Ultrathin flexible glass processing device

Abstract

The utility model belongs to an ultrathin flexible glass processing device in the technical field of ultrathin flexible glass processing. The ultrathin flexible glass (4) comprises a plurality of glass combination layers, the ultrathin flexible glass processing device comprises a device body (1), the lower portion of the device body (1) is provided with a flexible pressing component (2) protruding downwards, the pressing component (2) is of a hemispherical or trapezoidal structure, and the upper portion of the pressing component (2) is connected with a lifting control component (3). The ultrathin flexible glass processing device disclosed by the utility model is simple in structure, the phenomenon that glass is deviated due to the action of force in the parallel direction is avoided in a vertical pressing manner, bubbles between glass combination layers are favorably eliminated, the effect after rolling forming is effectively ensured, and the glass processing quality is improved.

Description

Technical Field

[0001] The utility model belongs to the technical field of ultra-thin flexible glass processing, and more specifically, relates to an ultra-thin flexible glass processing device. Background Art

[0002] Ultra-thin flexible glass generally includes multiple layers, and pressure is required for processing and lamination. At present, to improve production efficiency, a multi-layer stacking method is adopted for flexible glass processing, enabling the simultaneous processing of multiple layers of products. Among them, the bonding method in the middle of the flexible glass uses resin glue as a medium for bonding. The liquid resin glue is dropped onto the surface of the first layer of glass at the bottom layer through a syringe-type dispensing method. When stacking multiple layers, the second layer of glass is placed above the first layer of glass, and then the liquid resin glue is dropped onto the second layer of glass, and so on, to achieve the stacking of multiple layers of glass. However, in the prior art, when applying force to the stacked glass, a roller rolling method is used, and the roller is moved from one side of the glass to the other side for rolling. Because the glass is stacked in multiple layers, a horizontal force will be generated on the glass during rolling, and the glass will shift along the direction of the force applied by the roller, resulting in uneven edges of the glass after stacking. Moreover, air will enter during rolling, and there will be bubbles between different glass composite layers of the ultra-thin glass after rolling, affecting the processing effect and yield.

[0003] In the prior art, there is a technology with the name of "A production device and production method for flexible glass" and the publication number of "CN112340965A". This technology relates to the technical field of flexible glass, and proposes a production device for flexible glass, including a glass liquid homogenization device and a slit device. The glass liquid homogenization device includes a platinum-rhodium alloy stirring tank with an inlet platinum-rhodium alloy channel and an outlet platinum-rhodium alloy channel, and a voltage stabilizing and temperature adjusting chamber connected to the outlet platinum-rhodium alloy channel and made of platinum-rhodium alloy material. The top of the voltage stabilizing and temperature adjusting chamber is a closed structure, and the bottom is an arc-shaped structure with a downward depression in the middle. An outlet is provided at the center of the bottom of the arc-shaped structure; the slit device includes a central flow guide plate directly below the outlet of the voltage stabilizing and temperature adjusting chamber, and side flow guide plates symmetrically arranged on both sides of the central flow guide plate. A gap is left between the central flow guide plate and each side flow guide plate to form a double-slit structure. It solves the problem that the lateral temperature difference of the glass liquid above the slit in the prior art is relatively large, the viscosity consistency of the glass ribbon at the slit outlet cannot be guaranteed, and the glass warping phenomenon is likely to occur. However, this technology does not involve the technical problems and technical solutions of this application. Summary of the Utility Model

[0004] The technical problem to be solved by the utility model is: aiming at the deficiencies of the prior art, to provide an ultra-thin flexible glass processing device with a simple structure, which can avoid the phenomenon of glass offset caused by the action of forces in the parallel direction through a vertical pressing method, and is conducive to removing bubbles between the glass composite layers, effectively ensuring the effect after rolling forming, and improving the glass processing quality.

[0005] To solve the above-mentioned technical problems, the technical solution adopted by the present utility model is as follows:

[0006] The present utility model relates to a processing device for ultra-thin flexible glass. The ultra-thin flexible glass includes multiple glass composite layers. The processing device for ultra-thin flexible glass includes a device body. A flexible pressing component protruding downward is arranged at the lower part of the device body. The pressing component has a hemispherical or trapezoidal structure, and an elevating control component is connected to the upper part of the pressing component.

[0007] The pressing component is made of sponge material or rubber material.

[0008] The elevating control component includes a robotic arm and a control motor. The lower end of the robotic arm is connected to the pressing component, and the upper end of the robotic arm is connected to the rotating shaft of the control motor.

[0009] The elevating control component is a telescopic cylinder or a telescopic oil cylinder. The lower end of the elevating control component is connected to the pressing component, and the upper end of the elevating control component is connected to the mounting beam.

[0010] The ultra-thin flexible glass to be processed includes multiple layers arranged in an upper and lower stacked manner, and a resin glue layer is arranged between adjacent ultra-thin flexible glasses.

[0011] The processing device for ultra-thin flexible glass further includes a device base, and the ultra-thin flexible glass to be processed is arranged on the device base.

[0012] The control motor is connected to the device base through a connecting bracket.

[0013] The mounting beam is connected to the device base through a connecting bracket.

[0014] The pressing center at the lower part of the pressing component is arranged to be aligned with the center position of the device base.

[0015] Adopting the technical solution of the present utility model, the working principle and beneficial effects are as follows:

[0016] The ultra-thin flexible glass processing device described in the present utility model places the multi-layer stacked ultra-thin flexible glass to be pressed on the device base, and the pressing component is located above the ultra-thin flexible glass to be processed. Driven by the lifting control component, the pressing component can move up and down relative to the device base, that is, the pressing component can approach or move away from the ultra-thin flexible glass to be processed. The pressing component is made of flexible material and has a certain flexibility, which can not only apply force but also apply force gently and flexibly to protect the glass. By controlling the lifting control component to drive the pressing component to move downward and apply force to the multi-layer stacked ultra-thin flexible glass to be processed, and the lifting control component can also control the contact area and pressure between the pressing component and the glass. As the pressing component moves downward, the contact area between the lower end of the pressing component and the glass gradually increases, and the air between the glass composite layers of the glass will be slowly squeezed to the periphery, so as to ensure that there are no bubbles inside the glass after rolling. Moreover, since the pressing component first contacts the central position of the multi-layer stacked ultra-thin flexible glass to be processed and spreads from the central position to the periphery, the glass will not be subjected to horizontal forces and will not generate relative slip, so there will be no situation of relative deviation of the glass during rolling in the existing process. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The following briefly describes the content expressed in each drawing of this specification and the marks in the drawings:

[0018] Figure 1 It is a schematic structural diagram of the ultra-thin flexible glass processing device described in the present utility model;

[0019] The marks in the drawings are respectively: 1. Device body; 2. Pressing component; 3. Lifting control component; 4. Ultra-thin flexible glass; 5. Resin glue layer; 6. Device base; 7. Pressing center. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0020] The following further details the specific embodiments of the present utility model, such as the shapes, structures, mutual positions and connection relationships of the various components involved, the functions of the various parts and the working principles, etc., by describing the embodiments with reference to the drawings:

[0021] As shown in the attached Figure 1As shown in the figure, the utility model is a processing device for ultra-thin flexible glass. The ultra-thin flexible glass 4 includes multiple glass composite layers. The processing device for ultra-thin flexible glass includes a device body 1. A flexible pressing component 2 protruding downward is arranged at the lower part of the device body 1. The pressing component 2 is in a hemispherical or trapezoidal structure. The upper part of the pressing component 2 is connected to a lifting control component 3. The above structure proposes an improved technical solution for the deficiencies in the prior art. The working principle of the device is that the multi-layer stacked ultra-thin flexible glass 4 to be pressed is placed on the device base, and the pressing component 2 is located above the ultra-thin flexible glass 4 to be processed. The pressing component 2 can move up and down relative to the device base under the drive of the lifting control component 3, that is, the pressing component 2 can approach or move away from the ultra-thin flexible glass 4 to be processed. The pressing component 2 is made of a flexible material and has a certain flexibility, which can not only apply force but also apply force gently and flexibly to protect the glass. By controlling the lifting control component 3 to drive the pressing component to move downward and apply force to the multi-layer stacked ultra-thin flexible glass 4 to be processed, and the lifting control component 3 can also control the contact area and pressure between the pressing component and the glass. As the pressing component moves downward, the contact area between the lower end of the pressing component and the glass gradually increases, and the air between the glass composite layers of the glass will be slowly squeezed to the periphery, so as to ensure that there are no bubbles inside the glass after rolling. Moreover, since the pressing component first contacts the central position of the multi-layer stacked ultra-thin flexible glass 4 to be processed and spreads from the central position to the periphery, the glass will not be subjected to horizontal forces and will not produce relative slip itself, so there will be no situation of relative deviation of the glass during rolling in the existing process. The processing device for ultra-thin flexible glass described in the utility model has a simple structure. By the way of vertical pressing, it can avoid the phenomenon that the glass is offset due to the action of parallel forces, and at the same time is beneficial to removing the bubbles between the glass composite layers, effectively ensuring the effect after rolling forming and improving the glass processing quality.

[0022] The pressing component 2 is a structure made of sponge material or rubber material. In the above structure, the pressing component 2 is made of a flexible material and has a certain flexibility, which can not only apply force, but also realize gentle and flexible force application and increase the contact area as the pressing component slowly moves downward, and at the same time protect the glass.

[0023] The lifting control component 3 includes a robotic arm and a control motor. The lower end of the robotic arm is connected to the pressing component 2, and the upper end of the robotic arm is connected to the rotating shaft of the control motor. In the above structure, as Embodiment 1 of the lifting control component 3, the lifting control component 3 includes a robotic arm and a control motor. When the control motor rotates, it drives the robotic arm to swing, thereby driving the pressing component to rise or fall.

[0024] The lifting control component 3 is a telescopic cylinder or a telescopic oil cylinder. The lower end of the lifting control component 3 is connected to the pressing component 2, and the upper end of the lifting control component 3 is connected to the mounting beam. In the above structure, as Embodiment 2 of the lifting control component 3, the lifting control component 3 is a telescopic cylinder or a telescopic oil cylinder. When controlling the telescopic cylinder or the telescopic oil cylinder to expand and contract, it drives the pressing component to rise or fall.

[0025] The ultra-thin flexible glass to be processed includes multiple layers arranged in an upper and lower stacked manner, and a resin glue layer 5 is provided between adjacent ultra-thin flexible glasses. When multiple layers of glass are stacked and processed, the resin glue layer 5 is arranged between adjacent glasses to play an isolation role. After processing, the glasses are separated and the resin glue layer 5 is removed.

[0026] The ultra-thin flexible glass processing device further includes a device base 6, and the ultra-thin flexible glass to be processed is arranged on the device base 6. In the above structure, the device base is used to carry the glass.

[0027] The control motor is connected to the device base 6 through a connecting bracket. In the above structure, the control motor is fixedly connected to the device base, and when the control motor rotates, it drives the pressing component to lift and lower.

[0028] The mounting beam is connected to the device base 6 through a connecting bracket. In the above structure, the mounting beam is fixedly connected to the device base, and the expansion and contraction of the telescopic cylinder or the telescopic oil cylinder drives the pressing component to lift and lower.

[0029] The pressing center 7 at the lower part of the pressing component 2 is set to be a structure that aligns with the center position of the device base 6. In the above structure, due to the state setting of the pressing component 2 and the device base, when the pressing component presses down, it first contacts the center position of the ultra-thin flexible glass 4 to be processed, and spreads from the center position to the surroundings. The glass will not be subjected to a horizontal force, and the glass itself will not generate relative slip, so there will be no situation where the glass is relatively offset during rolling in the existing process.

[0030] For the ultra-thin flexible glass processing device described in the present utility model, the working principle of the entire device is as follows: The multi-layer stacked ultra-thin flexible glass 4 to be pressed is placed on the device base, and the pressing component 2 is arranged to be located above the ultra-thin flexible glass 4 to be processed during the structural design. The pressing component 2 can move up and down relative to the device base driven by the lifting control component 3, that is, the pressing component 2 can approach or move away from the ultra-thin flexible glass 4 to be processed. The pressing component 2 is made of a flexible material and has a certain flexibility, which can not only apply force but also apply force gently and flexibly to protect the glass. By controlling the lifting control component 3 to drive the pressing component to move downward and apply force to the multi-layer stacked ultra-thin flexible glass 4 to be processed, and the lifting control component 3 can also control the contact area and pressure between the pressing component and the glass. As the pressing component moves downward, the contact area between the lower end of the pressing component and the glass gradually increases, and the air between the glass composite layers of the glass will be slowly squeezed to the periphery, so as to ensure that there are no bubbles inside the glass after rolling. Moreover, since the pressing component first contacts the central position of the multi-layer stacked ultra-thin flexible glass 4 to be processed and spreads from the central position to the periphery, the glass will not be subjected to horizontal forces and the glass itself will not produce relative slip, so there will be no situation of relative displacement of the glass during rolling in the existing process.

[0031] The present utility model has been described exemplarily in conjunction with the accompanying drawings. Obviously, the specific implementation of the present utility model is not limited by the above methods. As long as various improvements are made by adopting the method concept and technical solution of the present utility model, or the concept and technical solution of the present utility model are directly applied to other occasions without improvement, they are all within the protection scope of the present utility model.

Claims

1. An ultra-thin flexible glass processing device, characterized in that: The ultra-thin flexible glass (4) comprises a multi-layer glass combination layer, and the ultra-thin flexible glass processing device comprises a device body (1), a flexible pressing component (2) protruding downward is arranged at the lower part of the device body (1), the pressing component (2) is a hemispherical or trapezoidal structure, and the upper part of the pressing component (2) is connected to the lifting control component (3).

2. The ultra-thin flexible glass processing device according to claim 1, characterized in that: The pressing component (2) is a structure made of sponge material or rubber material.

3. The ultra-thin flexible glass processing device according to claim 1 or 2, characterized in that: The lifting control component (3) comprises a mechanical arm and a control motor, the lower end of the mechanical arm is connected to the pressing component (2), and the upper end of the mechanical arm is connected to the rotating shaft of the control motor.

4. The ultra-thin flexible glass processing device according to claim 1 or 2, characterized in that: The lifting control component (3) is a telescopic air cylinder or a telescopic oil cylinder; the lower end of the lifting control component (3) is connected to the pressing component (2); and the upper end of the lifting control component (3) is connected to the mounting beam.

5. The ultra-thin flexible glass processing device according to claim 1 or 2, characterized in that: The ultra-thin flexible glass to be processed comprises multiple layers stacked up and down, and a resin adhesive layer (5) is arranged between adjacent ultra-thin flexible glasses.

6. The ultra-thin flexible glass processing device according to claim 1 or 2, characterized in that: The ultra-thin flexible glass processing device further comprises a device base (6), and the ultra-thin flexible glass to be processed is arranged on the device base (6).

7. The ultra-thin flexible glass processing device according to claim 3, characterized in that: The control motor is connected to the device base (6) via a connecting bracket.

8. The ultra-thin flexible glass processing device according to claim 4, characterized in that: The mounting beam is connected to the device base (6) via a connecting bracket.

9. The ultra-thin flexible glass processing device according to claim 6, characterized in that: The pressing center (7) at the bottom of the pressing component (2) is arranged to be aligned with the center position of the device base (6).

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