KR102231117B1 - Sliding windows having windbreak structure of check rails for auxiliary rail - Google Patents

Abstract

The present invention relates to a non-seogi window having a windbreak structure for an auxiliary rail, the object of which is to block the air inflow through the auxiliary rail groove formed in the window of the non-seogi window on which the auxiliary rail is formed. Auxiliary rail that improves airtightness and insulation performance by installing a wind paper insulating member on the rail and having a multiple airtight structure in the window frame located around the wind paper insulating member to block horizontal and vertical air flow through the auxiliary rail groove. It is to provide a window for the secretary with a wind-ji structure.
The configuration of the present invention includes a window frame provided with an auxiliary rail in which the airtight member 122 is formed; In the non-seogi window comprising; a window sill formed with wind chimes, comprising: a wind chim insulating member 4 installed in a fastening zone of the auxiliary rail 12 formed on the window frame; The first airtight portion, the second vertical frame 25 installed on the first vertical frame 24 constituting the vertical frame of each window so as to provide airtightness and heat insulation for the fastening zone by contacting the wind paper insulation member 4 Including a second airtight portion installed in the second airtight structure consisting of a third airtight portion formed on the third vertical frame 26; including the upper portion of the wind chime blade portion 22 formed in the first vertical frame 24 of each of the windows It is a feature of the invention to have a non-seogi window having a windbreak structure for an auxiliary rail that is configured to block air inflow through the auxiliary rail groove 23 formed at the bottom.

Description

Sliding windows having windbreak structure of check rails for auxiliary rail

The present invention relates to a non-seogi window having a windbreak structure for an auxiliary rail, and in detail, air introduced through an auxiliary rail groove formed on the window by installing a windbreak insulation member in the fastening area of the non-seogi window on which the auxiliary rail is formed. It relates to a window with improved airtightness and insulation performance by blocking the flow.

Window refers to a window and a door. It is used for indoor ventilation or indoor ventilation by isolating indoors and outdoors to block wind, and the structure is basically fixed to the window frame (or door frame) and the window frame that form the frame. Or it consists of a window (or door) that is mounted to be operated.

Among these windows, Miseogi windows are the most common windows in Korea.Since the rollers installed under the windows run along the rails installed on the window frames, air from outside the room flows in through the gap between the rails and the lower part of the windows without rollers. There is a structural disadvantage of being vulnerable to airtightness or insulation due to structural problems that are leaked or leaked.

To prevent this, various technologies have been disclosed, such as installing a horizontal wind finger plate between the rail and the rail installed in the window to supplement airtightness and insulation performance, or by attaching a wind finger plate to the side rail groove of the window frame to supplement airtightness and insulation performance. .

On the other hand, recently, instead of installing a member such as a horizontal wind finger plate with a complex structure, an auxiliary rail is installed between the rail to form airtight grooves on both sides, so that the mohair or gasket installed there is in contact with the horizontal frame of the window. There are also many suliding windows that provide airtightness and insulation.

However, the sliding window provided with the auxiliary rail as described above has another structural problem in that the distance between the rail and the rail increases as much as the auxiliary rail installation space due to the structure, so that a gap between the window and the window occurs based on the driving direction.

Therefore, the window frame of the sliding window in which most of the auxiliary rails are formed is generally configured to block the side space formed by the auxiliary rail by extruding the wind chime blades formed by extending the vertical frame toward the neighboring windows.

However, in order to assemble the window sill on the window frame on which the auxiliary rail is formed despite such a change in the design of the vertical frame, the auxiliary rail grooves in which the upper and lower ends of the pungji wing part are cut to prevent interference with the auxiliary rail must be formed. Of course, it is natural that such auxiliary rail grooves are formed equally in the main rail.

When such an auxiliary rail groove is formed, the auxiliary rail does not get caught when assembling the window sill to the window frame.

At this time, the auxiliary rail groove at the top is formed larger. The reason is that the general method of assembling a window sill is that the upper horizontal frame of the window sill is inclined to the front, and it is inserted into the upper rail of the sill, rotates to fit the lower horizontal frame, and then lifts the window sill and removes the rollers installed at the lower part of the window sill. The groove formed at the top should be larger than the groove formed at the bottom of the window sill because it must be put down after being placed on the window frame frame.

Accordingly, the auxiliary rail groove formed at the upper end of the pungji wing portion is formed larger than the auxiliary rail groove formed at the lower end.

As described above, the window panel having the wind paper blades formed at the upper and lower ends of the auxiliary rail grooves is able to maintain a lateral contact with the mohair or gasket installed on the auxiliary rail, thereby providing airtightness and heat insulation.

However, since the fastening part cannot contact the vertical frame, it is impossible to contact the mohair or gasket by the auxiliary rail formed on the vertical frame. There is a structural problem in that air from the inside and outside of the air flowing through the auxiliary rail grooves formed at the upper and lower ends of the windbreaker is circulated with each other in the closure region in the closed state, thereby deteriorating the airtightness and thermal insulation performance.

Therefore, it is urgent to solve these problems.

Korean Registered Patent Publication No. 10-1236979 (2013.02.19.) Korean Patent Publication Registration No. 10-1263342 (2013.05.06.) Korean Utility Model Gazette Registration No. 20-0465549 (2013.02.19.) Korean Registered Patent Publication No. 10-1581294 (2015.12.23.)

An object of the present invention for solving the above problems is to install a windbreak insulating member on the auxiliary rail of the section in the fastening zone so as to block air flowing through the auxiliary rail groove formed in the window of the non-seogi window in which the auxiliary rail is formed, Misagegi having a windbreak structure for auxiliary rails that improves airtightness and insulation performance by intercepting horizontal and vertical airflow through the auxiliary rail groove by having a multiple airtight structure in the window frame located around this wind paper insulation member. It is to provide windows.

The present invention for achieving the object as described above and performing the problem of removing the conventional defects is a window frame provided with an auxiliary rail provided between the rails and formed with an airtight member for sealing neighboring windows; In the non-seogi window and the door comprising a; windshield wing portion is formed to airtight the space where the auxiliary rail is installed,

A windbreak insulation member installed in the fastening zone of the auxiliary rail formed on the window frame; The first airtight portion installed on the first vertical frame constituting the vertical frame of each window so as to provide airtightness and heat insulation for the fastening zone by contacting the wind paper insulation member, a second airtight portion installed on the second vertical frame, and a third Including a multiple airtight structure consisting of a third airtight portion formed in the vertical frame; Including, characterized in that it is configured to block air inflow through the auxiliary rail grooves formed in the upper and lower portions of the wind blades formed in the first vertical frame of each of the windows. It is achieved by providing a non-seogi window with a windbreak structure for the auxiliary rail.

In a preferred embodiment, the wind paper insulation member is composed of a heat insulating material extruded in a column shape, and one or more fastening grooves are formed vertically on the inside to be fixed to the upper end of the auxiliary rail and the fastening member, and an airtight packing groove is formed along the perimeter. It can be configured to insert an airtight packing with elastic force.

In a preferred embodiment, the airtight packing groove may be formed on all four circumferential surfaces of the windbreak insulating member, or formed only on two surfaces of an outdoor side and an indoor side of a window facing each other.

In a preferred embodiment, the shape of the airtight packing may be selected from a rectangular shape, a repeated wave pattern, a repeated uneven pattern, and a shape processed into a repeated sawtooth pattern.

In a preferred embodiment, the shape of the flat cross section of the airtight packing is configured such that any one shape selected from a wave pattern, an uneven pattern, and a sawtooth pattern is repeatedly arranged in the same size, and the selected shape at the end extends to have a protruding shape. I can.

In a preferred embodiment, the first airtight portion may be composed of an airtight packing groove that is vertically extruded from an upper side of the auxiliary rail groove on an inner surface of the wind paper blade of the first vertical frame and an airtight packing inserted into the airtight packing groove.

In a preferred embodiment, the second airtight portion is formed to protrude in the shape of a wall in the lateral direction in which the wind paper insulation member is installed at a point adjacent to the first airtight portion of the first vertical frame of the window facing from the third vertical frame. The first airtight part is in contact with the airtight packing surface, and the other side is in surface contact with the airtight packing inserted into the side surface of the airtight insulating member or the side of the airtight insulating member to block the vertical movement of air introduced through the auxiliary rail groove. have.

In a preferred embodiment, the third airtight part is extruded in a vertical direction to increase airtightness and thermal insulation performance by protruding from the third vertical frame in a lateral direction facing the airtight insulation member to contact the airtight packing installed on the airtight insulation member. The protrusions and grooves may be arranged and configured in the longitudinal direction.

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In the case of the present invention as described above, a wind paper insulating member made of an insulating material is installed on the auxiliary rail of the fastening zone, and a multiple airtight structure is formed on the window to increase the airtightness and heat insulation performance of the wind paper insulating member. The advantage of improving airtightness and insulation performance by blocking air flow in the lateral and vertical directions through the auxiliary rail grooves formed at the upper and lower ends of the wind chime wing of the formed non-seogi window, thereby providing a non-seogi window with high energy efficiency. This is a useful invention that is highly expected to be used in the industry.

1 is a cross-sectional plan view of a window with a windbreak insulation member according to an embodiment of the present invention,
Figure 2 is a side cross-sectional view of a window with a windbreak insulation member according to an embodiment of the present invention,
3 is a perspective view of a wind paper insulation member according to an embodiment of the present invention,
Figure 4 is a plan cross-sectional view of the airtight insulation member installed with an airtight packing according to an embodiment of the present invention,
5 is a perspective view of a windbreak insulation member according to another embodiment of the present invention,
Figure 6 is a plan cross-sectional view of the airtight insulation member installed with an airtight packing according to another embodiment of the present invention,
7 is a cross-sectional view showing a multiple airtight structure formed on a vertical frame of a window according to an embodiment of the present invention,
8 is an enlarged exemplified view showing a contact structure between the packing member of the windbreak insulation member and the airtight structure formed on the window,
9 is an exemplary side cross-sectional view showing the height between the packing member of the windbreak insulating member and the airtight structure formed on the window panel according to an embodiment of the present invention,
FIG. 10 is an exemplary view showing an open state of one side of a window pane provided with a windbreak insulating member according to an embodiment of the present invention,
11 is an exemplary view showing an open state of the other side of the window pane provided with a windbreak insulating member according to an embodiment of the present invention.

Hereinafter, the configuration and operation of the embodiments of the present invention will be described in detail in connection with the accompanying drawings. In addition, in describing the present invention, when it is determined that a detailed description of a related known function or configuration may unnecessarily obscure the subject matter of the present invention, a detailed description thereof will be omitted.

In addition, hereinafter, the vertical direction or the horizontal direction refers to the vertical direction of the non-ceremonial window and the vertical direction based on the state in which the non-ceremonial window is installed in the building, and the longitudinal direction, which is the left-right direction or the front-rear direction, is the horizontal direction. .

In addition, the configuration description hereinafter will be described based on the structure of a single window with a single elevation formed in one layer for convenience of explanation, but it is a matter of course that the same can be applied to an elevation split window made of two or more layers, a double window, or a triple window. Further, the glass includes single-pane glass, double glass, triple glass, and the like.

In addition, the materials used for the post office window below are metal materials and synthetic resin materials, and the metal materials are preferably aluminum materials, but other metal materials may also be used, and the synthetic resin material is preferably PVC, Polyurethane and polyamide materials, but other synthetic resin materials may be used as long as they can provide insulation.

In addition, hereinafter, the fastening zone refers to an area in which the frames of the facing window frames overlap each other in a state where two windows installed inside the window frame and traveling in the left and right directions are closed, and the position is usually the center of the window frame.

1 is a flat cross-sectional view of a non-seogi window having a windbreak insulation member according to an embodiment of the present invention, and FIG. 2 is a side cross-sectional view of a non-seogi window having a windbreak insulation member according to an embodiment of the present invention, 3 is a perspective view of a wind paper insulation member according to an embodiment of the present invention, FIG. 4 is a cross-sectional plan view of a wind paper insulation member installed with an airtight packing according to an embodiment of the present invention, and FIG. 5 is another embodiment of the present invention. It is a perspective view of the wind paper insulation member according to, and FIG. 6 is a plan sectional view of the wind paper insulation member with airtight packing according to another embodiment of the present invention, and FIG. 7 is a multilayer structure formed on a vertical frame of a window panel according to an embodiment of the present invention. A cross-sectional view showing an airtight structure, and FIG. 8 is an exemplary view showing a contact structure between a packing member of an airtight insulation member and an airtight structure formed on a window according to an embodiment of the present invention, and FIG. 9 is It is an exemplary side cross-sectional view showing the height between the packing member of the wind paper insulation member and the airtight structure formed on the window, and FIG. 10 shows a state in which one side of the window of the secretary window provided with the wind paper insulation member according to an embodiment of the present invention is opened. It is an exemplary view, and FIG. 11 is an exemplary view showing a state in which the other side of the window of the non-seogi window provided with the windbreak insulation member according to an embodiment of the present invention is opened.

As shown in the present invention, the window frame 1 in which the windbreak insulation member 4 is installed in the fastening zone of the auxiliary rail 12 located between the rails 11; It is a non-seogi window consisting of a windowpane (2) formed with a multiple airtight structure that is in contact with the airtight insulation member (4) to perform airtightness and heat insulation.

The window frame (1) is provided with two rails (11) on which the rollers (21) attached to the lower part of each window (2) travel, and an auxiliary rail (12) positioned between the rails to perform an airtight function. .

The auxiliary rail 12 has airtight grooves 121 formed in both directions orthogonal to the longitudinal direction, and airtight members 122 such as mohairs or gaskets are inserted into the airtight grooves 121 to be positioned on both sides. ) And shuts off the air flow and acts as an airtight. That is, because of the roller 21 installed at a point in the lower part of the window panel 2, it is possible to block the flow of air flowing through the gap that is structurally formed between the lower end of the window panel 2 and the upper end of the rail 11 raised from the rail. do.

In particular, the present invention is provided with a plurality of airtight sealing members 4 provided with a plurality of airtight packings 42 on the auxiliary rail 12 of the fastening zone, and the window pane 2 facing both sides of the auxiliary rail 12 for the fastening zone. It is configured to block air inflow through the auxiliary rail grooves 23 respectively formed on the upper and lower portions of the air-tight blades 22 formed in the windowpane 2 by forming a multiple airtight structure having an airtight function together with the air-tight insulation member 4 .

The window panel 2 is configured to run in the left and right directions on each rail 11 formed on the window frame 1 by a roller 21 installed on the lower or upper part of the window frame 1 with the glass 3 installed inside the window panel 2 do.

At least a vertical frame among the horizontal and vertical frames constituting the window pane 2 includes a first vertical frame 24 in which an extended wind blade 22 is formed to airtight the space on the side of the auxiliary rail 12, and the first The second vertical frame 25 is located on the outside of one side of the vertical frame 24 in a perpendicular direction and coupled, and the second vertical frame 25 is located on the side of the auxiliary rail 12 on the other side of the first vertical frame 24 in a right angle direction. Consisting of a third vertical frame 26, a plurality of vertical frames in charge of each side are assembled to each other to constitute the windowpane (2).

In addition, the horizontal frame constituting the window pane 2 may be extruded into a single frame or assembled by extruding a plurality of frames.

On the other hand, in the following description, for convenience of description, the vertical frame of the window panel 2 is divided into a first vertical frame 24, a second vertical frame 25, and a third vertical frame 26, or if necessary. It can be described as a window frame (2), a window frame or a vertical frame.

Hereinafter, in more detail, an airtight and heat-insulating structure installed in the fastening section according to the present invention to block the air flow flowing through the auxiliary rail groove 23 will be described. However, for convenience of explanation, only the airtight and thermal insulation structure in the fastening section located under the window frame 1 will be described, and the description of the auxiliary rail groove and the fastening section section located at the top will be omitted. The only difference is that the undescribed upper auxiliary rail groove 23 is formed longer than the auxiliary rail groove 23 formed in the lower portion of the vertical length only, and since it is basically the same configuration, a redundant description will be omitted. In addition, the height of the airtight insulation member 4 and the height of each airtight packing according to the size of the auxiliary rail groove 23 may also be different, but the description of the structure and the description of the effects of the operation are the same, and thus will be omitted.

In the present invention, the wind paper insulation member 4 is piece-coupled to the upper end of the auxiliary rail 12 for the fastening zone, and the auxiliary wind blades 22 formed at the top and the bottom of the windbreak vertical frame located in the fastening zone of the window 2 It is configured to block the inflow of air through the rail groove (23).

In addition, each of the windows (2) located in the fastening zone and facing each other is formed on a vertical plane facing the inner side of the wind paper blade 22 and the side of the wind paper insulation member (4), so that the wind paper insulation member ( It is configured to block air inflow through the auxiliary rail grooves 23 formed at the lower and upper portions of the airtight blades 22 by increasing the airtightness and heat insulation provided by 4).

The reason why the airtight insulation member 4 is composed of an insulator material rather than a metal material is an extruded material that blocks the flow of wind flowing through the auxiliary rail groove 23 so that it is sufficient to make it airtight. This is because the metal material in contact with the heat conduction is large and it is weak in terms of insulation. As the heat insulating material used, any synthetic resin material having heat insulating performance may be used, but preferably PVC, polyurethane, and polyamide have the best physical properties such as strength and heat insulating performance after extrusion.

In addition, the material constituting the airtight packing 42 may be made of a natural or synthetic rubber material having excellent thermal insulation performance or a urethane foam material having elasticity as a material that expands or contracts with elasticity.

The wind paper insulation member 4 is a heat insulating material extruded to have a quadrangular column shape in one embodiment, and one or more fastening grooves 43 are vertically formed on the inner side of the upper end of the auxiliary rail 12 located under the fastening groove. It is fixed with a fastening member (not shown) such as pieces and screws to provide airtightness and heat insulation in the fastening space.

In addition, the airtight sealing member 4 is configured such that an airtight packing groove 41 is formed along the circumference so that the airtight packing 42 having elasticity is inserted. The forming position of the airtight packing groove 41 may be formed on all four surfaces in the longitudinal direction as in the illustrated embodiment, and, as in the other illustrated embodiment, the window panel 2 located on two surfaces in the longitudinal direction, that is, the outdoor side. ) And can be formed only in the direction of the window (2) located on the side of the interior.

The shape of the flat cross-section of the airtight packing 42 is processed in a rectangular shape, or a wave pattern in which the protrusions of rounded corners are repeated at regular intervals to increase elasticity, airtightness, and thermal insulation performance, irregular patterns in which right-angled protrusions are repeated, and a triangular shape. It can be processed into a repeating sawtooth pattern.

The shape of the airtight packing 42 has a structure in which a wave pattern, an uneven pattern, and a sawtooth pattern are repeatedly arranged on the side in contact with the window frame. The airtight packing 42 having such a structure has a length of the protruding portion being formed longer than the distance to the contact surface of the window frame, so that it is bent in one direction during the contacting process or contracted by pressure, thereby increasing the airtight performance. In addition, the protrusion and the protrusion in contact with the surface of the window frame are airtight to form an air layer in which the space is sealed, thereby increasing thermal insulation performance.

In addition, the shape of the airtight packing has a shape in which protruding shapes of the same size with wavy, uneven, and serrated shapes are arranged repeatedly as described above, and then any one shape located at the end is extended to protrude. It can also be configured to have a shape. Due to this structure, the length is increased than the protrusions arranged in the same size, and the contact area increases as the contact area increases while contacting the window sill first before contacting the window sill. Can be maximized.

The airtight packing 42 whose surface has been processed to have various shapes as described above has the advantage of increasing not only the thermal insulation performance by the physical properties of the material, but also the thermal insulation performance by the contact structure with the window, and thus is preferable.

In one embodiment, the number of the airtight packing grooves 41 and the airtight packing 42 formed in the airtight insulation member 4 is formed by one for each side of the longitudinal direction, that is, the longitudinal direction, that is, the number of the airtight packing grooves 41 and the airtight packing 42. It can be configured to contact the vertical frame of the window by forming two for each side in the direction of the outdoor window and the direction of the indoor window that intersect with the longitudinal direction.

In another embodiment, the number of airtight packing grooves 41 and airtight packings 42 formed in the wind paper insulation member 4 is a running direction, that is, per side of each side in the direction of the outdoor side and the direction of the indoor side that intersects the length direction. It can be formed by three each to be in contact with the vertical frame of the window sill.

On the other hand, the multiple airtight structure formed in the vertical frame of each of the windows assembled consisting of the first vertical frame 24, the second vertical frame 25, and the third vertical frame 26,

The airtight packing groove 271 extruded vertically from the upper side of the auxiliary rail groove 23 from the inner side of the wind paper blade 22 of the first vertical frame 24 and the airtight packing 272 inserted into the airtight packing groove The configured first airtight portion 27 is configured.

In addition, at a point adjacent to the first airtight portion 27 of the first vertical frame 24 of the window facing from the third vertical frame 26, it is formed to protrude in a wall shape in the lateral direction in which the wind paper insulation member 4 is installed. The side surface is in surface contact with the airtight packing 272 of the first airtight part 27, and the other side is the airtight packing 42 inserted into the side of the air-tight insulation member 4 or the side of the air-tight insulation member 4 A second airtight portion 28 is configured to block the vertical movement of the air introduced through the auxiliary rail groove 23 by surface contact.

In addition, the third vertical frame 26 protrudes in the lateral direction facing the wind paper insulation member 4 and contacts the airtight packing 42 installed on the wind paper insulation member 4 to increase airtightness and heat insulation performance. A third airtight portion 29 in which the protrusions 291 and the grooves 292 extruded in the longitudinal direction are arranged in the longitudinal direction; is configured.

The third airtight part 29 has a protruding shape made of a wave pattern, an uneven pattern, and a sawtooth pattern of the airtight packing 42 formed in the outdoor and indoor directions of the wind paper insulation member 4. It is inserted between the protrusions and protrusions arranged at regular intervals in 29) to increase the airtightness, and at the same time, even if the airtight packing 42 is deteriorated or worn, the airtightness is maintained for a considerable period of time. Of course, it also plays a role in preventing slipping.

In other words, the airtightness may leak if a gap occurs in the contact surface due to deterioration or abrasion over time when contacting with a flat airtight packing 42 without such a pattern shape. By having a protruding shape formed by being arranged at regular intervals, such a problem is prevented in advance.

The first airtight portion 27, the second airtight portion, and the third airtight portion 29 formed in the vertical frame of each of the windows are installed in a symmetrical structure with respect to the wind paper insulation member 4, and the wind paper insulation member 4 All of the upper and lower spaces in the front, rear, left and right directions are sealed.

Hereinafter, the structure of the first airtight portion 27, the second airtight portion 28, and the third airtight portion 29 will be described in more detail.

The second airtight portion 28 formed in the third vertical frame 26 of the window facing the first airtight portion 27 formed in the first vertical frame 24 of the one window is an auxiliary rail groove ( 23) so as not to cause interference, it is located above the auxiliary rail groove (23) and is configured to be in contact with the surface.

The second airtight portion 28 and the third airtight portion 29 formed on the same third vertical frame 26 of the windowpane do not interfere with the auxiliary rail groove 23 when the windowpane travels left and right. Form in contact with the face from the lower position of ).

The wind paper insulation member 4 is formed higher than the top height of the auxiliary rail groove 23 so as to form a second airtight portion 28 and a third airtight portion formed on the third vertical frame 26 of each window facing both sides. It is configured to be in surface contact with (29) directly or by the airtight packing (42) to block the flow of air in the horizontal and vertical directions.

In the present invention configured as described above, when a pair of window panels 2 installed on the window frame 1 and traveling in the left and right directions are pushed toward the window frames 1 located on both sides, the vertical frames of both sides are located in the fastening area. . At this time, the first airtight part installed on the air-tight part 22 formed on the first vertical frame 24 of the two side windows formed symmetrically along the periphery of the wind paper insulation member 4 installed on the auxiliary rail 12, the second vertical frame (25), the first second airtight portion and the third airtight portion 29 respectively installed on the third vertical frame 26 are positioned in a horizontal direction through the auxiliary rail groove 23 by making surface contact with the wind paper insulation member 4 And it blocks the flow of air in the vertical direction.

Due to this, the airtight and thermal insulation action by the bohair or gasket installed on the auxiliary rail 12, and the airtight and thermal insulation action through the periphery of the wind paper insulation member 4 are combined. As a result, the airtightness and thermal insulation performance of the non-seogi window according to the present invention is remarkably increased.

The present invention is not limited to the specific preferred embodiments described above, and any person having ordinary knowledge in the technical field to which the present invention pertains without departing from the gist of the present invention claimed in the claims can implement various modifications. Of course, such changes are intended to be within the scope of the description of the claims.

(1): Window frame (2): Window frame
(3): Glass (4): Wind paper insulation member
(11): Rail (12): Auxiliary rail
(21): Roller (22): Pungji wing part
(23): auxiliary rail groove (24): first vertical frame
(25): 2nd vertical frame (26): 3rd vertical frame
(27): first confidential section (28): second confidential section
(29): third airtight part (41): airtight packing groove
(42): Airtight packing (43): Fastening groove
(121): airtight groove (122): airtight member
(271): airtight packing groove (272): airtight packing
(291): protrusion (292): groove

Claims (9)

A window frame provided between the rails and provided with an auxiliary rail in which an airtight member 122 for sealing neighboring windows is formed; In the non-seogi window and the door comprising a; windshield wing portion is formed to airtight the space where the auxiliary rail is installed,
A windbreak insulation member (4) installed in the fastening zone section of the auxiliary rail (12) formed on the window frame; The first airtight portion, the second vertical frame 25 installed on the first vertical frame 24 constituting the vertical frame of each window so as to provide airtightness and heat insulation for the fastening zone by contacting the wind paper insulation member 4 Including, a second airtight portion installed in the second airtight structure consisting of a third airtight portion formed on the third vertical frame 26; Including, the upper portion of the wind chime blade portion 22 formed in the first vertical frame 24 of each of the windows It is configured to block air inflow through the auxiliary rail groove 23 formed at the bottom and,

The wind paper insulation member 4 is composed of a heat insulating material extruded in the form of a column, and at least one fastening groove 43 is formed vertically on the inside to be fixed with the upper end of the auxiliary rail 12 and a fastening member, and airtight along the circumference. The packing groove 41 is formed so that the airtight packing 42 having elasticity is inserted,
The first airtight portion 27 is in the airtight packing groove 271 and the airtight packing groove extruded vertically from the upper side of the auxiliary rail groove 23 from the inner surface of the wind paper blade portion 22 of the first vertical frame 24. It consists of an airtight packing 272 that is inserted,
The second airtight portion 28 is a side direction in which the wind paper insulation member 4 is installed at a point adjacent to the first airtight portion 27 of the first vertical frame 24 of the window facing from the third vertical frame 26 It is formed to protrude in the shape of a wall so that one side is in surface contact with the airtight packing 272 of the first airtight portion 27, and the other side is on the side of the wind paper insulating member 4 or the side of the It is configured to block the vertical movement of air introduced through the auxiliary rail groove 23 by making surface contact with the inserted airtight packing 42,
The third airtight portion 29 protrudes from the third vertical frame 26 in a lateral direction facing the wind paper insulation member 4 to contact the airtight packing 42 installed on the wind paper insulation member 4 to provide airtight performance. Mi-seogi window having a windbreak structure for an auxiliary rail, characterized in that the protrusions 291 and grooves 292 extruded in the vertical direction are arranged in the longitudinal direction to increase the thermal insulation performance.
delete The method according to claim 1,
The airtight packing groove 41 is formed on all four circumferential surfaces of the wind paper insulating member 4, or is formed only on two surfaces in the direction of the outdoor and indoor side of the facing window. The branch is the secretary's window.
The method according to claim 1,
The shape of the airtight packing 42 is selected from one of a rectangular shape, a repeating wave pattern, a repeating uneven pattern, and a shape processed with a repeating sawtooth pattern. Seogi Changho.
The method of claim 4,
A secondary rail, characterized in that the shape of the airtight packing is configured such that any one shape selected from a wave pattern, an uneven pattern, and a sawtooth pattern is repeatedly arranged in the same size, and the selected shape at the end extends to have a protruding shape. U.S. secretary's window with the structure of the dragon fastening zone.
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