Energy-saving and ventilating integrated window

Abstract

The utility model relates to the technical field of bridge-cutoff aluminum windows, in particular to an energy-saving and ventilating integrated window which comprises a first section bar, a second section bar, a third section bar and a fourth section bar, a first partition component is arranged between the first section bar and the second section bar, a second partition component is arranged between the third section bar and the fourth section bar, and the first partition component is connected with the second partition component. The third profile and the fourth profile are connected to a wall body; the first section bar and the second section bar are located above the third section bar and the fourth section bar. According to the integrated window, the two sealing pieces are arranged on the two sides of the window body, the two sealing pieces are in the closed state in the natural state, indoor and outdoor air convection can be prevented, a certain energy-saving effect is achieved, the ventilation channel of the window body is opened only when the pressure difference exists on the two sides of the window body and the two sealing pieces are opened, and the ventilation purpose is achieved; and loss of indoor cooling capacity or heat can be reduced.

Description

Technical Field

[0001] The utility model relates to the technical field of thermally-broken aluminum windows, in particular to an integrated window for energy saving and ventilation. Background Art

[0002] An integrated window combines a window body and glass together, and the glass cannot usually be opened. This design can avoid complex window opening structures and is used in situations where the windows are not often opened. However, this type of window completely isolates the environment on both sides of the window. Therefore, some current integrated windows are equipped with active ventilation components, such as fans, inside the window body. These will increase the manufacturing and maintenance costs of the window, increase unreliable factors, and reduce the thermal insulation performance of the window, which is not what people want.

[0003] Therefore, how to design an integrated window that can achieve ventilation and ensure certain thermal insulation performance has become an urgent problem to be solved. Utility Model Content

[0004] In view of the technical problems existing in the ventilation window in the prior art, the first aspect of the utility model proposes an energy-saving and ventilated integrated window, comprising a first profile, a second profile, a third profile and a fourth profile, a first partition component is provided between the first profile and the second profile, a glass assembly is connected above the first partition component, a second partition component is provided between the third profile and the fourth profile, and the third profile and the fourth profile are connected to a wall;

[0005] A channel connecting the inside and outside of the wall is formed between the first profile, the second profile, the third profile, and the fourth profile;

[0006] A first seal is provided between the first profile and the third profile, and a second seal is provided between the second profile and the fourth profile;

[0007] The first sealing member and the second sealing member are configured to be opened only toward one side of the wall under the action of pressure difference.

[0008] Preferably, the first seal and the second seal are both provided with a temperature sensing structure, and the temperature sensing structure is configured so that when the temperature difference between the two sides of the wall exceeds a specified value, the temperature sensing structure expands so that the first seal or the second seal cannot be opened, and the temperature sensing structure is arranged on one side of the movement direction when the first seal or the second seal is opened.

[0009] Preferably, the temperature sensing structure comprises an elastomer, and a cavity is provided inside the elastomer. When heated, the cavity increases the volume of the elastomer, thereby preventing the first seal or the second seal from moving in an opening direction.

[0010] Preferably, the first sealing member includes a first connecting end and a first sealing end, the first connecting end is connected to the first profile, the third profile is provided with a slope, the first sealing end is constructed in a sheet shape, the first sealing end is attached to the surface of the slope, and the first sealing end is provided with a first temperature sensing structure on the side away from the slope.

[0011] Preferably, the first temperature sensing structure includes a first elastomer and a second elastomer, the first elastomer is connected to the third profile, the second elastomer is connected to the first sealing end, the second elastomer is constructed as a hollow columnar structure, and is discontinuous along the length direction of the first sealing end, forming a gap between adjacent second elastomers.

[0012] Preferably, the third profile is provided with a heat-conducting portion at the position where the first elastomer and the second elastomer are located, the thickness of the heat-conducting portion is greater than the thickness of the rest of the third profile, the first elastomer is configured to have an oblate cross-section, the cross-section of the second elastomer is configured to be circular, and the first elastomer includes a heat conductor connected to its inner cavity.

[0013] Preferably, the second sealing member is constructed to include a second connecting end, a second sealing end and a feedback end, the second sealing end and the feedback end are distributed linearly, and the second connecting end is located at the center of the second sealing end and the feedback end, the fourth profile is provided with a sealing surface that fits with the second sealing end, the temperature sensing structure includes a third elastomer, and the third elastomer is arranged on the side of the feedback end facing the thermal insulation strip, the second profile is provided with a baffle, the baffle is fitted with the third elastomer, and when the third elastomer expands due to heat, the second sealing end is tightly attached to the sealing surface.

[0014] Preferably, a rigid sheet is provided between the second sealing end and the feedback end.

[0015] Preferably, a heat insulation strip is provided between the first sealing member and the second sealing member, and the heat insulation strip is connected to any three of the first profile, the second profile, the third profile and the fourth profile.

[0016] Preferably, the insulation strip is constructed to include a plurality of independent insulation cavities along the direction from the first seal to the second seal, each of the insulation cavities is separated by a partition, and an elastic plate is provided on the partition. The elastic plate is constructed to swing to both sides of the insulation cavity under the action of pressure difference, so that a connected ventilation channel is formed between two adjacent insulation cavities.

[0017] Compared with the prior art, the advantages of the utility model are:

[0018] Two seals are arranged on both sides of the integrated window of the present application. The two seals are in a closed state in a natural state, which can prevent indoor and outdoor air convection and achieve a certain energy-saving effect. Only when a pressure difference occurs on both sides of the window and is sufficient to open the two seals, the ventilation channel of the window is opened to achieve the purpose of ventilation and reduce the loss of indoor cold or heat.

[0019] Furthermore, when the two seals are controlled by a temperature-sensing structure, the seals can only be opened when the indoor and outdoor temperatures meet the opening conditions, and the window can be passively ventilated through the pressure difference between indoor and outdoor. When one of them cannot be opened due to temperature, ventilation between indoor and outdoor is not allowed. Therefore, the window can be ventilated during the period when the indoor air-conditioning system is not working, and at the same time achieve the purpose of energy saving, and has the advantages of long-term maintenance-free and intervention-free. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] The accompanying drawings are not intended to be drawn to scale. In the accompanying drawings, each identical or nearly identical component shown in various figures may be represented by the same reference numeral. For the sake of clarity, not every component is labeled in each figure. Now, embodiments of various aspects of the utility model will be described by way of example and with reference to the accompanying drawings, in which:

[0021] Figure 1 It is a structural schematic diagram of the energy-saving and ventilated integrated window shown in the utility model;

[0022] Figure 2 It is a schematic diagram of the window structure shown in the utility model in a ventilation state;

[0023] Figure 3 It is a schematic diagram of the closed state of the second sealing member on the outer side of the window structure wall shown in the utility model;

[0024] Figure 4 It is a schematic diagram of the closed state of the first sealing member on the inner side of the window structure wall shown in the utility model;

[0025] Figure 5 It is a schematic diagram of the closed state of the first sealing member shown in the utility model;

[0026] Figure 6 It is a schematic diagram of the first sealing member of the utility model in an open state;

[0027] Figure 7 It is a structural schematic diagram of the first sealing member shown in the utility model. DETAILED DESCRIPTION

[0028] In order to better understand the technical content of the present invention, specific embodiments are described below in conjunction with the accompanying drawings.

[0029] Combination Figure 1 As shown, the first aspect of the utility model proposes an integrated window for energy saving and ventilation, including a first profile 10, a second profile 20, a third profile 30 and a fourth profile 40, a first partition component 12 is provided between the first profile 10 and the second profile 20, a second partition component 42 is provided between the third profile 30 and the fourth profile 40, and the third profile 30 and the fourth profile 40 are connected to the wall.

[0030] Optionally, the first profile 10, the second profile 20, the third profile 30 and the fourth profile 40 are all aluminum profiles, and the first partition component 12 and the second partition component 42 are made of nylon to prevent heat from being transferred from the first profile 10 to the second profile 20 or between the third profile 30 and the fourth profile 40, thereby increasing the thermal insulation performance of the window structure.

[0031] Combination Figure 1 As shown, the first profile 10, the second profile 20, the third profile 30 and the fourth profile 40 are all hollow structures, and the cavities inside them can form a heat-insulating structure to reduce the heat transfer rate.

[0032] Among them, the first profile 10 and the second profile 20 are above the third profile 30 and the fourth profile 40, the first profile 10 and the second profile 20 are respectively on the inner and outer sides of the wall, the third profile 30 and the fourth profile 40 are respectively on the inner and outer sides of the wall, a cushion 101 and glass 100 are provided above the first profile 10 and the second profile 20, the glass can be double-layer or triple-layer hollow or laminated glass, and the third profile 30 and the fourth profile 40 are connected to the wall.

[0033] An extension plate 11 is disposed below the first profile 10 , and the extension plate 11 is connected to the third profile 30 , wherein a plurality of ventilation holes 111 are disposed on the extension plate 11 .

[0034] A channel connecting the inside and outside of the wall is formed between the first profile 10, the second profile 20 and the third profile 30, the fourth profile 40. Whether the inside and outside of the wall are ventilated can be determined by the opening and closing of the channel.

[0035] In order to control the timing of ventilation, a first seal 50 is provided between the first profile 10 and the third profile 30 , a second seal 70 is provided between the second profile 20 and the fourth profile 40 , and a heat insulation strip 60 is provided between the first seal 50 and the second seal 70 .

[0036] Furthermore, the first seal 50 and the second seal 70 are configured to be allowed to open only toward one side of the wall under the action of pressure difference, such as the outside of the wall or the inside of the wall. The following takes opening toward the outside of the wall as an example. In addition, the first seal 50 and the second seal 70 are both provided with a temperature sensing structure. The temperature sensing structure is configured to expand so that the first seal 50 or the second seal 70 cannot be opened when the temperature difference between the two sides of the wall exceeds a specified value.

[0037] In this way, when the indoor temperature is high, such as the indoor heating state in winter, the ventilation channel is closed when the temperature is high to avoid indoor heat loss. When the outdoor temperature is high, such as the indoor cooling state in summer, the ventilation channel is closed when the outdoor temperature is high to avoid indoor cold air loss. Only when the indoor and outdoor temperatures drop to appropriate temperatures, especially when the air-conditioning system is not in working state, the first seal 50 and the second seal 70 are opened to complete passive ventilation through the pressure difference between outdoor and indoor.

[0038] Furthermore, the temperature sensing structure is arranged on one side of the movement direction when the first seal 50 or the second seal 70 is opened. The temperature sensing structure includes an elastomer with a cavity inside. The cavity increases the volume of the elastomer after being heated, thereby preventing the first seal 50 or the second seal 70 from moving in the opening direction.

[0039] It can be understood that the first seal 50 and the second seal 70 can be passively ventilated under the condition of pressure difference between indoor and outdoor due to their own elasticity, and the temperature sensing structure can prevent the first seal 50 and the second seal 70 from opening according to temperature conditions. The temperature sensing structure is on one side of the movement direction of the first seal 50 or the second seal 70 when it is opened. When the temperature rises to the point that the elastomer expands to a volume that prevents the first seal 50 or the second seal 70 from moving in the opening direction, the first seal 50 or the second seal 70 cannot be opened, thereby avoiding ventilation between indoor and outdoor.

[0040] Combination Figure 2-4 As shown, when the indoor and outdoor temperatures are lower than a preset value, the first sealing member 50 or the second sealing member 70 can be opened freely, for example Figure 2 As shown, the first seal 50 and the second seal 70 are in an open state. When a pressure difference is generated between indoor and outdoor, the ventilation channel is completely open, and air flows from the indoor vent 111 through the first seal 50-insulation strip 60-second seal 70 to the outside. Figure 3 As shown, when the outdoor temperature is high, the second sealing member 70 is in a closed state, and the airflow can only reach the position of the insulation strip 60 from the indoor room, as shown in FIG. Figure 4 As shown, when the indoor temperature is high, the first sealing member 50 is in a closed state, and the air flow can only reach the position of the insulation strip 60 from the outside.

[0041] Optionally, the preset value is 20-30 degrees Celsius, that is, when the indoor or outdoor temperature is higher than 20-30 degrees Celsius, the first seal 50 or the second seal 70 is in a closed state, and ventilation is allowed only when the indoor and outdoor temperatures are lower than 20 degrees, that is, ventilation is allowed within a reasonable time window, especially to avoid energy loss caused by ventilation during indoor cooling or heating, thereby achieving energy-saving effects.

[0042] Combination Figure 2-6 As shown, the first sealing member 50 includes a first connecting end 51 and a first sealing end 52, the first connecting end 51 is connected to the first profile 10, the third profile 30 is provided with a slope 32, the first sealing end 52 is constructed in a sheet shape, the first sealing end 52 is attached to the surface of the slope 32, and the first sealing end 52 is provided with a first temperature sensing structure on the side away from the slope 32.

[0043] Optionally, the first connecting end 51 is constructed as a dovetail groove-like snap-fit ​​structure, which can be connected to the first profile 10 by snap-fitting, and the first sealing end 52 is attached to the inclined surface 32 of the third profile 30 to form a valve structure to control whether the airflow can pass through the first sealing end 52.

[0044] In an alternative embodiment, in combination Figure 5-7 As shown, the first temperature sensing structure includes a first elastomer 54 and a second elastomer 53. The first elastomer 54 is connected to the third profile 30, and the second elastomer 53 is connected to the first sealing end 52. The second elastomer 53 is constructed as a hollow columnar structure and is discontinuous along the length direction of the first sealing end 52, forming a gap 531 between adjacent second elastomers 53.

[0045] In this way, when the indoor temperature is lower than the preset temperature, the first elastomer 54 and the second elastomer 53 are in a non-expanded state, and the first sealing end 52 will not be tightly attached to the inclined surface 32. Therefore, a gap 321 can be formed between the first elastomer 54 and the inclined surface 32. After the indoor airflow flows out from the gap 321, it can enter the position of the thermal insulation strip 60 from the gap 531. When the indoor temperature continues to rise until it reaches the preset temperature, the first elastomer 54 and the second elastomer 53 are heated and are in a collision state, and the first sealing end 52 is tightly attached to the inclined surface 32. Therefore, the gap 321 formed between the first elastomer 54 and the inclined surface 32 is closed, and the indoor airflow cannot flow out.

[0046] Preferably, the third profile 30 is provided with a heat conducting portion 31 at the position where the first elastic body 54 and the second elastic body 53 are located, the thickness of the heat conducting portion 31 is greater than the thickness of the remaining portion of the third profile 30, and a heat transfer space 301 is formed inside the third profile 30. In this way, the heat in the room is easily transferred to the heat conducting portion 31 through the third profile 30, and then transferred to the first elastic body 54 and the second elastic body 53 at the heat conducting portion 31.

[0047] Among them, the first elastomer 54 is constructed to have a cross-section of an oblate shape, and the cross-section of the second elastomer 53 is constructed to be circular. Since the first elastomer 54 and the second elastomer 53 are both hollow structures, there is no noise when the first elastomer 54 and the second elastomer 53 collide with each other, and the oblate first elastomer 54 is more easily deformed by heat. In particular, the first elastomer 54 is provided with a heat conductor 541 connected to its inner cavity 542, so that the first elastomer 54 is more sensitive to temperature. After the indoor temperature reaches the preset temperature, the first sealing end 52 can be pressed tightly against the inclined surface 32.

[0048] Furthermore, in order to reduce the rapid transfer of heat within the insulation strip 60, the insulation strip 60 is constructed to include a plurality of independent insulation chambers along the direction from the first seal 50 to the second seal 70. Each insulation chamber is separated by a partition. An elastic plate 61 is provided on the partition. The elastic plate 61 is constructed to swing to both sides of the insulation chamber under the action of pressure difference, so that a connected ventilation channel 62 is formed between the two adjacent insulation chambers.

[0049] In this way, when the temperature difference between indoor and outdoor is large and the airflow enters the insulation strip 60, the heat is transferred through each insulation cavity and finally conducted to the first seal 50 or the second seal 70, forcing the temperature of the first seal 50 or the second seal 70 to drop and open. Therefore, ventilation can be achieved in the case of a large temperature difference between indoor and outdoor in this way, but the ventilation cycle is related to the temperature difference, and the insulation strip 60 can delay the ventilation cycle to avoid the loss of indoor heat or cold to the outdoors under large temperature differences.

[0050] Preferably, the heat insulation strip 60 is connected to any three of the first profile 10, the second profile 20, the third profile 30 and the fourth profile 40. In this way, it can be ensured that the heat insulation strip 60 is reliably installed in the ventilation channel.

[0051] Combination Figure 2-4 As shown, the second sealing member 70 is constructed to include a second connecting end 71, a second sealing end 72 and a feedback end 73. The second sealing end 72 and the feedback end 73 are linearly distributed, and the second connecting end 71 is located at the center of the second sealing end 72 and the feedback end 73. The fourth profile 40 is provided with a sealing surface 41 which fits with the second sealing end 72. The temperature sensing structure includes a third elastomer 75. The third elastomer 75 is arranged on the side of the feedback end 73 facing the thermal insulation strip 60. A baffle is provided on the second profile 20, which fits with the third elastomer 75. When the third elastomer 75 expands due to heat, the second sealing end 72 is tightly attached to the sealing surface 41.

[0052] Combination Figure 2 As shown, the third elastic body 75 also has a cavity inside, and the external heat can be conducted to the cavity through the second profile 20, thereby increasing the volume of the cavity.

[0053] Among them, the second sealing end 72 and the feedback end 73 are constructed as a plate-like structure with a linear cross-section, and the second connecting end 71 forms a fulcrum of the lever. When the second sealing end 72 moves to the left, the feedback end 73 moves to the right. When the second sealing end 72 moves to the left and opens, the third elastomer 75 is arranged on the right side of the feedback end 73. When the volume of the third elastomer 75 becomes larger, it prevents the feedback end 73 from moving to the right, that is, the second sealing end 72 cannot move to the left and open.

[0054] In order to increase the rigidity of the second sealing member 70, a rigid sheet 74 is provided between the second sealing end 72 and the feedback end 73. Thus, when the third elastic body 75 is in an expanded state, the second sealing end 72 and the sealing surface 41 are more closely fitted.

[0055] The second aspect of the utility model provides an intelligent ventilation system for an integrated window for energy saving and ventilation, comprising:

[0056] The energy-saving and ventilated integrated window is defined as follows: the temperature at which the first sealing member 50 and the second sealing member 70 are allowed to be opened is a first temperature;

[0057] An outdoor temperature sensor 81 is arranged outdoors and is used to detect the outdoor temperature;

[0058] An indoor temperature sensor 82 is provided indoors to detect the indoor temperature;

[0059] An air conditioning system 83 is provided indoors to control the indoor temperature;

[0060] A controller 84, electrically connected to the outdoor temperature sensor, the indoor temperature sensor and the air conditioning system;

[0061] The controller 84 determines the outdoor temperature change according to the outdoor temperature sensor 81, and controls the air conditioning system 83 according to the ventilation cycle when the outdoor temperature is lower than the first temperature, so as to make the indoor temperature lower than the first temperature, and ventilate through the pressure difference between indoor and outdoor.

[0062] In a specific embodiment, the first temperature is set to 23 degrees Celsius. During ventilation in spring and autumn, since the temperature difference between indoor and outdoor is small and the temperature is generally below 20 degrees Celsius, the air-conditioning system 83 is not needed for cooling and heating indoors. Therefore, the first seal 50 and the second seal 70 are in an open state. During the daytime in summer, the outdoor temperature is usually higher than 23 degrees Celsius, and the second seal 70 is in a closed state to prevent ventilation between indoor and outdoor to avoid the outflow of indoor cold air. Only when the outdoor temperature drops below 23 degrees Celsius in the middle of the night in summer, the second seal 70 is opened. At this time, the indoor air-conditioning system is usually in a closed state, and ventilation will not cause the loss of cold air at this time. During the daytime in winter, the indoor heating temperature is usually higher than 23 degrees Celsius. Therefore, the first seal 50 is in a closed state to avoid the outflow of indoor heat. When it is winter night, the indoor air-conditioning system is turned off and the temperature drops below 20 degrees Celsius, the first seal 50 is opened to allow ventilation between indoor and outdoor.

[0063] In combination with the above embodiments, the integrated window of the present application is provided with two seals, and the two seals are in a closed or open state according to the temperature. When both seals are in an open state, the window can be passively ventilated through the pressure difference between indoor and outdoor, and when one of them fails to open due to the temperature, ventilation between indoor and outdoor is not allowed. Therefore, the window can achieve ventilation during the time period when the air-conditioning system is not working in the room, and at the same time achieve the purpose of energy saving, and has the advantages of long-term maintenance-free and intervention-free.

[0064] Although the present invention has been disclosed as above with preferred embodiments, it is not intended to limit the present invention. A person with ordinary knowledge in the technical field to which the present invention belongs may make various changes and modifications without departing from the spirit and scope of the present invention. Therefore, the protection scope of the present invention shall be determined by the definition of the claims.

Claims

1. An integrated window for energy saving and ventilation, characterized in that: The invention comprises a first profile (10), a second profile (20), a third profile (30) and a fourth profile (40); a first partition component (12) is provided between the first profile (10) and the second profile (20); a glass assembly (100) is connected above the first partition component (12); a second partition component (42) is provided between the third profile (30) and the fourth profile (40); and the third profile (30) and the fourth profile (40) are connected to a wall; A channel connecting the inside and outside of the wall is formed between the first profile (10), the second profile (20) and the third profile (30), and the fourth profile (40); A first sealing member (50) is provided between the first profile (10) and the third profile (30), and a second sealing member (70) is provided between the second profile (20) and the fourth profile (40); The first sealing member (50) and the second sealing member (70) are configured to only be allowed to open toward one side of the wall under the action of a pressure difference.

2. The energy-saving and ventilated integrated window according to claim 1, characterized in that: The first sealing member (50) and the second sealing member (70) are both provided with a temperature sensing structure, wherein the temperature sensing structure is arranged such that when the temperature difference between the two sides of the wall exceeds a specified value, the temperature sensing structure expands so that the first sealing member (50) or the second sealing member (70) cannot be opened, and the temperature sensing structure is arranged on one side of the movement direction of the first sealing member (50) or the second sealing member (70) when opening.

3. The energy-saving and ventilated integrated window according to claim 2, characterized in that: The temperature sensing structure comprises an elastomer, the interior of the elastomer has a cavity, and the cavity increases the volume of the elastomer after being heated, thereby preventing the first sealing member (50) or the second sealing member (70) from moving in an opening direction.

4. The energy-saving and ventilated integrated window according to claim 1, characterized in that: The first sealing member (50) comprises a first connecting end (51) and a first sealing end (52), the first connecting end (51) being connected to the first profile (10), the third profile (30) being provided with an inclined surface (32), the first sealing end (52) being configured in a sheet shape, the first sealing end (52) being attached to a surface of the inclined surface (32), and a first temperature sensing structure being provided on a side of the first sealing end (52) away from the inclined surface (32).

5. The energy-saving and ventilated integrated window according to claim 4, characterized in that: The first temperature sensing structure comprises a first elastomer (54) and a second elastomer (53), wherein the first elastomer (54) is connected to the third profile (30), and the second elastomer (53) is connected to the first sealing end (52), and the second elastomer (53) is configured as a hollow columnar structure and is discontinuous along the length direction of the first sealing end (52), and a gap (531) is formed between adjacent second elastomers (53).

6. The energy-saving and ventilated integrated window according to claim 5, characterized in that: The third profile (30) is provided with a heat conducting portion (31) at the position where the first elastomer (54) and the second elastomer (53) are located, and the thickness of the heat conducting portion (31) is greater than the thickness of the remaining portion of the third profile (30). The first elastomer (54) is configured to have an oblate cross-section, and the cross-section of the second elastomer (53) is configured to be circular. The first elastomer (54) includes a heat conducting body (541) connected to its inner cavity (542).

7. The energy-saving and ventilated integrated window according to claim 6, characterized in that: The second sealing member (70) is constructed to include a second connecting end (71), a second sealing end (72) and a feedback end (73); the second sealing end (72) and the feedback end (73) are linearly distributed, and the second connecting end (71) is located at a central position between the second sealing end (72) and the feedback end (73); the fourth profile (40) is provided with a sealing surface (41) that is in contact with the second sealing end (72); the temperature sensing structure includes a third elastomer (75); the third elastomer (75) is arranged on a side of the feedback end (73) facing the thermal insulation strip (60); a baffle is provided on the second profile (20); the baffle is in contact with the third elastomer (75); when the third elastomer (75) expands due to heat, the second sealing end (72) is in close contact with the sealing surface (41).

8. The energy-saving and ventilated integrated window according to claim 7, characterized in that: A rigid sheet (74) is provided between the second sealing end (72) and the feedback end (73).

9. The energy-saving and ventilating integrated window according to any one of claims 1 to 8, characterized in that: A heat insulation strip (60) is provided between the first sealing member (50) and the second sealing member (70), and the heat insulation strip (60) is connected to any three of the first profile (10), the second profile (20), the third profile (30), and the fourth profile (40).

10. The energy-saving and ventilated integrated window according to claim 9, characterized in that: The thermal insulation strip (60) is constructed to include a plurality of independent thermal insulation chambers along the direction from the first sealing member (50) to the second sealing member (70), each of the thermal insulation chambers being separated by a partition, and an elastic plate (61) is provided on the partition, and the elastic plate (61) is constructed to be able to swing to both sides of the thermal insulation chamber under the action of a pressure difference, so that a communicating ventilation channel (62) is formed between two adjacent thermal insulation chambers.

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