S) of crowded business customers It can be serviced, and the air emitted from the shoes is deodorized by the ocher fiber filter and the photocatalyst, which not only prevents the pollution of the surrounding air, but also cleans the surrounding air by discharging negative ions and maintains a pleasant environment. to be.

The present invention described above is not limited to the above-described embodiments, and various substitutions, modifications, and changes can be made without departing from the technical spirit of the present invention, and any person having ordinary skill in the art Various modifications and imitations may be made by the description of the present specification, but it is obvious that the present invention is not outside the scope of the present invention.

The present invention removes germs and odors in shoes and at the same time adds a health function to maintain the health of a comfortable and comfortable foot when a person wears shoes, and at the same time has a great effect in maintaining indoor air. It is a simple, low-cost, high-performance eco-friendly product that can be exported overseas as a domestic material and technology.

In addition, unlike conventional nonwoven fabric and paper filters, the ocher fiber filter deodorizes and purifies the air discharged from the shoes due to the excellent self-cleaning, decomposing, detoxifying power, and abundant oxygen supplying ability of the loess. The surrounding air is cleansed by far infrared rays and negative ions, which is very beneficial to the human body.

In addition, organic matters in the air discharged from the shoes are decomposed by the reaction and the self-cleaning action of the photocatalyst, and sterilization and deodorization effects are easily removed, and various contaminants such as dust and oil are easily removed. There is an effect such that the air is purified.

In addition, the present invention is compact, easy to carry, low cost, high performance environmentally friendly products.

Claims (10)

A pair of shoe inserts projecting to the front of both sides of the main body, an air inlet and an air outlet formed in the main body, a separator separating the internal space of the main body into the discharge chamber and the intake chamber, and ionized air at the tip of the insert A discharge port for discharging air into the shoe and an inlet for sucking air in the shoe, and ionized air generated by the ion generating device is discharged into the shoe through the discharge port, and the air in the shoe is sucked through the inlet and then discharged to the outside. A shoe sterilization deodorizer comprising a fan, a rechargeable battery for supplying operating power, an ion generating device installed in a discharge chamber, a photocatalyst and an ocher fiber filter in an intake chamber, and a controller for controlling the overall operation. The insertion parts 6 and 8 including the main body 4 are separated into an upper main body 4a and a lower main body 4b, and a separator 10 is provided between the upper and lower main bodies 4a and 4b. To separate the upper intake chambers 12 and 14 and the lower discharge chambers 16 and 18, and to form an exhaust port 20 connected to the intake chambers 12 and 14 at the rear end of the upper main body 4a. The inlet ports 22 and 24 connected to the intake chambers 12 and 14 are formed at the tip end portions of the insertion portions 6 and 8, and a photocatalyst (14) is formed in the middle of the intake chambers 12 and 14. 26) (28) and the ocher fiber filter (30) (32) are installed so that they can be attached and detached, and the exhaust fan (34) is installed on the rear surface of the exhaust port (20) and discharged at the rear end of the lower body (4b). An air inlet 36 is formed to be connected to the seals 16 and 18, and the discharge ports 38 and 40 are connected to the discharge chambers 16 and 18 at the tip end of the insertion portion 6 and 8. And an ion generating device (42) (44) and a controller (68) connected to the high voltage generator (64) in the discharge chambers (14) and (16). The method according to claim 2; A shoe disinfection deodorizer in which the discharge ports 38 and 40 and the intake ports 22 and 24 are formed in opposite directions. The method according to claim 2 or 3; Shoe disinfection deodorizer, characterized in that the inlet 22, 24 and outlet 38, 40 is grill structure. The method according to claim 2 or 3; The conductive plate electrodes 56 and the insulating discharge electrodes 58 of the ion generating devices 42 and 44 are installed in the support members 52 and 54 of the discharge chambers 16 and 18 so as to be parallel to the air flow direction. And at least one precipitation electrode 60 having a needle portion 60a on the discharge electrode 58 to be directed to the through hole 62 of the plate electrode 56. The method according to claim 2 or 3; Shoe inserts (6) (8) is a shoe sterilization deodorizer characterized in that the tubular body is formed therein. The method according to claim 2 or 3; Shoe disinfection deodorizer formed by the inclined surface structure of the discharge port 38, 40 and the outer surface of the inlet port 22, 24 is gradually narrowed toward the end. The method according to claim 5; A shoe sterilization deodorizer formed by forming a print pattern 61 on the back surface of the discharge electrode 58 and then connecting at least one precipitation electrode 60 and the print pattern 61 by soldering and / or jumper wires. The method according to claim 5; Precipitating electrode 60 is a shoe sterilization deodorizer formed and / or coated with gold (Au) or platinum (Pt). The method according to claim 2 or 3; The controller 68 connects a power button 72 and a setting button 74 for setting an operation time and an intensity of operation to an input of a control unit 82 having a memory and a timer function in which an operation program is stored. A shoe sterilization deodorizer which is connected to a high voltage generator 64 to which an ion generating electrode is connected to an output, an operation indicator 76 and a strength indicator 78, and a power source 84 for supplying operation power.