KR20220156776A - Clean room structure with improved confidentiality and clean room system including the same - Google Patents

Abstract

Disclosed are a clean room structure with improved airtightness and a clean room system including the same. The clean room structure of the present disclosure comprises: at least one first base plate forming at least one part of a side surface of the clean room structure and having a rectangular plate shape having a constant thickness; at least one second base plate forming a part different from the at least one part among the side surfaces of the clean room structure and having a rectangular plate shape having the constant thickness; a first main bracket disposed on each edge of the first base plate; a second main bracket disposed on each edge of the second base plate; a first auxiliary bracket coupling the first base plate and the ceiling area of the clean room structure; a second auxiliary bracket coupling the first base plate and the bottom area of the clean room structure; and a third auxiliary bracket coupling the first base plate and the second base plate when the first base plate and the second base plate are coupled in a straight line.

Description

Clean room structure with improved confidentiality and clean room system including the same

The present invention relates to a clean room structure and a clean room system including the same, and more particularly, to a clean room structure with improved airtightness of a connection portion of each base plate and a connection portion between each base plate and a ceiling structure or a floor structure. And it relates to a clean room system including the same.

In general, a clean room refers to a room in which suspended particles in the indoor air are controlled below a predetermined limit value, and the clean room is generally a production facility, inspection room, laboratory, It is used in various fields that require a high level of dust prevention, such as hospitals and medical facilities.

In general, such a clean room generally circulates indoor air by an air conditioning facility installed outdoors, and removes fine particles such as dust in the air by passing through a filter while the circulated indoor air passes through the air conditioning facility.

In the conventional clean room, research has been focused on presenting only a coupling structure between walls constituting the clean room and controlling dust in the clean room.

However, a means for preventing dust or foreign substances introduced through minute gaps at a connection between walls constituting a clean room, or at a connection or coupling between walls and a ceiling or floor has not been proposed.

Republic of Korea Patent Registration No. 10-1893682 (registered on August 24, 2018)

The present invention can provide a clean room structure with improved airtightness and a clean room system including the same.

The present invention may provide a clean room structure capable of securing airtightness according to a corresponding connection structure when base plates are connected in a straight line or when base plates are connected at right angles, and a clean room system including the same.

The present invention may provide a clean room structure capable of securing airtightness according to a corresponding connection structure when a base plate is coupled to a ceiling or a base plate is coupled to a floor, and a clean room system including the same.

The present invention provides a clean room structure including a bracket structure capable of improving mutual bonding force when a base plate is combined with another base plate or when a base plate is combined with a ceiling or floor, and a clean room system including the same. can do.

The present invention provides a clean room structure and a clean room system including the same, in which an operator can more easily perform a coupling operation when a base plate is coupled with another base plate or when a base plate is coupled with a ceiling or floor. can

The present invention can provide a clean room structure capable of detecting the amount of dust or internal temperature of the clean room during the operation of the clean room, and a clean room system including the same.

In the present invention, when the amount of dust inside the clean room is greater than a preset amount during the operation of the clean room, the dust is automatically discharged until the amount of dust inside the clean room is less than the preset amount. It is possible to provide a clean room structure and a clean room system including the same.

The present invention can provide a clean room structure that can assemble a clean room through a simple structure of the clean room, and also facilitates recycling of parts due to easy disassembly, and a clean room system including the same.

According to various embodiments of the present invention, a clean room structure with improved airtightness may include at least one first base plate forming at least one part of a side surface of the clean room structure and having a rectangular plate shape; at least one second base plate formed on a side of the clean room structure different from the at least one portion and having a rectangular plate shape; a first main bracket disposed on each edge of the first base plate; a second main bracket disposed on each edge of the second base plate; a first auxiliary bracket coupling the first base plate and the ceiling area of the clean room structure; a second auxiliary bracket coupling the first base plate and the bottom area of the clean room structure; and a third auxiliary bracket coupling the first base plate and the second base plate when the first base plate and the second base plate are coupled in a straight line, wherein the first main bracket and the second base plate are coupled together. The second main bracket may include a first main portion disposed inside the first base plate or the second base plate, respectively; a second main portion extending from one end of the first main portion and disposed perpendicularly to the first main portion; a third main portion extending from one end of the second main portion, disposed perpendicularly to the second main portion, and disposed parallel to the first main portion; a fourth main portion extending from one end of the third main portion toward the first main portion, perpendicular to the third main portion, and parallel to the second main portion; A fifth main portion extending from one end of the fourth main portion, disposed perpendicularly to the fourth main portion, disposed in parallel with the first main portion and the third main portion, and spaced apart from the first main portion. part; and a sixth main portion extending from at least one portion of the fifth main portion and connected to at least one portion of the first main portion, wherein the first base plate and the second base plate are spaced apart from each other, respectively. a pair of first base parts; second base parts extending toward each other from ends of the pair of first base parts, at least one part of which is in close contact with the third main part; and a paper honeycomb disposed between the pair of first base parts.

The first auxiliary bracket may include a 1-1 auxiliary part, at least one of which is fixed to the ceiling region through bolts; and 1-2 auxiliary parts that extend from one end of the first auxiliary part and come into close contact with the outer side of the first base part.

The second auxiliary bracket may include a 2-1 auxiliary part having at least one part fixed to the bottom area; a 2-2 auxiliary portion extending to protrude from at least one portion of the 2-1 auxiliary portion; and a 2-3 portion extending from one end of the 2-2 auxiliary portion, disposed perpendicularly to the 2-2 auxiliary portion, and disposed in parallel with the 2-2 auxiliary portion. .

The third auxiliary bracket may include a 3-1 auxiliary part having at least one part in close contact with the fifth main part; and a 3-2 auxiliary part extending from one end of the third auxiliary part, disposed perpendicularly to the 3-1 auxiliary part, and having at least one part in close contact with the fourth main part.

Further comprising a fourth auxiliary bracket and a fifth auxiliary bracket coupling the first base plate and the second base plate when the first base plate is vertically coupled to the second base plate, wherein the fourth auxiliary bracket The bracket may include a 4-1 auxiliary part having at least one part in close contact with the second base part; and a 4-2 auxiliary part protruding into at least a portion of the 4-1 auxiliary part, wherein the 5-1 auxiliary bracket is configured such that the 4-2 auxiliary part is inserted and fixed. part; a 5-2 auxiliary part extending from one end of the 5-1 auxiliary part; and a 5-3 auxiliary part extending from one end of the 5-2 auxiliary part and disposed perpendicular to the 5-2 auxiliary part.

A first sealing part disposed between the third main part of the first main bracket and the third main part of the second main bracket when the first base plate and the second base plate are coupled in a straight line ; And when the first base plate and the second base plate are coupled in a straight line, disposed between the second base portion of the first base plate and the second base portion of the second base plate, the first It may include a second sealing part disposed further from the third auxiliary bracket than the first sealing part.

It may further include a third sealing part disposed between the first base plate and the bottom area and disposed adjacent to the second auxiliary bracket.

According to various embodiments of the present invention, a clean room structure with improved airtightness may include at least one first base plate forming at least one part of a side surface of the clean room structure and having a rectangular plate shape; at least one second base plate formed on a side of the clean room structure different from the at least one portion and having a rectangular plate shape; a first main bracket disposed on each edge of the first base plate; a second main bracket disposed on each edge of the second base plate; a first auxiliary bracket coupling the first base plate and the ceiling area of the clean room structure; a second auxiliary bracket coupling the first base plate and the bottom area of the clean room structure; and a third auxiliary bracket coupling the first base plate and the second base plate when the first base plate and the second base plate are coupled in a straight line. a temperature sensor configured to sense an internal temperature of the clean room structure; and a dust sensor configured to detect an amount of dust inside the clean room structure.

A processor configured to receive temperature information about the internal temperature of the clean room structure sensed by the temperature sensor, and receive information about the amount of dust inside the clean room structure sensed by the dust sensor. .

According to various embodiments of the present invention, a clean room system including a clean room structure with improved airtightness may include at least one first base plate forming at least one part of a side surface of the clean room structure and having a rectangular plate shape; at least one second base plate formed on a side of the clean room structure different from the at least one portion and having a rectangular plate shape; a first main bracket disposed on each edge of the first base plate; a second main bracket disposed on each edge of the second base plate; a first auxiliary bracket coupling the first base plate and the ceiling area of the clean room structure; a second auxiliary bracket coupling the first base plate and the bottom area of the clean room structure; and a third auxiliary bracket coupling the first base plate and the second base plate when the first base plate and the second base plate are coupled in a straight line. a temperature sensor configured to sense an internal temperature of the clean room structure; a dust sensor configured to detect an amount of dust inside the clean room structure; an inlet fan provided on the first base plate or the second base plate; a discharge fan provided on the first base plate or the second base plate and spaced apart from the inlet fan; and receiving temperature information about the internal temperature of the clean room structure sensed by the temperature sensor, receiving information about the amount of dust inside the clean room structure sensed by the dust sensor, and receiving the inflow fan and the discharge fan. and a processor configured to control the operation of the inflow fan when the internal temperature of the clean room structure is higher than a predetermined temperature or when the amount of dust inside the clean room structure is greater than the predetermined amount. And it can be set to operate the discharge fan.

The clean room structure and the clean room system including the same according to the present invention have a differentiated effect of fundamentally blocking external foreign substances from entering the clean room due to improved airtightness.

The clean room structure and the clean room system including the same of the present invention have a differentiated effect of securing airtightness according to the connection structure when the base plates are connected in a straight line or when the base plates are connected at right angles.

The clean room structure and the clean room system including the same of the present invention have a differentiated effect of securing airtightness according to the connection structure when the base plate is coupled to the ceiling or when the base plate is coupled to the floor.

The clean room structure and the clean room system including the same of the present invention, when a base plate is combined with another base plate or when a base plate is combined with a ceiling or a floor, can be differentiated to improve mutual bonding force through a bracket structure. has the effect of

The clean room structure of the present invention and the clean room system including the same are differentiated in that when a base plate is combined with another base plate or when a base plate is combined with a ceiling or floor, an operator can more easily perform a combining operation. has the effect of

The clean room structure and the clean room system including the same according to the present invention have a differentiated effect of detecting the amount of dust or the internal temperature of the clean room during operation of the clean room.

The clean room structure and the clean room system including the same of the present invention, when the amount of dust inside the clean room is greater than the preset amount during the operation of the clean room, the amount of dust inside the clean room is greater than the preset amount It has a differentiated effect that can be controlled so that dust is automatically discharged until it becomes less.

The clean room structure and the clean room system including the same according to the present invention can assemble the clean room through a simple structure of the clean room, and also has a differentiated effect of consuming less cost because it is easy to disassemble and recycle parts. .

1 is a perspective view showing a clean room structure with improved airtightness according to various embodiments of the present invention.
Figure 2a is a cross-sectional view showing a main bracket of a clean room structure with improved airtightness according to various embodiments of the present invention.
Figure 2b is a cross-sectional view showing a first auxiliary bracket of a clean room structure with improved airtightness according to various embodiments of the present invention.
Figure 2c is a cross-sectional view showing a second auxiliary bracket of a clean room structure with improved airtightness according to various embodiments of the present invention.
2D is a cross-sectional view showing a third auxiliary bracket having a clean room structure with improved airtightness according to various embodiments of the present disclosure.
2E is a cross-sectional view illustrating a base plate and a main bracket according to various embodiments of the present disclosure.
3 is a cross-sectional view illustrating a first connection structure in which a base plate and another base plate are coupled in a straight line according to various embodiments of the present disclosure.
4 is a cross-sectional view illustrating a second connection structure in which a base plate is combined with a ceiling region according to various embodiments of the present disclosure.
5 is a cross-sectional view illustrating a third connection structure in which a base plate is combined with a bottom area according to various embodiments of the present disclosure.
6 is a cross-sectional view illustrating a fourth connection structure in which a base plate is vertically coupled to another base plate according to various embodiments of the present disclosure.
7 is a cross-sectional view illustrating a first connection structure and an expansion part in which a base plate is coupled to another base plate in a straight line according to various embodiments of the present disclosure.
8 is a cross-sectional view showing a first auxiliary bracket having a clean room structure with improved airtightness according to various embodiments of the present disclosure.
9 is a cross-sectional view illustrating a third connection structure and a sealing part in which a base plate is coupled to a bottom area according to various embodiments of the present disclosure.
10 is a cross-sectional view illustrating a fourth connection structure and a guide unit in which a base plate is vertically coupled to another base plate according to various embodiments of the present disclosure.
11 is a block diagram illustrating a clean room system with improved confidentiality according to various embodiments of the present disclosure.
12 is a diagram for explaining a process of discharging dust in a clean room structure and a clean room system according to various embodiments of the present disclosure.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings. The following examples are presented to sufficiently convey the spirit of the present invention to those skilled in the art. The present invention may be embodied in other forms without being limited to only the embodiments presented herein. In the drawings, in order to clarify the present invention, illustration of parts irrelevant to the description may be omitted, and the size of components may be slightly exaggerated to aid understanding.

The embodiments described in this specification and the configurations shown in the drawings are only one preferred example of the disclosed invention, and there may be various modifications that can replace the embodiments and drawings in this specification at the time of filing of the present application.

The same reference numerals or numerals presented in each drawing in this specification indicate parts or components that perform substantially the same function. The shapes and sizes of elements in the drawings may be exaggerated for clarity.

Terms used in this specification are used to describe the embodiments, and are not intended to limit and/or limit the disclosed invention. Singular expressions include plural expressions unless the context clearly dictates otherwise. In this specification, terms such as “include” or “have” are intended to designate that there is a feature, number, step, operation, component, part, or combination thereof described in the specification, but one or more other features It does not preclude in advance the existence or addition of numbers, steps, operations, components, parts, or combinations thereof.

Terms including ordinal numbers such as “first” and “second” used herein may be used to describe various components, but the components are not limited by the terms, and the terms are one It is used only for the purpose of distinguishing a component from other components. For example, a first element may be termed a second element, and similarly, a second element may be termed a first element, without departing from the scope of the present invention. The term “and/or” includes any combination of a plurality of related recited items or any one of a plurality of related recited items.

The terms "upper", "lower", "upper", "lower", etc. used below are defined based on the drawings, and the shape and location of each component are not limited by these terms.

Like reference numbers designate like elements throughout the specification. This specification does not describe all elements of the embodiments, and general content or overlapping content between the embodiments in the technical field to which the present invention pertains will be omitted.

The term 'unit, module, device' used in the specification may be implemented as software or hardware, and according to embodiments, a plurality of 'units, modules, devices' may be implemented as a single component, or a single 'unit, It is also possible that the 'module, device' includes a plurality of components.

Throughout the specification, when a part is said to be "connected" to another part, this includes not only the case of being directly connected but also the case of being indirectly connected, and indirect connection includes being connected through a wireless communication network. do.

In addition, when a certain component is said to "include", this means that it may further include other components without excluding other components unless otherwise stated.

Terms such as first and second are used to distinguish one component from another, and the components are not limited by the aforementioned terms.

Expressions in the singular number include plural expressions unless the context clearly dictates otherwise.

In each step, the identification code is used for convenience of description, and the identification code does not explain the order of each step, and each step may be performed in a different order from the specified order unless a specific order is clearly described in context. have.

1 is a perspective view showing a clean room structure 100 with improved airtightness according to various embodiments of the present invention. Figure 2a is a cross-sectional view showing the main bracket 140 of the clean room structure 100 with improved airtightness according to various embodiments of the present invention. Figure 2e is a cross-sectional view for explaining the base plate 110 and the main bracket 140 according to various embodiments of the present invention.

Hereinafter, for convenience of description, the X-axis direction of FIG. 1 is defined and interpreted as the width direction of the clean room structure 100 and its components, and the Y-axis direction of FIG. 1 is the clean room structure 100 and its configuration. It is defined and interpreted in the longitudinal direction of the elements, and the Z-axis direction in FIG. 1 is defined and interpreted as the height direction of the clean room structure 100 and its components, but is not limited thereto.

Referring to FIGS. 1 , 2A and 2E , the clean room structure 100 with improved airtightness may include a base plate 110 , a ceiling area 120 and a floor area 130 .

A clean room refers to a room in which suspended particles in the indoor air are controlled below a set limit value, and a clean room is generally used for production facilities, inspection rooms, laboratories, and hospitals in the semiconductor, electronic parts, precision equipment, or food/medicine industries. It can be used in various fields that require high dust prevention functions such as medical facilities.

The clean room structure 100 with improved airtightness of the present invention can be defined and interpreted as a structure or building for forming the above-described clean room. However, without being limited thereto, the clean room structure 100 of the present invention is defined as a structure or building for forming a special isolation ward such as a negative pressure room or a negative pressure ward that blocks the spread of pathogens inside the hospital to the outside, and may be interpreted.

The clean room structure 100 may include a base plate 110 forming a side surface of the clean room structure 100 . For example, the base plate 110 may be defined as a wall surface or a side surface of an internal space formed by the clean room structure 100 .

The base plate 110 may include a plurality of base plates 110 . The plurality of base plates 110 may be combined with other base plates 110 or combined with the ceiling area 120 or the floor area 130 .

Referring to FIG. 2E , the base plate 110 includes a pair of first base parts 111 spaced apart from each other, and ends of the pair of first base parts 111 each extend towards each other, and at least one portion thereof A paper honeycomb 113 disposed between the second base part 172 and the pair of first base parts 111 in close contact with the third main part 143 may be included.

The paper honeycomb 113 is made of a plate made by making paper into a hexagonal column shape and attaching it without gaps, and may be a building material or a packaging material.

The pair of first base parts 111 may be epoxy coated or coated on one side of the paper honeycomb 113 and the other side facing the opposite direction to the one side. As another example, the pair of first base parts 111 may be a cover layer made of aluminum that is bonded and laminated on one side of the paper honeycomb 113 and the other side facing the opposite direction to the one side through epoxy.

In addition, the pair of first base parts 111 may be connected or combined with the pair of second main parts 142 of the main bracket 140 .

The pair of second base parts 172 may be epoxy applied or coated to surround at least a part of the main bracket 140 connected to or coupled to the paper honeycomb 113 . As another example, the pair of second base parts 172 may be cover layers made of aluminum that are bonded and laminated through epoxy to surround at least a portion of the main bracket 140 connected to or coupled to the paper honeycomb 113. have.

The base plate 110 can secure high strength while using the paper honeycomb 113 made of a light material, and in addition, it can have a differentiated effect of implementing soundproofing.

The base plate 110 may have a rectangular plate shape. At this time, one surface constituting the surface of the rectangular plate and the other surface facing the opposite direction to the one surface may be composed of the pair of first base parts 111 described above. For example, one of the pair of first base parts 111 may be a surface facing the inner space of the clean room structure 100, and the other may be a surface facing the outer space of the clean room structure 100. can

The plurality of base plates 110 may each have the same or similar shape or coupling structure. Accordingly, the modularized plurality of base plates 110 are formed by appropriately selecting the coupling direction or the number of couplings of the plurality of base plates 110 according to the design intention of the designer, so that the clean room structure 100 intended by the designer ) has the advantage of being able to form the size or shape appropriately.

Hereinafter, description of the base plate 110 of FIG. 2E may be applied and interpreted in the same or similar manner to the plurality of base plates 110 .

The main bracket 140 may be provided on each of the plurality of base plates 110 . Looking more specifically, each of the plurality of base plates 110 having a rectangular plate shape may be provided. In addition, the main bracket 140 may be disposed at each edge of the plurality of base plates 110 . For example, main brackets 140 may be provided at respective edges of the rectangular plate-shaped base plate 110 facing four directions.

The main bracket 140 may provide a coupling structure when the base plate 110 is coupled with another base plate 110 , the ceiling region 120 , or the floor region 130 .

Referring to Figures 2a and 2e, the main bracket 140, the first main portion 141, the second main portion 142, the third main portion 143, the fourth main portion 144, the fifth It may include a main part 145 and a sixth main part 146 .

The main bracket 140 may be substantially formed of an aluminum material, but is not limited thereto. The main bracket 140 may have a frame or bar shape extending along the edge of the base plate 110, but is not limited thereto.

The first main part 141 may be disposed inside the base plate 110 . Specifically, the first main part 141 may be an area connected to the paper honeycomb 113 .

The second main part 142 extends from one end or both ends of the first main part 141 and may be disposed perpendicular to the first main part 141 . The second main part 142 may be provided as a pair and may be a part connected to the first base part 111 .

The third main part 143 may extend from one end of each of the pair of second main parts 142 and may be disposed perpendicular to the second main part 142 . In addition, the third main part 143 may be provided as a pair and may extend in a direction closer to each other. Also, the third main part 143 may be disposed substantially parallel to the first main part 141 .

The fourth main part 144 may extend from one end of each of the pair of third main parts 143 toward the first main part 141 . Also, the pair of fourth main parts 144 may be disposed perpendicular to the third main part 143 . The fourth main part 144 may be disposed parallel to the second main part 142 .

The fifth main part 145 may be defined as a part extending from and connected to one end of the pair of fourth main parts 144 . The fifth main part 145 is disposed perpendicular to the fourth main part 144, is disposed parallel to the first main part 141 and the third main part 143, and the first main part 141 can be separated from Meanwhile, in the space 147 formed by the fifth main part 145 and the fourth main part 144, a third auxiliary bracket 170 to be described later may be disposed.

The sixth main portion 146 may extend from at least one portion of the fifth main portion 145 and be connected to at least one portion of the first main portion 141 . The sixth main part 146 is a part connecting one point and another point in the inner space of the hollow main bracket 140, and can secure or improve the rigidity of the hollow main bracket 140, which is lightweight. It may be a configuration with

Meanwhile, the main bracket 140 uses the main bracket 140 provided on the first base plate 110A as the first main bracket 140A and the main bracket 140 provided on the second base plate 110B as the second main bracket. Bracket 140B may be defined, referred to and/or interpreted.

Hereinafter, for convenience of explanation, any one of the plurality of base plates 110 is defined and referred to as a first base plate 110A, and another base plate 110 connected or combined with the first base plate 110A. is defined and referred to as the second base plate 110B, 110C. However, the above-described first base plate 110A and second base plates 110B and 110C do not refer to a specific base plate 110 among the plurality of base plates 110, and the plurality of adjacent base plates 110 ) is defined in the connection relationship.

Hereinafter, for convenience of explanation, the base plate 110 having reference numerals of 110A is defined and described as the first base plate 110A, and the base plate 110 having reference numerals of 110B or 110C is first Although defined and described as two base plates 110B and 110C, when the base plate 110 having reference numerals of 110B or 110C is defined and interpreted as a first base plate, it has reference numerals of 110A. The base plate 110 can be defined and interpreted as a second base plate.

The clean room structure 100 of the present invention includes a first auxiliary bracket 150 and a first base plate 110A that couple the first base plate 110A to the ceiling area 120 of the clean room structure 100. A second auxiliary bracket 160 coupling the floor area 130 of the clean room structure 100 may be further included.

In addition, the clean room structure 100 of the present invention, when the first base plate 110A and the second base plate 110B are coupled in a straight line, the first base plate 110A and the second base plate ( 110B) may further include a third auxiliary bracket 170 for coupling.

A detailed description of the first auxiliary bracket 150, the second auxiliary bracket 160 and the third auxiliary bracket 170 will be described later.

On the other hand, the ceiling area 120 forming the ceiling of the clean room structure 100 may be defined and interpreted as a ceiling in an indoor space of a specific building, and may be composed of a separate mold bar. . In addition, without being limited thereto, the ceiling region 120 may also be composed of the base plate 110 . The ceiling area 120 may be defined and interpreted as various configurations covering the upper part of the internal space of the clean room structure 100 .

Meanwhile, the floor area 130 forming the floor of the clean room structure 100 may be defined and interpreted as a floor in an indoor space of a specific building, and may be configured as a separate mold bar. . In addition, without being limited thereto, the bottom area 130 may be composed of the base plate 110 . The ceiling region 120 may be defined and interpreted as various configurations forming the bottom surface of the internal space of the clean room structure 100 .

Figure 2b is a cross-sectional view showing the first auxiliary bracket 150 of the clean room structure 100 with improved airtightness according to various embodiments of the present invention. 4 is a cross-sectional view illustrating a second connection structure in which the base plate 110 is combined with the ceiling region 120 according to various embodiments of the present disclosure.

Referring to FIGS. 1 , 2B and 4 , the first auxiliary bracket 150 may couple the first base plate 110A to the ceiling region 120 .

The first auxiliary bracket 150 may be made of aluminum, but is not limited thereto.

The first auxiliary bracket 150 may include a 1-1 auxiliary part 151 at least one part of which is fixed to the ceiling region 120 through bolts B. The 1-1 auxiliary part 151 may be the body of the first auxiliary bracket 150 and may be configured to contact and couple to the ceiling region 120 face to face.

The first auxiliary bracket 150 may include first-second auxiliary parts 152 extending from one end or both ends of the first auxiliary part and in close contact with the outer side of the first base part 111 .

The first-second auxiliary part 152 may be configured as a pair extending from both ends of the first auxiliary part. A pair of first-second auxiliary parts 152 may be disposed parallel to each other and spaced apart from each other.

The distance between the pair of first and second auxiliary parts 152 may be substantially smaller than the thickness of the first base plate 110A (eg, the thickness in the left-right direction in FIG. 4 ).

Accordingly, when the first base plate 110A is coupled to the first auxiliary bracket 150, the pair of first base parts 111 are forcibly fitted between the pair of first and second auxiliary parts 152. Can be inserted in a combined manner.

Accordingly, the operator does not use a separate fastening member or coupling member to connect the first base plate 110A and the first auxiliary bracket 150, but simply attaches the first base plate to the first auxiliary bracket 150 ( 110A), so that the coupling between the two is implemented, the ease of operation can be secured.

Meanwhile, since the first auxiliary bracket 150 is fixed to the ceiling region 120 by bolts B and the first base plate 110A is fixed to the first auxiliary bracket 150, the first base plate 110A is fixed to the first auxiliary bracket 150. The plate 110A and the ceiling region 120 may be coupled to each other through the first auxiliary bracket 150 .

8 is a cross-sectional view showing the first auxiliary bracket 150 of the clean room structure 100 with improved airtightness according to various embodiments of the present invention.

Referring to FIGS. 2E , 4 and 8 , the first auxiliary bracket 150 may further include a 1-3 auxiliary part 153 and a 1-4 auxiliary part 154 .

The 1-3 auxiliary portion 153 may be a region extending from at least one portion of the 1-2 auxiliary portion 152 toward the other 1-2 auxiliary portion 152 . In addition, the first to third auxiliary parts 153 may be provided as a pair as shown.

The 1-4 auxiliary part 154 may extend from one end of each of the pair of 1-3 auxiliary parts 153 in a direction away from the 1-1 auxiliary part 151 . The pair of first-fourth auxiliary parts 154 may be disposed substantially parallel to the first-second auxiliary parts 152 .

The thickness formed by the pair of first to fourth auxiliary parts 154 (eg, the thickness in the left-right direction in FIG. 8) is the thickness of the space 147 formed by the main bracket 140 (eg, the thickness in FIG. 2E). thickness in the left-right direction). Accordingly, when the first plate is coupled to the ceiling region 120, the pair of first to fourth auxiliary parts 154 may be inserted into the space 147 in an interference fitting manner.

Accordingly, when the first plate is coupled to the ceiling region 120, the space 147 of the pair of first to fourth auxiliary parts 154 and the main bracket 140 is fixed to each other, so that the first plate and There is an advantage in that the bonding force of the ceiling region 120 can be additionally secured.

On the other hand, the pair of first base parts 111 are forcibly fitted into the 1st-2nd auxiliary parts 152 of the auxiliary bracket, and the pair of 1st-4th base parts are space 147 of the main bracket 140 Since it is forcibly fitted into the inside of the clean room structure 100 through the space between the ceiling region 120 and the first plate, it is possible to fundamentally block external foreign matter from entering the inside of the clean room structure 100 .

Figure 2c is a cross-sectional view showing the second auxiliary bracket 160 of the clean room structure 100 with improved airtightness according to various embodiments of the present invention. 5 is a cross-sectional view illustrating a third connection structure in which the base plate 110 is combined with the bottom area 130 according to various embodiments of the present disclosure.

Referring to FIGS. 1 , 2C and 5 , the second auxiliary bracket 160 may couple the first base plate 110A to the bottom area 130 .

The second auxiliary bracket 160 may be made of aluminum, but is not limited thereto.

The second auxiliary bracket 160 may include a 2-1 auxiliary part 161 having at least one part fixed to the bottom area 130 . The 2-1 auxiliary part 161 may be the body of the second auxiliary bracket 160, and may be in contact with the bottom area 130 face to face and coupled through a bolt B.

The second auxiliary bracket 160 may include a 2-2 auxiliary part 162 extending to protrude from at least one part of the 2-1 auxiliary part 161 . The 2-2 auxiliary part 162 may be provided as a pair spaced apart from each other.

The second auxiliary bracket 160 extends from one end of the 2-2 auxiliary part 162, is disposed perpendicularly to the 2-2 auxiliary part 162, and is parallel to the 2-2 auxiliary part 162. It may include 2-3 parts arranged in such a way. The 2-2 auxiliary part 162 may be a part that substantially connects one end of the pair of 2-2 auxiliary parts 162 .

The 2-3 auxiliary part and the pair of 2-2 auxiliary parts 162 may be disposed in the space 147 formed by the first main bracket 140A.

The 2-1st auxiliary part 161 may be a part that contacts or comes into close contact with the pair of 1-2nd base parts.

The clean room structure 100 may further include a third sealing part 183 . The third sealing part 183 may be disposed between the first base plate 110A and the bottom area 130 . Specifically, the third sealing part 183 may be disposed between the first and second base parts of the first base plate 110A and the bottom area 130 .

The third sealing part 183 may be disposed adjacent to the second auxiliary bracket 160 . Specifically, the third sealing part 183 may be disposed adjacent to the 2-1 auxiliary part 161 of the second auxiliary bracket 160 .

As an example, the third sealing part 183 may be a caulking member using a rivet, but is not limited thereto and may be a rubber member.

The third sealing part 183 may seal a gap formed between the first base plate 110A and the bottom area 130 .

Accordingly, when the first base plate 110A is coupled, connected, or installed to the bottom area 130, the 1-2 base part is in close contact with the 2-1 auxiliary part 161, and the 1-2 base part Since the gap formed between the part and the floor area 130 is sealed through the third sealing part 183, foreign substances or dust from the outside pass through between the first base plate 110A and the floor area 130 to achieve a clean room structure. Inflow into the interior of (100) can be fundamentally blocked.

In addition, the first base plate 110A has a first main bracket 140A on the 2-2 auxiliary part 162 and the 2-3 auxiliary part of the second auxiliary bracket 160 installed on the floor area 130. Since the position of the first base plate 110A can be adjusted so that the space 147 of the space 147 is inserted, there is an advantage in that the operator can more easily place the first base plate 110A in the correct position.

9 is a cross-sectional view illustrating a third connection structure and a sealing portion in which the base plate 110 is combined with the bottom area 130 according to various embodiments of the present disclosure.

Referring to FIGS. 2C , 5 and 9 , the clean room structure 100 may further include a fourth sealing part R. The fourth sealing part R may be disposed between the 2-1 auxiliary part 161 and the third main part 143 of the main bracket 140. As shown, the fourth sealing part R may be disposed to be inserted into the groove formed in the 2-1 auxiliary part 161, but is not limited thereto.

The fourth sealing part R may include a rubber member. The fourth sealing part R may seal a gap formed between the third main part 143 and the 2-1 auxiliary part 161 . Accordingly, when the first base plate 110A is installed on the floor area 130, the third sealing part 183 and the fourth sealing part R form a double foreign substance blocking structure, so that the first It is possible to fundamentally block external foreign substances from entering the inside of the clean room structure 100 through the space between the base plate 110A and the floor area 130 .

2D is a cross-sectional view showing the third auxiliary bracket 170 of the clean room structure 100 with improved airtightness according to various embodiments of the present invention. 3 is a cross-sectional view illustrating a first connection structure in which a base plate 110 and another base plate 110 are coupled in a straight line according to various embodiments of the present disclosure.

Referring to Figures 1, 2d and 3, the third auxiliary bracket 170, when the first base plate (110A) and the second base plate (110B) are combined, connected or installed in a straight line, the first The base plate 110A and the second base plate 110B may be coupled, connected, or fixed to each other.

The third auxiliary bracket 170 may be made of aluminum, but is not limited thereto.

The third auxiliary bracket 170 may include a 3-1 auxiliary part 171 having at least one part in close contact with the fifth main part 145 . The 3-1 auxiliary part 171 may have a shorter length than the 3-2 auxiliary part 172 . The 3-1 auxiliary part 171 may be composed of a pair, and the pair of 3-1 auxiliary parts 171 are respectively the fifth main part 145 of the first main bracket 140A and It may come into close contact with the fifth main part 145 of the second main bracket 140B.

The third auxiliary bracket 170 extends from one end of the third auxiliary part, is disposed perpendicularly to the 3-1 auxiliary part 171, and has at least one part in close contact with the fourth main part 144. -2 Auxiliary part 172 may be included.

The 3-2 auxiliary parts 172 may be configured as a pair, and the pair of 3-2 auxiliary parts 172 connect both ends of the pair of 3-1 auxiliary parts 171, respectively. can Accordingly, the third auxiliary bracket 170 may have a rectangular cross-sectional shape and a hollow shape with an empty inside. The pair of 3-2 auxiliary parts 172 may adhere to the fourth main part 144 of the first main bracket 140A and the second main bracket 140B, respectively.

The thickness (thickness in the left-right direction in FIG. 3) formed by the pair of 3-2 auxiliary parts 172 is the first main bracket 140A and the second main bracket 140B, respectively. 4 It may be greater than the separation distance of the main part 144 (separation distance in the left-right direction in FIG. 3).

Accordingly, the third auxiliary bracket 170 can be inserted into the space 147 of the first main bracket 140A of the first base plate 110A in an interference fitting manner, and the second base plate 110B The third auxiliary bracket 170 may be inserted into the space 147 of the second main bracket 140B in an interference fitting manner.

Accordingly, the operator preferentially couples the third auxiliary bracket 170 to the main bracket 140 of any one base plate 110 by force-fitting, and the main bracket 140 of the other base plate 110 By coupling the third auxiliary bracket 170 with an interference fit, the base plate 110 can be connected without a separate fastening member, so the ease of operation can be secured.

On the other hand, as the third auxiliary bracket 170 is fastened to the first main bracket 140A and the second main bracket 140B in an interference fitting manner, a gap between the first base plate 110A and the second base plate 110B is formed. Inflow of external foreign substances into the internal space of the clean room structure 100 through the space may be fundamentally blocked.

The first base plate 110A and the second base plate 110B coupled, connected, or installed in a straight line through the third auxiliary bracket 170 are substantially flat inner surfaces (facing the indoor space of the clean room structure 100). surface) and a flat outer surface (the surface facing the outer space of the clean room structure 100).

Referring to FIG. 3 , in the clean room structure 100, when the first base plate 110A and the second base plate 110B are coupled in a straight line, the third main part of the first main bracket 140A ( 143) and the third main part 143 of the second main bracket 140B may further include a first sealing part 181 disposed therebetween.

The first sealing part 181 may include at least one of a rubber member or a caulking member, but is not limited thereto and may include various means for sealing a gap or gap. The first sealing part 181 is in close contact with the third main part 143 of the first main bracket 140A and the third main part 143 of the second main bracket 140B, so that the first main bracket 140A It is possible to seal the gap formed between the third main part 143 of the ) and the third main part 143 of the second main bracket 140B. Accordingly, foreign substances are removed from the clean room structure 100 through the gap formed between the third main portion 143 of the first main bracket 140A and the third main portion 143 of the second main bracket 140B. It is possible to fundamentally block the inflow into the internal space of the

Referring to FIG. 3 , the clean room structure 100, when the first base plate 110A and the second base plate 110B are coupled in a straight line, the second base portion of the first base plate 110A ( 172) and the second base part 172 of the second base plate 110B, and the second sealing part 182 disposed farther from the third auxiliary bracket 170 than the first sealing part 181 can include At least a portion of the second sealing portion 182 may be disposed between the third main portion 143 of the first main bracket 140A and the third main portion 143 of the second main bracket 140B.

The second sealing part 182 may include at least one of a rubber member or a caulking member, but is not limited thereto and may include various means for sealing a gap or gap. The second sealing part 182 is in close contact with the second base part 172 of the first base plate 110A and the second base part 172 of the second base plate 110B, so that the first base plate 110A A gap formed between the second base portion 172 of the ) and the second base portion 172 of the second base plate 110B may be sealed. Accordingly, foreign matter passes between the second base portion 172 of the first base plate 110A and the second base portion 172 of the second base plate 110B to the inner space of the clean room structure 100. It is possible to fundamentally block the inflow into the Accordingly, the first sealing part 181 and the second sealing part 182 can fundamentally block external foreign substances from entering the clean room structure 100 .

7 is a cross-sectional view illustrating a first connection structure and an expansion part S in which a base plate 110 and another base plate 110 are coupled in a straight line according to various embodiments of the present disclosure.

Referring to FIGS. 1, 2D, 3, and 7 , the clean room structure 100 may further include an expansion part S.

The expansion part (S) may be disposed in the inner space 173 of the third auxiliary bracket (170). Looking specifically, the expansion part (S) can be formed by foaming molten resin. Specifically, the molten resin may be prepared by melting a thermoplastic elastomer (TPE) and a foaming agent. For example, after the molten resin in which the thermoplastic elastomer and the foam are melted is injected into the inner space of the third auxiliary bracket 170, it can be foamed.

Thermoplastic elastomer (TPE) is a polymer material that can be molded like plastic that becomes flexible at high temperatures and exhibits the properties of elastomer at room temperature. Depending on the material used, thermoplastic elastomer (TPE) can be classified into styrene-based (thermoplastic styrenic block copolymer, SBC), olefin-based (thermoplastic olefinic elastomer, TPO), urethane-based (thermoplastic polyurethane, TPU), amide-based (thermoplastic polyamide, TPAE), and polyester-based materials. (thermoplastic polyester elastomer, TPEE). And the foaming agent may be provided with a chemical foaming agent or a physical foaming agent.

The thermoplastic elastomer and the foaming agent are melted and provided in the molten resin injector, and the molten resin (the thermoplastic elastomer and the foaming agent are melted) may be injected into the inner space of the third auxiliary bracket 170 . After connecting the third auxiliary bracket 170 to a heater (not shown), it can be foamed.

The expansion part S may be formed by foaming the molten resin to increase its volume. For example, the expansion part (S) may be understood as a Styrofoam member. Since the expansion part (S) is foamed in the limited internal space of the third auxiliary bracket 170 and the volume is increased, the third auxiliary bracket 170 is increased to some extent and the size of its cross-sectional area is increased. Using this, after the third auxiliary bracket 170 is force-fitted to the first main bracket 140A and the second main bracket 140B, molten resin is injected into the third auxiliary bracket 170 to heat it. The molten resin may be foamed by heating the third auxiliary bracket 170 through a group, and thus the expansion part (S) may be formed. The expansion part (S) has an increased volume and moves the 3-1 auxiliary part 171 and the 3-2 auxiliary part 172 from the inside of the third auxiliary bracket 170 to the outside of the third auxiliary bracket 170. A pushing pressure is applied in the direction, and accordingly, the pair of 3-2 auxiliary parts 172 press the pair of 4-1 main parts. Accordingly, the first main bracket (140A) and the second main bracket (140B) can be more strongly fixed to the third auxiliary bracket (170).

6 is a cross-sectional view illustrating a fourth connection structure in which a base plate 110 is vertically coupled to another base plate 110 according to various embodiments of the present disclosure.

Referring to FIGS. 1 and 6 , the clean room structure 100 may further include a fourth auxiliary bracket 191 and a fifth auxiliary bracket 195 .

The fourth auxiliary bracket 191 and the fifth auxiliary bracket 195 are connected to the first base plate 110A when the first base plate 110A is coupled in a direction perpendicular to the second base plate 110C. It may be configured to couple 2 base plates 110C.

The fourth auxiliary bracket 191 and the fifth auxiliary bracket 195 may each be made of an aluminum material, but are not limited thereto.

The fourth auxiliary bracket 191 may include a 4-1 auxiliary part 192 having at least one part in close contact with the second base part 172 . The 4-1 auxiliary part 192 may be provided as a pair, and the pair of 4-1 auxiliary part 192 may extend in directions perpendicular to each other while being connected.

Any one of the pair of 4-1 auxiliary parts 192 may be configured to contact and couple to the second base part 172 of the first main bracket 140A in a face-to-face manner, and a pair of fourth The other one of the -1 auxiliary parts 192 may be configured to contact and couple to the second base part 172 of the second main bracket 140C face to face.

The fourth auxiliary bracket 191 may include a 4-2 auxiliary part 193 protruding from at least one part of the 4-1 auxiliary part 192 . The 4-2 auxiliary parts 193 may be provided in pairs, each provided on the pair of 4-1 auxiliary parts 192 . The 4-2 auxiliary part 193 may be inserted into the 5-1 auxiliary part 196 of the fifth auxiliary bracket 195.

The fifth auxiliary bracket 195 may include a 5-1 auxiliary part 196 formed such that the 4-2 auxiliary part 193 is inserted and fixed. The 5-1 auxiliary part 196 may include a groove in which at least one part is recessed more than the other part, and the 4-2 auxiliary part 193 may be inserted and fixed into the groove. The 5-1 auxiliary part 196 is provided as a pair, and each of the 4-2 auxiliary part 193 of the pair can be inserted and fixed one by one.

The fifth auxiliary bracket 195 may include a 5-2 auxiliary part 197 extending from one end of the 5-1 auxiliary part 196 . The 5-2 auxiliary parts 197 may be provided as a pair extending from one end of each of the pair of 5-1 auxiliary parts 196 . One of the pair of 5-2 auxiliary parts 197 may be disposed to face the first base plate 110A, and the other may be disposed to face the second base plate 110C. In addition, at least one part of the pair of 5-2 auxiliary parts 197 and the pair of 4-1 auxiliary parts 192 may be in close contact with each other.

The fifth auxiliary bracket 195 extends from one end of the 5-2 auxiliary part 197 and includes a 5-3 auxiliary part 198 disposed perpendicular to the 5-2 auxiliary part 197. can The 5-3 auxiliary parts 198 may be provided as a pair extending from one end of the pair of 5-2 auxiliary parts 197, respectively, and a pair of 5-2 auxiliary parts 197 connected to each other. ) can be placed perpendicular to The pair of 5-3 auxiliary parts 198 may be disposed such that ends are connected to each other. Accordingly, one of the pair of 5-3 auxiliary parts 198 may be disposed or connected perpendicularly to the other one.

When coupling the first base plate 110A and the second base plate 110C in a vertical direction, the operator attaches the fourth auxiliary bracket 191 to the first main bracket 140A and the second main bracket 140C. It can be fixed through bolt (B). Specifically, after positioning the first base plate 110A and the second base plate 110C to have a somewhat vertical arrangement state, the first base plate 110A and the second base plate 110A and the second base plate 110A are attached to the fourth auxiliary bracket 191. The base plate 110C may be coupled. At this time, the fourth auxiliary bracket 191, since the pair of 4-1 auxiliary parts 192 are disposed perpendicular to each other, the first coupled to the pair of 4-1 auxiliary parts 192 The second base portion 172 of the base plate 110A and the second base portion 172 of the second base plate 110C may be disposed perpendicular to each other. Therefore, the first base plate 110A and the second base plate 110C may be disposed in a vertical direction, and at this time, the pair of 4-1 auxiliary parts 192 are removed through bolts B, respectively. It can be fixed to the fifth main part 145 of the first main bracket 140A and the fifth main part 145 of the second main bracket 140C.

In addition, since the pair of 4-2 auxiliary parts 193 are inserted into and fixed to the pair of 5-1 auxiliary parts 196, the fourth auxiliary bracket 191 is attached to the fifth auxiliary bracket 195. can be supported by

In addition, since the fourth auxiliary bracket 191 adheres to the first base plate 110A and the second base plate 110C, the fourth auxiliary bracket 191 and the first base plate 110A or the fourth auxiliary bracket It is possible to fundamentally block external foreign substances from entering the inside of the clean room structure 100 through the gap between the 191 and the second base plate 110C.

In addition, the fourth auxiliary bracket 191 is fixed to the fifth auxiliary bracket 195, and the path of the gap where the 4-2 auxiliary part 193 and the 5-1 auxiliary part 196 are coupled is continuous. Since it has a structure that is bent multiple times, it is possible to prevent foreign substances from entering the inside of the clean room structure 100 through the path of the gap.

Meanwhile, although not shown, the first base part 111 of the first base plate 110A (right first base part 111 of the first base plate 110A in FIG. 6) and the second base plate 110A are disposed perpendicular to each other. 2 The corner formed by the first base portion 111 of the base plate 110C (the upper first base portion 111 of the second base plate 110C in FIG. 6) has a sealing portion (not shown) can be placed. The sealing part (not shown) may be a caulking member using a rivet, but is not limited thereto and may be a rubber member. Accordingly, a sealing unit (not shown) may fundamentally block external foreign matter from entering the inner space of the clean room structure 100 through the gap or gap formed at the corner.

10 is a cross-sectional view illustrating a fourth connection structure and a guide unit in which a base plate 110 is vertically coupled to another base plate 110 according to various embodiments of the present disclosure.

Referring to FIG. 10 , the fourth auxiliary bracket 191 may further include a 4-3 auxiliary part 194 . The 4-3 auxiliary portion 194 protrudes from at least one portion of the 4-1 auxiliary portion 192 and may protrude in the opposite direction to the 4-2 auxiliary portion 193 . The 4-3 auxiliary parts 194 may be provided in pairs, each provided on the pair of 4-1 auxiliary parts 192 . At least one of the pair of 4-3 auxiliary parts 194 is in close contact with any one of the fourth main parts 144 of the first main bracket 140A, and the other one of the second main bracket 140C. It can be in close contact with any one of the 4 main parts 144 . Accordingly, when the operator arranges the arrangement for installation of the first base plate 110A and the second base plate 110C, the first main bracket 140A is attached to the 4-3 auxiliary part 194 functioning as a guide. And by making each of the 4-3 auxiliary parts 194 of the second main bracket 140C come into close contact, it is possible to more easily align the positions for installation of the first base plate 110A and the second base plate 110C. have.

11 is a block diagram showing a clean room system 1000 with improved confidentiality according to various embodiments of the present invention. 12 is a diagram for explaining a process of discharging dust of the clean room structure 100 and the clean room system 1000 according to various embodiments of the present disclosure.

1, 11 and 12, the clean room system 1000 with improved airtightness may include the above-described clean room structure 100 and its components.

The clean room structure 100 or the clean room system 1000 including the clean room structure 100 includes a temperature sensor 1030, a dust sensor 1040, a processor 1010, a memory 1020, and an intake fan 1050. ), a discharge fan 1060, and a communication module.

The temperature sensor 1030 may be provided on one or more of the plurality of base plates 110 of the clean room structure 100 . The temperature sensor 1030 may measure the temperature of the internal space of the clean room structure 100 . Information about the temperature of the internal space of the clean room structure 100 measured by the temperature sensor 1030 may be provided to the processor 1010 .

The dust sensor 1040 may be provided on any one of the plurality of base plates 110 of the clean room structure 100 or may be provided on a plurality of each. The dust sensor 1040 may measure the amount of dust in the inner space of the clean room structure 100 . Information about the amount of dust in the inner space of the clean room structure 100 measured by the dust sensor 1040 may be provided to the processor 1010 .

The inlet fan 1050 may be provided on the first base plate 110A or the second base plate 110B. The discharge fan 1060 may be provided on the first base plate 110A or the second base plate 110B and spaced apart from the inflow fan 1050 .

Hereinafter, for convenience of description, an inlet fan 1050 is provided on one of the pair of first base plates 110A and 110D spaced apart from each other and the other one 110A is provided with a discharge fan ( 1060) will be described as an example.

The inlet fan 1050 includes a first housing 1051 in which a first inlet 1052 and a first outlet 1053 are formed, and a first fan operated by an actuator disposed inside the first housing 1051. 1054, the 1-1 mesh member 1052a disposed in the first inlet 1052, the 1-2 mesh member 1053a disposed in the first discharge unit 1053, and the first discharge unit 1053 ) may include a first door 1055 that opens and closes.

The first housing 1051 may be a tubular housing to which the first inlet 1052 and the first outlet 1053 are connected, and inside the first housing 1051 is operated by an actuator such as a motor. A first fan 1054 may be disposed. The first housing 1051 may be disposed through at least one portion of the first base plate 110A.

The 1-1st mesh member 1052a may be a mesh member installed in the first inlet 1052 and formed with a plurality of holes having a specified diameter or size. The 1-2 mesh member 1053a may be a mesh member installed in the first discharge unit 1053 and formed with a plurality of holes having a designated diameter or size.

The first door 1055 may open the first discharge part 1053 or close the first discharge part 1053 . Accordingly, when the first discharge unit 1053 is opened by the first door 1055, a passage through which air can be circulated may be formed between the external space and the internal space of the clean room structure 100, When the first discharge part 1053 is closed by the first door 1055, the passage through which the liquid can be circulated may be closed.

The discharge fan 1060 includes a second housing 1061 in which a second inlet 1062 and a second discharge unit 1063 are formed, and a second fan operated by an actuator disposed inside the second housing 1061. 1064, the 2-1 mesh member 1062a disposed in the second inlet 1062, the 2-2 mesh member 1063a disposed in the second outlet 1063, and the second inlet 1062 ) may include a second door 1065 that opens and closes.

The second housing 1061 may be a tubular housing to which the second inlet 1062 and the second outlet 1063 are connected, and inside the second housing 1061 is operated by an actuator such as a motor. A second fan 1064 may be disposed. The second housing 1061 may be disposed through at least one portion of the second base plate 110B.

The 2-1st mesh member 1062a may be a mesh member installed in the second inlet 1062 and formed with a plurality of holes having a specified diameter or size. The 2-2 mesh member 1063a may be a mesh member installed in the second discharge unit 1063 and formed with a plurality of holes having a specified diameter or size.

The second door 1065 may open the second inlet 1062 or close the second inlet 1062 . Accordingly, when the second inlet 1062 is opened by the second door 1065, a passage through which air can be circulated may be formed between the external space and the internal space of the clean room structure 100, When the second inlet 1062 is closed by the second door 1065, the passage through which the flow can be circulated may be closed.

The intake fan 1050 may be disposed higher than the discharge fan 1060 with respect to the floor area 130 . Accordingly, when the first fan 1054 and the second fan 1064 are operated in one direction, the air flow W in the inner space of the clean room structure 100 may be formed to face downward from the top. have. Meanwhile, when the first fan 1054 and the second fan 1064 are rotated in the other direction opposite to the one direction, the air flow in the internal space of the clean room structure 100 is directed from the bottom to the top. can form.

The processor 1010 receives temperature information about the internal temperature of the clean room structure 100 detected by the temperature sensor 1030 and the amount of dust inside the clean room structure 100 detected by the dust sensor 1040. It may be configured to receive information about and control the operation of the inlet fan 1050 and the discharge fan 1060.

For example, the processor 1010, when the temperature information, which is the internal temperature of the clean room structure 100, is higher than a preset temperature stored in the memory 1020 or the internal dust amount corresponding to the internal dust amount of the clean room structure 100 When the information on the amount of dust is greater than the preset amount stored in the memory 1020, at least one of the cases, the first door 1055 and the second door 1065 discharge the first discharge unit 1053 and the second door 1065, respectively. The first door 1055 and the second door 1065 are opened to open the inlet 1062, and the first fan 1054 and the second fan 1064 are rotated in one direction or the other to clean the room. An air flow (W) may be formed in the internal space of the structure 100 .

The processor 1010, after the air flow (W) is formed, when the amount of internal dust or the internal temperature is lower than preset values, the first door 1055 and the second door 1065, respectively, the first discharge unit ( 1053) and the second inlet 1062 may be closed to close the first door 1055 and the second door 1065, and the operation of the first fan 1054 and the second fan 1064 may be stopped. have.

Accordingly, the temperature of the interior space or the amount of dust can be properly adjusted by circulating the outside air of the clean room structure 100 into the interior space of the clean room structure 100 .

Meanwhile, the 1-1 mesh member 1052a, the 1-2 mesh member 1053a, the 2-1 mesh member 1062a, and the 2-2 mesh member 1063a have pores according to the designer's design. By properly designing the size, the size of the dust circulating into the internal space of the clean room structure 100 can be limited. In addition, it is not limited to this, and the Gore-Tex member is additionally installed on the mesh member on the side where air flows into the inner space of the clean room structure 100, thereby fundamentally blocking dust from flowing into the inner space of the clean room structure 100 In addition, the mesh member on the side through which the air is discharged may be designed to allow dust to be discharged by securing the diameter of the mesh members to some extent.

Although not shown, the clean room structure 100 and the clean room system 1000 including the clean room structure 100 further include a communication module (not shown), and accordingly, the amount of dust as described above is large. or when the internal temperature is high, the processor 1010 may transmit corresponding information to a user device (eg, computer or smart phone) of a user or operator through a communication module. Accordingly, the user or operator may directly control the operation of the intake fan 1050 and the discharge fan 1060 through the user device.

As described above, although the present invention has been described by the limited embodiments and drawings, the present invention is not limited thereto, and the technical spirit of the present invention and the following by those skilled in the art to which the present invention belongs Of course, various modifications and variations are possible within the scope of equivalents of the claims to be described.

100: clean room structure
110: base plate
120: ceiling area
130: floor area
140: main bracket
150: first auxiliary bracket
160: second auxiliary bracket
170: third auxiliary bracket
191: fourth auxiliary bracket
195: fifth auxiliary bracket
1000: clean room system

Claims (10)

In the clean room structure with improved airtightness,
at least one first base plate forming at least one part of a side surface of the clean room structure and having a rectangular plate shape;
at least one second base plate formed on a side of the clean room structure different from the at least one portion and having a rectangular plate shape;
a first main bracket disposed on each edge of the first base plate;
a second main bracket disposed on each edge of the second base plate;
a first auxiliary bracket coupling the first base plate and the ceiling area of the clean room structure;
a second auxiliary bracket coupling the first base plate and the bottom area of the clean room structure; and
A third auxiliary bracket coupling the first base plate and the second base plate when the first base plate and the second base plate are coupled in a straight line;
The first main bracket and the second main bracket, respectively
a first main part disposed inside the first base plate or the second base plate;
a second main portion extending from one end of the first main portion and disposed perpendicularly to the first main portion;
a third main portion extending from one end of the second main portion, disposed perpendicularly to the second main portion, and disposed parallel to the first main portion;
a fourth main portion extending from one end of the third main portion toward the first main portion, perpendicular to the third main portion, and parallel to the second main portion;
A fifth main portion extending from one end of the fourth main portion, disposed perpendicularly to the fourth main portion, disposed in parallel with the first main portion and the third main portion, and spaced apart from the first main portion. part; and
A sixth main portion extending from at least one portion of the fifth main portion and connected to at least one portion of the first main portion; and
The first base plate and the second base plate, respectively
a pair of first base portions spaced apart from each other;
second base parts extending toward each other from ends of the pair of first base parts, at least one part of which is in close contact with the third main part; and
and a paper honeycomb disposed between the pair of first base parts.
According to claim 1,
The first auxiliary bracket,
a 1-1 auxiliary part having at least one part fixed to the ceiling region through bolts; and
A clean room structure comprising: a first-second auxiliary part extending from one end of the first auxiliary part and being in close contact with an outer side of the first base part.
According to claim 1,
The second auxiliary bracket,
a 2-1 auxiliary part having at least one part fixed to the floor area;
a 2-2 auxiliary portion extending to protrude from at least one portion of the 2-1 auxiliary portion; and
A 2-3 portion extending from one end of the 2-2 auxiliary portion, disposed perpendicular to the 2-2 auxiliary portion, and disposed in parallel with the 2-2 auxiliary portion; clean room structure including a .
According to claim 1,
The third auxiliary bracket,
a 3-1 auxiliary part having at least one part in close contact with the fifth main part; and
A 3-2 auxiliary part extending from one end of the third auxiliary part, disposed perpendicular to the 3-1 auxiliary part, and having at least one part in close contact with the fourth main part; Clean room structure comprising a.
According to claim 1,
Further comprising a fourth auxiliary bracket and a fifth auxiliary bracket coupling the first base plate and the second base plate when the first base plate is vertically coupled to the second base plate,
The fourth auxiliary bracket,
a 4-1 auxiliary part having at least one part in close contact with the second base part; and
And a 4-2 auxiliary part protruding into at least one part of the 4-1 auxiliary part,
The fifth auxiliary bracket,
a 5-1 auxiliary part formed to insert and fix the 4-2 auxiliary part;
a 5-2 auxiliary portion extending from one end of the 5-1 auxiliary portion; and
A 5-3 auxiliary part extending from one end of the 5-2 auxiliary part and disposed perpendicularly to the 5-2 auxiliary part.
According to claim 1,
A first sealing part disposed between the third main part of the first main bracket and the third main part of the second main bracket when the first base plate and the second base plate are coupled in a straight line ; and
When the first base plate and the second base plate are coupled in a straight line, disposed between the second base portion of the first base plate and the second base portion of the second base plate, the first base plate A clean room structure including a second sealing part disposed farther from the third auxiliary bracket than the sealing part.
According to claim 1,
The clean room structure further includes a third sealing part disposed between the first base plate and the floor area and disposed adjacent to the second auxiliary bracket.
In the clean room structure with improved airtightness,
at least one first base plate forming at least one part of a side surface of the clean room structure and having a rectangular plate shape;
at least one second base plate formed on a side of the clean room structure different from the at least one portion and having a rectangular plate shape;
a first main bracket disposed on each edge of the first base plate;
a second main bracket disposed on each edge of the second base plate;
a first auxiliary bracket coupling the first base plate and the ceiling area of the clean room structure;
a second auxiliary bracket coupling the first base plate and the bottom area of the clean room structure; and
a third auxiliary bracket coupling the first base plate and the second base plate when the first base plate and the second base plate are coupled in a straight line;
a temperature sensor configured to sense an internal temperature of the clean room structure; and
and a dust sensor configured to detect an amount of dust inside the clean room structure.
According to claim 8,
A processor configured to receive temperature information about the internal temperature of the clean room structure sensed by the temperature sensor, and receive information about the amount of dust inside the clean room structure sensed by the dust sensor; rescue.
In the clean room system including a clean room structure with improved confidentiality,
at least one first base plate forming at least one part of a side surface of the clean room structure and having a rectangular plate shape;
at least one second base plate formed on a side of the clean room structure different from the at least one portion and having a rectangular plate shape;
a first main bracket disposed on each edge of the first base plate;
a second main bracket disposed on each edge of the second base plate;
a first auxiliary bracket coupling the first base plate and the ceiling area of the clean room structure;
a second auxiliary bracket coupling the first base plate and the bottom area of the clean room structure; and
a third auxiliary bracket coupling the first base plate and the second base plate when the first base plate and the second base plate are coupled in a straight line;
a temperature sensor configured to sense an internal temperature of the clean room structure;
a dust sensor configured to detect an amount of dust inside the clean room structure;
an inlet fan provided on the first base plate or the second base plate;
a discharge fan provided on the first base plate or the second base plate and spaced apart from the inlet fan; and
receiving temperature information about the internal temperature of the clean room structure sensed by the temperature sensor, receiving information about the amount of dust inside the clean room structure sensed by the dust sensor, and a processor configured to control the operation;
the processor,
The clean room system configured to operate the intake fan and the discharge fan when the internal temperature of the clean room structure is higher than a preset temperature or when the amount of dust inside the clean room structure is higher than the preset amount.

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