Energy-saving heat preservation type thermal insulation door and window

Abstract

The invention relates to an energy-saving heat preservation type thermal insulation door and window. Comprising a fixing frame which is formed by sequentially connecting a deformation frame, a top frame, a matching frame and a bottom frame end to end in a surrounding mode, and a first fixing groove formed in the deformation frame corresponds to a second fixing groove formed in the matching frame; fixed glass included in the glass assembly is embedded into a first fixing groove and a second fixing groove, a first clamping column in the top frame and a second clamping column in the bottom frame clamp the upper end and the lower end of the fixed glass correspondingly, and a first clamping cone arranged in the top frame and a second clamping cone arranged in the bottom frame are coaxial and clamp one end of movable glass correspondingly. The movable glass is rotationally connected to the edge of the matching frame in an abutting mode, and a heat insulation cavity is defined by the fixed frame, the fixed glass and the movable glass. The movable glass is additionally arranged in the fixed frame besides the fixed glass, the end of the movable glass can be automatically opened and closed in the heating deformation process of the deformation plate, and therefore heat insulation, heat preservation and ventilation are achieved in the closing / opening process.

Description

Technical Field

[0001] The present invention belongs to the technical field of doors and windows, and particularly relates to an energy-saving and heat-insulating temperature-insulating door and window. Background Art

[0002] In current temperature-insulating doors and windows, generally the function of temperature insulation is achieved through the form of double-layer glass. However, for such doors and windows, in extremely cold weather, even double-layer glass still cannot effectively isolate the cold air transmitted from the outside. In fact, the effect of temperature insulation is very limited. And in sunny spring and summer weather, keeping the double-layer glass doors and windows will instead be disadvantageous to air circulation. In order to achieve the effect of heat preservation, some existing door and window designs add heating wires inside the double-layer glass to avoid the intrusion of cold air from the doors and windows by heating the internal space. However, this design is not conducive to energy conservation and environmental protection, and it is also difficult to replace the heating wires once they are damaged. Summary of the Invention

[0003] To solve the above technical problems, the present invention provides an energy-saving and heat-insulating temperature-insulating door and window. In addition to fixing the glass in the fixed frame, a movable glass is also installed. The end of the movable glass will automatically open and close during the process of the deformation plate being heated and deformed, so as to achieve temperature insulation, heat preservation, air circulation and ventilation during the process of being closed / opened.

[0004] To achieve the above object, the technical solution adopted by the present invention is:

[0005] An energy-saving and heat-insulating temperature-insulating door and window, comprising a fixed frame and a glass assembly. The fixed frame is formed by sequentially connecting and enclosing a deformation frame, a top frame, a mating frame and a bottom frame end to end. The first fixing groove provided in the deformation frame corresponds to the second fixing groove provided in the mating frame; the glass assembly includes a fixed glass and a movable glass. The fixed glass is embedded in the first fixing groove and the second fixing groove. The first clamping posts in the top frame and the second clamping posts in the bottom frame respectively clamp the upper and lower ends of the fixed glass. The first clamping cones provided in the top frame and the second clamping cones provided in the bottom frame are coaxial and respectively clamp one end of the movable glass. The movable glass rotates with the axes of the first clamping cone and the second clamping cone as the rotation center and is rotatably abutted against the edge of the mating frame. An insulating cavity is formed by enclosing between the fixed frame, the fixed glass and the movable glass. The first through hole at the bottom of the groove of the deformation frame and the second through hole at the bottom of the groove of the mating frame are respectively communicated with the insulating cavity.

[0006] A deformation groove is provided inside the deformation frame. A deformation plate with an opening facing the direction of the movable glass is provided inside the deformation groove. The deformation plate is an L-shaped superimposed structure formed by an L-shaped inner plate being embedded in an L-shaped outer plate. The ends of the inner plate and the outer plate are connected to each other. A gap is left between the inner plate and the outer plate. The coefficient of thermal expansion of the inner plate is less than that of the outer plate. One end of the movable glass, which rotates around the axes of the first clamping cone and the second clamping cone, is located inside the inner plate, and the inner end face of the movable glass abuts against the inner plate.

[0007] It further includes a heating assembly. The heating assembly includes an inlet pipe orifice, a heat pipe, and an outlet pipe orifice. The inlet pipe orifice and the outlet pipe orifice are respectively arranged inside the bottom frame and penetrate through the bottom frame vertically. The heat pipe is arranged in an inverted U shape inside the deformation frame and is respectively communicated with the inlet pipe orifice and the outlet pipe orifice. The heat pipe is located between the first fixing groove and the deformation groove. External threads are provided on the extension parts of the inlet pipe orifice and the outlet pipe orifice that extend out of the bottom frame. A rack is further provided on the inner side wall of the deformation frame, and the end of the rack abuts against the outer end face of the movable glass.

[0008] It further includes a limiting assembly. The limiting assembly includes a top contact plate, a spring, and a stud. A downwardly extending top contact head is provided at the end of the top contact plate. The top contact head abuts against the outer end face of the movable glass. Through holes corresponding to the screw holes on the outer side wall of the deformation frame are provided on the top contact plate. The stud passes through the spring and the through hole in sequence and is screwed into the screw hole.

[0009] An L-shaped sealing ring is provided inside the mating frame. The end of the movable glass is in abutting connection with the sealing ring. Two groups of symmetrically arranged horizontal first sealing strips are provided on the inner side wall of the top frame. The two groups of first sealing strips respectively abut against the outer end faces of the fixed glass and the movable glass. Two groups of symmetrically arranged horizontal second sealing strips are provided on the inner side wall of the bottom frame. The two groups of second sealing strips respectively abut against the outer end faces of the fixed glass and the movable glass.

[0010] For the energy-saving and heat-insulating temperature-separating doors and windows adopting this structure, during the assembly process, first, the fixed glass is respectively embedded into the first fixed groove in the deformation frame and the second fixed groove in the matching frame to achieve fixation in the left-right direction. Then, one end of the movable glass is embedded into the deformation groove, abuts against the L-shaped deformation plate, and is clamped by the rack on the inner side wall of the deformation frame. Then, it is embedded into the top frame from above and the bottom frame from below. The first clamping post in the top frame and the second clamping post in the bottom frame fix the fixed glass from the upper and lower directions. At the same time, the movable glass is limited in the heat-insulating cavity by the first clamping cone and the second clamping cone. Since the end of the movable glass in contact with the matching frame may rotate freely without restriction when the deformation plate is not heated, which is not conducive to the normal use of the doors and windows, a limiting component is added. The top joint on the top contact plate presses against the outer end face of the movable glass, and with the assistance of the spring, the movable glass can push open the top joint and compress the spring under the deformation force of the deformation plate. The end of the movable glass is embedded into the L-shaped sealing ring to achieve abutting and sealing.

[0011] In order to enable the deformation plate to deform, thus lifting the movable glass and abutting its end against the sealing ring, the deformation plate is set as an L-shaped superimposed structure formed by embedding the L-shaped inner plate into the L-shaped outer plate, ensuring that the ends of the inner plate and the outer plate are connected to each other and there is a gap between their interiors. The coefficient of thermal expansion of the inner plate is smaller than that of the outer plate. The inner plate can be set as a steel plate, while the outer plate is a copper plate. Therefore, when heated, the copper plate with a larger expansion coefficient will produce a greater deformation. Since the ends of the inner plate and the outer plate are connected and there is a gap between them, under the deformation of the copper plate, it will push the steel plate with a smaller deformation to tilt upwards, thus pushing the movable glass to rotate around the axes of the first clamping cone and the second clamping cone. While pushing the top contact plate, its end is embedded into the sealing ring to achieve sealing.

[0012] In order to heat the deformation plate, a heating component is set. Preferably, through an internal heat pipe, the heat pipe communicates with the outside of the bottom frame through the inlet pipe and the outlet pipe. By connecting the inlet pipe to the heating pipeline, the heat energy provided by the heating pipeline enters the heat pipe, thereby increasing the temperature of the deformation plate near the heat pipe, so as to achieve the deformation of the deformation plate and the rotation of the movable glass.

[0013] Therefore, when it is necessary to turn on the heating pipeline in winter, the heating pipeline enters the heat pipe, and through heat transfer, the deformation plate deforms, causing the movable glass to rotate around the axes of the first clamping cone and the second clamping cone. As a result, the end of the movable glass fits and is embedded in the sealing ring, and the upper and lower ends of the movable glass fit the first sealing strip of the top frame and the second sealing strip of the bottom frame, so that the enclosed heat insulation cavity forms a sealed space. The heat generated by the heat pipe can not only heat the heat insulation cavity, but also, along with the flow of the first through hole and the second through hole, flow the excess heat into the house to avoid safety risks caused by excessive local temperature. When it comes to spring and summer and there is no need to turn on the heating pipeline anymore, under the action of the spring resilience on the top contact plate, the movable glass is pressed into the heat insulation cavity, so that the air outside the movable glass can enter the heat insulation cavity along the gap between the movable glass and the sealing ring, and then enter the first through hole and the second through hole respectively to achieve the effect of air circulation.

[0014] Further, it further includes a heating component, and the heating component is a heating wire placed in the deformation frame, and the heating wire is between the first fixing groove and the deformation groove.

[0015] Compared with the prior art, the advantages of the present invention are as follows: through the setting of the deformation plate, when the coefficient of thermal expansion of the inner plate is less than that of the outer plate, the temperature of the deformation plate is heated, so that the deformation plate deforms and drives the movable glass to rotate around the axes of the first clamping cone and the second clamping cone. While pushing the top contact plate, its end is embedded in the sealing ring to achieve sealing. When the heating pipeline is turned on in winter, the movable glass is closed to ensure that the temperature will not be lost, and it can also heat and keep warm the heat insulation cavity. When heating is not required in spring and summer, the movable glass is opened to realize the air circulation inside and outside. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings required for the description of the embodiments or the prior art. Obviously, the following drawings are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can be obtained based on these drawings.

[0017] Figure 1 is a three-dimensional view of the present invention;

[0018] Figure 2 is an exploded top view of the present invention;

[0019] Figure 3 is of the present invention Figure 2 partial enlarged view at A;

[0020] Figure 4 is of the present inventionFigure 2 Partial enlarged view at position B;

[0021] Figure 5 For the present invention Figure 2 Partial enlarged view at position C;

[0022] Figure 6 For the present invention Figure 2 Partial enlarged view at position D;

[0023] Figure 7 For the present invention Figure 2 Partial enlarged view at position E;

[0024] Figure 8 Exploded view from below for the present invention;

[0025] Figure 9 For the present invention Figure 8 Partial enlarged view at position F;

[0026] Figure 10 For the present invention Figure 8 Partial enlarged view at position G;

[0027] Figure 11 Front view for the present invention;

[0028] Figure 12 For the present invention Figure 11 Cross-sectional view taken along H-H for the present invention;

[0029] Figure 13 For the present invention Figure 12 Partial enlarged view at position J;

[0030] Figure 14 For the present invention Figure 12 Partial enlarged view at position K.

[0031] Wherein: 1, fixed frame; 11, deformation frame; 111, first fixing groove; 112, first through hole; 113, deformation groove; 114, rack; 115, screw hole; 12, top frame; 121, first clamping post; 122, first clamping cone; 123, first sealing strip; 13, fitting frame; 131, second fixing groove; 132, second through hole; 133, sealing ring; 14, bottom frame; 141, second clamping post; 142, second clamping cone; 143, second sealing strip; 15, deformation plate; 151, inner plate; 152, outer plate; 2, glass assembly; 21, fixed glass; 22, movable glass; 3, heat insulation cavity; 4, heating assembly; 41, inlet pipe orifice; 42, heat pipe; 43, outlet pipe orifice; 5, limiting assembly; 51, top contact plate; 511, top contact head; 512, through hole; 52, spring; 53, stud. Detailed implementation manner

[0032] To make the objectives, technical solutions and advantages of the present invention clearer, the technical solutions of the present invention will be described clearly and completely below. Obviously, the described embodiments are only a part rather than all of the embodiments of the present invention. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without any creative efforts shall fall within the scope protected by the present invention.

[0033] The specific embodiments of the present invention will be described below in conjunction with the accompanying drawings:

[0034] Embodiment 1

[0035] As Figure 1-14 shown, an energy-saving and heat-insulating insulating door and window includes a fixed frame 1 and a glass assembly 2. The fixed frame 1 is formed by sequentially connecting and enclosing a deformation frame 11, a top frame 12, a mating frame 13 and a bottom frame 14 end to end. The first fixing groove 111 provided in the deformation frame 11 corresponds to the second fixing groove 131 provided in the mating frame 13. The glass assembly 2 includes a fixed glass 21 and a movable glass 22. The fixed glass 21 is embedded in the first fixing groove 111 and the second fixing groove 131. The first clamping column 121 in the top frame 12 and the second clamping column 141 in the bottom frame 14 respectively clamp the upper and lower ends of the fixed glass 21. The first clamping cone 122 provided in the top frame 12 and the second clamping cone 142 provided in the bottom frame 14 are coaxial and respectively clamp one end of the movable glass 22. The movable glass 22 rotates with the axes of the first clamping cone 122 and the second clamping cone 142 as the rotation center and is rotatably abutted against the edge of the mating frame 13. An insulating cavity 3 is formed by enclosing between the fixed frame 1, the fixed glass 21 and the movable glass 22. The first through hole 112 at the bottom of the groove of the deformation frame 11 and the second through hole 132 at the bottom of the groove of the mating frame 13 are respectively communicated with the insulating cavity 3.

[0036] A deformation groove 113 is provided in the deformation frame 11. A deformation plate 15 with an opening facing the direction of the movable glass 22 is provided in the deformation groove 113. The deformation plate 15 is an L-shaped superimposed structure formed by embedding an L-shaped inner plate 151 into an L-shaped outer plate 152. The ends of the inner plate 151 and the outer plate 152 are connected to each other. A gap is left between the inner plate 151 and the outer plate 152. The coefficient of thermal expansion of the inner plate 151 is less than that of the outer plate 152. One end of the movable glass 22 that rotates with the axes of the first clamping cone 122 and the second clamping cone 142 as the rotation center is located inside the inner plate 151, and the inner end face of the movable glass 22 abuts against the inner plate 151.

[0037] It further includes a heating component 4, and the heating component 4 includes an inlet pipe orifice 41, a heat pipe 42, and an outlet pipe orifice 43. The inlet pipe orifice 41 and the outlet pipe orifice 43 are respectively arranged inside the bottom frame 14 and penetrate through the bottom frame 14 vertically. The heat pipe 42 is arranged in an inverted U shape inside the deformation frame 11 and is respectively communicated with the inlet pipe orifice 41 and the outlet pipe orifice 43. The heat pipe 42 is located between the first fixing groove 111 and the deformation groove 113. External threads are provided on the extension parts of the inlet pipe orifice 41 and the outlet pipe orifice 43 that extend out of the bottom frame 14. A rack 114 is further provided on the inner side wall of the deformation frame 11, and the end of the rack 114 abuts against the outer end face of the movable glass 22.

[0038] It further includes a limiting component 5, and the limiting component 5 includes a butting plate 51, a spring 52, and a stud 53. A downwardly extending butting head 511 is provided at the end of the butting plate 51, and the butting head 511 abuts against the outer end face of the movable glass 22. A through hole 512 corresponding to the screw hole 115 on the outer side wall of the deformation frame 11 is provided on the butting plate 51. The stud 53 passes through the spring 52 and the through hole 512 in sequence and is screwed into the screw hole 115.

[0039] An L-shaped sealing ring 133 is provided inside the fitting frame 13, and the end of the movable glass 22 is in abutting connection with the sealing ring 133. Two groups of symmetrically arranged horizontally disposed first sealing strips 123 are provided on the inner side wall of the top frame 12, and the two groups of first sealing strips 123 respectively abut against the outer end faces of the fixed glass 21 and the movable glass 22. Two groups of symmetrically arranged horizontally disposed second sealing strips 143 are provided on the inner side wall of the bottom frame 14, and the two groups of second sealing strips 143 respectively abut against the outer end faces of the fixed glass 21 and the movable glass 22.

[0040] The working mode of the present invention is described as follows:

[0041] For the energy-saving and heat-insulating temperature-isolating doors and windows adopting this structure, during the assembly process, first, the fixed glass 21 is respectively embedded into the first fixing groove 111 in the deformation frame 11 and the second fixing groove 131 in the mating frame 13 to achieve the fixation in the left-right direction. Then, one end of the movable glass 22 is embedded into the deformation groove 113, abuts against the L-shaped deformation plate 15, and is clamped by the rack 114 on the inner side wall of the deformation frame 11. Then, the top frame 12 is embedded from above, and the bottom frame 14 is embedded from below. The first clamping post 121 in the top frame 12 and the second clamping post 141 in the bottom frame 14 fix the fixed glass 21 from the upper and lower directions. At the same time, the movable glass 22 is limited in the heat-insulating cavity 3 by the first clamping cone 122 and the second clamping cone 142. Since the end of the movable glass 22 in contact with the mating frame 13 may rotate freely without restriction when the deformation plate 15 is not heated, which is not conducive to the normal use of the doors and windows, a limiting component 5 is installed. The top joint 511 on the top contact plate 51 presses on the outer end face of the movable glass 22, and with the assistance of the spring 52, the movable glass 22 can push open the top joint 511 and compress the spring 52 under the deformation force of the deformation plate 15. The end of the movable glass 22 is embedded into the L-shaped sealing ring 133 to achieve abutting and sealing.

[0042] In order to enable the deformation plate 15 to deform, thus lifting the movable glass 22 and making its end abut against the sealing ring 133, the deformation plate 15 is set as an L-shaped superimposed structure formed by the L-shaped inner plate 151 being embedded into the L-shaped outer plate 152, ensuring that the ends of the inner plate 151 and the outer plate 152 are connected to each other and there is a gap between their interiors. The coefficient of thermal expansion of the inner plate 151 is less than that of the outer plate 152. The inner plate 151 can be set as a steel plate, while the outer plate 152 is a copper plate. Therefore, when heated, the copper plate with a larger coefficient of thermal expansion will produce a greater deformation. Since the ends of the inner plate 151 and the outer plate 152 are connected to each other and there is a gap between them, under the deformation of the copper plate, it will push the steel plate with a smaller deformation to tilt upwards, thus pushing the movable glass 22 to rotate around the axes of the first clamping cone 122 and the second clamping cone 142. While pushing the top contact plate 51, its end is embedded into the sealing ring 133 to achieve sealing.

[0043] In order to heat the deformation plate 15, a heating component 4 is provided. Preferably, through the built-in heat pipe 42, the heat pipe 42 communicates with the outside of the bottom frame 14 through the inlet pipe orifice 41 and the outlet pipe orifice 43. By connecting the inlet pipe orifice 41 to the heating pipeline, the heat energy provided by the heating pipeline enters the heat pipe 42, thereby increasing the temperature of the deformation plate 15 near the heat pipe 42, so as to realize the deformation of the deformation plate 15 and the rotation of the movable glass 22. The external threads provided on the extension parts of the inlet pipe orifice 41 and the outlet pipe orifice 43 extending out of the bottom frame 14 facilitate disassembly and assembly.

[0044] Therefore, when it is necessary to turn on the heating pipeline in winter, the heating pipeline enters the heat pipe 42, and through heat transfer, the deformation plate 15 deforms, causing the movable glass 22 to rotate around the axes of the first clamping cone 122 and the second clamping cone 142. As a result, the end of the movable glass 22 fits and is embedded in the sealing ring 133, and the upper and lower ends of the movable glass 22 fit the first sealing strip 123 of the top frame 12 and the second sealing strip 143 of the bottom frame 14, so that the enclosed heat insulation cavity 3 forms a sealed space. The heat generated by the heat pipe 42 can not only heat the inside of the heat insulation cavity 3, but also, along with the flow of the first through hole 112 and the second through hole 132, flow the excess heat into the room to avoid safety risks caused by excessive local temperature. When it comes to spring and summer and there is no need to turn on the heating pipeline anymore, under the action of the resilience of the spring 52 on the top contact plate 51, the movable glass 22 is pressed into the heat insulation cavity 3, so that the air outside the movable glass 22 can enter the heat insulation cavity 3 along the gap between the movable glass 22 and the sealing ring 133, and then enter the first through hole 112 and the second through hole 132 respectively, realizing the function of air circulation.

[0045] Embodiment 2

[0046] The difference in the position of the inner magnet in this embodiment from that in Embodiment 1 lies in:

[0047] The heating component 4 is a heating wire placed in the deformation frame 11, and the heating wire is between the first fixing groove 111 and the deformation groove 113.

[0048] Through the setting of the heating wire, there can be a more flexible adjustment effect. When the power supply of the heating wire is turned off in winter, the air circulation between indoors and outdoors can be realized, sending cold air into the room. In spring and summer, only the first through hole 112 and the second through hole 132 need to be blocked, then the air circulation can be blocked, and even if the air conditioner is turned on, the cold air outflow can be avoided.

[0049] The beneficial effects of the present invention are as follows: Through the setting of the deformation plate 15, when the coefficient of thermal expansion of the inner plate 151 is less than that of the outer plate 152, the temperature of the deformation plate 15 is heated, so that the deformation plate 15 deforms and drives the movable glass 22 to rotate around the axes of the first clamping cone 122 and the second clamping cone 142. While pushing the top contact plate 51, its end is embedded in the sealing ring 133 to achieve sealing. When the heating pipeline is turned on in winter, the movable glass 22 is closed to ensure that the temperature will not be lost, and it can also heat and keep warm the inside of the heat insulation cavity 3. When heating is not required in spring and summer, the movable glass 22 is opened to realize the air circulation inside and outside. Since turning on the heating pipeline in winter is an essential operation process, by using the energy supply of the heating pipeline to open and close the movable glass 22, the energy consumption can be saved.

[0050] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it; although the present invention has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that they can still modify the technical solutions described in the foregoing embodiments, or perform equivalent replacements on some or all of the technical features; and these modifications or replacements do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. An energy-saving and heat-insulating temperature-isolating door and window, characterized in that: It includes a fixed frame and a glass assembly. The fixed frame is formed by sequentially connecting and enclosing a deformation frame, a top frame, a mating frame, and a bottom frame end to end. The first fixing groove provided in the deformation frame corresponds to the second fixing groove provided in the mating frame. The glass assembly includes a fixed glass and a movable glass. The fixed glass is embedded in the first fixing groove and the second fixing groove. The first clamping post in the top frame and the second clamping post in the bottom frame respectively clamp the upper and lower ends of the fixed glass. The first clamping cone provided in the top frame and the second clamping cone provided in the bottom frame are coaxial and respectively clamp one end of the movable glass. The movable glass rotates around the axis of the first clamping cone and the second clamping cone and is rotatably abutted against the edge of the mating frame. A heat insulation cavity is formed by enclosing between the fixed frame, the fixed glass, and the movable glass. The first through hole at the bottom of the groove of the deformation frame and the second through hole at the bottom of the groove of the mating frame are respectively communicated with the heat insulation cavity.

2. The energy-saving and heat-insulating insulating doors and windows according to claim 1 are characterized in that: A deformation groove is provided in the deformation frame. A deformation plate with an opening facing the direction of the movable glass is provided in the deformation groove. The deformation plate is an L-shaped superimposed structure formed by embedding an L-shaped inner plate into an L-shaped outer plate. The ends of the inner plate and the outer plate are connected to each other. A gap is left between the inner plate and the outer plate. The coefficient of thermal expansion of the inner plate is less than that of the outer plate. One end of the movable glass rotating around the axis of the first clamping cone and the second clamping cone is located inside the inner plate, and the inner end face of the movable glass abuts against the inner plate.

3. The energy-saving and heat-insulating temperature-separating doors and windows according to claim 2, characterized in that: It further includes a heating component. The heating component is a heating wire placed in the deformation frame, and the heating wire is located between the first fixing groove and the deformation groove.

4. The energy-saving and heat-insulating thermal insulation doors and windows according to claim 2, characterized in that: It further includes a heating component. The heating component includes an inlet pipe, a heat pipe, and an outlet pipe. The inlet pipe and the outlet pipe are respectively arranged in the bottom frame and penetrate through the bottom frame vertically. The heat pipe is arranged in the deformation frame in an inverted U shape and is respectively communicated with the inlet pipe and the outlet pipe. The heat pipe is located between the first fixing groove and the deformation groove.

5. The energy-saving and heat-insulating temperature-separating doors and windows according to claim 4, characterized in that: External threads are provided on the extending parts of the inlet pipe and the outlet pipe extending out of the bottom frame.

6. The energy-saving and heat-insulating temperature-separating doors and windows according to claim 3 or 5, characterized in that: A rack is further provided on the inner side wall of the deformation frame, and the end of the rack abuts against the outer end face of the movable glass.

7. The energy-saving and heat-insulating insulating doors and windows according to claim 6, characterized in that: It further includes a limiting component. The limiting component includes a top plate, a spring, and a stud. A downward extending top joint is provided at the end of the top plate, and the top joint abuts against the outer end face of the movable glass. Through holes corresponding to the screw holes on the outer side wall of the deformation frame are provided on the top plate. The stud passes through the spring and the through hole in sequence and is screwed into the screw hole.

8. The energy-saving and heat-insulating temperature-insulating door and window according to claim 7, characterized in that: An L-shaped sealing ring is provided in the mating frame, and the end of the movable glass is in abutting connection with the sealing ring.

9. The energy-saving and heat-insulating insulating doors and windows according to claim 8, characterized in that: Two groups of symmetrically arranged horizontal first sealing strips are provided on the inner side wall of the top frame. The two groups of first sealing strips respectively abut against the outer end faces of the fixed glass and the movable glass. Two groups of symmetrically arranged horizontal second sealing strips are provided on the inner side wall of the bottom frame. The two groups of second sealing strips respectively abut against the outer end faces of the fixed glass and the movable glass.

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