Glass flatness detection device

Abstract

The utility model discloses a glass flatness detection device, and relates to the technical field of glass detection. Wherein the device table board comprises a detection area; the detection frame body comprises a supporting stand column and a sliding rail, the sliding rail is arranged on the supporting stand column, and the detection frame body is arranged on one side of the detection area; the detection assembly comprises a transverse moving part, a first detection part and a second detection part, the transverse moving part is in sliding connection with the sliding rail, the first detection part is arranged on the lower portion of the transverse moving part, and the second detection part is arranged at one end of the transverse moving part; the light blocking piece is arranged on one side of the detection area. The light blocking piece is arranged on one side of the detection area, so that external light is effectively prevented from directly irradiating the detection area, the phenomena of specular reflection and local overexposure or shadow shielding are reduced, and the imaging stability and the detection precision are improved. By optimizing the layout and the moving mode of the detection assembly, the detection piece can more accurately capture the information of the glass edge.

Description

TECHNICAL FIELD

[0001] The utility model relates to glass detection technical field especially relates to a glass flatness detection device. BACKGROUND

[0002] In the field of mobile phone cover glass production, flatness detection is a key link to ensure product quality. The existing technology mainly uses a detection device based on machine vision to analyze the glass surface morphology through optical imaging. However, the unique high reflectivity and light transmission of glass material significantly affect the detection accuracy: environmental light fluctuations are easy to form mirror interference on the glass surface, resulting in local overexposure or shadow blocking in the image; optical distortion caused by uneven stress in the glass will cause the edge detection algorithm to fail; traditional diffuse reflection illumination scheme is difficult to meet the detection needs of products of different thickness specifications. SUMMARY

[0003] To solve the above at least one technical problem, the utility model provides a kind of glass flatness detection device.

[0004] To achieve the above purpose, the embodiment of the present application adopts the following technical scheme:

[0005] The utility model provides a kind of glass flatness detection device, comprising:

[0006] Device table, the device table includes detection area;

[0007] Detection frame body, the detection frame body includes support column and slide rail, the slide rail is located on the support column, and the detection frame body is located at one side of the detection area;

[0008] Detection assembly, the detection assembly includes horizontal moving piece, first detection piece and second detection piece, the horizontal moving piece is slidably connected with the slide rail, the first detection piece is located in the lower part of the horizontal moving piece, and the second detection piece is located at one end of the horizontal moving piece;

[0009] Light blocking piece, the light blocking piece is located at one side of the detection area.

[0010] In a possible implementation manner of the present application, the device table further includes an opening.

[0011] In a possible implementation manner of the present application, the light blocking piece is vertically arranged with the detection area.

[0012] In a possible implementation manner of the present application, the detection frame body includes two support columns, and the slide rail is at least partially arranged between the two support columns.

[0013] In a possible implementation manner of the present application, the extension direction of the sliding rail is parallel to the detection area.

[0014] In a possible implementation manner of the present application, the first detection member is a visual detector.

[0015] In a possible implementation manner of the present application, a third detection member is further arranged at one end of the sliding rail.

[0016] In a possible implementation manner of the present application, the width of the light blocking member is greater than the width of the detection area.

[0017] In a possible implementation manner of the present application, a table height adjusting member is further arranged at least at three corners of the device table.

[0018] Compared with the prior art, the glass flatness detection device provided by the present application effectively blocks the external light from directly irradiating the detection area by arranging a light blocking member on one side of the detection area, reduces the phenomena of mirror reflection and local overexposure or shadow blocking, and thus improves the stability and detection accuracy of imaging. By optimizing the layout and movement mode of the detection assembly, the detection member can more accurately capture the information of the glass edge. At the same time, reducing the interference of external light and mirror reflection also helps to improve the clarity of edge detection, thereby enhancing the reliability of the edge detection algorithm. The sliding connection structure of the transverse moving member and the sliding rail increases the detectable range of the detection member. This makes the detection assembly move along the sliding rail to detect different areas of the glass surface. This not only improves the flexibility of detection, but also greatly shortens the detection time and improves the detection efficiency. BRIEF DESCRIPTION OF DRAWINGS

[0019] In order to more clearly illustrate the technical solutions in the embodiments of the present application, the drawings required to be used in the embodiments of the present application will be described below.

[0020] Figure 1 is a structural schematic view of a glass flatness detection device provided by the present application;

[0021] Figure 2 is a side view of a glass flatness detection device provided by the present application.

[0022] MARKED FOR EXPLANATION:

[0023] 10, device table; 110, detection area; 120, opening; 20, detection frame body; 210, stand column; 220, sliding rail; 30, detection assembly; 310, transverse moving member; 320, first detection member; 330, second detection member; 340, third detection member; 40, light blocking member; 50, table height adjusting member. DETAILED DESCRIPTION

[0024] In order to make the purpose, technical scheme and advantages of the utility model clearer and more apparent, the utility model will be further described in detail below in combination with the drawings and examples. It should be understood that the specific examples described herein are only used to explain the utility model and not to limit the utility model.

[0025] The terms "first", "second", and the like in the embodiments of the utility model are only used to distinguish related technical features, and do not represent the order. It should be understood that the data used in this way can be interchanged under appropriate circumstances, in order to enhance the reliability of the edge detection algorithm. The sliding connection structure of the transverse moving piece and the slide rail increases the detectable range of the detection piece. This makes the detection assembly can move along the slide rail, detect different areas of the glass surface. This not only improves the flexibility of detection, but also greatly shortens the detection time and improves the detection efficiency.

[0026] In this application, the terms "up", "down", "in", "middle", "out", "front", "back" and the like indicate the orientation or positional relationship shown in the drawings. These terms are mainly used to better describe the application and its embodiments, and are not used to limit the indicated devices, elements or components must have a specific orientation, or be constructed and operated in a specific orientation.

[0027] In addition, in addition to being used to indicate the orientation or positional relationship, the above-mentioned part of the term may also be used to indicate other meanings, for example, the term "up" may also be used to indicate a certain attachment relationship or connection relationship in some cases. For ordinary skilled persons in the art, the specific meaning of these terms in this application can be understood according to the specific situation.

[0028] The glass flatness detection device provided by the utility model effectively blocks the external light from directly shining on the detection area, reduces the phenomenon of mirror reflection and local overexposure or shadow blocking, thereby improving the stability and detection accuracy of imaging. By optimizing the layout and movement mode of the detection assembly, the detection piece can more accurately capture the information of the glass edge. At the same time, reducing the interference of external light and mirror reflection also helps to improve the clarity of edge detection, thereby enhancing the reliability of the edge detection algorithm. The sliding connection structure of the transverse moving piece and the slide rail increases the detectable range of the detection piece. This makes the detection assembly can move along the slide rail, detect different areas of the glass surface. This not only improves the flexibility of detection, but also greatly shortens the detection time and improves the detection efficiency. EMBODIMENT

[0029] The utility model discloses a glass flatness detection device, such as Figure 1 And Figure 2 As shown, including device mesa 10, device mesa 10 includes detection area 110;Detection frame body 20, detection frame body 20 includes support column 210 and slide rail 220, and slide rail 220 is located on support column 210, and detection frame body 20 is located at one side of detection area 110;Detection assembly 30, detection assembly 30 includes horizontal shift piece 310, first detection piece 320 and second detection piece 330, and horizontal shift piece 310 is slidably connected with slide rail 220, and first detection piece 320 is located at the lower part of horizontal shift piece 310, and second detection piece 330 is located at one end of horizontal shift piece 310;Light blocking piece 40, light blocking piece 40 is located at one side of detection area 110.

[0030] In this way, by locating light blocking piece 40 at one side of detection area 110, the influence of external light on detection area 110 can be reduced, first detection piece 320 and second detection piece 330 are located on horizontal shift piece 310, and horizontal shift piece 310 is slidably connected with slide rail 220, and the detectable range of the detection piece is increased by means of slide rail 220.

[0031] In at least one of the possible embodiments, the device mesa 10 further comprises an opening 120, which can be used to clean the glass products that do not meet the requirements. In the process of glass flatness detection, it is inevitable to encounter some products that do not meet the quality requirements. The traditional detection device may need to remove these unqualified products through complex operation or additional tools. However, the opening 120 provided in the embodiment allows the operator to quickly and conveniently clean the glass products that do not meet the requirements through the opening 120, thereby improving the work efficiency. The unqualified products are cleaned in time, which can avoid their accumulation in the detection area 110 and affect the detection of subsequent products. The design of the opening 120 makes the production process more coherent and smooth, thereby improving the overall production efficiency.

[0032] In at least one of the possible embodiments, the light blocking piece 40 is vertically arranged with the detection area 110. The vertical arrangement of the light blocking piece 40 with the detection area 110 can form a direct barrier to effectively block the external light from the side of the detection area 110. This vertical structure ensures that the light cannot be obliquely incident into the detection area 110, thereby reducing the interference of specular reflection and scattered light on the detection imaging, and improving the accuracy and stability of the detection.

[0033] In at least one of the possible embodiments, the detection frame 20 comprises two support columns 210, and the slide rail 220 is arranged at least partially between the two support columns 210. More specifically, the extension direction of the slide rail 220 is arranged parallel to the detection area 110. The design of the two support columns 210 provides a more stable support structure, ensuring the overall stability of the detection frame 20. This double-column 210 structure can withstand greater loads, adapting to detection assemblies 30 of different weights and sizes, ensuring the reliability and accuracy of the detection process.

[0034] In at least one of the possible embodiments, the first detection member 320 is a visual detector. More specifically, the first detection member 320 comprises multiple camera modules. The inclusion of multiple camera modules in the first detection member 320 means that the glass surface can be imaged simultaneously from multiple angles or positions. This multi-angle imaging approach can more comprehensively capture information about the glass surface, improving the accuracy and reliability of the detection. The multiple camera modules also enable a redundant design, so that even if one or several modules fail, the others can still continue to work, ensuring the continuity and stability of the detection process. By adjusting the positions, angles, and focal lengths of different camera modules, the detection needs of glass products of different sizes, shapes, and specifications can be met. This flexibility allows the same detection system to be applied to multiple production scenarios, reducing the cost and complexity of the equipment. Multiple camera modules can work simultaneously and process image data in parallel, greatly improving the efficiency of detection. This parallel processing approach can shorten the detection time and meet the needs of high-speed production lines.

[0035] In at least one of the possible embodiments, the detection assembly 30 further comprises a third detection member 340 arranged at one end of the slide rail 220. The third detection member 340 can be used to detect the levelness of other detection members or / and the traversing member 310. In the process of detecting the flatness of glass, it is crucial to ensure the levelness of other detection members (such as visual detectors) and the traversing member 310 (a component for moving detection members). Deviation in levelness can lead to errors in detection results, affecting product quality control. By introducing the third detection member 340, the levelness of other detection members and the traversing member 310 can be monitored and adjusted in real time, thereby reducing detection errors caused by levelness deviation. This helps to improve the precision and reliability of detection, ensuring the stability of product quality.

[0036] In at least one of the possible embodiments, the width of the light-blocking piece 40 is greater than the width of the detection area 110. The width of the light-blocking piece 40 being greater than the width of the detection area 110 means that it can more comprehensively block external light from the side of the detection area 110. This ensures that light cannot be obliquely incident into the detection area 110 from the edges of the light-blocking piece 40, effectively reducing the interference of specular reflection and scattered light on the detection imaging. Since the light-blocking piece 40 can more comprehensively block external light, the light environment in the detection area 110 becomes more stable. This stability helps to improve the accuracy and reliability of the detection, because fluctuations in external light no longer have a significant impact on the detection results. If the width of the light-blocking piece 40 is the same as or slightly smaller than the width of the detection area 110, it may be necessary to frequently adjust the position or angle of the light-blocking piece 40 in actual application to adapt to different detection needs. The light-blocking piece 40 with a greater width reduces the need for such adjustments, improving work efficiency.

[0037] In at least one of the possible embodiments, the glass flatness detection device provided by the embodiment of the present application further comprises a table height adjusting piece 50, which is arranged at least at three corners of the device table 10. The device table 10 can be ensured to be horizontal by adjusting the table height adjusting piece 50. The main function of the table height adjusting piece 50 is to adjust the height of the device table 10, and through precise adjustment, it can be ensured that the table remains horizontal in any use environment. By adjusting the table height adjusting piece 50, it can be ensured that the device table 10 forms good contact and support with the ground, thereby enhancing the stability of the equipment.

[0038] Compared with the prior art, the glass flatness detection device provided by the embodiment of the present application effectively blocks external light from directly irradiating the detection area 110 by arranging a light-blocking piece 40 on one side of the detection area 110, reduces the phenomenon of specular reflection and local overexposure or shadow blocking, and thereby improves the stability and detection precision of imaging. By optimizing the layout and movement mode of the detection assembly 30, the detection piece can more accurately capture information of the glass edge. At the same time, reducing external light interference and specular reflection also helps to improve the clarity of edge detection, thereby enhancing the reliability of the edge detection algorithm. The sliding connection structure of the transverse moving piece 310 and the slide rail 220 increases the detectable range of the detection piece. This enables the detection assembly 30 to move along the slide rail 220 to detect different areas of the glass surface. This not only improves the flexibility of detection, but also greatly shortens the detection time and improves the detection efficiency.

[0039] The above merely is preferable specific implementation manner of the utility model, but the protection scope of the utility model is not limited to this, any skilled person in the technical field can easily think of the change or replacement in the utility model disclosed technology range, and all should be covered in the protection scope of the utility model.

Claims

1. A glass flatness detection device, characterized by, The device table top (10) comprises a detection area (110). The detection frame body (20) comprises a support column (210) and a sliding rail (220), the sliding rail (220) is arranged on the support column (210), and the detection frame body (20) is arranged on one side of the detection area (110). The detection assembly (30) comprises a horizontal moving piece (310), a first detection piece (320) and a second detection piece (330), the horizontal moving piece (310) is in sliding connection with the sliding rail (220), the first detection piece (320) is arranged on the lower part of the horizontal moving piece (310), and the second detection piece (330) is arranged on one end of the horizontal moving piece (310). The light blocking piece (40) is arranged on one side of the detection area (110). The device table top (10) further comprises an opening (120).

2. The glass flatness detection apparatus of claim 1, wherein The light blocking piece (40) is arranged vertically to the detection area (110).

3. The glass flatness detection apparatus according to claim 1 or 2, characterized by The detection frame body (20) comprises two support columns (210), and the sliding rail (220) is at least partially arranged between the two support columns (210).

4. The glass flatness detection apparatus of claim 1, wherein The extension direction of the sliding rail (220) is arranged in parallel to the detection area (110).

5. The glass flatness detection apparatus according to claim 1 or 4, characterized by The first detection piece (320) is a visual detector.

6. The glass flatness detection apparatus of claim 1, wherein Further comprising a third detection piece (340), which is arranged on one end of the sliding rail (220).

7. The glass flatness detection apparatus of claim 1, wherein The width of the light blocking piece (40) is greater than the width of the detection area (110).

8. The glass flatness detection apparatus of claim 1, wherein, Further comprising a table top height adjusting piece (50), which is arranged at least on three corners of the device table top (10).

9. The glass flatness detection apparatus of claim 1, wherein, ​

Images