Strength detection device and method for high-strength impact-resistant glass processing

Abstract

The invention discloses a strength detection device and method for high-strength impact-resistant glass processing, and relates to the technical field of glass strength detection.The strength detection device comprises a device body, a mounting frame and a collection box, a hydraulic pump is mounted at the upper end of the device body, a hydraulic column is mounted at the output end of the hydraulic pump, and a pressing plate is mounted on the outer wall of the hydraulic column and provided with a pressing plate; an L-shaped plate is movably installed in the device body, an impact ball is installed at the bottom end of a hydraulic column, a detection probe is arranged in the device body, two sets of limiting shafts are symmetrically installed on the inner wall of the device body, and limiting plates are installed on the outer walls of the two sets of limiting shafts. According to the glass strength detection device, the impact balls, the L-shaped plates and the limiting plates are arranged, the impact balls move downwards to carry out strength detection operation on glass, if cracks are generated on the surfaces of one group of glass or the impact ends of the glass are broken, the two groups of limiting plates are turned over, so that the broken glass falls into the collecting box, and the glass detection efficiency is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of glass strength detection, and specifically provides a strength detection device and method for processing high-strength impact-resistant glass. Background Art

[0002] High-strength impact-resistant glass is a kind of glass material with excellent impact performance, which can withstand strong external force impacts and is not easily broken. Common high-strength impact-resistant glasses include tempered glass and laminated glass. Tempered glass is strengthened by heating and rapid cooling, and has high impact resistance and bending resistance. Laminated glass, on the other hand, sandwiches plastic films between two or more pieces of glass, making it not easy to fall off after the glass breaks, thus enhancing the impact resistance. This kind of glass is commonly used in occasions such as automobile windshields, building windows, mobile phone screens, and aircraft windows that require high strength and high impact resistance.

[0003] The processing process of high-strength impact-resistant glass includes multiple steps. High-strength impact-resistant glass usually needs to be cut into the required size during the production process. After the glass is cut, the edges may be relatively sharp. To avoid injury, the glass usually needs to be edge-ground. For common high-strength impact-resistant glasses, such as tempered glass, the tempering process is a very crucial step. For high-strength impact-resistant glass with certain specific requirements, coating treatments can also be carried out, such as anti-ultraviolet film, anti-reflection film, etc. During the processing process, strict quality inspections are carried out at each link to ensure that the strength, impact resistance, transparency, etc. of the glass meet the standards.

[0004] In the prior art, during the glass production and processing process, workers will conduct sampling inspections on each batch of glass. When performing strength detection operations on the glass, most will conduct impact operations on the glass through a pendulum or a steel ball. When the glass breaks after detection, the glass fragments are easy to spatter. Therefore, a protective plate is mostly provided at the outer end of the area where the glass is subjected to impact operations to block the spattered glass fragments and prevent the glass fragments from splashing out and injuring the workers. And some glass fragments will remain on the glass placement plate. To avoid the remaining fragments affecting the next group of glass for detection operations, the workers need to open the protective plate and clean the glass support plate with a brush. The cleaning of the glass fragments is relatively cumbersome, and the glass placement plate cannot be quickly cleaned, thus reducing the glass strength detection efficiency. Summary of the Invention

[0005] Based on this, the purpose of the present invention is to provide a strength detection device for processing high-strength impact-resistant glass to solve the technical problems in the above background art.

[0006] To achieve the above object, the present invention provides the following technical solution: A strength detection device for processing high-strength impact-resistant glass, comprising a device main body, a mounting frame, and a collection box. The mounting frames are installed at both ends of the device main body, and the collection box is installed at the bottom end of the device main body; A hydraulic pump is installed at the upper end of the device main body. The output end of the hydraulic pump is installed with a hydraulic column. A pressing plate is installed on the outer wall of the hydraulic column. An L-shaped plate is movably installed inside the device main body, and the L-shaped plate is movably connected to the pressing plate. An impact ball is installed at the bottom end of the hydraulic column. A detection probe is provided inside the device main body. Two groups of limiting shafts are symmetrically installed on the inner wall of the device main body, and both groups of limiting shafts are movably connected to the L-shaped plate. Limiting plates are installed on the outer walls of both groups of limiting shafts; A driving motor is installed on the outer wall of one side of one group of mounting frames. Transmission shafts are symmetrically installed inside the two groups of mounting frames, and synchronous belts are respectively provided between the multiple groups of transmission shafts. One end of one group of transmission shafts is connected to the output end of the driving motor, and conveyor belts are sleeved on the outer walls of the multiple groups of transmission shafts.

[0007] By adopting the above technical solution, the impact ball moves downward to perform strength detection on the glass. If cracks appear on the surface of a group of glass or the impact end of the glass is broken, the hydraulic pump pushes the hydraulic column to continuously move downward, causing the pressing plate to push the L-shaped plate downward, thereby driving the two groups of limiting shafts to rotate, and further driving the two groups of limiting plates to flip, so that the damaged glass falls into the collection box, avoiding the need for staff to clean the glass detection area with a brush, reducing the workload of the staff, and improving the glass detection efficiency.

[0008] The present invention is further configured such that a toothed plate is installed on the outer wall of the hydraulic column. A first transmission shaft is movably installed inside the device main body. A first transmission gear is provided at the central end of the first transmission shaft, and the first transmission gear is meshed with the toothed plate. First transmission bevel gears are installed at both ends of the first transmission shaft.

[0009] Preferably, the hydraulic column moves downward, thereby driving the toothed plate to move downward, and the toothed plate is meshed with the first transmission gear. The first transmission gear rotates, thereby driving the first transmission shaft to rotate, and further driving the two groups of first transmission bevel gears to rotate.

[0010] The present invention is further configured such that multiple groups of linkage cylinders are symmetrically installed inside the device main body, and synchronous belts are respectively provided between the multiple groups of linkage cylinders. Linkage bevel gears are installed at the upper ends of two of the linkage cylinders, and the two groups of linkage bevel gears are respectively meshed with the two groups of first transmission bevel gears. Telescopic columns are movably installed inside the multiple groups of linkage cylinders, and the inner walls of the multiple groups of linkage cylinders are respectively threadedly connected to the outer walls of the multiple groups of telescopic columns. Movable plates are symmetrically installed inside the device main body, and the two groups of movable plates are respectively connected to the multiple groups of telescopic columns.

[0011] Preferably, two groups of first driving bevel gears rotate. The two groups of first driving bevel gears are respectively meshed and connected with two groups of linkage bevel gears. The two groups of linkage bevel gears rotate, thereby driving two groups of linkage cylinders to rotate. Synchronous belts are respectively arranged between the multiple groups of linkage cylinders, so the multiple groups of linkage cylinders rotate synchronously. The inner walls of the multiple groups of linkage cylinders are respectively threadedly connected with the outer walls of multiple groups of telescopic columns, so the multiple groups of telescopic columns displace downward, thereby driving two movable plates to displace downward.

[0012] The present invention is further configured such that a convex block is installed on the outer wall of the L-shaped plate. A second transmission shaft is movably installed inside the device main body. A second transmission gear is provided at the central end of the second transmission shaft, and the second transmission gear is movably connected with the convex block. Second driving bevel gears are installed at both ends of the second transmission shaft.

[0013] Preferably, the hydraulic column continuously displaces downward, driving the pressing plate to displace downward. The pressing plate pushes the L-shaped plate to displace downward, thereby driving the convex block to displace downward. The convex block is meshed and connected with the second transmission gear, and the second transmission gear rotates, thereby driving the second transmission shaft to rotate, and further driving two groups of second driving bevel gears to rotate.

[0014] The present invention is further configured such that movable shafts are symmetrically installed inside the device main body. Movable bevel gears are installed at both ends of the two movable shafts. Two of the movable bevel gears are respectively meshed and connected with two groups of second driving bevel gears. Two linkage shafts are symmetrically installed inside the device main body, and synchronous belts are respectively arranged between the two linkage shafts and two limiting shafts. Linkage bevel gears are installed at one end of the two linkage shafts, and the two linkage bevel gears are respectively meshed and connected with the other two movable bevel gears.

[0015] Preferably, two groups of second driving bevel gears rotate. The two groups of second driving bevel gears are respectively meshed and connected with two groups of movable bevel gears. The two groups of movable bevel gears rotate, thereby driving the two movable shafts to rotate, and further driving the other two movable bevel gears to rotate. The other two movable bevel gears are respectively meshed and connected with two groups of linkage bevel gears, and the two groups of linkage bevel gears rotate, thereby driving the two linkage shafts to rotate.

[0016] The present invention is further configured such that torsion springs are provided at one end of the two limiting shafts. A movable column is movably installed inside the device main body, and one end of the movable column is connected with the L-shaped plate. A spring is installed at the upper end of the movable column, and the spring is connected with the inner wall of the device main body.

[0017] Preferably, after the hydraulic column is reset, the torsion springs at one end of the two limiting shafts drive the two limiting shafts to be reset. At the same time, the spring pulls the movable column to be reset, and further drives the L-shaped plate to be reset.

[0018] The present invention is further configured such that a plurality of linkage shafts are symmetrically installed inside the device main body, and synchronous belts are respectively provided between the plurality of linkage shafts. Synchronous belts are respectively provided between two of the linkage shafts and two transmission shafts. Push belts are sleeved on the outer walls of the plurality of linkage shafts, and two push plates are installed on the outer walls of the two push belts, and the plurality of push plates are arranged staggeredly.

[0019] Preferably, the plurality of transmission shafts rotate to drive the two conveyor belts to operate. Two of the transmission shafts are respectively connected to two of the linkage shafts through synchronous belts. The two linkage shafts rotate, and the plurality of linkage shafts are respectively connected through synchronous belts to drive the two push belts to operate, and further drive the plurality of push plates to displace.

[0020] The present invention is further configured such that a speed-changing gearbox is installed inside the device main body. An input shaft and an output shaft are respectively installed at the input end and the output end of the speed-changing gearbox. A synchronous belt is provided between the input shaft and one of the linkage shafts. A wind box is installed inside the device main body, and a fan is installed on the outer wall of one end of the output shaft extending into the wind box.

[0021] Preferably, the plurality of linkage shafts rotate. One of the linkage shafts is connected to the input shaft through a synchronous belt. The input shaft rotates, and the input shaft conducts kinetic energy into the speed-changing gearbox. The speed-changing gearbox increases the rotational speed and then drives the output shaft to rotate. The fan on the outer wall of one end of the output shaft extending into the wind box rotates, causing an air flow to be generated inside the wind box.

[0022] The present invention is further configured such that an air inlet pipe is installed at the air inlet of the wind box, and one end of the air inlet pipe extends to the outer wall of the device main body. An air outlet pipe is installed at the air outlet of the wind box. An air outlet plate is installed inside the device main body, and one end of the air outlet pipe is connected to the air outlet plate. The cross section of the air outlet plate is arc-shaped.

[0023] Preferably, an air flow is generated inside the wind box. The air flow enters the wind box through the air inlet pipe. The air flow inside the wind box is conducted to the air outlet plate through the air outlet pipe, and the air outlet plate discharges the air flow.

[0024] A strength detection device and method for high-strength impact-resistant glass processing includes the following steps: S: Glass conveying: The conveyor belt operates to drive the glass to displace, so that the glass moves to the upper ends of the two limit plates; S: Glass strength detection: The impact ball displaces downward, the impact ball performs strength detection on the glass, and the detection probe scans the detection end of the glass to obtain the state of the glass after being impacted; S: Conforming standard glass conveying: If the glass meets the standard, the two push plates push the glass to move to the upper end of another conveyor belt; S: Non-compliant glass collection: If the glass does not meet the standard, the two sets of limit plates are flipped, and the glass falls into the collection box; S: Impact ball cleaning: Airflow is generated inside the air box, and the air outlet plate discharges the airflow, which cleans the outer wall of the impact ball.

[0025] In summary, the present invention mainly has the following beneficial effects: 1. By providing an impact ball, an L-shaped plate, and limit plates, the present invention solves the problem of improving the efficiency of glass strength detection operations. The impact ball moves downward to perform glass strength detection operations. If cracks appear on the surface of a group of glass or the impact end of the glass is broken, the hydraulic pump pushes the hydraulic column to continuously move downward, causing the pressing plate to push the L-shaped plate downward, thereby driving the two limit shafts to rotate, and then driving the two limit plates to flip, so that the damaged glass falls into the collection box, avoiding the need for staff to clean the glass detection area with a brush, reducing the workload of the staff, and improving the glass detection efficiency.

[0026] 2. By providing a speed change gearbox, an air box, and an air outlet plate, multiple conveyor shafts rotate, driving two conveyor belts to operate. One conveyor belt drives a group of glass to move, and at the same time, one conveyor shaft drives the input shaft to rotate. The input shaft conducts kinetic energy into the speed change gearbox. The speed change gearbox increases the rotational speed and then drives the output shaft to rotate. The fan on the outer wall of the end of the output shaft extending into the air box rotates, generating airflow inside the air box. The airflow enters the air box through the air inlet pipe. The airflow inside the air box is conducted to the air outlet plate through the air outlet pipe, and the air outlet plate discharges the airflow, which cleans the outer wall of the impact ball, avoiding the influence of glass debris remaining on the outer wall of the impact ball on the next strength detection operation of the impact ball. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 Schematic diagram of the device main body and mounting frame in the present invention; Figure 2 Schematic diagram of the conveyor belt in the present invention; Figure 3 Schematic diagram of the collection box in the present invention; Figure 4 Schematic diagram of the internal structure of the device main body in the present invention; Figure 5 Schematic diagram of the push belt in the present invention; Figure 6 Schematic diagram of the hydraulic pump in the present invention; Figure 7 Schematic diagram of the movable plate in the present invention; Figure 8 Schematic diagram of the limit plate in the present invention; Figure 9Schematic diagram of the movable plate in the present invention; Figure 10 Schematic diagram of the air outlet plate in the present invention.

[0028] Explanation of reference numerals: 1. Device main body; 2. Mounting frame; 3. Driving motor; 4. Transmission shaft; 5. Conveyor belt; 6. Linking shaft; 7. Pushing belt; 8. Pushing plate; 9. Hydraulic pump; 10. Hydraulic column; 11. Toothed plate; 12. Pressing plate; 13. Impact ball; 14. First transmission shaft; 15. First transmission gear; 16. First transmission bevel gear; 17. Linking cylinder; 18. Linking bevel gear; 19. Telescopic column; 20. Movable plate; 21. Collection box; 22. L-shaped plate; 23. Bump; 24. Movable column; 25. Spring; 26. Second transmission shaft; 27. Second transmission gear; 28. Second transmission bevel gear; 29. Movable shaft; 30. Movable bevel gear; 31. Linking shaft; 32. Linking bevel gear; 33. Limit shaft; 34. Limit plate; 35. Input shaft; 36. Gearbox; 37. Output shaft; 38. Air box; 39. Air inlet pipe; 40. Air outlet pipe; 41. Air outlet plate. Detailed implementation manners

[0029] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. The embodiments described by referring to the accompanying drawings are exemplary and are only used to explain the present invention and should not be construed as a limitation to the present invention.

[0030] Next, the embodiments of the present invention will be described according to the overall structure of the present invention.

[0031] A strength detection device for high-strength and impact-resistant glass processing, please refer to Figure 1 - Figure 10 , including a device main body 1, a mounting frame 2 and a collection box 21. Mounting frames 2 are installed at both ends of the device main body 1, and a collection box 21 is installed at the bottom end of the device main body 1; A hydraulic pump 9 is installed at the upper end of the device main body 1. The output end of the hydraulic pump 9 is installed with a hydraulic column 10. A pressing plate 12 is installed on the outer wall of the hydraulic column 10. An L-shaped plate 22 is movably installed inside the device main body 1, and the L-shaped plate 22 is movably connected to the pressing plate 12. An impact ball 13 is installed at the bottom end of the hydraulic column 10. The impact ball 13 performs strength detection on the glass. A detection probe is provided inside the device main body 1. Two groups of limit shafts 33 are symmetrically installed on the inner wall of the device main body 1, and both groups of limit shafts 33 are movably connected to the L-shaped plate 22. Limit plates 34 are installed on the outer walls of the two groups of limit shafts 33. The L-shaped plate 22 drives the two groups of limit shafts 33 to rotate, thereby driving the two groups of limit plates 34 to flip; On the outer wall of one side of a set of mounting brackets, a driving motor 3 is installed. Inside the two sets of mounting brackets 2, transmission shafts 4 are symmetrically installed, and synchronous belts are respectively provided between multiple transmission shafts 4. One end of one transmission shaft 4 is connected to the output end of the driving motor 3, and a conveyor belt 5 is sleeved on the outer walls of multiple transmission shafts 4.

[0032] Please refer to Figure 4 - Figure 7 As shown in the figure, a toothed plate 11 is installed on the outer wall of the hydraulic column 10. A first transmission shaft 14 is movably installed inside the device main body 1. A first transmission gear 15 is provided at the central end of the first transmission shaft 14, and the first transmission gear 15 is meshed with the toothed plate 11. First transmission bevel gears 16 are installed at both ends of the first transmission shaft 14. When the hydraulic column 10 moves downward, the toothed plate 11 is driven to move downward, and the toothed plate 11 is meshed with the first transmission gear 15, causing the first transmission gear 15 to rotate, thereby driving the first transmission shaft 14 to rotate, and further driving the two first transmission bevel gears 16 to rotate.

[0033] Please refer to Figure 4 - Figure 7 As shown in the figure, multiple linkage cylinders 17 are symmetrically installed inside the device main body 1, and synchronous belts are respectively provided between multiple linkage cylinders 17. Linkage bevel gears 18 are installed at the upper ends of two of the linkage cylinders 17, and the two linkage bevel gears 18 are respectively meshed with the two first transmission bevel gears 16. Telescopic columns 19 are movably installed on the inner walls of multiple linkage cylinders 17, and the inner walls of multiple linkage cylinders 17 are respectively threadedly connected to the outer walls of multiple telescopic columns 19. Movable plates 20 are symmetrically installed inside the device main body 1, and the two movable plates 20 are respectively connected to multiple telescopic columns 19. When the two first transmission bevel gears 16 rotate, the two first transmission bevel gears 16 are respectively meshed with the two linkage bevel gears 18, causing the two linkage bevel gears 18 to rotate, thereby driving the two linkage cylinders 17 to rotate. Synchronous belts are respectively provided between multiple linkage cylinders 17, so multiple linkage cylinders 17 rotate synchronously. The inner walls of multiple linkage cylinders 17 are respectively threadedly connected to the outer walls of multiple telescopic columns 19, so multiple telescopic columns 19 move downward, thereby driving the two movable plates 20 to move downward.

[0034] Please refer to Figure 4 - Figure 9, a bump 23 is installed on the outer wall of the L-shaped plate 22. A second transmission shaft 26 is movably installed inside the device main body 1. A second transmission gear 27 is provided at the central end of the second transmission shaft 26, and the second transmission gear 27 is movably connected to the bump 23. Second transmission bevel gears 28 are installed at both ends of the second transmission shaft 26. The hydraulic column 10 continuously moves downward, driving the pressing plate 10 to move downward. The pressing plate 10 pushes the L-shaped plate 22 to move downward, thereby driving the bump 23 to move downward. The bump 23 is meshed and connected with the second transmission gear 27. The second transmission gear 27 rotates, thereby driving the second transmission shaft 26 to rotate, and further driving the two second transmission bevel gears 28 to rotate.

[0035] Please refer to Figure 4 - Figure 8 , two movable shafts 29 are symmetrically installed inside the device main body 1. Movable bevel gears 30 are installed at both ends of the two movable shafts 29. Two of the movable bevel gears 30 are respectively meshed and connected with the two second transmission bevel gears 28. Two linkage shafts 31 are symmetrically installed inside the device main body 1. Synchronous belts are provided between the two linkage shafts 31 and the two limiting shafts 33 respectively. Linkage bevel gears 32 are installed at one end of the two linkage shafts 31. The two linkage bevel gears 32 are respectively meshed and connected with the other two movable bevel gears 30. The two second transmission bevel gears 28 rotate. The two second transmission bevel gears 28 are respectively meshed and connected with the two movable bevel gears 30. The two movable bevel gears 30 rotate, thereby driving the two movable shafts 29 to rotate, and further driving the other two movable bevel gears 30 to rotate. The other two movable bevel gears 30 are respectively meshed and connected with the two linkage bevel gears 32. The two linkage bevel gears 32 rotate, thereby driving the two linkage shafts 31 to rotate.

[0036] Please refer to Figure 4 - Figure 9 , torsion springs are provided at one end of the two limiting shafts 33. An activity column 24 is movably installed inside the device main body 1. One end of the activity column 24 is connected to the L-shaped plate 22. A spring 25 is installed at the upper end of the activity column 24, and the spring 25 is connected to the inner wall of the device main body 1. After the hydraulic column 10 is reset, the torsion springs at one end of the two limiting shafts 33 drive the two limiting shafts 33 to reset. At the same time, the spring 25 pulls the activity column 24 to reset, and further drives the L-shaped plate 22 to reset.

[0037] Please refer to Figure 4 - Figure 5, Inside the device main body 1, multiple groups of linkage shafts 6 are symmetrically installed, and synchronous belts are respectively provided between the multiple groups of linkage shafts 6. Synchronous belts are respectively provided between two of the linkage shafts 6 and two of the conveyor shafts 4. Push belts 7 are sleeved on the outer walls of the multiple groups of linkage shafts 6. Two groups of push plates 8 are installed on the outer walls of the two push belts 7, and the multiple groups of push plates 8 are arranged staggeredly. The multiple groups of conveyor shafts 4 rotate, thereby driving the two conveyor belts 5 to operate. Two of the conveyor shafts 4 and two of the linkage shafts 6 are connected by a synchronous belt. The two linkage shafts 6 rotate, and the multiple groups of linkage shafts 6 are respectively connected by a synchronous belt, thereby driving the two push belts 7 to operate, and further driving the multiple groups of push plates 8 to displace.

[0038] Please refer to Figure 4 - Figure 10 , A speed change gearbox 36 is installed inside the device main body 1. An input shaft 35 and an output shaft 37 are respectively installed at the input end and the output end of the speed change gearbox 36. A synchronous belt is provided between the input shaft 35 and one of the linkage shafts 6. An air box 38 is installed inside the device main body 1. A fan is installed on the outer wall of one end of the output shaft 37 extending into the air box 38. The multiple groups of linkage shafts 6 rotate. One of the linkage shafts 6 and the input shaft 35 are connected by a synchronous belt. The input shaft 35 rotates, and the input shaft 35 conducts kinetic energy into the speed change gearbox 36. The speed change gearbox 36 increases the rotational speed, and then drives the output shaft 37 to rotate. The fan on the outer wall of one end of the output shaft 37 extending into the air box 38 rotates, causing an air flow to be generated inside the air box 38.

[0039] Please refer to Figure 4 - Figure 10 , An air inlet pipe 39 is installed at the air inlet of the air box 38, and one end of the air inlet pipe 39 extends to the outer wall of the device main body 1. An air outlet pipe 40 is installed at the air outlet of the air box 38. An air outlet plate 41 is installed inside the device main body 1, and one end of the air outlet pipe 40 is connected to the air outlet plate 41. The cross-section of the air outlet plate 41 is arc-shaped. An air flow is generated inside the air box 38. The air flow enters the air box 38 through the air inlet pipe 39. The air flow inside the air box 38 is conducted to the air outlet plate 41 through the air outlet pipe 40, and the air outlet plate 41 discharges the air flow.

[0040] The working principle of the present invention is as follows: When a worker uses the device to perform a strength detection operation on glass, the worker places a piece of glass on the upper end of one of the conveyor belts 5, and then starts the drive motor 3 to drive one of the conveyor shafts 4 to rotate. The multiple groups of conveyor shafts 4 are respectively connected by a synchronous belt, and the multiple groups of conveyor shafts 4 rotate synchronously, thereby driving the two conveyor belts 5 to operate. One of the conveyor belts 5 drives a piece of glass to displace, so that a piece of glass moves to the upper ends of the two limit plates 34, and then the drive motor 3 is turned off; When a set of glass moves to the upper ends of the two sets of limit plates 34, the hydraulic pump 9 is started to push the hydraulic column 10 to move downward, thereby driving the toothed plate 11, the pressing plate 12 and the impact ball 13 to move downward. And the toothed plate 11 is meshed and connected with the first transmission gear 15, and the first transmission gear 15 rotates, thereby driving the first transmission shaft 14 to rotate, and further driving the two sets of first transmission bevel gears 16 to rotate. The two sets of first transmission bevel gears 16 are respectively meshed and connected with the two sets of linkage bevel gears 18, and the two sets of linkage bevel gears 18 rotate, thereby driving the two sets of linkage cylinders 17 to rotate. Synchronous belts are respectively arranged between the multiple sets of linkage cylinders 17, so the multiple sets of linkage cylinders 17 rotate synchronously. The inner walls of the multiple sets of linkage cylinders 17 are respectively threadedly connected with the outer walls of the multiple sets of telescopic columns 19, so the multiple sets of telescopic columns 19 move downward, thereby driving the two sets of movable plates 20 to move downward. The two sets of movable plates 20 are respectively matched with the two sets of limit plates 34 to limit and fix a set of glass; After a set of glass is limited and fixed, the impact ball 13 continues to move downward, and the impact ball 13 impacts a set of glass. And the detection probe inside the device main body 1 detects the surface of the glass. If no crack appears on the glass surface, the hydraulic pump 9 drives the hydraulic column 10 to reset, thereby driving the two sets of movable plates 20 to reset; After the two sets of movable plates 20 are reset, the drive motor 3 is started to drive the multiple sets of transmission shafts 4 to rotate, thereby driving the two sets of conveyor belts 5 to operate. Among them, the two sets of transmission shafts 4 are respectively connected with the two sets of linkage shafts 6 through synchronous belts, and the two sets of linkage shafts 6 rotate. The multiple sets of linkage shafts 6 are respectively connected with each other through synchronous belts, thereby driving the two sets of push belts 7 to operate, and further driving the multiple sets of push plates 8 to move. Among them, the two sets of push plates 8 push a set of glass to move, so that a set of glass moves to the upper end of the other set of conveyor belt 5; If cracks appear on the surface of a set of glass or the impact end of the glass is broken, the hydraulic pump 9 pushes the hydraulic column 10 to continue to move downward, so that the pressing plate 10 pushes the L-shaped plate 22 to move downward, thereby driving the convex block 23 to move downward. The convex block 23 is meshed and connected with the second transmission gear 27, and the second transmission gear 27 rotates, thereby driving the second transmission shaft 26 to rotate, and further driving the two sets of second transmission bevel gears 28 to rotate. The two sets of second transmission bevel gears 28 are respectively meshed and connected with the two sets of movable bevel gears 30, and the two sets of movable bevel gears 30 rotate, thereby driving the two sets of movable shafts 29 to rotate; When the two groups of movable shafts 29 rotate, they drive the other two groups of movable bevel gears 30 to rotate. The other two groups of movable bevel gears 30 are respectively meshed and connected with the two groups of linkage bevel gears 32. The two groups of linkage bevel gears 32 rotate, thereby driving the two groups of linkage shafts 31 to rotate. The two groups of linkage shafts 31 are respectively connected to the two groups of limit shafts 33 through synchronous belts. The two groups of limit shafts 33 rotate, driving the two groups of limit plates 34 to flip, so that the damaged glass falls into the interior of the collection box 21, improving the glass strength detection efficiency. Then, the hydraulic pump 9 drives the hydraulic column 10 to reset; After the hydraulic column 10 resets, the torsion springs at one ends of the two groups of limit shafts 33 drive the two groups of limit shafts 33 to reset. At the same time, the spring 25 pulls the movable column 24 to reset, thereby driving the L-shaped plate 22 to reset; Then, the staff places another piece of glass on the upper end of one group of conveyor belts 5. The drive motor 3 starts, driving the multiple groups of conveyor shafts 4 to rotate, thereby driving the two groups of conveyor belts 5 to operate. At the same time, it drives the multiple groups of linkage shafts 6 to rotate. One group of linkage shafts 6 is connected to the input shaft 35 through a synchronous belt. The input shaft 35 rotates. The input shaft 35 conducts the kinetic energy into the internal gearbox 36. The gearbox 36 increases the rotational speed, and then drives the output shaft 37 to rotate. The fan on the outer wall of one end of the output shaft 37 extending into the air box 38 rotates, generating an air flow inside the air box 38. The air flow enters the air box 38 through the air inlet pipe 39. The air flow inside the air box 38 is conducted to the air outlet plate 41 through the air outlet pipe 40. The air outlet plate 41 discharges the air flow. The air flow cleans the outer wall of the impact ball 13, avoiding the influence of the glass debris remaining on the outer wall of the impact ball 13 on the next strength detection operation of the impact ball 13.

[0041] Although the embodiments of the present invention have been shown and described, the specific embodiments are only explanations of the present invention and not limitations thereof. The specific features, structures, materials or characteristics described can be combined in a suitable manner in any one or more embodiments or examples. After reading this specification, those skilled in the art can make modifications, substitutions, and variations without creative contributions to the embodiments as needed, but as long as they are within the scope of the claims of the present invention, they are protected by the patent law.

Claims

1. A strength detection device for high-strength impact-resistant glass processing, comprising a device body (1), a mounting frame (2) and a collection box (21), characterized in that: Both ends of the device body (1) are mounted with mounting frames (2), and the bottom end of the device body (1) is mounted with a collection box (21); A hydraulic pump (9) is installed at the upper end of the device body (1), a hydraulic column (10) is installed at the output end of the hydraulic pump (9), a pressure plate (12) is installed on the outer wall of the hydraulic column (10), an L-shaped plate (22) is movably installed inside the device body (1), and the L-shaped plate (22) is movably connected to the pressure plate (12), an impact ball (13) is installed at the bottom end of the hydraulic column (10), a detection probe is provided inside the device body (1), two groups of limit shafts (33) are symmetrically installed on the inner wall of the device body (1), and the two groups of limit shafts (33) are movably connected to the L-shaped plate (22), and the outer walls of the two groups of limit shafts (33) are installed with limit plates (34); A driving motor (3) is installed on the outer wall of one side of the mounting frame of one group, and transmission shafts (4) are symmetrically installed inside the two groups of mounting frames (2), and the multiple groups of transmission shafts (4) are respectively connected by synchronous belts, one end of the transmission shaft (4) of one group is connected to the output end of the driving motor (3), and the outer walls of the multiple groups of transmission shafts (4) are sleeved with a transmission belt (5).

2. A strength detection device for high-strength impact-resistant glass processing according to claim 1, characterized in that: A toothed plate (11) is installed on the outer wall of the hydraulic column (10), a first transmission shaft (14) is movably installed inside the device body (1), a first transmission gear (15) is provided at the center end of the first transmission shaft (14), and the first transmission gear (15) is meshingly connected with the toothed plate (11), and first transmission bevel gears (16) are installed at both ends of the first transmission shaft (14).

3. A strength detection device for high-strength impact-resistant glass processing according to claim 2, characterized in that: A plurality of linkage cylinders (17) are symmetrically mounted inside the device body (1), and the plurality of linkage cylinders (17) are respectively connected by synchronous belts, wherein linkage bevel gears (18) are mounted on the upper ends of two of the linkage cylinders (17), and the two linkage bevel gears (18) are respectively meshed and connected with the two first transmission bevel gears (16), telescopic columns (19) are movably mounted on the inner walls of the plurality of linkage cylinders (17), and the inner walls of the plurality of linkage cylinders (17) are respectively threadedly connected with the outer walls of the plurality of telescopic columns (19), and movable plates (20) are symmetrically mounted inside the device body (1), and the two movable plates (20) are respectively connected with the plurality of telescopic columns (19).

4. The strength detection device for high-strength impact-resistant glass processing according to claim 1, characterized in that: A protrusion (23) is installed on the outer wall of the L-shaped plate (22), a second transmission shaft (26) is movably installed inside the device body (1), a second transmission gear (27) is provided at the center end of the second transmission shaft (26), and the second transmission gear (27) is movably connected to the protrusion (23), and second transmission bevel gears (28) are installed at both ends of the second transmission shaft (26).

5. A strength detection device for high-strength impact-resistant glass processing according to claim 4, characterized in that: The device body (1) is symmetrically provided with movable shafts (29), and both ends of the two sets of movable shafts (29) are provided with movable bevel gears (30), wherein the two sets of movable bevel gears (30) are respectively meshed and connected with the two sets of second transmission bevel gears (28). The device body (1) is symmetrically provided with two sets of linkage shafts (31), and the two sets of linkage shafts (31) are respectively connected with the two sets of limit shafts (33) by synchronous belts, and one end of the two sets of linkage shafts (31) is provided with linkage bevel gears (32), and the two sets of linkage bevel gears (32) are respectively meshed and connected with the other two sets of movable bevel gears (30).

6. The strength detection device for high-strength impact-resistant glass processing according to claim 1, characterized in that: A torsion spring is provided at one end of the two groups of limit shafts (33); a movable column (24) is movably installed inside the device body (1), and one end of the movable column (24) is connected to the L-shaped plate (22); a spring (25) is installed at the upper end of the movable column (24), and the spring (25) is connected to the inner wall of the device body (1).

7. The strength detection device for high-strength impact-resistant glass processing according to claim 1, characterized in that: A plurality of linkage shafts (6) are symmetrically mounted inside the device body (1), and the plurality of linkage shafts (6) are connected by synchronous belts, wherein two of the linkage shafts (6) are connected to two transmission shafts (4) by synchronous belts, and the outer walls of the plurality of linkage shafts (6) are sleeved with push belts (7), and the outer walls of the two push belts (7) are mounted with two push plates (8), and the plurality of push plates (8) are staggered.

8. A strength detection device for high-strength impact-resistant glass processing according to claim 7, characterized in that: A speed change gear box (36) is installed inside the device body (1); an input shaft (35) and an output shaft (37) are installed at the input end and the output end of the speed change gear box (36) respectively; a synchronous belt is provided between the input shaft (35) and a set of linkage shafts (6) to connect; a bellows (38) is installed inside the device body (1); and a fan is installed on the outer wall of one end of the output shaft (37) extending into the bellows (38).

9. A strength detection device for high-strength impact-resistant glass processing according to claim 8, characterized in that: An air inlet pipe (39) is installed at the air inlet of the bellows (38), and one end of the air inlet pipe (39) extends to the outer wall of the device body (1); an air outlet pipe (40) is installed at the air outlet of the bellows (38); an air outlet plate (41) is installed inside the device body (1), and one end of the air outlet pipe (40) is connected to the air outlet plate (41); the cross section of the air outlet plate (41) is arranged in an arc shape.

10. A strength detection device and method for high-strength impact-resistant glass processing, characterized in that The process of using any one of claims 1 to 9 comprises the following steps: S1: glass conveying: the conveyor belt (5) operates to drive the glass to move, so that the glass moves to the upper ends of the two sets of limit plates (34); S2: Glass strength test: the impact ball (13) moves downward, the impact ball (13) performs strength test on the glass, and the detection probe scans the detection end of the glass to obtain the state of the glass after the impact; S3: Conveying glass that meets the standards: If the glass meets the standards, two sets of push plates (8) push the glass to the upper end of another set of conveyor belts (5); S4: Collection of glass that does not meet the standards: If the glass does not meet the standards, the two sets of limit plates (34) are turned over, and the glass falls into the collection box (21); S5: Cleaning the impact ball: An airflow is generated inside the bellows (38), and the air outlet plate (41) discharges the airflow, and the airflow cleans the outer wall of the impact ball (13).

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