KR20220132352A - Fireproof Insulation Project Window - Google Patents

Abstract

The present invention provides a fireproof insulation project window capable of effectively meeting aesthetics and fire prevention performance while reducing the cost of production and production of windows. The fireproof insulation project window comprises: a window frame module (100) provided to form an opening (140) by a combination of upper and lower window frame frames (110, 120) and a pair of vertical window frame frames (130); a sash module (200) connected to the upper window frame (110), and having a main slot groove (230) formed on the inner peripheral surface; refractory glass (300) inserted into the main slot groove (230) and restrained by a heat-resistant insulating filler (310); and insulating glass (400) inserted into the main slot groove (230) to form an insulating layer (420) while distanced from the refractory glass (300) by a bar (410), and restrained by the heat-resistant insulating filler (310). Therefore, the fireproof insulation project window can be used to improve a window frame structure, thereby being easily produced and assembled, to have non-exposure fixing pieces which hinder the beauty of the window, thereby improving aesthetic sensibility, and to improve a double glass fixing structure and a window frame insulation structure installed on a sash, thereby satisfying fire prevention and insulation performance.

Description

Fireproof Insulation Project Window

The present invention relates to a fire insulation project window, which, if described in more detail, can effectively satisfy both aesthetics and fire protection performance while reducing the cost of window production and manufacturing.

In general, project windows are windows that open and close by pushing the windows forward. They are installed in high-rise buildings, commercial buildings, officetels, kitchen or bathroom windows, etc. .

These project windows can be installed in a narrower space than regular windows, and the opening and closing structure of the lower part of the window opening 20 to 25 degrees allows ventilation even on rainy days, There was a disadvantage of large heat loss due to exposure.

Accordingly, in Patent No. 10-2168659 disclosed in the prior art, a window frame part formed of a window frame frame forming the outer perimeter of a window and the window frame part is rotatably coupled to the window frame part through a hinge member to open and close the inside of the window frame part. A technology including a window jjja part made of, and a heat insulating unit coupled to one end of the window jjja part and installed with a glass plate has been previously registered.

In addition, in another prior art, Registered Utility Model No. 20-0486254, a base part having an insertion groove formed so as to form a "C"-shaped end on the outdoor side and a first insulating material insertion groove to be installed on the indoor side, and a side wall of the first insulating material insertion groove A coupling part connected to the upper part, a second heat insulating material insertion groove connected to the upper part of the coupling part in an indoor direction, an indoor side wall of the second insulating material insertion groove extending to form two sides, a rectangular rectangular tubular window frame support frame, the window frame a window frame frame including an inner cover formed by extending the inner wall of the support frame upward and a first gasket insertion groove formed on the upper outdoor side of the inner cover; An insertion protrusion is formed in the lower portion to be inserted into the fastening groove formed in the coupling portion, and rises vertically to form a locking jaw, and a second gasket insertion groove formed upward in the indoor direction is provided at the end of the locking jaw, and the window frame Insulation reinforcing plate coupled to the outer side of the upper portion and the inner cover of the support frame, the cross section forming a crank shape; A lower support plate that supports the lower portion of the glass panel and has a third gasket insertion groove protruding upwardly, extending vertically to an end spaced a certain distance from the third gasket insertion groove to support the side surface of the lower end of the glass panel, and at the bottom A vertical support plate having a fourth gasket insertion groove toward the interior, a third insulation insertion groove coupled to the upper portion of the vertical support plate, and a rectangular rectangular tube-shaped window body in which the indoor side wall of the third insulation insertion groove extends to form two sides window frames including; and a convection blocking gasket coupled between the glass panel and the vertical support plate.

However, the prior art is intended to improve thermal insulation in common, but due to this, the assembly structure is complicated due to the division of parts constituting the window frame, and it is difficult to construct by unskilled workers. When the pressure in the space part rises, the glass is easily separated and the fire protection performance falls short of the standard value.

On the other hand, according to the “Rules on Standards for Evacuation and Fire Protection Structures for Buildings” announced for legislation in 2021, in order to reduce casualties in case of fire and increase the safety of the building, the separation distance between the outer wall of the building and the boundary of the adjacent site must be within 1.5m. In this case, it is stipulated that the windows installed on the exterior walls should be installed as fire-proof glass windows (fire-proof windows). There is an urgent need to develop technology for project windows that can reduce costs and satisfy aesthetics and fire protection performance.

KR 10-2168659 B1 (2020.10.15.) KR 20-0486254 Y1 (2018.04.17.)

In the present invention, a new technology was invented to solve the problems of the prior art, and although it is a double-glazed project window, when a fire breaks out in a building, the performance standard as a fire door installed to prevent the flame from spreading to the outside It is an object of the present invention to provide a fire insulation project window with an improved structure so that the distortion of the door is suppressed as much as possible in case of a fire and the fire glass does not easily collapse so as to satisfy the needs of the present invention.

Furthermore, since the insulating glass is adhered to the inner circumferential surface of the door frame to form a double-layered insulating space with the fire protection glass, the insulating performance is highly improved, and when exposed to fire heat, the insulating glass is destroyed first, thereby increasing the internal pressure of the insulating space and the insulating glass. The purpose is to provide a fire insulation project window that prevents damage to the fire glass due to fragmentation.

In addition, the purpose is to improve the frame structure so that production and assembly can be made easily in order to distribute it at an economical price, and at the same time to provide a fire-proof insulation project window configured so that the interstitial rod and fixing piece that impair the aesthetics are not exposed from the inside There is this.

As a specific means for solving the problems of the above invention, in the present invention, a fire insulation project window that satisfies the fire protection performance is constituted, but the upper and lower window frame frames 110 and 120 and a pair of vertical window frame frames 130 are combined. The window frame module 100 provided to form the opening 140 by the; The upper window frame 110 is connected to the arm assembly 210 to open and close, and a lock lever 220 to maintain a closed state is installed in the interior direction, and a main slot groove 230 is formed on the inner circumferential surface. Changjjak module 200; Refractory glass 300 which is inserted into the main slot groove 230 and provided to be constrained by the heat-resistant insulating filler 310; And it is inserted into the main slot groove 230 to form a heat insulating layer 420 spaced apart from the fire resistant glass 300 by the interstitial rod 410, and a heat-resistant insulating filler provided between the window glass module 200 ( Including the insulating glass 400 that is installed to be constrained by 310),

The changjjak module 200 is bent in a 'L' shape to form a 'L'-shaped third connecting piece 201a at one end, and a U'-shaped reinforcing piece 201b at the other end to be disposed on the outdoor side. The third outer cell 201 and the third outer cell 201 are arranged opposite to each other, are bent in a 'L' shape, and are engaged with the third connecting piece 201a at one end and are bound by the fixing piece P. A 'type fourth connecting piece 202a is formed, and the other end of the third inner cell 202 is provided with a slot inner plate 202b forming a main slot groove 230 spaced apart from the reinforcing piece 201b. ) and a third heat-resistant insulating sheet 203 disposed between the third and fourth connecting pieces 201a and 202a and connecting the third and fourth connecting pieces 201a and 202a in a non-contact manner, and a 'C' type It is characterized in that it is composed of an airtight member 204 that is inserted into the 4 connection piece (202a).

At this time, the main slot groove 230 is formed with a first main groove 232 for accommodating the fire resistant glass 300 and a shallower depth than the first main groove 232 to accommodate the insulating glass 400 . Including one multi-groove 234, the fire-resistant glass 300 is coupled and constrained to the first main groove 232, and the heat-insulating glass 400 having a smaller size than the fire-resistant glass 300 has one multi-groove ( 234) is characterized in that it is installed to be constrained.

In addition, the lower sash frame 120 and the vertical sash frame 130 of the window sill module 100 are bent in a 'C' shape, and the 'L'-shaped first connecting piece 101a is provided at one end of the first outside. Cell 101 and a first step groove ( 102a) and a first inner cell 102 provided with a 'B'-shaped second connecting piece 102b engaged with the first connecting piece 101a at one end, and the first and second connecting pieces 101 and 102 The first heat-resistant insulating sheet 103, which is bound by the fixing piece P in a state inserted therebetween, and connects the first and second connecting pieces 101a and 102b in a non-contact manner, and the first stepped groove 102a. The first insert frame 105 and the first insert frame 105 in which a wing portion 105a is installed, which protrudes toward the opening 140 at one end and is in airtight contact with the edge portion of the window sill module 200, and the bottom surface of the first stepped groove 102a; A first support piece 106 that is bent inwardly at a right angle to an end of the corresponding first insert frame 105 and is double bound to the first inner cell 102 together with the first insert frame 105 by a fixing piece (P). ) is characterized in that it contains.

In addition, a fixed window module 600 is provided in at least one of the upper and lower regions of the window frame module 100, and the fixed window module 600 is a pair of connected to the vertical window frame frame 130. The vertical multi-frame 630 and the pair of vertical multi-frames 610 are orthogonally coupled to each other to form a multi-opening 632, the upper and lower multi-frames 610 and 620, and the multi-opening 632 on the inner circumferential surface. The formed multi-slot groove 640, the fixed type fire-resistant glass 650 provided to be inserted into the multi-slot groove 640 and constrained by the heat-resistant insulating filler 652, and the multi-slot groove 640 inserted into the interstitial rod ( 662) to form a multi-insulation layer 664 in a state spaced apart from the fixed fire resistant glass 650, and to include a fixed type heat insulating glass 660 constrained by a heat-resistant insulating filler 652.

In addition, the multi-slot groove 640 is formed with a second main groove 641 for accommodating the fixed fire resistant glass 650 and a shallower depth than the second main groove 641 to accommodate the fixed heat insulating glass 660 . and a second multi-groove 642, wherein the fixed insulating glass 660 is formed to have an expanded size compared to the size of the multi-opening 632 and is constrained by the second multi-groove 642, and the fixed type fire resistant glass 650 ) is formed in an expanded size compared to the fixed insulating glass 660 and is characterized in that it is constrained to the second main groove 641 .

According to the specific means for solving the above problems, the present invention improves the window frame structure so that production and assembly can be made easily in order to spread it at an economical price, and at the same time, install a fixing piece that inhibits the aesthetics of the window in a non-exposed manner Thus, it was aimed at improving the aesthetic sense of appearance.

In addition, by improving the double glass fixing structure and the window frame insulation structure installed on the window sill, there is an effect that can satisfy not only thermal insulation but also fire prevention performance.

1 is a block diagram showing the overall fire insulation project windows according to an embodiment of the present invention.
Fig. 2 is a cross-sectional view taken along line A-A' of Fig. 1;
3 is a cross-sectional view taken along line B-B' of FIG. 1 .
Figure 4 is a block diagram showing the fixed type window and door module coupling structure of the fire insulation project window according to an embodiment of the present invention.
5 is a cross-sectional view taken along line A-A' of FIG. 4;
6 is a cross-sectional view taken along line B-B' of FIG. 4;

Hereinafter, the present invention will be described in more detail according to specific embodiments of the accompanying drawings. Technical terms used in this specification are terms selected in consideration of functions in embodiments, and the meaning of the terms may vary according to specific embodiments of the present invention. And throughout the specification, when a part is "connected" to another part, this includes not only the case where it is "directly connected" but also the case where it is "indirectly connected" with another member interposed therebetween. do.

1 is a front view showing a preferred embodiment of the fire insulation project window provided by the present invention, FIG. 2 is a cross-sectional view taken along line A-A' of FIG. 1, and FIG. 3 is a cross-sectional view taken along line B-B' of FIG. it will be shown

The present invention relates to a fire insulation project window, which improves the window frame structure so that production and assembly can be made easily in order to supply it at an economical price, and at the same time, install a fixing piece that obstructs the appearance of the window in a non-exposed manner The window frame module 100 fixed to the wall of the building and the window frame module formed on the glass rim to improve the aesthetics and improve the double glass fixing structure and the window frame insulation structure installed on the window pane to satisfy the fire protection and heat insulation performance. (200), a fire resistant glass 300, consists of a main configuration including a heat insulating glass (400).

First, the window frame module 100 according to the present invention is provided to form an opening 140 by a combination of upper and lower window frame frames 110 and 120 and a pair of vertical window frame frames 130 .

Referring to the enlarged view of FIG. 2 , the lower window frame 120 and the vertical window frame 130 of the window frame module 100 are bent in a 'C' shape and have a 'L'-shaped first connection piece 101a at one end. The provided first external cell 101 and the first external cell 101 are bent in a 'C' shape symmetrical to the inner surface in the direction in which the opening 140 is positioned to have a lower height compared to the first external cell 101 . A first inner cell 102 formed with a first stepped groove 102a having a 'L'-shaped second connecting piece 102b engaged with the first connecting piece 101a at one end and provided with the first inner cell 102, and the first and second connecting pieces A first heat-resistant insulating sheet 103 that is bound by a fixing piece P in a state inserted between 101 and 102 and connects the first and second connecting pieces 101a and 102b in a non-contact manner, and the first inner , a first diaphragm cell ( 104), and a first insert frame 105 that is installed in the first stepped groove 102a and protrudes toward the opening 140 at one end to form a wing portion 105a in airtight contact with the edge of the window module 200; , is bent inwardly at right angles to the end of the first insert frame 105 corresponding to the bottom surface of the first stepped groove 102a and the first inner cell 102 together with the first insert frame 105 by means of a fixing piece (P). It includes a first support piece 106 that is double bound to the.

In this way, when the first insert frame 105 is fastened to the first inner cell 102 by the fixing piece P, the end of the first insert frame 105 is double bound by the first support piece 106 . Therefore, even when exposed to high temperatures due to fire, thermal deformation of the first insert frame 105 is suppressed, and the bonding force with the first inner cell 102 is maintained, thereby improving the durability as a fire protection window.

And the upper window frame 110 of the window frame module 100, as shown in another enlarged view of FIG. 2, is bent in a 'L' shape, and a 'U'-shaped first ring groove 111a is formed at one end of the second A second inner cell 112 that is bent into an outer cell 111 and a 'a' shape symmetrical to the second outer cell 111, and is provided with a 'a'-shaped second support piece 112a at one end; A 'a'-shaped first ring 113a is formed at one end to be inserted into the first ring groove 111a, and a 'a'-shaped first ring 113a is formed at one end to be engaged with the second support piece 112a and to be bound by the fixing piece P at the other end. The second diaphragm cell 113 in which the female-shaped second ring 113b is formed and the other end of the second inner and outer cells 111 and 112 are connected to each other, and the second inner and outer cells 111 are connected to each other. (112) is disposed between the third diaphragm cell 114 and the second support piece 112a and the second ring 113b forming a second compartment 114a filled with a heat insulating material therein, the second support piece (112a) and a second heat-resistant insulating sheet 115 for connecting the second ring (113b) in a non-contact manner.

As such, the upper and lower window frame frames 110 and 120 and a pair of vertical window frame frames 130 constituting the window frame module 100 are formed by a combination of inner and outer cells, so the structure is simple and easy to produce and assemble. It can be made, and the inner and outer cells are supported in a non-contact state by the heat insulating sheet 103 on two sides of each other, so that there is an advantage of excellent heat insulation as well as a solid assembly state.

The window sill module 200 according to the present invention is connected to the upper window frame 110 by an arm assembly 210 to open and close, and a lock lever 220 for maintaining a closed state is installed in the interior direction, and the inner circumferential surface The main slot groove 230 for installing the fire resistant glass is formed.

The configuration of the window module 200 installed at the four corners of the glass will be described based on the shape of the upper side of the glass illustrated in FIG. 2 . The changjjak module 200 is bent in a 'L' shape to form a 'L'-shaped third connecting piece 201a at one end and a U'-shaped reinforcing piece 201b at the other end to form a third external The cell 201 and the third external cell 201 are arranged opposite to each other, bent in a 'L' shape, and engaged with the third connecting piece 201a at one end to be bound by a fixing piece P. A third inner cell 202 provided with a slot inner plate 202b having a main slot groove 230 spaced apart at a position opposite to the reinforcing piece 201b at the other end of which the fourth connecting piece 202a is formed; A third heat-resistant insulating sheet 203 disposed between the third and fourth connecting pieces 201a and 202a and connecting the third and fourth connecting pieces 201a and 202a in a non-contact manner, and a 'C'-shaped fourth connecting piece ( It includes an airtight member 204 that is inserted into 202a).

As such, the 'b'-shaped third connecting piece 201a of the third outer cell 201 and the 'c'-shaped fourth connecting piece 202a of the third inner cell 202 are connected to each other on two surfaces of the third heat-resistant insulating sheet 203 ) is connected and supported as a medium, so it blocks the heat flow through the window module 200, so it has excellent thermal insulation, prevents overheating of the external cell due to internal heat in the event of a fire, and furthermore, a fixing piece that binds the internal and external cells ( P) is not exposed to the outside by the airtight member 204, so the aesthetic quality is improved.

The main slot groove 230 is formed with a first main groove 232 for accommodating the fire resistant glass 300 and a shallower depth than the first main groove 232 to accommodate the insulating glass 400 . groove 234 . Here, the heat insulating glass 400 having a smaller size than the fire resistant glass 300 is constrained to one multi-groove 234 , and the fire resistant glass 300 is installed to be constrained to the first main groove 232 .

The fire resistant glass 300 according to the present invention is inserted into the main slot groove 230 and is provided to be constrained by the heat-resistant insulating filler 310 . For example, the fire resistant glass 300 is formed of 5-7t borosilicate fire resistant glass, and the edge portion is inserted into the main slot groove 230 and is constrained by the heat-resistant insulating filler 310 including glass wool.

In addition, the fire resistant glass 300 may be configured to adjust the installation height by the support board 500 inserted and installed in the main slot groove 230 .

The heat-resistant insulating filler 310 is installed between the main slot groove 230 and the fire-resistant glass 300 in a compressed state, and the fire-resistant glass 300 is pressurized and constrained by the expansion and restoring force of the heat-resistant insulating filler 310 .

In the event of a fire, when the fire protection glass 11 is exposed to high temperature for a certain period of time, the physical properties of the glass in a hard solid state are weakened and deformation of the glass in the direction of gravity occurs. ) is compressed and fixed from the front and rear, so even if the window module is deformed by high heat during an actual fire or fire prevention performance test, the fireproof glass 300 does not easily collapse and can maintain a solid state for a long time.

The insulating glass 400 according to the present invention is inserted into the main slot groove 230 to form the insulating layer 420 in a state spaced apart from the fire resistant glass 300 by the interstitial rod 410, and the third inner cell 202 ) and is provided to be constrained by the heat-resistant insulating filling material 310 formed between the ?

And, the inside of the heat insulating layer 420 is formed in a vacuum state or an air layer or a heat insulating gas layer to block the heat flow due to the temperature difference between the inside and outside.

The insulating glass 400 is formed of 4 to 6t thick general low-e glass or non-tempered glass, that is, the insulating glass 400 is formed to have a thinner thickness than the fire resistant glass 300, It is applied as a specification that is easily damaged when exposed to fire heat.

As such, since the edge of the fire resistant glass 300 is firmly supported by being inserted relatively deeply into the first main groove 232, the fire resistant glass 300 restraining force from thermal pressure in case of fire is firmly maintained, and the insulating glass ( 400) is installed at a relatively shallow depth compared to the fire resistant glass 300, and is configured to be quickly released when the internal pressure of the heat insulating layer 420 rises due to a fire, so that the fire resistant glass 300 is safely protected from thermal pressure, and in particular, the heat insulation After the glass 400 is removed, the fire resistant glass 300 is firmly restrained in the main slot groove 230 and is prevented from breaking and breaking while blocking the movement of flames and fire gases and visually identifying the situation on the opposite side of the door This will improve the efficiency of lifesaving and firefighting work.

4 is another embodiment of a fire-insulation project window, and is a configuration diagram showing a structure in which a fixed type window module is combined, FIG. 5 is a cross-sectional view taken along line A-A' of FIG. 4, and FIG. 'It is a cross-sectional line.

A fixed window module 600 may be provided in any one or more regions of the upper and lower regions of the window frame module 100 . 4 shows a state in which the fixed window module 600 is applied to the upper region of the window frame module 100 .

The fixed window module 600 is orthogonally coupled to a pair of vertical multi-frames 630 connected to the vertical window frame 130 and a pair of vertical multi-frames 610 to form a multi-opening 632 . The upper and lower multi-frames 610 and 620, the multi-slot groove 640 formed on the inner peripheral surface of the multi-opening 632, and the multi-slot groove 640 are inserted into the multi-slot groove 640 to be constrained by the heat-resistant insulating filler 652. The provided fixed fire-resistant glass 650 and the multi-slot groove 640 are inserted to form a multi-insulation layer 664 in a state spaced apart from the fixed fire-resistant glass 650 by an interstitial rod 662, and a heat-resistant insulating filler 652 ) includes a fixed insulating glass 660 that is constrained by.

Specifically, the vertical multi-frame 630 and the upper and lower multi-frames 610 and 620 of the fixed window module 600 are bent in a 'C' shape and have a 'L'-shaped fifth connection piece 601a at one end. The fourth external cell 601 provided with this, and the fourth stage is bent in a 'C' shape symmetrical to the fourth external cell 601 , and the surface on which the glass is placed has a lower height compared to the fourth external cell 601 . A fourth inner cell 602 that forms a jaw groove 602a and is provided with a 'L'-shaped sixth connecting piece 602b engaged with the fifth connecting piece 601a at one end, and the fifth and sixth connecting pieces 601a The fourth heat-resistant insulating sheet 603, which is bound by the fixing piece P in a state inserted between the 602b, and connects the fifth and sixth connecting pieces 601a and 602b in a non-contact manner, and the fourth inner and outer The fourth diaphragm cell 604 is installed to connect the other ends of the cells 601 and 602 to each other, and forms a fourth compartment 604a filled with a heat insulating material inside the fourth inner and outer cells 601 and 602. ), a second insert frame 605 installed in the fourth stepped groove 602a to form a multi-slot groove 640, and a second insert frame 605 corresponding to the bottom surface of the fourth stepped groove 602a. and a fourth support piece 606 that is bent inwardly at right angles to the end and is double bound to the fourth inner shell 602 together with the second insert frame 605 by the fixing piece P.

At this time, the lower multi-frame 620 of the fixed window module 600 corresponds to the upper window frame 110 of the window frame module 100 .

The multi-slot groove 640 is formed with a second main groove 641 for accommodating the fixed fireproof glass 650 and a shallower depth than the second main groove 641 to accommodate the fixed type heat insulating glass 660 . 2 includes a multi-groove 642 . Here, the fixed insulating glass 660 is formed in a size larger than the area of the multi-opening 632 and is constrained by the second multi-groove 642, and the fixed fire-resistant glass 650 is expanded compared to the fixed insulating glass 660. It is formed in a size and is constrained to the second main groove 641 .

As such, as the multi-slot groove 640 is simply opened and closed by the second insert frame 605 , the installation and replacement workability of the fixed fire resistant glass 650 and the fixed fire resistant glass 650 is improved.

The fire insulation project windows provided by the present invention is a longitudinal cross-sectional view showing an example of a state in which the fire insulation project windows of the present invention are exposed to fire, insulated glass main slot groove 230 or multi-slot groove 640 Since the edge surface is installed to be seated on the inner circumferential surface of the multi-groove 234 or the second multi-groove 642 without being installed inside, the insulating glass cannot withstand high temperature when exposed to fire heat and is first independently destroyed and can be easily separated and removed. can If the insulating glass cannot be removed at the initial stage in case of a fire, the internal pressure of the insulating layer may rise and an explosion may occur. .

Even after the heat-insulating glass is removed due to the heat of fire, the fire-resistant glass is firmly restrained in the main groove 232 or the second main groove 641, and all gaps between the fire-resistant glass and the frame are tightly closed by the heat-resistant insulating filler. As it maintains the state in which it is in a closed state, it is possible to not only suppress the breakage and separation of the fireproof glass due to the internal heat pressure and high temperature of the fire space as much as possible, but also to firmly perform the function as a fire door to block the leakage of flames and fire gases.

Furthermore, the fire insulation project windows provided by the present invention are configured so that the interstitial rods and the fixing pieces that impair the aesthetic sense are not exposed from the inside.

That is, the window frame module 100 and the window frame module 200 are divided into two inner and outer cells and are connected in a non-contact manner through an insulating sheet. Invisible to the naked eye, and also in the case of the cross rods 410 and 662, as their positions are arranged in the multi-groove 234 and the second multi-groove 642, they are not exposed to the outside, so the effect of improving the aesthetics is effective. have.

As described above, in the detailed description of the present invention, the most preferred embodiment of the present invention has been described, but various modifications are possible within the scope not departing from the technical scope of the present invention. Therefore, the protection scope of the present invention is not limited to the above embodiments, but the protection scope should be recognized from the techniques of the claims to be described later and equivalent technical means from these techniques.

100: window frame module
101: first outer cell 101a: first connection piece 102: first inner cell
102a: first stepped groove 102b: second connecting piece 103: first heat-resistant insulating sheet
104: first partition cell 104a: first compartment 105: first insert frame
105a: wing portion 106: first support piece 110: upper window frame
111: second outer cell 111a: first ring groove 112: second inner cell
112a: second support piece 113: second diaphragm cell 113a: first ring
113b: second ring 114: third diaphragm cell 114a: second compartment
115: second heat-resistant insulating sheet 120: lower window frame frame 130: vertical window frame frame
140: opening
200: window module
201: third outer cell 201a: third connecting piece 201b: reinforcing piece
202: third inner cell 202a: fourth connection piece 202b: slot inner plate
203: third heat-resistant insulating sheet 204: airtight member 210: arm assembly
220: lock lever 230: main slot groove 232: main groove
234: multi-home
300: fireproof glass
310: heat-resistant insulating filler
400: insulating glass
410: intervening 420: insulating layer
600: fixed window module
601: fourth outer cell 601a: fifth connection piece
602: fourth inner cell 602a: fourth stepped groove 602b: sixth connecting piece
603: fourth heat-resistant insulating sheet
604: fourth partition cell 604a: fourth compartment 605: second insert frame
606: fourth support piece 610: upper multi-frame 620: lower multi-frame
630: vertical multi-frame 632: multi-opening
640: multi-slot home 641: second main home 642: second multi-home
650: fixed fire-resistant glass 652: heat-resistant insulating filler
660: fixed insulating glass 662: interbonding 664: multi-insulating layer
500: support board P: fixing piece

Claims (7)

a sash module 100 provided to form an opening 140 by a combination of upper and lower sash frames 110 and 120 and a pair of vertical sash frames 130;
The upper window frame 110 is connected to the arm assembly 210 to open and close, and a lock lever 220 to maintain a closed state is installed in the interior direction, and a main slot groove 230 is formed on the inner circumferential surface. Changjjak module 200;
Refractory glass 300 which is inserted into the main slot groove 230 and provided to be constrained by the heat-resistant insulating filler 310; and
It is inserted into the main slot groove 230 to form a heat insulating layer 420 spaced apart from the fire resistant glass 300 by the interstitial rod 410 , and a heat-resistant insulating filling material 310 provided between the window glass module 200 and the refractory glass 300 . ) includes an insulating glass 400 that is installed to be constrained by,
The changjjak module 200,
A third external cell 201 that is bent in a 'L' shape to form a 'L'-shaped third connecting piece 201a at one end, and a U'-shaped reinforcing piece 201b at the other end, which is disposed on the outdoor side and ,
A 'C'-shaped fourth connecting piece 202a that is disposed opposite to the third external cell 201 and bent in a 'L' shape and is engaged with the third connecting piece 201a at one end and is bound by the fixing piece P is A third inner cell 202 provided with a slot inner plate 202b forming a main slot groove 230 spaced apart from the other end at a position opposite to the reinforcing piece 201b;
a third heat-resistant insulating sheet 203 disposed between the third and fourth connecting pieces 201a and 202a and connecting the third and fourth connecting pieces 201a and 202a in a non-contact manner;
Fire insulation project window, characterized in that it is composed of an airtight member (204) inserted into the 'c'-shaped fourth connecting piece (202a).
The method of claim 1,
The main slot groove 230 is formed with a first main groove 232 for accommodating the fire resistant glass 300 and a shallower depth than the first main groove 232 to accommodate the insulating glass 400 . a groove 234;
The fire resistant glass 300 is coupled and constrained to the first main groove 232, and the heat insulating glass 400 having a smaller size than the fire resistant glass 300 is installed so as to be constrained by one multi-groove 234. Fireproof insulation project windows.
The method of claim 1,
The lower window frame 120 and the vertical window frame 130 of the window frame module 100 are,
A first external cell 101 bent in a 'C' shape and provided with a 'L'-shaped first connecting piece 101a at one end,
The first external cell 101 and the symmetrical 'C' shape bent to form a first stepped groove (102a) having an inner surface in the direction in which the opening 140 is located has a lower height than the first external cell 101, and one end A first inner cell 102 provided with a 'L'-shaped second connection piece 102b engaged with the first connection piece 101a and fastened thereto;
A first heat-resistant insulating sheet 103 which is bound by a fixing piece P in a state inserted between the first and second connecting pieces 101 and 102 and connects the first and second connecting pieces 101a and 102b in a non-contact manner. )Wow,
A first insert frame 105 that is installed in the first stepped groove 102a and protrudes toward the opening 140 at one end to form a wing portion 105a in airtight contact with the edge of the window module 200;
The first inner cell 102 is bent inwardly at right angles to the end of the first insert frame 105 corresponding to the bottom surface of the first stepped groove 102a, and the first insert frame 105 together with the first insert frame 105 by a fixing piece (P). Fire insulation project windows, characterized in that it comprises a first support piece (106) that is double bound to.
4. The method of claim 3,
The upper window frame 110 of the window frame module 100 is,
A second outer cell 111 that is bent in a 'L' shape and has a 'U'-shaped first ring groove 111a formed at one end thereof, and
A second inner cell 112 that is bent in a 'L' shape symmetrical to the second external cell 111, and is provided with a 'L'-shaped second support piece 112a at one end, and;
A 'a'-shaped first ring 113a is formed at one end to be inserted into the first ring groove 111a, and a 'a'-shaped first ring 113a is formed at one end to be engaged with the second support piece 112a and to be bound by the fixing piece P at the other end. A second diaphragm cell 113 in which a female-shaped second ring 113b is formed, and
The second inner and outer cells 111 and 112 are installed to connect the other ends to each other, and the second inner and outer cells 111 and 112 form a second compartment 114a filled with an insulating material. 3 diaphragm cell 114 and,
It is disposed between the second support piece (112a) and the second ring (113b), and includes a second heat-resistant insulating sheet 115 for connecting the second support piece (112a) and the second ring (113b) in a non-contact manner. Fireproof insulation project windows characterized by.
The method of claim 1,
A fixed window module 600 is provided in any one or more of the upper and lower regions of the window frame module 100, and the fixed window module 600 is a pair of vertical multi The frame 630 and the upper and lower multi-frames 610 and 620 and the multi-opening 632 that are orthogonally coupled to the pair of vertical multi-frames 610 to form a multi-opening 632 are formed on the inner peripheral surface of the multi-opening 632 The multi-slot groove 640 and the fixed fire-resistant glass 650 which is inserted into the multi-slot groove 640 and is provided to be constrained by the heat-resistant insulating filler 652, and the multi-slot groove 640 is inserted into the interstitial rod 662 Fire insulation project windows, characterized in that it forms a multi-insulation layer 664 in a state spaced apart from the fixed fireproof glass 650 by
6. The method of claim 5,
The vertical multi-frame 630 and the upper and lower multi-frames 610 and 620 of the fixed window module 600 are,
A fourth external cell 601 bent in a 'C' shape and provided with a 'L'-shaped fifth connection piece 601a at one end,
The fourth external cell 601 is bent into a 'C' shape symmetrical, and the surface on which the glass is placed forms a fourth stepped groove 602a having a lower height than that of the fourth external cell 601 , and at one end a fifth A fourth inner cell 602 provided with a 'L'-shaped sixth connecting piece 602b engaged and fastened with the connecting piece 601a;
A fourth heat-resistant insulating sheet 603 which is bound by the fixing piece P while being inserted between the fifth and sixth connecting pieces 601a and 602b and connects the fifth and sixth connecting pieces 601a and 602b in a non-contact manner. )Wow,
a second insert frame 605 installed in the fourth stepped groove 602a to form a multi-slot groove 640;
The fourth inner cell 602 is bent inwardly at a right angle to the end of the second insert frame 605 corresponding to the bottom surface of the fourth stepped groove 602a, and is together with the second insert frame 605 by a fixing piece (P). Fire insulation project windows, characterized in that it comprises a fourth support piece (606) that is double bound to the.
6. The method of claim 5,
The multi-slot groove 640,
A second main groove 641 for accommodating the fixed fireproof glass 650, and a second multi-groove 642 formed to a shallower depth than the second main groove 641 for accommodating the fixed insulating glass 660, and , the fixed insulating glass 660 is formed in an expanded size compared to the size of the multi-opening 632 and is constrained by the second multi-groove 642, and the fixed fire resistant glass 650 is expanded compared to the fixed insulating glass 660 Fire insulation project windows, characterized in that formed in size and constrained to the second main groove (641).

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