A glass curtain wall for adjusting the air intake volume

Abstract

The present invention discloses a glass curtain wall for adjusting the air intake amount, which includes a wall body, a strengthening frame and a glass panel. A reflective panel is provided inside the glass panel, and a semiconductor refrigeration sheet is installed on the surface of the reflective panel. The adjusting device includes a protective outer frame, a driving motor and a plurality of adjusting fan blades for generating wind pressure. The reflective panel is used to divide the interior of the glass panel into the reflection layer and the ventilation layer, and then the semiconductor refrigeration sheet is used to generate low-temperature and high-temperature, so as to form a temperature difference inside the glass panel. The high-temperature gas forms a driving force to push the air inside the reflection layer to the outside, thereby reducing the air outside the glass panel from entering the inside of the reflection layer, achieving the effect of controlling the air intake amount. In addition, the rotation of the adjusting fan blades generates wind pressure, reducing the air outside the glass panel from entering the inside of the reflection layer, achieving the effect of controlling the air intake amount.

Description

Technical Field

[0001] The present invention relates to the technical field of glass curtain walls, and in particular to a glass curtain wall for adjusting the air intake volume. Background Art

[0002] A glass curtain wall refers to a building envelope structure or decorative structure that can have a certain displacement ability relative to the main structure by a support structure system and does not bear the action received by the main structure. The wall has two types: single-layer and double-layer glass. A glass curtain wall is an aesthetically novel building wall decoration method and a significant feature of the modernist high-rise building era.

[0003] The glass curtain walls of modern high-rise buildings adopt insulating glass composed of mirrored glass and ordinary glass, with dry air or inert gas filled in the interlayer. The insulating glass has two or three layers. The two-layer insulating glass consists of two layers of glass plus a sealed frame, forming an interlayer space; the three-layer glass consists of three layers of glass forming two interlayer spaces. The insulating glass has the advantages of sound insulation, heat insulation, frost prevention, moisture prevention, and high wind pressure resistance. The air volume refers to the total volume of air sent out or inhaled by the fan of an air-cooled radiator per minute. The air volume is the air circulation volume per unit time, used to indicate the capacity of a blower or ventilation equipment, and the unit of calculation is cubic meters per second. The glass curtain wall plays the role of window ventilation by controlling the air intake volume.

[0004] For example, a device for suppressing natural convection in the cavity of a glass curtain wall using ionic wind (application number: 202221581066.0) disclosed in a Chinese patent relates to the technical field of building energy conservation, including: a glass curtain wall component and a suppression structure. From the perspective of fluid mechanics, for a double-layer glass curtain wall with a fully enclosed structure, an interference air source is applied inside the cavity. The air source uses ionic wind, which is different from the traditional air distribution method. It has no moving parts and can be integrated with the glass curtain wall without affecting the aesthetics of the glass curtain wall. By arranging the ionic wind in this reverse manner, the natural convection phenomenon generated by the temperature difference inside the double-layer glass cavity is weakened, the heat exchange inside the cavity is reduced, and the heat insulation performance of the double-layer glass is improved, thereby achieving the purpose of reducing building energy consumption. At the same time, it involves reducing carbon emissions and slowing down the trend of global warming, and has extremely great social value.

[0005] This patent uses ion wind to suppress the natural air convection in the cavity of the glass curtain wall, achieving the effect of controlling the air volume. Although it has the effect of controlling the air volume, under the action of external forces, such as the air flow driving force generated by wind or rising temperature, the confrontation force between air convection is mismatched, resulting in external gas being pressed into the cavity of the glass curtain wall, causing a sudden increase or sharp decrease in the air intake volume, and achieving an unstable effect. When in use, it is also necessary to further process and improve the structure for controlling the air intake volume, which increases the procedures and reduces the work efficiency. Therefore, the inventor of the present invention proposes a glass curtain wall for adjusting the air intake volume to solve the above-mentioned technical problem of controlling the air intake volume of the glass curtain wall. Summary of the Invention

[0006] The present invention aims to provide a technical solution to overcome the above deficiencies and solve the above problems.

[0007] The technical solution adopted by the present invention is as follows: A glass curtain wall for adjusting the air intake volume includes a wall body, at least one reinforcing frame installed on the surface of the wall body, and at least one glass panel installed inside the reinforcing frame. A reflective panel is provided inside the glass panel. The reflective panel is bent. One end of the reflective panel and one end of the glass panel form a reflective layer, and the end of the reflective panel away from the reflective layer and one end of the glass panel form a breathable layer. A semiconductor refrigeration sheet is installed on the surface of the reflective panel. At least one adjusting device for adjusting the air intake volume is installed inside the breathable layer. The adjusting device includes a protective outer frame, a driving motor, and a plurality of adjusting fan blades for generating wind pressure.

[0008] Further, one end of the protective outer frame is attached to the inner surface of the glass panel. The driving motor is in contact with the inner surface of the protective outer frame through a connecting frame and mounting screws. The driving motor is located in the middle of the connecting frame, and the mounting screws are annularly distributed on the surface of the connecting frame.

[0009] Further, a protective plate for protecting the adjusting fan blades is connected to the surface of the connecting frame. The protective plate is arc-shaped and annularly installed on the outer side of the connecting frame. A support plate for fixing the mounting screws is provided on the surface of the connecting frame.

[0010] Further, one end of the driving motor is an output shaft, and a rotating disk is connected to one end of the output shaft. The adjusting fan blades are annularly distributed on the surface of the rotating disk, and the distance between two adjacent adjusting fan blades is equally spaced. When the driving motor is powered on to generate a driving force, the output shaft rotates under the driving force, so that the output shaft drives the rotating disk and the adjusting fan blades to rotate. Wind pressure is generated by the rotation of the adjusting fan blades, so that the gas inside the protective outer frame forms a flowing state.

[0011] Furthermore, a connection port is provided at one end of the drive motor, and a plurality of ventilation holes with equal spacing are provided on the surface of the reflective panel. The ventilation holes penetrate through the surfaces at both ends of the reflective panel, and the ventilation holes are used to assist the air circulation between the reflective layer and the ventilation layer.

[0012] Furthermore, an air suction pipe is provided on the surface of the protective outer frame. One end of the air suction pipe extends to the outside of the glass panel, and the other end of the air suction pipe abuts against the inner surface of the connection port. The connection port and the air suction pipe are coaxially arranged. When the drive motor is powered on to generate a driving force, a centrifugal force is generated by the rotation of the rotor inside the drive motor. The rotor is an existing component in the prior art of the drive motor. The external air enters the inside of the drive motor through the air suction pipe and the connection port due to the pressure generated by the centrifugal force. By adopting the setting that one end of the air suction pipe extends to the outside of the glass panel, the air inside the reflective layer is prevented from being sucked into the inside of the drive motor when the air suction pipe sucks air.

[0013] Furthermore, an air outlet pipe is provided on the surface of the protective outer frame. One end of the air outlet pipe extends to the inside of the protective outer frame. An air outlet is provided on the surface of the glass panel and is paired with the air outlet pipe. The air outlet communicates with the ventilation layer. A filter cotton layer for filtering dust is installed on the inner surface of the air outlet. When the drive motor generates a driving force to rotate the adjustment fan blade, a wind pressure is generated by the centrifugal force generated by the rotation of the adjustment fan blade. The gas inside the protective outer frame flows due to the wind pressure and is discharged to the inside of the ventilation layer through the surface of the air outlet pipe. Under the continuous driving force generated by the gas flow, the gas inside the ventilation layer is pushed upward, and thus the gas is discharged outside the glass panel through the air outlet, playing a role in adjusting the air volume.

[0014] Furthermore, a ventilation window paired with the ventilation hole is provided on the surface of the glass panel. The ventilation window communicates with the reflective layer. A ventilation cotton layer for filtering dust is connected to the inner surface of the ventilation window. A grid for blocking external debris is installed on the inner surface of the ventilation window. The ventilation window is used to discharge the gas inside the reflective layer outside the glass panel, and the ventilation hole is used to assist air circulation.

[0015] Furthermore, one end of the semiconductor refrigeration chip is a cold end face, the other end of the semiconductor refrigeration chip is a hot end face, and a power supply connector is electrically connected to the surface of the semiconductor refrigeration chip. A power supply connecting wire for connecting an external power supply is provided on the surface of the power supply connector;

[0016] When the power connection wire is connected to an external power supply to operate the semiconductor refrigeration sheet, the cold end face and the hot end face generate a low temperature and a high temperature respectively by connecting the power supply through the semiconductor refrigeration sheet. Since one end of the cold end face extends into the interior of the air-permeable layer, when the cold end face is energized to generate a low temperature, the temperature of the gas inside the air-permeable layer drops due to the low temperature, achieving a cooling effect;

[0017] When the hot end face is energized to generate a high temperature, since one end of the hot end face extends into the interior of the reflection layer, the temperature is discharged through the glass panel. A temperature difference is generated inside the reflection layer by the temperature generated by the hot end face, thereby forming a pressure. Through the pressure, a repulsive force is formed between the air inside the reflection layer and the external air, reducing the entry of external air into the interior of the reflection layer, thereby achieving the effect of controlling the air entering the interior of the glass panel and playing a role in adjusting the air intake volume.

[0018] Further, at least two load-bearing columns for supporting the glass panel are installed on the surface of the reinforcing frame. The load-bearing columns are symmetrically installed on the surface of the reinforcing frame. The glass panel is located between two adjacent load-bearing columns, and both ends of the glass panel are in contact with the surfaces of two adjacent load-bearing columns. The acting force of the glass panel is dispersed by one end of the load-bearing column, reducing the influence of the gravity on the glass panel, playing a role in increasing the connection stability between the glass panel and the wall, and reducing the probability of the glass panel falling from the surface of the wall.

[0019] The beneficial effects of the present invention are as follows: The reflective panel is used to divide the interior of the glass panel into the reflection layer and the air-permeable layer, and then the semiconductor refrigeration sheet is used to generate a low temperature and a high temperature, so as to form a temperature difference inside the glass panel, thereby generating a pressure to reduce the air flow. When the interior of the reflection layer is filled with high-temperature gas, a driving force is formed by the high-temperature gas to push the air inside the reflection layer to the outside, thereby reducing the entry of the air outside the glass panel into the interior of the reflection layer, achieving the effect of controlling the air intake volume;

[0020] In addition, when the drive motor is powered on to generate a driving force, the adjustment fan blade rotates through the driving force, and a wind pressure is generated by the rotation of the adjustment fan blade, so that the gas inside the protective outer frame forms a flowing state. Through the driving force formed by the gas flow, the air inside the reflection layer is pushed out to the outside of the glass panel, reducing the entry of the air outside the glass panel into the interior of the reflection layer, achieving the effect of controlling the air intake volume. Description of the Drawings

[0021] Figure 1 is a three-dimensional view of a glass curtain wall for adjusting the air intake volume;

[0022] Figure 2 is a schematic diagram of the internal structure in a glass curtain wall for adjusting the air intake volume;

[0023] Figure 3 is Figure 2 a partial enlarged schematic diagram of A in

[0024] Figure 4 is Figure 2 a partial enlarged schematic diagram of B in

[0025] Figure 5 is a front view of the adjusting device in a glass curtain wall for adjusting the air intake volume;

[0026] Figure 6 is an axonometric view of the adjusting device in a glass curtain wall for adjusting the air intake volume;

[0027] Figure 7 is a side view of the adjusting device in a glass curtain wall for adjusting the air intake volume;

[0028] Figure 8 is a schematic diagram of the partial structure in a glass curtain wall for adjusting the air intake volume. Detailed implementation manners

[0029] In order to make the technical problems, technical solutions and beneficial effects to be solved by the present invention clearer and more understandable, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not used to limit the present invention.

[0030] It should be noted that when an element is referred to as being "fixed to" or "disposed on" another element, it can be directly on the other element or indirectly on the other element. When an element is referred to as being "connected to" another element, it can be directly connected to the other element or indirectly connected to the other element.

[0031] It should be understood that the orientation or positional relationship indicated by the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc. is based on the orientation or positional relationship shown in the accompanying drawings, and is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of the present invention.

[0032] In addition, the terms "first" and "second" are for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the quantity of the indicated technical features. Thus, features defined with "first" and "second" may explicitly or implicitly include one or more of such features. In the description of the present invention, "a plurality of" means two or more unless otherwise specifically defined.

[0033] Please refer to Figures 1 - 8 , which is the first preferred embodiment of the present invention. In this embodiment, a glass curtain wall for adjusting the air intake volume includes a wall body 10, at least one reinforcing frame 20 installed on the surface of the wall body 10, and at least one glass panel 30 installed inside the reinforcing frame 20. A reflective panel 301 is provided inside the glass panel 30. The reflective panel 301 is used to reflect the light irradiated into the glass panel 30, achieving the effect of blocking light. The reflective panel 301 is bent. One end of the reflective panel 301 and one end of the glass panel 30 form a reflective layer 302, and the end of the reflective panel 301 far from the reflective layer 302 and one end of the glass panel 30 form a breathable layer 303. A semiconductor refrigeration sheet 40 is installed on the surface of the reflective panel 301. At least one adjusting device for adjusting the air intake volume is installed inside the breathable layer 303. The adjusting device includes a protective outer frame 50, a driving motor 60, and a plurality of adjusting fan blades 70 for generating wind pressure.

[0034] One end of the protective outer frame 50 is attached to the inner surface of the glass panel 30. The driving motor 60 abuts against the inner surface of the protective outer frame 50 through a connecting frame 601 and mounting screws 602. The driving motor 60 is located in the middle of the connecting frame 601, and the mounting screws 602 are annularly distributed on the surface of the connecting frame 601.

[0035] A protective plate 601A for protecting the adjusting fan blades 70 is connected to the surface of the connecting frame 601. The protective plate 601A is arc-shaped and annularly installed on the outer side of the connecting frame 601. A support plate 601B for fixing the mounting screws 602 is provided on the surface of the connecting frame 601.

[0036] One end of the driving motor 60 is an output shaft 603. One end of the output shaft 603 is connected with a rotating disc 603A. The adjusting fan blades 70 are annularly distributed on the surface of the rotating disc 603A, and the distance between two adjacent adjusting fan blades 70 is equally spaced. When the driving motor 60 is powered on to generate a driving force, the output shaft 603 rotates by the driving force, so that the output shaft 603 drives the rotating disc 603A and the adjusting fan blades 70 to rotate. The adjusting fan blades 70 rotate to generate wind pressure, so that the gas inside the protective outer frame 50 forms a flowing state.

[0037] One end of the driving motor 60 is provided with a connection port 604. The surface of the reflective panel 301 is provided with a plurality of air vents 301A with equal spacing. The air vents 301A penetrate through the surfaces of both ends of the reflective panel 301. The air vents 301A are used to assist the air flow between the reflective partition layer 302 and the breathable partition layer 303.

[0038] The surface of the protective outer frame 50 is provided with an air suction pipe 501. One end of the air suction pipe 501 extends to the outside of the glass panel 30. The other end of the air suction pipe 501 abuts against the inner surface of the connection port 604. The connection port 604 and the air suction pipe 501 are coaxially arranged. When the driving motor 60 is powered on to generate a driving force, the rotor (not shown) inside the driving motor 60 rotates to generate centrifugal force. The rotor is an existing component in the prior art of the driving motor 60. The centrifugal force generates pressure to make the external air enter the inside of the driving motor 60 through the air suction pipe 501 and the connection port 604. By adopting the setting that one end of the air suction pipe 501 extends to the outside of the glass panel 30, the air suction pipe 501 is prevented from sucking the air inside the reflective partition layer 302 into the inside of the driving motor 60 when sucking air.

[0039] The surface of the protective outer frame 50 is provided with an air outlet duct 502. One end of the air outlet duct 502 extends to the inside of the protective outer frame 50. An air outlet 304 paired with the air outlet duct 502 is formed on the surface of the glass panel 30. The air outlet 304 communicates with the ventilation interlayer 303. A filter cotton layer 304A for filtering dust is installed on the inner surface of the air outlet 304. When the driving motor 60 generates a driving force to rotate the adjusting fan blade 70, wind pressure is generated by the centrifugal force generated by the rotation of the adjusting fan blade 70. The gas inside the protective outer frame 50 flows through the wind pressure and is discharged from the surface of the air outlet duct 502 to the inside of the ventilation interlayer 303. The gas inside the ventilation interlayer 303 is pushed upward under the continuous driving force generated by the gas flow, so that the gas is discharged from the air outlet 304 outside the glass panel 30 through the driving force, playing a role in adjusting the air volume.

[0040] A ventilation window 305 paired with the ventilation hole 301A is formed on the surface of the glass panel 30. The ventilation window 305 communicates with the reflection interlayer 302. A ventilation cotton layer 305A for filtering dust is connected to the inner surface of the ventilation window 305. A grid 305B for blocking external sundries is installed on the inner surface of the ventilation window 305. The ventilation window 305 is used to discharge the gas inside the reflection interlayer 302 outside the glass panel 30, and the ventilation hole 301A is used to assist air circulation.

[0041] One end of the semiconductor refrigeration chip 40 is a cold end face 403, and the other end of the semiconductor refrigeration chip 40 is a hot end face 401. A power supply connector 402 is electrically connected to the surface of the semiconductor refrigeration chip 40. A power supply connecting wire 402A for connecting an external power supply is provided on the surface of the power supply connector 402;

[0042] When the power supply connecting wire 402A is connected to an external power supply to operate the semiconductor refrigeration chip 40, the cold end face 403 and the hot end face 401 generate low temperature and high temperature respectively by connecting the semiconductor refrigeration chip 40 to the power supply. Since one end of the cold end face 403 extends to the inside of the ventilation interlayer 303, when the cold end face 403 is electrified to generate low temperature, the temperature of the gas inside the ventilation interlayer 303 drops through the low temperature, achieving the effect of cooling;

[0043] When the hot end face 401 is electrified to generate a high temperature, since one end of the hot end face 401 extends into the reflection interlayer 302, the temperature is discharged through the glass panel 30. The temperature generated by the hot end face 401 creates a temperature difference inside the reflection interlayer 302, thereby forming a pressure. Through the pressure, a resistance force is formed between the air inside the reflection interlayer 302 and the external air, reducing the entry of external air into the reflection interlayer 302, thereby achieving the effect of controlling the air entering the glass panel 30 and playing a role in adjusting the air intake volume.

[0044] At least two load-bearing columns 101 for supporting the glass panel 30 are installed on the surface of the reinforcing frame 20. The load-bearing columns 101 are symmetrically installed on the surface of the reinforcing frame 20. The glass panel 30 is located between two adjacent load-bearing columns 101. Both ends of the glass panel 30 are in contact with the surfaces of two adjacent load-bearing columns 101. The acting force of the glass panel 30 is dispersed by one end of the load-bearing column 101, reducing the influence of the gravity on the glass panel 30, playing a role in increasing the connection stability between the glass panel 30 and the wall body 10, and reducing the probability of the glass panel 30 falling from the surface of the wall body 10.

[0045] The design key point of the present invention lies in: using the reflective panel 301 to divide the interior of the glass panel 30 into the reflection interlayer 302 and the ventilation interlayer 303, and then using the semiconductor refrigeration sheet 40 to generate a low temperature and a high temperature, so as to form a temperature difference inside the glass panel 30, thereby generating a pressure to reduce the air flow. When the interior of the reflection interlayer 302 is filled with high-temperature gas, a driving force is formed by the high-temperature gas to push the air inside the reflection interlayer 302 to the outside, thereby reducing the entry of the air outside the glass panel 30 into the reflection interlayer 302, achieving the effect of controlling the air intake volume;

[0046] In addition, when the driving motor 60 is powered on to generate a driving force, the adjusting fan blade 70 is rotated by the driving force. Wind pressure is generated by the rotation of the adjusting fan blade 70, so that the gas inside the protective outer frame 50 forms a flowing state. Through the driving force formed by the gas flow, the air inside the reflection interlayer 302 is pushed out to the outside of the glass panel 30, reducing the entry of the air outside the glass panel 30 into the reflection interlayer 302, achieving the effect of controlling the air intake volume.

[0047] The operation process of the present invention is as follows: The driving motor 60 is powered on to generate a driving force, which drives the output shaft 603 to rotate, so that the output shaft 603 drives the rotating disk 603A and the adjusting fan blade 70 to rotate. The adjusting fan blade 70 rotates to generate wind pressure, so that the gas inside the protective outer frame 50 forms a flowing state. Through the driving force formed by the gas flow, the gas inside the protective outer frame 50 sequentially passes through the breathable interlayer 303 and the reflective interlayer 302. The driving force formed by the gas causes the gas inside the reflective interlayer 302 and the breathable interlayer 303 to be discharged from the ventilation window 305 and the air outlet 304 respectively. When the gas is discharged, it prevents the external gas from entering the outside of the glass panel 30, achieving the effect of controlling the air intake volume.

[0048] When the cold end face 403 is powered on to generate a low temperature, the temperature of the gas inside the breathable interlayer 303 drops due to the low temperature, achieving a cooling effect. The low temperature generated by the cold end face 403 is used to balance the high temperature generated by the hot end face 401 when it is powered on. When the hot end face 401 is powered on to generate a high temperature, since one end of the hot end face 401 extends into the reflective interlayer 302, the temperature is discharged through the ventilation window 305. The temperature generated by the hot end face 401 causes a temperature difference inside the reflective interlayer 302, thereby forming a pressure. Through the pressure, the air inside the reflective interlayer 302 forms a repulsive force with the external air, reducing the external air from entering the ventilation window 305, thus achieving the effect of controlling the air from entering the inside of the glass panel 30 and playing a role in adjusting the air intake volume.

[0049] The embodiments and drawings of the present invention are only for showing the design concept of the present invention, and the protection scope of the present invention should not be limited to this embodiment.

[0050] From the above description, it can be seen that the design purpose of the present invention can be effectively implemented. The embodiments show the purpose, implementation functions and structural themes of the present invention, and include other equivalent replacements.

[0051] Therefore, the rights of the present invention include other equivalent embodiments, and the specific scope of rights refers to the claims.

Claims

1. A glass curtain wall for adjusting the air intake amount, comprising a wall body, at least one reinforcing frame installed on the surface of the wall body, and at least one glass panel installed inside the reinforcing frame, characterized in that: A reflective panel is provided inside the glass panel. The reflective panel is bent. One end of the reflective panel and one end of the glass panel form a reflection partition layer. One end of the reflective panel away from the reflection partition layer and one end of the glass panel form a ventilation partition layer. A semiconductor refrigeration sheet is installed on the surface of the reflective panel. At least one adjusting device for adjusting the air intake volume is installed inside the ventilation partition layer. The adjusting device includes a protective outer frame, a driving motor, and several adjusting fan blades for generating wind pressure. One end of the semiconductor refrigeration sheet is a cold end face, and the other end of the semiconductor refrigeration sheet is a hot end face. A power supply connector is electrically connected to the surface of the semiconductor refrigeration sheet. A power supply connection line for connecting an external power supply is provided on the surface of the power supply connector. One end of the cold end face extends into the ventilation partition layer, and one end of the hot end face extends into the reflection partition layer.

2. The glass curtain wall for adjusting the air intake amount according to claim 1, wherein: One end of the protective outer frame is attached to the inner surface of the glass panel. The driving motor abuts against the inner surface of the protective outer frame through a connecting frame and mounting screws. The driving motor is located in the middle of the connecting frame, and the mounting screws are annularly distributed on the surface of the connecting frame.

3. The glass curtain wall for adjusting the air intake amount according to claim 2, wherein: A protective plate for protecting the adjusting fan blades is connected to the surface of the connecting frame. The protective plate is arc-shaped and annularly installed on the outer side of the connecting frame. A support plate for fixing the mounting screws is provided on the surface of the connecting frame.

4. A glass curtain wall for adjusting the air intake amount according to claim 1, characterized in that: One end of the driving motor is an output shaft. A rotating disk is connected to one end of the output shaft. The adjusting fan blades are annularly distributed on the surface of the rotating disk, and the distance between two adjacent adjusting fan blades is equally spaced.

5. A glass curtain wall for adjusting the air intake amount according to claim 1, characterized in that: A connection port is provided at one end of the driving motor. Several air vent holes with equal spacing are provided on the surface of the reflective panel. The air vent holes penetrate through the surfaces at both ends of the reflective panel.

6. The glass curtain wall for adjusting the air intake amount according to claim 5, wherein: An air suction pipe is provided on the surface of the protective outer frame. One end of the air suction pipe extends to the outside of the glass panel, and the other end of the air suction pipe abuts against the inner surface of the connection port. The connection port and the air suction pipe are coaxially arranged.

7. A glass curtain wall for adjusting the air intake amount according to claim 5, characterized in that: An air outlet pipe is provided on the surface of the protective outer frame. One end of the air outlet pipe extends into the protective outer frame. An air outlet port paired with the air outlet pipe is provided on the surface of the glass panel. The air outlet port communicates with the ventilation partition layer. A filter cotton layer for filtering dust is installed on the inner surface of the air outlet port.

8. A glass curtain wall for adjusting the air intake amount according to claim 5, characterized in that: An air ventilation window paired with the air vent hole is provided on the surface of the glass panel. The air ventilation window communicates with the reflection partition layer. An air ventilation cotton layer for filtering dust is connected to the inner surface of the air ventilation window. A grid for blocking external sundries is installed on the inner surface of the air ventilation window.

9. A glass curtain wall for adjusting the air intake amount according to claim 1, characterized in that: At least two load-bearing columns for supporting the glass panel are installed on the surface of the reinforcing frame. The load-bearing columns are symmetrically installed on the surface of the reinforcing frame.

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