A wind-vibration-resistant building exterior wall suitable for green buildings and a working method thereof

Abstract

The present invention belongs to the field of building technology, and relates to a wind-vibration-resistant building exterior wall suitable for green buildings, comprising a first translatable wall panel, a second translatable wall panel and a fixed wall panel, wherein the building exterior wall is connected to the fixed wall panel through a bearing steel; the first translatable wall panel is symmetrically arranged on the upper and lower sides of the fixed wall panel, and the second translatable wall panel is symmetrically arranged on the left and right sides of the fixed wall panel; a slidable force transmission plate is hung on the bearing steel, and the slidable force transmission plate is connected to the second translatable wall panel through a first fixed oblique rod, and is connected to the first translatable wall panel through a second fixed oblique rod; a corrugated flexible pipe is arranged on the side of the slidable force transmission plate, a through-wall vent is opened on the building exterior wall, and the corrugated flexible pipe is connected to the through-wall vent; the through-wall vent is connected to a power generation device through an energy conversion device; and a self-resetting damper is arranged between the translatable wall panel and the building exterior wall. The problem that the wind-resistant function of the building exterior wall panel cannot be combined with the power generation function of the green building is solved.

Description

Technical Field

[0001] The invention relates to the technical field of building, and in particular to a wind-vibration-resistant building exterior wall suitable for green buildings and a working method thereof. Background Art

[0002] Green buildings are a new type of building that can effectively reduce carbon emissions. One of the technical directions of green buildings is to enable buildings to generate electricity. The current practice is mainly to enable buildings to have photovoltaic capabilities by installing photovoltaic panels, so that buildings can better contribute to my country's "dual carbon" goals. In fact, buildings can also achieve power generation functions through wind power, but there are few such technical achievements at present.

[0003] Wind load has a significant impact on the structure of high-rise buildings. Building exterior wall panels are the first wind-resistant components of high-rise buildings and also play a role in the aesthetics of the building facade. However, at present, building exterior wall panels are mainly related to photovoltaic functions in the direction of green building power generation, and it is impossible to combine the wind-resistant function of building exterior wall panels with the green building power generation function. Summary of the invention

[0004] The purpose of the present invention is to provide a wind-vibration-resistant building exterior wall suitable for green buildings and a working method thereof, which solves the problem that the wind-resistant function of the building exterior wall panel cannot be combined with the power generation function of the green building.

[0005] The present invention is achieved through the following technical solutions:

[0006] A wind-vibration-resistant building exterior wall suitable for green buildings, wherein an outer wall panel is arranged outside the building exterior wall, the outer wall panel comprises a first translatable wall panel, a second translatable wall panel and a fixed wall panel, a gap is left between the outer wall panel and the building exterior wall, and the building exterior wall and the fixed wall panel are fixedly connected by a bearing steel; the first translatable wall panel is symmetrically arranged on the upper and lower sides of the fixed wall panel, and the second translatable wall panel is symmetrically arranged on the left and right sides of the fixed wall panel;

[0007] The building exterior wall is fixedly connected to the first translatable wall panel and the second translatable wall panel via a linear connecting guide rail;

[0008] A slidable force transmission plate is hung on the force-bearing steel, and both left and right sides of the slidable force transmission plate are connected to the second translatable wall plate through a first fixed oblique rod, and both upper and lower sides of the slidable force transmission plate are connected to the first translatable wall plate through a second fixed oblique rod;

[0009] A corrugated flexible pipe is provided on the side of the slidable force transmission plate opposite to the building outer wall, a through-wall vent hole is opened in the middle of the building outer wall, and the outlet of the corrugated flexible pipe is connected to the through-wall vent hole; an energy conversion device is externally connected to the through-wall vent hole, and the energy conversion device is connected to the power generation device;

[0010] Self-resetting dampers are arranged between the first translatable wall panel and the building outer wall, and between the second translatable wall panel and the building outer wall.

[0011] Furthermore, a retractable pipe support rail is provided on the side of the slidable force transmission plate opposite to the building outer wall, and the corrugated flexible pipe is supported on the pipe support rail.

[0012] Furthermore, a wall end closing strip is provided on the outer side surface of the building outer wall, and the wall end closing strip is arranged on the edges around the corrugated flexible pipe.

[0013] Furthermore, notches are provided on the upper and lower ends of the slidable force transmission plate, and the notches are clamped on one side of the force-bearing steel;

[0014] A triangular pad is arranged on the force-bearing steel, and the slidable force transmission plate can slide on the triangular pad.

[0015] Furthermore, a sliding layer is provided on the triangular pad.

[0016] Furthermore, the sliding layer is made of polytetrafluoroethylene, modified polytetrafluoroethylene or polyethylene.

[0017] Furthermore, a first engaging member is provided between the second translatable wall panel and the first translatable wall panel;

[0018] A second engaging member is provided between the fixed wall panel and the first translatable wall panel, and a second engaging member is provided between the fixed wall panel and the second translatable wall panel.

[0019] Further, the first engaging member includes a first U-shaped member, a second U-shaped member and an intermediate connecting body, and the first U-shaped member and the second U-shaped member are symmetrically arranged on both sides of the intermediate connecting body;

[0020] The intermediate connecting body comprises an inner end engaging limb and an outer end engaging limb which are clamped together.

[0021] Furthermore, the second engaging member includes a third U-shaped member and a fourth U-shaped member connected together, the third U-shaped member is provided with a first fastening member, and the fourth U-shaped member is provided with a second fastening member; the first fastening member and the second fastening member serve as an intermediate body connecting the third U-shaped member and the fourth U-shaped member;

[0022] A cavity is opened in the first fastening member and the second fastening member, and an extended sealing fastening end is arranged in the cavity. The two extended sealing fastening ends are connected by a corrugated flexible sealing section. When the corrugated flexible sealing section is stretched and expanded, the third U-shaped member and the fourth U-shaped member are staggered.

[0023] The present invention discloses a working method for a wind-vibration-resistant building exterior wall suitable for a green building, comprising the following processes:

[0024] When the wind load acts on the outer wall panel, the linear connecting guide rail contracts, and the first and second translatable wall panels translate toward the outer wall of the building, driving the slidable force transmission plate to slide along the force-bearing steel, and the slidable force transmission plate squeezes the air inside the corrugated flexible pipe, and the air inside the corrugated flexible pipe is discharged from the through-wall vent hole;

[0025] The gas discharged from the through-wall vent enters the energy conversion device, converting kinetic energy into mechanical energy. The mechanical energy converted by the energy conversion device drives the power generation device to generate electricity;

[0026] After power generation is completed, the self-resetting damper pulls the slidable force transmission plate back to its original position, driving the first translatable wall panel and the second translatable wall panel to be reset to their original positions at the same time.

[0027] Compared with the prior art, the present invention has the following beneficial technical effects:

[0028] The present invention discloses a wind-vibration-resistant building exterior wall suitable for green buildings. An outer wall panel is arranged outside the building exterior wall. The outer wall panel comprises a first translatable wall panel, a second translatable wall panel and a fixed wall panel. The first translatable wall panel is symmetrically arranged on the upper and lower sides of the fixed wall panel, and the second translatable wall panel is symmetrically arranged on the left and right sides of the fixed wall panel. The building exterior wall and the fixed wall panel are fixedly connected by a bearing steel profile. A slidable force transmission plate is arranged on the bearing steel profile. The left and right sides of the slidable force transmission plate are connected to the second translatable wall panel by a first fixed oblique rod, and the upper and lower sides of the slidable force transmission plate are connected to the first translatable wall panel by the second fixed oblique rod. The invention relates to a method for generating a wind-proof structure of a building, wherein the wind load acts on the outer wall panel, the first and second translatable wall panels translate toward the outer wall of the building, and drive the slidable force transmission plate to slide synchronously. The slidable force transmission plate squeezes the air inside the corrugated flexible pipe, and the air inside the corrugated flexible pipe is discharged from the slidable force transmission plate. The slidable force transmission plate is connected to a sealed pipe, and then a mechanical connection that can convert kinetic energy into mechanical energy is formed, and then a power generation effect is further generated through a power generation device. In the process of completing the above power generation principle, the self-resetting damper can restore the positions of the first and second translatable wall panels at the same time by pulling the slidable force transmission plate back to its original position, so that the outer wall of the building has the ability to resist wind vibration and recoverable function.

[0029] Furthermore, a pipe support rail is provided on the side of the slidable force transmission plate opposite to the outer wall of the building, and the corrugated flexible pipe is supported on the pipe support rail to avoid the corrugated flexible pipe being partially in a suspended state, thereby ensuring that the corrugated flexible pipe can be compressed normally, and further ensuring that the ability of the corrugated flexible pipe to compress the internal air is not reduced.

[0030] Furthermore, notches are opened on the upper and lower sides of the slidable force transmission plate, and triangular pads are provided on the force-holding steel. The force-holding steel can be used as a guide rail for the slidable force transmission plate. The function of the triangular pads is to support the slidable force transmission plate on the force-holding steel through the triangular pads and ensure the sliding of the slidable force transmission plate.

[0031] Furthermore, the first embedding member and the second embedding member have different functions. The first embedding member is used to clamp the first translatable wall panel and the second translatable wall panel; while the second embedding member is used to pull the two connected parts, and the two parts can produce a relative translation displacement difference. The corrugated flexible sealing section in the middle can be stretched and expanded. The function of the corrugated flexible sealing section is to seal and prevent rain, so as to prevent rainwater from entering between the fixed wall panel and the outer wall of the building when the first translatable wall panel and the second translatable wall panel move horizontally. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 This is a schematic structural diagram of a wind-vibration-resistant building exterior wall suitable for green buildings according to the present invention;

[0033] Figure 2 for Figure 1 A top view of

[0034] Figure 3 A schematic diagram of the spatial structure of the connection between the building exterior wall and the fixed wallboard in the wind-vibration-resistant building exterior wall suitable for green buildings of the present invention;

[0035] Figure 4 for Figure 3 A top view of

[0036] Figure 5 It is a schematic diagram of the positional relationship between a slidable force transmission plate and a force-bearing steel section in a wind-vibration-resistant building exterior wall suitable for a green building of the present invention;

[0037] Figure 6 It is a schematic diagram of the spatial structure of a slidable force transmission plate and an outer wall panel in a wind-vibration-resistant building exterior wall suitable for a green building according to the present invention;

[0038] Figure 7 for Figure 6 A top view of

[0039] Figure 8 This is a schematic diagram of the spatial structure of a corrugated flexible pipe and a building exterior wall in a wind-vibration-resistant building exterior wall suitable for a green building according to the present invention;

[0040] Fig. 9 This is a schematic structural diagram of a triangular pad in a wind-vibration-resistant building exterior wall suitable for a green building according to the present invention;

[0041] Fig.10It is a structural schematic diagram of a first embedded component in a wind-vibration-resistant building exterior wall suitable for a green building according to the present invention;

[0042] Fig.11 for Fig.10 Schematic cross-sectional view of ;

[0043] Fig.12 It is a structural schematic diagram of a second embedded component in a wind-vibration-resistant building exterior wall suitable for a green building according to the present invention;

[0044] Fig.13 for Fig.12 Schematic cross-section of .

[0045] In the figure, 1 is the outer wall of the building, 11 is the through-wall vent, 12 is the bearing steel, 121 is the triangular pad, 1211 is the sliding layer, 2 is the first translatable wall panel, 3 is the second translatable wall panel, 4 is the linear connecting guide rail, 5 is the fixed wall panel, 6 is the slidable force transmission plate, 61 is the corrugated flexible pipe, 62 is the wall end closing strip, 63 is the first fixed oblique rod, 64 is the second fixed oblique rod, 65 is the pipe supporting guide rail, 7 is the self-resetting damper, 8 is the first embedded part, 81 is the first U-shaped part, 82 is the outer end embedded limb, 83 is the second U-shaped part, 84 is the inner end embedded limb, 9 is the second embedded part, 91 is the third U-shaped part, 92 is the first buckle part, 93 is the fourth U-shaped part, 94 is the second buckle part, 95 is the extended sealing buckle end, and 96 is the corrugated flexible sealing section. DETAILED DESCRIPTION

[0046] like Figure 1-8 As shown, the present invention discloses a wind-vibration-resistant building exterior wall suitable for green buildings, including an outer wall panel, the outer wall panel includes a first translatable wall panel 2, a second translatable wall panel 3 and a fixed wall panel 5, a gap is left between the outer wall panel and the building exterior wall 1, the building exterior wall 1 and the fixed wall panel 5 are fixedly connected by a bearing steel 12, and the building exterior wall 1 is fixedly connected to the first translatable wall panel 2 and the second translatable wall panel 3 by a linear connecting guide rail 4.

[0047] like Figure 1-2 As shown, a first translatable wall panel 2 is arranged above and below the fixed wall panel 5 , and a second translatable wall panel 3 is arranged on the left and right sides of the fixed wall panel 5 .

[0048] A gap is set between the second translatable wall panel 3 and the first translatable wall panel 2 , and a first engaging member 8 is arranged between the second translatable wall panel 3 and the first translatable wall panel 2 .

[0049] like Figure 1 As shown, a gap is set between the fixed wall panel 5 and the first translatable wall panel 2 and the second translatable wall panel 3 , and a second engaging member 9 is provided between the fixed wall panel 5 and the first translatable wall panel 2 and the second translatable wall panel 3 .

[0050] like Fig. 9 As shown, a sliding layer 1211 is provided on the triangular pad 121, and the sliding layer 1211 is made of one of polytetrafluoroethylene, modified polytetrafluoroethylene, ultra-high molecular weight polyethylene and ultra-high performance polytetrafluoroethylene, so that the slidable force transmission plate 6 can slide on the triangular pad 121. The triangular pad 121 is made of wood or plastic, so that it is easy to be bonded and connected with the bearing steel 12.

[0051] like Figure 6 and Figure 7 As shown, a slidable force transmission plate 6 is provided on the force bearing steel 12, and both the left and right sides of the slidable force transmission plate 6 are connected to the second translatable wall panel 3 through the first fixed oblique rod 63, and both the upper and lower sides of the slidable force transmission plate 6 are connected to the first translatable wall panel 2 through the second fixed oblique rod 64; the function of the first fixed oblique rod 63 and the second fixed oblique rod 64 is to fix the slidable force transmission plate 6 to the first translatable wall panel 2 and the second translatable wall panel 3. When the translatable wall panel has a translation, it drives the oblique rod to move, and the oblique rod drives the slidable force transmission plate 6 to translate in the vertical direction of the building exterior wall 1.

[0052] like Figure 3 As shown, a wall end closing strip 62 is provided on the outer side of the building outer wall 1, and the wall end closing strip 62 is arranged on the edges of the corrugated flexible pipe 61. The wall end closing strip 62 is arranged at one end of the building outer wall 1 close to the first translatable wall panel 2, and the function of the wall end closing strip 62 is to facilitate the sealing connection between the corrugated flexible pipe 61 and the building outer wall 1. The wall end closing strip 62 is a rubber product.

[0053] like Figure 5 and Figure 6 As shown, notches are opened on the upper and lower ends of the slidable force transmission plate 6, and the notches are clamped on one side of the force-holding steel 12; a triangular pad 121 is provided on the force-holding steel 12, and the slidable force transmission plate 6 can slide on the triangular pad 121.

[0054] like Figure 10-11 As shown, the first engaging member 8 includes a first U-shaped member 81, a second U-shaped member 83 and an intermediate connector, wherein the first U-shaped member 81 and the second U-shaped member 83 are symmetrically arranged on both sides of the intermediate connector; the intermediate connector includes an inner end engaging limb 84 and an outer end engaging limb 82 which are clamped together.

[0055] like Figure 12-13As shown, the second engaging member 9 includes a third U-shaped member 91 and a fourth U-shaped member 93 which are spliced ​​together, the third U-shaped member 91 is provided with a first fastening member 92, and the fourth U-shaped member 93 is provided with a second fastening member 94; the first fastening member 92 and the second fastening member 94 serve as an intermediate body connecting the third U-shaped member 91 and the fourth U-shaped member 93; the first fastening member 92 and the second fastening member 94 have cavities therein, and extended sealing fastening ends 95 are provided therein, and the two extended sealing fastening ends 95 are connected by a corrugated flexible sealing section 96, and when the corrugated flexible sealing section 96 is stretched and expanded, the third U-shaped member 91 and the fourth U-shaped member 93 are staggered.

[0056] The function of the first engaging member 8 is to allow the first translatable wall panel 2 and the second translatable wall panel 3 to engage with each other, and the function of the second engaging member 9 is to allow a corrugated tube to be pulled out between the first translatable wall panel 2 and the second translatable wall panel 3 and the fixed wall panel 5 when they move, so as to ensure sealing.

[0057] like Figure 12-13 As shown, the corrugated flexible sealing section 96 in the second engaging member 9 should form a certain angle with the horizontal plane when unfolded, so as to facilitate rainwater to flow away naturally from the surface of the corrugated flexible sealing section 96 .

[0058] The first embedded part 8 and the second embedded part 9 are made of common aluminum alloy profiles, which are easy to obtain and install.

[0059] The linear connecting guide rail 4 is a telescopic linear guide rail, which enables the first translatable wall panel 2 and the second translatable wall panel 3 to translate under the action of wind load.

[0060] The pipe support rail 65 adopts a telescopic linear guide rail. The function of the pipe support rail 65 is to support the corrugated flexible pipe 61 internally to prevent the corrugated flexible pipe 61 from being partially suspended, ensure that the corrugated flexible pipe 61 can be compressed normally, and further ensure that the ability of the corrugated flexible pipe 61 to compress the internal air is not reduced.

[0061] The principle of the present application is as follows: when the wind load acts on the outer wall panel, the first translatable wall panel 2 and the second translatable wall panel 3 will tend to translate toward the building outer wall 1, and the first translatable wall panel 2 and the second translatable wall panel 3 will not generate translation displacement difference by relying on the first interlocking member 8, so as to avoid the generation of gaps for rainwater to leak in. At the same time, the position of the fixed wall panel 5 will not change, but the second interlocking member 9 will ensure that there will be no rainwater leaking between the fixed wall panel 5 and the building outer wall 1 while there is a gap between the fixed wall panel 5 and the first translatable wall panel 2 and the second translatable wall panel 3. During the translation of the first translatable wall panel 2 and the second translatable wall panel 3 toward the building outer wall 1, the slidable force transmission plate 6 will synchronously slide on the triangular pad 121, and during the translation, the slidable force transmission plate 6 will squeeze the air inside the corrugated flexible duct 61, and the air inside the corrugated flexible duct 61 will be blown out from the through-wall vent 11. The through-wall vent 11 can be connected to an external sealed pipe, and then further connected to a machine such as a cylinder that can convert kinetic energy into mechanical energy, and then further generate power through a power generation device. In the process of completing the above power generation principle, the self-resetting damper 7 can restore the positions of the first translatable wall panel 2 and the second translatable wall panel 3 at the same time by pulling the slidable force transmission plate 6 back to the original position, so that the exterior wall of the building of the present application has the ability to resist wind vibration and recover function.

[0062] The installation steps of the present invention are as follows:

[0063] S1: First, arrange the bearing steel 12, the wall end closing strip 62 and the straight connecting guide rail 4 on the building outer wall 1 near the outdoor end;

[0064] S2: Arrange a triangular pad 121 on the bearing steel 12;

[0065] S3: Install a slidable force transmission plate 6 on the force-bearing steel 12, and install a pipe support rail 65 and a corrugated flexible pipe 61 between the slidable force transmission plate 6 and the building exterior wall 1;

[0066] S4: Install one end of the first fixed oblique rod 63 and the second fixed oblique rod 64 on the slidable force transmission plate 6 at the same time and temporarily fix them;

[0067] S5: Install the first translatable wall panel 2, the second translatable wall panel 3 and the fixed wall panel 5 at the end of the connecting guide rail 4 and the bearing steel 12 away from the building exterior wall 1, and at the same time fix the first fixed diagonal rod 63 and the second fixed diagonal rod 64 to the second translatable wall panel 3 and the first translatable wall panel 2 respectively, and remove the temporary fixation in S4.

[0068] In the above S5 , the first engaging member 8 is installed between the first translatable wall panel 2 and the second translatable wall panel 3 , and the second engaging member 9 is installed between the fixed wall panel 5 and the first translatable wall panel 2 and the second translatable wall panel 3 .

[0069] Before the above S1 is performed, the arrangement of the through-wall vent holes 11 and the sealing pipes for ventilation should be completed in advance.

Claims

1. A wind-vibration-resistant building exterior wall suitable for green buildings, characterized in that: An outer wall panel is provided outside the building outer wall (1), the outer wall panel comprising a first translatable wall panel (2), a second translatable wall panel (3) and a fixed wall panel (5), a gap is left between the outer wall panel and the building outer wall (1), and the building outer wall (1) and the fixed wall panel (5) are fixedly connected via a bearing steel (12); the first translatable wall panel (2) is symmetrically arranged on the upper and lower sides of the fixed wall panel (5), and the second translatable wall panel (3) is symmetrically arranged on the left and right sides of the fixed wall panel (5); The building exterior wall (1) is fixedly connected to the first translatable wall panel (2) and the second translatable wall panel (3) via a linear connecting guide rail (4); A slidable force transmission plate (6) is hung on the force-bearing steel (12); the left and right sides of the slidable force transmission plate (6) are connected to the second translatable wall plate (3) via a first fixed oblique rod (63); and the upper and lower sides of the slidable force transmission plate (6) are connected to the first translatable wall plate (2) via a second fixed oblique rod (64); A corrugated flexible pipe (61) is provided on the side of the slidable force transmission plate (6) opposite to the building outer wall (1); a through-wall vent (11) is provided in the middle of the building outer wall (1); the outlet of the corrugated flexible pipe (61) is connected to the through-wall vent (11); an energy conversion device is externally connected to the through-wall vent (11), and the energy conversion device is connected to the power generation device; A self-resetting damper (7) is provided between the first translatable wall panel (2) and the building exterior wall (1), and between the second translatable wall panel (3) and the building exterior wall (1); The linear connecting guide rail (4) is a telescopic linear guide rail, which enables the first translatable wall panel (2) and the second translatable wall panel (3) to translate under the action of wind load.

2. The wind-vibration-resistant building exterior wall suitable for green buildings according to claim 1, characterized in that: A retractable pipe support guide rail (65) is provided on the side of the slidable force transmission plate (6) opposite to the building outer wall (1), and the corrugated flexible pipe (61) is supported on the pipe support guide rail (65).

3. The wind-vibration-resistant building exterior wall suitable for green buildings according to claim 1, characterized in that: A wall end closing strip (62) is provided on the outer surface of the building outer wall (1), and the wall end closing strip (62) is arranged on the edges around the corrugated flexible pipe (61).

4. The wind-vibration-resistant building exterior wall suitable for green buildings according to claim 1, characterized in that: Notches are provided at the upper and lower ends of the slidable force transmission plate (6), and the notches are clamped on one side of the force-bearing steel (12); A triangular cushion block (121) is provided on the force-bearing steel (12), and the slidable force transmission plate (6) is capable of sliding on the triangular cushion block (121).

5. The wind-vibration-resistant building exterior wall suitable for green buildings according to claim 4, characterized in that: A sliding layer (1211) is provided on the triangular cushion block (121).

6. The wind-vibration-resistant building exterior wall suitable for green buildings according to claim 5, characterized in that: The sliding layer (1211) is made of polytetrafluoroethylene, modified polytetrafluoroethylene or polyethylene.

7. A wind-vibration-resistant building exterior wall suitable for green buildings according to any one of claims 1 to 6, characterized in that: A first engaging member (8) is provided between the second translatable wall panel (3) and the first translatable wall panel (2); A second engaging member (9) is provided between the fixed wall panel (5) and the first translatable wall panel (2), and a second engaging member (9) is provided between the fixed wall panel (5) and the second translatable wall panel (3).

8. The wind-vibration-resistant building exterior wall suitable for green buildings according to claim 7, characterized in that: The first engaging member (8) comprises a first U-shaped member (81), a second U-shaped member (83) and an intermediate connecting body, wherein the first U-shaped member (81) and the second U-shaped member (83) are symmetrically arranged on both sides of the intermediate connecting body; The intermediate connecting body comprises an inner end engaging limb (84) and an outer end engaging limb (82) which are snap-connected.

9. The wind-vibration-resistant building exterior wall suitable for green buildings according to claim 7, characterized in that: The second engaging member (9) comprises a third U-shaped member (91) and a fourth U-shaped member (93) which are spliced ​​together; the third U-shaped member (91) is provided with a first fastening member (92), and the fourth U-shaped member (93) is provided with a second fastening member (94); the first fastening member (92) and the second fastening member (94) serve as an intermediate body for connecting the third U-shaped member (91) and the fourth U-shaped member (93); The first buckle member (92) and the second buckle member (94) have cavities therein, and an extended sealing buckle end (95) is provided in the cavity. The two extended sealing buckle ends (95) are connected via a corrugated flexible sealing section (96). When the corrugated flexible sealing section (96) is stretched and expanded, the third U-shaped member (91) and the fourth U-shaped member (93) are staggered.

10. A working method for wind-vibration-resistant building exterior walls suitable for green buildings as claimed in any one of claims 1 to 9, characterized in that: The process includes: When the wind load acts on the outer wall panel, the linear connecting guide rail (4) contracts, the first translatable wall panel (2) and the second translatable wall panel (3) translate toward the building outer wall (1), driving the slidable force transmission plate (6) to slide along the bearing steel (12), the slidable force transmission plate (6) squeezes the air inside the corrugated flexible pipe (61), and the air inside the corrugated flexible pipe (61) is discharged from the through-wall vent (11); The gas discharged from the through-wall vent (11) enters the energy conversion device, converts kinetic energy into mechanical energy, and the mechanical energy converted by the energy conversion device drives the power generation device to generate electricity; After power generation is completed, the self-resetting damper (7) pulls the slidable force transmission plate (6) back to its original position, driving the first translatable wall panel (2) and the second translatable wall panel (3) to simultaneously return to their original positions.

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