Low-energy-consumption passive energy-saving aluminum alloy window

Abstract

The invention provides a low-energy-consumption passive energy-saving aluminum alloy window, and relates to the technical field of aluminum alloy doors and windows. The window comprises an outer frame, an inner frame, an inner sash frame, an outer sash frame and glass installed between the inner sash frame and the outer sash frame, the inner frame and the inner sash frame are arranged in a contact sealing mode in the window closing direction and are flush with each other on the indoor side, and the window further comprises a first broken bridge structure and a second broken bridge structure, the first broken bridge structure is clamped between the outer frame and the inner frame; the second broken bridge structure is clamped between the inner sash frame and the outer sash frame, and the first broken bridge structure and the second broken bridge structure are arranged in a contact sealing mode in the window closing direction; the auxiliary outer frame body is installed on the outer frame, and the auxiliary outer frame body and the outer sash frame are arranged in a contact sealing mode in the window closing direction. The structural stability and heat preservation performance of the whole frame can be effectively improved, and the acting force of the opening sash on hardware is reduced.

Description

Technical Field

[0001] The invention relates to the technical field of aluminum alloy doors and windows, and in particular to a low-energy consumption passive energy-saving aluminum alloy window. Background Art

[0002] In the context of increasingly fierce competition in the building door and window market, low-energy passive aluminum alloy doors and windows represent the development direction of the industry and the trend of high-end products. By producing and promoting such doors and windows, enterprises can improve their own technical level and brand image, enhance market competitiveness, and promote the transformation and upgrading of the entire door and window industry towards high performance, low energy consumption, and green environmental protection. However, traditional doors and windows only consider energy saving and increase the width of the insulation strip to improve the thermal insulation performance. Therefore, the lever of the opening sash becomes longer, and the force of the hardware load-bearing components is lost, making it functionally unstable.

[0003] Therefore, there is an urgent need for a low-energy passive energy-saving aluminum alloy window that can effectively improve the structural stability and thermal insulation of the overall frame and reduce the force of the opening sash on the hardware. Summary of the invention

[0004] The purpose of the present invention is to provide a low-energy passive energy-saving aluminum alloy window, which solves the technical problems of insufficient structural stability and large force exerted by the opening sash on the hardware in the prior art. The preferred technical solutions among the many technical solutions provided by the present invention can produce many technical effects as described below.

[0005] To achieve the above object, the present invention provides the following technical solutions:

[0006] The present invention provides a low-energy consumption passive energy-saving aluminum alloy window, comprising an outer frame, an inner frame, an inner sash frame, an outer sash frame, and glass installed between the inner sash frame and the outer sash frame, wherein the inner frame and the inner sash frame are contact-sealed along the window closing direction and are flush with each other on the indoor side, and further comprising:

[0007] A first broken bridge structure, wherein the first broken bridge structure is clamped between the outer frame and the inner frame;

[0008] A second broken bridge structure, wherein the second broken bridge structure is clamped between the inner sash frame and the outer sash frame, and the first broken bridge structure and the second broken bridge structure are provided with a contact seal along the window closing direction;

[0009] An auxiliary outer frame body is installed on the outer frame and is contact-sealed with the outer sash frame along the window closing direction.

[0010] Preferably, the outer fan frame comprises:

[0011] An outer snap-in frame, the outer snap-in frame being snap-in connected to the outdoor side of the second thermally-insulated bridge structure;

[0012] The second outer clamping frame, the first end of which is clamped on the outdoor side of the first outer clamping frame close to the glass;

[0013] A glass adhesive strip is wrapped around the outdoor sides of the two outer clamping frames and the side of the first clamping frame away from the glass, and is sealed between the glass.

[0014] Preferably, the first broken bridge structure comprises:

[0015] A first heat-insulating strip and a second heat-insulating strip, wherein the first heat-insulating strip and the second heat-insulating strip are symmetrically arranged and respectively clamped between the outer frame and the inner frame;

[0016] A fifth heat-insulating strip, wherein the fifth heat-insulating strip is clamped on the second heat-insulating strip close to the glass and is contact-sealed with the second thermal-break bridge structure along the window closing direction;

[0017] A cavity is formed between the first thermal insulation strip and the second thermal insulation strip, and the cavity is filled with polyurethane foam.

[0018] Preferably, the second broken bridge structure comprises:

[0019] A fourth heat-insulating strip, the fourth heat-insulating strip being clamped between the inner fan frame and the outer clamping frame and being arranged in contact with the side edge of the glass;

[0020] The third insulation strip is located on the side of the fourth insulation strip away from the glass, the third insulation strip is clamped between the inner sash frame and the outer clamping frame, and is contact-sealed with the fifth insulation strip along the window closing direction.

[0021] Preferably, the auxiliary outer frame body includes:

[0022] A heat preservation frame, wherein a first end of the heat preservation frame is clamped on the outer frame, and a second end of the heat preservation frame is provided with a contact seal with the outdoor side of the glass adhesive strip along the window closing direction;

[0023] A first clamping plate, wherein the first end of the first clamping plate is wrapped around the outer side of the second end of the insulation frame, the second end of the insulation frame is clamped on the inner side wall of the first end of the first clamping plate, and the second end of the first clamping plate is contact-limited between the insulation frame and the outer frame.

[0024] Preferably, the auxiliary outer frame body further includes:

[0025] A third clamping plate, the third clamping plate is clamped on the outer frame, and the first end of the heat preservation frame is clamped on the third clamping plate;

[0026] The second extension plate, two groups of the second extension plates arranged in parallel are arranged on the third clamping plate and are arranged perpendicular to the glass, and the first end of the insulation frame is clamped between the two groups of the second extension plates.

[0027] Preferably, the auxiliary outer frame body further includes:

[0028] The heat-insulating column is clamped between the heat-insulating frame and the second heat-insulating strip, and is arranged in contact with the outdoor side of the fifth heat-insulating strip.

[0029] Preferably, the auxiliary outer frame body includes:

[0030] A gauze fixing frame, wherein the gauze fixing frame is arranged in a contact-type sealing manner between the indoor side of the glass and the outdoor side of the glass adhesive strip along the window closing direction, and the edge of the gauze is mounted on the gauze fixing frame by screws;

[0031] A first extension plate, the first extension plate is arranged on a side of the outer frame close to the glass;

[0032] A hinge seat is clamped between the outer frame and the first extension plate, and is hinged to the first vertical side of the gauze fixing frame.

[0033] Preferably, the auxiliary outer frame body further includes:

[0034] A protection frame is clamped on the outdoor side of the gauze fixing frame, and the screws are located between the protection frame and the gauze fixing frame.

[0035] Preferably, the auxiliary outer frame body further includes:

[0036] A lock, the lock being fixedly connected to the second vertical side of the gauze fixing frame;

[0037] The screen window lock seat is clamped on the side of the outer frame away from the hinge seat, and the lock head is vertically slidably connected to the groove on the screen window lock seat through a hidden lock on the screen fixing frame.

[0038] In the technical solution provided by the present invention, the outer frame and the inner frame are connected by a first broken bridge structure, which improves the heat insulation effect while ensuring the connection stability; the inner fan frame and the outer fan frame are connected by a second broken bridge structure, which improves the heat insulation effect while ensuring the connection stability; the auxiliary outer frame body can assist in increasing the heat preservation effect of the weak position of the opening fan switch, further improving the overall heat preservation, and the auxiliary outer frame body is installed on the outer frame, which can reduce the weight of the opening fan and contribute to the structural stability of the overall frame; wherein the inner frame and the inner fan frame are arranged flush on the indoor side to increase the aesthetic effect. On the whole, the present application can effectively improve the structural stability and heat preservation of the overall frame and reduce the force of the opening fan on the hardware. BRIEF DESCRIPTION OF THE DRAWINGS

[0039] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0040] Figure 1 is a schematic structural diagram of Embodiment 1 of the present invention;

[0041] Figure 2 is a structural diagram of Embodiment 2 of the present invention;

[0042] Figure 3 Schematic diagram of a screen window lock seat and a lock head according to a second embodiment of the present invention;

[0043] Figure 4 This is a schematic diagram of the state of a single enlarged insulation strip in a traditional aluminum alloy window.

[0044] In the figure, 1-outer frame; 2-first insulation strip; 3-polyurethane foam; 4-second insulation strip; 5-inner frame; 6-inner sash frame; 7-third insulation strip; 8-fourth insulation strip; 9-outer first snap-in frame; 10-glass adhesive strip; 11-outer second snap-in frame; 12-first snap-in plate; 13-insulation frame; 14-second snap-in plate; 15-first extension plate; 16-third snap-in plate; 17-elastic plate; 18-second extension plate; 19-insulation column; 20-fifth insulation strip; 21-protection frame; 22-screen fixing frame; 23-hinge seat; 24-screen lock seat; 25-groove; 26-lock. DETAILED DESCRIPTION

[0045] To make the purpose, technical solution and advantages of the present invention clearer, the technical solution of the present invention will be described in detail below. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other implementation methods obtained by ordinary technicians in this field without creative work belong to the scope of protection of the present invention.

[0046] Example 1, reference Figure 1 The specific embodiment of the present invention provides a low-energy passive energy-saving aluminum alloy window, comprising an outer frame 1, an inner frame 5, an inner sash frame 6, an outer sash frame, and glass installed between the inner sash frame 6 and the outer sash frame. The inner frame 5 and the inner sash frame 6 are contact-sealed along the window closing direction and are flush with the indoor side. The window also includes:

[0047] A first broken bridge structure, the first broken bridge structure is clamped between the outer frame 1 and the inner frame 5;

[0048] A second broken bridge structure, the second broken bridge structure is clamped between the inner fan frame 6 and the outer fan frame, and a contact seal is arranged between the first broken bridge structure and the second broken bridge structure along the window closing direction;

[0049] The auxiliary outer frame body is installed on the outer frame 1 and is provided with a contact seal with the outer sash frame along the window closing direction.

[0050] In the context of increasingly fierce competition in the building door and window market, low-energy passive aluminum alloy doors and windows represent the development direction of the industry and the trend of high-end products. By producing and promoting such doors and windows, enterprises can improve their own technical level and brand image, enhance market competitiveness, and promote the transformation and upgrading of the entire door and window industry towards high performance, low energy consumption, and green environmental protection. However, traditional doors and windows only consider energy saving and increase the width of the insulation strip to improve the thermal insulation performance. Therefore, the opening fan force lever becomes longer, and the force of the hardware load-bearing parts is lost and becomes functionally unstable. In this application, the outer frame 1 and the inner frame 5 are connected by a first broken bridge structure, which improves the thermal insulation effect while ensuring the stability of the connection; the inner fan frame 6 and the outer fan frame are connected by a second broken bridge structure, which improves the thermal insulation effect while ensuring the stability of the connection; the auxiliary outer frame body can assist in increasing the thermal insulation effect of the weak position of the opening fan switch, further improving the overall thermal insulation, and the auxiliary outer frame body is installed on the outer frame 1, which can reduce the weight of the opening fan and contribute to the structural stability of the overall frame; wherein, the inner frame 5 and the inner fan frame 6 are arranged flush on the indoor side to increase the aesthetic effect. On the whole, the present application can effectively improve the structural stability and thermal insulation of the overall frame and reduce the force exerted by the opening door on the hardware.

[0051] The contact sealing arrangement along the window closing direction in this article, such as the first broken bridge structure and the second broken bridge structure are in contact through extrusion after the window is closed, achieves sealing.

[0052] To further optimize the solution, the outer fan frame includes:

[0053] An outer snap-in frame 9, the outer snap-in frame 9 is snap-in connected to the outdoor side of the second broken bridge structure;

[0054] The second outer card-joining frame 11, the first end of the second outer card-joining frame 11 is card-joined to the outdoor side of the first outer card-joining frame 9 close to the glass;

[0055] The glass adhesive strip 10 is wrapped around the outdoor side of the two outer clamping frames 11 and the side of the first clamping frame 9 away from the glass, and is sealed between the glass.

[0056] The glass adhesive strip 10 is in a wrapped form. When the door sash is closed and opened, the glass adhesive strip 10 contacts the sealing strip on the auxiliary outer frame body to achieve sealing, thereby effectively improving the sealing effect.

[0057] Further optimization scheme, the first broken bridge structure includes:

[0058] The first thermal insulation strip 2 and the second thermal insulation strip 4 are symmetrically arranged and respectively clamped between the outer frame 1 and the inner frame 5;

[0059] The fifth heat-insulating strip 20 is clamped on the second heat-insulating strip 4 close to the glass, and is provided with a contact seal with the second thermally-broken bridge structure along the window closing direction; the fifth heat-insulating strip 20 adopts an integral bending technology, is easy to install, and has a good heat-insulating effect;

[0060] A cavity is formed between the first thermal insulation strip 2 and the second thermal insulation strip 4 , and the cavity is filled with polyurethane foam 3 .

[0061] The outer frame 1 and the inner frame 5 are connected by the first insulation strip 2 and the second insulation strip 4, and the cavity between the first insulation strip 2 and the second insulation strip 4 is filled with polyurethane foam 3 to further improve the heat preservation, water seepage prevention and sound insulation effects between the outer frame 1 and the inner frame 5. The first insulation strip 2 and the second insulation strip 4 are 55 mm multi-cavity special-shaped insulation strips.

[0062] Further optimization scheme, the second broken bridge structure includes:

[0063] A fourth heat-insulating strip 8, which is clamped between the inner fan frame 6 and an outer clamping frame 9 and is arranged in contact with the side edge of the glass;

[0064] The third insulation strip 7 is located on the side of the fourth insulation strip 8 away from the glass. The third insulation strip 7 is clamped between the inner sash frame 6 and the outer clamping frame 9, and is contact-sealed with the fifth insulation strip 20 along the window closing direction.

[0065] The inner fan frame 6 and the outer snap-in frame 9 are snap-connected through the fourth thermal insulation strip 8 and the third thermal insulation strip 7. The third thermal insulation strip 7 has a multi-cavity structure to enhance the thermal insulation effect of the third thermal insulation strip 7. After the fan is opened and closed, the third thermal insulation strip 7 is overlapped on the fifth thermal insulation strip 20 to ensure the thermal insulation and sound insulation effects between the fan and the outer frame 1 and the inner frame 5. The fourth thermal insulation strip 8 and the third thermal insulation strip 7 are symmetrical structures, which makes it difficult to make mistakes during the installation process.

[0066] To further optimize the solution, the auxiliary outer frame includes:

[0067] The insulation frame 13, the first end of the insulation frame 13 is clamped on the outer frame 1, and the second end of the insulation frame 13 is contact-sealed with the outdoor side of the glass adhesive strip 10 along the window closing direction;

[0068] The first clamping plate 12, the first end of the first clamping plate 12 is wrapped around the outer side of the second end of the insulation frame 13, the second end of the insulation frame 13 is clamped on the inner wall of the first end of the first clamping plate 12, and the second end of the first clamping plate 12 is contact-limited between the insulation frame 13 and the outer frame 1.

[0069] The insulation frame 13 is located between the opening fan and the outer frame 1, which effectively improves the insulation effect of the opening and closing part (weak part) of the opening fan; the insulation frame 13 adopts acrylonitrile-butadiene-styrene copolymer (ABS) insulation material, has a multi-chamber structure, and has good thermal insulation properties; the first clamping plate 12 mainly protects the insulation frame 13, so that the insulation frame 13 is clamped on the first clamping plate 12 and the outer frame 1.

[0070] To further optimize the solution, the auxiliary outer frame also includes:

[0071] A second clamping plate 14, wherein the second end of the first clamping plate 12 is arranged on the second clamping plate 14, and the heat preservation frame 13 is clamped on the indoor side of the second clamping plate 14;

[0072] The first extension plate 15 is disposed on a side of the outer frame 1 close to the glass, and the second clamping plate 14 is disposed between the heat preservation frame 13 and the first extension plate 15 .

[0073] The second clamping plate 14 is placed on the indoor side of the first extension plate 15, and the insulation frame 13 is clamped on the indoor side of the second clamping plate 14, thereby ensuring the installation stability of the insulation frame 13. The outdoor side of the first clamping plate 12 is flush with the first extension plate 15 to improve the appearance.

[0074] To further optimize the solution, the auxiliary outer frame also includes:

[0075] A third clamping plate 16, which is clamped between the outer frame 1 and the indoor side of the first extension plate 15, and the first end of the insulation frame 13 is clamped on the third clamping plate 16;

[0076] The second extension plates 18 , two groups of parallel second extension plates 18 are disposed on the third clamping plate 16 and are disposed perpendicular to the glass. The first end of the insulation frame 13 is clamped between the two groups of second extension plates 18 .

[0077] The third clamping plate 16 is made of modified PVC with large elastic modulus, and is closely matched with thermal insulation material and composite material; Figure 1 As shown, the third clamping plate 16 is clamped between the outer frame 1 and the indoor side of the first extension plate 15, and the first end of the insulation frame 13 is clamped on the third clamping plate 16, which helps to ensure the connection stability between the insulation frame 13 and the outer frame 1; the first end of the insulation frame 13 is vertically clamped between the two groups of second extension plates 18, and is also clamped on the first clamping plate 12 and the second clamping plate 14, which fully ensures the installation stability of the insulation frame 13 and improves the structural stability of the overall frame.

[0078] To further optimize the solution, the auxiliary outer frame also includes:

[0079] An angle is provided between the two ends of the elastic plate 17 and the third clamping plate 16 . The first end of the elastic plate 17 is fixedly connected to the outer side of the angle, and the second end of the elastic plate 17 abuts against the first extension plate 15 .

[0080] After the third clamping plate 16 is installed, the elastic plate 17 is in a compressed state, and the elastic plate 17 can ensure a more secure clamping effect of the third clamping plate 16 on the outer frame 1 and the first extension plate 15. The third clamping plate 16, the elastic plate 17, and the second extension plate 18 are installed in a compensating manner without screws, which helps the insulation frame 13 to be securely installed.

[0081] To further optimize the solution, the auxiliary outer frame also includes:

[0082] The heat-insulating column 19 is clamped between the heat-insulating frame 13 and the second heat-insulating strip 4 , and is arranged in contact with the outdoor side of the fifth heat-insulating strip 20 .

[0083] like Figure 1 As shown, the insulation column 19 is located between the fifth insulation strip 20 and the insulation frame 13. After the fan is opened and closed, the insulation frame 13 and the glass glue strip 10 are in contact and sealed, and the third insulation strip 7 and the fifth insulation strip 20 are in contact and sealed, which have effective insulation, windproof and soundproof effects on the opening and closing of the fan.

[0084] Example 2, reference Figure 2-3 The difference between this embodiment and the first embodiment is that the auxiliary outer frame body includes:

[0085] A mesh fixing frame 22, the mesh fixing frame 22 is provided with a contact seal between the indoor side of the glass and the outdoor side of the glass adhesive strip 10 along the window closing direction, and the edge of the mesh is mounted on the mesh fixing frame 22 by screws;

[0086] A first extension plate 15, which is arranged on a side of the outer frame 1 close to the glass;

[0087] The hinge seat 23 is clamped between the outer frame 1 and the first extension plate 15 and is hinged to the first vertical side of the gauze fixing frame 22 .

[0088] After removing the first clamping plate 12, the heat preservation frame 13, and the third clamping plate 16 in the first embodiment, the hinge seat 23 is clamped between the first extension plate 15 and the outer frame 1, and the clamping effect of the hinge seat 23 is made more secure by screws; when the mesh fixing frame 22 and the opening fan are closed, they are contact-sealed with the outdoor side of the glass adhesive strip 10, effectively ensuring the windproof and water-proof effect between the mesh fixing frame 22 and the opening fan. The mesh and the mesh fixing frame 22 are flat and bent, such as Figure 2-3 shown.

[0089] To further optimize the solution, the auxiliary outer frame also includes:

[0090] The protection frame 21 is clamped on the outdoor side of the gauze fixing frame 22 , and the screws are located between the protection frame 21 and the gauze fixing frame 22 .

[0091] The protection frame 21 can effectively protect the connection between the gauze and the gauze fixing frame 22 .

[0092] To further optimize the solution, the auxiliary outer frame also includes:

[0093] A lock 26, the lock 26 is fixedly connected to the second vertical side of the gauze fixing frame 22;

[0094] The screen lock seat 24 is clamped on the side of the outer frame 1 away from the hinge seat 23, and the lock head 26 is vertically slidably connected in the groove 25 on the screen lock seat 24 through the hidden lock on the screen fixing frame 22.

[0095] By manually operating the hidden lock, the lock head 26 is slid into or out of the groove 25 from bottom to top or from top to bottom, thereby completing the locking or unlocking state of the gauze fixing frame 22.

[0096] The outer frame 1, the inner frame 5, the inner fan frame 6, the first outer snap-in frame 9, the second outer snap-in frame 11, the first snap-in plate 12, the second snap-in plate 14, the first extension plate 15, the protection frame 21, and the mesh fixing frame 22 in the present application are respectively made of aluminum and aluminum alloy.

[0097] The indoor side in the present application refers to the side close to the indoor, the outdoor side refers to the side close to the outdoor, and the opening sash is a window sash with glass.

[0098] The above is only a specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art can easily think of changes or substitutions within the technical scope disclosed by the present invention, which should be included in the protection scope of the present invention. Therefore, the protection scope of the present invention should be based on the protection scope of the claims.

Claims

1. A low-energy consumption passive energy-saving aluminum alloy window, characterized in that: The invention comprises an outer frame (1), an inner frame (5), an inner sash frame (6), an outer sash frame, and glass installed between the inner sash frame (6) and the outer sash frame, wherein the inner frame (5) and the inner sash frame (6) are arranged in a contact-type sealing manner along the window closing direction and are arranged flush with each other on the indoor side, and further comprises: A first broken bridge structure, wherein the first broken bridge structure is clamped between the outer frame (1) and the inner frame (5); A second broken bridge structure, the second broken bridge structure being clamped between the inner sash frame (6) and the outer sash frame, and the first broken bridge structure and the second broken bridge structure being arranged in a contact-type seal along the window closing direction; An auxiliary outer frame body is installed on the outer frame (1) and is provided in a contact-type sealing manner with the outer sash frame along the window closing direction.

2. The low-energy consumption passive energy-saving aluminum alloy window according to claim 1 is characterized in that: The outer fan frame comprises: An outer snap-in frame (9), the outer snap-in frame (9) being snap-in connected to the outdoor side of the second thermally-insulated bridge structure; An outer second clamping frame (11), wherein a first end of the outer second clamping frame (11) is clamped on the outdoor side of the outer first clamping frame (9) close to the glass; A glass adhesive strip (10), wherein the glass adhesive strip (10) is wrapped around the outdoor side of the two outer clamping frames (11) and the side of the first clamping frame (9) away from the glass, and is sealed between the glass.

3. The low-energy consumption passive energy-saving aluminum alloy window according to claim 2 is characterized in that: The first broken bridge structure comprises: A first thermal insulation strip (2) and a second thermal insulation strip (4), wherein the first thermal insulation strip (2) and the second thermal insulation strip (4) are symmetrically arranged and respectively clamped between the outer frame (1) and the inner frame (5); a fifth heat-insulating strip (20), the fifth heat-insulating strip (20) being clamped on the second heat-insulating strip (4) close to the glass, and being contact-sealed with the second thermally-broken bridge structure along the window closing direction; A cavity is formed between the first thermal insulation strip (2) and the second thermal insulation strip (4), and the cavity is filled with polyurethane foam (3).

4. The low-energy consumption passive energy-saving aluminum alloy window according to claim 3 is characterized in that: The second broken bridge structure comprises: A fourth heat-insulating strip (8), the fourth heat-insulating strip (8) being clamped between the inner fan frame (6) and the outer clamping frame (9), and being arranged in contact with the side edge of the glass; A third thermal insulation strip (7), the third thermal insulation strip (7) is located on a side of the fourth thermal insulation strip (8) away from the glass, the third thermal insulation strip (7) is clamped between the inner sash frame (6) and the outer clamping frame (9), and is contact-sealed with the fifth thermal insulation strip (20) along the window closing direction.

5. The low-energy passive energy-saving aluminum alloy window according to any one of claims 2 to 4, characterized in that: The auxiliary outer frame body comprises: A heat preservation frame (13), wherein a first end of the heat preservation frame (13) is clamped on the outer frame (1), and a second end of the heat preservation frame (13) is provided with a contact seal with the outdoor side of the glass adhesive strip (10) along the window closing direction; A first clamping plate (12), wherein the first end of the first clamping plate (12) is wrapped around the outer side of the second end of the thermal insulation frame (13), the second end of the thermal insulation frame (13) is clamped on the inner side wall of the first end of the first clamping plate (12), and the second end of the first clamping plate (12) is contact-limited between the thermal insulation frame (13) and the outer frame (1).

6. The low-energy consumption passive energy-saving aluminum alloy window according to claim 5 is characterized in that: The auxiliary outer frame body also includes: A third clamping plate (16), the third clamping plate (16) being clamped on the outer frame (1), and the first end of the heat preservation frame (13) being clamped on the third clamping plate (16); A second extension plate (18), two groups of the second extension plates (18) arranged in parallel are arranged on the third clamping plate (16) and are arranged perpendicular to the glass, and the first end of the insulation frame (13) is clamped between the two groups of the second extension plates (18).

7. The low-energy consumption passive energy-saving aluminum alloy window according to claim 5 is characterized in that: The auxiliary outer frame body also includes: A heat-insulating column (19), wherein the heat-insulating column (19) is clamped between the heat-insulating frame (13) and the second heat-insulating strip (4), and is arranged in contact with the outdoor side of the fifth heat-insulating strip (20).

8. The low-energy passive energy-saving aluminum alloy window according to any one of claims 2 to 4, characterized in that: The auxiliary outer frame body comprises: A gauze fixing frame (22), the gauze fixing frame (22) being arranged for contact sealing between the indoor side of the glass and the outdoor side of the glass adhesive strip (10) along the window closing direction, and the edge of the gauze is mounted on the gauze fixing frame (22) by means of screws; A first extension plate (15), the first extension plate (15) being arranged on a side of the outer frame (1) close to the glass; A hinge seat (23), wherein the hinge seat (23) is clamped between the outer frame (1) and the first extension plate (15), and is hingedly arranged with the first vertical side of the gauze fixing frame (22).

9. The low-energy consumption passive energy-saving aluminum alloy window according to claim 8, characterized in that: The auxiliary outer frame body also includes: A protection frame (21), the protection frame (21) is snap-connected to the outdoor side of the gauze fixing frame (22), and the screws are located between the protection frame (21) and the gauze fixing frame (22).

10. The low-energy consumption passive energy-saving aluminum alloy window according to claim 9, characterized in that: The auxiliary outer frame body also includes: A lock (26), the lock (26) being fixedly connected to the second vertical side of the gauze fixing frame (22); A screen window lock seat (24) is clamped on the side of the outer frame (1) away from the hinge seat (23), and the lock head (26) is vertically slidably connected to the groove (25) on the screen window lock seat (24) through a hidden lock on the screen fixing frame (22).

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