Intelligent glass detection table

Abstract

The utility model relates to an intelligent glass detection table, which comprises a detection frame, a blanking frame and a transition frame which are linearly arranged along the X-axis direction, and the detection frame is provided with a first roller group, a synchronous belt frame, a depended wheel group, a glass positioning mechanism, a short edge automatic detection mechanism, a long edge automatic detection mechanism and a thickness automatic detection mechanism. The discharging frame is fixed to the discharging end of the detection frame in a butt joint mode, and the top of the discharging frame is provided with a second roller set used for conveying glass from the detection frame to the transition frame. The transition frame is in butt joint with the discharging end of the discharging frame in a suspended mode and is connected to the discharging frame in a downward folding mode through a hinge mechanism, an air cylinder is arranged between the transition frame and the discharging frame, a cylinder body of the air cylinder is movably coupled to the bottom of the discharging frame, and a piston rod is movably coupled to the transition frame in an inclined upward mode so as to be used for opening the transition frame upwards or folding the transition frame downwards. According to the utility model, operators can pass conveniently.

Description

Technical Field

[0001] The utility model relates to a structural improvement of a glass testing platform. Background Art

[0002] The glass inspection table is a kind of table used to inspect the length, width, thickness and other dimensions of glass before processing. The measurement results are used to provide a basis for setting parameters for subsequent processing procedures. In order to achieve streamlined and automated processing, the discharge end of the common glass inspection table is generally directly connected to the feed end of the glass processing table, resulting in a longer machine. The operating station is often set on one side of the machine. If the operator needs to go from the operating station to the other side of the machine, he needs to walk around the machine, wasting time and energy. Utility Model Content

[0003] The utility model aims to improve the above-mentioned deficiencies of the existing glass testing platform.

[0004] The utility model adopts the following technical solutions:

[0005] The glass intelligent inspection table comprises an inspection frame, a discharge frame and a transition frame which are arranged in a straight line along the X-axis direction. The inspection frame is provided with a first roller group for driving the glass to move along the X-axis direction, a synchronous belt frame for driving the glass to move along the Z-axis direction, a roller group for allowing the short side of the glass to be pressed against a measuring station, a glass positioning mechanism for allowing the long side of the glass to be pressed against the inspection station, a short side automatic detection mechanism for detecting the size of the short side of the glass, a long side automatic detection mechanism for measuring the size of the long side of the glass, and a thickness automatic detection mechanism for measuring the thickness of the glass; the discharge frame is docked and fixed to the discharge end of the inspection frame, and a second roller group for sending the glass from the inspection frame to the transition frame is provided on the top; the transition frame is docked to the discharge end of the discharge frame in the air and is connected to the discharge frame in a foldable manner downwardly through a hinge mechanism, and a cylinder is provided between the transition frame and the discharge frame, and a cylinder body movable shaft of the cylinder is connected to the bottom of the discharge frame, and a piston rod movable shaft is connected to the transition frame, so as to be used for upwardly propping up or downwardly folding the transition frame.

[0006] As a preferred solution, the detection frame includes a main frame, and the first active roller group is arranged on the main frame to transport the glass from the feeding end of the detection frame to the unloading frame. The first roller group includes a plurality of first rollers in the Z-axis direction arranged side by side along the X-axis direction on the top of the main frame, and a roller is fixed in series on each first roller.

[0007] As a preferred solution, all first rollers located in the feeding area of ​​the main frame are connected in series with Furley wheels, and all other first rollers are connected in series with first smooth rollers.

[0008] As a preferred solution, a controller is provided on one side of the main frame, an operating station is provided on the side of the main frame where the controller is located, and the wheel group, short side automatic detection mechanism and thickness automatic detection machine are all arranged on the side of the main frame where the operating station is located.

[0009] As a preferred solution, the long side automatic detection mechanism and the glass positioning mechanism are both arranged at the discharge end of the main frame.

[0010] As a preferred solution, the synchronous belt frame includes a lifting frame and several synchronous belts running in the Z-axis direction and arranged side by side on the top of the lifting frame along the X-axis direction. The lifting frame is connected to the main frame through a lifting mechanism to drive the synchronous belt to be hidden under the first roller group when the first roller group is working, and to lift the synchronous belt to the top of the first roller group when the glass needs to be pushed sideways.

[0011] As a preferred solution, a plurality of synchronous belts are alternately arranged with a plurality of first rollers at the rear of the main frame.

[0012] The utility model is provided with a plurality of locking devices for locking the rotating shaft. The supporting wheel in the stop position can be provided with locking support force by a plurality of cylinders at the same time, and is not easy to deflect due to the impact of the glass in motion. The glass can be accurately positioned at the glass short side measuring position, which is beneficial to improving the measuring accuracy.

[0013] The utility model provides a foldable transition frame at the end of the unloading frame, which can be connected to the processing table when the machine is working. When the operator needs to pass between the machine operating side and the back side of the machine during idle time, the transition frame can be folded to open the passage, thereby saving time and physical strength for passing. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a schematic diagram of the overall structure of an embodiment of the utility model;

[0015] Figure 2 A schematic diagram of the working process of an embodiment of the utility model;

[0016] Figure 3 This is a schematic diagram of the folded state of the transition frame of an embodiment of the utility model. DETAILED DESCRIPTION

[0017] The present invention is described below in conjunction with the accompanying drawings and specific embodiments.

[0018] Reference Figure 1 The glass intelligent inspection platform includes an inspection frame 10, a material unloading frame 20 and a transition frame 30 which are arranged in a straight line along the X-axis direction.

[0019] The detection frame 10 includes a main frame 11, on which a first active roller group 12 is provided for driving the glass to move along the X-axis direction so as to send the glass from the feeding end of the detection frame 10 to the unloading frame 20. The first roller group 12 includes a plurality of first rollers 12.1 in the Z-axis direction arranged side by side at the top of the main frame 11 along the X-axis direction. All the first rollers 12.1 located in the feeding area of ​​the main frame 11 are serially fixed with Furley wheels 12.2, and the remaining first rollers 12.1 are serially fixed with first smooth rollers 12.3. All the first rollers 12.1 are transmission-connected to the first power unit so as to be driven by the first power unit to rotate synchronously in the same direction.

[0020] A controller 13 is provided on one side of the main frame 11, an operating station is provided on one side of the main frame 11 where the controller 13 is located, and a wheel group 14 for the short side of the glass to be attached to the side, an automatic short side detection mechanism 15 for detecting the size of the short side of the glass, and an automatic thickness detection mechanism 17 for measuring the thickness of the glass are provided on the side of the main frame 11 on the operating station side.

[0021] The discharge end of the main frame 11 is provided with an automatic long side detection mechanism 16 for measuring the long side size of the glass and a glass positioning mechanism 18 for stopping the glass carried by the first roller group 12 at the short side detection station, the long side detection station and the thickness detection station. The glass positioning mechanism 18 includes a rotating shaft arranged at the top of the main frame 11 along the Z-axis direction and a plurality of rotating wheels connected in series to the rotating shaft. The rotating shaft is connected to a second power unit that drives its rotation to drive the rotating wheels to extend above the first roller group 12 or hidden below the first roller group 12.

[0022] The main frame 11 is also provided with a synchronous belt frame 19 for pushing a short side of the glass carried by the first roller group 12 to the roller group 14. The synchronous belt frame 19 includes a lifting frame 19.1 and a plurality of synchronous belts 19.2 arranged in parallel along the X-axis direction on the top of the lifting frame 19.1. The synchronous belts 19.2 are staggered with the plurality of first rollers 12.1 at the rear. All the synchronous belts 19.2 are transmission-connected to the third power unit to be driven by the third power unit to move synchronously in the same direction. The lifting frame 19.1 is connected to the main frame 11 through a lifting mechanism to drive the synchronous belt 19.2 to be hidden under the first roller group 12 when the first roller group 12 is working, and the synchronous belt 19.2 is lifted to the top of the first roller group 12 when the glass needs to be pushed sideways.

[0023] The unloading rack 20 is fixedly docked with the discharge end of the detection rack 10, and a second roller group 21 for conveying the glass from the detection rack 10 to the transition rack 30 is arranged on the top thereof. The second roller group 21 includes a plurality of second rollers 21.1 arranged side by side along the X-axis direction on the top of the unloading rack 20 in a Z-axis direction, and a plurality of second smooth rollers 21.2 are serially fixed on each second roller 21.1. All the second rollers 21.1 are transmission-connected to the fourth power unit so as to be driven by the fourth power unit to rotate synchronously in the same direction.

[0024] The transition frame 30 is suspended and docked at the discharge end of the unloading frame 20 and is connected to the unloading frame 20 by folding downwards through a hinge mechanism. A cylinder 40 is arranged between the transition frame 30 and the unloading frame 20. The cylinder body of the cylinder 40 is movably connected to the bottom of the unloading frame 20, and the piston rod is movably connected to the transition frame 30, so as to be used to stretch upward or fold downward the transition frame 30. A third roller group 31 is arranged on the top of the transition frame 30. The third roller group 21 includes a plurality of third rollers 31.1 arranged side by side along the X-axis direction at the top of the transition frame 30 and extending in the direction of the Z-axis. A plurality of third smooth rollers 31.2 are serially fixed on each third roller 31.1. All third rollers 31.1 are transmission-connected to the fifth power unit so as to be driven by the fifth power unit to rotate synchronously in the same direction.

[0025] The first power unit, the second power unit, the third power unit, the fourth power unit, the fifth power unit and the cylinder 40 are all electrically connected to the controller 13 .

[0026] Initially, the rotating wheel 18 . 2 on the glass positioning mechanism 18 is extended above the first roller set 12 by default, and the synchronous belt frame 19 is hidden below the first roller set 12 by default. The glass 50 is placed flat on the feeding end of the first roller group 12 with its long side at the front and back sides and its short side at the left and right sides, and is transferred from the first roller group 12 to the unloading rack 20. When the glass 50 reaches the discharging end of the detection rack 10, the glass positioning mechanism 18 blocks the front long side of the glass 50 to stop the glass 50. Then the lifting frame 19.1 lifts the synchronous belt 19.2 to the top of the first roller group 12 and lifts the glass 50 away from the first roller group 12. The synchronous belt 19.2 moves the glass 50 sideways toward the wheel group 14 until one short side of the glass 50 rests on the wheel group 14. At this point, the glass rests at the measuring station, and the length, width and height of the glass 50 can be measured by the short side automatic detection mechanism 15, the long side automatic detection mechanism 16 and the thickness automatic detection mechanism 17 respectively. After the inspection is completed, the synchronous belt frame 19 descends and puts the glass 50 back on the first roller group 12. The rotating wheel 18.2 on the glass positioning mechanism 18 is hidden to avoid the glass 50. The glass 50 is sent to the unloading rack 20 by the first roller group 12, and then sent to the transition rack 30 by the second roller group 21 on the unloading rack 20, and finally sent to the subsequent processing stand 60 by the third roller group 31 on the transition rack 30.

[0027] like Figure 2-3 As shown, the cylinder 40 opens the transition frame 30 to connect the utility model and the processing stand 60, thereby forming a continuous processing line. If the operator needs to travel between the front and rear sides of the machine during leisure time, the cylinder 40 can be activated to fold the transition frame 30 downward to establish a short passage that can travel between the front and rear sides of the machine.

Claims

1. The glass intelligent inspection platform comprises an inspection frame, a material discharging frame and a transition frame arranged in a straight line along the X-axis direction. The inspection frame is provided with a first roller group for driving the glass to move along the X-axis direction, a synchronous belt frame for driving the glass to move along the Z-axis direction, a wheel group for allowing the short side of the glass to be close to the measuring station, a glass positioning mechanism for allowing the long side of the glass to be close to the inspection station, a short side automatic detection mechanism for detecting the size of the short side of the glass, a long side automatic detection mechanism for measuring the size of the long side of the glass, and a thickness automatic detection mechanism for measuring the thickness of the glass; the material discharging frame is fixedly docked at the discharge end of the inspection frame, and a second roller group for sending the glass from the inspection frame to the transition frame is provided on the top thereof; the characteristics are as follows: The transition frame is suspended and docked with the discharge end of the unloading frame and is connected to the unloading frame by folding downward through a hinge mechanism. A cylinder is provided between the transition frame and the unloading frame. The movable axis of the cylinder body is connected to the bottom of the unloading frame, and the movable axis of the piston rod is connected to the transition frame for expanding upward or folding downward the transition frame.

2. The glass intelligent testing platform according to claim 1, characterized in that: The detection frame includes a main frame, and the first active roller group is arranged on the main frame to transport the glass from the feeding end of the detection frame to the unloading frame. The first roller group includes a plurality of first rollers in the Z-axis direction arranged side by side on the top of the main frame along the X-axis direction, and each first roller is serially fixed with a roller.

3. The glass intelligent testing platform according to claim 2 is characterized in that: All the first rollers located in the feeding area of ​​the main frame are connected in series with Furley wheels, and the remaining first rollers are connected in series with first smooth rollers.

4. The glass intelligent testing platform according to claim 1 is characterized in that: A controller is arranged on one side of the main frame, an operating station is arranged on the side of the main frame where the controller is located, and a wheel set, a short side automatic detection mechanism and a thickness automatic detection machine are all arranged on the side of the main frame where the operating station is located.

5. The glass intelligent testing platform according to claim 4 is characterized in that: The long side automatic detection mechanism and the glass positioning mechanism are both arranged at the discharge end of the main frame.

6. The glass intelligent testing platform according to claim 2, characterized in that: The synchronous belt frame includes a lifting frame and a plurality of synchronous belts in the Z-axis direction arranged side by side on the top of the lifting frame along the X-axis direction. The lifting frame is connected to the main frame through a lifting mechanism to drive the synchronous belt to be hidden under the first roller group when the first roller group is working, and to lift the synchronous belt to the top of the first roller group when the glass needs to be pushed sideways.

7. The glass intelligent testing platform according to claim 6, characterized in that: A plurality of synchronous belts are arranged alternately with a plurality of first roller shafts at the rear of the main frame.

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