KR20160080598A - Deodorization, disinfection and drying cabinet for shoes - Google Patents

Abstract

According to an embodiment of the present invention, a device for sterilizing and deodorizing a shoe comprises: a cabinet body; a plurality of shoe racks longitudinally and laterally disposed in the cabinet body; a fan unit installed in an upper side of the cabinet body; a pair of air supply units having one end connected with the fan unit, and disposed on both side surfaces of the cabinet body; a plurality of branched units disposed in the air supply units at regular intervals, and respectively coupled with the shoe racks; an air discharge unit disposed between the shoe racks, having one end connected with the fan unit, suctioning air in the shoe racks, and transferring suctioned air to an air suctioning hole of the fan unit; a side plate coupled with the cabinet body, and protecting left and right side surfaces of the shoe racks; a lower plate disposed on the bottom surfaces of the shoe racks, and closing the air supply units and air discharge unit; and an upper plate coupled with an upper surface of the cabinet body, and protecting the fan unit. A width of an internal spatial part of the air supply units can be formed to become downwardly narrower.

Description

[0001] DEODORIZATION, DISINFECTION AND DRYING CABINET FOR SHOES [0002]

This embodiment relates to a shoe disinfection and deodorization apparatus.

In factories or industrial sites, for safety reasons, the worker wears workplaces in work areas and commuting shoes are often distinguished. In particular, when it is necessary to wear a separate footwear specially for the work space, such as a factory, a construction site, or a clean room, a cabinet-type shoe box for storing shoes worn by the workers and shoes worn during the previous day is required .

However, shoes may harm bacteria, fungi, and microorganisms harmful to human body. If sweat and dust generated from feet are mixed, odor may occur. In particular, when a shoe box is installed in a locker room used by many people, it may be uncomfortable to workers when a stench in a stored shoe is uncomfortable for hygiene.

In particular, in the case of a long neck and a low ventilation workability, such as safety shoes, if the odor generating factor can not be removed, not only the party wearing the shoe but also the odor can spread throughout the space.

Accordingly, there is a need for a device that can effectively remove sweat, microorganisms, bacteria, fungi, and the like, which cause odor in the storage step of the shoe for work, and can always keep the shoe dry.

In recent years, as disclosed in Korean Patent Laid-Open No. 10-2005-0120728, airflow is formed in the cabinet to keep the inside of the chamber in which the shoe is stored at all times dry, thereby preventing the formation of bacteria and mold A technique has been proposed that can block the source code.

However, according to such a configuration, it is possible to provide an environment in which the air can be forcedly circulated through the fan unit to dry and sterilize the shoe, but the fan unit and the shoe box located farthest away from the shoe, The shoe is not kept in a relatively good condition relative to the upper shoe box.

Korean Patent Publication No. 10-2005-0120728 (Dec. 23, 2005)

The present embodiment provides a shoe disinfection and deodorizing apparatus with improved structure for drying shoe housed in a shoe box regardless of the position of the fan unit.

The apparatus for sterilizing and deodorizing shoe according to the present embodiment includes a cabinet body; A plurality of shoe covers disposed transversely to the inside of the cabinet body; A fan unit installed on the cabinet body; A pair of air supply units, one end of which is connected to the fan unit, and which are disposed on both sides of the cabinet body; A plurality of branching units disposed at predetermined intervals in the air supply unit, each of the branching units being coupled to the plurality of shoehorns; An exhaust unit disposed between the plurality of shoehorns, one end of which is connected to the fan unit to suck air in the shoehorn and deliver the sucked air to the inlet port of the fan unit; A side plate coupled to the cabinet body to protect left and right side surfaces of the plurality of shoe boxes; A lower plate disposed on a bottom surface of the plurality of shoe closets to close the ends of the pair of air supply units and the exhaust unit; And an upper plate coupled to an upper surface of the cabinet body to protect the fan unit. The width of the inner space of the pair of air supply units may be narrower toward the lower side.

The shoe box includes a first space part to which a branch unit connected to the air supply unit is coupled; And a second space portion disposed below the first space portion and accommodating the shoe.

Wherein the first space portion is provided in a shape corresponding to the branching unit and is formed with a pair of first through holes through which the branching unit is coupled; And a second through-hole communicating with the second space portion.

The second space portion may include an exhaust port formed on one side wall to discharge the internal air.

The exhaust port may be connected to an exhaust port provided in the exhaust unit.

The exhaust port may further include a filter member for blocking dust and foreign matter.

The air supply unit is provided in a square pipe shape and may be disposed in a space between the shoe box and the side plate.

The plurality of branching units may have the same size and shape, and may be coupled to opposite sides of the pair of air supply units at regular intervals.

The exhaust unit may be interposed in the space between the shoe boxes in which a plurality of the exhaust units are arranged in two rows.

The apparatus for sterilizing and deodorizing shoe according to the second embodiment includes a cabinet body; A plurality of shoe covers disposed transversely to the inside of the cabinet body; A fan unit installed on the cabinet body; A pair of air supply units, one end of which is connected to the fan unit, and which are disposed on both sides of the cabinet body; A plurality of injection ducts arranged at predetermined intervals in the air supply unit and each coupled to the plurality of shoe boxes; An exhaust unit disposed in parallel with the air supply unit and connected at one end to the fan unit to suck air inside the shoe box and to transfer the intake air to the inlet port side of the fan unit; A side plate coupled to the cabinet body to protect left and right side surfaces of the plurality of shoe boxes; A lower plate disposed on a bottom surface of the plurality of shoe closets to close the ends of the pair of air supply units and the exhaust unit; And an upper plate coupled to an upper surface of the cabinet body to protect the fan unit. The width of the inner space of the pair of air supply units is narrower toward the lower side.

The shoe box includes an upper plate on which first and second grooves are formed on both side walls; A plurality of shoe box upper plates spaced apart from the upper plate by a predetermined distance, a plurality of shoe box spaced apart from each other at equal intervals, and a pair of third grooves formed on both sides of the shoe box; A first side plate on which the air supply unit is installed and to which one end of the injection duct is inserted; A second side plate coupled to the other end of the first side plate, the front side being closed; And a shoe rack plate for forming a rear surface of the entire shoe box.

Wherein the jetting duct comprises at least one jetting port for jetting air into the shoe box; And an end portion formed on a surface corresponding to the second side plate and forming a closed end of the injection duct.

Wherein the first side plate is formed through one side wall surface, and the intake duct is coupled to the intake port; And an exhaust port which is formed to penetrate through one side wall surface and exhaust air inside the shoe box.

The exhaust port may further include a filter member connected to an exhaust port provided in the exhaust unit and blocking dust and foreign matter.

The air supply unit is provided in a square pipe shape and may be disposed in a space between the shoe box and the side plate.

As the distance from the fan unit increases, the cross-sectional area of the passage gradually decreases to increase the flow rate of the air supplied through the duct, so that the lower shoe so far away from the fan unit can effectively maintain the shoe drying condition.

1 is a perspective view of a shoe sterilizing and deodorizing apparatus according to a first embodiment,
Fig. 2 is an exploded perspective view of Fig. 1,
Fig. 3 is an enlarged view of a portion A in Fig. 2,
4 is an enlarged view of a portion B in Fig. 2,
5 is a perspective view of a shoe box according to the first embodiment,
6 is a cross-sectional view of the shoe sterilizing and deodorizing apparatus according to the first embodiment,
7 is a cross-sectional view taken along the line CC of Fig. 6,
8 is a front sectional view of a shoe sterilizing and deodorizing apparatus according to the first embodiment,
9 is a side view of the shoe sterilizing and deodorizing apparatus according to the first embodiment,
10 is a side view of a shoe sterilizing and deodorizing apparatus according to a second embodiment,
11 is an exploded perspective view of Fig. 10,
12 is a sectional view of the air supply duct according to the second embodiment,
13 is an exploded perspective view of the shoe box according to the second embodiment.

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

Fig. 1 is a perspective view of the shoe sterilizing and deodorizing apparatus according to the first embodiment, Fig. 2 is an exploded perspective view of Fig. 1, Fig. 3 is an enlarged view of a portion A of Fig. 6 is a cross-sectional view of the shoe sterilizing and deodorizing apparatus according to the first embodiment, Fig. 7 is a cross-sectional view taken along the line CC of Fig. 6, and Fig. 8 is a cross- 10 is a side view of the shoe sterilizing and deodorizing apparatus according to the second embodiment. Fig. 11 is a side view of the shoe sterilizing and deodorizing apparatus according to the second embodiment. Fig. Fig. 12 is a sectional view of the air supply duct according to the second embodiment, and Fig. 13 is an exploded perspective view of the shoe box according to the second embodiment.

It is to be noted that the same components of the drawings are denoted by the same reference numerals and symbols as possible even if they are shown in different drawings. In the following description of the present invention, a 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.

Also, when a part is referred to as "including " an element, it does not exclude other elements unless specifically stated otherwise.

The shoe sterilizing and deodorizing apparatus according to the first embodiment includes a cabinet body 10, a shoe box 20, a fan unit 30, an air supply unit 100, a branch unit 140, an exhaust unit 150, a side plate 13 ), A lower plate (15), and a top plate (14).

The cabinet body 10 may be formed of a metal material and a plurality of door portions 11 may be installed on the front portion of the cabinet body 10. The cabinet body 10 may include a shoe box 20, a fan unit 30, a thick plate 12, Can be formed through the combination of the upper plate and the lower plate (14) (15). The width and height of the cabinet body 10 may be determined as necessary. For example, the cabinet body 10 may be configured as two rows or two or more rows as shown in the figure.

The shoe box 20 may be stacked so that a plurality of shoe boxes 20 are arranged in a predetermined row and a row as shown in Fig. The number of the shoeboxes 20 can be varied, and the number of rows and columns can be increased or decreased as needed. The structure of the shoe box 20 will be described later.

The fan unit 30 sucks air through an intake port and an exhaust port (not shown) and discharges the air at a constant speed. The fan unit 30 is preferably disposed on the upper side as shown in the drawing and sucks the air inside the shoe box 20 and supplies the air to the inside of the shoe box 20 through the air supply unit 100. The air circulated by the fan unit 30 can keep the air stored in the shoe box 20 at a level below the predetermined humidity to easily remove moisture contained in the shoe.

2, the fan unit 30 may be directly connected to a pair of the air supply units 100, which will be described later. However, the fan unit 30 may be connected through the air supply duct 110 as shown in FIG.

According to the present embodiment, the one-phase air supply unit 100 for guiding the air flow of the fan unit 30 and supplying the air to the inside of the shoe box 20 may be provided.

2 to 4, the air supply unit 100 includes an air supply duct 110, a first air supply unit 120, a second air supply unit 130, and a plurality of branch units 140 .

The air supply duct 110 may be provided in a substantially square pipe shape. The air supply duct 110 may be provided with a supply air hole 111 near the center thereof and both ends of the air supply duct 110 may be connected to the air supply unit 100, respectively. The air supply duct 110 may be interposed between the fan unit 30 and the air supply unit 100 on the upper side as shown in this embodiment. However, it is not limited thereto and may be omitted.

The first-class engine 120 may be provided in the form of a square pipe. At this time, a flow path for air flow may be formed in the first air supply unit 120, and upper and lower ends may be opened. At this time, air of the fan unit (30) is supplied through the upper end portion, and the lower end portion may be closed by the lower plate (15).

Sectional area of the internal space portion of the first-class engine 120 may be different from each other. 3, the upper end of the first branch 120 may have a first width W1 and the lower end may have a second width W2 as shown in FIG. 4 have. At this time, the width of the upper end portion is formed to be wider than the width of the lower end portion, so that the flow rate of air flowing toward the lower end portion can be increased.

That is, when the fan unit 30 receives air at a constant flow rate, the flow velocity at the lower end side of the first branch 120 can be formed relatively faster than the flow rate at the upper end side of the first branch 120. With such a configuration, the shoe box 20 disposed at the lower end side can receive a sufficient amount of air and can maintain a dry air condition with no significant difference from the shoe box 20 disposed at the upper end due to rapid air flow.

Meanwhile, a plurality of through holes (not shown) may be formed on the side surface of the first-class engine 120. The through holes may be formed in a shape corresponding to an end shape of the branch unit 140, to which the branch units 140 are coupled. For example, when the branch unit 140 is provided in the form of a rectangular duct pipe, the side through holes may be rectangular.

The side through holes formed by the square shape or the like may be arranged at regular intervals, and the shoe box 20 corresponding to the side through holes may be provided with a first through hole to be described later.

Meanwhile, the second-class engine 130 may have the same shape as the first-class engine 120, and the first and second classifiers 120 and 130 may be symmetrically disposed. On the other hand, the first and second branch pipes (120, 130) can be disposed closely to the side wall of the shoe box (20).

A plurality of branching units 140 may be arranged at regular intervals. As shown in FIG. 2, the branch unit 140 may have openings 141 at both ends thereof, and at least one air supply hole 142 may be provided on the bottom surface thereof. The air supply hole 142 supplies air toward the inner space of the shoe box 20.

The exhaust unit 150 is disposed between the plurality of shoehorns 20 and has one end connected to the fan unit 30 to suck in the air inside the shoehorn 20, 30 to the intake port (not shown) side.

As shown in the drawing, the exhaust unit 150 may be provided in the form of a pipe, and the exhaust port 151 may be provided on the side wall at regular intervals. The exhaust port 151 may be provided with a filter member formed of a mesh or the like. However, the present invention is not limited thereto, and a perfume, phytoncide, deodorant, etc. may be further provided.

For example, the exhaust unit 150 may be interposed in a space between the shoe boxes 20 in a plurality of rows. If there are two or more rows, they can be interposed in the space between the rows of the shoehorns 20. Meanwhile, in the case of the exhaust port 151, the air inside the shoe box 20 disposed on both sides of the exhaust unit 150 can be sucked in at one time.

5 is a view showing the shoe box 20 according to the embodiment in detail.

As shown, the shoe box 20 may include a first space portion 21 and a second space portion 22.

A pair of first through holes 21a may be formed at both ends of the first space 21. The first through hole 21a may be formed in a substantially rectangular shape, and the branch unit 140 may be inserted and coupled. At this time, the branch unit 140 and the first through holes 21a may be formed in corresponding shapes so that there is almost no clearance at the time of coupling.

A second through hole 21b may be formed on the bottom surface of the first space portion 21 at a position facing the air supply hole 142 provided in the branching unit 140. [ The second through hole 21b may inject the air supplied from the fan unit 30 to the second space 22 through the air supply hole 142. [

The second space 22 occupies most of the area of the shoe box 20, and shoe that requires drying in its inner space can be accommodated. The air introduced into the second space portion 22 flows through the second through hole 21b and the air again flows through the exhaust port 22a formed in the side wall of the second space portion 22 And may be transmitted to the exhaust unit 150 side.

Meanwhile, the position of the exhaust port 22a may be arranged so as not to interfere with the position where the first through hole 21a is installed, as shown in FIG. The exhaust port 22a may be directly connected to the exhaust port 151 of the exhaust unit 150 and may be connected to each other. At this time, a separate joining member or the like may be used, or may be disposed facing each other.

6, the air supply holes 142 formed in the branch unit 140 are arranged to face the second through holes 21b formed in the first space portion 21, The air supplied to the unit 140 can be introduced into the shoe box through the second through hole 21b. The exhaust port 22a formed in the side wall of the shoe box 20 is directly connected to the exhaust port 151 of the exhaust unit 150. [

7 to 9, the upper end 121 of the first branch 120 may have a first width W1 and the lower end 122 may have a width W1 that is less than the first width W1. The moving speed of the air at a constant flow rate supplied from the fan unit 30 becomes faster as it goes downward and the shoe box 20 arranged at the lower side also has a sufficient second air flow Can be obtained. The second-class engine 130 is also the same.

Meanwhile, although not shown, if the fan unit 30 is installed on the bottom surface side, the structure of the first and second air supply units 120 and 130 may be reversed. That is, the cross-section of the flow path near the fan unit 30 can always be made largest.

According to the present embodiment as described above, it is possible to solve the problem that the shoe housed in the shoe box remote from the fan unit and relatively close to the floor surface, which is a disadvantage of the conventional shoe drying apparatus, is not dried well.

Further, when an auxiliary agent having phytoncide or similar direction and / or a deodorant component is further added to the exhaust unit 150, odor generation may be prevented.

Since the air is forced to circulate by using the fan unit 30, sweat or moisture inside the shoe can be discharged to the outside while the air is circulated. Therefore, the operator always wears clean and dry shoes can do.

The apparatus for sterilizing and deodorizing shoe according to the second embodiment is not greatly different from the first embodiment described above. The description of the components having the same configuration and role is duplicated, and therefore, the description will be briefly described.

The cabinet body 10 may be formed of a metal material and a plurality of door portions 11 may be installed on the front portion of the cabinet body 10. The cabinet body 10 may include a shoe box 20, a fan unit 30, a thick plate 12, Can be formed through the combination of the upper plate and the lower plate (14) (15). The width and height of the cabinet body 10 may be determined as necessary. For example, the cabinet body 10 may be configured as two rows or two or more rows as shown in the figure.

The shoe box 1200 may be stacked such that a plurality of shoe boxes 1200 are arranged in a predetermined row and row as shown in FIG. The number of shoe closets 1200 can be varied, and the number of rows and columns can be increased or decreased as needed.

The fan unit 30 sucks air through an intake port and an exhaust port (not shown) and discharges the air at a constant speed. The fan unit 30 is preferably disposed on the upper side as shown in the drawing and sucks the air inside the shoe box 20 and supplies the air to the inside of the shoe box 20 through the air supply unit 100. The air circulated by the fan unit 30 can keep the air stored in the shoe box 20 at a level below the predetermined humidity to easily remove moisture contained in the shoe.

11, the fan unit 30 may be directly connected to a pair of the air supply units 100 to be described later. However, the fan unit 30 may be connected through the air supply duct 110 as shown in FIG.

According to the second embodiment, a one-phase air supply unit 100 for guiding the air flow of the fan unit 30 and supplying the air to the inside of the shoe box 1200 may be provided.

11 and 12, the air supply unit 100 may include an air supply duct 110, a first air supply unit 120, and a second air supply unit 130. As shown in FIG.

The air supply duct 110 may be provided in a substantially square pipe shape. The air supply duct 110 may be provided with a supply air hole 111 near the center thereof and both ends of the air supply duct 110 may be connected to the air supply unit 100, respectively. The air supply duct 110 may be interposed between the fan unit 30 and the air supply unit 100 on the upper side as shown in this embodiment. However, it is not limited thereto and may be omitted.

The first-class engine 120 may be provided in the form of a square pipe. At this time, a flow path for air flow may be formed in the first air supply unit 120, and upper and lower ends may be opened. At this time, air of the fan unit (30) is supplied through the upper end portion, and the lower end portion may be closed by the lower plate (15). On the other hand, an auxiliary plate 15a is formed on the lower plate 15 to support the shoe boxes 1200.

Sectional area of the internal space portion of the first-class engine 120 may be different from each other. That is, as shown in FIG. 12, the upper end of the first branch 120 may have a first width W1 and the lower end may have a second width W2. At this time, the width of the upper end portion is formed to be wider than the width of the lower end portion, so that the flow rate of air flowing toward the lower end portion can be increased.

That is, when the fan unit 30 receives air at a constant flow rate, the flow velocity at the lower end side of the first branch 120 can be formed relatively faster than the flow rate at the upper end side of the first branch 120. With such a configuration, the shoe box 1200 disposed at the lower end side can receive a sufficient amount of air and can maintain a dry air condition with no significant difference from the shoe box 20 disposed at the upper end due to rapid air flow.

Meanwhile, the second-class engine 130 may have the same shape as the first-class engine 120, and the first and second classifiers 120 and 130 may be symmetrically disposed. Meanwhile, the first and second branch pipes 120 and 130 may be disposed closely to the side wall of the shoe box 1200.

A plurality of injection ducts 1230 may be arranged at regular intervals. The structure of the injection duct 1230 will be described later.

The exhaust unit 150 is disposed on both sides of the plurality of shoe boxes 20 in parallel with the first and second air pipes 120 and 130. One end of the exhaust unit 150 is connected to the fan unit 30 to suck the air inside the shoe box 20 and to transfer the sucked air to the inlet port (not shown) of the fan unit 30 .

As shown in the drawings, the exhaust unit 150 may be formed in a square pipe shape, and an exhaust port may be formed on the side wall at regular intervals to be connected to the inner space of the shoe box 1200 described later. The exhaust port may be provided with a filter member formed of a mesh or the like. However, the present invention is not limited thereto, and a perfume, phytoncide, deodorant, etc. may be further provided.

For example, as shown in FIG. 11, the exhaust unit 150 includes first and second exhaust passages 150a and 150b, which are arranged in two rows, If there are two or more rows of shoehorns, they may be interposed in the space between rows of the shoehorns 20. On the other hand, in the case of the air outlet, the air inside the shoe box 1200 which is formed on both side walls of the air exhaust unit 150 can be sucked in at one time.

According to such a configuration, since the flow path through which the air flows into and out of the shoe box 1200 is all disposed on the side wall, the installation space can be saved and the flow path can be simplified. Further, it is also possible to simplify the process since the first and second exhaust passages 150a and 150b can be formed in a similar shape in the assembling and production stages.

13 is a view showing the shoe box 1200 according to the second embodiment in detail.

As shown, the shoe box 1200 may include an upper plate 1210, a top plate 1220, a jetting duct 1230, first and second side plates 1240 and 1250, and a shoe rack plate 1260 .

The upper plate 1210 has first and second grooves 1211 and 1212 formed on its upper surface so that the air supply duct 111 and the like can be inserted and coupled. The upper plate 1210 may be coupled to the upper end of the shoe box 1200, and the fan unit 30 may be installed above the upper plate 1210.

A plurality of upper panels 1220 may be provided at regular intervals, and the inner space of each shoe box may be partitioned by the upper plates 1220. The upper surface of the upper plate 1220 becomes the ceiling of the lower shoe box, and becomes the bottom surface of the upper shoe box. The upper plate may have a third groove 1221 formed in a direction toward the lower side, and the injection duct 1230 may be installed. The third grooves 1221 are provided in a pair, and the injection duct 1230 is coupled to both ends.

The opening of the jetting duct 1230 forms a U-shaped flow passage, and the opened upper opening portion is engaged with the bottom surface side of the upper plate 1220 to be closed. On the surface facing the inner space portion of the shoe box 1200, A slit-shaped injection port 1231 can be formed. At this time, the shape of the injection port 1231 can be variously configured as a slit, as well as a simple shape of a through hole, a mesh shape, or the like. The air supplied through the air supply duct 110 by the injection port 1231 can be supplied to the inner space of the shoe box 1200. In addition, the end portion forms a clogged end 1232 so that the air can be injected only through the injection port 1231.

The first side plate 1240 forms a side wall of the shoe box 1200 and may include a plurality of intake ports 1241 and an exhaust port 1242. The intake port 1241 is disposed at a position corresponding to the injection duct 1230 and the exhaust port 1242 is formed at a position corresponding to the exhaust port to exhaust air inside the shoe box 1200.

On the other hand, the second side plate 1250 may be provided in a flat shape having no through holes to form a closed end. Further, the shoe rack plate 1260 may form the entire rear surface of the shoe box 1200. At this time, the first and second side plates 1240 and 1250 and the shoe rack plate 1260 may be formed to have approximately the same height to form an overall appearance of the shoe drying system.

According to the above-described embodiment, since the cross-sectional area of the flow path gradually decreases as the distance from the fan unit increases, the flow rate of the air supplied through the duct increases, so that the lower shoe so far away from the fan unit can also effectively maintain the shoe- .

The embodiments of the present invention described above and shown in the drawings should not be construed as limiting the technical idea of the present invention. The scope of protection of the present invention is limited only by the matters described in the claims, and those skilled in the art will be able to modify the technical idea of the present invention in various forms. Accordingly, such improvements and modifications will fall within the scope of the present invention as long as they are obvious to those skilled in the art.

10; A cabinet body 11; The door portion
12; Plate 13; shroud
14; Top plate 15; Bottom plate
100; An air supply unit 110; Air supply duct
111; Feed air 120; First Class Engine
130; A second-class engine 140; Branching unit
141; An opening 142; Air supply ball
150; An exhaust unit 151; Exhaust ball
20, 1200; Shoe box 30; Fan unit

Claims (15)

Cabinet body;
A plurality of shoe covers disposed transversely to the inside of the cabinet body;
A fan unit installed on the cabinet body;
A pair of air supply units, one end of which is connected to the fan unit, and which are disposed on both sides of the cabinet body;
A plurality of branching units disposed at predetermined intervals in the air supply unit, each of the branching units being coupled to the plurality of shoehorns;
An exhaust unit disposed between the plurality of shoehorns, one end of which is connected to the fan unit to suck air in the shoehorn and deliver the sucked air to the inlet port of the fan unit;
A side plate coupled to the cabinet body to protect left and right side surfaces of the plurality of shoe boxes;
A lower plate disposed on a bottom surface of the plurality of shoe closets to close the ends of the pair of air supply units and the exhaust unit; And
And a top plate coupled to an upper surface of the cabinet body to protect the fan unit,
Wherein the width of the inner space of the pair of air supply units is narrower toward the lower side.
The portable terminal according to claim 1,
A first space part coupled to the branch unit connected to the air supply unit; And
And a second space portion disposed below the first space portion and storing shoe therein.
[3] The apparatus of claim 2,
A pair of first through holes provided in a shape corresponding to the branching unit and through which the branching unit is coupled; And
And a second through-hole communicating with the second space portion side.
[3] The apparatus of claim 2,
And an exhaust port formed on one wall surface to exhaust the inside air.
The exhaust system according to claim 4,
And an exhaust port provided in the exhaust unit.
6. The air conditioner according to claim 5,
And further comprising a filter member for blocking dust and foreign matter.
The air conditioner according to claim 1,
A shoe sterilizing and deodorizing device, which is provided in a square pipe shape and is disposed in a space between the shoe box and the side plate.
The apparatus according to claim 1,
Are each provided in the same size and shape,
Wherein the pair of air supply units are coupled to opposite sides of the pair of air supply units at regular intervals.
The exhaust system according to claim 1,
A shoe sterilizing and deodorizing device interposed in a space portion between shoe closets in which a plurality of shoelaces are arranged in two rows.
Cabinet body;
A plurality of shoe covers disposed transversely to the inside of the cabinet body;
A fan unit installed on the cabinet body;
A pair of air supply units, one end of which is connected to the fan unit, and which are disposed on both sides of the cabinet body;
A plurality of branching units disposed at predetermined intervals in the air supply unit, each of the branching units being coupled to the plurality of shoehorns;
A spray duct disposed in parallel with the air supply unit and having one end connected to the fan unit to suck air in the shoe box and deliver the sucked air to the inlet port of the fan unit;
A side plate coupled to the cabinet body to protect left and right side surfaces of the plurality of shoe boxes;
A lower plate disposed on a bottom surface of the plurality of shoe closets to close the ends of the pair of air supply units and the exhaust unit; And
And a top plate coupled to an upper surface of the cabinet body to protect the fan unit,
Wherein the width of the inner space of the pair of air supply units is narrower toward the lower side.
11. The shoe box according to claim 10,
An upper plate on which first and second grooves are formed on both side walls;
A plurality of shoe box upper plates spaced apart from the upper plate by a predetermined distance and spaced at equal intervals from each other and having a pair of third grooves formed on both sides thereof to couple the injection ducts;
A first side plate on which the air supply unit is installed and to which one end of the injection duct is inserted;
A second side plate coupled to the other end of the first side plate, the front side being closed; And
And a shoe box thickening plate forming a rear surface of the entire shoe box.
12. The air conditioner according to claim 11,
At least one jetting port for jetting air into the shoe box; And
And an end portion formed on a surface corresponding to the second side plate and forming a closed end of the injection duct.
12. The apparatus according to claim 11, wherein the first side plate
An intake port formed on one wall surface and coupled to the injection duct; And
And an exhaust port formed on one side wall of the shoe so as to discharge the air inside the shoe box.
14. The exhaust system according to claim 13,
And a filter member connected to an exhaust port provided in the exhaust unit and blocking dust and foreign matter.
The air conditioner according to claim 10,
A shoe sterilizing and deodorizing device, which is provided in a square pipe shape and is disposed in a space between the shoe box and the side plate.

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