阅读说明：本技术 一种可提高品质的钢化玻璃生产系统 (Tempered glass production system capable of improving quality ) 是由 苏楚焕 钟伟健 黄文俊 刘华娟 于 2021-10-29 设计创作，主要内容包括：本发明公开了一种可提高品质的钢化玻璃生产系统,属于玻璃钢化技术领域,输送辊道依次穿过上片台、加热炉、冷却风栅模块和下片台；冷却风栅模块包括上风栅、下风栅和第一升降组件,第一升降组件用于带动上风栅和下风栅同时向靠近输送辊道的方向运动或同时向远离输送辊道的方向运动；送风模块包括集风箱、单风机组件和串联风机组件；集风箱包括箱体、第一进风管、第二进风管和出风管,箱体内设有第一集风腔和第二集风腔,第一集风腔和第二集风腔之间设有闸板阀,闸板阀的启闭控制第一集风腔和第二集风腔的连通或关闭。本发明解决了现有的化玻璃生产系统的冷却风栅和送风模块难以控制冷却风风压,降低了成品玻璃的品质的问题。(The invention discloses a tempered glass production system capable of improving quality, belonging to the technical field of glass tempering.A conveying roller way sequentially passes through an upper piece platform, a heating furnace, a cooling air grid module and a lower piece platform; the cooling air grid module comprises an upper air grid, a lower air grid and a first lifting assembly, wherein the first lifting assembly is used for driving the upper air grid and the lower air grid to simultaneously move towards the direction close to the conveying roller way or simultaneously move towards the direction far away from the conveying roller way; the air supply module comprises an air collecting box, a single fan assembly and a serial fan assembly; the air collecting box comprises a box body, a first air inlet pipe, a second air inlet pipe and an air outlet pipe, a first air collecting cavity and a second air collecting cavity are arranged in the box body, a gate valve is arranged between the first air collecting cavity and the second air collecting cavity, and the gate valve controls the communication or the closing of the first air collecting cavity and the second air collecting cavity. The invention solves the problems that the cooling air grid and the air supply module of the existing chemical glass production system are difficult to control the air pressure of cooling air, and the quality of finished glass is reduced.)

1. The utility model provides a toughened glass production system that can improve quality, includes piece platform, heating furnace, cooling air grid module, piece platform, rollgang and air supply module down, the rollgang passes in proper order piece platform, heating furnace, cooling air grid module and piece platform down, its characterized in that:

the cooling air grid module comprises an upper air grid, a lower air grid and a first lifting assembly, the conveying roller way is arranged between the upper air grid and the lower air grid, and the first lifting assembly is used for driving the upper air grid and the lower air grid to simultaneously move towards the direction close to the conveying roller way or simultaneously move towards the direction far away from the conveying roller way;

the air supply module comprises an air collecting box, a single fan assembly and a serial fan assembly, wherein the single fan assembly is a single independent fan, and the serial fan assembly is formed by connecting a plurality of independent fans in series; the air collecting box comprises a box body, a first air inlet pipe, a second air inlet pipe and an air outlet pipe, a first air collecting cavity and a second air collecting cavity are arranged in the box body, a gate valve is arranged between the first air collecting cavity and the second air collecting cavity, and the opening and closing of the gate valve controls the communication or the closing of the first air collecting cavity and the second air collecting cavity;

the rear end of the first air collecting cavity is connected with an air outlet of the series fan assembly through the first air inlet pipe, and the front end of the first air collecting cavity is connected with an air inlet part of the upper air grid and/or an air inlet part of the lower air grid through the air outlet pipe; the rear end of the second air collecting cavity is connected with an air outlet of the single fan assembly through the second air inlet pipe, and the front end of the second air collecting cavity is connected with an air inlet part of the upper air grid and/or an air inlet part of the lower air grid through the air outlet pipe.

2. A tempered glass production system capable of improving quality according to claim 1, wherein: the first lifting assembly comprises a universal joint, a first pull rod and a second pull rod, the first pull rod, the universal joint and the second pull rod are sequentially connected, the first pull rod is movably connected with the frame of the cooling air grid module, and the second pull rod is fixedly connected with the upper air grid and/or the lower air grid;

the cooling air grid module further comprises a guide assembly, the guide assembly comprises a guide rail part and a sliding part, the guide rail part is fixed on the rack, the sliding part is fixed on the upper air grid and/or the lower air grid, and the sliding part is in sliding connection with the guide rail part; the extending direction of the guide rail part is parallel to the length direction of the first lifting assembly.

3. A tempered glass production system capable of improving quality according to claim 1, wherein: the gate valve comprises a connecting pipeline, a first cylinder, a second cylinder, a first gate and a second gate;

the connecting pipeline is arranged on a partition plate between the first air collecting cavity and the second air collecting cavity, and the first air collecting cavity is communicated with the second air collecting cavity through the connecting pipeline;

the first cylinder and the second cylinder are respectively arranged on the front side surface and the rear side surface of the connecting pipeline;

the rear end of the first gate plate penetrates through the front side wall of the connecting pipeline and is inserted into the connecting pipeline, the front end of the second gate plate penetrates through the rear side wall of the connecting pipeline and is inserted into the connecting pipeline, the front end of the first gate plate is in transmission connection with the output end of the first air cylinder, and the rear end of the second gate plate is in transmission connection with the output end of the second air cylinder;

the first cylinder drives first flashboard seesaw, the second cylinder drives second flashboard seesaw, the second flashboard with the range of being separated by about the first flashboard, first flashboard slides when the biggest stroke first flashboard covers completely the connecting tube, the second flashboard slides when the biggest stroke second flashboard covers the partial region of connecting tube.

4. A tempered glass production system capable of improving quality according to claim 1, wherein: the edge of the end part of the rear end of the first flashboard is in a circular arc shape protruding towards the center direction of the connecting pipeline; the edge of the end part of the front end of the second gate plate and the edge of the end part of the rear end of the first gate plate are arc-shaped curved surfaces which are mutually in close fit;

the gate valve further comprises a plurality of guide plates; guide grooves are formed in the guide plates, the guide plates are arranged on the front side and the rear side of the partition plate in a pairwise and symmetrical mode, and the guide plates are distributed on the front side and the rear side of the connecting pipeline; the first shutter and the second shutter slide along the corresponding guide grooves of the guide plate.

5. A tempered glass production system capable of improving quality according to claim 1, wherein: the front end of the first air collecting cavity and the front end of the second air collecting cavity are both communicated with a plurality of air outlet pipes which are distributed in an array manner, the first air collecting cavity supplies air to the passing section of the upper air grid and/or the lower air grid through the air outlet pipes, and the second air collecting cavity supplies air to the cooling section of the upper air grid and/or the lower air grid through the air outlet pipes;

the air outlet adjusting device is arranged at the front end of the first air collecting cavity and the front end of the second air collecting cavity respectively and comprises a lifting device and a wind shield, the wind shield is in transmission connection with the lifting device, the lifting device drives the wind shield to move up and down, and when the wind shield moves up and down, the wind shield shields one row of air outlet pipes or two rows of air outlet pipes, wherein the upper row of the air outlet pipes and the lower row of the air outlet pipes are arranged on the wind shield.

6. A tempered glass production system capable of improving quality according to claim 1, wherein: the box body is also provided with four supporting legs which are respectively arranged below four corners of the box body; the surfaces of the bottom surfaces of the four supporting legs are the same plane;

the box body is also provided with a bottom plate; the bottom plate is located the first wind collection chamber with the below in second wind collection chamber, keeping away from of bottom plate the rear side base of air-out pipe with the interval of the bottom surface of supporting legs is greater than being close to of bottom plate the front side base of air-out pipe with the interval of the bottom surface of supporting legs.

7. A tempered glass production system capable of improving quality according to claim 1, wherein: a plurality of convection devices are distributed on the furnace top array of the heating furnace, the air inlets of the convection devices are connected with the air outlets of the heating furnace, the air outlets of the convection devices are connected with the air inlets of the heating furnace, and the air inlets of the heating furnace are provided with heating components;

the air inlet portion of the upper air grid and/or the air inlet portion of the lower air grid are/is close to one end of the air outlet pipe is a circular opening, the air inlet portion of the upper air grid and/or the air inlet portion of the lower air grid are/is far away from the other end of the air outlet pipe is a rectangular opening, and the cross section of the side wall of the air inlet portion is close to the air outlet pipe and is gradually changed into a rectangular shape from the circular shape to the direction of the air outlet pipe.

8. A tempered glass production system capable of improving quality according to claim 1, wherein: the upper piece table and/or the lower piece table is/are provided with a glass lifting device, the glass lifting device comprises a second lifting assembly, a driving connecting rod and a lifting driving mechanism, and the second lifting assembly is arranged between two adjacent roller shafts of the conveying roller way;

the second lifting assemblies are rotatably connected to the driving connecting rods and comprise cranks, cylindrical bosses, supporting tables and mounting seats; the crank comprises a linear part and a crank arm part, wherein cylindrical bosses are symmetrically and integrally formed on the front side surface and the rear side surface of the linear part, and the cylindrical bosses are rotationally connected with the driving connecting rod; the crank arm part is rotationally connected with the supporting table, the joint of the straight line part and the crank arm part is rotationally connected with the mounting seat, and the mounting seat is fixedly mounted on the bottom surface of the upper piece table or the lower piece table; the lifting driving mechanism is connected with the bottom end of the straight line part of any one crank.

9. A tempered glass production system capable of improving quality according to claim 1, wherein: the series fan assembly further comprises a series air pipe and a rotary flashboard, and the independent fans are connected in series through the series air pipe;

the side wall of the series air pipe is provided with an adjusting opening, and the series air pipe is communicated with the outside through the adjusting opening;

the adjusting opening is fixedly connected with the rotary flashboard, the rotary flashboard comprises an adjusting cover plate, a flashboard seat and a driving mechanism, the flashboard seat is of a cylindrical pipe body structure, the flashboard seat is fixedly connected with the pipe wall of the series air pipe, the adjusting cover plate is arranged in the flashboard seat, and the central axis of the adjusting cover plate is superposed with the central axis of the flashboard seat;

a shielding plate assembly is fixedly connected in the flashboard seat and is parallel to the adjusting cover plate, and the sum of the areas of the shielding plate assembly and the adjusting cover plate is larger than or equal to the cross sectional area of the flashboard seat;

the adjusting cover plate is provided with a first connecting hole, and a central shaft of the adjusting cover plate penetrates through the first connecting hole; the driving mechanism comprises a rotary driving component and a driving output component, the driving output component is fixedly connected with the first connecting hole, a rotating shaft of the rotary driving component is in transmission connection with the driving output component, the rotary driving component drives the adjusting cover plate to rotate in the flashboard seat by taking a central shaft of the adjusting cover plate as a rotating shaft through the driving output component, and when the adjusting cover plate and the flashboard component cover the flashboard seat together, the rotary flashboard is closed, so that the adjusting opening is closed; when the adjusting cover plate and the shutter plate assembly are partially or completely overlapped, the rotary shutter is opened, so that the adjusting opening is opened.

10. A tempered glass production system capable of improving quality according to claim 9, wherein: the driving output assembly comprises a screw rod and a screw rod seat, the output part of the rotary driving assembly is connected with the screw rod, the screw rod is in threaded connection with the screw rod seat, and the screw rod seat is fixed on the flashboard seat;

the central shaft of the output part of the rotary driving assembly, the central shaft of the screw rod seat and the hole center of the first connecting hole are positioned on the same straight line, and the screw rod sequentially penetrates through the output part of the rotary driving assembly and the screw rod seat and then is fixedly connected with the first connecting hole; the rotary driving assembly drives the screw rod to rotate, and the screw rod rotates and moves in the screw rod seat in a telescopic mode along the inner direction and the outer direction of the adjusting opening.

Technical Field

The invention relates to the technical field of glass tempering, in particular to a tempered glass production system capable of improving quality.

Background

With the development of scientific technology, the requirements on the aspects of light weight, high strength, safety and the like of glass products in various fields of widely applied glass are higher and higher, and the glass toughening technology is generated and developed rapidly along with the development of the scientific technology. The physical tempering method is a method widely used at present for producing tempered glass, and is characterized in that glass is put in a heating furnace to be heated to the temperature close to the softening temperature of the glass, then the glass is taken out of the furnace, and air is blown to two sides of the glass for rapid cooling, so that the glass can be processed and formed after passing through the heating furnace and a cooling module once. In the process of cooling glass, the quality of cooling air blown to the surface of the glass is very important, but the air pressure of the cooling air is difficult to control by the existing cooling air grid and the existing air supply module, so that the quality of the cooling air blown to the surface of the glass is difficult to control, and the quality of finished glass is reduced.

Disclosure of Invention

Aiming at the defects, the invention aims to provide a toughened glass production system capable of improving the quality, and solves the problems that the cooling air grid and the air supply module of the existing toughened glass production system are difficult to control the air pressure of cooling air, and the quality of finished glass is reduced.

In order to achieve the purpose, the invention adopts the following technical scheme: a toughened glass production system capable of improving quality comprises an upper piece platform, a heating furnace, a cooling air grid module, a lower piece platform, a conveying roller way and an air supply module, wherein the conveying roller way sequentially penetrates through the upper piece platform, the heating furnace, the cooling air grid module and the lower piece platform; the cooling air grid module comprises an upper air grid, a lower air grid and a first lifting assembly, the conveying roller way is arranged between the upper air grid and the lower air grid, and the first lifting assembly is used for driving the upper air grid and the lower air grid to simultaneously move towards the direction close to the conveying roller way or simultaneously move towards the direction far away from the conveying roller way; the air supply module comprises an air collecting box, a single fan assembly and a serial fan assembly, wherein the single fan assembly is a single independent fan, and the serial fan assembly is formed by connecting a plurality of independent fans in series; the air collecting box comprises a box body, a first air inlet pipe, a second air inlet pipe and an air outlet pipe, a first air collecting cavity and a second air collecting cavity are arranged in the box body, a gate valve is arranged between the first air collecting cavity and the second air collecting cavity, and the opening and closing of the gate valve controls the communication or the closing of the first air collecting cavity and the second air collecting cavity; the rear end of the first air collecting cavity is connected with an air outlet of the series fan assembly through the first air inlet pipe, and the front end of the first air collecting cavity is connected with an air inlet part of the upper air grid and/or an air inlet part of the lower air grid through the air outlet pipe; the rear end of the second air collecting cavity is connected with an air outlet of the single fan assembly through the second air inlet pipe, and the front end of the second air collecting cavity is connected with an air inlet part of the upper air grid and/or an air inlet part of the lower air grid through the air outlet pipe.

It is worth to say that the first lifting assembly comprises a universal joint, a first pull rod and a second pull rod, the first pull rod, the universal joint and the second pull rod are sequentially connected, the first pull rod is movably connected with the frame of the cooling air grid module, and the second pull rod is fixedly connected with the upper air grid and/or the lower air grid; the cooling air grid module further comprises a guide assembly, the guide assembly comprises a guide rail part and a sliding part, the guide rail part is fixed on the rack, the sliding part is fixed on the upper air grid and/or the lower air grid, and the sliding part is in sliding connection with the guide rail part; the extending direction of the guide rail part is parallel to the length direction of the first lifting assembly.

Optionally, the gate valve comprises a connecting pipe, a first cylinder, a second cylinder, a first gate and a second gate; the connecting pipeline is arranged on a partition plate between the first air collecting cavity and the second air collecting cavity, and the first air collecting cavity is communicated with the second air collecting cavity through the connecting pipeline; the first cylinder and the second cylinder are respectively arranged on the front side surface and the rear side surface of the connecting pipeline; the rear end of the first gate plate penetrates through the front side wall of the connecting pipeline and is inserted into the connecting pipeline, the front end of the second gate plate penetrates through the rear side wall of the connecting pipeline and is inserted into the connecting pipeline, the front end of the first gate plate is in transmission connection with the output end of the first air cylinder, and the rear end of the second gate plate is in transmission connection with the output end of the second air cylinder; the first cylinder drives first flashboard seesaw, the second cylinder drives second flashboard seesaw, the second flashboard with the range of being separated by about the first flashboard, first flashboard slides when the biggest stroke first flashboard covers completely the connecting tube, the second flashboard slides when the biggest stroke second flashboard covers the partial region of connecting tube.

Specifically, an end edge of a rear end of the first shutter is in a circular arc shape protruding toward a center direction of the connecting pipe; the edge of the end part of the front end of the second gate plate and the edge of the end part of the rear end of the first gate plate are arc-shaped curved surfaces which are mutually in close fit; the gate valve further comprises a plurality of guide plates; guide grooves are formed in the guide plates, the guide plates are arranged on the front side and the rear side of the partition plate in a pairwise and symmetrical mode, and the guide plates are distributed on the front side and the rear side of the connecting pipeline; the first shutter and the second shutter slide along the corresponding guide grooves of the guide plate.

Preferably, the front end of the first air collecting cavity and the front end of the second air collecting cavity are both communicated with a plurality of air outlet pipes distributed in an array manner, the first air collecting cavity supplies air to the passing section of the upper air grid and/or the lower air grid through the air outlet pipes, and the second air collecting cavity supplies air to the cooling section of the upper air grid and/or the lower air grid through the air outlet pipes; the air outlet adjusting device is arranged at the front end of the first air collecting cavity and the front end of the second air collecting cavity respectively and comprises a lifting device and a wind shield, the wind shield is in transmission connection with the lifting device, the lifting device drives the wind shield to move up and down, and when the wind shield moves up and down, the wind shield shields one row of air outlet pipes or two rows of air outlet pipes, wherein the upper row of the air outlet pipes and the lower row of the air outlet pipes are arranged on the wind shield.

In some embodiments, the box body is further provided with four supporting legs, and the four supporting legs are respectively arranged below four corners of the box body; the surfaces of the bottom surfaces of the four supporting legs are the same plane; the box body is also provided with a bottom plate; the bottom plate is located the first wind collection chamber with the below in second wind collection chamber, keeping away from of bottom plate the rear side base of air-out pipe with the interval of the bottom surface of supporting legs is greater than being close to of bottom plate the front side base of air-out pipe with the interval of the bottom surface of supporting legs.

It is worth to be noted that a plurality of convection devices are distributed on the furnace top array of the heating furnace, the air inlets of the convection devices are connected with the air outlets of the heating furnace, the air outlets of the convection devices are connected with the air inlets of the heating furnace, and the air inlets of the heating furnace are provided with heating components; the air inlet portion of the upper air grid and/or the air inlet portion of the lower air grid are/is close to one end of the air outlet pipe is a circular opening, the air inlet portion of the upper air grid and/or the air inlet portion of the lower air grid are/is far away from the other end of the air outlet pipe is a rectangular opening, and the cross section of the side wall of the air inlet portion is close to the air outlet pipe and is gradually changed into a rectangular shape from the circular shape to the direction of the air outlet pipe.

Optionally, the upper piece table and/or the lower piece table is provided with a glass lifting device, the glass lifting device comprises a second lifting assembly, a driving connecting rod and a lifting driving mechanism, and the second lifting assembly is arranged between two adjacent roller shafts of the conveying roller way; the second lifting assemblies are rotatably connected to the driving connecting rods and comprise cranks, cylindrical bosses, supporting tables and mounting seats; the crank comprises a linear part and a crank arm part, wherein cylindrical bosses are symmetrically and integrally formed on the front side surface and the rear side surface of the linear part, and the cylindrical bosses are rotationally connected with the driving connecting rod; the crank arm part is rotationally connected with the supporting table, the joint of the straight line part and the crank arm part is rotationally connected with the mounting seat, and the mounting seat is fixedly mounted on the bottom surface of the upper piece table or the lower piece table; the lifting driving mechanism is connected with the bottom end of the straight line part of any one crank.

Specifically, the series fan assembly further comprises a series air pipe and a rotary flashboard, and the plurality of independent fans are connected in series through the series air pipe; the side wall of the series air pipe is provided with an adjusting opening, and the series air pipe is communicated with the outside through the adjusting opening; the adjusting opening is fixedly connected with the rotary flashboard, the rotary flashboard comprises an adjusting cover plate, a flashboard seat and a driving mechanism, the flashboard seat is of a cylindrical pipe body structure, the flashboard seat is fixedly connected with the pipe wall of the series air pipe, the adjusting cover plate is arranged in the flashboard seat, and the central axis of the adjusting cover plate is superposed with the central axis of the flashboard seat; a shielding plate assembly is fixedly connected in the flashboard seat and is parallel to the adjusting cover plate, and the sum of the areas of the shielding plate assembly and the adjusting cover plate is larger than or equal to the cross sectional area of the flashboard seat; the adjusting cover plate is provided with a first connecting hole, and a central shaft of the adjusting cover plate penetrates through the first connecting hole; the driving mechanism comprises a rotary driving component and a driving output component, the driving output component is fixedly connected with the first connecting hole, a rotating shaft of the rotary driving component is in transmission connection with the driving output component, the rotary driving component drives the adjusting cover plate to rotate in the flashboard seat by taking a central shaft of the adjusting cover plate as a rotating shaft through the driving output component, and when the adjusting cover plate and the flashboard component cover the flashboard seat together, the rotary flashboard is closed, so that the adjusting opening is closed; when the adjusting cover plate and the shutter plate assembly are partially or completely overlapped, the rotary shutter is opened, so that the adjusting opening is opened.

Preferably, the driving output assembly comprises a screw rod and a screw rod seat, the output part of the rotary driving assembly is connected with the screw rod, the screw rod is in threaded connection with the screw rod seat, and the screw rod seat is fixed on the flashboard seat; the central shaft of the output part of the rotary driving assembly, the central shaft of the screw rod seat and the hole center of the first connecting hole are positioned on the same straight line, and the screw rod sequentially penetrates through the output part of the rotary driving assembly and the screw rod seat and then is fixedly connected with the first connecting hole; the rotary driving assembly drives the screw rod to rotate, and the screw rod rotates and moves in the screw rod seat in a telescopic mode along the inner direction and the outer direction of the adjusting opening.

One of the above technical solutions has the following beneficial effects:

1. when processing the glass of different thickness, through first lifting unit adjusts go up the air grid with down the air grid with the distance of rollgang is adjusted go up the air grid with down the air grid and wait to process the distance between the glass, reach the regulation go up the air grid with down the air grid blow the wind pressure of treating the cooling air on processing glass surface, make the wind pressure be fit for the glass that will process to improve finished glass's quality.

2. Be equipped with first collection wind chamber and second collection wind chamber, the first cooling air of series connection fan subassembly input through first air-supply line to first collection wind chamber, and the second cooling air is input through the second air-supply line to second collection wind chamber to the single fan subassembly, because the single fan subassembly only has a fan, and the series connection fan subassembly has a plurality of independent fan to establish ties, consequently, the wind pressure of first cooling air is higher than the wind pressure of second cooling air. Install the slide valve between first collection wind chamber and the second collection wind chamber, can be as required refrigerated glass's thickness, the independent fan of selecting to open or close to be connected with first collection wind chamber, or the selection is opened or is closed the slide valve to make first collection wind chamber and second collection wind chamber obtain the wind pressure that is suitable for, make go up the air grid with the wind pressure of the cooling air that the air grid blew off down is fit for the glass that will process, thereby improves finished glass's quality.

Drawings

FIG. 1 is a schematic block diagram of one embodiment of the present invention;

FIG. 2 is a schematic view of the structure of a glass-lifting device according to an embodiment of the present invention;

FIG. 3 is a schematic view of a second lift assembly in accordance with one embodiment of the present invention;

FIG. 4 is a plan view of a heating furnace according to an embodiment of the present invention;

FIG. 5 is a schematic structural view of a cooling air grid module according to an embodiment of the present invention;

FIG. 6 is a schematic structural view of a guide assembly of one embodiment of the present invention;

FIG. 7 is a schematic structural view of a guide assembly of another embodiment of the present invention;

FIG. 8 is a schematic structural view of a guide assembly of another embodiment of the present invention;

FIG. 9 is a schematic structural view of a first lift assembly of one embodiment of the present invention;

FIG. 10 is a schematic structural view of an upper air grid according to another embodiment of the present invention;

FIG. 11 is a schematic structural view of an air supply module according to an embodiment of the present invention;

FIG. 12 is a schematic structural view of a wind-collecting box of an embodiment of the present invention;

FIG. 13 is a schematic structural view of a wind-collecting box of another embodiment of the present invention;

fig. 14 is a schematic structural diagram of an air outlet adjusting device according to another embodiment of the present invention;

fig. 15 is a schematic structural view of an air outlet adjusting device and a gate valve according to an embodiment of the present invention;

FIG. 16 is a schematic structural view of a rotary shutter according to an embodiment of the present invention;

FIG. 17 is a schematic structural view of a rotary shutter according to another embodiment of the present invention;

FIG. 18 is an exploded view of a rotary ram of an embodiment of the present invention;

FIG. 19 is a schematic structural view of a rotary shutter according to an embodiment of the present invention when fully opened;

FIG. 20 is a schematic structural view of a rotary shutter according to an embodiment of the present invention when fully closed;

FIG. 21 is a sectional view taken in the direction A-A of FIG. 18;

fig. 22 is a sectional view taken in the direction B-B of fig. 19.

Wherein: 1, a loading platform; 11 a glass lifting device; 12 a second lifting assembly; 121 a crank; 1211 a straight line portion; 1212 crank arm portion; 122 a cylindrical boss; 123 a support table; 124 a mounting seat; 13 driving the connecting rod; 14 a lifting driving mechanism; 2, heating the furnace; 21 convection means; 3 cooling the air grid module; 31, an upper air grid 211; 311 an air inlet part; 32 lower air grids; 33 a frame; 34 a first lifting assembly; 341 a universal joint; 342 a first pull rod; 343 a second tension rod; 35 a guide assembly; 351 a guide rail part; 352 a sliding part; 4, a sheet discharging table; 5, conveying a roller way; 6, an air supply module; 61 air collecting box; 611, a box body; 6111 a first wind-collecting cavity; 6112 second wind collecting cavity; 6113 supporting the feet; 6114 a base plate; 612 a first air inlet duct; 613 a second air inlet pipe; 614 air outlet pipe; 62 a single fan assembly; 63 a series fan assembly; 631 an independent fan; 632 in series with an air pipe; 6321 adjust the opening; 64 a rotary shutter; 641 adjusting the cover plate; 6413 a first connection hole; 642 shutter seat; 6421 shutter plate assembly; 643 a drive mechanism; 6431 a rotary drive assembly; 6432 driving the output assembly; 643B a screw rod; 643C screw base; 65 gate valve; 651 connecting a pipe; 652 a first cylinder; 653 a second cylinder; 654 a first ram; 655 a second shutter; 656 a guide plate; 66 air outlet adjusting devices; 661 a wind screen; 662 a lifting device.

Detailed Description

Referring to fig. 1 to 22, a tempered glass production system capable of improving quality according to an embodiment of the present invention is described below, and as shown in fig. 1, the tempered glass production system includes an upper sheet table 1, a heating furnace 2, a cooling air grid module 3, a lower sheet table 4, a roller conveyor 5 and an air supply module 6, wherein the roller conveyor 5 sequentially passes through the upper sheet table 1, the heating furnace 2, the cooling air grid module 3 and the lower sheet table 4; as shown in fig. 5, the cooling air grid module 3 includes an upper air grid 31, a lower air grid 32 and a first lifting assembly 34, the roller conveyor 5 is disposed between the upper air grid 31 and the lower air grid 32, and the first lifting assembly 34 is configured to drive the upper air grid 31 and the lower air grid 32 to move towards the roller conveyor 5 or away from the roller conveyor 5; specifically, the glass heated by the heating furnace 2 at a high temperature needs to be cooled after being discharged, and the cooling speed of the glass with a larger thickness is lower, so that the glass is cracked due to the too high cooling speed, and quality accidents are caused. Therefore, the air pressure of the cooling air needs to be adjusted according to the thickness of the glass, and the quality accident is avoided. When processing the glass of different thickness, through first lifting unit 34 is adjusted go up the air grid 31 with down the air grid 32 with the distance of rollgang 5 is adjusted go up the air grid 31 with down the air grid 32 and wait to process the distance between the glass, reach the regulation go up the air grid 31 with down the air grid 32 blows the purpose of the wind pressure of the cooling air on waiting to process the glass surface, makes the wind pressure be fit for the glass that will process to improve finished glass's quality. When glass with smaller thickness is processed, the distance between the upper air grid 31 and the lower air grid 32 and the conveying roller way 5 is shortened, so that the air pressure can be improved, and the cooling speed is accelerated; when processing the great glass of thickness, increase go up the air grid 31 with the distance between air grid 32 and the rollgang 5 down, just can reduce the wind pressure, avoid cooling's speed too fast, lead to glass to explode and split. In addition, the distance between the upper air grid 31 and the lower air grid 32 and the conveying roller way 5 can be adjusted, so that the distance between the upper air grid 31 and the lower air grid 32 can be more consistent with the thickness of the glass to be processed, and the glass to be processed can smoothly pass through the cooling air grid module 3. As shown in fig. 11, the air supply module 6 includes a wind collecting box 61, a single fan assembly 62 and a serial fan assembly 63, the single fan assembly 62 is a single fan, and the serial fan assembly 63 is formed by connecting a plurality of independent fans 631 in series; specifically, the air outlet of the single fan assembly 62 is the air outlet of the fan, and the air outlet of the multiple independent fans 631 connected in series is the air outlet of the series fan assembly 63. As shown in fig. 12, 13 and 15, the wind collecting box 61 includes a box body 611, a first wind inlet pipe 612, a second wind inlet pipe 613 and a wind outlet pipe 614, a first wind collecting cavity 6111 and a second wind collecting cavity 6112 are arranged in the box body 611, a gate valve 65 is arranged between the first wind collecting cavity 6111 and the second wind collecting cavity 6112, and the opening and closing of the gate valve 65 controls the communication or closing of the first wind collecting cavity 6111 and the second wind collecting cavity 6112; the rear end of the first air collecting cavity 6111 is connected with the air outlet of the series fan assembly 63 through the first air inlet pipe 612, and the front end of the first air collecting cavity 6111 is connected with the air inlet portion 311 of the upper air grid 31 and/or the air inlet portion 311 of the lower air grid 32 through the air outlet pipe 614; the rear end of the second air collecting cavity 6112 is connected to the air outlet of the single fan assembly 62 through the second air inlet pipe 613, and the front end of the second air collecting cavity 6112 is connected to the air inlet portion 311 of the upper air grid 31 and/or the air inlet portion 311 of the lower air grid 32 through the air outlet pipe 614. Be equipped with first collection wind chamber 6111 and second collection wind chamber 6112, the first cooling air of series connection fan subassembly 63 input through first air-supply line 612 to first collection wind chamber 6111, and single fan subassembly 62 inputs the second cooling air to second collection wind chamber 6112 through second air-supply line 613, because single fan subassembly 62 only has a fan, and series connection fan subassembly 63 has a plurality of independent fans 631 to establish ties, consequently, the wind pressure of first cooling air is higher than the wind pressure of second cooling air. Install the slide valve 65 between first collection wind chamber 6111 and the second collection wind chamber 6112, can be according to the thickness of the glass that needs the cooling, select to open or close the independent fan 631 of being connected with first collection wind chamber 6111, or select to open or close slide valve 65 to make first collection wind chamber 6111 and second collection wind chamber 6112 obtain the wind pressure that is suitable for, make go up the air grid 31 with the wind pressure of the cooling air that down air grid 32 blew out is fit for the glass that will process, thereby improves the quality of finished product glass.

For example, when the tempered glass with a smaller thickness needs to be cooled, the single-fan assembly 62 and the serial-fan assembly 63 are both turned on, the wind pressure input from the first wind collecting chamber 6111 is higher, the wind pressure input from the second wind collecting chamber 6112 is lower, and the gate valve 65 is turned off, so that a cooling section and a passing section are formed in the cooling air grid module 3, wherein the cooling section is close to the heating furnace 2, and the passing section is far from the heating furnace 2. The cooling air with lower air pressure is output to the cooling section with higher glass temperature through the second air collecting cavity 6112 and the second group of air outlet pipes 614, so that the glass is pre-cooled firstly, and then when the glass passes through the passing section, the cooling air with higher air pressure is output to the passing section through the first air collecting cavity 6111 and the first group of air outlet pipes 614, so that the glass is rapidly cooled, and the production efficiency is improved; on the contrary, when thicker toughened glass needs to be cooled, the series fan assembly 63 with higher wind pressure connected with the first wind collecting cavity 6111 can be closed, or the wind pressure at the wind outlet of the series fan assembly 63 is adjusted by the rotary flashboard 64, so that the wind pressure at the wind outlet of the series fan assembly 63 is reduced, then the flashboard valve 65 is opened, the single fan assembly 62 with lower wind pressure connected with the second wind collecting cavity 6112 is opened, the wind in the first wind collecting cavity 6111 is mixed with the wind in the second wind collecting cavity 6112 through the flashboard valve 65, the wind pressure in the first wind collecting cavity 6111 and the second wind collecting cavity 6112 are the same, and the wind pressure is lower, so that the wind pressure of the cooling wind blown out by the upper wind grid 31 and the lower wind grid 32 is uniform and lower, the glass passes through the cooling section and the passing section at a relatively lower speed, and the glass is cooled continuously and uniformly at the cooling section and the passing section, the glass can be prevented from being cracked due to the fact that the glass is cooled too fast, so that quality accidents are avoided, and the quality of output glass is guaranteed.

In some embodiments, as shown in fig. 5 and 9, the first lifting assembly 34 includes a universal joint 341, a first pull rod 342, and a second pull rod 343, the first pull rod 342, the universal joint 341, and the second pull rod 343 are connected in sequence, the first pull rod 342 is movably connected to the frame 33 of the cooling air grid module 3, and the second pull rod 343 is fixedly connected to the upper air grid 31 and/or the lower air grid 32; specifically, the universal joint 341 is also called a universal joint, and is a member for realizing variable angle power transmission, and the first pull rod 342 pulls the second pull rod 343 through the universal joint 341, so as to drive the upper air grid 31 or the lower air grid 32 to move. As shown in fig. 5 to 8, the cooling air grid module 3 further includes a guide assembly 35, the guide assembly 35 includes a guide rail portion 351 and a sliding portion 352, the guide rail portion 351 is fixed to the frame 33, the sliding portion 352 is fixed to the upper air grid 31 and/or the lower air grid 32, and the sliding portion 352 is slidably connected to the guide rail portion 351; the guide rail portion 351 extends in a direction parallel to the longitudinal direction of the first lifting assembly 34. Thus, when the first lifting assembly 34 drives the upper air grid 31 and/or the lower air grid 32 to perform lifting movement, the sliding direction of the sliding portion 352 in the guide rail portion 351 is the same as the lifting movement direction of the upper air grid 31 and/or the lower air grid 32, so as to prevent the sliding portion 352 and the guide rail portion 351 from being locked. For example, as shown in fig. 6, the guide rail portion 351 may be a guide post, and the sliding portion 352 may be a guide sleeve sleeved on the guide post; for another example, the guide portion 351 may be a guide rail, and the sliding portion 352 may be a guide wheel; as shown in fig. 7, the guide rail portion 351 is a linear guide groove, the sliding portion 352 is a guide wheel, the sliding portion 352 is disposed in the guide rail portion 351 and rolls in the guide rail portion 351, and when the upper grill 31 and/or the lower grill 32 moves up and down, the sliding portion 352 rolls in the guide rail portion 351, so that the sliding portion 352 and the guide rail portion 351 guide the upper grill 31 and/or the lower grill 32. As shown in fig. 8, the guide rail portion 351 is a linear hollow groove, the sliding portion 352 is a guide block, and the sliding portion 352 is provided in the guide rail portion 351 and slides in the longitudinal direction of the guide rail portion 351; an opening is formed in a side wall of the guide rail portion 351, the opening extends along a length direction of the guide rail portion 351, and when the upper air grid 31 and/or the lower air grid 32 perform a lifting motion, the sliding portion 352 slides in the guide rail portion 351, so that the sliding portion 352 and the guide rail portion 351 play a role in guiding the upper air grid 31 and/or the lower air grid 32.

Alternatively, as shown in fig. 15, the gate valve 65 includes a connecting pipe 651, a first cylinder 652, a second cylinder 653, a first gate 654, and a second gate 655; the connecting pipe 651 is mounted on the partition plate between the first wind collecting cavity 6111 and the second wind collecting cavity 6112, and the first wind collecting cavity 6111 is communicated with the second wind collecting cavity 6112 through the connecting pipe 651; the first cylinder 652 and the second cylinder 653 are respectively installed at the front side and the rear side of the connection pipe 651; the rear end of the first shutter 654 is inserted into the connecting pipe 651 through the front side wall of the connecting pipe 651, the front end of the second shutter 655 is inserted into the connecting pipe 651 through the rear side wall of the connecting pipe 651, the front end of the first shutter 654 is in transmission connection with the output end of the first cylinder 652, and the rear end of the second shutter 655 is in transmission connection with the output end of the second cylinder 653; the first cylinder 652 drives the first gate plate 654 to move back and forth, the second cylinder 653 drives the second gate plate 655 to move back and forth, the second gate plate 655 and the first gate plate 654 are arranged at intervals from left to right, the first gate plate 654 completely covers the connecting pipeline 651 when the first gate plate 654 slides to the maximum stroke, and the second gate plate 655 covers a partial area of the connecting pipeline 651 when the second gate plate 655 slides to the maximum stroke. The first damper 654 or the second damper 655 can be controlled to move back and forth by the first cylinder 652 or the second cylinder 653, so as to control the opening and closing of the damper valve 65, and further control the connection or the disconnection of the first wind collecting cavity 6111 and the second wind collecting cavity 6112, so as to adjust the wind pressure output by the first group of wind outlet pipes 614 and the second group of wind outlet pipes 614. The first air collecting chamber 6111 and the second air collecting chamber 6112 are communicated through a gap between the first shutter plate 654 and the second shutter plate 655, the second shutter plate 655 moves forwards along with the backward movement of the first shutter plate 654, the rear end of the first shutter plate 654 and the front end of the second shutter plate 655 are gradually close, the gap between the rear end of the first shutter plate 654 and the front end of the second shutter plate 655 is gradually reduced, the air flow in the gap is reduced, when the rear end of the first shutter plate 654 passes the front end of the second shutter plate 655 forwards, the channel available for air supply is the gap between two opposite plate surfaces of the first shutter plate 654 and the second shutter plate 655, when the rear end of the first shutter plate 654 passes the rear side of the connecting pipe 651, the connecting pipe 651 is completely blocked, and the connecting pipe 651 is in a complete closing state; the air supply passage of the connecting duct 651 is gradually reduced from fully opened to fully closed; in a similar way, in the process from complete closing to complete opening, the air flow conveying channel of the connecting pipeline 651 is also gradually enlarged, and under the condition that the air pressure of the fan is unchanged, the fluctuation of the air pressure of the air flow conveyed in the connecting pipeline 651 is small, so that the defect of air lines on the surface of the glass caused by overlarge air pressure change can be effectively avoided.

Specifically, as shown in fig. 15, an end edge of a rear end of the first shutter 654 is a circular arc shape protruding toward a center direction of the connecting pipe 651; the end edge of the front end of the second gate plate 655 and the end edge of the rear end of the first gate plate 654 are arc curved surfaces which are mutually matched in a sealing way; as shown in fig. 18 and 19, when the two shutters are close to each other, the change of the ventilation area is a curve, the change of the force of the wind on the board surface is relatively gentle, so that the change of the force output by the cylinder is more gentle, the control of the first shutter 654 and the second shutter 655 is more stable, and the cylinder is not easily damaged. The gate valve 65 further comprises a plurality of guide plates 656; guide grooves are formed in the guide plates 656, the guide plates 656 are arranged in groups two by two and are symmetrically arranged on the front side and the rear side of the partition plate respectively, and the guide plates 656 are distributed on the front side and the rear side of the connecting pipeline 651; the first shutter 654 and the second shutter 655 slide along the corresponding guide grooves of the guide plate 656. The upper and lower sides of the first shutter 654 or the second shutter 655 move left and right in the guide grooves of the corresponding guide plates 656, so that the first shutter 654 and the second shutter 655 do not swing up and down when moving left and right, and the operation stability of the wind collecting box 61 with the wind pressure adjusting function is further improved.

Preferably, as shown in fig. 13 and 14, the front end of the first air collecting cavity 6111 and the front end of the second air collecting cavity 6112 are both communicated with a plurality of air outlet pipes 614 distributed in an array, the first air collecting cavity 6111 supplies air to the passing section of the upper air grid 31 and/or the lower air grid 32 through the air outlet pipes 614, and the second air collecting cavity 6112 supplies air to the cooling section of the upper air grid 31 and/or the lower air grid 32 through the air outlet pipes 614; specifically, the cooling section of the upper air grid 31 and/or the lower air grid 32 is close to the heating furnace 2, and the passing section of the upper air grid 31 and/or the lower air grid 32 is far away from the heating furnace 2. The front end in first collection wind chamber 6111 and the front end in second collection wind chamber 6112 install respectively air-out adjusting device 66, air-out adjusting device 66 includes elevating gear 662 and deep bead 661, deep bead 661 with elevating gear 662 transmission is connected, elevating gear 662 drives deep bead 661 reciprocates, when reciprocating deep bead 661 shelters from one row go out tuber pipe 614 or be located two rows from top to bottom go out the region between the tuber pipe 614. Can pass through air-out adjusting device 66 adjusts the upper and lower height of deep bead 661, can partially or totally cover one row of tuber pipe 614 or can not cover all tuber pipes 614 to reach the purpose of adjusting the wind pressure and the wind speed of tuber pipe 614 output, ensure toughened glass refrigerated production quality.

Specifically, as shown in fig. 15, the box body 611 is further provided with four support legs 6113, and the four support legs 6113 are respectively installed below four corners of the box body 611; the surfaces of the bottom surfaces of the four support legs 6113 are the same plane; the surfaces of the bottom surfaces of the four support legs 6113 are the same plane, so that the box 611 has better installation stability, and the operation stability of the air collecting box 61 with the air pressure adjusting function can be improved. The box body 611 is also provided with a bottom plate 6114; the bottom plate 6114 is located below the first air collecting cavity 6111 and the second air collecting cavity 6112, and a distance between the bottom edge of the rear side of the bottom plate 6114, which is far away from the air outlet pipe 614, and the bottom surface of the supporting leg 6113 is larger than a distance between the bottom edge of the front side of the bottom plate 6114, which is close to the air outlet pipe 614, and the bottom surface of the supporting leg 6113. The wind collecting box 61 is installed close to the cooling section and the passing section of the upper wind grid 31 and/or the lower wind grid 32, cooling wind blows downwards on the surface of the glass, the cooling wind with heat exchanged is changed into hot wind carrying heat and then is discharged to the rear side of the box body 611 through the lower portion of the bottom plate 6114, the bottom plate 6114 is arranged to be inclined, and the bottom edge of the rear side of the bottom plate 6114, which is far away from the wind outlet pipe 614, is higher than the bottom edge of the front side of the bottom plate 6114, so that the discharge and diffusion of the hot wind are facilitated, and the glass cooling efficiency is improved.

Preferably, as shown in fig. 4, a plurality of convection devices 21 are distributed on the top array of the heating furnace 2, an air inlet of each convection device 21 is connected with an air outlet of the heating furnace 2, an air outlet of each convection device 21 is connected with an air inlet of the heating furnace 2, and an air inlet of the heating furnace 2 is provided with a heating assembly. Specifically, after the hot air is blown to the glass, the heat of the hot air is absorbed by the glass, the temperature of the glass is increased, the temperature of the hot air after the heat absorption is reduced, the hot air is absorbed by the air inlet of the convection device 21, and then the hot air after the temperature reduction is blown out from the air outlet of the convection device 21 to the air inlet of the heating furnace 2, passes through the heating assembly, is heated again, and the temperature is increased. The convection device 21 improves the utilization rate of the hot air in the heating furnace 2, thereby improving the heating efficiency. The convection device 21 promotes the air circulation in the heating furnace 2 through the operation of the fan, so that the heating temperature is easier to control, the glass heating stability is improved, and the quality of the glass finished product is improved. It should be noted that, as shown in fig. 5 and 10, one end of the air inlet portion 311 of the upper air grid 31 and/or the air inlet portion 311 of the lower air grid 32 close to the air outlet pipe 614 is a circular opening, the other end of the air inlet portion 311 of the upper air grid 31 and/or the air inlet portion 311 of the lower air grid 32 far from the air outlet pipe 614 is a rectangular opening, and a cross section of a side wall of the air inlet portion 311 gradually changes from a circular shape to a rectangular shape from a direction close to the air outlet pipe 614 to a direction far from the air outlet pipe 614. Thus, the inner walls of the air inlet portions 311 of the upper air grid 31 and/or the air inlet portions 311 of the lower air grid 32 can be made smoother, and the energy consumed when cooling air passes through the air inlet portions 311 of the upper air grid 31 and/or the air inlet portions 311 of the lower air grid 32 can be reduced.

In some embodiments, as shown in fig. 2 and 3, the upper stage 1 and/or the lower stage 4 are provided with a glass lifting device 11, the glass lifting device 11 includes a second lifting assembly 12, a driving link 13 and a lifting driving mechanism 14, the second lifting assembly 12 is disposed between two adjacent roller shafts of the roller conveyor 5; a plurality of the second lifting assemblies 12 are rotatably connected to the driving connecting rod 13, and the second lifting assemblies 12 comprise cranks 121, cylindrical bosses 122, supporting tables 123 and mounting bases 124; the crank 121 comprises a straight line portion 1211 and a crank arm portion 1212, wherein the front side surface and the rear side surface of the straight line portion 1211 are symmetrically and integrally formed with a cylindrical boss 122, and the cylindrical boss 122 is rotatably connected with the driving connecting rod 13; in this way, the center axis of the cylindrical boss 122 provided on the front side surface of the crank 121 coincides with the center axis of the cylindrical boss 122 provided on the rear side surface of the crank 121. The crank arm portion 1212 is rotatably connected to the support base 123, the mounting seat 124 is rotatably connected to a joint between the linear portion 1211 and the crank arm portion 1212, and the mounting seat 124 is fixedly mounted on the bottom surface of the upper stage 1 or the lower stage 4; the elevation driving mechanism 14 is connected to a bottom end of the linear portion 1211 of any one of the cranks 121. The glass lifting device 11 is used for lifting glass located on the upper sheet table 1 and/or the lower sheet table 4, the glass is placed on the glass lifting device 11 for the upper sheet table 1, then the glass is descended to the conveying roller way 5 through the glass lifting device 11, and when the glass is conveyed to the lower sheet table 4 for the lower sheet table 4, the glass is lifted through the glass lifting device 11, so that a worker can conveniently move the glass away. When glass with a large jacking area is lifted, the cylindrical boss 122 is a main stress point, and the cylindrical boss 122 and the crank 121 are integrally formed, so that the connection firmness between the cylindrical boss 122 and the crank 121 is improved, and the cylindrical boss 122 cannot be crushed due to the large weight of the glass. The integral forming structure of the cylindrical boss 122 and the crank 121 can bear the weight of heavier glass, so that the problem that the rotary connection part of the crank 121 and the first driving connecting rod 13 is easily damaged when the glass with heavy weight is jacked is solved, the probability of production accidents is reduced, and the production efficiency is improved.

The lifting driving mechanism 14 drives the crank 121 to rotate counterclockwise by using the joint between the linear portion 1211 and the crank portion 1212 as a rotation axis, and when the crank portion 1212 rotates counterclockwise, the end of the crank portion 1212 away from the linear portion 1211 tilts upward to drive the supporting platform 123 to move upward. When the crank 121 rotates counterclockwise by using the joint between the linear portion 1211 and the crank arm portion 1212 as a rotation axis, the linear portion 1211 of the crank 121 pushes the first driving connecting rod 13 to move from left to right through the structure in which the cylindrical boss 122 and the first driving connecting rod 13 are rotationally connected, so as to drive the remaining second lifting assemblies 12 to move counterclockwise, so that the supporting platforms 123 corresponding to the remaining second lifting assemblies 12 all move upward synchronously, and lift up the glass together. The lifting driving mechanism 14 drives the crank 121 to rotate clockwise around the joint between the linear portion 1211 and the crank arm portion 1212 as a rotation axis, and when the crank arm portion 1212 rotates clockwise, one end of the crank arm portion 1212, which is away from the linear portion 1211, moves downward to drive the support platform 123 to move downward. When the crank 121 rotates clockwise with the joint of the linear portion 1211 and the crank arm portion 1212 as a rotation axis, the linear portion 1211 of the crank 121 pushes the first driving link 13 to move from right to left through the structure of the rotary connection between the cylindrical boss 122 and the first driving link 13, so as to drive the remaining second lifting assembly 12 to move clockwise, so that the supporting platforms 123 corresponding to the remaining second lifting assembly 12 all move downward synchronously, and the glass is dropped onto the upper sheet table 1 or the lower sheet table 4.

It is worth noting that, as shown in fig. 11, 16, 17 and 18, the in-line blower assembly 63 further comprises an in-line air duct 632 and a rotary shutter 64, and a plurality of the individual blowers 631 are connected in series through the in-line air duct 632; an adjusting opening 6321 is formed in a side wall of the serial air pipe 632, and the serial air pipe 632 is communicated with the outside through the adjusting opening 6321; the rotary shutter 64 is fixedly connected to the adjusting opening 6321, the rotary shutter 64 includes an adjusting cover 641, a shutter seat 642 and a driving mechanism 643, the shutter seat 642 is a cylindrical tube structure, the shutter seat 642 is fixedly connected to the tube wall of the series air duct 632, the adjusting cover 641 is disposed in the shutter seat 642, and the central axis of the adjusting cover 641 coincides with the central axis of the shutter seat 642; therefore, the damper seat 642 can rotate around the central axis of the damper seat 642 and does not collide with the inner wall of the damper seat 642. A shielding plate assembly 6421 is fixedly connected in the shutter seat 642, the shielding plate assembly 6421 is parallel to the adjusting cover 641, and the sum of the areas of the shielding plate assembly 6421 and the adjusting cover 641 is greater than or equal to the cross-sectional area of the shutter seat 642; for example, the shutter assembly 6421 has a semicircular structure, and the adjustment cover 641 also has a semicircular structure. As another example, the shutter assembly 6421 has a 120 ° fan-shaped structure, and the adjustment cover 641 has a fan-shaped structure larger than 240 °. When the shutter assembly 6421 and the adjusting cover 641 are staggered, the surface formed by the shutter assembly 6421 and the adjusting cover 641 can cover the entire cross-sectional area of the shutter base 642, so as to close the rotary shutter 64. The adjusting cover 641 is provided with a first connection hole 6413, and a central axis of the adjusting cover 641 passes through the first connection hole 6413; the driving mechanism 643 includes a rotation driving assembly 6431 and a driving output assembly 6432, the driving output assembly 6432 is fixedly connected to the first connection hole 6413, a rotation shaft of the rotation driving assembly 6431 is in transmission connection with the driving output assembly 6432, the rotation driving assembly 6431 drives the adjusting cover 641 to rotate in the shutter seat 642 by using its own central shaft as a rotation shaft through the driving output assembly 6432, and when the adjusting cover 641 and the shutter assembly 6421 cover the shutter seat 642 together, the rotation shutter 64 is closed, so that the adjusting opening 6321 is closed; when the adjustment cover 641 and the shutter member 6421 are partially or completely overlapped, the rotary shutter 64 is opened, so that the adjustment opening 6321 is opened. Specifically, by adjusting the rotation angle of the adjusting cover 641, the opening of the rotary shutter 64 can be adjusted, so as to adjust the opening of the adjusting opening 6321, thereby achieving the purpose of controlling the wind pressure. As shown in fig. 16, in this embodiment, the rotation driving component 6431 is a speed reduction motor. In another embodiment, as shown in fig. 17, the rotation driving component 6431 is a cylinder, and the rotation driving component 6431 drives the u-driving output component 6432 to rotate through a crank arm.

Preferably, as shown in fig. 19 to 22, the driving output assembly 6432 includes a screw rod 643B and a screw rod seat 643C, the output portion of the rotating driving assembly 6431 is connected with the screw rod 643B, the screw rod 643B is screwed with the screw rod seat 643C, and the screw rod seat 643C is fixed to the shutter seat 642; a central axis of the output part of the rotary driving assembly 6431, a central axis of the screw holder 643C and a hole center of the first connection hole 6413 are located on the same straight line, and the screw 643B sequentially passes through the output part of the rotary driving assembly 6431 and the screw holder 643C and then is fixedly connected with the first connection hole 6413; the rotary driving assembly 6431 drives the screw rod 643B to rotate, and the screw rod 643B rotates and moves telescopically in the screw rod seat 643C along the inner and outer directions of the adjusting opening 6321. While the rotation driving assembly 6431 drives the adjusting cover 641 to rotate in the shutter seat 642 by taking the central axis of the rotation driving assembly 6432 as a rotating shaft, the screw rod 643B of the driving output assembly 6432 can rotate and make telescopic motion in the inner and outer directions of the adjusting opening 6321, so as to drive the adjusting cover 641 to make telescopic motion in the same direction, and further approach or leave the shutter assembly 6421. Thus, when the adjusting cover 641 rotates to close the rotary shutter 64, so that the adjusting opening 6321 is closed, because the adjusting cover 641 moves close to the shielding plate 6421, a gap between the adjusting cover 641 and the shielding plate 6421 is avoided, the air tightness of the rotary shutter 64 is improved, and the closed adjusting opening 6321 does not leak air, so that the accuracy of adjusting the air pressure of the air supply module 6 is improved, the air flow generated by the air supply module 6 is kept stable, the air flow blown onto the glass surface by the cooling air grid module 3 is kept stable, and the quality of the finished glass product is improved; when the adjusting cover 641 rotates to open the rotary shutter 64, so that the adjusting opening 6321 is opened, the adjusting cover 641 moves away from the shutter assembly 6421, thereby preventing friction between the adjusting cover 641 and the shutter assembly 6421, and improving the smoothness of rotation of the adjusting cover 641. Since the central axis of the output portion of the rotation driving assembly 6431, the central axis of the screw holder 643CC, and the hole center of the first connection hole 6413 are located on the same straight line, the straightness of the screw 643BB can be ensured, thereby ensuring the fluency of the screw 643B during rotation. In addition, the rotary flashboard 64 adopts a rotary opening and closing structure, so that the use space is saved compared with a direct-insertion flashboard, and the application flexibility of the rotary flashboard 64 is increased.

The specific process of processing the glass by the glass tempering system is as follows: firstly, glass to be processed is placed on the upper sheet table 1, the glass to be processed is sent into the heating furnace 2 through the conveying roller way 5, the heating furnace 2 heats the glass to be processed, and in the heating process, the convection device 21 works to promote the air flow in the heating furnace 2, so that the purpose of improving the glass heating efficiency is achieved; after the glass to be processed is heated to a preset temperature, the glass is sent into the cooling air grid module 3 through the conveying roller way 5, at this time, the air supply module 6 works, the corresponding independent fan 631 moves to convey high-pressure air, the high-pressure air is blown to the surface of the glass through the cooling air grid module 3 to be cooled, for processing the glass with different types and sizes, the opening degree of the adjusting opening 6321 is adjusted through the rotary flashboard 64, and the gate valve 65 is adjusted, so that the air pressure of cold air blown to the surface of the glass is adjusted; after the glass is cooled by the cooling air grid module 3, the glass is conveyed to the lower sheet table 4 through the conveying roller table 5, and then the finished toughened glass can be formed.

The technical principle of the present invention is described above in connection with specific embodiments. The description is made for the purpose of illustrating the principles of the invention and should not be construed in any way as limiting the scope of the invention. Based on the explanations herein, those skilled in the art will be able to conceive of other embodiments of the present invention without inventive effort, which would fall within the scope of the present invention.