Drilling device for processing photoelectric glass substrate

Abstract

The utility model discloses a photoelectric glass substrate processing drilling device which comprises a machine frame and a supporting frame, the supporting frame is installed inside the machine frame in a sliding mode, a laser head is installed on the outer wall of the supporting frame, air conditioners are symmetrically installed on the outer wall of the supporting frame on one side of the laser head, air pumps are installed on the outer walls of the air conditioners, and the air pumps are installed on the outer walls of the air conditioners. The output end of the air pump is connected with a spray head, and a filter box is installed in the portion, below the spray head, of the rack. According to the drilling device for machining the photoelectric glass substrate, the photoelectric glass substrate can be conveniently and stably clamped and fixed, the drilling machining position can be rotationally adjusted, dust can be conveniently extracted and purified, liquid spraying and cooling can be conducted during machining, and waste generated during machining can be conveniently shielded and protected; the drilling operation at multiple positions is facilitated, the safety during drilling is improved, and the flexibility of rotary adjustment of drilling is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of drilling devices, in particular to a drilling device for processing a photoelectric glass substrate. Background Art

[0002] Photovoltaic glass, also known as photoelectric glass, is a special glass that uses solar radiation to generate electricity and has related current lead-out devices and cables. Photovoltaic glass is composed of glass, solar cells, film, back glass, special metal wires, etc. The optoelectronic display glass substrate is a very special glass material. Due to its excellent optical and mechanical properties, it has been widely used in the field of electronic display. The transmittance of the optoelectronic display glass substrate can reach more than 90%, which can greatly improve the brightness and contrast of the display. The optoelectronic display glass substrate can withstand high temperatures and can remain unchanged even in extreme environments, making it very suitable for electronic equipment used under high temperature conditions. Due to its special manufacturing process, the optoelectronic display glass substrate has a high tensile strength and compressive strength. At the same time, it also has strong impact resistance and scratch resistance, so it can withstand greater force.

[0003] For example, a drilling device for processing a transport carrier for coating a photoelectric glass substrate disclosed in the authorization announcement number CN215199749U includes a drilling machine body, a mounting plate is fixedly arranged on the lower end surface of the drilling machine body base, a first hydraulic rod is fixedly arranged below the mounting plate, a connecting plate is fixedly arranged at one end of the hydraulic shaft of the first hydraulic rod, a mounting seat is fixedly arranged on one side of the connecting plate, a second hydraulic rod is fixedly arranged on one side of the mounting seat, and two second hydraulic rods are arranged;

[0004] Although the utility model has realized the improvement of the problems that in the prior art, when the carrier plate is transported for production drilling, the staff needs to disassemble the plate clamp to perform the flipping work, which makes the flipping operation too troublesome, and when the width of the plate is too large, due to the size of the drilling machine, the plate cannot be flipped above the drilling machine body, so the flipping is inconvenient, the utility model has the advantages of more labor-saving and convenient flipping operation when the plate is flipped in the production drilling of the photoelectric glass substrate transport carrier;

[0005] However, the problems that the existing drilling device is not conducive to conveniently and stably clamping and fixing the photovoltaic glass substrate and rotating the drilling processing position during use, conveniently extracting and purifying dust and spraying liquid for cooling during processing, and shielding and protecting the waste generated by the processing have been greatly affected and improved the safety during drilling and the flexibility of the rotary adjustment of drilling. Utility Model Content

[0006] The purpose of the present utility model is to provide a drilling device for processing optoelectronic glass substrates, so as to solve the problems in the above-mentioned background technology that the drilling device is not convenient for clamping and fixing optoelectronic glass substrates stably and conveniently, rotating and adjusting the drilling processing position, conveniently extracting and purifying dust during processing, spraying liquid for cooling during processing, and shielding and protecting the waste generated during processing, which affect the safety during drilling and the flexibility of rotating adjustment during drilling.

[0007] To achieve the above purpose, the present utility model provides the following technical solutions: A drilling device for processing optoelectronic glass substrates, including a frame and a support frame. The support frame is slidably installed inside the frame. A laser head is installed on the outer wall of the support frame. Air conditioners are symmetrically installed on the outer wall of the support frame on one side of the laser head. Air pumps are installed on the outer walls of the air conditioners. The output end of the air pump is connected to a nozzle. A filter box is installed inside the frame below the nozzle. A walking frame is slidably installed inside the frame above the filter box. A rotating box is installed at the center position of the top end of the walking frame. A rotating frame is movably installed at the top end of the rotating box. An optoelectronic glass substrate body is arranged at the center position of the top end of the rotating frame.

[0008] Preferably, a protective cover is movably installed at the top end of the frame on one side of the walking frame. Cylinders are symmetrically installed on the inner wall of the frame on one side of the protective cover. The output ends of the cylinders are all installed with hinge shafts, and the cylinders are all connected to the protective cover through the hinge shafts. Rotating shafts are movably installed at the bottom ends of the protective cover below the hinge shafts, and the protective covers are all movably connected to the frame through the rotating shafts.

[0009] Preferably, dust suction hoods are symmetrically installed on the outer wall of the frame on one side of the rotating frame. Hoses are installed at the ends of the dust suction hoods away from the frame, and the hoses all extend into the interior of the filter box. Filter nets are arranged inside the filter box below the hoses. Air extractors are installed inside the filter box below the filter nets, and the air extractors all extend outside the filter box.

[0010] Preferably, a rotating motor is installed on the outer wall of the frame below the laser head. A lower threaded sleeve is installed at the bottom end of the walking frame on one side of the rotating motor. A lower threaded rod is threadedly connected inside the lower threaded sleeve, and the lower threaded rod is connected to the output end of the rotating motor.

[0011] Preferably, four threaded frames are installed at the top end of the rotating frame on one side of the optoelectronic glass substrate body. Upper threaded rods are threadedly connected to the tops of the threaded frames. Handles are installed on the outer walls of the upper threaded rods. Conical push blocks are movably installed at the ends of the upper threaded rods away from the handles, and the conical push blocks are all slidably connected to the threaded frames.

[0012] Preferably, pressing blocks are movably installed at the tops of the threaded frames on one side of the conical push blocks. Linkage shafts are movably installed on the outer walls of the threaded frames on one side of the pressing blocks, and the pressing blocks are movably connected to the threaded frames through the linkage shafts. A pulley is movably installed at one end of the pressing block close to the conical push block, and the pulleys are slidably connected to the conical push blocks.

[0013] Preferably, a stepping motor is installed inside the rotating box above the walking frame. A worm is installed at the output end of the stepping motor. A worm gear is installed inside the rotating box on one side of the worm, and the worm is meshed with the worm gear. A rotating shaft is installed at the top of the worm gear, and the worm gear is connected to the rotating frame through the rotating shaft.

[0014] Preferably, a remote controller is installed on the outer wall of the frame on one side of the filter box, and the output end of the remote controller is electrically connected to the input ends of the laser head, air pump, air extractor, rotating motor, stepping motor, and cylinder.

[0015] Compared with the prior art, the beneficial effects of the present utility model are as follows: This drilling device not only realizes the convenient and stable clamping and fixing of the optoelectronic glass substrate and the rotational adjustment of the drilling position during the processing of the optoelectronic glass substrate, facilitates the convenient extraction and purification of dust and the spraying of liquid for cooling during processing, facilitates the shielding and protection of the waste generated during processing, facilitates the drilling operation at multiple positions, but also improves the safety during drilling and the flexibility of the rotational adjustment during drilling. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 is a three-dimensional structure schematic diagram of the present utility model;

[0017] Figure 2 is a three-dimensional structure schematic diagram of the optoelectronic glass substrate body of the present utility model;

[0018] Figure 3 is a front view structure schematic diagram of the lower threaded rod of the present utility model;

[0019] Figure 4 is a three-dimensional structure schematic diagram of the side view of the present utility model;

[0020] Figure 5 is a three-dimensional structure schematic diagram of the top view of the present utility model;

[0021] Figure 6 is a front view structure schematic diagram of the present utility model;

[0022] Figure 7 is a front view sectional structure schematic diagram of the filter box of the present utility model;

[0023] Figure 8 is a three-dimensional structure schematic diagram of the threaded frame of the present utility model;

[0024] Figure 9 is a front view sectional structure schematic diagram of the rotating box of the present utility model;

[0025] Figure 10 is a front view sectional structure schematic diagram of the rotating rack of the present utility model;

[0026] Figure 11 is a three-dimensional structure schematic diagram of the frame of the present utility model.

[0027] In the figure: 1, frame; 2, rotating shaft; 3, air pump; 4, support frame; 5, laser head; 6, air conditioner; 7, nozzle; 8, rotating motor; 9, traveling frame; 10, rotating box; 11, rotating rack; 12, photoelectric glass substrate body; 13, filter box; 14, protective cover; 15, cylinder; 16, hinge shaft; 17, dust suction hood; 18, hose; 19, filter net; 20, air extractor; 21, threaded frame; 22, handle; 23, upper threaded rod; 24, conical push block; 25, linkage shaft; 26, pressing block; 27, pulley; 28, stepper motor; 29, worm; 30, worm gear; 31, remote controller; 32, lower threaded rod; 33, lower threaded sleeve; 34, rotating shaft. Detailed implementation manners

[0028] To further elaborate on the technical means and effects adopted by the present utility model to achieve the predetermined utility model purpose, the following combines the accompanying drawings and preferred embodiments to detail the specific implementation manners, structures, features and their effects of the present utility model as follows.

[0029] Please refer to Figures 1-11 , an embodiment provided by the present utility model: a drilling device for processing photoelectric glass substrates, including a frame 1 and a support frame 4. The support frame 4 is slidably installed inside the frame 1. A laser head 5 is installed on the outer wall of the support frame 4. Air conditioners 6 are symmetrically installed on the outer wall of the support frame 4 on one side of the laser head 5. Air pumps 3 are installed on the outer walls of the air conditioners 6. The output end of the air pump 3 is connected to a nozzle 7. A filter box 13 is installed inside the frame 1 below the nozzle 7. A traveling frame 9 is slidably installed inside the frame 1 above the filter box 13. The center position at the top of the traveling frame 9 is installed with a rotating box 10. The top of the rotating box 10 is movably installed with a rotating rack 11. The center position at the top of the rotating rack 11 is provided with a photoelectric glass substrate body 12;

[0030] At the top of the frame 1 on one side of the walking frame 9, a protective cover 14 is movably installed. On the inner wall of the frame 1 on one side of the protective cover 14, cylinders 15 are symmetrically installed. The cylinders 15 play a role in power driving. The output ends of the cylinders 15 are all installed with hinge shafts 16, and the cylinders 15 are all connected to the protective cover 14 through the hinge shafts 16. At the bottom ends of the protective cover 14 below the hinge shafts 16, rotating shafts 34 are movably installed, and the protective cover 14 is movably connected to the frame 1 through the rotating shafts 34;

[0031] On the outer wall of the frame 1 below the laser head 5, a rotating motor 8 is installed. The rotating motor 8 plays a role in power driving. At the bottom end of the walking frame 9 on one side of the rotating motor 8, a lower threaded sleeve 33 is installed. Inside the lower threaded sleeve 33, a lower threaded rod 32 is threadedly connected, and the lower threaded rod 32 is connected to the output end of the rotating motor 8;

[0032] At the top of the rotating frame 11 on one side of the optoelectronic glass substrate body 12, four threaded frames 21 are installed. At the tops of the threaded frames 21, upper threaded rods 23 are threadedly connected. On the outer walls of the upper threaded rods 23, handles 22 are installed. At the ends of the upper threaded rods 23 away from the handles 22, conical push blocks 24 are movably installed, and the conical push blocks 24 are all slidably connected to the threaded frames 21;

[0033] At the top of the threaded frames 21 on one side of the conical push blocks 24, pressing blocks 26 are movably installed. On the outer walls of the threaded frames 21 on one side of the pressing blocks 26, linkage shafts 25 are movably installed, and the pressing blocks 26 are all movably connected to the threaded frames 21 through the linkage shafts 25. At the ends of the pressing blocks 26 close to the conical push blocks 24, pulleys 27 are movably installed, and the pulleys 27 are all slidably connected to the conical push blocks 24;

[0034] The rotary motor 8 is turned on by operating the remote controller 31. Supported by the frame 1, the rotary motor 8 drives the lower threaded rod 32 to rotate. Under the threaded fit between the lower threaded rod 32 and the lower threaded sleeve 33, the lower threaded rod 32 drives the lower threaded sleeve 33 to move. At the same time, the lower threaded sleeve 33 drives the traveling frame 9, the rotary box 10, and the rotary frame 11 to move synchronously, and the rotary frame 11 is moved out of the interior of the frame 1. After moving to a certain position, the rotary motor 8 is turned off by operating the remote controller 31. At the same time, the drilling operator places the optoelectronic glass substrate body 12 to be drilled on the rotary frame 11. Supported by the rotary frame 11, the drilling operator manually turns the handle 22, and the handle 22 drives the upper threaded rod 23 to rotate. Under the threaded fit between the upper threaded rod 23 and the threaded frame 21, the upper threaded rod 23 drives the conical push block 24 to move. When the conical push block 24 moves into contact with the pulley 27, the pulley 27 slides along the surface of the conical push block 24. Due to the shape of the conical push block 24, the conical push block 24 drives the pressing block 26 to rotate around the linkage shaft 25 through the pulley 27, and the pressing block 26 clamps and fixes the optoelectronic glass substrate body 12. The air cylinder 15 is turned on by operating the remote controller 31. Supported by the frame 1, the air cylinder 15 drives the protective cover 14 to rotate through the hinge shaft 16, and the protective cover 14 rotates around the rotating shaft 34. The protective cover 14 changes from a vertical state to a horizontal state, and the protective cover 14 prevents the waste generated during subsequent drilling from splashing out, protecting the safety of the drilling operator. At the same time, the remote controller 31 is operated to turn on the laser head 5 and the air pump 3. The laser head 5 drills the clamped optoelectronic glass substrate body 12. At the same time, during drilling, the cold air inside the air conditioner 6 is discharged by the nozzle 7 under the action of the air pump 3 to facilitate cooling the laser head 5 and the optoelectronic glass substrate body 12 during the drilling process, avoiding the influence of thermal deformation on the processing accuracy, realizing convenient and stable clamping and fixing of the optoelectronic glass substrate by the drilling device for optoelectronic glass substrate processing, facilitating liquid spraying and cooling during processing, facilitating shielding and protection of the waste generated during processing, and improving the safety during drilling;

[0035] Dust suction covers 17 are symmetrically installed on the outer wall of the frame 1 on one side of the rotary frame 11. One ends of the dust suction covers 17 away from the frame 1 are all installed with hoses 18, and the hoses 18 all extend into the interior of the filter box 13. Filter nets 19 are arranged inside the filter box 13 below the hoses 18, and air extractors 20 are installed inside the filter box 13 below the filter nets 19, and the air extractors 20 all extend to the outside of the filter box 13;

[0036] When it is necessary to remove the dust generated during the drilling process, when the laser head 5 is performing drilling operations, due to the heat generated by the drilling of the laser head 5 and the clamped optoelectronic glass substrate body 12, when this heat comes into contact with the cold air output inside the air conditioner 6, a large amount of white smoke will be generated. At the same time, some dust will also be generated during the drilling process of the laser head 5 and the clamped optoelectronic glass substrate body 12. The drilling operator turns on the air extractor 20 by operating the remote controller 31. Under the action of the air extractor 20, the air extractor 20 accelerates the air circulation inside the filter box 13. When the air inside the filter box 13 reaches a certain level, the air and dust generated inside the frame 1 will flow into the inside of the hose 18 through the dust suction hood 17, enter the inside of the filter box 13 through the hose 18, and under the filtering action of the filter net 19, purification treatment is carried out, realizing the convenient extraction and purification treatment of dust by the drilling device for optoelectronic glass substrate processing, and preventing the dust from escaping to the outside and causing air pollution;

[0037] A stepping motor 28 is installed inside the rotating box 10 above the walking frame 9. The stepping motor 28 plays a role in power driving. The output end of the stepping motor 28 is installed with a worm 29. Inside the rotating box 10 on one side of the worm 29, a worm gear 30 is installed, and the worm 29 meshes with the worm gear 30. The top of the worm gear 30 is installed with a rotating shaft 2, and the worm gear 30 is connected to the rotating frame 11 through the rotating shaft 2;

[0038] A remote controller 31 is installed on the outer wall of the frame 1 on one side of the filter box 13, and the output end of the remote controller 31 is electrically connected to the input ends of the laser head 5, the air pump 3, the air extractor 20, the rotating motor 8, the stepping motor 28, and the cylinder 15;

[0039] By operating the remote controller 31 to turn off the laser head 5, the air pump 3, and the air extractor 20, and turn on the stepping motor 28. Supported by the rotating box 10, the stepping motor 28 drives the worm 29 to rotate. Under the meshing action of the worm 29 and the worm gear 30, the worm 29 drives the worm gear 30 to rotate. At the same time, the worm gear 30 drives the rotating frame 11 to rotate synchronously through the rotating shaft 2, and the rotating frame 11 drives the clamped optoelectronic glass substrate body 12 to rotate synchronously. After rotating to a certain angle, by operating the remote controller 31 to turn on the laser head 5, the air pump 3, and the air extractor 20, drilling treatment is carried out on the rotated optoelectronic glass substrate body 12. In the same way, it is convenient to rotate and adjust the drilling position of the optoelectronic glass substrate body 12 at multiple positions, realizing the convenient rotary adjustment of the drilling processing position of the drilling device for optoelectronic glass substrate processing, facilitating drilling operations at multiple positions, and improving the flexibility of rotary adjustment of drilling.

[0040] Working principle: When in use, the lower threaded rod 32 is rotated by driving the rotating motor 8. The lower threaded rod 32 drives the lower threaded sleeve 33 to move. At the same time, the lower threaded sleeve 33 drives the traveling frame 9, the rotating box 10, and the rotating frame 11 to move synchronously, and the rotating frame 11 is moved out of the inside of the frame 1. After moving to a certain position, the rotating motor 8 is turned off by operating the remote controller 31. At the same time, the drilling operator places the optoelectronic glass substrate body 12 to be drilled on the rotating frame 11. The handle 22 drives the upper threaded rod 23 to rotate, and the upper threaded rod 23 drives the conical push block 24 to move. When the conical push block 24 moves to contact the pulley 27, the pulley 27 slides along the surface of the conical push block 24. Due to the shape of the conical push block 24, the conical push block 24 drives the pressing block 26 to rotate around the linkage shaft 25 through the pulley 27, and the pressing block 26 clamps and fixes the optoelectronic glass substrate body 12. The air cylinder 15 drives the protective cover 14 to rotate through the hinge shaft 16, and the protective cover 14 rotates around the rotating shaft 34. The protective cover 14 changes from a vertical state to a horizontal state, and the protective cover 14 prevents the waste generated during subsequent drilling from splashing out to protect the safety of the drilling operator. The laser head 5 drills the clamped optoelectronic glass substrate body 12. At the same time, during drilling, the water inside the air conditioner 6 is discharged by the nozzle 7 under the action of the air pump 3 to facilitate reducing the temperature of the laser head 5 and the optoelectronic glass substrate body 12 during the drilling process and avoiding the influence of thermal deformation on the processing accuracy. Under the action of the air extractor 20, the air extractor 20 accelerates the air circulation inside the filter box 13. When the air inside the filter box 13 reaches a certain level, the air and dust generated inside the frame 1 will flow into the inside of the hose 18 through the dust suction cover 17, enter the inside of the filter box 13 through the hose 18, and are purified under the filtering action of the filter net 19. The stepping motor 28 drives the worm 29 to rotate, the worm 29 drives the worm gear 30 to rotate, and at the same time, the worm gear 30 drives the rotating frame 11 to rotate synchronously through the rotating shaft 2. The rotating frame 11 drives the clamped optoelectronic glass substrate body 12 to rotate synchronously to facilitate the rotational adjustment of the drilling position at multiple positions of the optoelectronic glass substrate body 12 to complete the use of the drilling device.

[0041] The above is only a preferred embodiment of the present invention, and it does not impose any form of limitation on the present invention. Although the present invention has been disclosed above with a preferred embodiment, it is not intended to limit the present invention. Any person skilled in the art can make some changes or modifications to the above-disclosed technical content to make equivalent embodiments with equivalent changes, but as long as it does not depart from the technical content of the present invention, any brief modifications, equivalent changes, and modifications made to the above embodiments according to the technical essence of the present invention still fall within the scope of the technical solution of the present invention.

Claims

1. A drilling device for processing a photoelectric glass substrate, comprising a frame (1) and a support frame (4), characterized in that: A support frame (4) is slidably mounted inside the frame (1), a laser head (5) is mounted on the outer wall of the support frame (4), an air cooler (6) is symmetrically mounted on the outer wall of the support frame (4) on one side of the laser head (5), an air pump (3) is mounted on the outer wall of each of the air coolers (6), an output end of the air pump (3) is connected to a nozzle (7), a filter box (13) is mounted inside the frame (1) below the nozzle (7), a traveling frame (9) is slidably mounted inside the frame (1) above the filter box (13), a rotating box (10) is mounted at the center position of the top end of the traveling frame (9), a rotating frame (11) is movably mounted at the top end of the rotating box (10), and a photoelectric glass substrate body (12) is arranged at the center position of the top end of the rotating frame (11).

2. The drilling device for photoelectric glass substrate processing according to claim 1, characterized in that: A protective cover (14) is movably mounted on the top of the frame (1) on one side of the walking frame (9), and a cylinder (15) is symmetrically mounted on the inner wall of the frame (1) on one side of the protective cover (14). The output ends of the cylinders (15) are all mounted with hinge shafts (16), and the cylinders (15) are all connected to the protective cover (14) via the hinge shafts (16). A rotating shaft (34) is movably mounted on the bottom end of the protective cover (14) below the hinge shaft (16), and the protective cover (14) is movably connected to the frame (1) via the rotating shaft (34).

3. The drilling device for photoelectric glass substrate processing according to claim 1, characterized in that: A dust hood (17) is symmetrically mounted on the outer wall of the frame (1) on one side of the rotating frame (11); a hose (18) is mounted on one end of the dust hood (17) away from the frame (1), and the hose (18) extends to the inside of the filter box (13); a filter screen (19) is arranged inside the filter box (13) below the hose (18); an air extractor (20) is mounted inside the filter box (13) below the filter screen (19), and the air extractor (20) extends to the outside of the filter box (13).

4. The drilling device for photoelectric glass substrate processing according to claim 1, characterized in that: A rotating motor (8) is installed on the outer wall of the frame (1) below the laser head (5), and a lower threaded sleeve (33) is installed at the bottom end of the walking frame (9) on one side of the rotating motor (8). The internal thread of the lower threaded sleeve (33) is connected to a lower threaded rod (32), and the lower threaded rod (32) is connected to the output end of the rotating motor (8).

5. The drilling device for photoelectric glass substrate processing according to claim 1, characterized in that: Four sets of threaded frames (21) are installed at the top of the rotating frame (11) on one side of the photoelectric glass substrate body (12), and the tops of the threaded frames (21) are all threadedly connected to upper threaded rods (23), and the outer walls of the upper threaded rods (23) are all installed with handles (22). The ends of the upper threaded rods (23) away from the handles (22) are all movably installed with conical push blocks (24), and the conical push blocks (24) are all slidably connected to the threaded frames (21).

6. The drilling device for photoelectric glass substrate processing according to claim 5, characterized in that: A pressing block (26) is movably mounted on the top of the threaded frame (21) on one side of the conical push block (24), a linkage shaft (25) is movably mounted on the outer wall of the threaded frame (21) on one side of the pressing block (26), and the pressing block (26) is movably connected to the threaded frame (21) via the linkage shaft (25), and a pulley (27) is movably mounted on one end of the pressing block (26) close to the conical push block (24), and the pulley (27) is slidably connected to the conical push block (24).

7. The drilling device for processing optoelectronic glass substrate according to claim 1, characterized in that: A stepper motor (28) is installed inside the rotating box (10) above the walking frame (9), a worm (29) is installed at the output end of the stepper motor (28), a worm wheel (30) is installed inside the rotating box (10) on one side of the worm (29), and the worm (29) is meshed with the worm wheel (30), a rotating shaft (2) is installed at the top end of the worm wheel (30), and the worm wheel (30) is connected to the rotating frame (11) through the rotating shaft (2).

8. The drilling device for photoelectric glass substrate processing according to claim 1, characterized in that: A remote controller (31) is installed on the outer wall of the frame (1) on one side of the filter box (13), and the output end of the remote controller (31) is electrically connected to the input ends of the laser head (5), the air pump (3), the vacuum pump (20), the rotary motor (8), the stepper motor (28), and the cylinder (15).

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