Coated glass window design and optimization method fused with building environment

Abstract

The invention provides a design and optimization method for a coated glass window fused with a building environment, and relates to the technical field of constructions.The coated glass window comprises a window frame fixedly installed on a wall and a glass outer frame installed in the window frame, and glass is installed in the glass outer frame; the outer wall of one side of the glass outer frame is rotationally connected with one side wall of the window frame through a hinge, the outer wall of the other side of the glass outer frame is in openable locking connection with the other side wall of the window frame, the frame body comprises an inner frame and an outer frame, and a glass fixing assembly is installed between the inner frame and the outer frame; the bottom of the glass is clamped and fixed through the glass fixing assembly, so that the glass is fixedly installed between the inner frame and the outer frame, the width of the frame body is effectively shortened through the structure, and a glass coating layer is located on the outer surface of the glass. By arranging the glass fixing assembly structure, the width of the frame body is shortened while the sealing performance of the glass window is guaranteed, and the glass window and the building environment can be perfectly fused.

Description

Technical Field

[0001] The present invention relates to the field of building technology, and in particular to a design and optimization method of a coated glass window integrated with a building environment. Background Art

[0002] Designing glass windows on buildings can allow natural light to enter the room, reduce dependence on artificial lighting during the day, save energy, and make the indoor space brighter and more transparent, providing people with a comfortable visual environment. In addition, by opening windows, the indoor and outdoor air can circulate, which can improve indoor air quality, keep the air fresh, reduce indoor humidity, and reduce the breeding of bacteria and viruses. In summer, the design of glass windows can block part of the sun's heat from entering the room, reduce the rise in indoor temperature, and reduce the energy consumption of air conditioning and other refrigeration equipment. In winter, it can reduce the dissipation of indoor heat to the outside, keep the indoor temperature relatively stable, improve the building's thermal insulation performance, and save heating energy.

[0003] Existing glass windows are mainly composed of window frames, glass and glass outer frames. In order to firmly install the glass on the glass outer frame, the glass is generally installed by inserting it into a deeper position inside the glass outer frame. By increasing the fixing area of ​​the glass, the glass can be firmly installed on the glass outer frame. This installation structure makes the width of the glass outer frame too large, making the installation position of the glass window in the building appear particularly prominent, making it difficult for the glass window to blend into the building environment. Summary of the invention

[0004] In order to solve the technical problem in the prior art that the width of the glass frame is too large, which makes the installation position of the glass window in the building particularly prominent, and thus makes it difficult for the glass window to blend into the building environment, the present invention provides a design and optimization method for a coated glass window that blends into the building environment; The present invention provides a method for designing and optimizing a coated glass window integrated with a building environment, which adopts the following technical solutions: A coated glass window design that blends in with the architectural environment comprises a window frame fixedly mounted on a wall and a glass outer frame mounted inside the window frame, wherein glass is mounted inside the glass outer frame, an outer wall on one side of the glass outer frame is rotatably connected to a side wall of the window frame by a hinge, and an outer wall on the other side of the glass outer frame is openably locked to the other side wall of the window frame, wherein the window frame is a square structure and is composed of four frames mounted together, and the glass outer frame is also a square structure and is composed of four frames mounted together, the frame comprises an inner frame and an outer frame, and glass is mounted between the inner frame and the outer frame, wherein a glass fixing assembly is mounted between the inner frame and the outer frame, and the bottom of the glass is clamped and fixed by the glass fixing assembly, so that the glass is fixedly mounted between the inner frame and the outer frame, and this structure effectively shortens the width of the frame, and a glass coating layer is provided on the outer surface of the glass.

[0005] Furthermore, a handle assembly is installed on one side wall of the glass outer frame, and the glass outer frame and the window frame are connected in an openable locked manner through the handle assembly.

[0006] Furthermore, a connecting arm protrudes downward from the bottom of the inner frame, a connecting beam is provided on the inner wall of the outer frame at a position corresponding to the connecting arm, and locking ends are provided at the ends of the connecting arm and the connecting beam. The inner frame and the outer frame can be fixedly connected by respectively locking the rubber protrusions with the above-mentioned two locking ends.

[0007] Furthermore, the glass fixing assembly includes a first clamping seat and a second clamping seat slidably arranged on the bottom wall of the inner side of the inner frame, the first clamping seat and the second clamping seat bottom protruding downwardly are provided with a protrusion, the protrusion is provided with a threaded through hole, and a long bolt is rotatably connected to the outer wall of the outer frame at a position corresponding to the above-mentioned threaded through hole, and the long bolt passes through the side wall of the outer frame and forms a threaded connection with the threaded through hole at the bottom of the first clamping seat and the threaded through hole on the protrusion in the second clamping seat, the threaded through hole on the protrusion in the first clamping seat and the threaded through hole on the protrusion in the second clamping seat have opposite rotation directions, the first clamping seat has an upper portion with an installation groove, in which a first clamping rubber is fixedly installed, a mounting platform is provided at the bottom of the first clamping rubber and extends toward the second clamping seat, the second clamping seat has an installation groove, in which a second clamping rubber is fixedly installed, and a mounting platform is provided at the bottom of the second clamping rubber and extends toward the first clamping rubber, the bottom of the glass is pressed against the mounting platform at the bottom of the first clamping rubber and the second clamping rubber.

[0008] Furthermore, a sealing rubber is provided between the second clamping seat and the inner wall of the outer frame side portion to increase the sealing performance of the glass window, and a hanging groove is provided at the top of the first clamping rubber and extends away from the second clamping rubber, and the hanging groove is hung on the top of the inner frame.

[0009] Furthermore, the frame includes an inner frame and an outer frame, a locking groove is provided on the side wall of the inner frame close to the outer frame, a connecting groove is provided on the side wall of the outer frame close to the inner frame, a bottom connecting block is locked and connected between the locking groove and the connecting groove, so that the inner frame and the outer frame are fixedly connected, a locking boss is also provided on the side wall of the inner frame, the locking boss is arranged at the upper part of the locking groove, a locking protrusion is also provided on the side wall of the outer frame, the locking protrusion is arranged at the upper part of the connecting groove, a water-proof component is locked and provided on the locking boss and the locking protrusion, the bottom of the water-proof component is connected to the top of the bottom connecting block, the top of the water-proof component has an L-shaped arc surface, the bottom of the rubber protrusion protrudes downward and has a semicircular convex surface, the semicircular convex surface at the bottom of the rubber protrusion is in contact with the L-shaped arc surface at the top of the water-proof component.

[0010] Furthermore, a snap-fitting portion is provided on the upper part of the inner frame body, protruding outward in the direction of the water-blocking component, and an internal sealing strip is snap-fitted and installed in the snap-fitting portion. The internal sealing strip has an L-shaped convex circle protruding outward on the side wall close to the water-blocking component, and an arc-shaped groove is provided on the side wall close to the internal sealing strip at the bottom of the connecting arm. The L-shaped convex circle in the internal sealing strip fits with the arc-shaped groove in the connecting arm.

[0011] Furthermore, the specific structure of the waterproof sealing block includes a waterproof sealing block and a positioning beam. An L-shaped arc surface is arranged on the upper part of the waterproof sealing block. The positioning beam is fixedly installed on the side wall of the waterproof sealing block close to the inner frame. The positioning beam is made of a hard material that is not easily deformed. The L-shaped arc surface in the waterproof sealing block is supported upward by the positioning beam. A sealing cam is fixedly arranged on the top of the outer frame to protrude upward, and a groove is arranged at the bottom of the outer frame at a position corresponding to the sealing cam. When in use, the sealing cam is inserted into the groove at the bottom of the sealing beam.

[0012] Furthermore, the glass is a double-layer glass structure with a hollow space inside, the hollow space inside the glass is filled with an inert gas, and the glass coating layer is a low-emissivity coating layer.

[0013] A method for optimizing a coated glass window integrated with a building environment comprises the following steps: S101, a glass fixing assembly is provided between the inner frame and the outer frame to clamp and fix the bottom of the glass, so that when the glass is installed on the frame, the installation dimension of the glass inserted into the frame is reduced, thereby shortening the width of the frame; S102, by fixing and installing a positioning beam on the side of the waterproof sealing block, the L-shaped curved surface in the inner frame can be supported upward, effectively preventing the L-shaped curved surface of the waterproof sealing block from deforming and collapsing after long-term use; S103, a sealing convex circle is provided on the top of the outer frame, and a groove is provided at a position corresponding to the sealing convex circle at the bottom of the outer frame, and the sealing convex circle is inserted into the groove at the bottom of the sealing beam during use, so as to improve the sealing and rainproof properties of the glass window; S104, coating the glass surface with a glass coating layer, wherein the glass coating layer is a low-emissivity coating layer, has a high mid- and far-infrared reflectivity, and can effectively block indoor and outdoor radiation heat transfer; S105, finally filling the hollow space in the glass with inert gas to reduce the heat conduction of the gas between the glass, making it difficult for heat to be transferred through the gas layer, and further enhancing the thermal insulation performance.

[0014] In some embodiments, the low-emissivity coating layer includes a zinc oxide film layer, a first silver film layer, a titanium oxide film layer, a second silver film layer, a zinc tin oxide film layer, a third silver film layer and a silicon nitride film layer in sequence; Wherein, the thickness of the zinc oxide film layer is 15-35 nm; The thickness of the first silver film layer is 8-15 nm; The thickness of the titanium oxide film layer is 32-38 nm; The thickness of the second silver film layer is 8-12 nm; The thickness of the zinc tin oxide film layer is 42-48 nm; The thickness of the third silver film layer is 7-9 nm; The thickness of the silicon nitride film layer is 51-59 nm.

[0015] In summary, the beneficial effects of the present invention are: 1. The present invention sets a glass fixing assembly structure. When in use, the bottom of the glass is installed in the glass fixing assembly, and then the long bolt is rotated to make the first clamping seat and the second clamping seat drive the first clamping rubber and the second clamping rubber to clamp and fix the bottom of the glass, so that the glass is fixedly installed on the frame. At the same time, the sealing rubber keeps the second clamping seat and the outer frame in a sealed state under the action of its own elastic force, and the hanging groove on the top of the first clamping rubber is also stretched under the action of its own elastic force, so that the inner frame and the glass are always kept in a sealed state when in use. This structure shortens the width of the frame while ensuring the sealing performance of the glass window, so that the glass window can be perfectly integrated with the architectural environment.

[0016] 2. When the glass window is closed, the contact surfaces of the internal sealing strip and the connecting arm as well as the rubber protrusion and the waterproof sealing block in the present invention all adopt an arc-shaped contact surface design, which increases the contact area of ​​the contact surface and can effectively improve the sealing performance and rainproof performance of the glass window.

[0017] 3. The present invention uses the positioning beam to support the L-shaped arc surface in the waterproof sealing block upward, which effectively prevents the L-shaped arc surface of the waterproof sealing block from deforming and collapsing after long-term use, and prevents the problem that the L-shaped arc surface and the semicircular convex surface at the bottom of the rubber convex block cannot fit tightly; 4. The present invention further improves the sealing performance and rainproof performance of the glass window by making the sealing convex circle on the top of the outer frame snap into the groove at the bottom of the sealing beam, and makes the bottom of the water-proof component and the top of the bottom connecting block connected to each other, filling the interval space between the inner frame and the outer frame, which can effectively increase the sound insulation effect of the glass window; 5. The glass in the present invention is a double-layer glass structure, with a hollow space inside and a glass coating layer on the outer surface of the glass. By coating the glass surface with multiple layers of metal or metal oxide films, infrared rays can be effectively reflected, outdoor heat can be blocked from entering the room in summer, and indoor heat loss can be prevented in winter. The glass coating layer is preferably a low-emissivity coating layer. This coated glass is also called Low-E coated glass, which has a high mid- and far-infrared reflectivity, can effectively block indoor and outdoor radiation heat transfer, can reduce indoor heat loss by more than 30%, and has a good thermal insulation and energy-saving effect. The hollow space in the glass is filled with inert gas, which can reduce the heat conduction of the gas between the glass and make it difficult for heat to be transferred through the gas layer, which can further enhance the thermal insulation performance and reduce the building energy consumption. Through the above structure, the building interior is warm in winter and cool in summer. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a schematic diagram of the overall structure of the glass window of the present invention when it is closed; Figure 2 This is a schematic diagram of the overall structure of the glass window of the present invention when it is opened; Figure 3 For the present invention Figure 2 Schematic diagram of the enlarged view of the middle B part; Figure 4 For the present invention Figure 1 Schematic diagram of the cross-sectional view of the AA part; Figure 5 For the present invention Figure 4 Schematic diagram of the explosion diagram; Figure 6 It is a schematic diagram of the structure of the glass in the present invention.

[0019] In the figure: 1-window frame; 2-glass outer frame; 3-glass; 4-handle assembly; 6-frame; 5-frame; 501-inner frame; 5011-connecting arm; 502-glass fixing assembly; 5021-first clamping seat; 5022-second clamping seat; 5023-first clamping rubber; 5024-second clamping rubber; 5025-sealing rubber; 5026-long bolt; 503-outer frame; 5031-connecting beam; 5 032-sealing beam; 504-sealing convex circle; 601-inner frame; 6011-locking part; 6012-locking boss; 6013-locking groove; 602-inner sealing strip; 603-outer frame; 6031-locking protrusion; 6032-connecting groove; 6051-waterproof sealing block; 6052-positioning beam; 604-bottom connecting block; 605-waterproof component; 606-rubber protrusion; 301-glass coating layer. DETAILED DESCRIPTION

[0020] The present invention will be further described below in conjunction with specific embodiments. The illustrative embodiments and descriptions of the present invention are used to explain the present invention but are not intended to limit the present invention.

[0021] Example: Figure 1 , Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 A design and optimization method of a coated glass window that blends in with the architectural environment is shown.

[0022] The existing glass windows are mainly composed of window frames, glass and glass outer frames. However, the width of the glass outer frame is too large, which makes the installation position of the glass windows in the building particularly prominent and makes it difficult for the glass windows to blend into the building environment. In order to solve the above technical problems, Figure 1-Figure 5 As shown, the present invention proposes a first embodiment, a coated glass window design that is integrated with the architectural environment, including a window frame 1 fixedly installed on a wall and a glass outer frame 2 installed inside the window frame 1, glass 3 is installed inside the glass outer frame 2, an outer wall on one side of the glass outer frame 2 is rotatably connected to a side wall of the window frame 1 through a hinge, and an outer wall on the other side of the glass outer frame 2 is openably locked to the other side wall of the window frame 1. Preferably, a handle assembly 4 is installed on one side wall of the glass outer frame 2, and the glass outer frame 2 and the window frame 1 are openably locked through the handle assembly 4.

[0023] The window frame 1 is a square structure, which is composed of four frames 6 installed together. The glass outer frame 2 is also a square structure, which is composed of four frames 5 installed together. Preferably, the frame 5 includes an inner frame 501 and an outer frame 503. The glass 3 is installed between the inner frame 501 and the outer frame 503. In order to shorten the width of the frame 5 and make the glass window more integrated with the architectural environment, a glass fixing assembly 502 is installed between the inner frame 501 and the outer frame 503. The bottom of the glass 3 is clamped and fixed by the glass fixing assembly 502, so that the glass 3 is fixedly installed between the inner frame 501 and the outer frame 503. This structure does not need to install the glass 3 to a deeper position inside the frame 5, and the glass 3 can be fixedly installed on the frame 5, which effectively shortens the width of the frame 5, thereby making the glass window more integrated with the architectural environment. A connecting arm 5011 protrudes downward from the bottom of the inner frame 501, and a connecting beam 5031 is provided on the inner wall of the outer frame 503 at a position corresponding to the connecting arm 5011. Engaging ends are provided at the ends of the connecting arm 5011 and the connecting beam 5031. The inner frame 501 and the outer frame 503 can be fixedly connected by respectively engaging the rubber protrusion 606 with the above-mentioned two engaging ends.

[0024] The glass fixing assembly 502 includes a first clamping seat 5021 and a second clamping seat 5022 which are slidably arranged on the inner bottom wall of the inner frame 501. The first clamping seat 5021 and the second clamping seat 5022 have a protruding block protruding downward at the bottom thereof. The protruding block is provided with a threaded through hole. A long bolt 5026 is rotatably connected to a position corresponding to the threaded through hole on the outer wall of the outer frame 503. The long bolt 5026 passes through the side wall of the outer frame 503 and forms a threaded connection with the threaded through hole at the bottom of the first clamping seat 5021 and the second clamping seat 5022. The threaded through hole on the protrusion in the first clamping seat 5021 and the threaded through hole on the protrusion in the second clamping seat 5022 have opposite rotation directions. The first clamping seat 5021 has an installation groove on its upper portion. A first clamping rubber 5023 is fixedly installed in the installation groove. A mounting platform is provided at the bottom of the clamping rubber 5023 extending toward the second clamping seat 5022, and a mounting groove is provided at the upper part of the second clamping seat 5022, in which a second clamping rubber 5024 is fixedly installed, and a mounting platform is provided at the bottom of the second clamping rubber 5024 extending toward the first clamping rubber 5023, the bottom of the glass 3 is pressed against the mounting platforms at the bottom of the first clamping rubber 5023 and the second clamping rubber 5024, a sealing rubber 5025 for increasing the sealing performance of the glass window is provided between the second clamping seat 5022 and the inner wall of the side of the outer frame 503, and a hanging groove is provided at the top of the first clamping rubber 5023 extending away from the second clamping rubber 5024, and the hanging groove is hung on the top of the inner frame 501, so that the inner frame 501 and the glass 3 are always kept in a sealed state when in use.

[0025] The frame 6 includes an inner frame 601 and an outer frame 603. A snap-fit ​​groove 6013 is provided on the side wall of the inner frame 601 close to the outer frame 603. A connecting groove 6032 is provided on the side wall of the outer frame 603 close to the inner frame 601. A bottom connecting block 604 is snap-fitted and connected between the snap-fit ​​groove 6013 and the connecting groove 6032, so that the inner frame 601 and the outer frame 603 are fixedly connected. A locking boss 6012 is also provided on the side wall of the inner frame 601, and the locking boss 6012 is provided on the upper part of the locking groove 6013. A locking protrusion 6031 is also provided on the side wall of the outer frame 603, and the locking protrusion 6031 is provided on the upper part of the connecting groove 6032. A water-blocking component 605 is locked and provided on the locking boss 6012 and the locking protrusion 6031, and the bottom of the water-blocking component 605 is connected to the bottom connecting block 60 4 are connected to each other at the top, which can increase the sound insulation effect of the glass window when in use. The top of the water-proof component 605 has an L-shaped arc surface, and the bottom of the rubber protrusion 606 protrudes downward with a semicircular convex surface. The semicircular convex surface at the bottom of the rubber protrusion 606 fits with the L-shaped arc surface at the top of the water-proof component 605, which has a rainproof and sealing effect when in use. The upper part of the inner frame 601 is protruding outward in the direction of the water-proof component 605, and the clamping part 6011 is provided. The internal sealing strip 602 is clamped and installed in the clamping part 6011. The side wall of the internal sealing strip 602 close to the water-proof component 605 protrudes outward with an L-shaped convex circle. The bottom of the connecting arm 5011 is located on the side wall close to the internal sealing strip 602. There is an arc-shaped groove. The L-shaped convex circle in the internal sealing strip 602 fits with the arc-shaped groove in the connecting arm 5011 to form an indoor sealing structure.

[0026] In order to extend the service life of the waterproof component 605 and ensure that the thermal insulation performance of the glass window will not decrease after being used for a period of time, the present invention proposes a second embodiment. As a preferred embodiment, the specific structure of the waterproof component 605 includes a waterproof sealing block 6051 and a positioning beam 6052. An L-shaped arc surface is arranged on the upper part of the waterproof sealing block 6051. The positioning beam 6052 is fixedly installed on the side wall of the waterproof sealing block 6051 close to the inner frame 601. The positioning beam 6052 is made of a hard material that is not easily deformed. The L-shaped arc surface in the waterproof sealing block 6051 is supported upward by the positioning beam 6052, which effectively prevents the waterproof sealing block 6051 from deforming and collapsing after long-term use, and prevents the L-shaped arc surface from not fitting tightly with the semicircular convex surface at the bottom of the rubber protrusion 606.

[0027] In order to further improve the sealing performance and rainproof performance of the present invention, the present invention proposes a third embodiment, in which a sealing cam 504 is fixedly provided at the top of the outer frame 603 and protrudes upward, and a groove is provided at the bottom of the outer frame 503 at a position corresponding to the sealing cam 504. When in use, the sealing cam 504 is inserted into the groove at the bottom of the sealing beam 5032, which can further improve the sealing and rainproof performance of the present invention.

[0028] When the present invention is in use, the bottom of the glass 3 is installed in the glass fixing assembly 502, and then the long bolt 5026 is rotated to make the first clamping seat 5021 and the second clamping seat 5022 drive the first clamping rubber 5023 and the second clamping rubber 5024 to clamp and fix the bottom of the glass 3, so that the glass 3 is fixedly installed on the frame 5. At the same time, the sealing rubber 5025 keeps the second clamping seat 5022 and the outer frame 503 in a sealed state under the action of its own elastic force, and the hanging groove on the top of the first clamping rubber 5023 is also stretched under the action of its own elastic force, so that the inner frame 501 and the glass 3 are always kept in a sealed state when in use. This structure shortens the width of the frame 5 while ensuring the sealing performance of the glass window, so that the glass window can be more integrated with the architectural environment. When the glass window is closed, the contact surfaces of the internal sealing strip 602 and the connecting arm 5011, as well as the rubber protrusion 606 and the waterproof sealing block 6051, are designed with arc-shaped contact surfaces, which increases the contact area of ​​the contact surfaces and can effectively improve the sealing performance and rainproof performance of the glass window; by making the positioning beam 6052 support the L-shaped arc surface in the waterproof sealing block 6051 upward, the deformation and collapse of the L-shaped arc surface of the waterproof sealing block 6051 after long-term use is effectively prevented, and the problem that the L-shaped arc surface and the semicircular convex surface at the bottom of the rubber protrusion 606 cannot fit tightly is prevented; by making the sealing convex circle 504 at the top of the outer frame 603 snap into the groove at the bottom of the sealing beam 5032, the sealing performance and rainproof performance of the glass window are further improved, and the bottom of the waterproof component 605 is connected to the top of the bottom connecting block 604 to fill the interval space between the inner frame 601 and the outer frame 603. This structure can effectively increase the sound insulation effect of the glass window; In order to achieve the effect of warm in winter and cool in summer in the building, refer to Figure 6As shown, the present invention proposes a fourth embodiment, wherein the glass 3 is a double-layer glass structure, with a hollow space inside, and a glass coating layer 301 is provided on the outer surface of the glass 3. By coating the surface of the glass 3 with multiple layers of metal or metal oxide films, infrared rays can be effectively reflected, and outdoor heat can be blocked from entering the room in summer, and indoor heat loss can be prevented in winter. Preferably, the glass coating layer 301 is a low-emissivity coating layer. This coated glass is also called Low-E coated glass, which has a high mid- and far-infrared reflectivity, can effectively block indoor and outdoor radiation heat transfer, can reduce indoor heat loss by more than 30%, and has a good thermal insulation and energy-saving effect. The hollow space in the glass 3 is filled with an inert gas. Preferably, the inert gas is argon, which can reduce the heat conduction of the gas between the glass, making it difficult for heat to be transferred through the gas layer, and can further enhance the thermal insulation performance and reduce the energy consumption of the building. The above structure achieves the effect of warm in winter and cool in summer in the interior of the building.

[0029] The present invention also provides a method for optimizing a coated glass window integrated with a building environment, comprising the following steps: S101, a glass fixing assembly 502 is provided between the inner frame 501 and the outer frame 503 to clamp and fix the bottom of the glass 3. When the glass 3 is installed with the frame 5, the installation dimension of the glass 3 inserted into the frame 5 is reduced, thereby shortening the width of the frame 5.

[0030] S102, by fixing the positioning beam 6052 on the side of the waterproof sealing block 6051, the L-shaped arc surface in the inner frame 601 can be supported upward, effectively preventing the waterproof sealing block 6051 from deforming and collapsing on the L-shaped arc surface after long-term use.

[0031] S103, a sealing convex circle 504 is set on the top of the outer frame 603, and a groove is set at the bottom of the outer frame 503 at a position corresponding to the sealing convex circle 504. When in use, the sealing convex circle 504 is inserted into the groove at the bottom of the sealing beam 5032 to improve the sealing and rainproof properties of the glass window.

[0032] S104, coating the surface of the glass 3 with a glass coating layer 301, wherein the glass coating layer 301 is a low-emissivity coating layer having a high mid- and far-infrared reflectivity and can effectively block indoor and outdoor radiation heat transfer.

[0033] S105, finally filling the hollow space in the glass 3 with inert gas to reduce the heat conduction of the gas between the glasses, making it difficult for heat to be transferred through the gas layer, and further enhancing the thermal insulation performance.

[0034] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. The various components mentioned in the present invention are common technologies in the existing field. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only to illustrate the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection claimed by the present invention is defined by the attached claims and their equivalents.

Claims

1. A coated glass window design that integrates with the architectural environment, comprising a window frame (1) fixedly mounted on a wall and a glass outer frame (2) mounted inside the window frame (1), wherein glass (3) is mounted inside the glass outer frame (2), an outer wall on one side of the glass outer frame (2) is rotatably connected to a side wall of the window frame (1) via a hinge, and an outer wall on the other side of the glass outer frame (2) is openably locked to another side wall of the window frame (1), wherein the window frame (1) is a square structure and is composed of four frames (6) mounted together, and the glass outer frame (2) is also a square structure and is composed of four frames (5) mounted together, wherein the frame (5) comprises an inner frame (501) and an outer frame (503), and glass (3) is mounted between the inner frame (501) and the outer frame (503), wherein the glass (3) is mounted between the inner frame (501) and the outer frame (503), and ... A glass fixing assembly (502) is installed between the inner frame (501) and the outer frame (503), and the bottom of the glass (3) is clamped and fixed by the glass fixing assembly (502), so that the glass (3) is fixedly installed between the inner frame (501) and the outer frame (503). This structure effectively shortens the width of the frame (5), and a glass coating layer (301) is provided on the outer surface of the glass (3).

2. The coated glass window design integrated with the architectural environment according to claim 1, characterized in that: A handle assembly (4) is installed on one side wall of the glass outer frame (2), and the glass outer frame (2) and the window frame (1) are connected in an openable locked manner through the handle assembly (4).

3. The coated glass window design integrated with the architectural environment according to claim 2, characterized in that: A connecting arm (5011) is protruding downward from the bottom of the inner frame (501), a connecting beam (5031) is provided on the inner wall of the outer frame (503) at a position corresponding to the connecting arm (5011), and engaging ends are provided at the ends of the connecting arm (5011) and the connecting beam (5031), and the inner frame (501) and the outer frame (503) can be fixedly connected by engaging the rubber protrusions (606) with the two engaging ends respectively.

4. The coated glass window design integrated with the architectural environment according to claim 3 is characterized in that: The glass fixing assembly (502) comprises a first clamping seat (5021) and a second clamping seat (5022) which are slidably arranged on the inner bottom wall of the inner frame (501); a convex block is arranged on the bottom of the first clamping seat (5021) and the second clamping seat (5022) and protrudes downward; a threaded through hole is arranged on the convex block; a long bolt (5026) is rotatably connected to a position corresponding to the threaded through hole on the outer wall of the outer frame (503); the long bolt (5026) passes through the side wall of the outer frame (503) and is threadedly connected to the threaded through hole at the bottom of the first clamping seat (5021) and the second clamping seat (5022); the threaded through hole on the convex block in the first clamping seat (5021) is threadedly connected to the threaded through hole in the second clamping seat (5022); The threaded through holes on the protruding blocks in the clamping seat (5022) are rotated in opposite directions. The first clamping seat (5021) has an installation groove on its upper portion, in which a first clamping rubber (5023) is fixedly installed. A mounting platform is provided at the bottom of the first clamping rubber (5023) and extends in the direction of the second clamping seat (5022). The second clamping seat (5022) has an installation groove on its upper portion, in which a second clamping rubber (5024) is fixedly installed. A mounting platform is provided at the bottom of the second clamping rubber (5024) and extends in the direction of the first clamping rubber (5023). The bottom of the glass (3) is pressed against the mounting platforms at the bottoms of the first clamping rubber (5023) and the second clamping rubber (5024).

5. The coated glass window design integrated with the architectural environment according to claim 4, characterized in that: A sealing rubber (5025) for improving the sealing performance of the glass window is provided between the second clamping seat (5022) and the inner wall of the side of the outer frame (503), and a hanging groove is provided at the top of the first clamping rubber (5023) and extends in a direction away from the second clamping rubber (5024), and the hanging groove is hung on the top of the inner frame (501).

6. The coated glass window design integrated with the architectural environment according to claim 5, characterized in that: The frame (6) comprises an inner frame (601) and an outer frame (603); a snap-fit ​​groove (6013) is arranged on a side wall of the inner frame (601) close to the outer frame (603); a connecting groove (6032) is arranged on a side wall of the outer frame (603) close to the inner frame (601); a bottom connecting block (604) is snap-fitted and connected between the snap-fit ​​groove (6013) and the connecting groove (6032), so that the inner frame (601) and the outer frame (603) are fixedly connected; a snap-fit ​​boss (6012) is also arranged on the side wall of the inner frame (601); the snap-fit ​​boss (6012) is arranged on the snap-fit ​​groove (6013); The outer frame (603) is provided with a locking protrusion (6031) on the upper part of the locking boss (6012) and the locking protrusion (6031), and the locking protrusion (6031) is provided on the upper part of the connecting groove (6032). A water-blocking component (605) is locked and provided on the locking boss (6012) and the locking protrusion (6031). The bottom of the water-blocking component (605) is connected to the top of the bottom connecting block (604). The top of the water-blocking component (605) has an L-shaped arc surface, and the bottom of the rubber protrusion (606) protrudes downward and has a semicircular convex surface. The semicircular convex surface at the bottom of the rubber protrusion (606) fits with the L-shaped arc surface at the top of the water-blocking component (605).

7. The coated glass window design integrated with the architectural environment according to claim 6, characterized in that: A snap-fitting portion (6011) is provided on the upper portion of the inner frame (601) and protrudes outward in the direction of the water-blocking component (605). An internal sealing strip (602) is snap-fitted and installed in the snap-fitting portion (6011). The internal sealing strip (602) has an L-shaped convex circle protruding outward on the side wall near the water-blocking component (605). The side wall near the bottom of the connecting arm (5011) and the internal sealing strip (602) has an arc-shaped groove. The L-shaped convex circle in the internal sealing strip (602) fits with the arc-shaped groove in the connecting arm (5011).

8. The coated glass window design integrated with the architectural environment according to claim 7, characterized in that: The specific structure of the waterproofing assembly (605) includes a waterproof sealing block (6051) and a positioning beam (6052). An L-shaped arc surface is arranged on the upper part of the waterproof sealing block (6051). The positioning beam (6052) is fixedly installed on the side wall of the waterproof sealing block (6051) close to the inner frame (601). The positioning beam (6052) is made of a hard material that is not easily deformed. The L-shaped arc surface in the waterproof sealing block (6051) is supported upward by the positioning beam (6052). A sealing convex circle (504) is fixedly arranged on the top of the outer frame (603) to protrude upward. A groove is arranged at the bottom of the outer frame (503) at a position corresponding to the sealing convex circle (504). When in use, the sealing convex circle (504) is inserted into the groove at the bottom of the sealing beam (5032).

9. The coated glass window design integrated with the architectural environment according to claim 8 is characterized in that: The glass (3) is a double-layer glass structure, with a hollow space inside, the hollow space inside the glass (3) is filled with an inert gas, and the glass coating layer (301) is a low-emissivity coating layer.

10. A method for optimizing a coated glass window that is integrated with a building environment, used for the design of a coated glass window that is integrated with a building environment as claimed in claim 9, characterized in that: The steps include: S101, a glass fixing assembly (502) for clamping and fixing the bottom of the glass (3) is arranged between the inner frame (501) and the outer frame (503), so that when the glass (3) and the frame (5) are installed, the installation dimension of the glass (3) inserted into the frame (5) is reduced, thereby shortening the width of the frame (5); S102, by fixing a positioning beam (6052) on the side of the waterproof sealing block (6051), the L-shaped curved surface in the inner frame (601) can be supported upward, thereby effectively preventing the L-shaped curved surface of the waterproof sealing block (6051) from deforming and collapsing after long-term use; S103, a sealing convex circle (504) is provided on the top of the outer frame (603), and a groove is provided at a position corresponding to the sealing convex circle (504) at the bottom of the outer frame (503), and when in use, the sealing convex circle (504) is inserted into the groove at the bottom of the sealing beam (5032), thereby improving the sealing and rainproof properties of the glass window; S104, coating the surface of the glass (3) with a glass coating layer (301), wherein the glass coating layer (301) is a low-emissivity coating layer having mid- and far-infrared reflectivity and can effectively block indoor and outdoor radiation heat transfer; S105, finally filling the hollow space in the glass (3) with an inert gas to reduce the heat conduction of the gas between the glass sheets, making it difficult for heat to be transferred through the gas layer, thereby further enhancing the heat insulation performance.

11. The optimization method of the coated glass window integrated with the architectural environment as claimed in claim 10, wherein the low-emissivity coating layer comprises a zinc oxide film layer, a first silver film layer, a titanium oxide film layer, a second silver film layer, a zinc tin oxide film layer, a third silver film layer and a silicon nitride film layer in sequence; in, The thickness of the zinc oxide film is 15-35 nm; The thickness of the first silver film layer is 8-15 nm; The thickness of the titanium oxide film layer is 32-38 nm; The thickness of the second silver film layer is 8-12 nm; The thickness of the zinc tin oxide film layer is 42-48 nm; The thickness of the third silver film layer is 7-9 nm; The thickness of the silicon nitride film layer is 51-59 nm.

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