Installation Structure for Connecting Modularized Windows and Doors comprising Improved Installation Structure of the Turn-in Door and convenience of construction and maintenance

Abstract

The present invention relates to a modularized window and door connection installation structure for arranging and connecting sliding windows and casement windows or doors in a continuous horizontal direction on a wall of a building, with a fixed window placed in the space between them. In particular, it relates to an improved thermal insulation structure of a sliding window arranged adjacent to a fixed window and an improved installation structure of an inner rotating door that opens into the interior, comprising a gear hinge part.

Description

Technology Field

[0001] The present invention relates to a modularized window and door connection installation structure for arranging and connecting sliding windows and hinged windows or doors in a continuous horizontal direction on a wall of a building, with a fixed window placed in the space between them. In particular, it relates to an improved installation structure for an inner rotating door (Turin-in door, Rotating-in door) that is arranged adjacent to a fixed window and includes a gear hinge part to open into the interior. Background Technology

[0002] Windows or doors provided for lighting, ventilation, or user access in a building are generally classified according to their opening and closing principles into sliding windows or sliding doors that open and close by sliding, and hinged windows or hinged doors that open and close by pushing in the outside (indoor) direction or pulling in the inside (outdoor) direction with a hinge installed on one side.

[0003] In general, sliding windows or sliding doors have two or more window sashes or door sashes forming two or more layers, so the thickness of the window frame or door frame tends to be wide, whereas in contrast, hinged windows or hinged doors have one or more window sashes or door sashes forming one layer, so the thickness of the window frame or door frame tends to be relatively narrow.

[0004] When designing and constructing such sliding windows or sliding doors and hinged windows or hinged doors to be arranged in a continuous horizontal line, there is a problem in that it is difficult to finish the area around the window frames due to differences in the thickness of the window frames and it is difficult to provide a good aesthetic finish.

[0005] On the other hand, when two or more casement windows are designed and constructed to be arranged in a continuous horizontal line, as mentioned earlier, there are frequent cases where the thickness of the window frame to which the casement windows are applied is narrow, resulting in a vulnerability where the wind pressure resistance of the overall structure is reduced.

[0006] In addition, when designing to arrange sliding windows, casement windows, and casement doors in a continuous horizontal line, or when designing to connect fixed windows between them, it is common practice to use a frame with greater thickness as a connecting part of the window frame to resolve the difference in thickness between the window frame or door frame, and to adopt a structure in which the sliding window, casement window, and casement door are inserted inside the frame. U.S. Patent 6,330,769 B1 and WIPO International Publication WO / 2009 / 082138 A2 disclose examples in which a sliding window or a swing door is installed inside a frame with greater thickness.

[0007] In this case, when glass (window glass of fixed windows) needs to be fitted between the frames, curtain wall bars are used instead of the frames. Here, the curtain wall bar consists of mullions, which are vertical support members, and transoms, which are horizontal support members.

[0008] Meanwhile, when adopting such a general curtain wall bar structure, in a connection structure where fixed window glass is placed between sliding windows, casement windows, and casement doors, if we look at the transverse cross-sectional connection structure of the frame forming the facade, a triple frame support structure consisting of a window sash frame, a window frame, and a curtain wall bar frame is formed between the window glass or door panel and the fixed window glass. By using a frame or curtain wall bar with a thickness greater than that of each window frame or door frame, a structure can be formed that allows windows or doors of various different thicknesses to be connected as one window frame or door frame. This provides a certain degree of uniformity in the facade and has the effect of allowing the finishing work around the windows to be properly performed.

[0009] However, while this conventional triple-frame structure connection technology has advantages in that it can provide structural reinforcement in terms of vibration control caused by impact during the opening and closing of window sashes and resistance to wind pressure, it has problems such as forming a thick facade due to the curtain wall bar frame composed of mullions and transoms, which is aesthetically unpleasing and makes it difficult to secure the maximum view through the window glass, and being economically disadvantageous due to the additional use of frames or curtain wall bars. Therefore, as shown in FIGS. 1 and 2, a sliding window (200), a casement window (300-in, 300-out), and a casement door (400, 500) used as an entrance are designed to be arranged continuously in a row in the transverse direction, and a fixed window (100) ( <f>There is also a case (WIPO International Publication WO / 2017 / 204573 A1) that proposes a structure for connecting windows in a building that is economically advantageous while securing a wider open view by leaving only the transom (910, 920), which is a frame installed in the transverse direction, and minimizing the use of the curtain wall bar (mullion) installed in the longitudinal direction (reducing the width of the support frame 'e') when designing to connect the windows (transom, which is a frame installed in the transverse direction, and removing the mullion) (reducing the width of the support frame 'e').

[0010] However, when looking at the structure shown in the attached drawings Fig. 3 and 4, which show the overall structure of Fig. 2 presenting a cross-section along the k1-k1 section of Fig. 1, and the structure showing the connection installation structure between the sliding window (200) (200) and the adjacent fixed window (100) in which the fixed window sash (200a) and the movable window sash (200b) of the sliding window (200), indicated by the drawing symbol "A" among the detailed structures, a cross-sectional view (k2-k2 section) of the sliding window (200) part equipped with the fixed window sash (200a) and the movable window sash (200b) is shown, and the state in which the window glass (GP) of the adjacent fixed window (100) is directly connected through a fixed clip (sc) and an elastic clip (tc) to the glass side installation means provided in the form of a groove on the side part of the window frame (210, 220) forming the outer edge of the window sash frame.

[0011] Referring to the drawings in FIGS. 5 and 6 (a longitudinal section along line a1-a1 of FIG. 5), which further illustrate the enlarged state in which the window glass (GL) of the fixed window (100) is coupled to a glass side mounting means provided in the form of a groove on the side of the window frame (210, 220), the window glass (GP) of the fixed window (100), which is fixed to both sides of the thermal bridge blocking member (215) disposed between the inner window frame (210) and the outer window frame (220), is formed by, for example, by overlapping a plurality of window glass (GP) to form a double glass or triple glass, and attempts are made to secure maximum thermal insulation performance by using a thermal insulation spacer bar (TPS) with thermal insulation performance as a spacer bar at the ends of the plurality of window glass (GP), while filling the interior with an inert gas or creating a vacuum state. In contrast, to secure high airtightness performance, the front of the two outer window frames (220) and In addition, when a border frame member (250) is provided to support the inner surface of a movable window sash (200b) that is positioned between two outer window frame (220) and is sealed by moving it slightly in the forward and backward directions using a sealing handle (200h) after performing sliding opening and closing operations in the left and right directions, the sealing function between the window frame (220) and the window sash frame of the movable window sash (200b) is reinforced, thereby preventing the problem of reduced heating and cooling efficiency caused by outside air and inside air flowing in / out through the gap between the window frame and the window sash.

[0012] As described above, in a window system (1000) configured as described above, the fixed window (100) is installed at a location where the fixed window (100) is fixed, that is, on both sides of a thermal bridge blocking member (215) connecting the outer window frame (220) and the inner window frame (210). Since the fixed window (100) is installed at a location where the fixed window (100) is fixed, and the movable window (200) is installed on the front side (indoor direction), it is common for the thickness of the inner window frame (210) to account for a relatively larger proportion of the thickness ('d') of the window system (1000) than the thickness of the outer window frame (220).

[0013] In order to achieve a sense of unity in the entire window system (1000), not only the window frame (210, 220: 310, 320) but also the door frame (410, 420: 510, 520) have an asymmetrical structure for the inside and outside. As shown in FIG. 2 and FIG. 2b, in the case of a structure that opens by rotating outward (in the direction of the outside), even if the door hinge part is directly attached to the outer door frame (420) and installed, there is no problem of interference between the outer rotating door (400) that opens by rotating outward and the outer door frame (420). However, as shown in FIG. 2c, in the case of a structure that opens by rotating inward (in the direction of the outside), interference occurs between the inner rotating door (500) that opens by rotating inward and the inner door frame (510) which has a large thickness.

[0014] In order to avoid such interference, as disclosed in the U.S. Patent Publication US 6,330,769 B1 presented in the attached drawings FIG. 5 and 6, when a plurality of windows are combined laterally (3-Windows Assembly), in particular, in a connection structure where inner and outer window frames (indicated by reference numerals '334' and '374' in FIG. 10) are positioned between a swing window and a fixed window (indicated by reference numerals '330' and '370' in FIG. 10, respectively), a 'glazing bead bracket' for a fixed window (non-swing window: fixed window) (indicated by reference numerals '388' and '398' in FIG. 10, respectively) is fastened to one side of the inner and outer window frames in a snap-in manner, and a 'Swing Arm Installation Pocket' type support bracket, in which a Swing Arm Axis constituting a mechanism for the swing operation of the swing window is coupled to the other side of the inner and outer window frames, The conventional general solution was to propose a structure that protrudes outward.

[0015] If a support bracket of such a protruding structure is applied to an inner rotating door (indicated by the reference numeral '500' in FIG. 1) in a modular window system emphasizing openness to which the present invention is applied, it is preferable to use a gear hinge designed for heavy loads instead of a general hinge (door hinge), considering that the door extends to the upper ceiling and places a heavy load on it. In such cases, the gear hinge part is configured so that no interference occurs between the rotational support frame (550) of the gear hinge part protruding toward the interior direction. This is achieved by fixing the support bracket (501) of the door frame fixing end, which is fixedly installed on the inner door frame (510), to a fastening part formed by protruding inward by a certain distance from the door frame (510). In this case, if a fastening part is formed separately by protruding inward by a certain distance from the inner door frame (510), compared with the inner door frame (510) in the other three directions There is a problem in that the uniformity or consistency of the components of the system window is compromised due to changes in the cross-sectional profile shape or dimensions, and furthermore, due to the protruding fastening part, the gap between the inner door frame (510) and the door frame (530) is increased, so when looking at the inner rotating door (500) from the interior direction, a gap is created between the door frame and the door, which reduces the precision of the shape fitting and lowers the aesthetic preference, and a problem arises in that light enters the gap first, making cleaning difficult.

[0016] Furthermore, the cross-sectional shape of the inner door frame formed including the protrusion where the door hinge is installed and the cross-sectional shape of the inner door frame with a clean outer surface on the remaining three sides (two sides in the case of a swing door) cannot maintain the same shape, which reduces the sharing of parts and causes significant inconvenience at the window system construction site. Prior art literature

[0017] US Patent US 6,330,769 B1 WIPO International Publication WO / 2009 / 082138 A2 WIPO International Publication WO / 2017 / 204573 A1 The problem to be solved

[0018] The present invention aims to solve the general and common problems of the aforementioned prior art. The technical problem to be solved through the present invention is to provide a better sense of unity to the exterior facade of a building, enable the use of finishing around windows and doors, and sufficiently maintain structural complementarity in terms of vibration control caused by loads or impacts occurring during the opening and closing of window sashes and doors, as well as pressure resistance against wind pressure; at the same time, provide a good aesthetic appearance by forming a facade including slimmer window glass frames and secure a wider open view by minimizing the use of longitudinally installed curtain wall bars; furthermore, provide a stable structure that ensures and maintains accurate opening and closing performance of the door even under high rotational moments generated in the lateral rotation section when an inner rotating door of full height is installed adjacent to a fixed window, spanning between the transom, which is a horizontal support member of the upper and lower curtain wall bars; and provide a structure that minimizes the gap between the inner door frame where the door hinge is installed and the door frame, thereby providing high preference for building owners and users, while the inner door frame where the door hinge is installed and By ensuring that the basic framework of the internal door frame on the remaining three sides maintains the same shape (it is difficult to maintain uniformity if a protrusion is provided on any one side), it provides an economically advantageous window connection installation structure for buildings through maximum sharing of parts. means of solving the problem

[0019] In order to solve the aforementioned technical problem, the present invention,

[0020] In a modular window and door connection installation structure in which sliding windows, casement windows, and revolving doors (casement doors) used for entry and exit are connected and installed by arranging them continuously in the transverse direction while placing fixed windows in the space between them,

[0021] A glass side installation means capable of fixing the side portion of the glass of the fixed window installed in the space between the sliding window, the casement window, and the revolving door (swing door) is provided directly on the transverse outer surface of a thermal bridge blocking member connecting the inner window frame or inner door frame constituting the inner frame of the window sash frame or door sash frame constituting the sliding window, the casement window, and the revolving door (swing door), and the outer window frame or outer door frame constituting the outer frame; and a first transverse curtain wall member and a second transverse curtain wall member are provided, which respectively fix the upper and lower portions of the glass of the fixed window and are coupled to the upper and lower portion sides of the outer window frame or outer door frame and the inner window frame or inner door frame; and

[0022] The window glass of the fixed window, which is fixed on both sides of a thermal bridge blocking member disposed between the inner window frame and the outer window frame supporting the sliding window equipped with a fixed window sash and a movable window sash, is formed as double-pane glass or triple-pane glass by overlapping a plurality of window glass panes, and thermal insulation spacers (TPS) having thermal insulation performance are used as spacers at the ends of the plurality of window glass panes, while the interior is filled with unalive gas or a vacuum is created.

[0023] The thickness of the window frame or door frame of the above-mentioned sliding window and casement window or casement door is set to have a thickness capable of accommodating the thickest of the window sash frame or door sash frame combined inside, and the width and thickness of each of the window frame or door frame of the above-mentioned sliding window and casement window or casement door are configured to be the same, and the height and thickness of the first transverse curtain wall connecting member and the second transverse curtain wall connecting member are also formed to match the width and thickness of each of the window frame or door frame, which would be more desirable in terms of improving the uniformity of the facade.

[0024] Furthermore, in the case where an inner rotating door of the entire height is installed between the first transverse curtain wall member and the second transverse curtain wall member adjacent to the fixed window,

[0025] Considering the high load, a gear hinge portion is provided that is extended by the entire height of the inner door frame to sufficiently support the rotational moment generated in the side door hinge portion, wherein a first support bracket installed transversely on the inner side of the inner door frame and a second support bracket installed on the door frame are provided with gear portions formed longitudinally on their opposing surfaces to mesh with each other, and

[0026] In order to minimize the gap between the inner door frame where the gear hinge is installed and the door leaf frame of the inner rotating door,

[0027] It would be preferable to provide a groove for receiving the pivotal trace of a pivotal support frame integrally on the inner surface of the inner door frame so that the pivotal trace of the pivotal support frame, which is provided to support the gear portion from the rear between the first support bracket and the second support bracket while maintaining a mutually engaged state of the gear portions of the first support bracket and the second support bracket and continuously changing the position of the engaged gear teeth portions, can be received inside the inner door frame.

[0028] Furthermore, it is preferable to additionally provide a pivoting member that is fitted into the pivoting member receiving groove of the pivoting support frame, and to provide a pivoting member surface corresponding to the outermost pivoting member of the pivoting support frame on the inner surface of the pivoting member. In addition, to achieve the objective of maximum sharing of parts by ensuring that the basic framework of the inner door frame on one side (side) where the door hinge part is installed and the inner door frame on the remaining three sides maintain the same shape (a shape integrally equipped with a recessed receiving groove) (a unified state in which no protrusion is provided on any side),

[0029] It would be more preferable to additionally provide a separate pivot receiving groove cover plate that is fitted and coupled inside the pivot receiving groove of the above-mentioned pivot support frame instead of the pivot hole. Effects of the invention

[0030] According to the present invention, the transverse cross-sectional connection structure of the frame formed by the elevation of the components constituting a window and door connection installation structure, which is formed by arranging a sliding window, a casement window or a casement door, and a fixed window together in the space between them and continuously arranging and connecting them in the transverse direction, can provide a simplified double-frame support structure composed only of "(window glass or door panel) ~ window sash frame ~ window frame ~ (fixed window glass)," thereby providing a sense of unity to the installed elevation when connecting and installing modular windows and doors of various sizes and types, as well as providing a basic effect of securing a wider open view by forming a slimmer elevation by eliminating or minimizing the use of curtain wall bars, and additionally, when an inner rotating door of the entire height is installed through a gear hinge part extending between a first transverse curtain wall member and a second transverse curtain wall member adjacent to the fixed window, a groove for receiving the pivot trace of the rotation support frame is integrally provided on the inner surface of the inner door frame, thereby preventing interference between the inner rotating door and the inner door frame, In contrast to the case where a protruding support bracket is provided, the first support bracket, which is installed directly in the transverse direction on the inner side of the inner door frame, is coupled to the second support bracket and supports the high load of the high-height inner rotating door through the door hinge part (gear hinge part), thereby providing structural stability and the effect of maintaining a better aesthetic appearance and a slim profile.

[0031] Furthermore, according to a more preferred embodiment of the present invention, a pivoting member that is fitted into the pivoting member receiving groove of the pivoting support frame is additionally provided, thereby providing the effect of preventing dust, etc. from entering into the pivoting member receiving groove of the pivoting support frame.

[0032] In addition, by providing a separate pivot groove receiving groove cover plate that is fitted and coupled instead of a pivot groove inside the pivot support frame pivot groove of the inner door frame on the remaining three sides, excluding the inner door frame on the one side (side) where the door hinge part is installed, the effect of maximizing the sharing of parts used is provided by allowing the basic frame of the inner door frame to maintain the same frame shape (a shape having an integrally formed recessed receiving groove) (a unified state in which no protrusion is provided on any side). Brief explanation of the drawing

[0033] FIGS. 1 and 2 are front views illustrating a state in which a sliding window, a turn-in window, a turn-out window, a turn-out or rotation-out door (outer rotating door), and a turn-in or rotation-in door (inner rotating door), modularized according to the present invention, and fixed windows disposed between them are installed in a continuous horizontal direction. FIG. 2 is a cross-sectional view along the k1-k1 line of FIG. 1, and FIG. 2a, FIG. 2b, and FIG. 2c are enlarged views of each part that is continuous in the transverse direction. FIG. 3 is a drawing illustrating a first embodiment in which the part where the sliding window of FIG. 2 and FIG. 2a is installed is enlarged. FIG. 4 is a drawing illustrating a second embodiment in which the part where the sliding window of FIG. 2 and FIG. 2a is installed is enlarged. FIGS. 5 and 6 are drawings illustrating the installation structure and operating state of an in-swing window according to the prior art. FIG. 7 illustrates a third embodiment of the present invention and is an enlarged view of the key part showing the "K" portion of FIG. 2 and FIG. 2c in enlarged form. FIG. 8 is a front view showing the inner rotating door (500) shown in FIG. 7 installed and in an open state. FIG. 9 is a front view showing the inner rotating door (500) of FIG. 8 installed and closed. FIG. 10 is a cross-sectional view of D1-D1 of FIG. 9, showing a continuous state in which the inner rotating door (500) rotates to open and close. FIGS. 11 and 12 are cross-sectional views D2-D2 and D3-D3 of FIG. 9, respectively, showing the state in which a pivot trace receiving groove cover plate is fitted and coupled inside the pivot trace receiving groove of the pivot support frame of the inner door frame. FIG. 13 is a drawing illustrating an example of the portion corresponding to the k3-k3 cross-sectional view of FIG. 9. FIG. 14 is a drawing illustrating an example of the portion corresponding to the k4-k4 longitudinal section of FIG. 9. Fig. 15 is an enlarged view of the main part of Fig. 14. Specific details for implementing the invention

[0034] Hereinafter, embodiments of the present invention are described in detail with reference to the attached drawings so that those skilled in the art can easily implement the present invention. However, the present invention may be embodied in various different forms and is not limited to the embodiments described herein.

[0035] A preferred embodiment of the present invention is applied to a modular window and door connection installation structure (1000) in which a sliding window (200), a casement window (300-in, 300-out), and a rotating door (400, 500) used for entry and exit are connected and installed in a continuous horizontal direction while a fixed window (100) is placed in the space between them, as shown in the attached drawings FIGS. 1 to 4. Here, the casement window is generally referred to as a turn-out window or a turn-in window depending on the direction in which it is opened, and the rotating door (400, 500) is generally referred to as a turn-out door or a rotation-out door and a turn-in door or a rotation-in door depending on the direction in which it is opened.

[0036] According to a preferred embodiment of the present invention, a glass side installation means capable of fixing a side portion of the window glass (GL) of the fixed window (100) installed in the space between the sliding window (200), the hinged window (300-in, 300-out), and the rotating door (400, 500) is provided, and a thermal bridge blocking member (215, 315, 415) connecting an inner window frame (210, 310) or an inner door frame (410, 510) constituting the inner frame of the window sash frame ('200sa', '200sb', etc.) or door sash frame ('530', etc.) constituting the sliding window (200), the hinged window (300-in, 300-out), and the rotating door (400, 500), and an outer window frame (220, 320) or an outer door frame (420, 520) constituting the outer frame. A first transverse curtain wall member (910) and a second transverse curtain wall member (920) are provided, which are directly provided on the transverse outer surface of the fixed window (100), fix the upper and lower ends of the window glass (GL) of the fixed window (100) respectively, and are coupled to the upper and lower sides of the inner window frame (210, 310) or inner door frame (410, 510) and the inner window frame (220, 320) or inner door frame (420, 520), and the inner window frame (220, 320) or inner door frame (420, 520), and are provided, and

[0037] The window glass (GP) of the fixed window (100), which is fixed on both sides of a thermal bridge blocking member (215) disposed between the inner window frame (210) and the outer window frame (220) supporting the sliding window (200) equipped with a fixed window sash (200a) and a movable window sash (200b), can be formed as a double glass or triple glass by overlapping a plurality of window glass (GP), and the ends of the plurality of window glass (GP) can be spaced using a thermal insulation spacer bar (TPS) with thermal insulation performance as a spacer bar, while the interior can be filled with an inert gas (Unalive Gas) or a vacuum state can be achieved.

[0038] Here, the thickness of the window frame or door frame (410:420, 510:520) of the sliding window (200) and the hinged window (300-in, 300-out) or hinged door (210:220, 310:320) is set to have a thickness ('d') that can accommodate the thickest of the window frame or door frame combined inside, and the width ('e') and thickness ('d') of each of the window frame or door frame of the sliding window and the hinged window or hinged door are configured to be the same, and the height and thickness of the first transverse curtain wall connecting member (910) and the second transverse curtain wall connecting member (920) are also formed to match the width ('e') and thickness ('d') of each of the window frame or door frame, which would be more desirable in terms of improving the uniformity of the facade.

[0039] Meanwhile, as can be confirmed by mutually comparing the drawings explaining the structural limitations according to the prior art in the attached drawings FIG. 5 and FIG. 6, when an outer rotating door (400) provided as a turn-out door and a rotation-out door as shown in FIG. 2 and FIG. 2b is installed on an outer door frame (420) in a modular window connection installation structure (1000), the gap between the outer rotating door (400) and the inner door frame (410) can be minimized by modifying the shape and structure of the inner door frame (410) similarly to a turn-out swing window. On the other hand, when an inner rotating door (500) provided as a turn-in door and a rotation-in door is installed on an inner door frame (510), considering the significant length extension state of the inner door frame (510) (a state occupying a significant portion of the thickness 'd') and the inner door frame (510) The current situation presents significant installation limitations and construction problems due to interference.

[0040] In order to overcome these technical limitations and construction problems, the present invention provides a new improved technology configured as shown in the attached drawings FIG. 2, FIG. 2c, FIG. 7 which shows an enlarged view of the key part of the "K" portion of FIG. 2c, and FIG. 8 to FIG. 15. According to a preferred embodiment of the present invention,

[0041] When installing an inner rotating door (500) of the entire height across between a first transverse curtain wall member (910) and a second transverse curtain wall member (920) adjacent to a fixed window (100), a gear hinge portion is provided that extends to the entire height of the inner door frame (510) to sufficiently support the rotational moment generated at the side door hinge portion in consideration of the high load burden, wherein a first support bracket (501) installed transversely on the inner side of the inner door frame (510) and a second support bracket (502) installed on the door frame (530) are provided to mesh with each other on their opposing surfaces, and gear portions (501a, 502a) formed longitudinally are provided to mesh with each other, and

[0042] In order to minimize the gap between the inner door frame (510) where the gear hinge is installed and the door frame (530) of the inner rotating door (500),

[0043] It would be preferable to provide a pivot support frame pivot trace receiving groove (510a), preferably having a transverse width ('g') and a thickness ('h') as shown in FIG. 7, on the inner side of the inner door frame (510) so that the pivot trace (clearly shown in FIG. 10) of the pivot support frame (550), which is provided to support the gear portions (501a, 502a) from the rear between the first support bracket (501) and the second support bracket (502) while the position of the interlocking gear teeth portions continues to change while the first support bracket (501) and the second support bracket (502) are maintained in a mutually interlocked state and the pivoting trace (clearly shown in FIG. 10) of the first support bracket (501) and the second support bracket (502) can be received inside the inner door frame (510). That is, it means that when injection molding the inner door frame profile (510) using aluminum material, the rotation support frame pivot trace receiving groove (510a) is integrally recessed and molded.

[0044] Furthermore, as shown in FIG. 8, in order to prevent dust or the like from entering into the rotational support frame rotational trace receiving groove (510a), a rotational trace member (510b) that is fitted into the rotational support frame rotational trace receiving groove (510a) is additionally provided, and it is preferable that a rotational trace surface (510b1) corresponding to the outermost rotational trace of the rotational support frame (550) is provided on the inner surface of the rotational trace member (510b), and

[0045] In addition, to achieve the goal of maximizing parts sharing by ensuring that the basic framework of the inner door frame (510) where the door hinge is installed and the inner door frame (510) of the remaining three sides maintains the same shape (a shape having an integrally formed recessed receiving groove) (a unified state in which no protrusion is provided on any side), it would be more preferable to additionally provide a separate turning trace receiving groove cover plate (510ca) that is fitted and coupled inside the turning trace receiving groove (510a) of the rotational support frame instead of the turning trace member (510b), as shown in FIGS. 11 and 12.

[0046] Meanwhile, the gap between the inner side of the inner door frame (510) and the inner side of the inner rotating door (500) is expanded by the thickness of the first support bracket (501) and the second support bracket (502). In order to reinforce the thermal insulation performance of this area, as shown in FIG. 13, it would be more desirable to insert and install a cushioning thermal bridge blocking member (280K) through a separate bracket to cushion pressure or impact so as not to cause breakage of the window glass (GP) of the inner rotating door (500).

[0047] And according to an additional embodiment of the present invention, as shown in FIGS. 14 and 15, a height adjustment device (560a, 560b) of the door hinge portion may be additionally provided to adjust the relative vertical position of the second support bracket (502) with respect to the first support bracket (501), as a device capable of guiding stable rotational operation between a first support bracket (501) fixedly connected to the inner door frame frame (510), which is a support frame of the door frame, and a second support bracket (502) fixedly connected to the door leaf frame (530) of the inner rotating door (500).

[0048] Here, the height adjustment device (560a, 560b) is,

[0049] A sliding block (560a) installed on the bottom surface of an inner rotating door (500);

[0050] A first support plate and a second support plate (560b3) that respectively support from below the sliding block (560a) located in a rotation range that is planarly divided along the rotational trajectory of a door (500) fixedly connected thereto and a second support bracket (502) that is rotated relative to a first support bracket (501) constituting a door hinge; and

[0051] It would be preferable to include a door support block body (560b1) fixedly installed on a door frame support frame (510) such that the first support plate and the second support plate (560b3) are placed adjacently in a planar manner; and a plurality of height-adjustable thin plates (560b2) stacked between the first support plate and the second support plate (560b3) and the door support block body (560b1).

[0052] Although preferred embodiments of the present invention have been described in detail above, the scope of the present invention is not limited thereto, and various modifications and improvements by those skilled in the art using the basic concept of the present invention as defined in the following claims also fall within the scope of the present invention. Explanation of the symbols

[0053] 100: Fixed window 200: Sliding window 200a: Fixed window sash 200b: Moving window (300-in, 300-out): casement window 400, 500: Revolving door used for entry / exit GL: Window Glass 210, 310: Interior window frame 410, 510: Interior door frame 220, 320: Exterior window frame 420, 520: Exterior door frame 215, 315, 415, 515: Thermal bridge blocking members 910: First transverse curtain wall member 920: Second transverse curtain wall member GL, GP: Window glass 250: Hollow rim frame member 250a: Inner rim 250b: Outer edge 250c: Border frame cover plate (280a: 280a1, 280a2), 280K: Buffering thermal bridge blocking member 500: Inner rotating door 501: First support bracket 502: Second support bracket 510a: Rotation support frame pivot trace receiving groove 510b: Turn trace 550: Meeting Support Frame 510b1: Turning surface 510ca: Swivel trace receiving groove cover plate (560a, 560b): Height adjustment device for door hinge 560a: Sliding block 560b1: Door support block body 560b2: Height adjustable sheet metal 560b3: First support plate and second support plate< / f>

Claims

Claim 1 In a modular window and door connection installation structure in which a sliding window (200), a casement window (300-in, 300-out), and a revolving door (400, 500) used for entry and exit are connected and installed by continuously arranging them horizontally while placing a fixed window (100) in the space between them, a glass side installation means capable of fixing the side portion of the window glass (GL) of the fixed window (100) installed in the space between the sliding window (200), the casement window (300-in, 300-out), and the revolving door (400, 500) is provided, wherein an inner window frame (210) constituting the inner frame of a window sash frame ('200sa', '200sb', etc.) or door sash frame ('530', etc.) constituting the sliding window (200), the casement window (300-in, 300-out), and the revolving door (400, 500) 310) or an inner door frame (410, 510) and an outer window frame (220, 320) or outer door frame (420, 520) forming an outer frame are directly provided on the transverse outer surface of a thermal bridge blocking member (215, 315, 415, 515) that connects the outer window frame (220, 320) or outer door frame (420, 520) forming an outer frame, and a first transverse curtain wall member (910) and a second transverse curtain wall member (920) are provided that respectively fix the upper and lower ends of the window glass (GL) of the fixed window (100) and are coupled to the upper and lower sides of the inner window frame (210, 310) or inner door frame (410, 510) and the outer window frame (220, 320) or outer door frame (420, 520), and the sliding window (200) and a casement window (300-in, 300-out) or The thickness of the window frame or door frame (410:420, 510:520) of the hinged door (210:220, 310:320) is set to have a thickness ('d') capable of accommodating the thickest of the window sash frame or door sash frame combined inside, and is configured so that the width ('e') and thickness ('d') of each of the window frame or door frame of the sliding window and the hinged window or hinged door are the same.And the height and thickness of the first transverse curtain wall connecting member (910) and the second transverse curtain wall connecting member (920) are also formed to match the width ('e') and thickness ('d') of each of the window frame or door frame, and the window glass of the fixed window (100) fixed on both sides of the thermal bridge blocking member (215) disposed between the inner window frame (210) and the outer window frame (220) supporting the sliding window (200) equipped with a fixed window sash (200a) and a movable window sash (200b) is formed as double glass or triple glass by overlapping a plurality of window glass panes (GP), and thermal insulation spacers (TPS) having thermal insulation performance are used as spacers at the ends of the plurality of window glass panes (GP), while the interior is filled with unalive gas or a vacuum state is achieved, and the When an inner rotating door (500) of the entire height is installed between the first transverse curtain wall member (910) and the second transverse curtain wall member (920) adjacent to a fixed window (100), a gear hinge part is provided that extends to the entire height of the inner door frame (510) to sufficiently support the rotational moment generated at the side door hinge part, considering the high load burden, wherein a first support bracket (501) installed transversely on the inner side of the inner door frame (510) and a second support bracket (502) installed on the door frame (530) are provided to mesh with each other on their opposing surfaces, and gear parts (501a, 502a) formed longitudinally are provided to mesh with each other, and so as to minimize the gap between the inner door frame (510) where the gear hinge part is installed and the door frame (530) of the inner rotating door (500), the first support bracket (501) and the second The gear part (501a) of the support bracket (502),In a modular window connection installation structure including convenience for construction and maintenance and an improved installation structure for an inner rotating door, wherein a rotational support frame (550) provided to support the gear portion (501a, 502a) from the rear between the first support bracket (501) and the second support bracket (502) while maintaining a mutually interlocked state and the position of the interlocking gear tooth portion is continuously changed as the first support bracket (501) and the second support bracket (502a) undergo folding rotation, a rotational support frame rotational trace receiving groove (510a) is integrally provided on the inner side of the inner door frame frame (510) so that the rotational trace of the rotational support frame (550) can be received inside the inner door frame frame (510), the rotational support frame (550) of the gear hinge portion constituting the inner rotating door (500) is fixedly connected to the inner door frame frame (510), which is the support frame of the door frame, at the side of the inner door frame frame (510) which is the support frame of the door frame, the rotational support frame (550) of the gear hinge portion constituting the inner rotating door (500) As a device capable of guiding stable rotational operation between a bracket (501) and a second support bracket (502) fixedly connected to the door frame (530) side of an inner rotating door (500), height adjustment devices (560a, 560b) of the door hinge portion are additionally provided to adjust the relative vertical position of the second support bracket (502) with respect to the first support bracket (501), and the height adjustment devices (560a, 560b) comprise a sliding block (560a) installed on the bottom surface of the inner rotating door (500); a first support plate and a second support plate that respectively support the sliding block (560a) from below, which is located in a rotational range that is planarly divided along the rotational trajectory of the second support bracket (502) fixedly connected thereto and the first support bracket (501) constituting the door hinge. A support plate (560b3); and the first support plate and the second support plate (560b3) are placed on top and fixed so as to be arranged adjacently in a planar manner,A modular window connection installation structure including an improved installation structure for an inner rotating door and convenience for construction and maintenance, characterized by comprising: a door support block body (560b1) fixedly installed on a support frame (510) of a door frame; and a plurality of height-adjustable thin plates (560b2) stacked between the first support plate and the second support plate (560b3) and the door support block body (560b1). Claim 2 A modular window connection installation structure including an improved installation structure for an inner rotating door and convenience for construction and maintenance, characterized in that, in claim 1, a pivoting groove (510b) that is additionally fitted into the pivoting groove receiving groove (510a) of the pivoting support frame is provided, and a pivoting surface (510b1) corresponding to the outermost pivoting groove of the pivoting support frame (550) is provided on the inner surface of the pivoting groove (510b). Claim 3 A modular window connection installation structure including an improved installation structure for an inner rotating door and convenience for construction and maintenance, characterized in that, in claim 1, a separate pivot receiving groove cover plate (510ca) is additionally provided to be fitted and coupled inside the pivot supporting frame pivot receiving groove (510a) instead of the pivot hole (510b). Claim 4 A modular window connection installation structure including an improved installation structure of an inner rotating door and convenience for construction and maintenance, characterized in that, in order to reinforce the thermal insulation performance of the area where the gap between the inner part of the inner door frame (510) and the inner surface of the inner rotating door (500) is expanded by the thickness of the first support bracket (501) and the second support bracket (502), a cushioning thermal bridge blocking member (280K) capable of cushioning pressure or impact so as not to cause breakage of the window glass (GP) of the inner rotating door (500) is inserted and installed. Claim 5 delete

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