Inert gas isolation equipment for double-layer glass production

Abstract

The utility model discloses inert gas isolation equipment for double-layer glass production, and mainly relates to the field of double-layer glass processing equipment. Comprising two adsorption fixing plates, a plurality of adsorption fixing holes formed in each adsorption fixing plate communicate with a suction assembly, and glass is adsorbed and fixed to the adsorption fixing plates through suction of the suction assemblies; a sealing strip is arranged at the upper end of the adsorption fixing plate, the sealing strip is wound in the sealing shell, and the sealing strip is made of an elastic deformation material; a driving rotating wheel is arranged at the outlet position of the sealing shell, the driving rotating wheel is in contact connection with the sealing strip, and when the driving rotating wheel rotates, the sealing strip located in the sealing shell is driven to be separated from the outlet position. The double-layer glass inert gas inflation device has the advantages that gas can be prevented from overflowing from the inflation device in the double-layer glass inert gas inflation operation, and therefore the double-layer glass inert gas inflation efficiency is guaranteed.

Description

Technical Field

[0001] The utility model relates to the field of double - layer glass processing equipment, in particular to an inert gas isolation device for double - layer glass production. Background Technique

[0002] Double - layer glass is a relatively common type of glass. During production, two pieces of glass are limited and butted, and installed on the same aluminum frame to obtain a piece of double - layer glass that meets the production requirements. Compared with single - layer glass, double - layer glass has better heat - preservation, heat - insulation and sound - insulation functions, thus better meeting the usage needs of people. On the basis of double - layer glass, after filling inert gas between the two layers of glass and then installing it with the aluminum frame, the service performance of the double - layer glass can be further improved; because the filled inert gas can increase the heat - preservation effect of the double - layer glass and at the same time further ensure that the glass has better sound - insulation ability, better meeting people's usage requirements. However, the traditional method of filling inert gas requires fitting the aluminum material with the glass and then performing the operation of filling inert gas. However, the adhesion force at the edge position of the aluminum frame is not sufficient to ensure that the inert gas can be effectively filled into the interlayer position, and thus there is a problem of inert gas leakage. Moreover, because some inert gases are expensive, unnecessary gas waste is generated.

[0003] Based on the above problems, it is necessary to set up an inert gas isolation device for double - layer glass production, which can ensure that the inert gas is effectively filled into the gap between the double - layer glass, and at the same time avoid more detachment and diffusion problems of the inert gas, thereby ensuring the safety and effectiveness of the inert gas filling of the double - layer glass. Summary of the Utility Model

[0004] The purpose of the utility model is to provide an inert gas isolation device for double - layer glass production, which can ensure that during the inert gas filling operation of double - layer glass, gas does not overflow from the filling device, thereby ensuring the efficiency of the inert gas filling of double - layer glass.

[0005] In order to achieve the above object, the utility model is realized through the following technical solutions:

[0006] An inert gas isolation device for double - layer glass production includes two adsorption fixing plates. A plurality of adsorption fixing holes opened on each adsorption fixing plate are communicated with a suction component. Through the suction of the suction component, the glass is adsorbed and fixed on the adsorption fixing plate; a sealing strip is arranged at the upper end position of the adsorption fixing plate. The sealing strip is wound inside a sealing shell, and the sealing strip is made of an elastic deformation material; a driving runner is arranged at the outlet position of the sealing shell, and the driving runner is in contact connection with the sealing strip. When the driving runner rotates, the sealing strip in the sealing shell is driven to move away from the outlet position.

[0007] The vertical cross-section of the sealing strip is a T-shaped structure, and a guiding assembly matching the T-shaped structure of the sealing strip is arranged on the inner end surface of the sealing housing.

[0008] The guiding assembly includes a base and guiding rollers. The two guiding rollers are symmetrically arranged on both sides of the base, so that the two side edges of the T-shaped structure of the sealing strip are respectively in contact with the two guiding rollers.

[0009] A pressing and limiting baffle is arranged at the outlet position of the sealing housing, and the sealing strip at the outlet position of the sealing housing is pressed by the pressing and limiting baffle.

[0010] The sealing housing and the adsorption fixing plate are connected in a matching manner through sliding rails, and a driving mechanism is arranged in a matching manner with the sliding rails. The sealing housing is driven to move along the sliding rails of the adsorption fixing plate through the driving mechanism.

[0011] Compared with the prior art, the beneficial effects of the present utility model are as follows:

[0012] Based on the traditional double-layer glass fixing device, that is, through the adsorption fixing plate and the suction assembly, the glass can be effectively fixed on the adsorption fixing plate. And the sealing strip is arranged in cooperation with the adsorption fixing plate, and is arranged in cooperation with the sealing housing and the driving runner, so as to realize the sealing operation of the edge position of the double-layer glass. Moreover, the preparation material of the sealing strip here is an elastic deformation material, that is, the sealing strip can straighten itself through its own elastic potential energy when in a bent state. Therefore, the sealing strip is in a completely coiled state in the sealing housing, and after being driven by the driving runner and separated from the sealing housing, the sealing strip can automatically straighten through the elastic potential energy, so as to effectively act on the position between the two adsorption fixing plates, thereby realizing the sealing operation of the edge position of the double-layer glass, and further enabling the inert gas to effectively act on the gap position of the double-layer glass. Description of the Drawings

[0013] Attached Figure 1 is a schematic structural diagram of the present utility model on the adsorption fixing plate.

[0014] Attached Figure 2 is a schematic structural diagram of the present utility model.

[0015] Attached Figure 3 is a schematic diagram of a partial structure of the present utility model.

[0016] Attached Figure 4 is an enlarged schematic diagram of a partial structure of the present utility model.

[0017] Attached Figure 5 is an enlarged schematic diagram of a partial structure of the present utility model.

[0018] AttachedFigure 6 This is a schematic structural diagram of the present utility model after installing a sealing strip.

[0019] Reference numerals shown in the accompanying drawings:

[0020] 1. Adsorption fixing plate; 2. Sealing strip; 3. Sealing housing; 4. Driving runner; 5. Guide assembly; 6. Base; 7. Guide roller; 8. Pressing and limiting baffle. Specific embodiments

[0021] The present utility model will be further described below in conjunction with specific embodiments. It should be understood that these embodiments are only used to illustrate the present utility model and not to limit the scope of the present utility model. In addition, it should be understood that after reading the content taught by the present utility model, those skilled in the art can make various changes or modifications to the present utility model, and these equivalent forms also fall within the scope defined by this application.

[0022] Under normal circumstances, during the docking and installation operation of double-layer glass, an adsorption fixing plate 1 is required, and a plurality of adsorption fixing holes formed on the adsorption fixing plate 1 are communicated with a suction assembly. After the glass is transported to the position of the adsorption fixing plate 1, the suction assembly sucks the glass, and the glass is adsorbed and fixed on the adsorption fixing plate 1 through the suction of the suction assembly, so that the effective fixation of the glass position can be realized without clamping the glass. On this basis, after installing the aluminum frame, the two pieces of glass are brought closer, and inert gas is filled into the space between the two adsorption fixing plates 1. When the inert gas is filled for a certain period of time, the space between the two adsorption fixing plates 1 is filled with inert gas, and then the two pieces of glass are buckled to complete the operation of inert gas filling. This method requires the inert gas to effectively occupy the space between the two adsorption fixing plates 1, so it will cause waste of inert gas and cannot adapt to the inert gas filling operation of glasses of different sizes. Therefore, the following structural settings are made:

[0023] An inert gas isolation device for double-layer glass production, wherein a sealing strip 2 is arranged at the upper end of the adsorption fixing plate 1, and the sealing strip 2 is coiled inside the sealing shell 3, and the sealing strip 2 is an elastic deformation material; it should be noted here that because the material of the sealing strip 2 arranged here is an elastic deformation material, that is, the sealing strip 2 is in a completely coiled state in the sealing shell 3 under the restriction of the sealing shell 3; and when the sealing strip 2 extends out of the sealing shell 3, the sealing strip 2 can automatically straighten. The sealing strip 2 in this state does not occupy space when not in use, and when sealing the gap between the two adsorption fixing plates 1, it extends out and falls into the gap between the two adsorption fixing plates 1, which can meet the sealing operation on both sides of the double-layer glass. At the same time, a driving wheel 4 is provided at the outlet position of the sealing shell 3, and the driving wheel 4 is in contact with the sealing strip 2. When the driving wheel 4 rotates, the sealing strip 2 in the sealing shell 3 is driven to leave the outlet position; when the sealing strip 2 is required to seal the two sides of the two adsorption fixing plates 1, the driving wheel 4 rotates, so that the sealing strip 2 is brought out of the sealing shell 3 by the driving wheel 4, and the sealing strip 2 is automatically straightened under the action of elastic potential energy, and falls into the position between the two adsorption fixing plates 1, shielding the two sides of the adsorption fixing plates 1, thereby limiting the diffusion space of the inert gas in the two adsorption fixing plates 1 during the filling of the inert gas, so that a small amount of inert gas can meet the requirement of inert gas filling of double-layer glass.

[0024] The above structure is further structured and optimized as follows:

[0025] 1. The vertical cross section of the sealing strip 2 is a T-shaped structure, and a guide component 5 matching the T-shaped structure of the sealing strip is provided on the inner end surface of the sealing housing 3. As shown in the attached figure of the specification Figure 6 As shown, for the sealing strip 2 of the T-shaped structure, the middle position can be set as a reinforcing rib, so that the sealing strip 2 has better elastic deformation, and can recover to the straight state faster and more stably after extending from the sealing shell 3, thereby ensuring that the sealing strip 2 effectively acts on the position between the two adsorption fixing plates 1. The edge positions on both sides of the T-shaped structure can adapt to the set guide assembly 5, so that the sealing strip 2 can effectively extend out of the sealing shell 3 when carrying the driving wheel 4. For the guide assembly 5 set here, the guide assembly 5 includes a base 6 and a guide wheel, and the two guide rollers 7 are symmetrically arranged on both sides of the base 6, so that the edges on both sides of the T-shaped structure of the sealing strip 2 are respectively in contact with the two guide rollers 7; and then when the driving wheel 4 drives the sealing strip 2 to move, the sealing strip 2 in the sealing shell 3 can be moved under the limiting action of the two guide wheels, so that the sealing strip 2 can effectively extend out of the sealing shell 3, avoiding the problem of jamming in the sealing shell 3.

[0026] 2. In order to ensure that the sealing strip 2 effectively extends out of the sealing housing 3 and falls into the position between the two adsorption fixing plates 1, a pressing limit baffle 8 is provided at the outlet position of the sealing housing 3, and the sealing strip 2 at the outlet position of the sealing housing 3 is pressed by the pressing limit baffle 8; so that the sealing strip 2 extending out of the port position of the lower sealing housing 3 can be position-limited by the pressing limit baffle 8 and effectively fall into the position between the two adsorption fixing plates 1.

[0027] 3. The sealing housing 3 and the adsorption fixing plate 1 are connected in a sliding rail fit, and a driving mechanism is provided in cooperation with the sliding rail. The sealing housing 3 is driven by the driving mechanism to move along the sliding rail of the adsorption fixing plate 1, so that the sealing strip 2 can adapt to double-layer glass of different sizes to ensure better adaptability of the sealing effect.

[0028] An inert gas isolation device for double-layer glass production can ensure that during the inert gas filling operation of double-layer glass, gas leakage from the filling device is avoided, thereby ensuring the efficiency of inert gas filling of double-layer glass.

Claims

1. An inert gas isolation device for double-layer glass production, comprising two adsorption fixing plates (1), wherein a plurality of adsorption fixing holes provided on each of the adsorption fixing plates (1) are connected to a suction component, and the glass is adsorbed and fixed on the adsorption fixing plates (1) by suction through the suction component; Features: A sealing strip (2) is arranged at the upper end of the adsorption fixing plate (1), the sealing strip (2) is coiled and arranged inside the sealing shell (3), and the sealing strip (2) is made of elastic deformable material; A driving wheel (4) is provided at the outlet position of the sealing shell (3), and the driving wheel (4) is in contact with and connected to the sealing strip (2). When the driving wheel (4) rotates, it drives the sealing strip (2) in the sealing shell (3) to leave the outlet position.

2. The inert gas isolation equipment for double-glazed glass production according to claim 1, characterized in that: The vertical cross-section of the sealing strip (2) is a T-shaped structure, and a guide component (5) matching the T-shaped structure of the sealing strip is provided on the inner end surface of the sealing housing (3).

3. The inert gas isolation equipment for double-glazed glass production according to claim 2, characterized in that: The guide assembly (5) comprises a base (6) and a guide roller (7), wherein the two guide rollers (7) are symmetrically arranged at two sides of the base (6), so that the two side edges of the T-shaped structure of the sealing strip (2) are in contact with the two guide rollers (7) respectively.

4. An inert gas isolation device for double-glazed glass production according to claim 1 or 3, characterized in that: A pressing and limiting baffle (8) is provided at the outlet position of the sealing shell (3), and the sealing strip (2) at the outlet position of the sealing shell (3) is pressed and held by the pressing and limiting baffle (8).

5. The inert gas isolation equipment for double-glazed glass production according to claim 1, characterized in that: The sealing shell (3) and the adsorption fixing plate (1) are connected via a slide rail, and the slide rail is provided with a driving mechanism, and the sealing shell (3) is driven by the driving mechanism to move along the slide rail of the adsorption fixing plate (1).

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