KR102677436B1 - Windows with improved airtightness and insulation - Google Patents

Abstract

The present invention provides a window frame including a window frame formed with a plurality of unit rails having a length in the longitudinal direction, and a window frame and a glass window including a first insulation member installed at the same height as the unit rail between the unit rails, and the unit rail A window frame including one or more door lock units provided to move and a buffer portion formed on both sides of the door lock unit to relieve an impact applied to the window, wherein the first heat insulating member allows the buffer portion to move. Insulating the window frame by leveling it, including at least one buffer line formed, a mohair installation line formed along the inner surface of the buffer line and on which mohair supporting the buffer unit is installed, and a fixing member formed to be fixed to the unit rail. The purpose is to provide a window with improved airtightness and insulation that can improve functionality, prevent movement of the window frame, and improve airtightness between the window frame and the window frame.

Description

Windows with improved airtightness and insulation}

The present invention relates to a window with improved airtightness and insulation functions. In detail, the present invention relates to a window with improved airtightness and insulation functions, and specifically, to prevent the window frame from moving on the window frame by eliminating empty spaces in the window frame and making it flat, and to improve the insulation and airtightness between the window frame and the window frame. This relates to windows with improved airtightness and insulation functions.

Recently, various types of windows have been developed, such as raised and sliding system windows, which are widely applied to relatively large windows such as living room partition doors and balcony windows, as windows with high-end and functional properties in buildings, and security windows with crime prevention functions. It is being used.

Windows and doors used in various buildings must satisfy not only weather resistance with high resistance to external air, but also durability and high mechanical properties to withstand the load of glass.

The window frame of the conventional window system is formed with a rail groove through which the door and window can be slidably opened and closed. This rail groove has the disadvantage of causing a foreign body sensation on the feet or acting as a risk factor of tripping when people pass by. In addition, in the case of window frames applied to verandas, foreign substances such as dust easily accumulate in the rail grooves, and at the same time, cleaning work to remove foreign substances from the rail grooves is difficult. In particular, through the window frames applied to veranda windows and the rail grooves, It has the disadvantage of being easily penetrated by drafts or rainwater, greatly reducing airtightness and drainage.

Accordingly, Korean Patent Publication No. 10-2063537, 'System window with an insulation structure of a window frame and window frame using different materials', has an inner frame with mohair insertion grooves installed on the inside of the inner and outer window frames in close contact. , mohair is installed on the outer frame, and a cap with mohair and bonding stones is installed on the inner frame, and guide frames are connected to each other between the window frames to maintain insulation, sound insulation, watertightness, wind pressure resistance, and airtightness. Since only one guide for the window frame moves in the frame, there remains a problem that the window frame has low stability in the window frame.

Accordingly, there is a need for the development of windows with improved airtightness and insulation functions that can improve heat insulation and airtightness while increasing the stability of the portion where the window frame and the window frame are joined.

In order to solve the above problem, the present invention fills the empty space of the window frame to level the window frame and blocks the bottom of the window frame, thereby preventing the movement of the window frame and allowing drafts to pass through the space between the window frame and the window frame. The purpose is to provide windows with improved airtightness and insulation that can prevent entry.

In order to solve the above problem, a window with improved airtightness and insulation function according to the first embodiment of the present invention has a window frame formed with a plurality of unit rails having a length in the longitudinal direction and a window frame identical to the unit rail between the unit rails. A window frame and a glass window including a first insulating member installed at a height are installed, one or more hog units provided to move the unit rail, and a buffer formed on both sides of the hog car units to relieve the impact applied to the glass window. A window frame comprising: a window frame, wherein the first insulation member includes: one or more buffer lines formed to allow the buffer unit to move; It is formed along the inner surface of the buffer line and may include a mohair installation line on which mohair supporting the buffer unit is installed, and a fixing member formed to be fixed to the unit rail.

Here, the window frame frame is a window frame unit including a first window frame unit in which the unit rail is formed on one side, a second window frame unit in which the unit rail is formed on both sides, and a third window frame unit in which the unit rail is formed on the other side. and a second heat insulating member installed between the first window frame unit, the second window frame unit, and the third window frame unit, wherein the second window frame unit is positioned between the first window frame unit and the third window frame unit. It can be provided.

In addition, the buffer unit includes a buffer housing formed on both sides of the hocha unit; It includes a first elastic member formed inside the buffer housing and a cushioning material connected to the first elastic member and formed to span a lower end of the buffer housing, wherein the cushioning material is connected to the cushioning line, the first window frame unit, and the first window frame unit. It can be moved from one of the three window frame units.

In addition, the cushioning material includes: a cushioning protrusion formed to span the bottom of the cushioning housing; An elastic member insertion portion formed to protrude downward from the lower side of the buffer protrusion to insert the first elastic member, and one portion of the buffer line, the first window frame unit, and the third window frame unit below the elastic member insertion portion. It may include a moving bar formed to have a length corresponding to the depth.

In addition, a coating film is applied to the outer surface of the cushioning material to reduce change due to temperature, and the coating film may be a mixture of materials such as PET, aluminum, foil, and polyurethane.

The cushioning material of the window with improved airtightness and insulation function according to the second embodiment of the present invention further includes anchors formed at the bottom of the moving bar and protruding on both sides, and the first insulation member is located at the mohair installation line. It may further include an anchor groove into which the anchor is inserted.

Here, the anchor includes: a rotation axis formed on the lower side of the movable bar to match the length of the movable bar; It includes one or more second elastic members formed to surround the pivot axis and one or more locking bars that are formed to protrude on both sides of the pivot shaft and are respectively connected to the second elastic members and restored by the second elastic members. Thus, when the window frame is separated from the window frame, the locking bar can be bent downward by the second elastic member.

In the window with improved airtightness and insulation function according to an embodiment of the present invention, the rail of the window frame is formed flat and the window frame is fitted and coupled to the window frame to provide cushioning, so that the window frame does not move on the rail of the window frame and drafts occur. This has the advantage of preventing water from entering the room through the window frame.

Figure 1 is a front cross-sectional view showing a window with improved airtightness and heat insulation functions according to a first embodiment of the present invention.
Figure 2 is a front cross-sectional view showing the window frame of Figure 1.
Figure 3 is a front view showing the window frame and window frame formed in the lower part of Figure 1.
Figure 4 is a front view showing the first heat insulating member of Figure 1.
FIG. 5 is a front view showing a fixing auxiliary member formed on the fixing member of the first heat insulating member of FIG. 3.
Figure 6 is an enlarged example of the buffer portion of the window frame of Figure 5.
Figure 7 is a front cross-sectional view showing the lower part of a window with improved airtightness and insulation functions according to the second embodiment of the present invention.
Figure 8 is a front cross-sectional view showing the shock absorber of Figure 7.
Figures 9 (a) to (c) are operational examples showing the cushioning material of Figure 7 being inserted into the first insulation member.
Figures 10 (a) to (c) are operational examples showing the cushioning material of Figure 7 being removed from the first insulation member.
Figure 11 (a) is a front view showing the cushioning material of Figure 7 formed in a different shape, and (b) is a side view.

Hereinafter, the description of the present invention with reference to the drawings is not limited to specific embodiments, and various changes may be made and various embodiments may be possible. In addition, the content described below should be understood to include all conversions and substitutions included in the spirit and technical scope of the present invention.

In the following description, terms such as first and second are terms used to describe various components, and their meaning is not limited, and is used only for the purpose of distinguishing one component from other components.

It should be noted that in the following description, direction limitations such as "up" and "down" are only indicated based on the shape of FIG. 1 to aid understanding, and if the reference line (or drawing) is different, the direction will be indicated differently.

Like reference numerals used throughout this specification refer to like elements.

As used herein, singular expressions include plural expressions, unless the context clearly dictates otherwise. In addition, terms such as “comprise,” “provide,” or “have” used below are intended to designate the presence of features, numbers, steps, operations, components, parts, or a combination thereof described in the specification. It should be construed and understood as not precluding the possibility of the presence or addition of one or more other features, numbers, steps, operations, components, parts or combinations thereof.

Hereinafter, a window with improved airtightness and insulation functions according to an embodiment of the present invention will be described in detail with reference to FIGS. 1 to 11.

Figure 1 is a front cross-sectional view showing a window with improved airtightness and insulation functions according to the first embodiment of the present invention, Figure 2 is a front cross-sectional view showing the window frame of Figure 1, and Figure 3 is at the bottom of Figure 1. It is a front view showing the formed window frame and the window frame, FIG. 4 is a front view showing the first insulation member of FIG. 1, and FIG. 5 shows a fixing auxiliary member formed on the fixing member of the first insulation member of FIG. 3. This is a front view, and Figure 6 is an enlarged example of the buffer portion of the window frame of Figure 5.

Referring to FIG. 1, a window 1 with improved airtightness and insulation functions according to the first embodiment of the present invention may include a window frame 10 and a window frame 20.

First, the window frame 10 may refer to the border around the window frame 20, which is installed to provide an indoor insulation effect by installing a glass window W. The window frame 10 may include a window frame 11 and a first insulation member 12.

The window frame 10 may be formed in a circular, triangular, or square shape by connecting one or more window frames 11, but this is an example and includes all shapes that can surround the window frame 20. You can do it, but it is not limited to this.

Preferably, the window frame 10 may be formed into a single square shape with four window frames 11 arranged on the top, bottom, left, and right sides.

Accordingly, the window frame 10 may be provided so that the window 1 can be easily slid, and may include a window frame 11 and a first insulation member 12 installed between the window frame 11. .

Referring to FIG. 2, the window frame 11 may include a unit rail 110, a window frame unit 111, and a second insulation member 112 so that the window frame 20 can be moved.

The unit rail 110 has a length in the longitudinal direction and can be formed as a guide along which the window frame 20 moves.

Specifically, a plurality of unit rails 110 may be formed on the upper or lower side of the window frame 11 so that the window frame 20 can be mounted and moved. The unit rail 110 may be formed to be symmetrical to the upper window frame 11 and the lower window frame 11 in the vertical direction.

In addition, the unit rail 110 may be provided so that the window frame 10 is formed as a single window frame or a double window frame depending on the number of unit rails 110 formed in the window frame frame 11. However, this is an example and is not limited thereto.

Preferably, the window frame 11 may be provided to form four unit rails 110 to form a double window frame in which two pairs of window frames 20 move.

Additionally, the unit rail 110 may be formed in the shape of an inverted 'U' and may be formed in a form with one side open. The unit rail 110 may have a protrusion 1100 formed at the end of the open portion.

The protrusion 1100 is in contact with the fixing auxiliary member 1221 of the first insulation member 12 below, and can prevent the first insulation member 12 from falling off the window frame 11. The fixing auxiliary member 1221 will be described in detail below.

Additionally, the unit rail 110 may be formed with a fixing groove 1101 that can be coupled to the fixing member 122 of the first insulation member 12.

Fixing grooves 1101 are formed on both sides of the unit rail 110 so that each first insulation member 12 can be accurately engaged with the window frame 11. Accordingly, the fixing groove 1101 can help ensure that the upper side of the window frame 10 is flat when one or more first insulation members 12 are engaged with the window frame 11.

Accordingly, the unit rail 110 is formed so that one side is open, which can reduce costs, and can help to provide a flat window frame 10, so that the window frame 20 installed on the upper side can be reduced. It has the effect of being easily supported.

The window frame unit 111 may include a first window frame unit 1110, a second window frame unit 1111, and a third window frame unit 1112. Here, one side may refer to the indoor side, and the other side may refer to the outdoor side, but are not limited to this.

The first window frame unit 1110 may have a unit rail 110 formed on one side, so that the buffer portion 22 of the outermost window frame 20 may be formed to be curved.

Specifically, the first window frame unit 1110 can be inserted into the buffer portion 22 formed on the outermost side, and mohair is formed at the bottom of the buffer portion 22 to provide an accommodation space so that it can be moved on the unit rail 110. This can be provided.

Here, the receiving space can be formed on the most outdoor side, mohair can be installed on the other side, and auxiliary windows such as insect screens can be installed to prevent insects.

The second window frame unit 1111 may be provided with unit rails 110 on both sides to allow the two window frames 20 to be installed and moved.

Specifically, the second window frame unit 1111 may have unit rails 110 formed on both one side and the other side, and the first insulation member 12 may be inserted between them. Here, the unit rail 110 can be moved by installing each window frame 20 provided inside the window frame 10 among the pair of window frames 20.

The second window frame unit 1111 may be formed in the center of the window frame 11, that is, between the first window frame unit 1110 and the third window frame unit 1112, so that the structure of the window frame 11 depends on the number. can be formed differently.

For example, if the window frame 10 is formed as a single window structure, the second window frame unit 1111 is not provided, and the first window frame unit 1110 and the third window frame unit 1112 are connected and a first insulation layer is formed between them. The member 12 and the second insulation member 112 may be installed.

The third window frame unit 1112 may have a unit rail 110 formed on the other side, so that one of the buffer parts 22 of the window frame 20 formed on the innermost side can be inserted.

In addition, the third window frame unit 1112 may have mohair installed on one side, so that the buffer portion 22 moves while supporting the buffer portion 22 formed on the innermost side.

Additionally, the window frame unit 111 may have a second insulation member 112 installed between the first window frame unit 1110, the second window frame unit 1111, and the third window frame unit 1112.

In other words, the second insulation member 112 is formed between the first window frame unit 1110, the second window frame unit 1111, and the third window frame unit 1112, and connects each window frame unit 111. You can.

Specifically, the second insulation member 112 may be installed between the window frame units 111 through a joining method such as bolting, bonding, welding, or fitting, but this is an example, and each window frame unit 111 It may include all connection methods that can be connected, but is not limited to this.

Preferably, the second insulation member 112 is between the first window frame unit 1110 and the second window frame unit 1111 through a protrusion coupling between each window frame unit 111, and the second window frame unit 1111. It can connect between and the third window frame unit 1112 or between the first window frame unit 1110 and the third window frame unit 1112.

Additionally, when the second insulation member 112 is formed below the first insulation member 12, it can support the first insulation member 12.

Specifically, the second insulation member 112 can support the window frame 20 formed as a pair, on which the first insulation member 12 can be placed.

In addition, the second insulation member 112 can be formed by selecting one of iso-pink, bead method, glass wool, cellulose, and urethane foam, and is effective in preventing drafts from entering between the window frames 10.

Referring to FIG. 4, the first insulation member 12 is installed on both sides of the unit rail 110, that is, between the unit rails 110, so that the hog unit 21 can more easily connect the unit rail 110. It can be arranged to move along.

Specifically, the first insulation member 12 is formed at the same height as the unit rail 110, so that the lower side of the window frame 10 can be provided flat, preventing foreign substances or water from accumulating between the unit rails 110. can do.

The first insulation member 12, like the second insulation member 112, may be formed by selecting one of iso-pink, bead method, glass wool, cellulose, and urethane foam, but this is an example and may be formed between the unit rails 110. It can be formed of any material that can block incoming drafts, but is not limited to this.

In addition, the first insulating member 12 may be formed only on the lower side of the window frame 10 to support the window frame 20, but this is an example and has any shape and position that can support the window frame 20. It may include, but is not limited to this.

The first insulation member 12 may include a buffer line 120, a mohair installation line 121, and a fixing member 122.

The buffer line 120 may be formed so that the buffer unit 22 can be inserted and moved.

Specifically, the buffer line 120 may be formed on the lower side in a direction perpendicular to the buffer unit 22 so that the buffer unit 22 can be inserted in the forward direction.

The buffer line 120 is formed near the unit rail 110, and can prevent the roller unit 21 from tilting laterally.

That is, the buffer line 120 can fit and move the buffer unit 22 in the vicinity of the car unit 21, allowing the window frame 20 to move more stably in the window frame 11. It works.

In addition, the buffer line 120 may be formed with a mohair installation line 121 through which mohair can be inserted to prevent the buffer portion 22 from falling out or tilting from the inside.

The mohair installation line 121 may be formed in a groove shape along the longitudinal direction of the inner surface of the buffer line 120.

Specifically, the mohair installation line 121 is formed with grooves on both sides of the buffer line 120, so that mohair can be inserted.

Here, mohair can be inserted so as to protrude toward the buffer part 22, and is usually used for opening and closing windows, insect screens, door frames, etc., or on windows, and can refer to mohair used for insulation and insect protection, so a detailed description will be omitted. .

In addition, mohair is a cushioning material ( It may be provided at the bottom of 222) and on the side of the third window frame unit 1112, but this is an example and may be formed anywhere where the door car unit 21 or the shock absorber 222 passes, and is not limited thereto.

In other words, mohair is effective in accommodating dust and foreign substances generated when the window frame 20 is moved, and blocking drafts and insects from entering.

Meanwhile, the fixing members 122 may be formed on both sides of the first insulating member 12 to fix the first insulating member 12 to the unit rail 110.

Specifically, the fixing member 122 may protrude toward the unit rail 110 along the longitudinal direction of the outer surface of the first insulation member 12, and may be coupled to the fixing groove 1101 of the unit rail 110. there is.

The fixing member 122 can prevent the first insulation member 12 from moving inside the window frame 11 when the first insulation member 12 is first installed in the window frame 11 and the window frame 20 is fitted.

Accordingly, the fixing member 122 has the effect of preventing the first insulation member 12 from leaving the window frame 11 even if the window frame 20 moves on the upper side of the first insulation member 12. .

In addition, the fixing member 122 may be formed with an arrow-shaped fixing auxiliary member 1221 to be fixed to the protrusion 1100 of the unit rail 110, as shown in FIG. 5.

The fixing auxiliary member 1221 may be formed as an asymmetric arrow protruding toward the unit rail 110 and may be fixed to the protrusion 1100.

Specifically, the fixing auxiliary member 1221 may be engaged with the lower end of the protrusion 1100 of the unit rail 110 when the user first installs the first insulation member 12 on the window frame 11. The fixing auxiliary member 1221 may be formed long along the longitudinal direction of the first insulation member 12, thereby preventing it from easily falling off from the protrusion 1100 of the unit rail 110.

Accordingly, the fixing auxiliary member 1221 prevents the first insulation member 12 into which the buffer part 22 is inserted from being easily separated from the unit rail 110 even if the window 1 is shaken by a strong wind, thereby preventing the window frame from being easily separated from the unit rail 110. This has the effect of allowing (20) to be fixed more easily.

Meanwhile, the window frame 20 may be equipped with a glass window W, and may include a door lock unit 21 and a buffer unit 22 that can move on the window frame 10.

Specifically, the window frame 20 can prevent drafts from entering the room by installing a glass window W on the wall, and can be moved from the first window frame 10 through the door lock unit 21.

Here, the glass window W may refer to a typical window used in windows, and detailed description will be omitted.

The door car unit 21 may be formed so that the window frame 20 can easily move on the upper side of the window frame 11, and may be a typical small wheel fitted into a groove formed below the window frame 20, As with the glass window (W), detailed explanation will be omitted.

Accordingly, one or more door lock units 21 may be formed on the upper or lower side of the window frame 20, so that the window frame 20 can be moved more easily on the window frame 10.

Preferably, the door lock unit 21 may be formed at each corner of the square-shaped window frame 20 so that it can move to the window frame formed on the upper side, but this is an example and is not limited thereto.

Referring to FIG. 6, the buffer portion 22 may be formed on both sides of the hog unit 21, and may be inserted into the interior of the first insulation member 12 and moved.

Specifically, the buffer portion 22 may be formed near the door lock unit 21 formed at each vertex of the window frame 20 or may be formed along the longitudinal direction on the upper or lower side of the window frame 20.

Accordingly, the long buffer portion 22 can disperse the shock transmitted from the window frame 10 through the first elastic member 221, so that even if the window frame 10 shakes due to a disaster such as an earthquake, the glass window (W ) has the effect of preventing damage.

In the following, it will be described as an example that the buffer portion 22 is formed long along the longitudinal direction of the window frame 20, based on one or more locking units 21 formed on the upper or lower side of the window frame 20. .

The buffer unit 22 may include a buffer housing 220, a first elastic member 221, and a buffer material 222.

First, the buffer housing 220 may be formed on both sides of the hog unit 21 and may be a space that alleviates the impact applied to the buffer unit 22.

Specifically, the cushioning housing 220 may be formed in an open form on the top or bottom so that the cushioning material 222 protrudes by the first elastic member 221.

In order to prevent the cushioning material 222 from being completely discharged according to the shape of the cushioning material 222, the cushioning housing 220 may be provided in a shape bent inward so that a portion of the cushioning material 222 is caught.

For example, if the buffer housing 220 is formed near the door car unit 21 formed on the lower side of the window frame 20, the buffer housing 220 is formed so that the lower side is open, so that the buffer material 222 is the first It may be provided so that the insulation member 12 can be moved.

The first elastic member 221 is provided inside the buffer housing 220 and can absorb shock.

Specifically, the first elastic member 221 can connect the buffer housing 220 and the cushioning material 222 inside the buffer housing 220, preventing the cushioning material 222 from being damaged inside the buffer housing 220. can be prevented.

In addition, the first elastic member 221 may be formed of a compression coil spring, a tension coil spring, a torsion coil spring, a leaf spring, a volute spring, etc., but this is an example, and the shock absorber 222 is connected to the first insulation member 12. ) may include any spring that can be pushed to the side, but is not limited to this.

Preferably, the first elastic member 221 may be provided as a leaf spring formed along the longitudinal direction or a coil spring formed here and there at regular intervals, so that the elongated cushioning member 222 is moved toward the first insulation member 12. You can press it.

The cushioning material 222 is a main component representing the cushioning of the window frame 20, and can flow inside the buffer housing 220.

Specifically, the cushioning material 222 may be draped over the lower end of the cushioning housing 220 by the first elastic member 221, and may include a cushioning protrusion 2220 and an elastic member insertion portion ( 2221) and a moving bar 2222.

The cushioning protrusion 2220 may be formed at the top of the cushioning material 222 to span the bottom of the cushioning housing 220. The cushioning protrusion 2220 can be formed to fit exactly the width of the buffer housing 220, so that the cushioning material 222 is not tilted inside the buffer housing 220.

The elastic member insertion part 2221 is formed on the lower side of the buffering protrusion 2220 and can connect the buffering protrusion 2220 formed on both sides.

Specifically, the elastic member insertion portion 2221 may be curved downward so that the first elastic member 221 can be seated thereon. The elastic member insertion portion 2221 may be formed to be the same as the width of the open lower end of the buffer housing 220, and may be provided to enter and exit the buffer housing 220.

The elastic member insertion portion 2221 may be provided to push the cushioning material 222 through the first elastic member 221 so that the moving bar 2222 is inserted into the first insulation member 12.

The moving bar 2222 is formed on the lower side of the elastic member insertion part 2221 and can be inserted into the first insulation member 12.

Specifically, the moving bar 2222 can be inserted into and moved in the buffer line 120 of the first insulation member 12, and can be formed to match the depth of the buffer line 120.

When the moving bar 2222 is inserted into the first window frame unit 1110 formed on the outdoor side, it can be bent toward the unit rail 110, and is provided with mohair so that it can move in contact with the unit rail 110. .

Accordingly, the moving bar 2222 can be inserted into the first insulation member 12 by the length provided by the window frame 20 through the first elastic member 221, so that the buffer line of the first insulation member 12 It has the effect of increasing airtightness by blocking drafts coming through (120).

Additionally, the cushioning material 222 may be coated with a coating film (not shown) to reduce change depending on temperature.

The coating film can be a mixture of PET, aluminum, foil, and polyurethane materials, and can be applied to the cushioning material 222.

PET is less affected by temperature and humidity, has high resistance to organic solvents and oil, and has low water absorption, which has the effect of making the applied object corrosion-resistant when applied.

Aluminum has low strength, but has high conductivity and reflectivity, and has excellent corrosion resistance.

Foil has flame retardant and non-combustible properties, so there may be no environmental and fire safety restrictions for use compared to other types of insulation.

Polyurethane can vary in hardness, is excellent against impact, friction, cutting, and tearing, and has excellent flexibility and shape memory.

The coating film can be mixed by dissolving each material, and 10 to 15 parts by weight of PET solution, 10 to 12 parts by weight of aluminum, 10 to 12 parts by weight of foil, and 60 to 70 parts by weight of polyurethane can be mixed. If it is outside the same range, it may be difficult to demonstrate the flexibility and shape memory effects of polyurethane, and a problem may arise in which the corrosion resistance effect of PET or aluminum cannot be more easily displayed.

Additionally, the coating film may change depending on the average temperature and humidity of the area where the window is installed, but is not limited to this.

Accordingly, as the coating film is manufactured using a material having the above effects, the coating film has the effect of preventing the cushioning material 222 from being damaged or worn by cold or heat during a cold wave or heat wave.

Meanwhile, the window frame 20 may further include a glass insulator 23 formed between the door lock unit 21 and the glass window W. The glass insulator 23 can block cold or heat transmitted from the door lock unit 21 to the window W.

In other words, the glass insulator 23 can block cold or heat from being transmitted to the adhesive that overlaps the glass through the groove provided for inserting the door lock unit 21.

Accordingly, the glass insulating material 23 has the effect of blocking the temperature transmitted from the glass window W from being transmitted to the door lock unit 21.

Figure 7 is a front cross-sectional view showing the lower part of a window with improved airtightness and insulation functions according to the second embodiment of the present invention, Figure 8 is a front view showing the buffer material of Figure 7, and Figure 9 (a) is a (b) is an example diagram showing the buffer material in Figure 7 before it is installed on the first insulation member, and (b) is an example diagram showing the buffer material in Figure 7 touching the first insulation member and rotating the locking bar in the shape of a downward arrow, ( c) is an example showing the cushioning material being inserted into the first insulation member 12 and the locking bar being fitted into the anchor groove, and Figure 10(a) shows the cushioning material being inserted into the first insulation member 12 and the locking bar being fitted into the anchor groove. (b) is an illustration showing how the cushioning material in FIG. 7 is rotated in the shape of an upper arrow when it is removed from the first insulation member, and (c) is an illustration showing the cushioning material being completely removed from the first insulation member. This is an example diagram showing the missing state. Figure 11 (a) is a front view showing another form of the cushioning material of Figure 7, and (b) is a side view showing the position of the locking bar.

7 to 11, the cushioning material 222 of the window 1 with improved airtightness and heat insulation function according to the second embodiment of the present invention further includes an anchor 2223, and the first insulation member 12 may further include an anchor groove 123.

Here, except for the anchor 2223 and the anchor groove 123, the window with improved airtightness and heat insulation function according to the second embodiment of the present invention has the airtightness and heat insulation function according to the first embodiment of the present invention described above. It may be substantially the same as the enhanced window.

Therefore, only the anchor 2223 and the anchor groove 123 will be described.

Referring to FIG. 7, the anchor 2223 may be formed at the bottom of the cushioning material 222 so that the window frame 20 is fixed to the window frame 10 without shaking to one side or the other.

Specifically, the anchor 2223 may be formed to protrude from the bottom of the movable bar 2222 to both sides, so that the movable bar 2222 can be more strongly fixed to the buffer line 120.

As shown in FIG. 8, the anchor 2223 may include a rotation axis 22230, a second elastic member 22231, and a locking bar 22232.

The rotation axis 22230 may be formed on the lower side of the movement bar 2222 to have the same length as the movement bar 2222, and may be a standard for the radius around which the anchor 2223 is rotated.

Specifically, the rotation axis 22230 may be coupled to one or more second elastic members 22231 by inserting them therein. The rotation axis 22230 passes through the locking bar 22232 at the lower side of the moving bar 2222, and one or more locking bars 22232 may be provided to be connected to the second elastic member 22231, respectively, so that the locking bar (22232) 22232) may be provided to rotate on the lower side of the moving bar 2222.

One or more second elastic members 22231 are formed on the pivot axis 22230, so that each locking bar 22232 can be restored.

Specifically, the second elastic member 22231 can be used to restore the locking bars 22232 protruding on both sides to the horizontal direction after being rotated in another direction.

The second elastic member 22231 may be formed through the pivot axis 22230, and one or more of the second elastic members 22231 may be installed on the pivot shaft 22230. However, this is an example, and the length of the moving bar 2222 or It may include any number that can be installed depending on the user's preference, but is not limited to this.

The locking bar 22232 may be formed to protrude from both sides of the rotation axis 22230 and can be moved while being inserted into the mohair installation line 121.

Specifically, the locking bar 22232 may be respectively connected to the second elastic members 22231 installed on the pivot axis 22230, and may be restored to its original position by each of the second elastic members 22231.

Referring to FIG. 9, when the window frame 20 is coupled to the window frame 10, the locking bar 22232 may contact the upper side of the first insulation member 12 and be tilted in the shape of a downward arrow. Thereafter, when the locking bar 22232 is fully inserted into the buffer line 120, it can be provided so that the lowermost end of the buffer line 120 and the rotation axis 22230 can touch and move while maintaining the shape of a downward arrow.

In addition, as shown in FIG. 10, when the window frame 20 is separated from the window frame 10, the locking bar 22232 is formed by the user's force in the shape of an arrow pointing downward by the second elastic member 22231. It may protrude in the shape of an upward pointing arrow. Thereafter, when the locking bar 22232 is completely separated from the first insulation member 12, its position is restored by the second elastic member 22231 and can be placed in a horizontal state.

Accordingly, the locking bar 22232 has the effect of allowing the cushioning material 222 to be more strongly connected to the first insulation member 12 when the window frame 20 is coupled to the window frame 10.

In addition, the locking bar 22232 may be formed of the same material as mohair, such as silicone or straight hair, so that it can be hung on mohair to increase airtightness. However, this is an example, and has elasticity so that it can be bent and inserted into the buffer line 120. It can include all materials that can be used, so it is not limited to this.

Referring to (c) in FIG. 10, the anchor groove 123 may be formed inside the mohair installation line 121.

Specifically, the anchor groove 123 may be formed long along the longitudinal direction of the first insulation member 12, like the mohair installation line 121, and may be a groove into which the anchor 2223 is inserted.

The anchor groove 123 is formed to correspond to the locking bar 22232 and may be a line into which the locking bar 22232 can be inserted and moved. In other words, the anchor groove 123 may be a guide through which the anchor 2223 can move when the window frame 20 moves.

In addition, the anchor groove 123 can be inserted by pressing the mohair installed on the mohair installation line 121 by the locking bar 22232, preventing the window frame 20 from being tightly closed to the window frame 10 due to friction with the mohair. may not be

Accordingly, the anchor groove 123 is such that when the user closes the window 1, the window frame 20 is not strongly closed to the window frame 10 formed on the side, and the closing speed of the window 1 slows down. , it has the advantage of preventing accidents such as children getting their hands caught.

Additionally, the cushioning material 222 can be formed in a pin shape as shown in FIG. 11, so that each anchor 2223 can be selectively installed.

Specifically, a plurality of cushioning materials 222 may be installed in the cushioning housing 220 that is formed long along the longitudinal direction of the window frame 20. Here, the cushioning housing 220 may be provided with guidelines (not shown) so that the cushioning material 222 can be fixed inside without moving, and one cushioning material 222 can be inserted into each guideline. there is.

In addition, the cushioning material 222 may be installed in each of the plurality of cushioning housings 220, but this is an example, and all shapes and installation methods that can ensure that the window frame 20 is fixed without being removed from the window frame 11 It may include, but is not limited to this.

Accordingly, when one of the anchors 2223 is damaged, the user can only replace the cushioning material 222 on which the broken anchor 2223 is provided, so the pin-shaped cushioning material 222 is used for maintenance of the window frame 20. It can have the effect of facilitating .

Although embodiments of the present invention have been described above with reference to the attached drawings, those skilled in the art will understand that the present invention can be implemented in other specific forms without changing the technical idea or essential features of the present invention. You will be able to understand it. Therefore, the embodiments described above are illustrative in all respects and are not restrictive.

1: window
10: window frame
11: Window frame
110: unit rail
1100: protrusion
111: Window frame unit
1110: 1st window frame unit
1111: Second window frame unit
1112: Third window frame unit
112: second insulation member
12: first insulation member
120: buffer line
121: Mohair installation line
122: fixing member
1221: Fixing auxiliary member
123: Anchor home
20: Window frame
21: Hocha unit
22: buffer part
220: Buffer housing
221: first elastic member
222: cushioning material
2220: Buffering protrusion
2221: Elastic member insertion part
2222: Move bar
2223 : Anchor
22230: rotation axis
22231: second elastic member
22232 : Hang bar
23: Glass insulation
W: glass window

Claims (7)

A window frame including a window frame formed with a plurality of unit rails having a length in the longitudinal direction and a first insulation member installed between the unit rails at the same height as the unit rails, and
A window frame is installed on which a glass window is installed, one or more door rail units are provided to move the unit rail, and a window frame is formed on both sides of the door rail unit and includes a buffer portion to relieve the impact applied to the window,
The first insulation member,
One or more buffer lines formed to allow the buffer unit to move;
A mohair installation line formed along the inner surface of the buffer line and on which mohair supporting the buffer portion is installed;
A fixing member formed to be fixed to the unit rail and
It includes an anchor groove into which an anchor is inserted inside the mohair installation line,
The window frame is,
A window frame unit including a first window frame unit in which the unit rail is formed on one side, a second window frame unit in which the unit rails are formed on both sides, and a third window frame unit in which the unit rail is formed on the other side, and
Including a second heat insulating member installed between the first window frame unit, the second window frame unit, and the third window frame unit,
The second window frame unit is provided between the first window frame unit and the third window frame unit,
The buffer part,
Buffer housings formed on both sides of the hocha unit;
A first elastic member formed inside the buffer housing and
It is connected to the first elastic member and includes a cushioning material formed to span the bottom of the cushioning housing,
The cushioning material may move in one of the buffering line, the first window frame unit, and the third window frame unit,
The cushioning material is,
A buffering protrusion formed to span the bottom of the buffer housing;
an elastic member insertion portion formed to protrude downward from the lower side of the buffering protrusion to insert the first elastic member;
A moving bar formed on the lower side of the elastic member insertion portion to have a length corresponding to the depth of one of the buffer line, the first window frame unit, and the third window frame unit, and
A window with improved airtightness and insulation functions, characterized in that it includes anchors formed at the bottom of the moving bar and protruding on both sides.
delete delete delete According to paragraph 1,
The cushioning material is,
A coating film is applied to the outer surface to minimize changes due to temperature.
The coating film is a window with improved airtightness and insulation function, characterized by a mixture of materials of PET, aluminum, foil, and polyurethane.
delete According to paragraph 1,
The anchor is,
A rotation axis formed on a lower side of the moving bar to match the length of the moving bar;
At least one second elastic member formed to surround the rotation axis and
It is formed to protrude on both sides of the rotation axis, and includes one or more locking bars each connected to the second elastic member and restored by the second elastic member,
A window with improved airtightness and insulation functions, wherein the locking bar is bent downward by the second elastic member when the window frame is separated from the window frame.