A drilling device for glass processing

Abstract

The present invention relates to the technical field of glass production and processing, and provides a drilling device for glass processing, including: a transparent cylinder, one end of the transparent cylinder is provided with a transparent plate, and further includes: a fixed block, which is arranged and installed at one end of the transparent cylinder close to the transparent plate, and a sealing ring is arranged and installed at the end of the transparent cylinder far from the transparent plate; a drill bit, which is arranged inside the transparent cylinder, and a positioning ring is arranged at one end of the drill bit close to the sealing ring; in the present invention, when the air pump works, a part of the air in the transparent cylinder is pumped out, so that the external air pressure exerts pressure on the transparent cylinder and the sealing ring, and the sealing ring deforms, which is convenient for expanding the contact area with the glass. At the same time, the transparent cylinder and the sealing ring are adsorbed on the glass, which is beneficial to improving the stability between the transparent cylinder and the glass, providing a basis for the drilling work. The transparent plate is fixed on the top of the transparent cylinder, which is convenient for the staff's line of sight to pass through the transparent plate and the transparent cylinder, and is beneficial for the staff to observe the drilling process of glass processing.

Description

Technical Field

[0001] The present invention relates to the technical field of glass production and processing, and particularly to a drilling device for glass processing. Background Art

[0002] Glass, as a widely used amorphous inorganic non-metallic material, is mainly formed by rapidly cooling silica and other oxides such as sodium oxide and calcium oxide after high-temperature melting, without a fixed crystal structure. When processing glass, a drilling device is needed to drill holes in the glass.

[0003] In the prior art, such as Chinese Patent No.: CN112643895A, which discloses a drilling device for glass processing. When the hydraulic rod pushes the drill bit down to drill holes in the glass, through the set drilling limit assisting mechanism, the position of the glass can be limited and fixed before the drill bit contacts the glass, so that when the drill bit contacts the glass for drilling, the glass will not have the phenomenon of position deviation and shaking. And as the drill bit penetrates into the glass, the set limit strengthening ring and annular auxiliary rubber sheet will contact the glass, which has a very good strengthening effect on the position stability of the glass, improves the quality of the glass drilling work, and further improves the product quality. And through the set annular positioning groove, sleeve ring and arc-shaped positioning block, the position of the drilling limit assisting mechanism can be adjusted according to the actual drilling depth, and further, the drilling work can be carried out according to the actual production requirements, improving the production economic benefits of the glass drilling work.

[0004] Although the above solution has the above advantages, the disadvantage of the above solution is that: in the above solution, when drilling, the drill bit is located inside the drilling limit assisting mechanism, connecting ring and movable round tube, which is not conducive to the staff observing the drilling process of the drill bit on the glass. In addition, the drill bit is blocked, resulting in great difficulty in calibrating the position to be drilled on the glass by the drill bit, which is not conducive to improving the accuracy of glass processing and drilling. Therefore, there is an urgent need for a drilling device for glass processing to solve the above problems. Summary of the Invention

[0005] The purpose of the present invention is to solve the problems existing in the prior art that in the above solution, when drilling, the drill bit is located inside the drilling limit assisting mechanism, connecting ring and movable round tube, which is not conducive to the staff observing the drilling process of the drill bit on the glass. In addition, the drill bit is blocked, resulting in great difficulty in calibrating the position to be drilled on the glass by the drill bit, which is not conducive to improving the accuracy of glass processing and drilling.

[0006] To achieve the above purpose, the present invention adopts the following technical scheme: A drilling device for glass processing, comprising: a transparent cylinder, one end of the transparent cylinder is provided with a transparent plate, and further comprising:

[0007] A fixed block is arranged at one end of the transparent cylinder close to the transparent plate, and a sealing ring is arranged at one end of the transparent cylinder far from the transparent plate.

[0008] A drill bit is arranged inside the transparent cylinder, and a positioning ring is arranged at one end of the drill bit close to the sealing ring.

[0009] Two laser lights are arranged on the inner wall of the positioning ring, and mounting blocks are arranged on both sides of the transparent plate.

[0010] Two magnet blocks are respectively arranged on the opposite sides of the two mounting blocks, and a plurality of universal balls are arranged on the sides of the two mounting blocks close to the transparent plate.

[0011] Preferably, the two magnet blocks attract each other with opposite polarities, the ball ends of the plurality of universal balls are respectively in contact with both sides of the transparent plate, a limiting slider is arranged at one end of one of the mounting blocks far from the transparent plate, a grip rod is connected to the end of the limiting slider far from the mounting block, and a sliding frame is slidably connected to the outer surface of the limiting slider.

[0012] The technical effect of adopting the above further scheme is that the staff holds the grip rod and drives the limiting slider fixedly connected thereto to move horizontally on the sliding frame. The limiting slider can also drive the sliding frame to slide longitudinally on the inner wall of the fixed block. When the limiting slider moves, it drives the mounting block fixed thereto to move. When the mounting block moves, it drives the plurality of universal balls and the magnet block connected thereto to move. When the magnet block moves, it drives the other magnet block attracting it with opposite polarity to move. When the other magnet block moves, it drives the other mounting block and the other universal balls to move. The two laser lights emit two green light beams, and the two green light beams intersect to form a crosshair, which is convenient for the staff to align the crosshair with the punching mark through the transparent cylinder, and is beneficial to calibrating the position of the drill bit and the punching mark.

[0013] Preferably, the two ends of the sliding frame far from the limiting slider are slidably mounted on the inner wall of the fixed block. Two threaded rods are arranged on the outer surface of the fixed block. Connecting blocks are arranged at one ends of the two threaded rods close to the transparent plate. Anti-slip pads are arranged at the ends of the two connecting blocks far from the threaded rods. The outer surface of one of the threaded rods is threadedly mounted at one end of the limiting slider close to the grip rod.

[0014] The technical effect of adopting the above further scheme is that after the position of the drill bit is calibrated, the staff rotates the two threaded rods in sequence. When one threaded rod rotates, it moves towards the sliding frame inside the limiting slider. When the other threaded rod rotates, it moves towards the fixed block inside the sliding frame. When the two threaded rods move, they both drive the connecting blocks and the anti-slip pads to move.

[0015] Preferably, the outer surface of the other threaded rod is threadedly installed at one end of the sliding frame close to the fixed block. At one end of the other mounting block away from the transparent plate, a fixed cylinder is installed. A telescopic column is slidably installed on the inner wall of the fixed cylinder. At one end of the telescopic column located inside the fixed cylinder, a first spring is fixedly installed. The end of the first spring away from the telescopic column is installed at one end of the other mounting block.

[0016] The technical effect of adopting the above further solution is that after the gas accumulates in the fixed cylinder, it pushes the telescopic column to extend out of the fixed cylinder. When the telescopic column moves, it stretches the first spring.

[0017] Preferably, at one end of the telescopic column located outside the fixed cylinder, a moving plate is installed. At one end of the moving plate away from the fixed cylinder, a driving device is installed. The output end of the driving device is coaxially and fixedly connected to one end of the drill bit away from the positioning ring. Inside the inner wall of the other mounting block away from the universal ball, a storage battery is installed. At one end of the drill bit close to the driving device, a convex plate is fixedly installed.

[0018] The technical effect of adopting the above further solution is that when the telescopic column moves, it drives the moving plate, the mounting frame and the driving device to move. When the driving device moves, it drives the drill bit to move towards the glass. After the drill bit contacts the glass, drilling work is carried out.

[0019] Preferably, on the outer surface of the moving plate away from the driving device, a mounting frame is installed. At one end of the mounting frame close to the convex plate, a plurality of cylinders are installed. At one end of each of the plurality of cylinders close to the convex plate, a round hole is provided. Inside the inner walls of the plurality of cylinders, telescopic rods are slidably installed. At one end of each of the telescopic rods located inside the cylinder, a piston is installed.

[0020] The technical effect of adopting the above further solution is that the telescopic rod drives the piston to move away from the hose and passes through the round hole at the same time, facilitating the gas outside the cylinder to enter the inside of the cylinder again through the round hole.

[0021] Preferably, at one end of each of the plurality of telescopic rods away from the piston, an arc-shaped plate is installed. At one end of each of the plurality of telescopic rods close to the arc-shaped plate, a second spring is installed. The ends of the plurality of second springs away from the arc-shaped plate are respectively installed at one end of the two cylinders. At one end of each of the plurality of cylinders away from the round hole, a hose is connected. At one end of each of the plurality of hoses away from the cylinder, a connecting pipe is connected.

[0022] The technical effect of adopting the above further solution is that when the convex plate no longer presses the arc-shaped plate, the second spring pushes the telescopic rod and the arc-shaped plate to return to their original positions, and the gas in the cylinder is pushed into the hose and enters the connecting pipe through the hose.

[0023] Preferably, one end of each of the plurality of connecting pipes away from the hose is installed on the inner wall of the fixed cylinder. An electromagnetic valve is installed at one end of the fixed cylinder close to the connecting pipe. A plurality of movable rods are installed on the outer surface of the positioning ring away from the laser lamp. One end of each of the plurality of movable rods away from the positioning ring is connected to a fixed pipe.

[0024] The technical effect of adopting the above further solution is that the gas is pushed into the hose again, and then enters the fixed cylinder through the hose and the connecting pipe. The electromagnetic valve is opened to make the inside and outside of the fixed cylinder communicate, and the gas in the fixed cylinder flows out to the outside.

[0025] Preferably, one end of each of the plurality of fixed pipes away from the movable rod is installed at one end of the mounting frame. A plurality of third springs are installed on the outer surface of the mounting frame close to the fixed pipe. One end of each of the plurality of third springs away from the mounting frame is respectively installed at one end of the movable rod.

[0026] The technical effect of adopting the above further solution is that when the mounting frame and the fixed pipe move, the movable rod and the positioning ring remain stationary, resulting in the compression of the third spring.

[0027] Preferably, an air pump is installed at one end of the transparent cylinder close to the fixed block. The intake end of the air pump is installed at one end of the transparent cylinder. A valve body is installed at one end of the transparent cylinder close to the air pump. A check valve is installed on the inner wall of the transparent cylinder close to the intake end of the air pump.

[0028] The technical effect of adopting the above further solution is that the air pump works to extract a part of the air in the transparent cylinder. The function of the check valve is to prevent the outside gas from entering the transparent cylinder through the inside of the air pump after the air pump stops working. The function of the valve body is to facilitate the staff to open the valve body and put the outside gas into the transparent cylinder, which is convenient for the staff to take away the transparent cylinder.

[0029] Compared with the prior art, the advantages and positive effects of the present invention are as follows.

[0030] 1. In the present invention, when the air pump works, a part of the air in the transparent cylinder is extracted, so that the external air pressure exerts pressure on the transparent cylinder and the sealing ring, and the sealing ring deforms, which is convenient to expand the contact area with the glass. At the same time, the transparent cylinder and the sealing ring are adsorbed on the glass, which is beneficial to improving the stability between the transparent cylinder and the glass and providing a basis for the drilling work. The transparent plate is fixed on the top of the transparent cylinder, which is convenient for the staff's line of sight to pass through the transparent plate and the transparent cylinder, and is beneficial for the staff to observe the drilling process of glass processing.

[0031] 2. In the present invention, when the mounting bracket moves, it drives the fixed pipe to move. When the fixed pipe moves, it drives the movable rod and the positioning ring to move. The third spring inside the fixed pipe pushes the movable rod towards the glass. When the movable rod moves, it drives the positioning ring to stick to the glass surface. Two laser lights inside the positioning ring emit two green light beams, and the two green light beams intersect to form a crosshair, which is convenient for the staff to align the crosshair with the drilling mark through the transparent cylinder, facilitating the calibration of the position of the drill bit and the drilling mark, and further improving the accuracy during glass processing and drilling.

[0032] 3. In the present invention, after the gas accumulates in the fixed cylinder, it pushes the telescopic column to extend out of the fixed cylinder. When the telescopic column moves, it stretches the first spring. When the telescopic column moves, it drives the moving plate, the mounting bracket, and the driving device to move. When the driving device moves, it drives the drill bit towards the glass. After the drill bit contacts the glass, drilling work is carried out, which is conducive to driving the drill bit to rotate and move towards the glass while the driving device is working, facilitating the reduction of the number of telescopic devices used, thereby saving the manufacturing cost of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0033] Figure 1 It is a schematic structural diagram of a drilling device for glass processing provided by the present invention;

[0034] Figure 2 It is a schematic bottom view structural diagram of a drilling device for glass processing provided by the present invention;

[0035] Figure 3 It is a schematic partial side view structural diagram of a drilling device for glass processing provided by the present invention;

[0036] Figure 4 It is a schematic structural diagram of the mounting block of a drilling device for glass processing provided by the present invention;

[0037] Figure 5 It is a schematic partial unfolded structural diagram of a drilling device for glass processing provided by the present invention;

[0038] Figure 6 It is a schematic partial structural diagram of a drilling device for glass processing provided by the present invention;

[0039] Figure 7 It is a schematic structural diagram of the cylinder of a drilling device for glass processing provided by the present invention;

[0040] Figure 8 It is a schematic sectional view structural diagram of the cylinder of a drilling device for glass processing provided by the present invention.

[0041] LEGEND DESCRIPTION:

[0042] 1. Transparent cylinder; 101. Valve body; 102. Check valve; 2. Transparent plate; 3. Sealing ring; 4. Air pump; 5. Mounting block; 501. Fixed cylinder; 502. Movable plate; 503. Mounting frame; 504. Hose; 505. Battery; 506. Universal ball; 507. Magnet block; 508. Limit slider; 509. Threaded rod; 510. Connecting block; 511. Anti-slip pad; 512. First spring; 513. Telescopic column; 514. Connecting pipe; 515. Solenoid valve; 516. Cylinder; 517. Round hole; 518. Telescopic rod; 519. Arc-shaped plate; 520. Second spring; 521. Piston; 6. Fixed block; 601. Sliding frame; 7. Drill bit; 701. Convex plate; 8. Positioning ring; 801. Movable rod; 802. Fixed pipe; 803. Laser lamp; 804. Third spring; 9. Driving device; 10. Grip bar. Detailed implementation manners

[0043] The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0044] Embodiment 1, as Figure 1-8 shown, the present invention provides a technical solution: a drilling device for glass processing, including: a transparent cylinder 1, a transparent plate 2 is installed at one end of the transparent cylinder 1, and further includes:

[0045] A fixed block 6 is installed at one end of the transparent cylinder 1 close to the transparent plate 2, and a sealing ring 3 is installed at the end of the transparent cylinder 1 away from the transparent plate 2;

[0046] A drill bit 7 is arranged inside the transparent cylinder 1, and a positioning ring 8 is arranged at one end of the drill bit 7 close to the sealing ring 3;

[0047] Two laser lamps 803 are installed on the inner wall of the positioning ring 8, and mounting blocks 5 are arranged on both sides of the transparent plate 2;

[0048] Two magnet blocks 507 are respectively installed on the opposite sides of the two mounting blocks 5, and a plurality of universal balls 506 are installed on the side of the two mounting blocks 5 close to the transparent plate 2.

[0049] In one embodiment, after the staff makes a punching mark on the glass, the sealing ring 3 of the transparent cylinder 1 is placed on the glass. The transparent cylinder 1 includes but is not limited to a transparent glass cover, covering the punching mark with the transparent cylinder 1. Subsequently, the external power supply is connected to control the air pump 4 to work, and a part of the air in the transparent cylinder 1 is pumped out, so that the external air pressure exerts pressure on the transparent cylinder 1 and the sealing ring 3. The sealing ring 3 deforms, facilitating the expansion of the contact area with the glass. At the same time, the transparent cylinder 1 and the sealing ring 3 are adsorbed on the glass, which is beneficial to improving the stability between the transparent cylinder 1 and the glass and providing a basis for the punching work. The transparent plate 2 is fixed on the top of the transparent cylinder 1. The transparent plate 2 includes but is not limited to tempered transparent glass, facilitating the staff's line of sight to pass through the transparent plate 2 and the transparent cylinder 1, which is beneficial for the staff to observe the punching process of glass processing.

[0050] In another embodiment, after the staff makes a punching mark on the glass, the sealing ring 3 of the transparent cylinder 1 is placed on the glass. The transparent cylinder 1 includes but is not limited to a transparent plastic cover, covering the punching mark with the transparent cylinder 1. Subsequently, the external power supply is connected to control the air pump 4 to work, and a part of the air in the transparent cylinder 1 is pumped out, so that the external air pressure exerts pressure on the transparent cylinder 1 and the sealing ring 3. The sealing ring 3 deforms, facilitating the expansion of the contact area with the glass. At the same time, the transparent cylinder 1 and the sealing ring 3 are adsorbed on the glass, which is beneficial to improving the stability between the transparent cylinder 1 and the glass and providing a basis for the punching work. The transparent plate 2 is fixed on the top of the transparent cylinder 1. The transparent plate 2 includes but is not limited to transparent hard plastic, facilitating the staff's line of sight to pass through the transparent plate 2 and the transparent cylinder 1, which is beneficial for the staff to observe the punching process of glass processing.

[0051] Example 2, as Figure 1-8As shown, two magnet blocks 507 attract each other with opposite polarities. The spherical ends of multiple universal balls 506 are respectively in contact with both sides of the transparent plate 2. One end of an installation block 5 far from the transparent plate 2 is provided with a limit slider 508 installed. One end of the limit slider 508 far from the installation block 5 is connected with a grip rod 10. The outer surface of the limit slider 508 is slidably connected with a sliding frame 601. Both ends of the sliding frame 601 far from the limit slider 508 are slidably installed on the inner wall of a fixed block 6. The outer surface of the fixed block 6 is provided with two threaded rods 509 installed. One end of each of the two threaded rods 509 close to the transparent plate 2 is provided with a connection block 510 installed. One end of each of the two connection blocks 510 far from the threaded rod 509 is provided with an anti-slip pad 511 installed. The outer surface of one of the threaded rods 509 is threadedly installed at one end of the limit slider 508 close to the grip rod 10, and the outer surface of the other threaded rod 509 is threadedly installed at one end of the sliding frame 601 close to the fixed block 6. One end of the other installation block 5 far from the transparent plate 2 is provided with a fixed cylinder 501 installed. A telescopic column 513 is slidably installed on the inner wall of the fixed cylinder 501. One end of the telescopic column 513 located in the fixed cylinder 501 is fixedly installed with a first spring 512. One end of the first spring 512 far from the telescopic column 513 is provided with an installation at one end of the other installation block 5.

[0052] In one embodiment, a staff member holds the grip rod 10 and drives the limit slider 508 fixedly connected thereto to move laterally on the sliding frame 601. The limit slider 508 can also drive the sliding frame 601 to slide longitudinally on the inner wall of the fixed block 6. When the limit slider 508 moves, it drives the mounting block 5 fixed thereto to move. When the mounting block 5 moves, it drives the plurality of universal balls 506 and magnet blocks 507 connected thereto to move. When the magnet block 507 moves, it drives another magnet block 507 attracted by opposite polarity to move. When the other magnet block 507 moves, it drives another mounting block 5 and other universal balls 506 to move. The distance between the two magnet blocks 507 and the transparent plate 2 is 1 mm - 2 mm, which avoids abrasion between the magnet block 507 and the transparent plate 2 and is beneficial to extending the service life. When the universal balls 506 connected to the two mounting blocks 5 move, the ball ends of the universal balls 506 rotate and contact on both sides of the transparent plate 2, which is beneficial to greatly reducing the friction between the universal balls 506 and the transparent plate 2 and is convenient for extending the service life. When the other mounting block 5 moves, it drives the fixed cylinder 501 and the telescopic column 513 to move. When the telescopic column 513 moves, it drives the moving plate 502, the mounting frame 503 and the driving device 9 to move. When the driving device 9 moves, it drives the drill bit 7 to move towards the punching mark. When the mounting frame 503 moves, it drives the fixed pipe 802 to move. When the fixed pipe 802 moves, it drives the movable rod 801 and the positioning ring 8 to move. The third spring 804 in the fixed pipe 802 pushes the movable rod 801 towards the glass direction. When the movable rod 801 moves, it drives the positioning ring 8 to adhere to the glass surface. Two laser lights 803 inside the positioning ring 8 emit two green light beams, and the two green light beams intersect to form a crosshair, which is convenient for the staff member to align the crosshair with the punching mark through the transparent cylinder 1 with their line of sight, beneficial to calibrating the position of the drill bit 7 and the punching mark, and further improving the accuracy during glass processing and punching. After the position of the drill bit 7 is calibrated, the staff member rotates the two threaded rods 509 in sequence. When one threaded rod 509 rotates, it moves towards the sliding frame 601 inside the limit slider 508. When the other threaded rod 509 rotates, it moves towards the fixed block 6 inside the sliding frame 601. The connecting block 510 is rotatably installed at one end of the threaded rod 509. The connecting block 510 includes but is not limited to a metal round block. When the two threaded rods 509 move, they both drive the connecting block 510 and the anti-slip pad 511 to move. When the connecting block 510 moves, it does not rotate with the threaded rod 509. The two connecting blocks 510 respectively press the two anti-slip pads 511 on the surface of the sliding frame 601 and the surface of the fixed block 6. The anti-slip pad 511 is deformed by extrusion, which is convenient for increasing the contact area between the anti-slip pad 511 and the sliding frame 601 and the fixed block 6, enhancing the friction between the anti-slip pad 511 and the sliding frame 601 and the fixed block 6, and facilitating the prevention of displacement of the sliding frame 601 and the limit slider 508, and is beneficial to improving the stability of the two mounting blocks 5 on both sides of the transparent plate 2.

[0053] In another embodiment, the staff rotates two threaded rods 509 in sequence. When one threaded rod 509 rotates, it moves towards the sliding frame 601 within the limit slider 508. When the other threaded rod 509 rotates, it moves towards the fixed block 6 within the sliding frame 601. The connecting block 510 is fixedly installed at one end of the threaded rod 509. The connecting block 510 includes, but is not limited to, a plastic round block. When the two threaded rods 509 move, they both drive the connecting block 510 and the anti-slip pad 511 to move. When the connecting block 510 moves, it rotates following the threaded rod 509. The two connecting blocks 510 respectively squeeze the two anti-slip pads 511 against the surface of the sliding frame 601 and the surface of the fixed block 6. The anti-slip pad 511 is squeezed and deformed, facilitating an increase in the contact area between the anti-slip pad 511 and the sliding frame 601 and the fixed block 6, enhancing the friction between the anti-slip pad 511 and the sliding frame 601 and the fixed block 6, facilitating the prevention of displacement of the sliding frame 601 and the limit slider 508, and being beneficial to improving the stability of the two mounting blocks 5 on both sides of the transparent plate 2.

[0054] Example 3, as Figure 1-8As shown, a movable plate 502 is installed at one end of the telescopic column 513 located outside the fixed cylinder 501. At one end of the movable plate 502 away from the fixed cylinder 501, a driving device 9 is installed. The output end of the driving device 9 is coaxially and fixedly connected to one end of the drill bit 7 away from the positioning ring 8. Inside the other mounting block 5 away from the inner wall of the universal ball 506, a storage battery 505 is installed. At one end of the drill bit 7 close to the driving device 9, a convex plate 701 is fixedly installed. On the outer surface of the movable plate 502 away from the driving device 9, a mounting frame 503 is installed. At one end of the mounting frame 503 close to the convex plate 701, a plurality of cylinders 516 are installed. At one end of each of the plurality of cylinders 516 close to the convex plate 701, a round hole 517 is provided. Inside the inner walls of the plurality of cylinders 516, telescopic rods 518 are slidably installed. At one end of each of the plurality of telescopic rods 518 located inside the cylinder 516, a piston 521 is installed. At one end of each of the plurality of telescopic rods 518 away from the piston 521, an arc-shaped plate 519 is installed. At one end of each of the plurality of telescopic rods 518 close to the arc-shaped plate 519, a second spring 520 is installed. One end of each of the plurality of second springs 520 away from the arc-shaped plate 519 is respectively installed at one end of two of the cylinders 516. At one end of each of the plurality of cylinders 516 away from the round hole 517, a hose 504 is connected. One end of each of the plurality of hoses 504 away from the cylinder 516 is connected to a connecting pipe 514. One end of each of the plurality of connecting pipes 514 away from the hose 504 is installed on the inner wall of the fixed cylinder 501. At one end of the fixed cylinder 501 close to the connecting pipe 514, a solenoid valve 515 is installed. On the outer surface of the positioning ring 8 away from the laser lamp 803, a plurality of movable rods 801 are installed. One end of each of the plurality of movable rods 801 away from the positioning ring 8 is connected to a fixed pipe 802. One end of each of the plurality of fixed pipes 802 away from the movable rod 801 is installed at one end of the mounting frame 503. On the outer surface of the mounting frame 503 close to the fixed pipe 802, a plurality of third springs 804 are installed. One end of each of the plurality of third springs 804 away from the mounting frame 503 is respectively installed at one end of the movable rod 801. At one end of the transparent cylinder 1 close to the fixed block 6, an air pump 4 is installed. The intake end of the air pump 4 is installed at one end of the transparent cylinder 1. At one end of the transparent cylinder 1 close to the air pump 4, a valve body 101 is installed. On the inner wall of the transparent cylinder 1 close to the intake end of the air pump 4, a one-way valve 102 is installed.

[0055] In one embodiment, the storage battery 505 fixed to the inner wall of another mounting block 5 supplies electrical energy to the driving device 9, the solenoid valve 515, and the laser lamp 803. The staff controls the operation of the driving device 9 through an external controller. When the driving device 9 operates, it drives the drill bit 7 to rotate. When the drill bit 7 rotates, it drives the convex plate 701 to rotate. When the convex plate 701 rotates, it drives the arc-shaped plate 519 to move. When the arc-shaped plate 519 is squeezed by the convex plate 701, it drives the telescopic rod 518 and the piston 521 to move in the cylinder 516 towards the hose 504, facilitating the pushing of the gas inside the cylinder 516 into the hose 504. When the convex plate 701 no longer squeezes the arc-shaped plate 519, the second spring 520 pushes the telescopic rod 518 and the arc-shaped plate 519 back to their original positions. The telescopic rod 518 drives the piston 521 away from the hose 504 and passes through the round hole 517, facilitating the entry of the gas outside the cylinder 516 into the cylinder 516 again through the round hole 517. Subsequently, the gas is pushed into the hose 504 again, and then enters the fixed cylinder 501 through the hose 504 and the connecting pipe 514. After the gas accumulates in the fixed cylinder 501, it pushes the telescopic column 513 to extend from the fixed cylinder 501. When the telescopic column 513 moves, it stretches the first spring 512. When the telescopic column 513 moves, it drives the moving plate 502, the mounting bracket 503, and the driving device 9 to move. When the driving device 9 moves, it drives the drill bit 7 towards the glass. After the drill bit 7 contacts the glass, it performs the drilling operation. When the mounting bracket 503 moves, it drives structures such as the cylinder 516, the hose 504, and the fixed pipe 802 to move. The two ends of the hose 504 are respectively installed at one end of the connecting pipe 514 and one end of the cylinder 516 through threads. The hose 504 includes but is not limited to using a rubber hose. When the mounting bracket 503 and the fixed pipe 802 move, the movable rod 801 and the positioning ring 8 remain stationary, resulting in the compression of the third spring 804. The end of the movable rod 801 away from the positioning ring 8 retracts into the fixed pipe 802.

[0056] In another embodiment, when the mounting bracket 503 moves, it drives structures such as the cylinder 516, the hose 504, and the fixed pipe 802 to move. The two ends of the hose 504 are respectively fixedly installed at one end of the connecting pipe 514 and one end of the cylinder 516 through fixing glue. The hose 504 includes but is not limited to using a folded plastic pipe. When the mounting bracket 503 and the fixed pipe 802 move, the movable rod 801 and the positioning ring 8 remain stationary, resulting in the compression of the third spring 804. The end of the movable rod 801 away from the positioning ring 8 retracts into the fixed pipe 802. After the drilling operation is completed, the control personnel control the driving device 9 to stop working. When the solenoid valve 515 is controlled to open, the inside and outside of the fixed cylinder 501 are communicated. The gas inside the fixed cylinder 501 flows outwards. After the telescopic column 513 loses the thrust and no longer stretches the first spring 512, when the first spring 512 contracts, it drives the telescopic column 513 to retract into the fixed cylinder 501, and the moving plate 502 and the mounting bracket 503 return to their original positions.

[0057] Working principle: After the staff marks the drilling position on the glass, place the sealing ring 3 of the transparent cylinder 1 on the glass so that the transparent cylinder 1 covers the drilling mark. Then, connect to the external power supply to control the air pump 4 to work, and extract a part of the air inside the transparent cylinder 1, so that the external air pressure exerts pressure on the transparent cylinder 1 and the sealing ring 3. The sealing ring 3 deforms, facilitating the expansion of the contact area with the glass. At the same time, the transparent cylinder 1 and the sealing ring 3 are adsorbed on the glass, which is beneficial to improving the stability between the transparent cylinder 1 and the glass and providing a basis for the drilling work. The transparent plate 2 is fixed on the top of the transparent cylinder 1, facilitating the staff's line of sight to pass through the transparent plate 2 and the transparent cylinder 1, which is beneficial for the staff to observe the drilling process of glass processing. The function of the one-way valve 102 is to prevent the outside gas from entering the inside of the transparent cylinder 1 through the inside of the air pump 4 after the air pump 4 stops working. The function of the valve body 101 is to facilitate the staff to open the valve body 101 and put the external gas into the inside of the transparent cylinder 1, which is convenient for the staff to remove the transparent cylinder 1. The staff holds the grip 10 and drives the limit slider 508 fixedly connected thereto to move horizontally on the sliding frame 601. The limit slider 508 can also drive the sliding frame 601 to slide longitudinally on the inner wall of the fixed block 6. When the limit slider 508 moves, it drives the mounting block 5 fixedly connected thereto to move. When the mounting block 5 moves, it drives a plurality of universal balls 506 and magnet blocks 507 connected thereto to move. When the magnet block 507 moves, it drives another magnet block 507 attracted by opposite polarity to move. When the other magnet block 507 moves, it drives another mounting block 5 and other universal balls 506 to move. The distance between the two magnet blocks 507 and the transparent plate 2 is 1 mm - 2 mm, which avoids abrasion between the magnet block 507 and the transparent plate 2 and is beneficial to extending the service life. When the universal balls 506 fixed on the two mounting blocks 5 move, the ball ends of the universal balls 506 rotate and contact on both sides of the transparent plate 2, which is beneficial to greatly reducing the friction between the universal balls 506 and the transparent plate 2 and is convenient for extending the service life. When the other mounting block 5 moves, it drives the fixed cylinder 501 and the telescopic column 513 to move. When the telescopic column 513 moves, it drives the moving plate 502, the mounting frame 503 and the driving device 9 to move. When the driving device 9 moves, it drives the drill bit 7 to move towards the drilling mark. When the mounting frame 503 moves, it drives the fixed pipe 802 to move. When the fixed pipe 802 moves, it drives the movable rod 801 and the positioning ring 8 to move. The third spring 804 in the fixed pipe 802 pushes the movable rod 801 towards the glass direction. When the movable rod 801 moves, it drives the positioning ring 8 to adhere to the glass surface. Two laser lights 803 inside the positioning ring 8 emit two green light beams, and the two green light beams intersect to form a crosshair, which is convenient for the staff's line of sight to pass through the transparent cylinder 1 and align the crosshair with the drilling mark, which is beneficial to calibrating the position of the drill bit 7 and the drilling mark and further improving the accuracy of glass processing drilling. When in use, after the position of the drill bit 7 is calibrated, the staff rotates the two threaded rods 509 in sequence,When one of the threaded rods 509 rotates, it moves towards the sliding frame 601 within the limit slider 508. When the other threaded rod 509 rotates, it moves towards the fixed block 6 within the sliding frame 601. When the two threaded rods 509 move, they both drive the connecting block 510 and the anti-slip pad 511 to move. The two connecting blocks 510 respectively press the two anti-slip pads 511 against the surface of the sliding frame 601 and the surface of the fixed block 6, which is convenient for preventing the sliding frame 601 and the limit slider 508 from shifting, and is beneficial to improving the stability of the two mounting blocks 5 on both sides of the transparent plate 2. The storage battery 505 fixed inside the other mounting block 5 supplies electrical energy to the driving device 9, the solenoid valve 515 and the laser lamp 803. The staff controls the operation of the driving device 9 through an external controller. When the driving device 9 operates, it drives the drill bit 7 to rotate. When the drill bit 7 rotates, it drives the convex plate 701 to rotate. When the convex plate 701 rotates, it drives the arc-shaped plate 519 to move. When the arc-shaped plate 519 is squeezed by the convex plate 701, it drives the telescopic rod 518 and the piston 521 to move towards the hose 504 inside the cylinder 516, which is convenient for pushing the gas inside the cylinder 516 into the hose 504. When the convex plate 701 no longer squeezes the arc-shaped plate 519, the second spring 520 pushes the telescopic rod 518 and the arc-shaped plate 519 back to their original positions. The telescopic rod 518 drives the piston 521 to move away from the hose 504 and pass through the round hole 517 at the same time, which is convenient for the gas outside the cylinder 516 to enter the cylinder 516 again through the round hole 517. Subsequently, the gas is pushed into the hose 504 again, and then enters the fixed cylinder 501 through the hose 504 and the connecting pipe 514. After the gas accumulates in the fixed cylinder 501, it pushes the telescopic column 513 to extend out of the fixed cylinder 501. When the telescopic column 513 moves, it stretches the first spring 512. When the telescopic column 513 moves, it drives the moving plate 502, the mounting frame 503 and the driving device 9 to move. When the driving device 9 moves, it drives the drill bit 7 to move towards the glass. After the drill bit 7 contacts the glass, it performs the drilling work. When the mounting frame 503 moves, it drives structures such as the cylinder 516, the hose 504 and the fixed pipe 802 to move. When the mounting frame 503 and the fixed pipe 802 move, the movable rod 801 and the positioning ring 8 remain stationary, resulting in the third spring 804 being compressed. One end of the movable rod 801 away from the positioning ring 8 shrinks into the fixed pipe 802.

[0058] The above are only the preferred embodiments of the present invention, and are not limitations on the present invention in other forms. Any person skilled in the art may use the technical content disclosed above to make changes or modifications into equivalent embodiments with equivalent changes and apply them to other fields. However, as long as the technical content of the present invention is not departed from, any simple modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention still fall within the protection scope of the technical solution of the present invention.

Claims

1. A drilling device for glass processing, comprising: A transparent cylinder (1), one end of the transparent cylinder (1) is provided with a transparent plate (2) installed thereon, characterized in that it further comprises: A fixing block (6), installed at one end of the transparent cylinder (1) close to the transparent plate (2), and a sealing ring (3) is installed at one end of the transparent cylinder (1) far from the transparent plate (2); A drill bit (7), arranged inside the transparent cylinder (1), and a positioning ring (8) is arranged at one end of the drill bit (7) close to the sealing ring (3); Two laser lights (803), installed on the inner wall of the positioning ring (8), and mounting blocks (5) are arranged on both sides of the transparent plate (2); Two magnet blocks (507), respectively installed on the opposite sides of the two mounting blocks (5), a plurality of universal balls (506) are installed on the sides of the two mounting blocks (5) close to the transparent plate (2), the two magnet blocks (507) attract each other with opposite polarities, and the spherical ends of the plurality of universal balls (506) are respectively in contact with both sides of the transparent plate (2). One end of one of the mounting blocks (5) far from the transparent plate (2) is provided with a limit slider (508), and a grip rod (10) is connected to the end of the limit slider (508) far from the mounting block (5). The outer surface of the limit slider (508) is slidably connected with a sliding frame (601), and the two ends of the sliding frame (601) far from the limit slider (508) are slidably installed on the inner wall of the fixing block (6). Two threaded rods (509) are installed on the outer surface of the fixing block (6), and connection blocks (510) are installed at the ends of the two threaded rods (509) close to the transparent plate (2). Anti-slip pads (511) are installed at the ends of the two connection blocks (510) far from the threaded rods (509). The outer surface of one of the threaded rods (509) is threadedly installed at the end of the limit slider (508) close to the grip rod (10), and the outer surface of the other threaded rod (509) is threadedly installed at the end of the sliding frame (601) close to the fixing block (6). A fixing cylinder (501) is installed at the end of the other mounting block (5) far from the universal ball (506). A telescopic column (513) is slidably installed on the inner wall of the fixing cylinder (501). A first spring (512) is fixedly installed at one end of the telescopic column (513) located inside the fixing cylinder (501), and the end of the first spring (512) far from the telescopic column (513) is installed at one end of the other mounting block (5). A moving plate (502) is installed at the end of the telescopic column (513) located outside the fixing cylinder (501). A driving device (9) is installed at the end of the moving plate (502) far from the fixing cylinder (501), and the output end of the driving device (9) is coaxially and fixedly connected to the end of the drill bit (7) far from the positioning ring (8). A storage battery (505) is installed on the inner wall of the other mounting block (5) far from the universal ball (506). A convex plate (701) is fixedly installed at the end of the drill bit (7) close to the driving device (9).

2. The drilling device for glass processing according to claim 1, wherein: An installation frame (503) is installed on the outer surface of the moving plate (502) away from the driving device (9). At one end of the installation frame (503) close to the convex plate (701), a plurality of cylinders (516) are installed. At one end of each of the plurality of cylinders (516) close to the convex plate (701), a round hole (517) is provided. A telescopic rod (518) is slidably installed on the inner wall of each of the plurality of cylinders (516). At one end of each of the plurality of telescopic rods (518) located inside the cylinder (516), a piston (521) is installed.

3. The punching device for glass processing according to claim 2, wherein: At one end of each of the plurality of telescopic rods (518) away from the piston (521), an arc-shaped plate (519) is installed. At one end of each of the plurality of telescopic rods (518) close to the arc-shaped plate (519), a second spring (520) is installed. At one end of each of the plurality of second springs (520) away from the arc-shaped plate (519), they are respectively installed at one end of two cylinders (516). At one end of each of the plurality of cylinders (516) away from the round hole (517), a hose (504) is connected. At one end of each of the plurality of hoses (504) away from the cylinder (516), a connecting pipe (514) is connected.

4. A hole punching device for glass processing according to claim 3, characterized in that: At one end of each of the plurality of connecting pipes (514) away from the hose (504), they are installed on the inner wall of the fixed cylinder (501). At one end of the fixed cylinder (501) close to the connecting pipe (514), a solenoid valve (515) is installed. On the outer surface of the positioning ring (8) away from the laser lamp (803), a plurality of movable rods (801) are installed. At one end of each of the plurality of movable rods (801) away from the positioning ring (8), a fixed pipe (802) is connected.

5. A hole punching device for glass processing according to claim 4, characterized in that: At one end of each of the plurality of fixed pipes (802) away from the movable rod (801), they are installed at one end of the installation frame (503). On the outer surface of the installation frame (503) close to the fixed pipe (802), a plurality of third springs (804) are installed. At one end of each of the plurality of third springs (804) away from the installation frame (503), they are respectively installed at one end of the movable rod (801).

6. The punching device for glass processing according to claim 5, wherein: An air pump (4) is installed at one end of the transparent cylinder (1) close to the fixed block (6). The intake end of the air pump (4) is installed at one end of the transparent cylinder (1). A valve body (101) is installed at one end of the transparent cylinder (1) close to the air pump (4). A check valve (102) is installed on the inner wall of the transparent cylinder (1) close to the intake end of the air pump (4).

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