Information
-
Patent Grant
-
6604323
-
Patent Number
6,604,323
-
Date Filed
Friday, December 21, 200123 years ago
-
Date Issued
Tuesday, August 12, 200321 years ago
-
Inventors
-
-
Examiners
- Chin-Shue; Alvin
- Thompson; Hugh B.
Agents
-
CPC
-
US Classifications
Field of Search
US
- 052 2045
- 052 7861
- 052 78611
- 049 406
- 049 163
- 049 501
- 049 4751
- 049 161
- 049 61
- 049 62
- 049 63
- 049 4901
-
International Classifications
-
Abstract
The object of this invention is to provide a composite window framework fabricated using recycled styrene foam panels. This window framework consists of a window frame (30) and one or more movable sashes (12). Each of the window frame (30) and the movable sashes (12) consists of an aluminum outside panel (45), (25) and an insulation inside panel (35), (15). The inside panel (35), (15) is produced using recycled styrene foam through an extrusion process. A magnet (5) is set on the facing surfaces of the sashes (12) so as to allow the windows (10) and (10′) to be magnetically attracted to each other while accomplishing a desired sealing effect at the junction between them when the windows are closed. This window framework accomplishes a desired soundproofing and insulating effect, and is less likely to be decayed or deformed due to moisture or temperature differences between the outdoor and indoor environments.
Description
TECHNICAL FIELD
The present invention relates, in general, to a composite window framework fabricated using different materials and, more particularly, to a composite window framework fabricated using aluminum outside panels and insulation inside panels formed of recycled styrene foam through an extrusion process, thus accomplishing both a desired soundproofing effect and a desired thermal insulating effect and being less likely to be decayed, distorted or deformed irrespective of atmospheric moisture or temperature differences between the indoor and outdoor environments, and thereby having a high operational reliability.
BACKGROUND ART
As well known to those skilled in the art, a window framework typically comprises a window frame fitted in a window opening formed on a wall of a building, and one or more movable sashes set within the window frame and individually containing a pane of glass to form a window. In such window frameworks, each of the window frame and the movable sashes is fabricated using inside and outside panels made of different materials. As disclosed in, for example, Korean U.M. Publication Nos. 92-8096 and 97-3384, each of the window frame and movable sashes of most conventional composite window frameworks is fabricated using aluminum panels and wood panels.
That is, conventional composite window frameworks are fabricated using outside panels made of metal, such as aluminum, capable of somewhat effectively resisting rain, wind or snow, and insulation inside panels made of wood capable of somewhat effectively blocking an undesired transmission of heat from the outside panels into a room in addition to accomplishing a desired soundproofing effect.
However, such wood inside panels of the conventional composite window frameworks are poor in their workability, and productivity during a process of manufacturing the composite window frameworks is low.
In addition, the inside panels made of wood are apt to be easily decayed, distorted or deformed due to atmospheric moisture and temperature differences between the indoor and outdoor environments. In such a case, it is very difficult for users to move the sashes within the window frames. Such decay, distortion or deformation of the wood inside panels due to both atmospheric moisture and temperature differences also allows a formation of undesired gaps between the windows and between the window frame and the windows. This finally reduces both the thermal insulating effect and the soundproofing effect of the window frameworks.
DISCLOSURE OF THE INVENTION
Accordingly, the present invention has been made keeping in mind the above problems occurring in the prior art, and an object of the present invention is to provide a composite window framework, which is fabricated using aluminum outside panels and insulation inside panels formed of recycled styrene foam through an extrusion process, thus accomplishing both a desired soundproofing effect and a desired thermal insulating effect and being less likely to be decayed, distorted or deformed irrespective of atmospheric moisture or temperature differences between the indoor and outdoor environments, and thereby having a high operational reliability, and which is improved in productivity during a process of manufacturing the window frameworks.
Another object of the present invention is to provide a composite window framework, which is designed to optimally reduce the gap between the windows, thus improving the thermal insulating effect and the soundproofing effect of the windows.
In order to accomplish the above object, the present invention provides a composite window framework, comprising a window frame fitted in a window opening formed on a wall of a building, and two movable sashes set within the window frame and individually containing a pane of glass to form a window, with a magnet set on the inside surface of each of the two windows to allow the two windows to be magnetically attracted to each other while accomplishing a desired sealing effect at the junction between the two windows, each of the window frame and the movable sash consisting of an aluminum outside panel and an insulation inside panel produced using recycled styrene foam through an extrusion process.
BRIEF DESCRIPTION OF THE DRAWINGS
The above and other objects, features and other advantages of the present invention will be more clearly understood from the following detailed description taken in conjunction with the accompanying drawings, in which:
FIG. 1
is a front view of a composite window framework fabricated using recycled styrene foam panels in accordance with the preferred embodiment of the present invention;
FIG. 2
is a sectional view of the portion “A” of the composite window framework shown in
FIG. 1
; and
FIG. 3
is a sectional view of the portion “B” of the composite window framework shown in FIG.
1
.
BEST MODE FOR CARRYING OUT THE INVENTION
Reference should now be made to the drawings, in which the same reference numerals are used throughout the different drawings to designate the same or similar components.
FIGS. 1
to
3
are views of a composite window framework fabricated using recycled styrene foam panels in accordance with the preferred embodiment of the present invention. As shown in the drawings, the composite window framework of this invention comprises one window frame
30
and two movable sashes
12
. The window frame
30
is fitted in a window opening formed on a wall of a building, while the two movable sashes
12
are set within the window frame
30
and contain panes of glass to form two windows
10
and
10
′.
In the composite window framework of this invention, each of the two movable sashes
12
and the window frame
30
consists of an aluminum outside panel
25
or
45
, and an insulation inside panel
15
or
35
produced using recycled styrene foam through an extrusion process.
In each movable sash
12
, the insulation inside panel
15
has two longitudinally and parallely formed fitting grooves
16
and
17
on its inside surface, while the aluminum outside panel
25
is provided with a longitudinally channeled fitting rail
26
having a ␣-shaped cross-section as shown in FIG.
3
. The above fitting rail
26
closely engages with the two fitting grooves
16
and
17
of the inside panel
15
at its opposite flanges while covering the inside surface of the inside panel
15
between the two fitting grooves
16
and
17
, thus firmly assembling the inside and outside panels
15
and
25
into a desired single sash
12
.
On the other hand, the insulation inside panel
35
of the window frame
30
has a longitudinal fitting groove
36
or
37
on each of two neighboring surfaces thereof. The aluminum outside panel
45
of the window frame
30
is provided with a longitudinally channeled fitting rail
46
having an open-cornered rectangular cross-section designed to closely engage with the two fitting grooves
36
and
37
of the inside panel
35
at its opposite flanges while covering an angled surface of the inside panel
35
between the two fitting grooves
36
and
37
as shown in FIG.
2
. The inside and outside panels
35
and
45
of the window frame
30
are thus firmly assembled into a desired single window frame.
During the process of manufacturing the composite window framework of this invention, the inside and outside panels
15
and
25
of each sash
12
and the inside and outside panels
35
and
45
of the window frame
30
may be assembled with each other by compressing them or by using separate locking members.
In addition, two magnet fitting grooves
15
a
and
25
a
are vertically formed along the facing surfaces of the inside and outside panels
15
and
25
of each sash
12
, while a magnet
5
is set within each of the two magnet fitting grooves
15
a
and
25
a
as shown in FIG.
3
. Therefore, when the two windows
10
and
10
′ are completely closed, the two magnets
5
allow the two windows
10
and
10
′ to be magnetically attracted to each other while minimizing the gap at the junction between the two windows
10
and
10
′ and accomplishing a desired sealing effect at that junction.
In the drawings, the reference numeral
9
denotes glass panels of the windows
10
and
10
′, and the numeral
4
denotes a sealing material used for accomplishing the soundproofing effect and the thermal insulating effect of the window framework in addition to preventing an undesired introduction of dust or rain into a room through the window framework. On the other hand, the reference numeral
7
denotes rollers of the windows
10
and
10
′ rolling along the rails
8
of the window frame
30
.
The operational effect of the composite window framework of this invention will be described herein below.
In order to assemble each movable sash
12
, the aluminum outside panel
25
, provided with the longitudinally channeled fitting rail
26
having a ␣-shaped cross-section, is locked to the insulation inside panel
15
by closely fitting the fitting rail
26
of the outside panel
25
into the two fitting grooves
16
and
17
of the inside panel
15
while covering the inside surface of the inside panel
15
between the two fitting grooves
16
and
17
. Therefore, the inside and outside panels
15
and
25
are easily and firmly assembled into a desired single sash
12
, with a pane of glass
9
being set within each sash
12
to form a window
10
or
10
′.
On the other hand, the assemblage of the window frame
30
is accomplished by closely fitting the longitudinally channeled fitting rail
46
of the outside panel
45
into the longitudinal fitting grooves
36
of
37
of the insulation inside panel
35
. Therefore, the inside and outside panels
35
and
45
are easily and firmly assembled into a desired single window frame
30
.
After completely assembling both the window frame
30
and the two windows
10
and
10
′, the two windows
10
and
10
′ are movably set within the window frame
30
. In such a case, the rollers
7
of the windows
10
and
10
′ are seated on the rails
8
of the window frame
30
.
As described above, the outside panel
25
or
45
of each of the movable sashes
12
and the window frame
30
is made of aluminum, while the insulation inside panel
15
or
35
is formed of recycled styrene foam through an extrusion process.
Since the insulation inside panels
15
and
35
of the composite window framework of this invention are produced using the recycled styrene foam through an extrusion process, it is possible to desirably improve productivity while producing the inside panels
15
and
35
in comparison with conventional wood inside panels.
Furthermore, different from the conventional wood inside panels, the insulation inside panels
15
and
35
made of recycled styrene foam effectively block a transmission of heat from the aluminum outside panels
25
and
45
into the room through the window. In addition, the insulation inside panels
15
and
35
made of the recycled styrene foam are less likely to be decayed, distorted or deformed irrespective of atmospheric moisture or temperature differences between the indoor and outdoor environments, but effectively keep their original shapes for a lengthy period of time.
This finally allows a user to always smoothly and easily move the sashes
12
within the window frame
30
, when it is desired to open or close the windows
10
and
10
′, without leaving any gap between the windows
10
and
10
′.
In the composite window framework of this invention, the two magnet fitting grooves
15
a
and
25
a
are vertically formed along the facing surfaces of the inside and outside panels
15
and
25
of each sash
12
, with a magnet
5
set within each of the two magnet fitting grooves
15
a
and
25
a
. Therefore, the two magnets
5
allow the two windows
10
and
10
′ to be magnetically attracted to each other while minimizing the gap between the two windows
10
and
10
′ and accomplishing a desired sealing effect at that junction, when the two windows
10
and
10
′ are completely closed.
INDUSTRIAL APPLICABILITY
As described above, the present invention provides a composite window framework, comprising one window frame and one or more movable sashes. In the composite window framework, each of the window frame and the movable sashes is fabricated using an aluminum outside panel and an insulation inside panel produced using recycled styrene foam through an extrusion process. Since the insulation inside panels of this invention are produced using the recycled styrene foam through an extrusion process as described above, it is possible to remarkably improve productivity and to reduce the production cost during a process of manufacturing the composite window framework. Such insulation inside panels are also improved in their thermal insulating effect in addition to the soundproofing effect.
In addition, due to the insulation inside panels made of the recycled styrene foam, the composite window framework of this invention is less likely to be decayed, distorted or deformed irrespective of atmospheric moisture or temperature differences between the indoor and outdoor environments, thereby allowing users to smoothly move the windows when it is desired to open or close the windows. This finally improves the operational reliability of the windows.
Although the preferred embodiments of the present invention have been disclosed for illustrative purposes, those skilled in the art will appreciate that various modifications, additions and substitutions are possible, without departing from the scope and spirit of the invention as disclosed in the accompanying claims.
Claims
- 1. A composite window framework, comprising:a window frame (30) fitted in a window opening formed on a wall of a building, said window frame (30) consisting of an aluminum outside panel (45) and an insulation inside panel (35) produced using recycled styrene foam through an extrusion process, said insulation inside panel (35) of the window frame (30) having a longitudinal fitting groove (36) or (37) on each of two neighboring surfaces thereof, and said aluminum outside panel (45) being provided with a longitudinally channeled fitting rail (46) having an open-cornered rectangular cross-section designed to closely engage with the two fitting grooves (36) and (37) of the inside panel (35) at its opposite flanges while covering an angled surface of the inside panel (35) between the two fitting grooves (36) and (37); and a movable sash (12) set within said window frame (30) and containing a pane of glass to form a window (10) or (10′), said movable sash (12) consisting of an aluminum outside panel (25) and an insulation inside panel (15) produced using recycled styrene foam through an extrusion process, said insulation inside panel (15) of the movable sash (12) having two longitudinally and parallely formed fitting grooves (16) and (17) on its inside surface, and said aluminum outside panel (25) being provided with a longitudinally channeled fitting rail (26) having a ␣-shaped cross-section, and closely engaging with the two fitting grooves (16) and (17) of the inside panel (15) at its opposite flanges while covering the inside surface of the inside panel (15) between the two fitting grooves (16) and (17).
Priority Claims (1)
Number |
Date |
Country |
Kind |
1999/23616 |
Jun 1999 |
KR |
|
PCT Information
Filing Document |
Filing Date |
Country |
Kind |
PCT/KR00/00648 |
|
WO |
00 |
Publishing Document |
Publishing Date |
Country |
Kind |
WO00/79087 |
12/28/2000 |
WO |
A |
US Referenced Citations (6)
Foreign Referenced Citations (2)
Number |
Date |
Country |
50-21793 |
Jul 1975 |
JP |
61-295028 |
Dec 1986 |
JP |