An aluminum-plastic window with enhanced wind resistance

Abstract

The present invention relates to an aluminum-plastic window, and more specifically to an aluminum-plastic window with enhanced wind resistance. It includes a vacuum glass installed within an aluminum-plastic window frame. The aluminum-plastic window frame is divided into two groups of X-axis frames and Y-axis frames according to their relative positions. The X-axis frames and Y-axis frames are each composed of two independent single rods arranged in a mirror image. A support mechanism for increasing the support force of the aluminum-plastic window frame against the wall is provided in the groove of the X-axis frame, and a clamping mechanism for clamping the wall to achieve a reinforcement effect is provided in the groove of the Y-axis frame. By clamping the wall around the window frame and increasing the extrusion force of the window body against the wall, the temporary wind resistance of the window body is increased, thereby preventing the window body from being blown off by strong winds and not affecting the overall aesthetics of the window body during normal times.

Description

Technical Field

[0001] The present invention relates to an aluminum-plastic window, and more specifically to an aluminum-plastic window with enhanced wind resistance performance. Background Art

[0002] When installing the aluminum-plastic window frame, a secondary frame is pre-embedded in high-rise windows first. It needs to be installed in place before plastering the rough wall, and it is required that the frame be flush with the wall after plastering. Then, the window frame is fixed on the steel secondary frame, and the gap between the secondary frame and the window frame is filled with foaming agent, which can increase the firmness of the window frame and also play a waterproof effect. After the foaming agent dries, the window can be installed.

[0003] In areas such as Haikou, Ningbo, and Taizhou, due to the influence of typhoons, typhoons sometimes blow down high-rise windows, causing not only economic losses but also casualties. To solve the sudden situation of strong winds like typhoons, an aluminum-plastic window with enhanced wind resistance performance is designed. Summary of the Invention

[0004] The main technical problem to be solved by the present invention is to provide an aluminum-plastic window with enhanced wind resistance performance. This device increases the temporary wind resistance of the window by clamping the wall around the window frame and increasing the extrusion force of the window on the wall, achieving the goal of preventing strong winds from blowing down the window, and not affecting the overall aesthetics of the window in normal times.

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

[0006] An aluminum-plastic window with enhanced wind resistance performance, including vacuum glass installed in the aluminum-plastic window frame. The aluminum-plastic window frame is divided into two groups of X-axis frames and Y-axis frames according to their relative positions. Both the X-axis frame and the Y-axis frame are composed of two independent single rods arranged in a mirror image. A support mechanism for increasing the support force of the aluminum-plastic window frame on the wall is provided in the groove of the X-axis frame, and a clamping mechanism for clamping the wall to achieve a reinforcement effect is provided in the groove of the Y-axis frame.

[0007] As a further optimization of this technical solution, in the aluminum-plastic window with enhanced wind resistance performance of the present invention, the clamping mechanism includes a motor one for providing power. The output end of the motor one is fixedly installed with a helical gear one for driving a helical gear two. The helical gear two is fixedly installed on a gear one. The gear one is rotatably installed in a groove provided on the Y-axis frame. The gear one meshes with a clamping plate assembly. The number of the clamping plate assemblies is two and they are circumferentially arranged at the upper and lower ends of the gear one. The Y-axis frame is provided with grooves for the rotation of the clamping plate assembly, and sealing rubber strips are provided at the groove openings for sealing.

[0008] As a further optimization of the technical solution, in the aluminum-plastic window with enhanced wind resistance of the present invention, the clamping plate assembly includes a strip-shaped plate provided with teeth. The first gear is driven to rotate by the teeth on the strip-shaped plate. The strip-shaped plate is rotatably installed in the open groove provided on the Y-axis frame. The flat head end of the strip-shaped plate is provided with a strip-shaped groove facilitating the telescopic movement of the telescopic plate, and the telescopic plate is fixed in the strip-shaped groove by screws. The exposed end of the telescopic plate is fixedly installed with an L-shaped plate. A clamping member is rotatably installed in the groove of the L-shaped plate. The clamping member and the L-shaped plate are in a closed state limited by the width of the groove of the Y-axis frame. A groove is provided on one side of the clamping member close to the L-shaped plate. A cylindrical rod for fixing the position of the spring is provided in the groove. The spring is wound around the cylindrical rod. Both ends of the spring are provided with extension ends. When the clamping member is closed, the extension ends at both ends of the spring are squeezed.

[0009] As a further optimization of the technical solution, in the aluminum-plastic window with enhanced wind resistance of the present invention, the support mechanism includes a second motor for providing driving force. The output end of the second motor is fixedly installed with a third helical gear. The third helical gear drives the fourth helical gear to rotate. The fourth helical gear is fixedly installed on the main gear. The main gear is used to drive the secondary gear fixed in the middle of the bidirectional threaded rod. There are two support assemblies, which are respectively threadedly connected to both ends of the bidirectional threaded rod.

[0010] As a further optimization of the technical solution, in the aluminum-plastic window with enhanced wind resistance of the present invention, the support assembly includes an inner threaded rod threadedly connected to the bidirectional threaded rod. The inner threaded rod is slidably installed in the chute provided on the X-axis frame. An articulated member is fixedly installed on the inner threaded rod. The articulated member is articulated with the bottom end of the active plate. The top end of the active plate is articulated with the top end of the driven plate. The bottom end of the driven plate is rotatably installed in the groove provided on the X-axis frame.

[0011] The beneficial effects of the aluminum-plastic window with enhanced wind resistance of the present invention are as follows:

[0012] 1. When a sudden strong wind occurs, the window body clamps the surrounding wall of the window body to achieve the purpose of increasing wind resistance. Usually, the clamping mechanism is hidden in the window frame without affecting its aesthetics.

[0013] 2. The window body increases the extrusion force on the surrounding wall of the window body, thereby increasing the resistance between the window body and the wall, and achieving the purpose of enhancing wind resistance. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] The following further describes the present invention in detail with reference to the drawings and specific implementation methods.

[0015] Figure 1 It is a three-dimensional structural schematic diagram of the aluminum-plastic window with enhanced wind resistance of the present invention.

[0016] Figure 2 It is a structural schematic diagram of the interior of the Y-axis frame of the aluminum-plastic window with enhanced wind resistance of the present invention.

[0017] Figure 3 This is a schematic structural view of the outdoor part of the Y-axis frame of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0018] Figure 4 This is a three-dimensional structural view of the clamping mechanism and the Y-axis frame of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0019] Figure 5 This is a partial three-dimensional structural view of the clamping mechanism of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0020] Figure 6 This is a three-dimensional structural view of the clamping mechanism of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0021] Figure 7 This is a three-dimensional structural view of the clamping plate assembly of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0022] Figure 8 This is a three-dimensional structural view of the L-shaped plate and the clamping member of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0023] Figure 9 This is a three-dimensional structural view of the clamping member, the spring, and the cylindrical rod of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0024] Figure 10 This is a three-dimensional structural view of the main gear and the X-axis frame of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0025] Figure 11 This is a three-dimensional structural view of the main gear of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0026] Figure 12 This is a partial three-dimensional structural view of the main gear of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0027] Figure 13 This is a three-dimensional structural view of the support assembly of an aluminum-plastic window with enhanced wind resistance according to the present invention.

[0028] In the figure: vacuum glass 1; aluminum-plastic window frame 2; X-axis frame 21; Y-axis frame 22; sealing rubber strip 221; opening groove 222; clamping mechanism 3; first motor 31; first helical gear 32; second helical gear 33; first gear 34; clamping plate assembly 35; strip plate 351; L-shaped plate 352; telescopic plate 353; clamping member 354; spring 355; extension end 3551; cylindrical rod 356; support mechanism 4; second motor 41; third helical gear 42; fourth helical gear 43; main gear 44; driven gear 45; bidirectional threaded rod 46; support assembly 47; internal threaded rod 471; hinge member 472; active plate 473; driven plate 474. Detailed implementation mode

[0029] Example 1: As Figure 1 shown, it includes a vacuum glass 1, the vacuum glass 1 is installed in the aluminum-plastic window frame 2, the aluminum-plastic window frame 2 is divided into two groups of X-axis frame 21 and Y-axis frame 22 according to the relative position, both the X-axis frame 21 and the Y-axis frame 22 are composed of two independent single rods arranged in mirror image, a support mechanism 4 for increasing the supporting force of the aluminum-plastic window frame 2 on the wall is provided in the groove of the X-axis frame 21, and a clamping mechanism 3 for clamping the wall to achieve a strengthening effect is provided in the groove of the Y-axis frame 22.

[0030] Example 2: It is described on the basis of Example 1. As Figures 2 to 9As shown in the figure, the clamping mechanism 3 includes a first motor 31 for providing power. A storage battery for supplying power to the first motor 31 is provided on the Y-axis frame 22. A first helical gear 32 for driving a second helical gear 33 is fixedly installed at the output end of the first motor 31. The second helical gear 33 is fixedly installed on a first gear 34. The first gear 34 is rotatably installed in a groove provided on the Y-axis frame 22. The first gear 34 meshes with a clamping plate assembly 35. There are two clamping plate assemblies 35, which are circumferentially arranged at the upper and lower ends of the first gear 34. The Y-axis frame 22 is provided with grooves for the rotation of the clamping plate assembly 35, and sealing rubber strips 221 are provided at the groove openings for sealing; The clamping plate assembly 35 includes a strip-shaped plate 351 provided with teeth. The first gear 34 drives its rotation through the teeth on the strip-shaped plate 351. The strip-shaped plate 351 is rotatably installed in an open groove 222 provided on the Y-axis frame 22. A strip-shaped groove facilitating the expansion and contraction of the expansion plate 353 is provided at the flat head end of the strip-shaped plate 351, and the expansion plate 353 is fixed in the strip-shaped groove by screws. There are multiple screws. Since the wall thicknesses on both sides of the window form are different, the overall length of the unilateral clamping plate assembly 35 can be adjusted in advance by expanding and contracting the expansion plate 353, so that both clamping plate assemblies 35 can adapt to the wall thickness on the corresponding side. An L-shaped plate 352 is fixedly installed at the exposed end of the expansion plate 353. A clamping member 354 is rotatably installed in the groove of the L-shaped plate 352. The clamping member 354 and the L-shaped plate 352 are in a closed state limited by the width of the groove of the Y-axis frame 22. A groove is provided on one side of the clamping member 354 close to the L-shaped plate 352. A cylindrical rod 356 for fixing the position of a spring 355 is provided in the groove. The spring 355 is wound around the cylindrical rod 356. Both ends of the spring 355 are provided with extension ends 3551. When the clamping member 354 is closed, the extension ends 3551 at both ends of the spring 355 are squeezed, so as to ensure that the spring 355 can bounce the clamping member 354 open;

[0031] With such a setting, when a sudden strong wind weather occurs, the first motor 31 is started. The first motor 31 drives the second helical gear 33 to rotate through the first helical gear 32. The second helical gear 33 drives the first gear 34 to rotate synchronously, so that the first gear 34 simultaneously drives the upper and lower two strip-shaped plates 351 to rotate. When the strip-shaped plates 351 rotate, the sealing rubber strips 221 on both the inner and outer sides of the Y-axis frame 22 are squeezed off. At this time, the clamping plate assembly 35 rotates to the horizontal position with the open groove 222 as the center. At this time, the extension ends 3551 at both ends of the spring 355 under the extrusion force push the clamping member 354 open. When the first gear 34 continues to drive the strip-shaped plate 351, the strip-shaped plate 351 slides out from the opening of the open groove 222. The strip-shaped plate 351 undergoes horizontal displacement under the limitation of the groove body of the Y-axis frame 22, so that the clamping members 354 with both ends opened contract, and clamp the wall around the window frame (since the lengths of the two clamping plate assemblies 35 have been adjusted accordingly in advance, the clamping members 354 on both sides contact the wall surface simultaneously), so as to achieve the purpose of strengthening the window form and increase its wind resistance.

[0032] Embodiment 3: This is described based on Embodiment 1. As Figures 9 to 13 shown, the support mechanism 4 includes a second motor 41 for providing driving force. A storage battery for supplying power to the second motor 41 is provided on the X-axis frame 21. A third helical gear 42 is fixedly installed at the output end of the second motor 41. The third helical gear 42 drives a fourth helical gear 43 to rotate. The fourth helical gear 43 is fixedly installed on a main gear 44. The main gear 44 is used to drive a secondary gear 45 fixed in the middle of a bidirectional threaded rod 46. There are two support assemblies 47, which are respectively threadedly connected to both ends of the bidirectional threaded rod 46. The support assembly 47 includes an inner threaded rod 471 threadedly connected to the bidirectional threaded rod 46. The inner threaded rod 471 is slidably installed in a chute provided on the X-axis frame 21. A hinge member 472 is fixedly installed on the inner threaded rod 471. The hinge member 472 is hinged to the bottom end of a driving plate 473. The top end of the driving plate 473 is hinged to the top end of a driven plate 474. The bottom end of the driven plate 474 is rotatably installed in a groove provided on the X-axis frame 21. An opening groove facilitating the expansion and contraction of the driving plate 473 and the driven plate 474 is provided on one side of the X-axis frame 21 in contact with the wall.

[0033] With such a setting, when the second motor 41 is started, the second motor 41 drives the fourth helical gear 43 to rotate through the third helical gear 42. The fourth helical gear 43 drives the main gear 44 to rotate. The main gear 44 drives the bidirectional threaded rod 46 to rotate through the secondary gear 45, so that the inner threaded rods 471 at both ends move. The movement of the inner threaded rods 471 pushes the driving plate 473 through the hinge member 472, causing the driving plate 473 and the driven plate 474 to gradually approach. During the approaching process, the top ends of the driving plate 473 and the driven plate 474 extend from the opening groove and squeeze the wall, thereby increasing the friction between the window and the wall, and further enhancing the wind resistance of the window.

[0034] Certainly, the above description is not a limitation of the present invention. The present invention is not limited to the above examples either. Changes, modifications, additions, or substitutions made by those of ordinary skill in the art within the essence of the present invention also fall within the protection scope of the present invention.

Claims

1. An aluminum-plastic window with enhanced wind resistance, comprising a vacuum glass (1) installed within an aluminum-plastic window frame (2). Characterized in that: The aluminum-plastic window frame (2) is relatively divided into two groups, namely the X-axis frame (21) and the Y-axis frame (22) according to their positions. Both the X-axis frame (21) and the Y-axis frame (22) are composed of two independent single rods arranged in a mirror image. A support mechanism (4) for increasing the supporting force of the aluminum-plastic window frame (2) against the wall is provided in the groove of the X-axis frame (21), and a clamping mechanism (3) for clamping the wall to achieve a reinforcement effect is provided in the groove of the Y-axis frame (22). The clamping mechanism (3) includes a motor one (31) for providing power. The output end of the motor one (31) is fixedly installed with a helical gear one (32) for driving a helical gear two (33). The helical gear two (33) is fixedly installed on a gear one (34). The gear one (34) is rotatably installed in a groove provided on the Y-axis frame (22). The gear one (34) meshes with a clamping plate assembly (35). The number of the clamping plate assemblies (35) is two and they are circumferentially arranged at the upper and lower ends of the gear one (34). The Y-axis frame (22) is provided with grooves for the rotation of the clamping plate assembly (35), and sealing rubber strips (221) are provided at the groove openings for sealing. The clamping plate assembly (35) includes a strip-shaped plate (351) provided with teeth. The gear one (34) drives its rotation through the teeth on the strip-shaped plate (351). The strip-shaped plate (351) is rotatably installed in an open groove (222) provided on the Y-axis frame (22). The flat head end of the strip-shaped plate (351) is provided with a strip-shaped groove for the telescopic movement of a telescopic plate (353), and the telescopic plate (353) is fixed in the strip-shaped groove by screws. The exposed end of the telescopic plate (353) is fixedly installed with an L-shaped plate (352). A clamping member (354) is rotatably installed in the groove of the L-shaped plate (352). The clamping member (354) and the L-shaped plate (352) are in a closed state limited by the width of the groove of the Y-axis frame (22). A groove is provided on one side of the clamping member (354) close to the L-shaped plate (352), and a cylindrical rod (356) for fixing the position of a fixed spring (355) is provided in the groove. The spring (355) is wound around the cylindrical rod (356). Both ends of the spring (355) are provided with extended ends (3551). When the clamping member (354) is closed, it squeezes the extended ends (3551) at both ends of the spring (355).

2. An aluminum-plastic window with enhanced wind resistance according to claim 1. Characterized in that: The support mechanism (4) includes a motor two (41) for providing driving force. The output end of the motor two (41) is fixedly installed with a helical gear three (42). The helical gear three (42) drives a helical gear four (43) to rotate. The helical gear four (43) is fixedly installed on a main gear (44). The main gear (44) is used to drive a slave gear (45) fixed in the middle of a bidirectional threaded rod (46). The number of support components (47) is two, which are respectively threadedly connected to both ends of the bidirectional threaded rod (46).

3. An aluminum-plastic window with enhanced wind resistance according to claim 2. It is characterized in that: The support assembly (47) includes an inner threaded rod (471) threadedly connected to the bidirectional threaded rod (46). The inner threaded rod (471) is slidably installed in a chute provided on the X-axis frame (21). An articulated member (472) is fixedly installed on the inner threaded rod (471). The articulated member (472) is articulated to the bottom end of the active plate (473). The top end of the active plate (473) is articulated to the top end of the driven plate (474). The bottom end of the driven plate (474) is rotatably installed in a groove provided on the X-axis frame (21).

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