Ultralow-heat-conduction warm-edge spacing frame and built-in sunshade hollow glass product manufactured by same
By using ultra-low thermal conductivity warm edge spacers and transition warm edge spacers in windows, and utilizing foil or film materials and non-metallic materials, the problem of poor thermal insulation is solved, resulting in lower heat transfer and energy consumption, and improving the building's energy-saving performance.
Patent Information
- Application Number
- CN202520129732.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-20
- Publication Date
- 2026-01-23
- Estimated Expiration
- 2035-01-20
AI Technical Summary
The existing transition warm edge spacer frame used in windows has poor heat insulation performance, resulting in significant heat loss in insulated glass products with built-in sunshades, increasing user energy consumption and operating costs, and affecting the building's energy efficiency.
The system employs ultra-low thermal conductivity warm-edge spacer frames and transition warm-edge spacer frames, improves thermal insulation performance by covering the frame surface with foil or film materials, and reduces heat transfer through the frame structure made of non-metallic materials.
It significantly reduces indoor and outdoor heat transfer, reduces energy consumption, improves the energy efficiency of building doors and windows, and lowers operating costs.
Smart Images
Figure CN223824860U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of building door and window glass technology, specifically to a warm edge spacer frame with ultra-low thermal conductivity and a built-in sunshade insulated glass product made therefrom. Background Technology
[0002] Built-in shading insulated glass products are a new product in which louvers are installed inside the cavity of insulated glass. With the implementation of the great goal of "carbon peaking and carbon neutrality" in various industries across the country, most provinces and cities across the country are vigorously promoting green buildings and ultra-low energy consumption buildings. The significant feature of these green buildings and ultra-low energy consumption buildings is that the building energy consumption is particularly low, or even close to zero. Half of the building energy consumption is emitted through doors and windows, which requires bold innovation in energy conservation of doors, windows and glass.
[0003] The transition warm edge spacer used in some existing windows has poor heat insulation performance, and the built-in sunshade insulated glass products have a large heat loss at the edges, which leads to increased energy consumption and operating costs for users, while also significantly reducing the energy-saving effect of building doors and windows. Utility Model Content
[0004] The purpose of this invention is to address the shortcomings of the aforementioned background technology by proposing an ultra-low thermal conductivity warm edge spacer frame and a hollow glass product with built-in sunshade made therefrom.
[0005] To achieve the above objectives, this utility model provides the following technical solution: an ultra-low thermal conductivity warm edge spacer frame and a built-in sunshade hollow glass product made therefrom, comprising a warm edge spacer frame body, the warm edge spacer frame body comprising a warm edge frame body and a side plate two cooperating with the warm edge frame body, the warm edge frame body comprising an upper frame body two, a side plate one and a horizontal plate, the upper frame body two, the side plate one and the horizontal plate forming a cavity A, and at least one inner or outer surface of the side plate one, the horizontal plate and the side plate two being covered with foil or film.
[0006] Preferably, the bottom end of the upper frame 2 is provided with a fixing structure, the side plate 1 includes surface 5 and surface 6, the horizontal plate includes surface 7 and surface 8, and the side plate 2 includes surface 9 and surface 10.
[0007] Preferably, the upper frame 2, side plate 1, and cross plate are an integral structure, the fixing structure is located at the top of cavity A, and the side plate 2 is fixedly connected to the upper frame 2 by the fixing structure.
[0008] Preferably, the first side panel, the horizontal panel, and the second side panel are integral structures, and the second upper frame is fixedly connected to the first side panel and the second side panel through a fixing structure to form a split structure.
[0009] Preferably, the main body of the warm edge partition frame is made of non-metallic material, and the second side plate is made of non-metallic material or metallic material.
[0010] The built-in sunshade insulated glass product includes a warm edge spacer frame body, tempered glass disposed on the side of the warm edge spacer frame body, and an ultra-low thermal conductivity transition warm edge spacer frame. The transition warm edge spacer frame cannot be used alone and needs to be used in conjunction with the warm edge spacer frame body.
[0011] Preferably, the transition warm edge spacer frame and the warm edge spacer frame body are respectively configured as four-sided frames, and the transition warm edge spacer frame and the warm edge spacer frame body respectively form two four-sided frame structures, and the two four-sided frame structures are respectively located between three tempered glass pieces to form a three-pane two-cavity insulated glass product.
[0012] Preferably, it also includes a warm edge strip and a three-sided frame structure. One three-sided frame structure consists of a three-sided warm edge spacer frame and a warm edge strip, and the other three-sided frame structure consists of a three-sided transition warm edge spacer frame and a warm edge strip. The two warm edge strips and three-sided frame structures are respectively located between three pieces of tempered glass to form a three-pane, two-cavity insulated glass product.
[0013] Preferably, the ultra-low thermal conductivity transition warm edge spacer frame includes an upper frame body one, a transition warm edge spacer frame one, and a transition warm edge spacer frame two, wherein the upper frame body one, the transition warm edge spacer frame one, and the transition warm edge spacer frame two are an integral structure.
[0014] Preferably, the tempered glass comprises three pieces, which are respectively located on both sides and in the middle of the two built-in sunshade insulated glass warm frame systems. Two pieces of tempered glass are sealed with structural adhesive one, which is bonded to the upper frame. Two pieces of tempered glass are sealed with structural adhesive two, which is bonded to the warm edge spacer frame body. The joints of adjacent sides of the upper frame are connected by connectors. Structural adhesive one is used to seal the upper frame and the tempered glass, and structural adhesive two is used to seal the warm edge spacer frame body and the tempered glass. The adjacent sides are connected by two connectors. A rotating rod is provided inside the main body of the warm edge partition frame. Fixed seats are evenly arranged on the rotating rod. Louvers are evenly arranged inside the four-sided frame structure of the main body of the warm edge partition frame. The louvers are connected by ladders. The top of the ladders is fixedly connected to the main body of the warm edge partition frame. Ladder ropes are wound around the surface of the fixed seats. The ladder ropes pass through the main body of the warm edge partition frame and the louvers respectively. The bottom of the ladder ropes is fixedly connected to a load-bearing rod, and the load-bearing rod is located at the bottom of the louvers.
[0015] Preferably, one end of the rotating rod is fixedly connected to a fixing base two, the surface of the fixing base two is wound with a ladder rope two, and the bottom end of the ladder rope two is located in the middle of the warm edge partition frame body. A magnetic inner controller one is set in the middle of the warm edge partition frame body, and the top end of the magnetic inner controller one is fixedly connected to the bottom end of the ladder rope two. A magnetic inner controller two is set between the upper frame body one and the transition warm edge partition frame plate two, and the positions of the magnetic inner controller two and the magnetic inner controller one correspond to those of the magnetic inner controller one. A magnet is set on one side of a piece of tempered glass. The third internal controller is positioned corresponding to the second internal controller. The second ladder rope and the first internal controller are both located inside the main body of the warm edge partition frame. The first internal controller slides inside the main body of the warm edge partition frame. The second internal controller slides on one side of the transition warm edge partition frame plate. The third internal controller slides on one side of the tempered glass to drive the second and third internal controllers. The winding direction of the second fixed seat and the second ladder rope is opposite to the winding direction of the first fixed seat and the first ladder rope.
[0016] Preferably, the upper frame one, the transition warm edge partition plate one, and the transition warm edge partition plate two form a cavity with an opening on one side, and at least one inner or outer surface of the transition warm edge partition plate one and the transition warm edge partition plate two is covered with foil or film.
[0017] Preferably, the upper frame 1, the transition warm edge partition plate 1, and the transition warm edge partition plate 2 are integral structures. The transition warm edge partition plate 1 includes surface 1 and surface 2, and the transition warm edge partition plate 2 includes surface 3 and surface 4.
[0018] Preferably, the upper frame, the transition warm edge partition plate, and the transition warm edge partition plate are all made of non-metallic materials.
[0019] Preferably, the foil is made of copper or aluminum foil, the coating of the film is copper or aluminum plated, and the film is made of OPP, PE, PVC, PET, or nylon material to reduce thermal conductivity.
[0020] Preferably, the membrane is a colorless or colored membrane to reduce thermal conductivity.
[0021] Compared with the prior art, the beneficial effects of this utility model are:
[0022] The foil or film applied to the surfaces of the transition warm edge partition frame 1 and the transition warm edge partition frame 2 can improve the heat insulation effect, greatly reduce the heat transfer between indoors and outdoors, reduce energy consumption, and thus save users' operating costs. The foil or film applied to the surface of the main body of the warm edge partition frame can also improve the heat insulation effect and greatly reduce the heat transfer between indoors and outdoors. By using the transition warm edge partition frame and the main body of the warm edge partition frame in combination, the total heat transfer between indoors and outdoors can be further reduced, further improving the energy-saving effect of building doors and windows, thereby reducing building energy consumption. Attached Figure Description
[0023] Figures 1-10 This is a schematic diagram of the transition warm edge spacer frame in this utility model;
[0024] Figure 11 This is a three-dimensional schematic diagram of the hollow glass product with built-in sunshade in this utility model;
[0025] Figure 12 This is a three-dimensional schematic diagram of the fixed base 2 and the magnet internal controller 1 in this utility model;
[0026] Figure 13 This is a three-dimensional schematic diagram of the rotating rod and louvers in this utility model;
[0027] Figure 14 This is a three-dimensional schematic diagram of the upper frame and the warm edge partition frame of this utility model.
[0028] Figure 15 This is a structural schematic diagram of the upper frame, tempered glass, and warm edge partition frame of this utility model;
[0029] Figure 16 This is a schematic diagram of the structure of the warm edge strip, tempered glass, and structural adhesive II in this utility model;
[0030] Figures 17-38 This is a schematic diagram of the first embodiment of the warm edge partition frame body in this utility model;
[0031] Figures 39-60 This is a schematic diagram of the second embodiment of the warm edge partition frame body in this utility model.
[0032] In the diagram: 1. Upper frame one; 2. Transition warm edge partition frame one; 3. Transition warm edge partition frame two; 4. Surface one; 5. Surface two; 6. Surface three; 7. Surface four; 8. Connector one; 9. Tempered glass; 10. Structural adhesive one; 11. Main body of warm edge partition frame; 11-1. Upper frame two; 11-2. Side panel one; 11-3. Horizontal panel; 11-4. Side panel two; 11-5. Fixing structure; 11-6. Surface five; 11-7. Surface 6; 11-8, Surface 7; 11-9, Surface 8; 11-10, Surface 9; 11-11, Surface 10; 12, Connector 2; 13, Structural Adhesive 2; 14, Rotating Rod; 15, Fixing Base 1; 16, Louver; 17, Ladder Rope 1; 18, Ladder Belt; 19, Load-bearing Rod; 20, Fixing Base 2; 21, Ladder Rope 2; 22, Magnetic Internal Controller 1; 23, Magnetic Internal Controller 2; 24, Magnetic Internal Controller 3; 25, Warm Edge Strip. Detailed Implementation
[0033] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.
[0034] Please see Figures 17-38 The first embodiment of this utility model:
[0035] A warm-edge spacer frame with ultra-low thermal conductivity includes a warm-edge spacer frame body 11. The warm-edge spacer frame body 11 includes a warm-edge frame body and a side plate 11-4 that cooperates with the warm-edge frame body. The warm-edge frame body includes an upper frame 11-1, a side plate 11-2, and a horizontal plate 11-3. The upper frame 11-1, the side plate 11-2, and the horizontal plate 11-3 form a cavity A. At least one inner or outer surface of the side plate 11-2, the horizontal plate 11-3, and the side plate 11-4 is covered with a foil or film.
[0036] Furthermore, the bottom end of the upper frame 11-1 is provided with a fixing structure 11-5, the side plate 11-2 includes surface 5 11-6 and surface 6 11-7, the horizontal plate 11-3 includes surface 7 11-8 and surface 8 11-9, and the side plate 2 11-4 includes surface 9 11-10 and surface 11-11.
[0037] Furthermore, the upper frame 11-1, side plate 11-2 and horizontal plate 11-3 are integral structures, the fixing structure 11-5 is located at the top of cavity A, and the side plate 11-4 is fixedly connected to the upper frame 11-1 by the fixing structure 11-5.
[0038] Furthermore, the main body 11 of the warm edge partition frame is made of non-metallic material, and the side plate 11-4 is made of non-metallic or metallic material;
[0039] Furthermore, the foil used is copper foil or aluminum foil, the coating of the film is copper-plated or aluminum-plated, the film is made of OPP, PE, PVC, PET, or nylon materials, and the film is colorless or colored to reduce thermal conductivity.
[0040] Please see Figures 39-60 The second embodiment of this utility model:
[0041] A warm-edge spacer frame with ultra-low thermal conductivity includes a warm-edge spacer frame body 11. The warm-edge spacer frame body 11 includes a warm-edge frame body and a side plate 11-4 that cooperates with the warm-edge frame body. The warm-edge frame body includes an upper frame 11-1, a side plate 11-2, and a horizontal plate 11-3. The upper frame 11-1, the side plate 11-2, and the horizontal plate 11-3 form a cavity A. At least one inner or outer surface of the side plate 11-2, the horizontal plate 11-3, and the side plate 11-4 is covered with a foil or film.
[0042] Furthermore, the bottom end of the upper frame 11-1 is provided with a fixing structure 11-5, the side plate 11-2 includes surface 5 11-6 and surface 6 11-7, the horizontal plate 11-3 includes surface 7 11-8 and surface 8 11-9, and the side plate 2 11-4 includes surface 9 11-10 and surface 11-11.
[0043] Furthermore, side panel 11-2, horizontal panel 11-3 and side panel 2 11-4 are integral structures, while upper frame 2 11-1 is fixedly connected to side panel 11-2 and side panel 2 11-4 through fixing structure 11-5 to form a split structure.
[0044] Furthermore, the main body 11 of the warm edge partition frame is made of non-metallic material, and the side plate 11-4 is made of non-metallic or metallic material;
[0045] Furthermore, the foil used is copper foil or aluminum foil, the coating of the film is copper-plated or aluminum-plated, the film is made of OPP, PE, PVC, PET, or nylon materials, and the film is colorless or colored to reduce thermal conductivity.
[0046] Please see Figures 11-15 The third embodiment of this utility model:
[0047] The built-in sunshade insulated glass product includes a warm edge spacer frame body 11 and tempered glass 9 set on the side of the warm edge spacer frame body 11, as well as an ultra-low thermal conductivity transition warm edge spacer frame. The transition warm edge spacer frame cannot be used alone and needs to be used in conjunction with the warm edge spacer frame body 11.
[0048] Furthermore, the transition warm edge spacer frame and the warm edge spacer frame body 11 are respectively set as four-sided frames, and the transition warm edge spacer frame and the warm edge spacer frame body 11 respectively form two four-sided frame structures, and the two four-sided frame structures are respectively located between three tempered glass 9 to form a three-glass two-cavity insulated glass product.
[0049] Furthermore, the ultra-low thermal conductivity transition warm edge spacer includes an upper frame 1, a transition warm edge spacer plate 2, and a transition warm edge spacer plate 3, with the upper frame 1, the transition warm edge spacer plate 2, and the transition warm edge spacer plate 3 forming an integral structure.
[0050] Furthermore, the tempered glass 9 consists of three pieces, located on both sides and in the middle of the two built-in sunshade insulated glass warm edge frame systems. Two pieces of tempered glass 9 are sealed with structural adhesive 10, which is bonded to the upper frame 1. Two pieces of tempered glass 9 are also sealed with structural adhesive 2 13, which is bonded to the warm edge spacer frame body 11. The joints of adjacent sides of the upper frame 1 are connected by connectors 8. Structural adhesive 10 seals the upper frame 1 and the tempered glass 9, while structural adhesive 2 13 seals the warm edge spacer frame body 11 and the tempered glass 9. The adjacent sides of the partition frame body 11 are connected by connectors 12. A rotating rod 14 is installed inside the warm-edge partition frame body 11, and fixed seats 15 are evenly distributed on the rotating rod 14. Louvers 16 are evenly distributed inside the four-sided frame structure of the warm-edge partition frame body 11, and the louvers 16 are connected by ladder straps 18. The top ends of the ladder straps 18 are fixedly connected to the warm-edge partition frame body 11. Ladder ropes 17 are wound around the surface of the fixed seats 15, and each ladder rope 17 passes through the warm-edge partition frame body 11 and the louvers 16. The bottom ends of the ladder ropes 17 are fixedly connected to... A load-bearing rod 19 is attached, and the load-bearing rod 19 is located at the bottom end of the louver 16. One end of the rotating rod 14 is fixedly connected to a fixing seat 20. A ladder rope 21 is wound around the surface of the fixing seat 20, and the bottom end of the ladder rope 21 is located in the middle of the warm edge partition frame body 11. A magnetic internal controller 22 is set in the middle of the warm edge partition frame body 11, and the top end of the magnetic internal controller 22 is fixedly connected to the bottom end of the ladder rope 21. A magnetic internal controller 23 is set between the upper frame 1 and the transition warm edge partition frame plate 23, and the position of the magnetic internal controller 23 corresponds to that of the magnetic internal controller 22. A piece of tempered glass. A magnetic internal controller 24 is provided on one side of 9, and the position of the magnetic internal controller 24 corresponds to the magnetic internal controller 23. The ladder rope 21 and the magnetic internal controller 12 are both located inside the warm edge partition frame body 11. The magnetic internal controller 12 slides inside the warm edge partition frame body 11. The magnetic internal controller 23 slides on one side of the transition warm edge partition frame plate 2. The magnetic internal controller 24 slides on one side of the tempered glass 9 to drive the magnetic internal controller 23 and the magnetic internal controller 24. The winding direction of the fixing seat 20 and the ladder rope 21 is opposite to the winding direction of the fixing seat 15 and the ladder rope 17.
[0051] When the user needs to lower the louver 16, the user pushes the magnetic internal controller 3 24 upward. The magnetic internal controller 3 24 drives the magnetic internal controller 1 22 to move through the magnetic internal controller 23. At this time, the ladder rope 2 21 is in a loose state. At the same time, under the action of the load-bearing rod 19 and the weight of the louver 16 itself, the ladder rope 17 can be released, so that the louver 16 can be unfolded from top to bottom. During the unfolding process, the ladder rope 17 pulls the fixed seat 15 to rotate. The fixed seat 15 drives the rotating rod 14 to rotate. The rotating rod 14 drives the fixed seat 2 20 to rotate. At this time, the rotating fixed seat 2 20 can wind up the ladder rope 2 21, so that the user can close the product.
[0052] When the user needs to retract the louver 16, the user pushes the magnetic internal controller 24 downwards. The magnetic internal controller 24 drives the magnetic internal controller 22 to move through the magnetic internal controller 23. The magnetic internal controller 22 pulls the ladder rope 21 downwards. At this time, the ladder rope 21 pulls the fixed seat 20 to rotate. The fixed seat 20 drives the rotating rod 14 to rotate. The rotating rod 14 drives the fixed seat 15 to rotate. The rotating fixed seat 15 winds up the ladder rope 17. At this time, the louver 16 can be retracted from bottom to top through the ladder rope 17 and the load-bearing rod 19, so that the user can easily open this product.
[0053] Please see Figures 11-14 and Figure 16 The fourth embodiment of this utility model:
[0054] The built-in sunshade insulated glass product includes a warm edge spacer frame body 11 and tempered glass 9 set on the side of the warm edge spacer frame body 11, as well as an ultra-low thermal conductivity transition warm edge spacer frame. The transition warm edge spacer frame cannot be used alone and needs to be used in conjunction with the warm edge spacer frame body 11.
[0055] Furthermore, it includes a warm edge strip 25 and a three-sided frame structure. One three-sided frame structure consists of a three-sided warm edge spacer frame body 11 and a warm edge strip 25. The other three-sided frame structure consists of a three-sided transition warm edge spacer frame and a warm edge strip 25. The two warm edge strips 25 and the three-sided frame structure are respectively located between three pieces of tempered glass 9 to form a three-pane, two-cavity insulated glass product.
[0056] Furthermore, the ultra-low thermal conductivity transition warm edge spacer includes an upper frame 1, a transition warm edge spacer plate 2, and a transition warm edge spacer plate 3, with the upper frame 1, the transition warm edge spacer plate 2, and the transition warm edge spacer plate 3 forming an integral structure.
[0057] Furthermore, the tempered glass 9 consists of three pieces, located on both sides and in the middle of the two built-in sunshade insulated glass warm edge frame systems. Two pieces of tempered glass 9 are sealed with structural adhesive 10, which is bonded to the upper frame 1. Two pieces of tempered glass 9 are also sealed with structural adhesive 2 13, which is bonded to the warm edge spacer frame body 11. The joints of adjacent sides of the upper frame 1 are connected by connectors 8. Structural adhesive 10 seals the upper frame 1 and the tempered glass 9, while structural adhesive 2 13 seals the warm edge spacer frame body 11 and the tempered glass 9. The adjacent sides of the partition frame body 11 are connected by connectors 12. A rotating rod 14 is installed inside the warm-edge partition frame body 11, and fixed seats 15 are evenly distributed on the rotating rod 14. Louvers 16 are evenly distributed inside the four-sided frame structure of the warm-edge partition frame body 11, and the louvers 16 are connected by ladder straps 18. The top ends of the ladder straps 18 are fixedly connected to the warm-edge partition frame body 11. Ladder ropes 17 are wound around the surface of the fixed seats 15, and each ladder rope 17 passes through the warm-edge partition frame body 11 and the louvers 16. The bottom ends of the ladder ropes 17 are fixedly connected to... A load-bearing rod 19 is attached, and the load-bearing rod 19 is located at the bottom end of the louver 16. One end of the rotating rod 14 is fixedly connected to a fixing seat 20. A ladder rope 21 is wound around the surface of the fixing seat 20, and the bottom end of the ladder rope 21 is located in the middle of the warm edge partition frame body 11. A magnetic internal controller 22 is set in the middle of the warm edge partition frame body 11, and the top end of the magnetic internal controller 22 is fixedly connected to the bottom end of the ladder rope 21. A magnetic internal controller 23 is set between the upper frame 1 and the transition warm edge partition frame plate 23, and the position of the magnetic internal controller 23 corresponds to that of the magnetic internal controller 22. A piece of tempered glass. A magnetic internal controller 24 is provided on one side of 9, and the position of the magnetic internal controller 24 corresponds to the magnetic internal controller 23. The ladder rope 21 and the magnetic internal controller 12 are both located inside the warm edge partition frame body 11. The magnetic internal controller 12 slides inside the warm edge partition frame body 11. The magnetic internal controller 23 slides on one side of the transition warm edge partition frame plate 2. The magnetic internal controller 24 slides on one side of the tempered glass 9 to drive the magnetic internal controller 23 and the magnetic internal controller 24. The winding direction of the fixing seat 20 and the ladder rope 21 is opposite to the winding direction of the fixing seat 15 and the ladder rope 17.
[0058] When the user needs to lower the louver 16, the user pushes the magnetic internal controller 3 24 upward. The magnetic internal controller 3 24 drives the magnetic internal controller 1 22 to move through the magnetic internal controller 23. At this time, the ladder rope 2 21 is in a loose state. At the same time, under the action of the load-bearing rod 19 and the weight of the louver 16 itself, the ladder rope 17 can be released, so that the louver 16 can be unfolded from top to bottom. During the unfolding process, the ladder rope 17 pulls the fixed seat 15 to rotate. The fixed seat 15 drives the rotating rod 14 to rotate. The rotating rod 14 drives the fixed seat 2 20 to rotate. At this time, the rotating fixed seat 2 20 can wind up the ladder rope 2 21, so that the user can close the product.
[0059] When the user needs to roll up the louver 16, the user pushes the magnetic internal controller 24 downwards. The magnetic internal controller 24 drives the magnetic internal controller 22 to move through the magnetic internal controller 23. The magnetic internal controller 22 pulls the ladder rope 21 downwards. At this time, the ladder rope 21 pulls the fixed seat 20 to rotate. The fixed seat 20 drives the rotating rod 14 to rotate. The rotating rod 14 drives the fixed seat 15 to rotate. The rotating fixed seat 15 winds up the ladder rope 17. At this time, the louver 16 can be rolled up from bottom to top through the ladder rope 17 and the load-bearing rod 19, so that the user can open the product.
[0060] Please see Figures 1-10 The fifth embodiment of this utility model:
[0061] Furthermore, the ultra-low thermal conductivity transition warm edge spacer includes an upper frame 1, a transition warm edge spacer plate 2, and a transition warm edge spacer plate 3, with the upper frame 1, the transition warm edge spacer plate 2, and the transition warm edge spacer plate 3 forming an integral structure.
[0062] Furthermore, the upper frame 1, the transition warm edge partition plate 1, and the transition warm edge partition plate 2 form a cavity with an opening on one side, and at least one inner or outer surface of the transition warm edge partition plate 1 and the transition warm edge partition plate 2 are covered with foil or film.
[0063] Furthermore, the upper frame 1, the transition warm edge partition frame 1, and the transition warm edge partition frame 2 are integral structures. The transition warm edge partition frame 1 includes surface 4 and surface 2, and the transition warm edge partition frame 2 includes surface 3 and surface 4.
[0064] Furthermore, the upper frame 1, the transition warm edge partition 1 2, and the transition warm edge partition 2 3 are all made of non-metallic materials. The foil is made of copper foil or aluminum foil, the film coating is copper-plated or aluminum-plated, and the film is made of OPP, PE, PVC, PET, or nylon materials to reduce heat conduction. The film is colorless or colored film to reduce heat conduction.
[0065] Furthermore, the thermal conductivity of aluminum alloy spacers is approximately 160 W / (mK), while that of non-metallic spacers ranges from 0.15 W / (mK) to 0.2 W / (mK). For a triple-glazed, double-cavity, single-pane LOW-E insulated glass unit with built-in sunshade and the same configuration, if an aluminum alloy spacer is used, the heat transfer coefficient is 2.1 W / (m².K) to 2.3 W / (mK). For the same configuration, if a non-metallic spacer is used, the heat transfer coefficient is 1.5 W / (m².K) to 1.6 W / (mK). In E-type insulated glass products, the use of the warm-edge spacer and transition warm-edge spacer of this application, with thermal conductivity of 0.02W / (mK) to 0.05W / (mK), can reduce the heat transfer coefficient of the built-in shading insulated glass products to 1.0W / (m2.K) to 1.2W / (mK).
[0066] Specific experimental data are shown in Tables 1 and 2;
[0067] Table 1 (Experimental Data)
[0068]
[0069] Table 2 (Experimental Data)
[0070]
[0071] The test data obtained from the above embodiments show that this application can significantly reduce heat loss and frost / condensation in built-in shading insulated glass products, reduce heat transfer through building doors and windows, and thus achieve the purpose of building energy conservation. The products of this application can be widely used in green buildings and ultra-low energy buildings, contributing to the great goal of achieving "carbon peak and carbon neutrality".
[0072] It will be apparent to those skilled in the art that this invention is not limited to the details of the exemplary embodiments described above, and that it can be implemented in other specific forms without departing from the spirit or essential characteristics of this invention. Therefore, the embodiments should be considered illustrative and non-limiting in all respects, and the scope of this invention is defined by the appended claims rather than the foregoing description. Thus, it is intended that all variations falling within the meaning and scope of equivalents of the claims be included within this invention. No reference numerals in the claims should be construed as limiting the scope of the claims.
Claims
1. A warm-edge spacer frame with ultra-low thermal conductivity, characterized in that, The device includes a warm edge partition frame body (11), which includes a warm edge frame body and a side plate two (11-4) that cooperates with the warm edge frame body. The warm edge frame body includes an upper frame body two (11-1), a side plate one (11-2), and a horizontal plate (11-3). The upper frame body two (11-1), the side plate one (11-2), and the horizontal plate (11-3) form a cavity A. At least one inner or outer surface of the side plate one (11-2), the horizontal plate (11-3), and the side plate two (11-4) is covered with foil or film.
2. The ultra-low thermal conductivity warm-edge spacer frame according to claim 1, characterized in that: The bottom end of the upper frame (11-1) is provided with a fixing structure (11-5), the side plate (11-2) includes surface five (11-6) and surface six (11-7), the horizontal plate (11-3) includes surface seven (11-8) and surface eight (11-9), and the side plate (11-4) includes surface nine (11-10) and surface ten (11-11).
3. The ultra-low thermal conductivity warm-edge spacer frame according to claim 2, characterized in that: The upper frame (11-1), side plate (11-2), and horizontal plate (11-3) are an integral structure. The fixing structure (11-5) is located at the top of the cavity A. The side plate (11-4) is fixedly connected to the upper frame (11-1) by the fixing structure (11-5).
4. The ultra-low thermal conductivity warm-edge spacer frame according to claim 2, characterized in that: The side panel 1 (11-2), the horizontal panel (11-3), and the side panel 2 (11-4) are integral structures. The upper frame 2 (11-1) is fixedly connected to the side panel 1 (11-2) and the side panel 2 (11-4) through a fixing structure (11-5) to form a split structure.
5. The ultra-low thermal conductivity warm-edge spacer frame according to claim 1, characterized in that: The main body (11) of the warm edge partition frame is made of non-metallic material, and the second side plate (11-4) is made of non-metallic material or metallic material.
6. A hollow glass product with built-in sunshade, characterized in that, It includes the warm edge spacer body (11) as described in any one of claims 1-5, tempered glass (9) disposed on the side of the warm edge spacer body (11), and a transition warm edge spacer with ultra-low thermal conductivity.
7. A hollow glass product with built-in sunshade according to claim 6, characterized in that: The transition warm edge spacer and the warm edge spacer body (11) are respectively set as four-sided frames. The transition warm edge spacer and the warm edge spacer body (11) respectively form two four-sided frame structures, and the two four-sided frame structures are respectively located between three tempered glass (9) to form a three-glass two-cavity insulated glass product.
8. A hollow glass product with built-in sunshade according to claim 6, characterized in that: It also includes a warm edge strip (25) and a three-sided frame structure. One three-sided frame structure consists of a three-sided warm edge spacer frame body (11) and a warm edge strip (25). The other three-sided frame structure consists of a three-sided transition warm edge spacer frame and a warm edge strip (25). The two warm edge strips (25) and the three-sided frame structure are respectively located between three pieces of tempered glass (9) to form a three-pane, two-cavity insulated glass product.
9. A hollow glass product with built-in sunshade according to claim 6, characterized in that: The ultra-low thermal conductivity transition warm edge spacer includes an upper frame (1), a transition warm edge spacer plate (2) and a transition warm edge spacer plate (3), and the upper frame (1), the transition warm edge spacer plate (2) and the transition warm edge spacer plate (3) are an integral structure.
10. A hollow glass product with built-in sunshade according to claim 9, characterized in that: The tempered glass (9) consists of three pieces, which are located on both sides and in the middle of the two built-in sunshade insulated glass warm frame systems. Two pieces of tempered glass (9) are sealed with structural adhesive one (10), which is bonded to the upper frame one (1). Two pieces of tempered glass (9) are sealed with structural adhesive two (13), which is bonded to the warm edge partition frame body (11). The adjacent sides of the upper frame one (1) are connected by connector one (8). Structural adhesive one (10) is used to seal the upper frame one (1) and the tempered glass (9). Structural adhesive two (13) is used to seal the warm edge partition frame body (11) and the tempered glass (9). The adjacent sides of the warm edge partition frame body (11) are connected by connector one (8). Connected by connector two (12), a rotating rod (14) is provided inside the main body (11) of the warm edge partition frame. A fixed seat (15) is evenly provided on the rotating rod (14). Louvers (16) are evenly provided inside the main body (11) of the warm edge partition frame, which forms a four-sided frame structure. The louvers (16) are all connected by ladder belts (18). The top of the ladder belts (18) is fixedly connected to the main body (11) of the warm edge partition frame. Ladder rope (17) is wrapped around the surface of the fixed seat (15). The ladder rope (17) passes through the main body (11) of the warm edge partition frame and the louvers (16) respectively. The bottom of the ladder rope (17) is fixedly connected to a load-bearing rod (19), and the load-bearing rod (19) is located at the bottom of the louvers (16).
11. A hollow glass product with built-in sunshade according to claim 10, characterized in that: One end of the rotating rod (14) is fixedly connected to a fixed seat two (20). The surface of the fixed seat two (20) is wrapped with a ladder rope two (21), and the bottom end of the ladder rope two (21) is located in the middle of the warm edge partition frame body (11). A magnetic internal controller one (22) is provided in the middle of the warm edge partition frame body (11), and the top end of the magnetic internal controller one (22) is fixedly connected to the bottom end of the ladder rope two (21). A magnetic internal controller two (23) is provided between the upper frame body one (1) and the transition warm edge partition frame plate two (3), and the position of the magnetic internal controller two (23) corresponds to that of the magnetic internal controller one (22). A magnetic internal controller three (24) is provided on one side of a piece of tempered glass (9). ), and the position of the magnet inner controller three (24) corresponds to the magnet inner controller two (23). The ladder rope two (21) and the magnet inner controller one (22) are both located inside the warm edge partition frame body (11). The magnet inner controller one (22) slides inside the warm edge partition frame body (11). The magnet inner controller two (23) slides on one side of the transition warm edge partition frame plate one (2). The magnet inner controller three (24) slides on one side of the tempered glass (9) to drive the magnet inner controller two (23) and the magnet inner controller three (24). The winding direction of the fixed seat two (20) and the ladder rope two (21) is opposite to the winding direction of the fixed seat one (15) and the ladder rope one (17).
12. A hollow glass product with built-in sunshade according to claim 9, characterized in that: The upper frame (1), the transition warm edge partition plate (2) and the transition warm edge partition plate (3) form a cavity with an opening on one side. At least one inner or outer surface of the transition warm edge partition plate (2) and the transition warm edge partition plate (3) is covered with foil or film.
13. A hollow glass product with built-in sunshade according to claim 12, characterized in that: The upper frame (1), the transition warm edge partition frame (2) and the transition warm edge partition frame (3) are integral structures. The transition warm edge partition frame (2) includes surface (4) and surface (5), and the transition warm edge partition frame (3) includes surface (6) and surface (7).
14. A hollow glass product with built-in sunshade according to claim 12, characterized in that: The upper frame (1), the transition warm edge partition plate (2), and the transition warm edge partition plate (3) are all made of non-metallic materials.
15. A hollow glass product with built-in sunshade according to claim 12, characterized in that: The foil is made of copper or aluminum foil, the coating of the film is copper or aluminum, and the film is made of OPP, PE, PVC, PET, or nylon materials.
16. A hollow glass product with built-in sunshade according to claim 15, characterized in that: The membrane is a colorless membrane or a colored membrane.