CN220036543U

CN220036543U - Hollow glass of aluminum alloy built-in shutter curtain

Info

Publication number: CN220036543U
Application number: CN202321627000.5U
Authority: CN
Inventors: 张文忠; 周扬
Original assignee: Jinpeng Energy Saving Technology Co ltd
Current assignee: Anhui Jinpeng Energy Conservation Technology Co ltd
Priority date: 2023-06-25
Filing date: 2023-06-25
Publication date: 2023-11-17
Anticipated expiration: 2033-06-25

Abstract

The utility model discloses hollow glass of an aluminum alloy built-in shutter curtain, which relates to the technical field of aluminum alloy windows. The hollow glass of the aluminum alloy built-in shutter curtain is provided with the marking groove, and in the process of installing the hollow glass on the frame fan by an installer, the marking groove is aligned with the edge of the frame fan only by translating the hollow glass, and then the gap between the hollow glass and the frame fan is glued, so that the horizontal alignment of the built-in control block in the hollow glass and the external control block on the frame fan can be ensured.

Description

Hollow glass of aluminum alloy built-in shutter curtain

Technical Field

The utility model relates to the technical field of aluminum alloy windows, in particular to hollow glass with an aluminum alloy built-in shutter curtain.

Background

The aluminum alloy hollow glass comprises a framework and double-layer glass, the periphery of the framework and the periphery of the double-layer glass are sealed to form a hollow glass integral structure, after the hollow glass is in butt joint with a frame fan, gaps are overlapped and sealed on the periphery of the hollow glass, and then the hollow glass is combined with hardware and auxiliary materials to form the built-in louver glass window; the shutter curtain is arranged between the double-layer glass of the aluminum alloy window, the opening and closing of the curtain are controlled by an internal control block which is arranged in the hollow glass in a sliding way, an external control block which is matched with the internal control block is arranged on the frame fan in a sliding way, the two control blocks are matched with each other through magnetic force, and a user moves the external control block to drive the internal control block to move, so that the opening and closing control of the shutter curtain is realized. In order to facilitate the installation of the hollow glass, the hollow glass and the frame fan are usually in interference fit, i.e. a certain gap is reserved between the frame fan and the hollow glass after the frame fan and the hollow glass are installed; after the common hollow glass is installed, the gap is directly glued and filled; the hollow glass of the built-in shutter curtain needs to be horizontally positioned and then glued so as to ensure that the horizontal positions of the built-in control blocks in the hollow glass and the external control blocks on the frame fan are aligned, if the horizontal relative positions of the hollow glass and the frame fan are not accurately installed, the horizontal positions of the two control blocks are necessarily deviated, and the control effect is poor. In summary, the requirement on the installer is very high in the installation process of the hollow glass with the built-in blind window, and if the experience of the installer is insufficient, or the working state of the installer is poor in the installation process, the deviation of the horizontal position of the hollow glass is easily caused.

Disclosure of Invention

The utility model aims to provide hollow glass with an aluminum alloy built-in shutter curtain, so as to solve the defects in the prior art.

In order to achieve the above object, the present utility model provides the following technical solutions: the hollow glass of the aluminum alloy built-in shutter curtain comprises a framework and two pieces of glass, the shutter curtain arranged between the two pieces of glass is installed on the framework, a built-in controller for controlling the shutter curtain to open and close is installed on the framework in a sliding mode, and a marking groove for aligning with the edge of a frame fan and locating the horizontal position of the framework is formed in the surface of the framework, facing to one side of the glass.

A mounting groove matched with glass is formed in the framework, the thickness of the glass is smaller than the depth of the mounting groove, and the width of the framework is consistent with the inner width of the outer frame fan.

In a preferred scheme, balls in rolling fit with the frame fan are arranged at the bottom of the framework.

Preferably, the skeleton has all seted up the holding tank towards the surface of frame fan side frame, and horizontal limiting plate is installed to horizontal moving in the holding tank, and the limiting plate is located the outer edge of holding tank and the frame fan side frame surface of its orientation and is parallel to each other.

A through groove communicated with the accommodating groove is formed in the skeleton at the position corresponding to each accommodating groove, the limiting plate is located at the edge of the accommodating groove and is a bevel edge, and the bevel edge corresponds to the position of the through groove.

In a preferred scheme, a plurality of first triangular blocks are uniformly and fixedly arranged at the edges of two sides of the limiting plate, and the inclined edges of the first triangular blocks face the outer side of the accommodating groove; the second triangular blocks are uniformly and fixedly arranged on the inner wall of the accommodating groove at positions corresponding to the first triangular blocks, and the inclined edges of the second triangular blocks face the inner side of the accommodating groove.

In the technical scheme, the hollow glass of the aluminum alloy built-in shutter curtain is provided with the marking groove on the framework, and in the process of installing the hollow glass on the frame fan, an installer only needs to translate the hollow glass to align the marking groove with the edge of the frame fan, then glue is applied to the gaps of the hollow glass and the frame fan, so that the horizontal alignment of the built-in control block in the hollow glass and the external control block on the frame fan can be ensured.

Drawings

In order to more clearly illustrate the embodiments of the present utility model or the technical solutions in the prior art, the drawings required for the embodiments will be briefly described below, and it is apparent that the drawings in the following description are only some embodiments described in the present utility model, and other drawings may be obtained according to these drawings for a person having ordinary skill in the art.

FIG. 1 is a first hollow glass explosion structure diagram of an aluminum alloy built-in blind in an embodiment;

FIG. 2 is an enlarged schematic view of FIG. 1 at A;

FIG. 3 is an exploded view of a second hollow glass of an aluminum alloy built-in blind;

fig. 4 is a schematic view showing the internal structure of the receiving groove and the through groove in the embodiment.

Reference numerals illustrate:

1. a skeleton; 101. a marking groove; 102. a mounting groove; 103. a receiving groove; 104. a through groove; 2. glass; 3. a blind 3; 4. a built-in controller; 5. a ball; 6. a limiting plate; 7. a first triangular block; 8. a second triangular block; 9. a frame fan; 10. an external controller; 11. and a guide rail.

Detailed Description

In order to make the technical scheme of the present utility model better understood by those skilled in the art, the present utility model will be further described in detail with reference to the accompanying drawings.

As shown in fig. 1 and fig. 3, the embodiment of the present utility model provides a technical solution: the hollow glass of the aluminum alloy built-in shutter curtain comprises a framework 1, two pieces of glass 2, a shutter curtain 3 and a built-in controller 4, wherein the framework 1 is square, the two pieces of glass 2 are arranged on the framework 1 through an adhesive, the two pieces of glass 2 are parallel to each other, and a hollow area is formed between the two pieces of glass 2; the shutter curtain 3 positioned between the two pieces of glass 2 is arranged on the framework 1, the built-in controller 4 for controlling the shutter curtain 3 to open and close is slidably arranged on the framework 1, and a marking groove 101 for aligning with the edge of the frame fan 9 to position the horizontal position of the framework 1 is arranged on the surface of the framework 1 facing one side of the glass 2; the hollow glass of the aluminum alloy built-in shutter curtain is arranged in the frame fan 9, the frame fan 9 is directly and fixedly arranged on a building body, a vertical guide rail 11 is fixedly arranged on the surface of the frame fan 9 facing the interior of the building, and an external controller 10 is vertically and slidably arranged on the guide rail 11; when the horizontal positions of the external controller 10 and the internal controller 4 are completely aligned, a magnetic force which attracts each other is generated between the two, and an operator can drive the internal controller 4 to synchronously move up and down by moving the external controller 10 up and down; the shutter curtain 3 can be controlled to open and close in the up-and-down movement process of the built-in controller 4, the shutter curtain 3 can be kept at any open-and-close position, and the shutter curtain 3 can play a role in pulling the built-in controller 4, so that the built-in controller 4 can hover at any height; accordingly, the built-in controller 4 also holds the external controller 10 at the same height as it by the attractive force of the external controller 10.

Specifically, in the installation process, an installer holds the framework 1 by hand to place the framework 1 inside the frame fan 9, the bottom of the framework 1 is attached to the bottom surface inside the frame fan 9, and then the installer pushes the framework 1 to move horizontally, so that the marking groove 101 is aligned with the left side edge of the inner side frame of the frame fan 9 in fig. 3; because the external controller 10 and the guide rail 11 are fixed relative to the horizontal position of the frame fan 9, and the internal controller 4 is fixed relative to the horizontal position of the framework 1, when the horizontal positions of the framework 1 and the frame fan 9 are aligned, the external controller 10 corresponds to the horizontal position of the internal controller 4; it should be noted that the position of the marking slot 101 on the frame 1 is already determined in product design, and the horizontal position of the external controller 10 and the internal controller 4 can be ensured by aligning the marking slot 101 with the left side edge of the inner frame of the frame fan 9 in fig. 3 during installation.

As shown in fig. 1, the frame 1 is provided with a mounting groove 102 matched with the glass 2, the thickness of the glass 2 is smaller than the depth of the mounting groove 102, and the width of the frame 1 is consistent with the inner width of the outer frame fan 9; the inner side surface of the glass 2 is attached to the mounting groove 102, a step shape is formed between the outer side surface of the glass 2 and the surface of the framework 1, and an installer pushes the step to enable the framework 1 to move horizontally; the width of the framework 1 is consistent with the inner width of the outer frame fan 9, so that the situation that the framework 1 inclines in the outer frame fan 9 is avoided, and the position correspondence between the external controller 10 and the internal controller 4 is further ensured.

As shown in fig. 3, the bottom of the framework 1 is provided with the balls 5 which are in rolling fit with the frame fan 9, and the framework 1 is in movable fit with the frame fan 9 through the balls 5, so that friction force between the balls and the frame fan 9 is reduced, and an installer is ensured to accurately adjust the horizontal position of the framework 1.

As shown in fig. 2 and fig. 4, the surfaces of the side frames of the frame 1 facing the frame fan 9 are provided with accommodating grooves 103, horizontal limiting plates 6 are horizontally and dynamically arranged in the accommodating grooves 103, and the edges of the limiting plates 6 outside the accommodating grooves 103 are parallel to the surfaces of the side frames of the frame fan 9 facing the limiting plates; after the horizontal position of the framework 1 in the frame fan 9 is adjusted by an installer, horizontally moving the limiting plate 6 in the accommodating groove 103, so that the limiting plate 6 moves out of the accommodating groove 103 until the edge of the limiting plate 6 outside the accommodating groove 103 is attached to the side frame surface of the frame fan 9; because the surface of skeleton 1 towards frame fan 9 side frame all is provided with limiting plate 6, all installs limiting plate 6 on the frame of the left and right sides of skeleton 1 in fig. 1 promptly, and the installer all adjusts two limiting plates 6 to the state of laminating mutually with corresponding frame fan 9 side frame surface, then skeleton 1 is just limited in the position of frame fan 9, and the installer also can not produce the translation because of the extrusion of glue film to the space between skeleton 1 and the frame fan 9 at the in-process of gluing.

As shown in fig. 4, the skeleton 1 is provided with through grooves 104 corresponding to each accommodating groove 103, the edges of the limiting plates 6 in the accommodating grooves 103 are oblique edges, and the oblique edges correspond to the positions of the through grooves 104; the installation personnel support the framework 1 on one hand, stretch the existing hard tools such as iron sheets into the through groove 104 on the other hand, apply horizontal acting force to the inclined plane of the limiting plate 6 through the tools, and move the limiting plate 6 out of the accommodating groove 103 horizontally until the edge of the limiting plate 6 outside the accommodating groove 103 is attached to the side frame surface of the frame fan 9.

As shown in fig. 4, a plurality of first triangular blocks 7 are uniformly and fixedly mounted at the edges of two sides of the limiting plate 6, and the inclined edges of the first triangular blocks 7 face the outer side of the accommodating groove 103; the inner wall of the accommodating groove 103 is uniformly and fixedly provided with a second triangular block 8 at a position corresponding to the first triangular block 7, and the inclined edge of the second triangular block 8 faces the inner side of the accommodating groove 103; the first triangular block 7 and the second triangular block 8 are right triangles, and the first triangular block 7 and the second triangular block 8 are flexible materials, such as rubber; in the process that the limiting plate 6 moves out of the accommodating groove 103, as the inclined surfaces of the first triangular block 7 and the second triangular block 8 are opposite, the first triangular block 7 and the second triangular block 8 can be mutually extruded and deform, the second triangular block 8 can not block the first triangular block 7, and after the edge of the limiting plate 6 outside the accommodating groove 103 is attached to the side frame surface of the frame fan 9, the right-angle edges of the first triangular block 7 and the second triangular block 8 are opposite; if the limiting plate 6 moves reversely, the right-angle edges of the first triangular block 7 and the second triangular block 8 are mutually attached and extruded, and the first triangular block 7 and the second triangular block 8 are not easy to deform in the state, so that the limiting plate 6 does not move reversely to the accommodating groove 103, and the limiting plate 6 can play a stable limiting role on the horizontal position of the framework 1 in the gluing process; it should be noted that, after the glue is applied, the limiting plate 6 does not need to be moved back into the accommodating groove 103, and the glue layer is directly covered on the limiting plate 6; in this embodiment, the framework 1 is of a split structure, and the top of the framework can be opened, so that the limiting plate 6, the first triangular block 7 and the second triangular block 8 are installed in the manufacturing process.

While certain exemplary embodiments of the present utility model have been described above by way of illustration only, it will be apparent to those of ordinary skill in the art that modifications may be made to the described embodiments in various different ways without departing from the spirit and scope of the utility model. Accordingly, the drawings and description are to be regarded as illustrative in nature and not as restrictive of the scope of the utility model, which is defined by the appended claims.

Claims

1. The hollow glass of built-in shutter curtain of aluminum alloy, including skeleton (1) and two glass (2), install shutter curtain (3) that are located between two glass (2) on skeleton (1), slidable mounting has built-in controller (4) that are used for controlling shutter curtain (3) to open and shut on skeleton (1), a serial communication port, thereby the surface of skeleton (1) towards one side glass (2) has been seted up and is used for aligning mark groove (101) that fix a position skeleton (1) horizontal position with the frame fan edge.

2. The hollow glass of the aluminum alloy built-in blind curtain according to claim 1, wherein the framework (1) is provided with a mounting groove (102) matched with the glass (2), the thickness of the glass (2) is smaller than the depth of the mounting groove (102), and the width of the framework (1) is consistent with the inner width of the outer frame fan.

3. Hollow glass of an aluminium alloy built-in blind according to claim 1, characterized in that the bottom of the skeleton (1) is fitted with balls (5) in rolling engagement with the frame sash.

4. The hollow glass of the aluminum alloy built-in shutter curtain according to claim 3, wherein the surfaces of the frameworks (1) facing the side frames of the frame fan are provided with accommodating grooves (103), horizontal limiting plates (6) are horizontally and dynamically arranged in the accommodating grooves (103), and the edges of the limiting plates (6) outside the accommodating grooves (103) are parallel to the surfaces of the side frames of the frame fan facing the limiting plates.

5. The hollow glass of the aluminum alloy built-in blind window curtain according to claim 4, wherein the skeleton (1) is provided with through grooves (104) communicated with the accommodating grooves (103) at positions corresponding to each accommodating groove (103), and the edge of the limiting plate (6) in the accommodating groove (103) is a bevel edge, and the bevel edge corresponds to the positions of the through grooves (104).

6. The hollow glass of the aluminum alloy built-in blind curtain according to claim 5, wherein a plurality of first triangular blocks (7) are uniformly and fixedly arranged at the edges of two sides of the limiting plate (6), and the inclined edges of the first triangular blocks (7) face the outer side of the accommodating groove (103); the inner wall of the accommodating groove (103) is uniformly and fixedly provided with second triangular blocks (8) corresponding to the first triangular blocks (7), and the inclined edges of the second triangular blocks (8) face the inner side of the accommodating groove (103).