Glass manufacturing continuous blanking assembly

Abstract

The utility model discloses a continuous blanking assembly for glass manufacturing, which comprises a fixed frame, a blanking device is arranged on the inner side of the fixed frame, the blanking device comprises a suction cup, a movable frame, an air pipe and an air pump, one end of the air pump is connected with the air pipe, the suction cup is arranged below the movable frame, and the top end of the suction cup is connected with an adjusting device. The adjusting device comprises a hard pipe, driven wheels, a rotating plate, a control sleeve, a fixing pipe, a rotating pipe and a driving wheel, the rotating pipe is connected to the inner side of the control sleeve, the driven wheels are engaged with the driving wheel, a positioning mechanism is arranged on the outer side of the hard pipe, and the positioning mechanism comprises a connecting block, a positioning sleeve, a reset spring, an arc-shaped groove, a round hole, a reset block, a reset sleeve, a limiting rod and a limiting plate. The two ends of the reset spring are connected with the connecting block and the reset block, the arc-shaped groove is formed in the reset sleeve, the round hole is formed in one end of the arc-shaped groove, the limiting rod is connected to one side of the positioning sleeve, and the limiting plate is fixedly arranged on the limiting rod. The blanking efficiency is improved, the use flexibility of equipment is improved, and stable operation of the equipment is guaranteed.

Description

Technical Field

[0001] The utility model relates to the technical field of glass manufacturing blanking, and more particularly to a continuous blanking component for glass manufacturing. Background Art

[0002] In the modern glass manufacturing industry, the blanking process is a crucial technical node in the entire production process. However, there are many serious technical limitations in the existing technology, which seriously restrict the automation level and production efficiency of glass production.

[0003] First of all, in traditional glass unloading operations, production companies generally rely on the backward manual operation mode. This operation mode not only greatly increases the labor intensity of production, but also leads to a significant reduction in production efficiency. During the manual unloading process, the operator needs to repeatedly perform repetitive and high-intensity physical labor, which is not only prone to cause occupational fatigue and potential occupational health risks, but also causes unstable operation accuracy due to human factors, thereby affecting the quality consistency of glass products. What is more serious is that in the context of large-scale and continuous production, this manual unloading mode has become a key bottleneck restricting the advancement of production technology.

[0004] Secondly, in order to break through the technical limitations of manual unloading, some advanced manufacturing companies have begun to try to use vacuum adsorption suction cup technology to realize automatic unloading of glass. However, this seemingly advanced technical solution also has technical defects. The existing vacuum adsorption system generally has a key problem: the vacuum speed is fixed and cannot be flexibly adjusted according to different models, thicknesses and specifications of glass. In the actual production process, different types of glass have significantly different requirements for adsorption force. For example, ultra-thin glass, tempered glass, special process glass, etc. have different requirements for the sensitivity and stability of adsorption force during the unloading process. The fixed vacuum speed is obviously unable to meet such diverse production needs. At the very least, it will lead to unstable unloading, and at worst, it will cause damage or breakage on the glass surface, seriously affecting the product yield.

[0005] What is even more troublesome is that although some manufacturers are aware of the necessity of adjusting the exhaust speed and have tried to equip corresponding adjustment devices, the structural design of these adjustment mechanisms is extremely simple and crude. In the actual working process, due to the inevitable existence of various physical interferences and pressure fluctuations, these simple adjustment mechanisms can easily cause the preset exhaust speed to change instantly. This instability not only directly affects the accuracy of glass unloading, but may also cause more serious system imbalance, making the production equipment face greater technical risks under high-intensity working conditions. Utility Model Content

[0006] (1) Technical problems solved

[0007] In view of the problems existing in the prior art, the utility model provides a continuous blanking assembly for glass manufacturing to solve the technical problems mentioned in the background technology.

[0008] (2) Technical solution

[0009] To achieve the above-mentioned purpose, the utility model provides the following technical solutions: a continuous unloading assembly for glass manufacturing, comprising a fixed frame, characterized in that: a unloading device is arranged on the inner side of the fixed frame, the unloading device comprises a suction cup, a movable frame, an air pipe and an air pump, the air pump input end is connected to the air pipe, the movable frame is arranged on the inner side of the fixed frame, the suction cup is detachably mounted below the movable frame, the top of the suction cup is connected to an adjustment device, the adjustment device comprises a hard pipe, a driven wheel, a rotating plate, a control sleeve, a fixed pipe, a rotating pipe and a driving wheel, the hard pipe is fixedly connected to the other end of the air pipe, the driven wheel is rotatably arranged in the hard pipe, the two sides of the control sleeve are respectively rotatably connected to the hard pipe and the fixed pipe, and the fixed pipe is fixedly connected to the top of the air pipe The cam is fixedly connected to the inner side of the control sleeve, the driving wheel is fixedly connected to one end of the rotating tube, and the plurality of driven wheels are respectively engaged with the driving wheel, and a positioning mechanism is provided on the outside of the hard tube, and the positioning mechanism includes a connecting block, a positioning sleeve, a return spring, an arc groove, a circular hole, a return block, a return sleeve, a limit rod and a limit plate, the connecting block is fixedly connected to the outside of the hard tube, the positioning sleeve is arranged on the outside of the hard tube, the two ends of the return spring are respectively connected to the connecting block and the return block, the arc groove is opened on the return sleeve, the circular hole is opened at one end of the arc groove, the return block is fixedly connected to one side of the return sleeve, the return sleeve is rotatably sleeved on the outside of the hard tube, the limit rod is connected to one side of the positioning sleeve, and the limit plate is fixedly arranged on the limit rod.

[0010] The present invention is further configured such that a plurality of through holes are provided on the rotating plate.

[0011] The utility model is further configured as follows: a plurality of positioning rods are slidingly provided on the side wall of the control sleeve, a connecting spring is connected to the outer wall of the control sleeve, a plurality of positioning grooves are opened on the outside of the hard tube, one end of the positioning rod is connected to the outer wall of the control sleeve through the connecting spring, and the other end of the positioning rod is inserted into the positioning groove.

[0012] The present invention is further configured such that a guide groove is provided on the outside of the hard tube, a guide block is fixedly provided on the inside of the positioning sleeve, and the guide groove is adapted to the guide block.

[0013] The utility model is further configured such that a movable spring is provided on the outer movable sleeve of the limiting rod, one end of the movable spring is connected to the positioning sleeve, and the other end of the movable spring is in contact connection with the reset sleeve.

[0014] The utility model is further configured as follows: a mounting bracket is detachably provided on the inner side of the fixing bracket, a motor is installed on the top of the mounting bracket, a transmission wheel is rotatably provided below the mounting bracket, and one of the transmission wheels is connected to the output end of the motor, a transmission belt is sleeved on the outer side of the transmission wheel, a sliding bracket is movably provided below the mounting bracket, the top of the sliding bracket is connected to the transmission belt, a cylinder is detachably provided on the bottom end of the sliding bracket, a piston rod is connected to the output end of the cylinder, and the bottom end of the piston rod is connected to the top end of the movable bracket. The above components realize precise automatic unloading operation.

[0015] The utility model is further configured such that a slide rail is detachably provided below the mounting frame, a slider is detachably provided above the sliding frame, and the slider is slidably provided below the slide rail. The configuration of the slide rail and the slider ensures the smooth movement of the sliding frame.

[0016] The utility model is further configured such that a conveying assembly is provided below the suction cup, and the conveying assembly is detachably mounted on the inner side of the fixing frame. The arrangement of the conveying assembly facilitates the conveying of the glass.

[0017] (3) Beneficial effects

[0018] Compared with the prior art, the present invention provides a continuous blanking assembly for glass manufacturing, which has the following beneficial effects:

[0019] 1. The unloading device effectively solves the serious technical defects of low efficiency and high labor intensity of traditional manual unloading mentioned in the background technology through an innovative combination of components such as a fixed frame, a suction cup, a movable frame, an air pipe and an air pump. This innovative automated unloading structure realizes a fully automated process from glass transportation to adsorption, movement and placement through pneumatic control and precision mechanical design. It not only greatly improves production efficiency, but also significantly reduces the labor intensity of operators. It fundamentally breaks through the technical limitations of the traditional manual unloading mode and ensures the continuity and stability of the production process.

[0020] 2. The adjustment device adopts the precise coordination of hard tubes, driven wheels, rotating plates, control sleeves, fixed tubes, rotating tubes and driving wheels, which completely solves the problem that the vacuum adsorption system's exhaust speed cannot be flexibly adjusted mentioned in the background technology. Through precise transmission mechanism and adjustment, the gas passage speed is accurately controlled, meeting the differentiated requirements for adsorption force during the unloading process of different types of glass, effectively overcoming the technical limitations of the traditional adsorption system's fixed exhaust speed, and significantly improving the flexibility and adaptability of the unloading system.

[0021] 3. The positioning mechanism successfully solves the problem of insufficient stability of the adjustment mechanism mentioned in the background technology through the ingenious design of components such as connecting blocks, positioning sleeves, reset springs, arc grooves, round holes, reset blocks, reset sleeves, limit rods and limit plates. Through multiple limit, reset and guide designs, it not only ensures the accuracy of the vacuum speed adjustment, but also fundamentally avoids the position deviation caused by external interference, effectively overcomes the technical defects of the traditional positioning mechanism with simple structure and poor anti-interference ability, and ensures the structural stability and precision of the blanking device under high-intensity working conditions. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 This is a schematic diagram of the overall structure of a continuous blanking assembly for glass manufacturing in the present utility model;

[0023] Figure 2 It is a structural diagram of the mounting frame and the movable frame in the utility model;

[0024] Figure 3 It is a cross-sectional structural diagram of the movable frame and the sliding frame in the utility model;

[0025] Figure 4 It is a structural diagram of the adjusting device and the fixing mechanism in the utility model;

[0026] Figure 5 It is a cross-sectional structural diagram of the adjusting device and the fixing mechanism in the present invention;

[0027] Figure 6 for Figure 5 Schematic diagram of the locally enlarged structure at point A in the middle.

[0028] In the figure: 1. fixed frame; 2. suction cup; 3. movable frame; 4. air pipe; 5. air pump; 6. hard pipe; 7. driven wheel; 8. rotating plate; 9. control sleeve; 10. fixed pipe; 11. rotating pipe; 12. driving wheel; 13. connecting block; 14. positioning sleeve; 15. return spring; 16. arc groove; 17. round hole; 18. return block; 19. return sleeve; 20. limit rod; 21. limit plate; 22. through hole; 23. positioning rod; 24. connecting spring; 25. positioning groove; 26. guide groove; 27. guide block; 28. movable spring; 29. ​​mounting frame; 30. motor; 31. transmission wheel; 32. transmission belt; 33. sliding frame; 34. cylinder; 35. piston rod; 36. slide rail; 37. slider; 38. conveying assembly. DETAILED DESCRIPTION

[0029] It should be noted that, in the absence of conflict, the embodiments and features of the embodiments in this application can be combined with each other. The present invention will be described in detail below with reference to the accompanying drawings and in combination with the embodiments.

[0030] It should be noted that, unless otherwise specified, all technical and scientific terms used in this application have the same meaning as commonly understood by ordinary technicians in the technical field to which this application belongs.

[0031] In the present invention, unless otherwise specified, directions such as "up" and "down" are usually relative to the directions shown in the drawings, or relative to the vertical, perpendicular or gravity direction; similarly, for ease of understanding and description, "left" and "right" are usually relative to the left and right shown in the drawings; "inside" and "outside" refer to the inside and outside relative to the outline of each component itself, but the above-mentioned direction words are not used to limit the present invention.

[0032] See also Figures 1-6 , a continuous unloading assembly for glass manufacturing includes a fixed frame 1, a unloading device is arranged on the inside of the fixed frame 1, the unloading device includes a suction cup 2, a movable frame 3, an air pipe 4 and an air pump 5, the input end of the air pump 5 is connected to the air pipe 4, the movable frame 3 is arranged on the inside of the fixed frame 1, the suction cup 2 is detachably mounted under the movable frame 3, the top of the suction cup 2 is connected with an adjustment device, the adjustment device includes a hard tube 6, a driven wheel 7, a rotating plate 8, a control sleeve 9, a fixed tube 10, a rotating tube 11 and a driving wheel 12, the hard tube 6 is fixedly connected to the other end of the air pipe 4, the driven wheel 7 is rotatably arranged in the hard tube 6, and the two sides of the control sleeve 9 are rotatably connected to the hard tube 6 and the fixed tube 10 respectively, the fixed tube 10 is fixedly connected to the top of the air pipe 4, the rotating tube 11 is fixedly connected to the inside of the control sleeve 9, and the driving wheel 12 is fixedly connected It is connected to one end of the rotating tube 11, and multiple driven wheels 7 are respectively engaged with the driving wheel 12. A positioning mechanism is provided on the outside of the hard tube 6. The positioning mechanism includes a connecting block 13, a positioning sleeve 14, a return spring 15, an arc groove 16, a circular hole 17, a return block 18, a return sleeve 19, a limit rod 20 and a limit plate 21. The connecting block 13 is fixedly connected to the outside of the hard tube 6, and the positioning sleeve 14 is sleeved on the outside of the hard tube 6. The two ends of the return spring 15 are respectively connected to the connecting block 13 and the return block 18. The arc groove 16 is provided on the return sleeve 19, and the circular hole 17 is provided at one end of the arc groove 16. The return block 18 is fixedly connected to one side of the return sleeve 19. The return sleeve 19 is rotatably sleeved on the outside of the hard tube 6. The limit rod 20 is connected to one side of the positioning sleeve 14, and the limit plate 21 is fixedly provided on the limit rod 20.

[0033] The rotating plate 8 is provided with a plurality of through holes 22 .

[0034] A plurality of positioning rods 23 are slidingly provided on the side wall of the control sleeve 9, a connecting spring 24 is connected to the outer wall of the control sleeve 9, a plurality of positioning grooves 25 are opened on the outside of the hard tube 6, one end of the positioning rod 23 is connected to the outer wall of the control sleeve 9 through the connecting spring 24, and the other end of the positioning rod 23 is inserted into the positioning groove 25.

[0035] A guide groove 26 is formed on the outside of the hard tube 6 , and a guide block 27 is fixedly provided on the inside of the positioning sleeve 14 , and the guide groove 26 is adapted to the guide block 27 .

[0036] A movable spring 28 is provided on the outer movable sleeve of the limiting rod 20 . One end of the movable spring 28 is connected to the positioning sleeve 14 , and the other end of the movable spring 28 is in contact connection with the reset sleeve 19 .

[0037] In this embodiment, when the pumping speed needs to be adjusted, the reset block 18 is first toggled so that the reset block 18 and the connecting block 13 cooperate to squeeze the reset spring 15, and at the same time the reset sleeve 19 drives the arc groove 16 and the circular hole 17 to rotate. When the circular hole 17 moves to a position concentric with the limit rod 20 and the limit plate 21, the positioning sleeve 14 is pushed. The positioning sleeve 14 drives the guide block 27 to slide along the guide groove 26, and the positioning sleeve 14 drives the limit rod 20 and the limit plate 21 to pass through the circular hole 17. At the same time, the positioning sleeve 14 and the reset sleeve 19 cooperate to squeeze the active spring 28 arranged on the outer side of the limit rod 20. When the active spring 28 is squeezed to the limit, the corresponding limit plate 21 will pass through the circular hole 17 and move to the other side of the reset sleeve 19. At this time, the reset block 18 is released. , the reset spring 15 will push the reset block 18 to rotate and reset, and then the reset block 18 will drive the reset sleeve 19 to rotate, and then the reset sleeve 19 will drive the arc groove 16 and the round hole 17 to move, and then the limit rod 20 will slide into the arc groove 16, and at this time the limit rod 20 and the corresponding limit plate 21 cooperate to limit the positioning sleeve 14 to one side of the reset sleeve 19, and at this time the outer end of the positioning rod 23 loses its limit, and then the control sleeve 9 is rotated, and the control sleeve 9 will drive the positioning rod 23 slidingly set on the side wall to rotate, and then the side wall of the positioning groove 25 squeezes one end of the positioning rod 23, due to the rounded design at the edge of the positioning groove 25 and the end of the positioning rod 23, then one end of the positioning rod 23 slides out of the positioning groove 25, and the other end of the positioning rod 23 will drive the connecting spring 24 to stretch, and at the same time the control sleeve 9 The rotating tube 11 provided on the inner wall will drive the driving wheel 12 provided at one end to rotate, and then the driving wheel 12 will synchronously drive multiple driven wheels 7 to rotate, and then the driven wheel 7 will drive the rotating plate 8 on one side to rotate, and then the rotating plate 8 will drive the through hole 22 to change its angle. At the same time, the rotation of the rotating plate 8 will change the gap between the two adjacent rotating plates 8, so that the volume of gas passing through will change, thereby changing the speed of gas passing through, and then changing the pumping speed. After the adjustment is appropriate, stop rotating the control sleeve 9, and make the connecting spring 24 drive the positioning rod 23 to reset, and then one end of the positioning rod 23 will be inserted into the corresponding positioning groove 25, and then the reset block 18 will be dialed again, and the reset block 18 will cooperate with the connecting block 13 to squeeze the reset spring 15 again, and at the same time the reset block 18 drives the arc groove 16 and the circular hole 17 to move again through the reset sleeve 19. When the circular hole 17 moves to the position concentric with the limit plate 21 again, the movable spring 28 pushes the positioning sleeve 14 to reset, and then the positioning sleeve 14 will drive the guide block 27 to slide and reset along the guide groove 26, and the positioning sleeve 14 will drive the limit rod 20 and the limit plate 21 to slide and reset. When the movable spring 28 is completely reset, the reset block 18 is released, and the reset spring 15 pushes the reset block 18 to reset again, and then the reset block 18 drives the reset sleeve 19 to reset completely, and then the reset sleeve 19 will drive the arc groove 16 and the circular hole 17 to reset completely and move to a position that does not correspond to the limit rod 20 and the limit plate 21. At this time, the limit rod 20 and the reset sleeve 19 cooperate to limit the positioning sleeve 14.The guide block 27 and the guide groove 26 limit the positioning sleeve 14 so that the positioning sleeve 14 does not move. Then the inner wall of the positioning sleeve 14 limits the outer end of the positioning rod 23 so that the positioning rod 23 does not move. Then the positioning rod 23 and the positioning groove 25 cooperate to limit the control sleeve 9, preventing the control sleeve 9 from rotating, thereby ensuring the structural stability after the gas flow rate is adjusted and preventing changes.

[0038] See also Figure 1-Figure 3 As a further implementation method of the entire equipment: a mounting bracket 29 is detachably provided on the inner side of the fixed bracket 1, a motor 30 is installed on the top of the mounting bracket 29, a transmission wheel 31 is rotatably provided below the mounting bracket 29, and one of the transmission wheels 31 is connected to the output end of the motor 30, a transmission belt 32 is sleeved on the outer side of the transmission wheel 31, a sliding bracket 33 is movably provided below the mounting bracket 29, the top of the sliding bracket 33 is connected to the transmission belt 32, and a cylinder 34 is detachably provided at the bottom end of the sliding bracket 33, a piston rod 35 is connected to the output end of the cylinder 34, and the bottom end of the piston rod 35 is connected to the top of the movable bracket 3.

[0039] A slide rail 36 is detachably provided below the mounting frame 29 , and a slider 37 is detachably provided above the sliding frame 33 . The slider 37 is slidably provided below the slide rail 36 .

[0040] A conveying assembly 38 is provided below the suction cup 2 , and the conveying assembly 38 can be detachably mounted on the inner side of the fixing frame 1 .

[0041] More specifically, when the device needs to be used, the glass is first transported to the bottom of the mounting frame 29 through the conveying assembly 38, and then the motor 30 is turned on. The motor 30 drives the transmission wheel 31 connected to the output end to rotate, and then the transmission wheel 31 will drive the transmission belt 32 set on the outside to run, and then the sliding frame 33 will follow the transmission belt 32 to move, and then the sliding frame 33 will drive the slider 37 to slide along the slide rail 36, and at the same time the sliding frame 33 will drive the various components installed below to move. When the suction cup 2 moves to the position just above the glass, the motor 30 is turned off, and the cylinder 34 set under the sliding frame 33 is turned on. The cylinder 34 drives the movable frame 3 to descend through the piston rod 35 connected to the output end, so that the movable frame 3 drives the suction cup 2 and other components to descend. When the suction cup 2 is in full contact with the glass, the cylinder 34 is turned off, and then the air cylinder 34 is turned on. The pump 5 draws air through the air pipe 4 connected to the input end, thereby drawing air into the space between the suction cup 2 and the glass into a negative pressure state until the suction cup 2 firmly adsorbs and tightens the glass, and then drives the cylinder 34 again, so that the cylinder 34 drives the movable frame 3 to rise through the piston rod 35, so that the suction cup 2 adsorbs the glass, and then turns on the motor 30 again, so that the motor 30 reverses, so that the movable frame 3 drives the glass to move to the corresponding position through the suction cup 2, and then turns on the cylinder 34 again, so that the cylinder 34 drives the movable frame 3 and the glass to move to the external collection device through the piston rod 35, and then inflates the space between the suction cup 2 and the glass, so that the suction cup 2 no longer firmly adsorbs the glass, thereby completing the unloading operation, and then repeats the operation with reference to the above process to achieve continuous and automatic unloading of the glass.

[0042] In summary, when the entire device is in use or running: when the air extraction speed needs to be adjusted, first turn the reset block 18 so that the reset block 18 and the connecting block 13 cooperate to squeeze the reset spring 15, and at the same time the reset sleeve 19 will drive the arc groove 16 and the circular hole 17 to rotate. When the circular hole 17 moves to a position concentric with the limit rod 20 and the limit plate 21, the positioning sleeve 14 is pushed, and the positioning sleeve 14 will drive the guide block 27 to slide along the guide groove 26, and the positioning sleeve 14 will drive the limit rod 20 and the limit plate 21 to pass through the circular hole 17. At the same time, the positioning sleeve 14 will cooperate with the reset sleeve 19 to squeeze the active spring 28 arranged on the outside of the limit rod 20. When the active spring 28 is squeezed to the limit, the corresponding limit plate 21 will pass through the circular hole 17 and move to the other side of the reset sleeve 19. When the reset block 18 is released, the reset spring 15 will push the reset block 18 to rotate and reset, and then the reset block 18 will drive the reset sleeve 19 to rotate, and then the reset sleeve 19 will drive the arc groove 16 and the round hole 17 to move, and then the limit rod 20 will slide into the arc groove 16. At this time, the limit rod 20 and the corresponding limit plate 21 cooperate to limit the positioning sleeve 14 to one side of the reset sleeve 19. At this time, the outer end of the positioning rod 23 loses its limit, and then the control sleeve 9 is rotated. The control sleeve 9 will drive the positioning rod 23 slidingly set on the side wall to rotate, and then the side wall of the positioning groove 25 squeezes one end of the positioning rod 23. Due to the rounded design at the edge of the positioning groove 25 and the end of the positioning rod 23, one end of the positioning rod 23 slides out of the positioning groove 25, and the other end of the positioning rod 23 will drive the connecting spring 24 to stretch. The control sleeve 9 will drive the driving wheel 12 set at one end thereof to rotate through the rotating tube 11 set on the inner wall, and then the driving wheel 12 will synchronously drive multiple driven wheels 7 to rotate, and then the driven wheel 7 will drive the rotating plate 8 on one side to rotate, and then the rotating plate 8 will drive the through hole 22 to change its angle. At the same time, the rotation of the rotating plate 8 will change the gap between the two adjacent rotating plates 8, so that the passing volume of the gas changes, thereby changing the passing speed of the gas, and then changing the pumping speed. After the adjustment is appropriate, stop rotating the control sleeve 9, and make the connecting spring 24 drive the positioning rod 23 to reset, and then one end of the positioning rod 23 will be inserted into the corresponding positioning groove 25, and then the reset block 18 will be dialed again, and the reset block 18 will cooperate with the connecting block 13 to squeeze the reset spring 15 again, and at the same time reset The positioning block 18 drives the arc groove 16 and the circular hole 17 to move again through the reset sleeve 19. When the circular hole 17 moves to the position concentric with the limit plate 21 again, the movable spring 28 pushes the positioning sleeve 14 to reset, and then the positioning sleeve 14 will drive the guide block 27 to slide and reset along the guide groove 26, and the positioning sleeve 14 will drive the limit rod 20 and the limit plate 21 to slide and reset. When the movable spring 28 is completely reset, the reset block 18 is released, and the reset spring 15 pushes the reset block 18 to reset again, and then the reset block 18 drives the reset sleeve 19 to reset completely, and then the reset sleeve 19 will drive the arc groove 16 and the circular hole 17 to reset completely and move to a position that is not corresponding to the limit rod 20 and the limit plate 21. At this time, the limit rod 20 and the reset sleeve 19 cooperate to limit the positioning sleeve 14.The guide block 27 and the guide groove 26 limit the positioning sleeve 14 so that the positioning sleeve 14 does not move. Then the inner wall of the positioning sleeve 14 limits the outer end of the positioning rod 23 so that the positioning rod 23 does not move. Then the positioning rod 23 and the positioning groove 25 cooperate to limit the control sleeve 9, preventing the control sleeve 9 from rotating, thereby ensuring the structural stability after the gas flow rate is adjusted and preventing changes.

[0043] When the device needs to be used, the glass is first transported to the bottom of the mounting frame 29 through the conveying assembly 38, and then the motor 30 is turned on. The motor 30 drives the transmission wheel 31 connected to the output end to rotate, and then the transmission wheel 31 will drive the transmission belt 32 set on the outside to run, and then the sliding frame 33 will follow the transmission belt 32 to move, and then the sliding frame 33 will drive the slider 37 to slide along the slide rail 36. At the same time, the sliding frame 33 will drive the various components installed below to move. When the suction cup 2 moves to the position just above the glass, the motor 30 is turned off, and the cylinder 34 set under the sliding frame 33 is turned on. The cylinder 34 drives the movable frame 3 to descend through the piston rod 35 connected to the output end, so that the movable frame 3 drives the suction cup 2 and other components to descend. When the suction cup 2 is in full contact with the glass, the cylinder 34 is turned off, and then the air pump 5 is turned on. The air pump 5 draws air through the air pipe 4 connected to the input end, thereby drawing the space between the suction cup 2 and the glass into a negative pressure state until the suction cup 2 firmly adsorbs and tightens the glass, and then drives the cylinder 34 again, so that the cylinder 34 drives the movable frame 3 to rise through the piston rod 35, so that the suction cup 2 adsorbs the glass, and then turns on the motor 30 again, so that the motor 30 reverses, so that the movable frame 3 drives the glass to move to the corresponding position through the suction cup 2, and then turns on the cylinder 34 again, so that the cylinder 34 drives the movable frame 3 and the glass to move to the external collection device through the piston rod 35, and then inflates the space between the suction cup 2 and the glass, so that the suction cup 2 no longer firmly adsorbs the glass, thereby completing the unloading operation, and then repeats the above process to achieve continuous and automatic unloading of glass.

[0044] In all the schemes mentioned above, the connection between the two components can be selected according to actual conditions by welding, bolt and nut connection, bolt or screw connection or other well-known connection methods, which will not be listed here one by one. In the above, all fixed connections are preferably welded. Although the embodiments of the present invention have been shown and described, it can be understood by ordinary technicians in this field that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the attached claims and their equivalents.

Claims

1. A continuous blanking assembly for glass manufacturing, comprising a fixed frame (1), characterized in that: A feeding device is provided inside the fixed frame (1), the feeding device comprises a suction cup (2), a movable frame (3), an air pipe (4) and an air pump (5), one end of the air pump (5) is connected to the air pipe (4), the suction cup (2) is installed below the movable frame (3), the top of the suction cup (2) is connected to an adjustment device, the adjustment device comprises a hard pipe (6), a driven wheel (7), a rotating plate (8), a control sleeve (9), a fixed pipe (10), a rotating pipe (11) and a driving wheel (12), the driven wheel (7) is provided inside the hard pipe (6), the rotating pipe (11) is connected to the inside of the control sleeve (9), the driving wheel (12) is connected to one end of the rotating pipe (11), and a plurality of driven wheels (7) are respectively connected to the driving wheel (1 2) engagement, a positioning mechanism is provided on the outside of the hard tube (6), the positioning mechanism comprising a connecting block (13), a positioning sleeve (14), a return spring (15), an arc groove (16), a circular hole (17), a return block (18), a return sleeve (19), a limit rod (20) and a limit plate (21), both ends of the return spring (15) are connected to the connecting block (13) and the return block (18), the arc groove (16) is provided on the return sleeve (19), the circular hole (17) is provided at one end of the arc groove (16), the return sleeve (19) is sleeved on the outside of the hard tube (6), the limit rod (20) is connected to one side of the positioning sleeve (14), and the limit plate (21) is fixedly provided on the limit rod (20).

2. A continuous blanking assembly for glass manufacturing according to claim 1, characterized in that: The rotating plate (8) is provided with a plurality of through holes (22).

3. The continuous blanking assembly for glass manufacturing according to claim 1, characterized in that: A plurality of positioning rods (23) are slidably provided on the side wall of the control sleeve (9), a connecting spring (24) is connected to the outer wall of the control sleeve (9), a plurality of positioning grooves (25) are opened on the outer side of the hard tube (6), one end of the positioning rod (23) is connected to the outer wall of the control sleeve (9) through the connecting spring (24), and the other end of the positioning rod (23) is inserted into the positioning groove (25).

4. A continuous blanking assembly for glass manufacturing according to claim 3, characterized in that: A guide groove (26) is provided on the outside of the hard tube (6), a guide block (27) is fixedly provided on the inside of the positioning sleeve (14), and the guide groove (26) is adapted to the guide block (27).

5. The continuous blanking assembly for glass manufacturing according to claim 4, characterized in that: A movable spring (28) is provided on the outer movable sleeve of the limiting rod (20), one end of the movable spring (28) is connected to the positioning sleeve (14), and the other end of the movable spring (28) is contact-connected to the reset sleeve (19).

6. A continuous blanking assembly for glass manufacturing according to any one of claims 1 to 5, characterized in that: A mounting frame (29) is detachably provided on the inner side of the fixed frame (1), a motor (30) is installed on the top of the mounting frame (29), a transmission wheel (31) is rotatably provided below the mounting frame (29), and one of the transmission wheels (31) is connected to the output end of the motor (30), a transmission belt (32) is sleeved on the outer side of the transmission wheel (31), a sliding frame (33) is movably provided below the mounting frame (29), the top end of the sliding frame (33) is connected to the transmission belt (32), and a cylinder (34) is detachably provided on the bottom end of the sliding frame (33), the output end of the cylinder (34) is connected to a piston rod (35), and the bottom end of the piston rod (35) is connected to the top end of the movable frame (3).

7. A continuous blanking assembly for glass manufacturing according to claim 6, characterized in that: A slide rail (36) is detachably provided below the mounting frame (29), and a slider (37) is detachably provided above the sliding frame (33). The slider (37) is slidably provided below the slide rail (36).

8. The continuous blanking assembly for glass manufacturing according to claim 7, characterized in that: A conveying assembly (38) is provided below the suction cup (2), and the conveying assembly (38) is detachably mounted on the inner side of the fixing frame (1).

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