KR20190078467A - Building frame for combination type having insulation function and construction method thereof - Google Patents

Abstract

The present invention relates to a building frame structure having fire prevention and heat insulation functions, wherein a first finishing support unit and a second finishing support unit having a fire protection function are separately provided between doors or glass to perfectly prevent heat transferred to the first finishing support unit from being transferred to the second finishing support unit through a structure unit. Accordingly, fire in a space on fire can be blocked and prevented from being spread to another space, and fire spreading can be prevented. Moreover, the first finishing support unit and the second finishing support unit can prevent a stick of fireproof glass so that the stick is invisible when a finishing material is made of fireproof glass, thereby having a beautiful appearance.

Description

FIELD OF THE INVENTION [0001] The present invention relates to a structural frame structure having a fire retarding function,

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a building frame structure having a fire retarding function and a construction method thereof, and more particularly, to a building frame structure having a fire retarding function for preventing fire from spreading from a fire space to another space Structure and a construction method thereof.

In the event of a collapse of a building due to a fire, serious damage to property and property damage that can not be compared with direct human and property damage caused by flames and smoke occurs, thereby preventing the collapse of the building. It is an important requirement.

Accordingly, buildings are required to have fireproof performance for the purpose of delaying the rise of the temperature of the structure and securing time for evacuation, lifesaving and fire suppression. Structures used by many people for specific purposes or unspecified buildings, buildings in fire prevention districts, boundary walls of apartment buildings, schools, medical facilities, accommodation, etc., in the building walls, beams, pillars, floors, The partition wall of the facility must have a fireproof performance of 1 to 3 hours. For this purpose, the building uses fire doors, fireproof glass, fire wall, etc. to block and prevent the spread of fire from the fire space to other spaces.

In order to install a fire door or a refractory glass on a fire wall, a door frame for installing a fire door or a window frame for installing a glass is required. Generally, frame such as a door frame or a window frame is injection molded integrally with plastic or aluminum, or a stainless steel plate is used. However, such a conventional frame can not withstand a high temperature, and thus has a problem in that heat can not be blocked or diffusion of fire can not be prevented.

Korean Patent Publication No. 10-2016-0025918

SUMMARY OF THE INVENTION It is an object of the present invention to solve the above-mentioned problems of the prior art and to provide a fire-retardant fire- And to provide a construction frame structure having the fire retarding function and a construction method thereof.

In order to attain the above object, the present invention provides a building frame for enclosing a periphery of a finishing material including a glass or a door, comprising: a structural part formed in a columnar shape along a longitudinal direction of the finishing material;

 A first finishing supporter covering one side of the structural part, the side facing the one side of the finishing material extending to cover one side of the finishing material; And a second finishing support portion covering the other surface of the structural portion, the side portion facing the other side of the finishing material extending to cover the other side of the finishing material.

The one end of the structural part facing each other and the first end supporting part are coupled by the first engagement part and the other end of the structural part facing each other and the second end support part are coupled by the second engagement part. A frame structure for a building having a fire retarding function is provided.

In addition, one side of the structure facing each other and the first finishing supporter are spaced apart from each other, one side of the first finishing supporter is formed with a first concave portion concave in the direction of the structure portion, And the second finishing support portion are spaced apart from each other, one side of the second finishing support portion is formed with a second concave portion concave in the direction of the structure portion, one side of the structure portion facing each other, And the second surface of the structural member facing each other and the second recess are coupled by the second engagement unit.

The present invention also provides a building frame structure having an anti-fire function, characterized in that a heat shield made of a heat shield material is inserted between one surface of the structural part and the first closed support part or between the other surface of the structural part and the second closed support part.

Further, a first heat shielding material and a second heat shielding material of a heat-shielding material are inserted between one surface of the structural part and the first finishing support part and between the other surface of the structural part and the second finishing support part, The first structural guide part is formed on the other surface of the structural part, and the second structural guide part is concavely formed on the other surface of the structural part. The first engagement part penetrating the first finishing support part and the first heat shield is guided by the first structural guide part And the second engaging portion passing through the second finishing support portion and the second heat shielding member is guided by the second structure guide portion, and then the second structure guiding portion is guided by the second structure guiding portion, Wherein the frame structure is constructed so as to be penetrated through the frame structure.

The apparatus may further include a first finishing portion covering an outer side of the first finishing supporting portion located in a direction opposite to the structural portion, and a second finishing portion covering an outer side of the second finishing supporting portion located in a direction opposite to the structure portion The present invention also provides a building frame structure having a fire retarding function.

The building frame structure having the fire retarding function may be provided between the first finishing support portion and the first finishing portion or between the second finishing support portion and the second finishing portion. do.

In the process of welding the first finishing support portion and the first finishing portion to each other, the first soldering portion may be formed between the first finishing support portion and the first finishing portion, Wherein the second soldering part is welded to the second finishing support part while welded to the second finishing support part and welded to the second finishing part, And the second finishing portions are welded to each other while being very welded to each other.

The first closed support portion may include a first cover plate abutting on the structural portion and a first cover side portion protruding in a direction opposite to the structural portion on both sides of the first cover plate, A first auxiliary plate positioned so as to face the first cover plate in a spaced-apart relationship with the first cover plate; and a first auxiliary side portion bent at both sides of the first auxiliary plate so as to cover the first cover side portion, And a second cover side portion protruding in a direction opposite to the structure portion on both sides of the second cover plate, wherein the second cover portion is spaced apart from the second cover plate And a second auxiliary side portion bent to cover the second cover side portion on both sides of the second subsidiary plate. It provides Im structure.

A first auxiliary locking portion is protruded from the first cover side portion, a first auxiliary locking portion is formed on the first auxiliary side portion so as to be engaged with the first cover locking portion, and a second auxiliary locking portion is formed on the second cover side portion, And a second auxiliary latching portion is formed on the second auxiliary side portion so as to be engaged with the second cover latching portion.

The first cover latching portion and the second cover latching portion are inclinedly protruded so as to be closer to the first auxiliary latching portion and the second auxiliary latching portion toward the structural portion, The first auxiliary latching portion is recessed in a position facing the first auxiliary latching portion so that the first auxiliary latching portion is engaged, and the second auxiliary latching portion is formed at a position facing the second auxiliary latching portion of the second cover latching portion, And a second engaging insertion portion is recessed so as to insert the additional engaging portion.

The auxiliary finishing support portion may further include an auxiliary finishing support portion provided in a direction of an outer side between one surface and the other surface of the structural portion when the finishing material is positioned on the inner side portion between the one surface and the other surface of the structural portion, A second auxiliary finishing support portion formed to face one side of the first finishing supporting portion positioned in a direction opposite to the first finishing supporting portion, a second-1 finishing portion provided on the outside portion of the structure portion, And a second finishing unit (2-2) provided for viewing the building frame.

And a second gasket is interposed between the second-1 finishing portion and the second finishing support portion, characterized in that a first gasket is interposed between the first finishing supporter and the first auxiliary finishing supporter, and a second gasket is interposed between the second- The present invention provides a frame structure for a building having a function.

Further, a third frame structure is interposed between the second-second finishing portion and the second finishing portion.

The first finishing supporting portion may include a first supporting concave portion formed to have a larger width than the structural portion and covering one surface of the structural portion, the first supporting concave portion being recessed in a direction of one surface of the structural portion, And a first supporting elastic portion bent to be close to the finishing material at both sides of the supporting concave portion and having elasticity, wherein one surface of the mutually facing structural portion and the first supporting concave portion are joined by the first engaging portion, The supporting portion includes a second supporting recess formed to have a greater width than the structural portion and covering the other surface of the structural portion, the recess being concave in the direction of the other surface of the structural portion, and a second supporting recess formed on both sides of the second supporting recess, And a second supporting elastic portion bent to be close to the first supporting elastic portion and having elasticity, A first finishing cover which is formed to cover the first supporting recess and the first supporting elastic portion, and a second finishing cover which is formed to cover the first supporting recess and the first supporting elastic portion, And a first auxiliary engaging portion bent at an end of the first supporting elastic portion in the direction of the end of the first supporting elastic portion and engaging with the first supporting elastic portion, A second finishing cover formed to cover the elastic portion and a second auxiliary engaging portion bent at an end portion of the second finishing cover in the direction of the end portion of the second supporting elastic portion and engaged with the second supporting elastic portion, Wherein when the first closing portion and the second closing portion are respectively fitted to the first closing support portion and the second closing support portion, the first auxiliary locking portion and the second auxiliary locking portion engage with the first The first support elastic part and the second support elastic part are elastically deformed inward while being slid along the geosynthetic part and the second support elastic part and then engaged with the end parts of the first support elastic part and the second support elastic part, The present invention provides a frame structure for a building having an anti-fire function.

The first finishing supporting part may include a first supporting plate part formed to have a larger width than the one surface of the structural part and positioned to cover one surface of the structural part and a second supporting plate part protruding from opposite sides of the first supporting plate part in a direction opposite to the structural part A second support plate part formed to cover the other surface of the structural part and having a width larger than that of the other surface of the structural part, and a second support plate part disposed on both sides of the second support plate part, And a second support protrusion elastic portion protruding in a direction opposite to the structural portion of the first support plate portion, wherein the first finish portion includes: a first finish plate portion positioned to face the first support plate portion; And a first finishing bend projecting to cover the support protruding elastic portion, and the second finishing portion includes a second finishing bend projecting toward the second supporting plate portion, And a second finishing bend protruding from both sides of the second finishing flange to cover the second supporting protrusion resilient portion, wherein the first finishing portion and the second finishing portion are formed by the first finishing supporting portion and the second finishing supporting portion, The first and second closing bends are slid along the first and second support protrusions and the first support protrusion elastic portion and the second support protrusion elastic portion, Wherein the second support protrusion resilient part is resiliently deformed inward and then engaged with an end of the first support protrusion resilient part and the second support protrusion resilient part.

The first finishing bent portion is formed so that an end of the first finishing bent portion is engaged with the first supporting plate portion. The second finishing bent portion is protruded and formed so that the end of the second finishing bent portion is caught by the second supporting plate portion. Wherein the first supporting plate portion is formed with a first engaging concave portion so that the first finishing engagement portion is engaged and the second supporting plate portion is formed with a second engaging recess portion so that the second finishing engagement portion is engaged with the first supporting plate portion. A building frame structure having a differential function is provided.

According to another aspect of the present invention, there is provided a building frame coupled to surround a periphery of a finish material including an iron door, the structure frame having a columnar shape along the longitudinal direction of the finish material; A first closing support part covering one surface of the structural part; A second closing support portion covering the other surface of the structural portion; A first finishing portion covering an outer side of the first finishing support portion located in a direction opposite to the structure portion; And a second finishing portion that covers the outside of the second finishing support portion which is positioned in an opposite direction to the structure portion, wherein one side of the finishing material is integrally connected to the first finishing portion, and the other side of the finishing material is the second finishing portion The frame structure being integrally connected to the finishing section.

The auxiliary finishing support portion may include an auxiliary finishing support portion provided in a direction of an outer side between one surface and the other surface of the structural portion when the finishing material is positioned on the inner side portion between the one surface and the other surface of the structural portion, A second auxiliary finishing support portion formed to face one side of the first finishing supporting portion positioned at the second finishing supporting portion, a second-1 finishing portion provided at the outside portion, and a second- A second gasket is interposed between the second-1 closing portion and the second closing support portion, and the second gasket is interposed between the second-1 closing portion and the second closing support portion, And a third gasket is interposed between the second-second closing portion and the second-second closing portion.

According to another aspect of the present invention, there is provided a display device comprising: a first frame including a first structure portion and a first finishing support portion, the first finishing support portion being positioned so as to cover the first structure portion along a rim of the first structure portion except for one side of the first structure portion; A first guide portion positioned at one side of the first structure portion where the first finishing support portion is not positioned; A second frame part including a second frame part positioned so as to cover the second frame part along the rim of the second frame part except for one side of the second frame part, ; A second guide portion positioned at one side of the second structure portion in which the second finishing support portion is not positioned and positioned in a direction opposite to the first guide portion; A third structure part spaced apart from the second frame to be spaced apart from the first frame and a third finishing part positioned so as to cover the third structure part along the rim of the third structure part excluding the one side of the third structure part; A third frame including a support; A third guide portion positioned at one side of the third structure portion where the third finishing support portion is not positioned and positioned in a direction facing the second guide portion; A finishing material positioned between the second finishing support and the third finishing support; And an automatic door positioned between the first guide portion and the second guide portion or moved between the second guide portion and the third guide portion. to provide.

The first structural portion and the first finishing supporting portion are opposed to each other by the first engaging portion and the second structural portion and the second finishing supporting portion facing each other are engaged by the second engaging portion, Wherein the third structural part and the third finishing supporting part are joined by the third engaging part.

A first heat shielding material of a heat shield material is inserted between the first structural part and the first closed support part, a second thermal shield material of a heat shield material is inserted between the second structural part and the second closed support part, And a third heat shielding material is inserted between the third structural part and the third finishing supporting part.

Further, a plurality of gaskets are provided between the first guide portion and the automatic door, or between the second guide portion and the automatic door, wherein a plurality of gaskets are provided.

The present invention also relates to a first frame having a first structure part and a pair of first finishing support parts covering both sides of the first structure part; A second frame having a second structural part spaced apart from the first structural part and a pair of second closed support parts covering both sides of the second structural part; And a material door which is positioned so that one side is rotated between the pair of the first closing support parts and the other side is rotated so as not to abut or abut between the pair of the second closing supporting parts, Having a first rotating structure part facing the first structure part and a second side facing the first structure part and having a pair of first rotating finishing supporting parts covering both sides between the both sides of the first rotating structure part, Rotating frame; And a pair of second rotary finishing supports for covering both sides between the opposite sides of the second rotary structure part, one side of which is positioned to face the second structural part and the other side of which is located on the other side of the finishing material And a second rotating frame. The frame structure for a building having an anti-fire function is provided.

The side of the first rotating finishing support portion facing the one side of the finishing material extends to cover one side of the finishing material and the side of the second rotating finishing supporting portion opposite the other side of the finishing material covers the other side of the finishing material. The present invention provides a building frame structure having a fire retarding function.

The first frame may further include a first finishing portion that covers the outside of the first finishing support portion that is positioned in an opposite direction to the first structure portion, Wherein the first rotating frame includes a first rotating frame and a second rotating frame, the second rotating frame including a first rotating frame and a second rotating frame, Wherein the second rotating frame further includes a second rotating finishing portion which covers the outside of the second rotating finishing supporting portion which is located in a direction opposite to the second rotating structure portion, A first round portion of a concave round shape is formed at a position facing the material door of the first finishing portion, and a position of the pair of first round finishing portions facing the first round portion And a second round portion is formed in a convex shape so as to rotate along the first round portion.

A first heat shielding material of a heat shield material is inserted between the first structural part and the first closed support part, a second thermal shield material of a heat shield material is inserted between the second structural part and the second closed support part, A first door heat shield member of a heat-shielding material is inserted between the first rotation structure and the first rotation support member, and a second door heat shield member of a heat-shielding material is inserted between the second rotation structure and the second rotation support member The present invention provides a building frame structure having a fire retarding function.

The first structural portion and the first finishing supporting portion are opposed to each other by the first engaging portion and the second structural portion and the second finishing supporting portion facing each other are engaged by the second engaging portion, Wherein the first rotating structure and the first rotating finishing support are coupled by the first door coupling portion and the second rotating structure and the second rotating finishing supporting portion opposed to each other are coupled by the second door coupling portion The present invention provides a building frame structure having a fire retarding function.

In addition, the first structural support portion and the first finish support portion facing each other are positioned to be spaced apart from each other, wherein the first closed support portion is formed with a first concave portion concave in the direction of the first structural portion, And the second finishing support portion are spaced apart from each other, the second finishing support portion is formed with a second concave portion concave in the direction of the second structure portion, and the first rotation structure portion and the first rotation finishing support portion, Wherein the first rotation support portion is formed with a first door concave portion concave in the direction of the first rotation structure portion and the second rotation structure portion and the second rotation finishing support portion opposed to each other are spaced apart from each other Wherein the second rotary finishing support portion is formed with a second door concave portion concave in the direction of the second rotary structure portion, Wherein the first structure portion and the first recess portion are coupled by the first engagement portion and the second structure portion and the second recess portion facing each other are coupled by the second engagement portion, And the first door concave portion is coupled by the first door coupling portion and the second rotation structure portion and the second door concave portion facing each other are coupled by the second door coupling portion. A frame structure for a building is provided.

The first rotary finishing portion, which covers an outer side of the first rotary finishing supporting portion, which is located in a direction opposite to the first rotation structuring portion, and the second rotary finishing supporting portion, which is located opposite to the second rotating structure portion, And a second rotating finishing portion for covering the first rotating finishing portion.

The first rotating finishing support portion includes a first rotating finishing supporting plate contacting the first rotating structure portion and a first rotating finishing supporting portion projecting on opposite sides of the first rotating finishing supporting plate in a direction opposite to the first rotating structure portion, Wherein the first rotating finishing portion includes a first rotating finishing plate positioned to face the first rotating finishing supporting plate in a spaced apart relationship with the first rotating finishing supporting portion, The second rotary finishing support portion includes a second rotary finishing support plate abutting on the second rotary structure portion and a second rotary finishing support plate on both sides of the second rotary finishing support plate, And a second rotary finishing support portion protruding in an opposite direction, the second rotary finishing portion including a second rotary finishing plate positioned to face away from the second cover plate, And a second rotary finishing side portion bent on both sides of the second rotary finishing plate to cover the second rotary finishing supporting side portion.

A first rotation supporting engagement portion is protruded from the first rotation finishing supporting portion, a first rotation supporting engaging portion is formed on the first rotation finishing side portion so as to be engaged with the first rotation finishing supporting engaging portion, And a second rotation supporting engagement portion is protruded from the second rotary finishing supporting portion and a second rotation supporting engagement portion is formed on the second rotation finishing side portion so as to be engaged with the second rotation finishing supporting engaging portion. A frame structure for a building having a fire retarding function is provided.

The first and second rotary finishing support hooks and the second rotary finishing support hooks are inclinedly projected toward the first rotation assisting engaging portion and the second rotation assisting engaging portion toward the first rotation structure portion , A first rotation latching inserting portion is recessed so that the first rotation supporting latching portion is engaged with the first rotation supporting latching portion at a position facing the first rotation assisting latching portion of the first rotation finishing retention latching portion, And a second rotation latching inserting portion is formed to be recessed so that the second rotation supporting latching portion is inserted and retained at a position facing the second rotation auxiliary latching portion.

In addition, a construction method of a building frame structure having a fire retarding function may include the steps of installing the structural part on the ground of a building; Placing a finishing material on one side of the structure; Placing the first closed support on one side of the structural part; The first finishing support being coupled to one surface of the structural part by the first engagement; Placing the second closed support on the other side of the structure; And joining the second finishing support part to the other surface of the structural part by the second engaging part. The construction method of a building frame structure having a fire retarding function is also provided.

In addition, a construction method of a building frame structure having a fire retarding function may include the steps of installing the structural part on the ground of a building; Placing the first closed support on one side of the structural part; The first finishing support being coupled to one surface of the structural part by the first engagement; Placing a finishing material on one side of the structure; Placing the second closed support on the other side of the structure; And joining the second finishing support part to the other surface of the structural part by the second engaging part. The construction method of a building frame structure having a fire retarding function is also provided.

Since the first and second finishing supports are separately provided between the door and the glass, the heat transmitted to the first finishing support can be reliably prevented from being transmitted to the second finishing support through the structure, Therefore, it is possible to prevent and prevent the fire from spreading from the fire space to another space, and to prevent the fire from spreading.

Further, when the finishing material is made of refractory glass, the first and second finishing supporting portions are cut off so that the refractory glass can not be seen. Thus, the first and second finishing supporting portions have an aesthetic appearance.

Further, after the refractory glass is installed on the structural part, both sides of the structural part are covered with the first and second finishing support parts of metal, and the refractory glass provided on the structural part is fixed firmly by the first and second finishing support parts .

In addition, since the first finishing support portion and the second finishing support portion are sequentially connected to one surface and the other surface of the structural portion after the finishing material is positioned on the structural portion, the finishing material is stably installed between the first and second finishing support portions.

Further, the first and second end support portions have the effect of being easily coupled to the end support portion by the first and second engagement portions.

Further, after the refractory glass is installed on the structural part, both sides of the structural part are covered with the first and second finishing support parts of metal, and the refractory glass provided on the structural part is fixed firmly by the first and second finishing support parts . Further, when the first and second coupling portions penetrating the first and second closing support portions are pierced by the first and second structure guide portions, the operator can adjust the positions of the first and second structure guide portions by the concave shape of the first and second structure guide portions The first and second coupling portions are easily guided to the first and second structure guide portions after passing through the first and second heat shields without separately making holes in the first and second heat shields, There is an effect that the first and second structure guide portions are easily penetrated. Further, there is no need to make a hole in the first and second train members, so that air is accelerated.

In addition, since the first and second finishing support portions are provided on the first and second finishing support portions, the first and second finishing support portions have an effect of further increasing the fire efficiency by the first and second finishing portions.

Since the first and second finishing portions are configured to be elastically deformed inward so that the widths of the first and second finishing supporting portions are slightly reduced immediately before the first and second finishing portions are fitted to the first and second finishing supporting portions, There is an effect that it is easily fitted to the closing support portion.

In addition, since the first and second end support portions and the first and second end portions are welded by the first and second soldering portions in a state where the first and second end supporting portions are spaced apart from each other by a predetermined distance, The area is small and the amount of heat transmitted from the first and second end portions to the first and second end support portions is minimized.

Since the first and second cover side portions are provided with the first and second engaging insertion portions, when the first and second finish portions are engaged with the first and second finish support portions, the first and second auxiliary engagement portions of the first and second finish portions 1 and 2 cover engaging portions, and then engaged with the first and second engaging insertion portions.

In addition, since the first and second finishing supporting portions are provided with the first and second concave portions, the first and second finishing supporting portions can be easily bolted to the structural portion.

FIG. 1 is a plan view schematically showing a building frame structure having an anti-fouling function according to a first preferred embodiment of the present invention.
2 is a plan view schematically illustrating another example of a frame structure for a building having an anti-fouling function according to a first preferred embodiment of the present invention.
3 is a plan view schematically illustrating still another example of a building frame structure having an anti-fouling function according to a first preferred embodiment of the present invention.
4 is a plan view schematically showing another example of a building frame structure having an anti-fouling function according to a first preferred embodiment of the present invention.
FIG. 5 is a plan view schematically showing a building frame structure having an anti-fouling function according to a second preferred embodiment of the present invention.
FIG. 6 is a plan view schematically showing another example of a building frame structure having an arsonistic fire function according to a second preferred embodiment of the present invention.
FIG. 7 is a plan view schematically illustrating another exemplary structure of a building frame having an anti-fouling function according to a second preferred embodiment of the present invention.
FIG. 8 is a plan view schematically illustrating still another example of a building frame structure having an anti-fouling function according to a second preferred embodiment of the present invention.
FIG. 9 is a plan view schematically showing a building frame structure having an anti-fouling function according to a third preferred embodiment of the present invention.
10 is a plan view schematically showing another example of a building frame structure having an anti-fouling function according to a third preferred embodiment of the present invention.
FIG. 11 is a plan view schematically showing another example of a building frame structure having an fire retarding function according to a third preferred embodiment of the present invention.
FIG. 12 is a plan view schematically illustrating another example of a building frame structure having an anti-fouling function according to a third preferred embodiment of the present invention.
FIG. 13 is a plan view schematically showing a construction frame structure having an anti-fouling function according to a fourth preferred embodiment of the present invention.
FIG. 14 is a plan view schematically showing a building frame structure having an anti-fouling function according to a fourth preferred embodiment of the present invention.
FIG. 15 is a plan view schematically showing another example of a building frame structure having an fire retarding function according to a fourth preferred embodiment of the present invention.
16 is a plan view schematically showing still another example of a building frame structure having an fire retarding function according to a fourth preferred embodiment of the present invention.
17 is a plan view schematically showing a state in which an automatic door of a building frame structure having an anti-fire function is closed according to a fifth preferred embodiment of the present invention.
18 is a plan view schematically showing a state where an automatic door of a building frame structure having an anti-fouling function is opened according to a fifth preferred embodiment of the present invention.
FIG. 19 is a plan view schematically showing another example of a closed state of an automatic door of a building frame structure having an anti-fouling function according to a fifth preferred embodiment of the present invention.
FIG. 20 is a plan view schematically illustrating another example of a state where an automatic door of a building frame structure having an anti-fouling function is opened according to a fifth preferred embodiment of the present invention.
21 is a plan view schematically showing a state in which an automatic door of a building frame structure having an anti-fouling function is closed according to a sixth preferred embodiment of the present invention.
FIG. 22 is a plan view schematically showing a state in which an automatic door of a building frame structure having an anti-fouling function is opened according to a sixth preferred embodiment of the present invention.
23 is a sectional view taken along the line AA 'in FIG.
24 is a sectional view taken along the line BB 'in FIG.
FIG. 25 is a plan view schematically showing another example of a closed state of an automatic door of a building frame structure having an anti-fouling function according to a sixth preferred embodiment of the present invention.
26 is a plan view schematically showing another example of a state where an automatic door is opened in a building frame structure having an anti-fouling function according to a sixth preferred embodiment of the present invention.
Fig. 27 is a sectional view of Fig. 25. Fig.
28 is a cross-sectional view of Fig.
FIG. 29 is a plan view schematically illustrating a state in which a door of a building frame having an anti-fouling function is closed according to a seventh preferred embodiment of the present invention.
FIG. 30 is a plan view schematically illustrating a state in which a door of a building frame structure having a fire-shielding function is moved according to a seventh preferred embodiment of the present invention.
31 is a cross-sectional view schematically showing a state in which a door of a building frame having a fireproofing function is closed according to a seventh preferred embodiment of the present invention.
FIG. 32 is a plan view schematically showing a state in which a door of a building frame having a fireproofing function is closed according to a seventh preferred embodiment of the present invention. FIG.
FIG. 33 is a plan view schematically showing a state in which a door of a building frame structure having an fire retarding function is moved according to a seventh preferred embodiment of the present invention. FIG.
FIG. 34 is a cross-sectional view schematically illustrating a state in which a door of a building frame having an anti-fouling function is closed according to a seventh preferred embodiment of the present invention.
FIG. 35 is a plan view schematically showing a state in which a door of a building frame structure having an anti-fouling function is closed according to an eighth embodiment of the present invention.
FIG. 36 is a plan view schematically showing a state in which a door of a building frame structure having an fire retarding function is moved according to an eighth preferred embodiment of the present invention. FIG.
FIG. 37 is a plan view schematically showing another example of a state in which a door of a building frame structure having an anti-fouling function is closed according to an eighth preferred embodiment of the present invention.
FIG. 38 is a plan view schematically illustrating another example of a state in which a door of a building frame structure having an fire retarding function is moved according to an eighth preferred embodiment of the present invention. FIG.
FIG. 39 is a plan view schematically showing a building frame structure having an anti-fouling function according to a ninth preferred embodiment of the present invention. FIG.
40 to 42 are plan views schematically showing various examples of a building frame structure having an anti-fouling function according to a ninth preferred embodiment of the present invention.
FIG. 43 and FIG. 44 are plan views schematically showing still another various examples of a building frame structure having an anti-fouling function according to a ninth preferred embodiment of the present invention.
FIG. 45 is a plan view schematically showing a construction frame structure having a fire protection function according to a tenth embodiment of the present invention.
46 to 64 are plan views schematically showing various examples of a building frame structure having an anti-fouling function according to a tenth embodiment of the present invention.
FIG. 65 is a plan view schematically illustrating still another example of a building frame structure having an anti-fouling function according to a tenth embodiment of the present invention.
FIG. 66 is a plan view schematically showing still another example of a building frame structure having an anti-fouling function according to a tenth embodiment of the present invention.
FIGS. 67 to 75 are views schematically showing a building frame structure having an anti-fouling function according to an eleventh embodiment of the present invention.
76 to 80 are plan views schematically showing a construction frame structure having an arsonistic fire function according to a twelfth preferred embodiment of the present invention.
FIGS. 81 and 82 are plan views schematically showing a building frame structure having an anti-fouling function according to a twelfth preferred embodiment of the present invention.
FIGS. 83 and 84 are plan views schematically showing another example of a building frame structure having an anti-fouling function according to a twelfth preferred embodiment of the present invention.
FIGS. 85 to 93 are views schematically showing various examples of a building frame structure having an anti-fouling function according to a thirteenth preferred embodiment of the present invention.

BRIEF DESCRIPTION OF THE DRAWINGS The above and other features and advantages of the present invention will become more apparent by describing in detail exemplary embodiments thereof with reference to the attached drawings in which: FIG.

FIG. 1 is a plan view schematically showing a building frame structure having an anti-fouling function according to a first preferred embodiment of the present invention.

Referring to FIG. 1, a building frame structure having an anti-fouling function according to a first preferred embodiment of the present invention includes a door side frame 10, and may further include an auxiliary finishing support portion 20 .

The door side frame 10 is coupled to surround the periphery of the glass or the finish material including the door D. The door side frame 10 includes a structural part 100, a first closing support part 110 and a second closing support part 120. Here, the glass is made of refractory glass, and the door can be composed of a door including a fireproof door or refractory glass. In the first embodiment of the present invention, the finishing material may be composed of a door D including refractory glass. The structural part 100 is formed in a long shape along the longitudinal direction of the finishing material, and is formed to have a larger width than the finishing material. The first finishing support 110 is formed to cover one side of the structure 100. The second finishing support 120 is formed to cover the other side of the structure 100. And a finishing material such as a glass or a door is sandwiched between the first finishing supporter 110 and the second finishing supporter 120.

The structural part 100 is formed in a long shape along the longitudinal direction of the finishing material, and is formed to have a larger width than the finishing material.

The first finishing support 110 covers one side of the structure 100, and the side facing one side of the finishing material extends to cover one side of the finishing material. The first closed support portion 110 includes a first cover plate 112 that contacts the structural portion 100 and a first cover side portion that protrudes in opposite directions of the structural portion 100 on both sides of the first cover plate 112 114).

The second finishing support 120 covers the other side of the structure 100, and the side facing the other side of the finishing material extends to cover the other side of the finishing material. The second closed support part 120 includes a second cover plate 122 which abuts against the structural part 100 and a second cover plate 122 which is opposite to the structural part 100 on both sides of the second cover plate 122 And a second cover side portion 124 protruding from the second cover side portion.

As described above, since the first and second finishing supports 110 and 120 having the fire function are separately provided between the door and the glass, the heat transmitted to the first finishing support 110 passes through the structure 100, It is possible to reliably prevent the fire from being transmitted to the finishing support part 120, thus preventing the fire from spreading from the fire space to the other space, and preventing the fire from spreading.

Further, when the finishing material is made of refractory glass, the first and second finishing supporting portions 110 and 120 are cut off so as not to show the refractory glass.

In addition, after the refractory glass is installed on the metal structural member 100, both sides of the structural member 100 are covered with the first and second metal supporting members 110 and 120, The glass has the effect of being firmly fixed by the first and second closing supports 110 and 120.

One side of the mutually opposing structure 100 and the first finishing supporter 110 are joined by the first engaging portion B1 and the other side of the mutually facing structure 100 and the second finishing supporter 120 And can be coupled by the second coupling portion B2. Here, the first and second engaging portions B1 and B2 may be formed of a steel plate exclusive use nail, bolt, or rivet, but the present invention is not limited thereto. A first heat shielding material 130 is inserted between one surface of the structural part 100 and the first finishing supporting part 110 and a heat shielding material 130 is inserted between the other surface of the structural part 100 and the second finishing supporting part 120. The second heat shield 132 is inserted. The first and second heat shields 130 and 132 are made of a heat-shielding material and are formed in a plate shape, for example, made of glass wool or the like.

The first structural guide part 102 is formed concavely on one surface of the structural part 100. The second structural guide part 104 is concavely formed on the other surface of the structural part 100. The first structural support part 110, The first engagement portion B1 passing through the first structural member 130 and the first structural member 130 is guided by the first structural guide portion 102 and is positioned to pass through the first structural guide portion 102, The second engaging portion B2 penetrating the support portion 120 and the second heat shield 132 is guided by the second structure guide portion 104 and is positioned to pass through the second structure guide portion 104 . When the first and second coupling portions B1 and B2 passing through the first and second closing support portions 110 and 120 are penetrated by the first and second structural guide portions 102 and 104, The positions of the first and second structural guide portions 102 and 104 due to the concave shape of the structural guide portions 102 and 104 can be easily recognized and the first and second heat shields 130 and 132 It is possible to precisely guide the first and second coupling portions B1 and B2 to the first and second structure guide portions 102 and 104 after passing through the first and second heat shields 130 and 132 have. Further, it is not necessary to drill a hole in the first and second heat shields 130 and 132, so that air is accelerated.

The first finishing portion 140 covering the outer side of the first finishing supporting portion 110 positioned in the opposite direction to the structure 100 and the second finishing supporting portion 120 positioned in the opposite direction of the structuring portion 100 And a second finishing unit 150 covering the outer side. The first closing portion 140 includes a first auxiliary plate 142 positioned to face the first cover plate 112 so as to face the first cover plate 112 and a second cover plate 142 covering the first cover side portion 114 on both sides of the first auxiliary plate 142 And the second end portion 150 includes a second support plate 152 positioned to face the second cover plate 122 in a spaced-apart relationship with the second support plate 152, And a second auxiliary side portion 154 that is bent so as to cover the second cover side portion 124 on both sides of the second cover side portion 152.

The first finishing supporting portion 110 and the first finishing portion 140 are spaced apart from each other and the first finishing supporting portion 110 and the first finishing portion 140 are separated from each other by the solder during the process of joining the first finishing supporting portion 110 and the first finishing portion 140. [ A first soldering portion (not shown) formed between the first finishing portion 140 and the first finishing portion 140 is welded and welded to each other between the first finishing supporting portion 110 and the first finishing portion 140, The second finishing support part 120 and the second finishing part 150 are spaced apart from each other and the second finishing supporting part 120 and the second finishing part 150 are welded to each other, A second soldering portion (not shown) formed between the finishing portions 150 may be welded to each other between the second finishing supporting portion 120 and the second finishing portion 150 very much. The first and second closure supporting parts 110 and 120 and the first and second closure parts 140 and 150 are separated from each other by first and second soldering parts (not shown) or adhesives (not shown) The contact area between the first and second closure supporting parts 110 and 120 and the first and second closure parts 140 and 150 is small so that the first and second closure parts 140 and 150 have first and second ends The amount of heat transmitted to the support portions 110 and 120 is minimized. The first and second soldering portions may have a plurality of through holes to minimize contact areas between the first and second finish supporting portions 110 and 120 and the first and second end portions 140 and 150.

The auxiliary finishing supporting portion 20 is provided in the outer side direction between the one surface and the other surface of the structural portion 100 when the finishing material is positioned on the inner side portion between the one surface and the other surface of the structural portion 100. [ The auxiliary finishing support 20 may include a first auxiliary finishing support 201, a 2-1 finishing portion 202, and a 2-2 finishing portion 203. The first auxiliary finishing support 201 is formed to face one side of the first finishing support 110 positioned in the opposite direction of the inner side of the structure 100. The 2-1 closure 202 is provided on the outer side of the structure 100. The second-second finishing portion 203 includes a second-second finishing portion 203 provided to face the second-second finishing portion 202. When the auxiliary frame 11 is positioned on one side of the door side frame 10, a first auxiliary finishing supporting portion 201, a second-1 finishing portion 201, The portion 202 and the second-second finishing portion 203 are located. Here, the door-side frame 10 and the auxiliary frame 11 which are adjacent to each other may be the same or similar to each other only in size but different in basic structure. The first gasket G1 is interposed between the first closing support portion 110 and the second closing portion 201 and between the second closing portion 202 and the second closing supporting portion 120, The second gasket G2 is interposed and the third gasket G3 is interposed between the second-first closing portion 202 and the second-second closing portion 203. [ The first, second and third gaskets G1, G2 and G3 serve as a packing for preventing gas or air from leaking out. And the reference numerals 204, 205, and 206 are all the deadlines. When the auxiliary finishing supporting portion 20 is positioned on one side of the first auxiliary frame 11, the refractory glass W is provided on the other side of the first auxiliary frame 11.

 Meanwhile, a method of constructing a building frame structure having a fire-fighting and heating function according to a first preferred embodiment of the present invention will be described. First, the structure 100 is installed on the ground of a building. Thereafter, a finishing material containing glass or a door D is placed on one side of the structure 100. Thereafter, the first finishing support 110 is positioned on one side of the structure 100. The first finishing support 110 is then coupled to one side of the structure 100 by the first engaging portion B1. Then, the second closed support part 120 is positioned on the other side of the structural part 100. Then, the second closed support part 120 is coupled to the other surface of the structural part 100 by the second engagement part B2. In addition, the first and second finishing supports 110 and 120 may be further equipped with first and second heat shields 130 and 132 and first and second finishing portions 140 and 150.

According to another embodiment of the construction method of the building frame structure having the fire retardant heating function according to the first preferred embodiment of the present invention, the structural part 100 is installed on the ground of the building. Thereafter, the first finishing support 110 is positioned on one side of the structure 100. The first finishing support 110 is then coupled to one side of the structure 100 by the first engaging portion B1. Thereafter, a finishing material containing glass or a door D is placed on one side of the structure 100. Then, the second closed support part 120 is positioned on the other side of the structural part 100. Then, the second closed support part 120 is coupled to the other surface of the structural part 100 by the second engagement part B2. In addition, the first and second finishing supports 110 and 120 may be further equipped with first and second heat shields 130 and 132 and first and second finishing portions 140 and 150.

As described above, since the first finishing support portion 110 and the second finishing supporting portion 120 are sequentially connected to the other surface of the structure 100 after the finishing material is placed on the structure 100, There is an effect that the support parts 110 and 120 are stably installed.

The first and second end support portions 110 and 120 have an effect of being easily coupled to the end support portion 100 by the first and second engagement portions B1 and B2.

In addition, immediately before the first and second closure parts 140 and 150 are fitted to the first and second closure supporting parts 110 and 120, the operator can use the tool or the device to fix the first and second closure supporting parts 110 and 120, The first and second finishing portions 140 and 150 are easily fitted to the first and second finishing supporting portions 110 and 120 because an external force is applied so that the width of the first and second finishing portions 140 and 150 is elastically deformed inward.

2 is a plan view schematically illustrating another example of a frame structure for a building having an anti-fouling function according to a first preferred embodiment of the present invention.

Referring to FIG. 2, the basic structure is similar to that of FIG. 1 except that the size is different. That is, the door frame 10 includes a structural part 100, first and second closing support parts 110 and 120 covering both sides of the structural part 100, The first finishing portion 140 and the second finishing portion 150, which covers the outside of the second finishing supporting portion 120, are slightly different in size from FIG.

The auxiliary finishing support portion 20 is disposed on one side of the door frame 10 and first, second and third gaskets G1, G2 and G3 are provided therebetween. When the auxiliary frame 11 is positioned on one side of the door side frame 10, the auxiliary finishing supporting portion 20 is positioned between the door side frame 10 and the auxiliary frame 11. [

3 is a plan view schematically illustrating still another example of a building frame structure having an anti-fouling function according to a first preferred embodiment of the present invention.

Referring to FIG. 3, the frame structure for a building having an anti-fouling function according to the first preferred embodiment of the present invention further includes a connection support portion 21 in addition to the door frame 10 and the auxiliary finishing support portion 20. That is, when a plurality of door side frames 10 are constructed, the connection supporting portion 21 is further provided to connect between the pair of door side frames 10 facing each other. The first connection auxiliary finishing support portion 21a and the second connection auxiliary finishing support portion 21b are engaged with each other and the first connection auxiliary finishing support portion 21a and the second connection auxiliary finishing support portion 21b , Four gaskets g1, g2, g3, and g4 are interposed.

4 is a plan view schematically showing another example of a building frame structure having an anti-fouling function according to a first preferred embodiment of the present invention.

Referring to FIG. 4, the basic structure is similar to that of FIG. 3 except that the size is different.

FIG. 5 is a plan view schematically showing a building frame structure having an anti-fouling function according to a second preferred embodiment of the present invention.

Referring to FIG. 5, a building frame structure having an anti-fire heat shielding function according to a second preferred embodiment of the present invention includes a door side frame 10 for building, which is coupled to surround a periphery of a finish material including an iron door D1 do. The door frame 10 includes a structural part 100 formed in a columnar shape along the longitudinal direction of a finish material including the iron door D1, a first closed support part 110 covering one surface of the structural part 100, a structural part 100 A first finishing portion 140 covering the outside of the first finishing supporting portion 110 positioned in the opposite direction of the structural portion 100 and a second finishing supporting portion 120 covering the other side of the structure 100, Side frame 10 and a basic shape of the auxiliary finishing supporting portion 20. The basic shape of the door-side frame 10 and the basic shape of the auxiliary finishing supporting portion 20 are the same as those of the first and second finishing supporting portions 120, The detailed description thereof will be omitted.

One side of the finishing material including the iron door D1 is integrally connected to the first finishing part 140 and the other side of the finishing material including the iron door D1 is integrally connected with the second finishing part 150. [

FIG. 6 is a plan view schematically showing another example of a building frame structure having an arsonistic fire function according to a second preferred embodiment of the present invention.

Referring to FIG. 6, the basic structure is similar to that of FIG. 5 except that the size is different.

FIG. 7 is a plan view schematically illustrating another exemplary structure of a building frame having an anti-fouling function according to a second preferred embodiment of the present invention.

Referring to FIG. 7, the frame structure for a building having an anti-fire heat shielding function according to the second preferred embodiment of the present invention further includes a connection support portion 21 in addition to the door frame 10 and the auxiliary finishing support portion 20. That is, the connection supporting portion 21 is further provided to connect between the pair of door side frames 10 facing each other. Since the connection supporting portion 21 is similar to that of Fig. 2, the detailed description thereof will be omitted.

FIG. 8 is a plan view schematically illustrating still another example of a building frame structure having an anti-fouling function according to a second preferred embodiment of the present invention.

Referring to FIG. 8, the basic structure is similar to that of FIG. 7 except that the size is different.

FIG. 9 is a plan view schematically showing a building frame structure having an anti-fouling function according to a third preferred embodiment of the present invention.

Referring to FIG. 9, the construction frame structure having the fire retarding heat shielding function according to the third preferred embodiment of the present invention is obtained by removing the second gasket G2 from the auxiliary finishing support portion 20 of FIG. That is, the first and third gaskets G1 and G3 are provided on the auxiliary finishing support portion 20. Further, an auxiliary heat shield S may be further provided between the auxiliary finishing supporting portion 20 and the auxiliary frame 11.

10 is a plan view schematically showing another example of a building frame structure having an anti-fouling function according to a third preferred embodiment of the present invention.

Referring to FIG. 10, the basic structure is similar to that of FIG. 9 except that the size is different.

FIG. 11 is a plan view schematically showing another example of a building frame structure having an fire retarding function according to a third preferred embodiment of the present invention.

Referring to FIG. 11, the construction frame structure having an anti-fire heat shielding function according to the third preferred embodiment of the present invention includes, in addition to the door side frame 10 and the auxiliary finishing support portion 20 of FIG. 9, And a connection support portion (21) for connecting between the side frames (10).

FIG. 12 is a plan view schematically illustrating another example of a building frame structure having an anti-fouling function according to a third preferred embodiment of the present invention.

Referring to FIG. 12, the basic structure is similar to that of FIG. 11 except that the size is different.

FIG. 13 is a plan view schematically showing a construction frame structure having an anti-fouling function according to a fourth preferred embodiment of the present invention.

Referring to FIG. 13, a construction frame structure having an anti-fouling function according to a fourth preferred embodiment of the present invention is obtained by removing the second gasket G2 from the auxiliary finishing support portion 20 of FIG. That is, the first and third gaskets G1 and G3 are provided on the auxiliary finishing support portion 20. Further, an auxiliary heat shield S may be further provided between the auxiliary finishing supporting portion 20 and the auxiliary frame 11.

FIG. 14 is a plan view schematically showing a building frame structure having an anti-fouling function according to a fourth preferred embodiment of the present invention.

Referring to Fig. 14, the basic structure is similar to that of Fig. 13 except that the size is different.

FIG. 15 is a plan view schematically showing another example of a building frame structure having an fire retarding function according to a fourth preferred embodiment of the present invention.

Referring to FIG. 15, the construction frame structure having the fire retarding and heat shielding function according to the fourth preferred embodiment of the present invention includes, in addition to the door side frame 10 and the auxiliary finishing support portion 20 of FIG. 13, And a connection support portion (21) for connecting between the side frames (10).

16 is a plan view schematically showing still another example of a building frame structure having an fire retarding function according to a fourth preferred embodiment of the present invention.

Referring to Fig. 16, the basic structure is similar to that of Fig. 15 except that the size is different.

FIG. 17 is a plan view schematically showing a state in which an automatic door of a building frame structure having an anti-fouling function is closed, according to a fifth preferred embodiment of the present invention, FIG. 18 is a cross- Fig. 1 is a plan view schematically showing a state in which an automatic door of a building frame structure having a function is opened.

17 and 18, a building frame structure having an anti-fouling function according to a fifth preferred embodiment of the present invention includes a first frame 300, a first guide part 310, a second frame 320, The second guide portion 330 includes a third frame 340, a third guide portion 350, a finishing material, and an automatic door 360. The first frame 300 is provided with the first guide portion 310 and the second frame 320 is provided with the second guide portion 330. The third frame 340 is provided with the third guide portion 350, . A refractory glass W is provided between the second frame 320 and the third frame 340. Refractory glass W is also provided on the outside of the first frame 300 and the outside of the third frame 340, which are not opposed to the automatic door 360.

The automatic door 360 is automatically moved by a moving belt (not shown) and a moving roller (not shown), and the process of moving the automatic door 360 is a typical configuration. The automatic door 360 is positioned between the first guide portion 310 and the second guide portion 330 or between the second guide portion 330 and the third guide portion 350. A finish material such as glass is positioned between the second frame 320 and the third frame 340 so that the automatic door 360 is positioned between the first guide portion 310 and the second guide portion 330 The automatic door 360 is in the closed state and the automatic door 360 is opened when the automatic door 360 is positioned between the second guide portion 330 and the third guide portion 350.

The first frame 300 includes a first structural part 302 formed in a long shape along the height of the ceiling at the ground of the building and a second structural part 302 excluding a side of the first structural part 302 where the automatic door 360 is located. And a first finishing support portion 304 positioned along the rim of the first structural portion 302 to cover the entire section excluding one side of the first structural portion 302. The first structural part 302 and the first finishing support part 304 facing each other are joined by the first engaging part B3-1. Further, a first heat shield 306 of a heat-shielding material is inserted between the first structural part 302 and the first closed support part 304.

The first guide portion 310 is located at one side of the first structural portion 302 where the first closed support portion 304 is not located. One side of the automatic door 360 is guided in the first guide portion 310.

The second frame 320 includes a second structure portion 322 spaced apart from the first frame 300 and a plurality of second structure portions 322 along the rim of the second structure portion 322 except for one side of the second structure portion 322. [ And a second closing support 324 positioned to cover the second opening 322. And the other side of the automatic door 360 is guided to one side of the second structure part 322. The mutually facing second structural part 322 and the second finishing supporting part 324 are coupled by the second engaging part B3-2. Further, a second heat shielding member 326 made of a heat shield material is inserted between the second structural portion 322 and the second closed support portion 324.

The second guide portion 330 is positioned on one side of the second structure portion 322 where the second finishing support portion 324 is not positioned and is positioned in the direction opposite to the first guide portion 310.

The third frame 340 includes a third structure 342 spaced apart from the second frame 320 to be spaced apart from the first frame 300 and a third structure 342 excluding one side of the third structure 342. [ And a third finishing support 344 positioned along the rim of the third structure 342 to cover the third structure 342. The third structural portion 342 and the third finish supporting portion 344 facing each other are joined by the third engaging portion B3-3. Further, a third heat shield material 346 of a heat-shielding material is inserted between the third structure part 342 and the third finishing supporter 344.

The third guide part 350 is positioned on one side of the third structure part 342 where the third finishing support part 344 is not positioned and is positioned in a direction facing the second guide part 330. And a finish material such as glass is positioned between the second finishing supporter 324 and the third finishing supporter 344.

Three gaskets G3-1 are provided between the first guide portion 310 and the automatic door 360 and three gaskets G3-2 are provided between the second guide portion 330 and the automatic door 360 Respectively.

The automatic door 360 further includes a movement guide unit 362. When the automatic door 360 is positioned between the first guide part 310 and the second guide part 330 in order to be closed, the movement guide part 362 is closely contacted with the second guide part 330, When the automatic door 360 is positioned between the second guide part 330 and the third guide part 350 in order to make the movement guide part 362 come into close contact with the third guide part 350.

FIG. 19 is a plan view schematically showing another example of a closed state of an automatic door of a building frame structure having an anti-fouling heat function according to a fifth preferred embodiment of the present invention, FIG. 20 is a cross- Fig. 7 is a plan view schematically showing another example of a state where an automatic door of a building frame structure having an anti-fire heat shielding function is opened.

Referring to Figs. 19 and 20, the basic structure is similar to that of Figs. 17 to 18 except that the sizes are different.

FIG. 21 is a plan view schematically illustrating a state in which an automatic door of a building frame structure having an anti-fouling function is closed, according to a sixth preferred embodiment of the present invention. FIG. 22 is a cross- FIG. 23 is a sectional view taken along the line AA 'of FIG. 21, and FIG. 24 is a sectional view taken along line BB' of FIG. 22.

21 to 24, a building frame structure having an anti-fouling function according to a sixth preferred embodiment of the present invention includes, in the fifth embodiment, first and second automatic doors 390 and 395, an auxiliary frame 370, And the auxiliary guide portion 380. The second embodiment of the present invention will be described with reference to Figs. That is, according to the sixth preferred embodiment of the present invention, a building frame structure having a fire retarding function is provided with a first frame 300, a first guide portion 310, a second frame 320, a second guide portion 330, The third frame 340, the third guide portion 350, the auxiliary frame 370, the auxiliary guide portion 380 and the first and second automatic doors 390 and 395. The first frame 300 is provided with the first guide portion 310 and the second frame 320 is provided with the second guide portion 330. The third frame 340 is provided with the third guide portion 350, . The auxiliary frame 370 is spaced apart from the first frame 300 in a direction away from the second frame 320. The auxiliary guide portion 380 is provided in the auxiliary frame 370. A refractory glass is provided between the first frame 300 and the auxiliary frame 370 and between the second frame 320 and the third frame 340.

The first automatic door 390 is automatically moved by the first conveying means 390a such as a moving belt and a moving roller. The first transfer means 390a is a typical configuration for moving the first automatic door 390. The second automatic door 395 is also automatically moved by the second conveying means (not shown).

In the closed state, one side of the first automatic door 390 is positioned in the first guide portion 310 and the other side of the first automatic door 390 is positioned in the direction of the second guide portion 330. One side of the second automatic door 395 is positioned to abut the other side of the first automatic door 390 and the other side of the second automatic door 395 is located in the second guide portion 330.

In the open state, one side of the first automatic door 390 is positioned in the auxiliary guide portion 380 and the other side of the first automatic door 390 is positioned in the direction of the first guide portion 310. [ One side of the second automatic door 395 is located at the second guide portion 330 while being separated from the other side of the first automatic door 390 and the other side of the second automatic door 395 is positioned at the third guide portion 350 .

FIG. 25 is a plan view schematically showing another example of a closed state of an automatic door of a building frame structure having an anti-fouling function according to a sixth preferred embodiment of the present invention, and FIG. 26 is a cross- Fig. 27 is a cross-sectional view of Fig. 25, and Fig. 28 is a cross-sectional view of Fig. 26. Fig.

Figs. 25 to 28 are similar in structure to each other only in size, as compared with Figs. 21 to 24.

FIG. 29 is a plan view schematically showing a state in which a door of a building frame having a fireproofing function is closed according to a seventh preferred embodiment of the present invention. FIG. 30 is a cross- FIG. 31 is a plan view schematically showing a state in which a material door of a building frame structure having a heat shielding function is moved. FIG. 31 is a view showing a state in which a door of a building frame having a fire retarding function is closed Fig.

29 to 31, a building frame structure having an anti-fouling function according to a seventh preferred embodiment of the present invention includes a first frame 400, a second frame 410, and a material door 450 .

The first frame 400 includes a first structural part 402 having a length corresponding to the width from the ground to the ceiling of the building and a pair of first closed supporting parts 404 covering both sides of the first structural part 402, A first closing portion 405 covering the outside of the first closing support portion 404 positioned in the opposite direction of the first structure portion 402 and a second closing portion 405 covering the outside of the first closing support portion 404 positioned between the first structure portion 402 and the first closing support portion 404 And a first heat shield 406 of a heat-shielding material. The first structural part 402 and the first finishing supporting part 404 facing each other are joined by the first engaging part B4-1.

The second frame 410 includes a second structure portion 412 spaced apart from the first structure portion 402 and a pair of second finishing support portions 414 covering both sides of the second structure portion 412, A second finishing portion 415 covering the outside of the second finishing supporting portion 414 positioned in the opposite direction of the first finishing supporting portion 414 and a second finishing portion 415 covering the outside of the second finishing supporting portion 414 located in the opposite direction of the first finishing supporting portion 414, And a second heat shield 416 of the second heat shield 416. The second structural portion 412 and the second finishing support portion 414 facing each other are joined by the second engagement portion B4-2.

The material door 450 is rotated so that one side is rotated between the pair of first closing supports 404 and the other side is rotated so that it does not abut or abut between the pair of second closing supports 414. [ Such a material door (450) is attached by a free hinge or a floor hinge, and is a door which can be freely opened and closed in the inside and outside without the need of a handle, and can be used mainly for a door with many people accessing. The material door 450 includes a first rotating frame 460, a second rotating frame 470, and a finish. The finishing material may be made of refractory glass or the like.

The first rotating frame 460 has a first rotating structure 462 on one side facing the first structure 402 and a second side on the opposite side to the first rotating structure 462, A first rotating finishing portion 464 covering the outside of the first rotating finishing supporting portion 464 located opposite to the first rotating structure portion 462, And a first door heat shield 466 of a heat-shielding material inserted between the first rotating structure 462 and the first rotating finishing support 464. The first rotating structure portion 462 and the first rotating finishing support portion 464 facing each other are coupled by the first door coupling portion B4-3. Here, the positions of the pair of first finishing portions 405 opposed to the material door 450 are concave and rounded first round portions 405a are formed, and the pair of first finishing portions 405 The second round portion 465a is formed so as to be convex to rotate along the first round portion 405a at a position facing the first round portion 405a. When the material door 450 is rotated, the second round portion 465a is easily rotated in a state guided by the first round portion 405a.

The second rotation frame 470 has a second rotation structure 472 on one side facing the second structure 412 and the other side on the opposite side of the second rotation structure 472 and a second rotation structure 472 on the other side, And a second rotating finishing portion 475 covering the outside of the second rotating finishing supporting portion 474 located in the opposite direction of the second rotating structure portion 472. [ And a second door heat shield member 476 of a heat insulating material inserted between the second rotation structure 472 and the second rotary finishing support member 474. [ The second rotating structure portion 472 and the second rotating finishing support portion 474 facing each other are coupled by the second door coupling portion B4-4.

The side of the first rotating finishing support part (464) facing one side of the finishing material extends to cover one side of the finishing material and the side of the second rotating finishing supporting part (474) facing the other side covers the other side of the finishing material And the first and second rotary finishing supports 464 and 474 are extended so as not to show the bottom of the refractory glass of the finishing material so that there is an effect of having a beautiful aesthetic appearance.

FIG. 32 is a plan view schematically showing a state in which a door of a building frame having a fireproofing function is closed, according to a seventh preferred embodiment of the present invention. FIG. 33 is a cross- FIG. 34 is a plan view schematically showing a state in which a material door of a building frame structure having a heat-shielding function is moved. FIG. 34 is a view showing a state in which a door of a building frame having a fireproofing function according to a seventh preferred embodiment of the present invention is closed Fig.

32 to 34 are similar to each other in basic structure, only in size, as compared with Fig. 29 to Fig.

FIG. 35 is a plan view schematically showing a state in which a door of a building frame having a fireproofing function is closed according to an eighth embodiment of the present invention. FIG. 36 is a plan view Fig. 2 is a plan view schematically showing a state in which a door of a building frame structure having a differential function is moved. Fig.

35 and 36, a building frame structure having an anti-fouling function according to an eighth preferred embodiment of the present invention includes, in the seventh embodiment, a pair of first frames 400 and a pair of material doors 450). The pair of first frames 400 are positioned to be spaced apart from each other. A pair of material doors 450 are positioned to abut each other. The one door 450 is coupled to the first frame 400 of the pair of first frames 400 so as to rotate and the other door 450 is coupled to the other first frame 400 .

FIG. 37 is a plan view schematically showing another example of a state in which a door of a building frame having a fireproofing function is closed according to an eighth preferred embodiment of the present invention. FIG. 38 is a cross- Fig. 7 is a plan view schematically showing another example of a state in which a door of a building frame structure having a fire retarding function according to the present invention is moved.

37 and 38 are similar in structure to each other only in size, as compared with Fig. 35 and Fig.

FIG. 39 is a plan view schematically showing a building frame structure having an anti-fouling function according to a ninth preferred embodiment of the present invention. FIG.

39, in the first embodiment of FIG. 1, a first cover latching portion 116 is protruded from a first cover side portion 114, A second auxiliary latching portion 126 is protruded from the second cover side portion 124 and a second auxiliary latching portion 126 is formed on the second auxiliary lateral side portion 154. [ A second auxiliary latching portion 156 is formed to protrude from the second cover latching portion 126 to be engaged with the second cover latching portion 126.

The first cover engaging portion 116 and the second cover engaging portion 126 are sloped and protruded toward the first auxiliary engaging portion 146 and the second auxiliary engaging portion 156 toward the structural part, The first engaging portion 117 is recessed so that the first auxiliary engaging portion 146 is engaged with the first auxiliary engaging portion 146 of the first cover engaging portion 116, The second engaging insertion portion 127 is recessed such that the second auxiliary engaging portion 156 is engaged with the second engaging portion 156 of the engaging portion 126. [

Since the first and second cover inserting portions 117 and 127 are formed on the first and second cover side portions 114 and 124 so that the first and second closing portions 140 and 150 are disposed on the first and second closing supporting portions 110 and 110, The first and second auxiliary locking portions 146 and 156 of the first and second closing portions 140 and 150 are slid along the first and second cover locking portions 116 and 126, 1 and 2 engaging insertion portions 117 and 127, respectively.

40 to 42 are plan views schematically showing various examples of a building frame structure having an anti-fouling function according to a ninth preferred embodiment of the present invention.

40 to 42 show the first and second engaging inserts 117 and 127 and the first and second auxiliary engaging portions 146 and 156 shown in Figs. 5 to 21 in Figs. And a detailed description thereof will be omitted.

FIG. 43 and FIG. 44 are plan views schematically showing still another various examples of a building frame structure having an anti-fouling function according to a ninth preferred embodiment of the present invention.

43 and 44, in the seventh embodiment and the eighth embodiment, the first rotating finishing support portion 464 includes a first rotation finishing supporting portion 464 abutting against the first rotating structure portion 462, And a first rotating finishing supporting portion 464b protruding in opposite directions from the first rotating structure portion 462 on both sides of the first rotating finishing supporting plate 464a. A first rotary finishing plate 465b positioned to face away from the first rotary finishing support plate 464a and a first rotary finishing supporting side portion 464b on both sides of the first rotation finishing plate 465b And the second rotary finishing support portion 474 includes a second rotation finishing support plate 474a abutting against the second rotation structure portion 472 and a second rotation finishing support portion 474b, And a second rotating finishing supporting portion 474b projecting on both sides of the first rotating finishing portion 474a opposite to the second rotating structure portion 472, A second rotation finishing plate 475b positioned to face the cover plate in a spaced-apart relationship, and a second rotation finishing plate 475b formed on both sides of the second rotation finishing plate 475b to cover the second rotation finishing support side 474b. And a finishing side 475c.

The first rotary finishing supporting portion 464c is protruded from the first rotary finishing supporting portion 464b and the first rotary finishing supporting portion 464c is engaged with the first rotary finishing supporting portion 464c. A second rotation finishing supporting portion 474c is protrudingly formed on the second rotation finishing supporting portion 474b and a second rotation finishing supporting portion 474b is formed on the second rotation finishing side portion 475c, And a second rotation assist locking portion 475d is protruded to be engaged with the finishing support locking portion 474c.

The first and second rotation supporting engagement portions 464c and 474c are disposed in the first rotation supporting portion 465d and the second rotation supporting engaging portion 474c in the direction of the first rotation structure 462, 475d so that the first rotation assisting engagement portion 465d is engaged with the first rotation rotation assisting engagement portion 464c at a position facing the first rotation assisting engagement portion 465d, The first rotation assisting engaging portion 464d is concave and the second rotation assisting engaging portion 475d is caught at the position facing the second rotation assisting engaging portion 475d of the second rotation finishing supporting engaging portion 474c The second rotation latch insertion portion 474d is formed to be concave.

FIG. 45 is a plan view schematically showing a construction frame structure having a fire protection function according to a tenth embodiment of the present invention.

45, in the first embodiment of FIG. 1, the first and second closure portions 140 and 150 are removed and the first and second closure supports 110 'and 120' As shown in Fig.

One side of the mutually opposing structure 100 and the first finishing supporter 110 'are spaced apart from each other. One side of the first finishing supporter 110' is recessed in the direction of the structure 100, The other end of the second structural body 100 and the second end supporting body 120 'are spaced apart from each other and one side of the second end supporting body 120' is concave in the direction of the structural body 100 The content in which the second concave portion 120a is formed is added. The first concave portion 110a and the second concave portion 120a are coupled by the first coupling portion B1 and the second coupling portion B1, 2 coupling portion B2.

Since the first and second recessed portions 110a and 120a are provided as described above, the first and second end support portions 110 'and 120' can be easily bolted to the structural portion 100.

46 to 64 are plan views schematically showing various examples of a building frame structure having an anti-fouling function according to a tenth embodiment of the present invention.

46 to 64 are various examples of contents of the first and second finishing supporting portions 110 'and 120' and the first and second concave portions 110a and 120a shown in FIG. 3 to FIG. A detailed description thereof will be omitted.

FIG. 65 is a plan view schematically illustrating still another example of a building frame structure having an anti-fouling function according to a tenth embodiment of the present invention.

65, in the seventh embodiment of Fig. 29, the first and second finishing portions 405 and 415 and the first and second rotary finishing portions 465 and 475 are removed, The first and second rotary support portions 464 'and 474' are formed so as to surround both sides of the first and second structural portions and the first and second rotary support portions 464 'and 474' And is formed so as to surround both sides.

The first end supporting portion 404 'is positioned to be spaced apart from the first end supporting portion 404' and the first end supporting portion 404 'is recessed in the direction of the first structure portion 402 And the second end supporting portion 414 'is positioned to be spaced from the second end supporting portion 414' while the second end supporting portion 414 'is concave toward the second structure portion 412 The first rotating structure portion 462 and the first rotating finishing support portion 464 'are positioned to be spaced apart from each other while the first rotating finishing portion 464' The first door recess 464-1 is formed concavely in the direction of the rotation structure portion 462 and the mutually facing second rotation structure portion 472 and the second rotation finishing support portion 474 ' The second rotary finishing support portion 474 'is formed with the second door concave portion 474-1 so as to be concave in the direction of the second rotation structure portion 472.

The first structure portion 402 and the first concave portion 404a facing each other are coupled by the first coupling portion B4-1 and the second structure portion 412 and the second concave portion 414a, The first rotating structure portion 462 and the first door concave portion 464-1 which are opposed to each other are coupled to each other by the first door coupling portion B4-3 by the second coupling portion B4-2, And the second rotating structure portion 472 and the second door recess portion 474-1 facing each other are coupled by the second door coupling portion B4-4.

FIG. 66 is a plan view schematically showing still another example of a building frame structure having an anti-fouling function according to a tenth embodiment of the present invention.

Referring to FIG. 66, FIG. 66 is configured to include a pair of the material door 450 shown in FIG.

FIGS. 67 to 75 are views schematically showing a building frame structure having an anti-fouling function according to an eleventh embodiment of the present invention.

Referring to Figs. 67 to 75, the basic structures are similar to those of the ninth embodiment except that they are different in size only.

76 to 80 are plan views schematically showing a construction frame structure having an arsonistic fire function according to a twelfth preferred embodiment of the present invention.

76 to 80, a frame 1000 includes a structure 1100, a first finishing support 1200, a second finishing support 1250, a first finishing 1300 and a second finishing 1350, .

The structural part 1100 is formed in a long shape along the longitudinal direction of the door. The first closing support part 1200 is formed to cover one side of the structure part 1100. The second closing support part 1250 is formed to cover the other side of the structure part 1100. And a finishing material such as a glass or a door is sandwiched between the first finishing supporter 1200 and the second finishing supporter 1250.

The first finishing supporter 1200 is formed to have a width greater than that of the structure 1100 and includes a first supporting concave portion 1210 which covers one surface of the structure portion 1100 and is formed concavely in a direction of one surface of the structure portion 1100, And a first supporting elastic part 1220 which is bent and formed to be close to the finishing material at both sides of the first supporting concave part 1210 far from the finishing material.

The second finishing support part 1250 is formed to have a larger width than the structure part 1100 and covers the other surface of the structure part 1100 and includes a second supporting concave part 1260 formed concavely in the other surface direction of the structure part 1100, And a second supporting resilient part 1270 which is bent and formed to be close to the finish material at both sides of the second supporting concave part 1260 far from the finishing material.

One surface of the mutually facing structure 1100 and the first supporting concave portion 1210 are coupled by the first coupling portion B1 and the other surface of the mutually facing structure portion 1100 and the second closing support portion 1250 And can be coupled by the second coupling portion B2. Here, the first and second coupling portions B1 and B2 may be composed of bolts or rivets, but the present invention is not limited thereto. A first heat shielding member 1230 made of a heat shield material is inserted between one side of the structure 1100 and the first finishing supporter 1200 and a heat shielding material 1230 is interposed between the other side of the structure 1100 and the second finishing supporter 1250 The second heat shield 1280 is inserted. The first and second heat shields 1230 and 1280 are made of a heat shielding material and are formed in a plate shape and made of, for example, non-burnable cement, glass wool, or the like.

The first closing portion 1300 includes a first closing cover 1310 formed to cover the first supporting concave portion 1210 and the first supporting elastic portion 1220 and a second closing cover 1310 formed at the end of the first closing cover 1310 And a first auxiliary engaging portion 1320 bent in the end direction of the one supporting elastic portion 1220 and engaged with the first supporting elastic portion 1220.

The second closing portion 1350 includes a second closing cover 1360 formed to cover the second supporting concave portion 1260 and the second supporting elastic portion 1270 and a second closing cover 1360 formed at the end of the second closing cover 1360 And a second auxiliary engaging portion 1370 bent in the end direction of the second supporting elastic portion 1270 and engaged with the second supporting elastic portion 1270.

When the first and second closing portions 1300 and 1350 are fitted in the first and second closing supporting portions 1200 and 1250, the first and second auxiliary locking portions 1320 and 1370 are engaged with the first and second supporting elastic portions Are slid along the first and second support elastic portions 1220 and 1270 and then engaged with the ends of the first and second support elastic portions 1220 and 1270. The first and second supporting elastic portions 1220 and 1270 are elastically deformed inward by the urging of the first and second auxiliary engaging portions 1320 and 1370 so that the first and second closing portions 1300 and 1350 There is an effect that the first and second closure supporting parts 1200 and 1250 are easily fitted.

FIGS. 81 and 82 are plan views schematically showing a building frame structure having an anti-fouling function according to a twelfth preferred embodiment of the present invention.

81 and 82, the frame 2000 includes a structural portion 2100, a first closed support portion 2200, a second closed support portion 2250, a first closed portion 2300, and a second closed portion 2350, .

The first support part 2200 includes a first support plate part 2210 formed to have a greater width than one surface of the structure part 2100 and to cover one surface of the structure part 2100, 2210 protruding from opposite sides of the structure portion 2100 at both sides of the first support protrusion elastic portion 2220.

The second finishing support portion 2250 includes a second support plate portion 2260 formed to have a larger width than the other surface of the structure portion 2100 and positioned to cover the other surface of the structure portion 2100, And a second support protruding elastic part 2270 protruding from opposite sides of the structure part 2100 on both sides of the first support protrusion 2260.

The first finishing portion 2300 includes a first finishing plate portion 2310 positioned to face the first supporting plate portion 2210 and a second finishing plate portion 2310 disposed on both sides of the first finishing plate portion 2310, And a first finishing bend 2320 protruding to cover the first finishing bend 2320. [

The second finishing portion 2350 includes a second finishing plate portion 2360 positioned to face the second supporting plate portion 2260 and a second finishing plate portion 2360 disposed on both sides of the second finishing plate portion 2360, The first finishing portion 2300 and the second finishing portion 2350 may be formed on the first finishing support portion 2200 and the second finishing portion 2370 so as to cover the first finishing portion 2200 and the second finishing portion 2370, The first finishing bend 2320 and the second finishing bend 2370 can be inserted into the first and second support protrusions 2220 and 2270 The first support protrusion elastic portion 2220 and the second support protrusion elastic portion 2270 are elastically deformed inward while sliding along the first support protrusion elastic portion 2220 and the second support protrusion elastic portion 2270, And is engaged with the end of the protruding elastic portion 2270.

Since the first and second support protruding elastic parts 2220 and 2270 are elastically deformed inward by the pressing of the first and second closing bends 2320 and 2370, 1 and 2 finish supporting portions 2200 and 2250, respectively.

The first finishing bent portion 2320 is protruded from the end portion of the first finishing bent portion 2320 so that the first finishing bent portion 2320 is engaged with the first supporting plate portion 2210, A second closing recessed portion 2372 is protruded to be caught by the second supporting plate portion 2260 and a first recessed portion 2212 is formed on the first supporting plate portion 2210 so that the first closing recessed portion 2322 is caught. And the second supporting plate portion 2260 is formed with a second engaging concave portion 2262 so that the second finishing engaging projection 2372 is engaged with the second supporting plate portion 2260.

The first and second closing stopper portions 2333 and 2372 are engaged with the first and second locking recessed portions 2212 and 2262 so that the first and second closing portions 2300 and 2350 are engaged with the first and second closing supporting portions 2200 , 2250).

FIGS. 83 and 84 are plan views schematically showing another example of a building frame structure having an anti-fouling function according to a twelfth preferred embodiment of the present invention.

Referring to Figs. 83 and 84, the width is reduced in the frame 2000 of Figs. 81 and 82, which is the same.

FIGS. 85 to 93 are views schematically showing various examples of a building frame structure having an anti-fouling function according to a thirteenth preferred embodiment of the present invention.

85 to 93, a building frame structure having an anti-fouling heat function according to a thirteenth preferred embodiment of the present invention relates to an automatic door or a material door, and the eleventh embodiment or the twelfth embodiment And can be configured in various combinations.

It will be apparent to those skilled in the art that various modifications and variations can be made in the present invention without departing from the spirit and scope of the invention as defined in the appended claims. It should be understood that the technical idea belonging to the scope of the claims also belongs to the present invention.

10: frame
100: Structure part 102: First structure guide part
104: second structure guide part 110: first finishing support part
112: first cover plate 114: first cover side
116: first cover engaging portion 117: first engaging portion
110 ': first closed support part 110a: first recessed part
120: second closed support part 122: second cover plate
124: second cover side portion 126: second cover engagement portion
127: second engaging portion 120 ': second engaging portion
120a: second recess 130: first train stop
132: second train section 140: first finish section
142: first auxiliary plate 144: first auxiliary side
146: first auxiliary locking portion 150: second closing portion
152: second auxiliary plate 154: second auxiliary side
156: second auxiliary latching part
20: auxiliary finishing support
201: first auxiliary finishing supporting portion 202: 2nd-1 finishing portion
203: 2-2 finishing part 21: connection support part
21a: first connection auxiliary finishing support part 21b: second connection auxiliary finishing support part
300: first frame
302: first structure part 304: first finishing support part
306: first train section 310: first guide section
320: second frame 322: second structure
324: second finishing support portion 326: second train finishing
330: second guide portion 340: third frame
342: third structure part 344: third finishing support part
346: third train stop 350: third guide section
360: Automatic door
362: Movement guide part 370: Auxiliary frame
380: auxiliary guide unit 390: first automatic door
395: 2nd Automatic Door
400: first frame
402: first structural part 404, 404 ': first closed support part
404a: first concave portion 405: first finishing portion
405a: First round section 406: First train section
410: second frame 412: second structure
414, 414 ': second closed support portion 414a: second recessed portion
415: second closing portion 416: second train stop
450: Material door
460: first rotating frame 462: first rotating structure
464, 464 ': first rotating finishing support part 464-1: first door concave part
464a: first rotation finishing support plate 464b: first rotation finishing support side
464c: first rotation finishing support engaging portion 464d: first rotation engaging insertion portion
465: first rotating finishing part 465a: second round part
465b: first rotating finishing plate 465c: first rotating finishing side
465d: first rotation auxiliary latching portion 466: first door train stopper
470: second rotating frame 472: second rotating structure
474, 474 ': second rotary finishing support portion 474-1: second door recess portion
474a: second rotating finishing supporting plate 474b: second rotating finishing supporting side
474c: second rotation finishing support engaging part 474d: second rotation engaging insertion part
475: second rotating finishing part 475b: second rotating finishing part
475c: second rotary finishing side portion 475d: second rotation assist locking portion
476: Second door train departure
1000: Frame
1100: structure part 1200: first finishing support part
1210: first support concave portion 1220: first support elastic portion
1230: First train section 1250: Second finish section
1260: second support concave portion 1270: second support elastic portion
1280: 2nd train section 1300: 1st finish section
1310: first closing cover 1320: first auxiliary locking part
1350: second finishing portion 1360: second finishing cover
1370: second auxiliary engagement portion
2000: Frame
2100: structure part 2200: first finishing support part
2210: first support plate portion 2212: first engagement recess
2220: first support protrusion elastic portion 2250: second finish support portion
2260: second support plate portion 2262: second engagement recess
2270: second support protrusion elastic portion 2300: first end portion
2310: first finishing plate portion 2320: first finishing bent portion
2322: first closing stopper portion 2350: second closing portion
2360: second finishing plate portion 2370: second finishing bent portion
2372: Second closing deadlock part
D: Door D1: Iron door
B1: first coupling portion B2: second coupling portion
B3-1: First coupling portion B3-2: Second coupling portion
B3-3: Third coupling portion B4-1: First coupling portion
B4-2: second coupling portion B4-3: first door coupling portion
B4-4: second door coupling part G1, G2, G3: first, second and third gaskets
S: auxiliary train station

Claims (35)

CLAIMS What is claimed is: 1. A construction frame for enclosing a perimeter of a finish material comprising glass or doors,
A structural part formed in a columnar shape along the longitudinal direction of the finishing material;
A first finishing supporter covering one side of the structural part, the side facing the one side of the finishing material extending to cover one side of the finishing material; And
And a second finishing support portion covering the other surface of the structural portion and extending to cover the other side of the finishing material, the side portion facing the other side of the finishing material.
The method according to claim 1,
One surface of the structure facing each other and the first finishing supporter are joined by the first engaging portion,
And the other end of the structural part facing each other and the second closed support part are coupled by the second engagement part.
The method according to claim 1,
Wherein one side of the structure facing each other and the first finishing supporter are spaced apart from each other, one side of the first finishing supporter is formed with a first concave portion concave in the direction of the structure,
And a second concaved portion is formed on one side of the second closed support portion so as to be concave in the direction of the structural portion,
Wherein one surface of the structure facing each other and the first concave portion are coupled by the first coupling portion,
Wherein the second surface of the structural member facing each other and the second recess are coupled by the second engagement portion.
The method according to claim 1,
Wherein a heat shield made of a heat shield material is inserted between one surface of the structural part and the first finishing support part or between the other surface of the structural part and the second finishing support part.
3. The method of claim 2,
A first heat shielding material and a second heat shielding material are inserted between one surface of the structural part and the first finishing support part and between the other surface of the structural part and the second finishing support part,
A first structure guide portion is concavely formed on one surface of the structure portion, a second structure guide portion is recessed on the other surface of the structure portion,
The first engagement portion passing through the first finishing support portion and the first heat shield is guided by the first structure guide portion and then is positioned to pass through the first structure guide portion,
And the second engagement portion passing through the second finishing support portion and the second heat shield is guided by the second structure guide portion and is positioned through the second structure guide portion. Architectural frame structure.
The method according to claim 1,
A first finishing portion covering the outside of the first finishing supporting portion which is positioned in the opposite direction of the structure portion,
Further comprising a second finishing portion that covers the outside of the second finishing support portion located in a direction opposite to the structure portion.
The method according to claim 6,
Characterized in that a heat shield made of a heat shield material is provided between the first finishing support part and the first finishing part or between the second finishing support part and the second finishing part.
The method according to claim 6,
The first and second end portions are spaced apart from each other. In the process of welding the first and second end portions to each other, a first soldering portion may be formed between the first end portion and the first end, Welded to each other,
The second soldering portion is spaced apart from the second soldering portion and the second soldering portion in a process of welding between the second soldering portion and the second soldering portion, And welded to each other while being welded to each other.
The method according to claim 6,
Wherein the first closed support portion includes a first cover plate that abuts on the structural portion and a first cover side portion that protrudes on opposite sides of the first cover plate in a direction opposite to the structural portion,
Wherein the first end portion includes a first auxiliary plate positioned to face the first cover plate so as to face the first cover plate and a first auxiliary side portion bent at both sides of the first auxiliary plate so as to cover the first cover side portion,
Wherein the second closed support portion includes a second cover plate abutting on the structural portion and a second cover side portion protruding on opposite sides of the second cover plate in a direction opposite to the structural portion,
The second end portion includes a second sub-plate positioned to face the second cover plate so as to face the second sub-plate, and a second sub-side portion bendingly formed on both sides of the second sub-plate to cover the second cover side portion Features of building frame structure with fire protection function.
10. The method of claim 9,
A first cover engaging portion protrudingly formed on the first cover side portion,
A first auxiliary locking portion is formed on the first auxiliary side portion so as to be engaged with the first cover locking portion,
And a second cover engaging portion protrudingly formed on the second cover side portion,
And a second auxiliary locking portion is formed on the second auxiliary side portion so as to be engaged with the second cover locking portion.
11. The method of claim 10,
Wherein the first cover engaging portion and the second cover engaging portion are inclinedly projected toward the first auxiliary engaging portion and the second auxiliary engaging portion toward the structural portion,
The first engaging portion is recessed so that the first sub-engaging portion is engaged with the first sub-engaging portion of the first cover engaging portion,
Wherein the second engaging insertion portion is recessed so that the second auxiliary engaging portion is engaged with the second auxiliary engaging portion of the second cover engaging portion.
The method according to claim 1,
Further comprising an auxiliary finishing support portion provided in a direction of an outer side portion between one surface and the other surface of the structural portion when a finishing material is disposed on an inner side portion between the one surface and the other surface of the structural portion,
The auxiliary finishing support portion includes a first auxiliary finishing supporting portion formed to face one side of the first finishing supporting portion positioned in a direction opposite to the inner side portion of the structure portion and a second auxiliary finishing supporting portion disposed on the second- And a second finishing unit (2-2) provided to face the second finishing unit (2-1).
13. The method of claim 12,
Characterized in that a first gasket is interposed between the first closing support part and the first auxiliary closing support part, and a second gasket is interposed between the second-1 closing part and the second closing support part. Construction frame structure.
14. The method of claim 13,
And a third gasket is interposed between the second-second closure part and the second-second closure part.
The method according to claim 6,
The first closed support part includes a first support concave part formed to have a larger width than the structural part and covering one surface of the structural part, the first support concave part being concave in a direction of one surface of the structural part, And a first supporting elastic part bent and formed to be close to the finishing material at both sides of the part, wherein one surface of the mutually facing structural part and the first supporting concave part are joined by the first engaging part,
The second closed support part includes a second support concave part formed to have a greater width than the structural part and covering the other surface of the structural part, the second support concave part being concave in the direction of the other surface of the structural part, And a second supporting elastic portion bent to be close to the finishing material at both sides of the portion and having elasticity, the other surface of the mutually facing structural portion and the second supporting concave portion being joined by the second engaging portion,
A first finishing cover formed to cover the first supporting concave portion and the first supporting elastic portion and a second finishing cover bent at an end portion of the first finishing cover in the direction of the end of the first supporting elastic portion, And a first auxiliary engaging portion engaged with the one support elastic portion,
A second finishing cover formed to cover the second supporting concave portion and the second supporting elastic portion; and a second finishing cover bent at an end portion of the second finishing cover in the direction of the end of the second supporting elastic portion, And a second auxiliary engagement portion engaged with the support elastic portion,
Wherein when the first closing portion and the second closing portion are respectively fitted to the first closing support portion and the second closing support portion, the first auxiliary locking portion and the second auxiliary locking portion engage with the first supporting elastic portion The first supporting elastic part and the second supporting elastic part are engaged with the ends of the first supporting elastic part and the second supporting elastic part while being slid along the second supporting elastic part and elastically deforming the first supporting elastic part and the second supporting elastic part inwardly Frame structure with fire protection function.
The method according to claim 6,
The first finishing support portion includes a first support plate portion formed to have a larger width than the one surface of the structure portion and positioned to cover one surface of the structure portion and a second support plate portion protruding from opposite sides of the first support plate portion in a direction opposite to the structure portion 1 support protruding elastic portion,
The second finishing support portion includes a second support plate portion formed to have a greater width than the other surface of the structure portion and to cover the other surface of the structure portion, and a second support plate portion protruding from opposite sides of the second support plate portion, 2 support protruding elastic portion,
Wherein the first finishing portion includes a first finishing plate portion positioned to face the first supporting plate portion and a first finishing bend protruding from both sides of the first finishing plate portion to cover the first supporting protrusion elastic portion,
The second finishing portion includes a second finishing plate portion positioned to face the second supporting plate portion and a second finishing bend protruding from both sides of the second finishing plate portion to cover the second supporting protrusion elastic portion,
Wherein when the first closing portion and the second closing portion are respectively fitted to the first closing support portion and the second closing support portion, the first closing bend portion and the second closing bending portion are engaged with the first supporting protruding elastic portion, The first support protruding elastic portion and the second support protruding elastic portion are slid along the second support protruding elastic portion to elastically deform the first support protruding elastic portion and the second support protruding elastic portion, Wherein the frame structure has a fire shielding function.
17. The method of claim 16,
The first finishing bending portion is formed so that an end of the first finishing bending portion is engaged with the first supporting plate portion and the end of the second finishing bending portion is protruded from the second supporting plate portion to engage with the second supporting plate portion,
Wherein the first supporting plate portion is formed with a first engaging concave portion for engaging the first finishing engagement portion and the second supporting plate portion is formed with a second engaging recess portion for engaging the second finishing engagement portion. A frame structure for a building.
1. A building frame (1) to be wrapped around a periphery of a finishing material including an iron gate,
A structural part formed in a columnar shape along the longitudinal direction of the finishing material;
A first closing support part covering one surface of the structural part;
A second closing support portion covering the other surface of the structural portion;
A first finishing portion covering an outer side of the first finishing support portion located in a direction opposite to the structure portion; And
And a second finishing portion that covers the outside of the second finishing support portion which is located in the opposite direction of the structure portion,
Wherein one side of the finishing material is integrally connected to the first finishing portion and the other side of the finishing material is integrally connected to the second finishing portion.
19. The method of claim 18,
Further comprising an auxiliary finishing support portion provided in a direction of an outer side portion between one surface and the other surface of the structural portion when a finishing material is disposed on an inner side portion between the one surface and the other surface of the structural portion,
Wherein the auxiliary finishing supporting portion includes a first auxiliary finishing supporting portion formed to face one side of the first finishing supporting portion positioned in a direction opposite to the inside portion, a second-1 finishing portion provided on the outside portion, 1 < / RTI > finish portion,
A first gasket is interposed between the first closing portion and the first auxiliary closing support portion, a second gasket is interposed between the second-1 closing portion and the second closing supporting portion, and the second- And a third gasket is interposed between the second and second finishing portions.
A first frame including a first structural part and a first finishing support part positioned so as to cover the first structural part along a rim of the first structural part except for one side of the first structural part;
A first guide portion positioned at one side of the first structure portion where the first finishing support portion is not positioned;
A second frame part including a second frame part positioned so as to cover the second frame part along the rim of the second frame part except for one side of the second frame part, ;
A second guide portion positioned at one side of the second structure portion in which the second finishing support portion is not positioned and positioned in a direction opposite to the first guide portion;
A third structure part spaced apart from the second frame to be spaced apart from the first frame and a third finishing part positioned so as to cover the third structure part along the rim of the third structure part excluding the one side of the third structure part; A third frame including a support;
A third guide portion positioned at one side of the third structure portion where the third finishing support portion is not positioned and positioned in a direction facing the second guide portion;
A finishing material positioned between the second finishing support and the third finishing support; And
And an automatic door positioned between the first guide portion and the second guide portion or moved between the second guide portion and the third guide portion.
21. The method of claim 20,
The first structural part and the first finishing support part facing each other are coupled by the first engagement part,
The second structural portion and the second closed support portion facing each other are coupled by the second engagement portion,
And the third structural part and the third finishing supporting part facing each other are coupled by the third engaging part.
22. The method of claim 21,
A first heat shield member of a heat-shielding material is inserted between the first structural member and the first closed support member,
A second heat shielding material of a heat-shielding material is inserted between the second structural part and the second closed support part,
And a third heat shielding material of a heat-shielding material is inserted between the third structural part and the third closed support part.
21. The method of claim 20,
Wherein a plurality of gaskets are provided between the first guide portion and the automatic door or between the second guide portion and the automatic door.
A first frame having a first structural part and a pair of first closed supporting parts covering both sides of the first structural part;
A second frame having a second structural part spaced apart from the first structural part and a pair of second closed support parts covering both sides of the second structural part; And
And a material door which is positioned such that one side is rotated between the pair of the first closing support portions and the other side is rotated so as not to abut or abut between the pair of the second closing supporting portions,
The material statement is:
A first rotating structure part having one side facing the first structure part and the other side having one side of the finishing material and a pair of first rotating finishing supporting parts covering both sides between the both sides of the first rotating structure part; One rotation frame; And
A second rotating structure part having one side facing the second structure part and the other side facing the other side of the finishing material and a pair of second rotating finishing supporting parts covering both sides between the both sides of the second rotating structure part; Wherein the frame structure includes a first rotation frame and a second rotation frame.
25. The method of claim 24,
And a side portion facing one side of the finishing material of the first rotating finishing support portion is extended to cover one side of the finishing material,
And a side portion facing the other side of the finishing material of the second rotating finishing support portion extends to cover the other side of the finishing material.
25. The method of claim 24,
Wherein the first frame further includes a first finishing portion that covers the outside of the first finishing support portion which is located in a direction opposite to the first structure portion,
The second frame further includes a second closing portion that covers the outside of the second closing support portion located in the opposite direction of the second structure portion,
Wherein the first rotating frame further includes a first rotating finishing portion that covers the outside of the first rotating finishing portion positioned in the direction opposite to the first rotating structure portion,
The second rotating frame further includes a second rotating finishing portion that covers the outside of the second rotating finishing supporting portion which is located in the opposite direction of the second rotating structure portion,
Wherein a first round portion of a concave round shape is formed at a position opposite to the material door of a pair of the first finishing portions, and a position of the pair of first finishing portions, which faces the first round portion, And a second round portion is formed so as to be convex to be rotated along the portion of the frame.
25. The method of claim 24,
A first heat shield member of a heat-shielding material is inserted between the first structural member and the first closed support member,
A second heat shielding material of a heat-shielding material is inserted between the second structural part and the second closed support part,
A first door heat shield member of a heat-shielding material is inserted between the first rotation structure and the first rotation finishing support,
And a second door heat shield member of a heat-shielding material is inserted between the second rotation structure and the second rotation finishing support.
25. The method of claim 24,
The first structural part and the first finishing support part facing each other are coupled by the first engagement part,
The second structural portion and the second closed support portion facing each other are coupled by the second engagement portion,
The first rotating structure and the first rotating finishing supporting part facing each other are coupled by the first door coupling part,
And the second rotating structure and the second rotating finishing supporting part facing each other are coupled by the second door coupling part.
25. The method of claim 24,
Wherein the first structural support portion and the first finish support portion facing each other are spaced apart from each other, wherein the first closed support portion is formed with a first concave portion concave in the direction of the first structural portion,
Wherein the second structural support portion and the second structural support portion facing each other are spaced apart from each other, the second closed support portion is formed with a second concave portion concave in the direction of the second structural portion,
Wherein the first rotating structure and the first rotating finishing support facing each other are spaced apart from each other, wherein the first rotating finishing support portion has a first door recess formed concavely in the direction of the first rotating structure,
The second rotating structure and the second rotating finishing supporting part facing each other are spaced apart from each other, the second rotating finishing supporting part is formed with a second door concave portion concave in the direction of the second rotating structure,
The first structural portion and the first concave portion facing each other are coupled by the first engagement portion,
The second structure portion and the second concave portion facing each other are coupled by the second coupling portion,
The first rotating structure and the first door concave portion facing each other are coupled by the first door coupling portion,
Wherein the second rotating structure portion and the second door recess portion facing each other are coupled by the second door coupling portion.
25. The method of claim 24,
A first rotating finishing portion which covers the outside of the first rotating finishing supporting portion which is located in a direction opposite to the first rotating structure portion,
Further comprising: a second rotating finishing portion for covering the outside of the second rotating finishing supporting portion located in a direction opposite to the second rotating structure portion.
31. The method of claim 30,
The first rotating finishing support portion includes a first rotating finishing supporting plate contacting the first rotating structure portion and a first rotating finishing supporting side portion protruding from both sides of the first rotating finishing supporting plate in a direction opposite to the first rotating structure portion and,
Wherein the first rotating finishing portion includes a first rotating finishing plate positioned to face the first rotating finishing supporting plate and spaced apart from the first rotating finishing supporting plate, A first rotating finishing side,
The second rotating finishing support portion includes a second rotating finishing supporting plate contacting the second rotating structure portion and a second rotating finishing supporting side portion protruding in opposite directions from the second rotating structure portion on both sides of the second rotating finishing supporting plate and,
The second rotating finishing portion includes a second rotating finishing plate positioned to face the second rotating finishing portion in a spaced-apart relationship with the second rotating finishing portion, and a second rotating finishing portion that is bent to cover the second rotating finishing supporting portion on both sides of the second rotating finishing portion. And a second rotary finishing side portion.
32. The method of claim 31,
A first rotating finishing supporting portion is protrudingly formed on the first rotating finishing supporting portion,
A first rotation assisting engagement portion is protrudingly formed on the first rotation finishing side portion so as to be engaged with the first rotation finishing engagement portion,
A second rotary finishing supporting portion is protrudingly formed on the second rotary fin supporting side portion,
And a second rotation assisting engagement portion is protrudingly formed on the second rotary finishing side portion so as to be engaged with the second rotation finishing support engagement portion.
33. The method of claim 32,
Wherein the first and second rotary finishing support engaging portions and the second rotary finishing supporting engaging portion are inclined and protruded toward the first rotation assisting engagement portion and the second rotation assisting engagement portion toward the first rotation structure portion,
Wherein the first rotation latching inserting portion is recessed so that the first rotation supporting latching portion is engaged with the first rotation supporting latching portion at a position facing the first rotation supporting latching portion of the first rotation finishing latching portion, Wherein the second rotation latching inserting portion is recessed so that the second rotation assisting latching portion is engaged with the second rotation assisting engagement portion at a position facing the second rotation assisting engagement portion.
A construction method of a building frame structure having the fire retarding function of claim 2,
A step of installing the structural part on the ground of the building;
Placing a finishing material on one side of the structure;
Placing the first closed support on one side of the structural part;
The first finishing support being coupled to one surface of the structural part by the first engagement;
Placing the second closed support on the other side of the structure; And
And joining the second finishing support part to the other surface of the structural part by the second engaging part. ≪ RTI ID = 0.0 > 18. < / RTI >
A construction method of a building frame structure having the fire retarding function of claim 2,
A step of installing the structural part on the ground of the building;
Placing the first closed support on one side of the structural part;
The first finishing support being coupled to one surface of the structural part by the first engagement;
Placing a finishing material on one side of the structure;
Placing the second closed support on the other side of the structure; And
And joining the second finishing support part to the other surface of the structural part by the second engaging part. ≪ RTI ID = 0.0 > 18. < / RTI >

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