A coating glass measuring device

Abstract

The present invention relates to the field of coated glass detection technology, and in particular to a coated glass measuring device. It comprises a fixed frame, the fixed frame is fixedly connected with a first push rod, the telescopic end of the first push rod is fixedly connected with a lifting plate, the lifting plate is fixedly connected with a symmetrically distributed first slide rail, the first slide rail is slidably connected with a slider, the symmetrically distributed sliders are commonly fixedly connected with a second slide rail, the second slide rail is slidably connected with a slider, the slider is fixed with a transmitter, the fixed frame is slidably connected with a symmetrically distributed rotating shaft, the opposite sides of the symmetrically distributed rotating shafts are splined with cross plates, the cross plates are provided with symmetrically distributed L-shaped frames, and a buffer plate is slidably connected to the L-shaped frame. When fixing coated glasses of different thicknesses, the present invention adapts to coated glasses of different thicknesses by compressing the buffer plate downwards, so as to avoid deformation and sliding of the coated glass, resulting in damage to the coated glass, which would affect the detection process.

Description

Technical Field

[0001] The invention relates to the technical field of coated glass detection, and in particular to a coated glass measuring device. Background Art

[0002] After the production of coated glass is completed, in order to ensure that the coated glass can be used normally, the staff will measure the light transmittance of the coated glass through a measuring device. When the existing measuring device is used to measure large pieces of coated glass, the staff needs to fix the coated glass on the device and drive the detection light source to move, and measure multiple positions of the coated glass. However, in the process of placing the coated glass, the fixing claws cannot determine the thickness of the coated glass, resulting in excessive squeezing force on the contact position of the coated glass and the fixing claws when fixing thicker coated glass, which can easily cause deformation of the contact position of the coated glass and the fixing claws. At the same time, when fixing thinner coated glass, the fixing force of the fixing claws on the coated glass is relatively small, which can easily cause the coated glass to slip when rotating, affecting the subsequent normal use of the coated glass. Summary of the invention

[0003] The present invention provides a coated glass measuring device, which is designed to solve the defect that when the existing device fixes coated glass of different thicknesses, the coated glass is not fixed well, resulting in damage to the coated glass and affecting the subsequent use.

[0004] The technical solution is: a coated glass measuring device, comprising a fixed frame, a photoelectric sensor is arranged on the fixed frame, a first push rod is fixedly connected to the upper part of the fixed frame, a lifting plate is fixedly connected to the telescopic end of the first push rod, the lifting plate is fixedly connected to a symmetrically distributed first slide rail, the first slide rail is slidably connected to a slider, the symmetrically distributed sliders are commonly fixedly connected to a second slide rail, the second slide rail is slidably connected to a slider, the slider is fixedly connected to a transmitter, the fixed frame is slidably connected to symmetrically distributed rotating shafts, the opposite sides of the symmetrically distributed rotating shafts are spline-connected to cross plates, a spring is arranged between the cross plate and the adjacent rotating shaft, and the lower part of the cross plate A symmetrically distributed L-shaped frame is arranged on the side, and the dorsal sides of the symmetrically distributed cross plates are fixedly connected with symmetrically distributed elastic telescopic rods, the telescopic ends of the elastic telescopic rods are hinged with anti-skid plates, and a torsion spring is arranged between the anti-skid plates and the telescopic ends of the adjacent elastic telescopic rods. A buffer plate is slidably connected to the L-shaped frame, and a tension spring is arranged between the L-shaped frame and the adjacent buffer plate. The cross plate is fixedly connected with a symmetrically distributed second push rod, and the telescopic end of the second push rod is fixedly connected with an L-shaped rod slidably connected with the adjacent cross plate and squeezed with the adjacent anti-skid plate, and a transmission component for driving one of the rotating shafts to rotate is arranged on the fixed frame.

[0005] Furthermore, an inclined surface is provided at one end of the L-shaped rod away from the adjacent second push rod, and the inclined surface faces downward, and the inclined surface is extruded and matched with the adjacent anti-slip plate.

[0006] Furthermore, the transmission assembly includes a motor, the motor is fixedly connected to a side of the fixed frame close to one of the horizontal plates, a transmission wheel is arranged near the rotating shaft of the motor, a cone wheel is arranged on the output shaft of the motor, the cone wheel and the transmission wheel are frictionally transmitted, the fixed frame is fixedly connected to a symmetrically distributed third push rod, the third push rod is located on a side of the fixed frame close to the adjacent rotating shaft, the telescopic end of the third push rod is limitedly matched with the adjacent rotating shaft, the telescopic end of the second push rod is slidably connected with an extrusion block, a damping is arranged between the extrusion block and the telescopic end of the adjacent second push rod, the extrusion block is extruded and matched with the fixed frame, the fixing part of the second push rod and the horizontal plate are both limitedly matched with the adjacent extrusion block, and a fixing assembly for fixing the coated glass is arranged on the L-shaped frame.

[0007] Furthermore, the fixing assembly includes a fixing rod, the fixing rod is hinged on the upper part of the adjacent L-shaped frame, a torsion spring is arranged between the fixing rod and the adjacent L-shaped frame, the upper end of the fixing rod is slidably connected with a fixing plate, a tension spring is arranged between the fixing plate and the adjacent fixing rod, the L-shaped frame is slidably connected with a sliding block and a sliding plate, a spring is arranged between the sliding block and the sliding plate and the adjacent L-shaped frame, the sliding block is extruded and matched with the adjacent fixing rod, a positioning block is fixedly connected to the side of the sliding plate close to the adjacent sliding block, the positioning block is extruded and matched with the adjacent sliding block, a Z-shaped rod is fixedly connected to the side of the L-shaped rod close to the adjacent L-shaped frame, the Z-shaped rod is extruded and matched with the adjacent sliding plate, and a supporting assembly for increasing the force-bearing area of ​​the coated glass is arranged on the sliding plate.

[0008] Furthermore, the supporting assembly includes a trapezoidal block, the trapezoidal block is fixed to one end of the adjacent sliding plate away from the adjacent positioning block, the L-shaped frame is hinged with symmetrically distributed connecting plates at one end close to the adjacent trapezoidal block, the symmetrically distributed connecting plates are squeezed and matched with the adjacent trapezoidal blocks, a torsion spring is arranged between the connecting plate and the adjacent L-shaped frame, and the back sides of the symmetrically distributed connecting plates are fixed with support plates.

[0009] Furthermore, the cross section of the trapezoidal block is an isosceles trapezoid, and the upper base of the trapezoidal block is located at a side away from the adjacent sliding plate.

[0010] Furthermore, it also includes an adjustment mechanism, which is arranged on the symmetrically distributed transverse plates, and the adjustment mechanism is used to adjust the rotation speed of the symmetrically distributed transverse plates. The adjustment mechanism includes a first telescopic rod with a rectangular distribution, and the first telescopic rods with a rectangular distribution are respectively fixed to the symmetrically distributed transverse plates, the first telescopic rod is connected to the adjacent elastic telescopic rod, and the telescopic end of the first telescopic rod is fixed to the adjacent L-shaped frame, the L-shaped frame is slidably connected to the adjacent transverse plate, a spring is arranged between the L-shaped frame and the adjacent transverse plate, and the fixed frame is rotatably connected to the symmetrically distributed liquid storage shell, the The liquid storage shell is located on a side of the fixed frame close to the adjacent rotating shaft, the elastic telescopic rod is communicated with the adjacent liquid storage shell, the fixed frame is provided with symmetrically distributed liquid storage cavities, and the liquid storage cavities are communicated with the adjacent liquid storage shell, and a symmetrically distributed second telescopic rod is fixedly connected to a side of the fixed frame close to the motor, and the symmetrically distributed second telescopic rods are all communicated with adjacent liquid storage cavities, and the telescopic ends of the second telescopic rods are slidably connected to the transmission wheel, and the transmission wheel is slidably connected to the adjacent rotating shaft, a spring is arranged between the transmission wheel and the adjacent rotating shaft, and a cleaning mechanism for cleaning coated glass is arranged on the fixed frame.

[0011] Furthermore, a generatrix of the cone wheel on the output shaft of the motor close to the rotating shaft is parallel to the axis of the transmission wheel.

[0012] Furthermore, the sum of the distance moved by the telescopic end of the first telescopic rod and the initial distance between the Z-shaped rod and the adjacent sliding plate is smaller than the distance moved by the L-shaped rod driving the adjacent Z-shaped rod.

[0013] Furthermore, the cleaning mechanism includes a liquid storage tube, which is fixedly connected to a side of the fixed frame away from the motor, and the liquid storage tube is communicated with an adjacent liquid storage cavity on the fixed frame. The sliders of the symmetrically distributed first slide rails are all fixedly connected with a third telescopic rod, and the third telescopic rods on the sliders of the different first slide rails are centrally symmetrical. The centrally symmetrically distributed third telescopic rods are all communicated with the liquid storage tube, and the telescopic end of the third telescopic rod is fixedly connected with a rack, and the launcher is rotatably connected to a missing gear, and the rack is matched with the missing gear for transmission, and an air gun is fixedly connected to the lower part of the missing gear.

[0014] The present invention has the following advantages: 1. In the process of fixing the coated glass, the present invention buffers the coated glass by squeezing the buffer plate downward, thereby reducing the squeezing force when the coated glass contacts the device, and avoiding a large squeezing force on the contact position between the coated glass and the fixing claw when fixing the coated glass with a larger thickness, so as to adapt to coated glasses of different thicknesses and avoid the situation where the coated glass is damaged due to excessive fixing force or loose fixing, thereby affecting the normal measurement of coated glass data.

[0015] 2. In the process of fixing the coated glass, the present invention measures the length of the coated glass from the side, so that the telescopic end of the second telescopic rod drives the transmission wheel to move, thereby changing the transmission ratio between the transmission wheel and the cone wheel on the motor, and adjusting the rotation speed of the cross plate to avoid the coated glass being too long, which will increase the inertia when the two ends of the coated glass rotate and cause the cross plate to rotate too fast, resulting in the coated glass breaking.

[0016] 3. When the present invention drives the coated glass to rotate, the trapezoidal blocks squeeze the adjacent connecting plates, so that the connecting plates drive the adjacent supporting plates to rotate, thereby making the supporting plates contact with the coated glass, increasing the force-bearing area of ​​the coated glass, and avoiding the small contact area with the coated glass when driving it to rotate, resulting in concentrated force and damage to the coated glass. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0018] Figure 2 It is a schematic diagram of the three-dimensional structure of the first push rod, the lifting plate and the first slide rail of the present invention;

[0019] Figure 3 It is a schematic diagram of the three-dimensional structure of the first slide rail, the second slide rail and the launcher of the present invention;

[0020] Figure 4 It is a schematic diagram of the three-dimensional structure of the motor, the transmission wheel and the extrusion block of the present invention;

[0021] Figure 5 It is a three-dimensional structural schematic diagram of the rotating shaft, the horizontal plate and the third push rod of the present invention;

[0022] Figure 6 It is a three-dimensional structural schematic diagram of the L-shaped frame, the elastic telescopic rod and the anti-slip plate of the present invention;

[0023] Figure 7 It is a three-dimensional structural schematic diagram of the buffer plate, the fixing rod and the fixing plate of the present invention;

[0024] Figure 8 It is a three-dimensional structural schematic diagram of the fixed rod, the sliding block and the sliding plate of the present invention;

[0025] Fig. 9 It is a schematic diagram of the three-dimensional structure of the sliding plate, the positioning block and the Z-shaped rod of the present invention;

[0026] Fig.10 It is a schematic diagram of the three-dimensional structure of the trapezoidal block, the connecting plate and the supporting plate of the present invention;

[0027] Fig.11 It is a schematic diagram of the three-dimensional structure of the first telescopic rod, the liquid storage shell and the second telescopic rod of the present invention;

[0028] Fig.12 It is a schematic diagram of the three-dimensional structure of the horizontal plate, L-shaped frame and elastic telescopic rod of the present invention;

[0029] Fig.13 It is a schematic diagram of the three-dimensional structure of the transmission wheel, the liquid storage shell and the second telescopic rod of the present invention;

[0030] Fig.14 It is a rear view of the three-dimensional structure of the first slide rail, the liquid storage tube and the third telescopic rod of the present invention;

[0031] Fig.15 It is a three-dimensional structural schematic diagram of the rack, the missing gear and the air gun of the present invention.

[0032] Markings in the accompanying drawings: 1-fixed frame, 2-first push rod, 3-lifting plate, 4-first slide rail, 5-second slide rail, 6-transmitter, 7-rotating shaft, 8-cross plate, 9-L-shaped frame, 10-elastic telescopic rod, 11-anti-skid plate, 12-buffer plate, 13-second push rod, 14-L-shaped rod, 20-transmission assembly, 21-motor, 22-transmission wheel, 23-third push rod, 24-extrusion block, 30-fixed assembly, 3 1-fixed rod, 32-fixed plate, 33-sliding block, 34-sliding plate, 35-positioning block, 36-Z-shaped rod, 40-support assembly, 41-trapezoidal block, 42-connecting plate, 43-support plate, 50-adjusting mechanism, 51-first telescopic rod, 52-liquid storage shell, 53-second telescopic rod, 60-cleaning mechanism, 61-liquid storage tube, 62-third telescopic rod, 63-rack, 64-missing gear, 65-air gun. DETAILED DESCRIPTION

[0033] The following describes an embodiment of the present invention with reference to the accompanying drawings. When the staff reads the following working principle, when there are two or more identical parts, the staff uses the direction of movement of the left front part of the device as a reference direction.

[0034] When measuring a large piece of coated glass, the existing device needs to measure multiple positions of the coated glass to ensure that the coated glass is qualified. However, when fixing the coated glass, the existing fixing claws cannot judge the thickness of the coated glass. As a result, when fixing thicker coated glass, the contact position of the coated glass and the fixing claws is subjected to excessive extrusion force, which easily causes deformation of the contact position of the coated glass and the fixing claws. At the same time, when fixing thinner coated glass, the fixing force of the fixing claws on the coated glass is relatively small, affecting the subsequent normal use of the coated glass.

[0035] Embodiment 1: A coated glass measuring device, such as Figure 1-Figure 7The figure shows that it comprises a fixing frame 1, and the lower side of the fixing frame 1 is provided with evenly distributed photoelectric sensors (not shown in the figure), the upper part of the fixing frame 1 is fixedly connected with two first push rods 2 that are symmetrically distributed in the front and back, the telescopic ends of the two first push rods 2 are commonly fixedly connected with a lifting plate 3, the lifting plate 3 is fixedly connected with two first slide rails 4 that are symmetrically distributed in the left and right, the first slide rails 4 are slidably connected with a slider, the opposite sides of the two sliders are commonly fixedly connected with a second slide rail 5, the second slide rail 5 is slidably connected with a slider, the lower side of the slider is fixedly connected with an emitter 6, the emitter 6 is used to emit light to the coated glass, so as to measure the light transmittance of the coated glass, and the light is received by the photoelectric sensor, the fixing frame The middle part of the frame 1 is rotatably connected with two rotating shafts 7 symmetrically distributed front and back, and the opposite sides of the two rotating shafts 7 are spline-connected with a transverse plate 8 to prevent the transverse plate 8 from rotating independently relative to the adjacent rotating shaft 7. A spring is arranged between the transverse plate 8 and the adjacent rotating shaft 7. The lower side of the transverse plate 8 is provided with two L-shaped frames 9 symmetrically distributed left and right. The cross bar of the L-shaped frame 9 is located on the lower side of the transverse plate 8. The back sides of the two transverse plates 8 are fixed with two elastic telescopic rods 10 symmetrically distributed left and right. Initially, the telescopic ends of the elastic telescopic rods 10 are in an extended state. The telescopic ends of the elastic telescopic rods 10 are hinged with an anti-slip plate 11. When fixing the coated glass, the elastic telescopic rods 10 are extended to extend and retract. The end drives the adjacent anti-skid plate 11 to move, so that the anti-skid plate 11 pushes the coated glass, thereby completing the positioning. A torsion spring (not shown in the figure) is arranged between the anti-skid plate 11 and the telescopic end of the adjacent elastic telescopic rod 10. Initially, the torsion spring is in a power storage state, and the lower part of the anti-skid plate 11 is tilted toward the direction of the rotating shaft 7 to prevent the glass from sliding to the left and right sides. The upper side surface of the L-shaped frame 9 is slidably connected with a buffer plate 12, and the buffer plate 12 is elastic. A tension spring is arranged between the L-shaped frame 9 and the adjacent buffer plate 12. When the coated glass moves downward, the buffer plate 12 moves downward to reduce the extrusion force on the coated glass, so as to adapt to the thickness of the coated glass and avoid the coated glass The glass is subjected to a large squeezing force, resulting in damage to the coated glass and affecting its measurement. The transverse plate 8 is fixedly connected to two second push rods 13 symmetrically distributed on the left and right. The telescopic end of the second push rod 13 is fixedly connected to an L-shaped rod 14. The transverse plate 8 is provided with two slide grooves symmetrically distributed on the left and right. The L-shaped rod 14 slides in adjacent slide grooves on adjacent transverse plates 8. An inclined surface is provided at one end of the L-shaped rod 14 away from the adjacent second push rod 13, and the inclined surface faces downward. The inclined surface on the L-shaped rod 14 is squeezed and matched with the adjacent anti-skid plate 11, so as to make the lower end of the anti-skid plate 11 initially deviate to one side of the rotating shaft 7. A transmission component for driving the adjacent rotating shaft 7 to rotate is provided on the fixed frame 1.

[0036] like Figure 4-Figure 6As shown, the transmission assembly includes a motor 21, which is fixedly connected to the middle part of the front side of the fixed frame 1, and a transmission wheel 22 is arranged at the front part of the front rotating shaft 7. A cone wheel is arranged on the output shaft of the motor 21, and the cone wheel and the transmission wheel 22 are frictionally transmitted to drive the transmission wheel 22 to rotate. The fixed frame 1 is fixedly connected with two third push rods 23 symmetrically distributed front and back, and the rotating shaft 7 is provided with limiting grooves symmetrically distributed up and down. The telescopic end of the third push rod 23 is limitedly matched with the adjacent limiting grooves on the adjacent rotating shaft 7. When measuring the coated glass, the rotating shaft 7 is limited by the telescopic end of the third push rod 23 to prevent the cross plate 8 from driving the coated glass, resulting in the measurement being unable to proceed normally. The telescopic end of the second push rod 13 is slidably connected with an extrusion block 24, and the extrusion block 24 A damping is arranged between the telescopic end of the adjacent second push rod 13, and a slope is arranged on the front side of the extrusion block 24. The slope on the extrusion block 24 is extruded and matched with the fixing frame 1. In the process of the extrusion block 24 moving to the right, by squeezing the slope on the extrusion block 24, the extrusion block 24 drives the adjacent transverse plate 8 to approach the coated glass to complete the positioning. The transverse plate 8 is provided with two limit blocks symmetrically distributed on the left and right. The extrusion block 24 is limited and matched with the adjacent limit blocks on the adjacent transverse plate 8. The fixing portion of the second push rod 13 is limited and matched with the adjacent extrusion block 24, which is used to limit the moving distance of the extrusion block 24 to avoid the extrusion block 24 moving too far and being unable to push the adjacent transverse plate 8 to move. A fixing component for fixing the coated glass is provided on the L-shaped frame 9.

[0037] like Figure 7-10As shown, the fixing assembly includes a fixing rod 31, the fixing rod 31 is hinged to the upper part of the adjacent L-shaped frame 9, a torsion spring is arranged between the fixing rod 31 and the adjacent L-shaped frame 9, the fixing rod 31 rotates at an angle of 90°, the upper end of the fixing rod 31 is slidably connected with a fixing plate 32, the fixing plate 32 is elastic, the fixing plate 32 is used to fix the coated glass, a tension spring is arranged between the fixing plate 32 and the adjacent fixing rod 31, the tension spring is used to reduce the extrusion force when the fixing plate 32 contacts the coated glass, the front side and the lower side of the L-shaped frame 9 are both provided with sliding grooves, the L-shaped frame 9 is slidably connected with a sliding block 33 and a sliding plate 34, the sliding block 33 and the sliding plate 34 are respectively located in adjacent sliding grooves on the adjacent L-shaped frames 9 and slide, a spring is arranged between the sliding block 33 and the sliding plate 34 and the adjacent L-shaped frames 9, the cross-section of the sliding block 33 is a parallelogram, and the sliding plate 34 is provided with a spring. The inclined surface on the upper side of the moving block 33 is squeezed and matched with the lower part of the adjacent fixed rod 31, and the adjacent fixed rod 31 is pushed to rotate when the sliding block 33 moves upward. A positioning block 35 is fixedly connected to the front part of the upper side of the sliding plate 34, and the upper part of the positioning block 35 is provided with an inclined surface facing the rear side. The inclined surface on the positioning block 35 is squeezed and matched with the inclined surface on the lower side of the adjacent sliding block 33. When the sliding plate 34 moves backward, the inclined surface on the positioning block 35 pushes the adjacent sliding block 33 to move upward. A Z-shaped rod 36 is fixedly connected to the front side of the L-shaped rod 14, and the front end of the sliding plate 34 is provided with an inclined surface facing the left side. The Z-shaped rod 36 is squeezed and matched with the inclined surface on the adjacent sliding plate 34. When the L-shaped rod 14 moves to the right, the Z-shaped rod 36 pushes the adjacent sliding plate 34 to move backward. A supporting component for increasing the force-bearing area of ​​the coated glass is provided on the sliding plate 34.

[0038] like Figure 8 and 10 As shown, the support assembly includes a trapezoidal block 41, which is fixedly connected to the rear end of the adjacent sliding plate 34. The rear end of the L-shaped frame 9 is hinged with two connecting plates 42 that are symmetrically distributed on the left and right. The cross-section of the trapezoidal block 41 is an isosceles trapezoid, and its upper bottom edge is located on its rear side. The two connecting plates 42 are respectively squeezed and matched with adjacent inclined surfaces on the adjacent trapezoidal blocks 41. When the sliding plate 34 moves backward, the inclined surfaces on the trapezoidal block 41 squeeze the adjacent connecting plates 42 to rotate the connecting plates 42. A torsion spring is arranged between the connecting plates 42 and the adjacent L-shaped frame 9. The back sides of the two connecting plates 42 are fixedly connected with support plates 43, which are made of elastic material. The support plates 43 are used to increase the force-bearing area of ​​the coated glass to avoid the small force-bearing area of ​​the coated glass, which causes the coated glass to be damaged due to concentrated force during rotation.

[0039] When reading this embodiment, when there are two or more identical parts, the direction of movement of the parts on the left front side of the device is used as a reference direction. When the staff uses the present device to detect the transmittance of coated glass (hereinafter referred to as glass), the staff grabs the glass to be detected by a mechanical claw and moves the glass from left to right between the two horizontal plates 8. At this time, the glass is above the horizontal plates 8. The staff controls the mechanical claw to move the glass downward. When the glass contacts the four buffer trays 12, the staff releases the mechanical claw from fixing the glass.

[0040] After the glass stops moving downward, 1. If the glass does not deviate to one side, the staff activates the four second push rods 13, and the telescopic end of the second push rod 13 drives the adjacent L-shaped rod 14 to move rightward, and the L-shaped rod 14 drives the parts thereon to move rightward and reduces the squeezing force of the inclined surface of its left end on the adjacent anti-slip plate 11, and the telescopic end of the elastic telescopic rod 10 drives the adjacent anti-slip plate 11 to move rightward. In this process, the anti-slip plate 11 rotates clockwise under the action of the adjacent torsion spring ( Figure 1 (Looking from the front to the back), when the anti-skid plate 11 is vertical, its adjacent torsion spring is reset, and the anti-skid plate 11 no longer rotates. As the anti-skid plate 11 moves to the right, when the right side of the anti-skid plate 11 contacts the glass, the anti-skid plate 11 stops moving, and the left end of the L-shaped rod 14 separates from the adjacent anti-skid plate 11. The staff closes the second push rod 13, and the L-shaped rod 14 no longer moves to the right. During this process, the sliding plate 34 does not contact the adjacent Z-shaped rod 36.

[0041] During the process of the anti-slip plate 11 moving to the right, the telescopic end of the second push rod 13 drives the adjacent extrusion block 24 to move to the right through damping. The extrusion block 24 moves to the right so that the inclined surface on its front side squeezes the fixing frame 1. The extrusion block 24 drives the adjacent cross plate 8 to move backward through the adjacent second push rod 13. The cross plate 8 drives the parts thereon to move backward along the splines on the adjacent rotating shaft 7 and compresses the adjacent spring. When the rear side surface of the cross plate 8 contacts the glass, the cross plate 8 no longer moves backward. At this time, the front side surface of the extrusion block 24 contacts the fixing frame 1. As the right side surface of the extrusion block 24 contacts the fixing part of the adjacent second push rod 13, the extrusion block 24 no longer moves to the right. The telescopic end of the second push rod 13 moves to the right relative to the adjacent extrusion block 24 until the staff closes the second push rod 13, thereby completing the fixation of the glass.

[0042] After the glass is fixed as described above, the staff starts the two first push rods 2, and the telescopic end of the first push rod 2 drives the emitter 6 to move downward through the lifting plate 3. When the emitter 6 is close to the upper side of the glass, the staff closes the first push rod 2 and starts the emitter 6, the first slide rail 4, the second slide rail 5 and the evenly distributed photoelectric sensors. The emitter 6 emits light to the glass, and the two first slide rails 4 drive the second slide rail 5 to move backward through the sliders thereon. The second slide rail 5 drives the emitter 6 to move left and right through the sliders thereon, so that the light emitted by the emitter 6 can illuminate various positions of the glass and be received by the corresponding photoelectric sensors through the glass, thereby detecting whether the transparency of the glass at various locations meets the requirements. When the upper side detection of the glass is completed, the staff closes the emitter 6, the first slide rail 4, the second slide rail 5 and the photoelectric sensor and starts the first push rod 2 again, so that the emitter 6 moves upward and resets. After the telescopic end of the first push rod 2 is fully retracted, the staff closes the first push rod 2.

[0043] After the first push rod 2 is reset, the staff starts the four second push rods 13 again. The telescopic end of the second push rod 13 drives the adjacent Z-shaped rod 36 to move rightward through the adjacent L-shaped rod 14 again. When the Z-shaped rod 36 contacts the inclined surface on the adjacent sliding plate 34, the Z-shaped rod 36 moves rightward and squeezes the adjacent sliding plate 34 backward. The sliding plate 34 drives the adjacent positioning block 35 to move backward and compress the adjacent spring, so that the inclined surface of the positioning block 35 presses the adjacent sliding block 33 upward. The sliding block 33 moves upward and compresses the adjacent spring, and the inclined surface on its upper side presses the lower part of the adjacent fixed rod 31. The fixed rod 31 drives the fixed plate 32 thereon to rotate counterclockwise and stores force on the adjacent torsion spring ( Figure 1 When the fixing plate 32 moves, the fixing plate 32 contacts the upper side of the glass, and the fixing rod 31 continues to rotate and stretches the adjacent tension spring. When the adjacent spring of the sliding block 33 is compressed to the limit, the staff closes the second push rod 13, and the sliding plate 34 no longer moves backward. The sliding block 33 stops squeezing the adjacent fixing rod 31. At this time, the fixing rod 31 rotates 90°, and the tension spring between the fixing rod 31 and the adjacent fixing plate 32 is stretched to the limit and the glass is fixed. In this process, the glass squeezes the four buffer plates 12 downward, and the buffer plates 12 move downward and stretch the adjacent tension springs to reduce the squeezing force on the glass, so as to avoid the glass being subjected to a large impact force when the glass is fixed, resulting in damage to the glass and affecting the normal detection. When the fixing rod 31 stops rotating, the buffer plate 12 no longer moves downward, and the glass stops moving.

[0044] During the process of the sliding plate 34 moving backward, the sliding plate 34 drives the adjacent trapezoidal block 41 to move backward, and the trapezoidal block 41 squeezes the two adjacent connecting plates 42 to the left and right sides. The connecting plates 42 rotate and store force on the torsion springs, and the two connecting plates 42 drive the supporting plates 43 thereon to rotate and approach the glass. When the staff closes the second push rod 13, the connecting plates 42 drive the adjacent supporting plates 43 to rotate 90°, and the upper side surface of the trapezoidal block 41 contacts the two adjacent connecting plates 42, and the connecting plate 42 stops rotating. At this time, the supporting plates 43 thereon contact the lower side surface of the glass, thereby increasing the force-bearing area of ​​the glass and avoiding the concentration of force on the glass during rotation, which causes the glass to be deformed and damaged, affecting the test results.

[0045] After the above-mentioned strengthening of the fixation of the glass, the staff starts the two third push rods 23, and the telescopic ends of the third push rods 23 move downward and separate from the adjacent limiting holes on the adjacent rotating shaft 7, thereby releasing the limiting of the rotating shaft 7. After the telescopic ends of the third push rods 23 are separated from the adjacent rotating shaft 7, the staff closes the third push rods 23 and starts the motor 21. The output shaft of the motor 21 drives the transmission wheel 22 to rotate through the cone wheel, and the transmission wheel 22 drives the adjacent cross plate 8 to rotate through the adjacent rotating shaft 7, so that the parts on the cross plate 8 drive the glass to rotate 180° so that the lower side of the glass faces upward. After the rotation is completed, the staff turns off the motor 21 and starts the third push rod 23 again. The telescopic ends of the third push rods 23 enter the adjacent limiting holes on the adjacent rotating shaft 7 again to complete the limiting, so as to avoid the rotating shaft 7 from rotating during the detection process, causing the glass to deflect and affect the measurement results. After the rotation is completed, the staff repeats the above process to complete the detection of the lower side of the glass.

[0046] 2. If the glass is placed and the four buffer plates 12 are deformed due to uneven force caused by eccentricity, and slide, take the sliding of the glass to the left as an example. As the glass moves to the left, the center of gravity of the glass moves to the left, and the support points of the four buffer plates 12 on the glass remain unchanged. The anti-slip plate 11 slides to the left and its left end deflects downward. At this time, the rightward deflection of the left anti-slip plate 11 corresponds to the angle of the glass deflection, so as to avoid the glass sliding from the lower side of the anti-slip plate 11 after the glass is put down, resulting in damage to the glass and being unable to be measured. When the glass contacts the left anti-slip plate 11, the glass is limited by the adjacent anti-slip plate 11 and no longer moves. The staff starts the second push rod 13 and repeats the above process to make the anti-slip plate 11 move toward the center line of the horizontal plate 8. The anti-slip plate 11 pushes the glass to the right. When the anti-slip plate 11 on the right contacts the glass, the anti-slip plate 11 no longer moves. The staff closes the second push rod 13 and repeats the above process to measure the glass.

[0047] After the above-mentioned detection is completed, the staff starts the third push rod 23 again, so that the telescopic end of the third push rod 23 releases the limit on the adjacent rotating shaft 7, and then the staff starts the motor 21 and repeats the above process to drive the cross plate 8 to rotate in the opposite direction and reset. When the cross plate 8 is reset, the telescopic end of the third push rod 23 moves upward again to lock the adjacent rotating shaft 7. The staff turns off the motor 21 and starts the second push rod 13. The telescopic end of the second push rod 13 drives the adjacent L-shaped rod 14 and the adjacent extrusion block 24 to move to the left and reset. The L-shaped rod 14 drives the adjacent Z-shaped rod 36 to move to the left, and the extrusion force of the Z-shaped rod 36 on the inclined surface of the adjacent sliding plate 34 is reduced. The sliding plate 34 moves forward under the push of the adjacent spring, and the extrusion of the sliding plate 34 on the two adjacent connecting plates 42 is reduced. The connecting plate 42 drives the adjacent supporting plate 43 to rotate and reset under the action of the adjacent torsion spring, so that the supporting plate 43 is separated from the glass. When the Z-shaped rod 36 is separated from the adjacent sliding plate 34, the connecting plate 42 completes the reset and stops rotating.

[0048] When the sliding plate 34 moves forward, the sliding plate 34 drives the adjacent positioning block 35 to move forward, so that the squeezing force of the positioning block 35 on the adjacent sliding block 33 is reduced. The sliding block 33 moves downward under the push of the adjacent spring and reduces the squeezing force on the adjacent fixed rod 31. The fixed rod 31 drives the adjacent fixed plate 32 to rotate under the action of the adjacent torsion spring, and the squeezing force of the fixed plate 32 on the glass is reduced. The fixed plate 32 moves downward relative to the adjacent fixed rod 31 under the action of the adjacent tension spring to reset. At this time, the squeezing force on the glass is reduced, and the buffer plate 12 drives the glass upward under the drive of the adjacent tension spring. When the fixed plate 32 is separated from the glass, the buffer plate 12 stops moving upward to complete the reset, and the fixed plate 32 stops moving and rotates with the adjacent fixed rod 31. When the adjacent tension spring of the sliding block 33 is reset, the sliding block 33 stops moving downward and separates from the adjacent fixed rod 31, and the fixed rod 31 completes the reset and stops rotating under the action of the adjacent torsion spring.

[0049] As the telescopic end of the second push rod 13 moves to the left, when the inclined surface of the extrusion block 24 contacts the fixing frame 1, the force of the extrusion block 24 on the adjacent cross plate 8 is reduced, and the cross plate 8 drives the parts thereon to move forward under the action of the adjacent spring and releases the fixation of the glass. When the inclined surface of the extrusion block 24 separates from the fixing frame 1, the left side surface of the extrusion block 24 contacts the adjacent limit block on the adjacent cross plate 8, the cross plate 8 stops moving forward and completes the reset, the extrusion block 24 stops moving to the left, and the telescopic end of the second push rod 13 moves to the left relative to the adjacent extrusion block 24.

[0050] After the above-mentioned extrusion block 24 stops moving, the telescopic end of the second push rod 13 drives the adjacent L-shaped rod 14 to continue to move to the left. When the left end of the L-shaped rod 14 contacts the adjacent anti-skid plate 11, the L-shaped rod 14 pushes the adjacent anti-skid plate 11 to move to the left to release the fixation of the glass. The anti-skid plate 11 drives the telescopic end of the adjacent elastic telescopic rod 10 to move to the left. When the telescopic end of the elastic telescopic rod 10 extends to the maximum distance, the anti-skid plate 11 stops moving to the left. The inclined surface on the L-shaped rod 14 moves to the left and squeezes the adjacent anti-skid plate 11, so that the anti-skid plate 11 rotates around the left end of the telescopic end of the adjacent elastic telescopic rod 10. The rotation of the anti-skid plate 11 causes its adjacent torsion spring to accumulate force. When the left side surface of the anti-skid plate 11 is parallel to the inclined surface on the adjacent L-shaped rod 14, it stops rotating. The staff closes the second push rod 13 to complete the reset. After that, the staff takes out the inspected glass through the mechanical claw and repeats the above process to inspect other glasses.

[0051] When measuring coated glass of different lengths, the longer the coated glass is, the greater the shear force its two ends will bear due to inertia during rotation, making it easier for the coated glass to break during rotation.

[0052] Embodiment 2: Based on embodiment 1, Figure 11-13As shown, it also includes an adjustment mechanism, which is arranged on the two horizontal plates 8. The adjustment mechanism is used to adjust the rotation speed of the symmetrically distributed horizontal plates 8. The adjustment mechanism includes four first telescopic rods 51 distributed in a rectangular manner. The four first telescopic rods 51 are respectively fixed to the lower side surfaces of the two horizontal plates 8. The sum of the distance moved by the telescopic end of the first telescopic rod 51 and the distance between the Z-shaped rod 36 and the adjacent sliding plate 34 at the initial time is less than the distance moved by the L-shaped rod 14 to drive the adjacent Z-shaped rod 36 to move, so that the Z-shaped rod 36 can push the adjacent sliding plate 34 to move backward to the maximum distance. The left part of the first telescopic rod 51 is connected to the adjacent elastic telescopic rod 10. The right part is connected, the telescopic end of the first telescopic rod 51 is fixedly connected to the adjacent L-shaped frame 9, and the lower side of the horizontal plate 8 is provided with two slide grooves symmetrically distributed on the left and right. The L-shaped frame 9 is located on the adjacent horizontal plate 8 and slides in the adjacent slide grooves. After the elastic telescopic rod 10 measures the length of the coated glass through the adjacent anti-slip plate 11, the adjacent L-shaped frame 9 is driven to move by the first telescopic rod 51, so that the position of the buffer plate 12 on it changes, so that the coated glass is evenly stressed. A spring is provided between the L-shaped frame 9 and the adjacent horizontal plate 8. The middle part of the fixed frame 1 is rotatably connected with two liquid storage shells 52 symmetrically distributed front and back. The left part of the elastic telescopic rod 10 is connected to the adjacent storage The fixing frame 1 is connected to the liquid shell 52, and two liquid storage chambers are symmetrically distributed front and back. The liquid storage chamber is connected to the adjacent liquid storage shell 52. The front side of the fixing frame 1 is fixed with two second telescopic rods 53 symmetrically distributed left and right. The rear sides of the two second telescopic rods 53 are connected to the adjacent liquid storage chambers. When the telescopic end of the elastic telescopic rod 10 is retracted, the hydraulic oil in the two second telescopic rods 53 is extracted through the adjacent liquid storage shell 52, so that the telescopic end of the second telescopic rod 53 moves backward. The rear side of the transmission wheel 22 is provided with a slide groove. The telescopic ends of the two second telescopic rods 53 are both located in the slide groove of the transmission wheel 22 and slide. The transmission wheel 22 is connected to the adjacent rotating shaft. 7 is slidably connected, the generatrix on the lower side of the cone wheel is parallel to the axis of the transmission wheel 22, initially the transmission ratio between the transmission wheel 22 and the cone wheel is the smallest, when the telescopic end of the second telescopic rod 53 moves backward, the transmission wheel 22 is driven to move backward, thereby increasing the transmission ratio between the transmission wheel 22 and the cone wheel, when the telescopic end of the second telescopic rod 53 moves forward, the transmission wheel 22 is driven to move backward, thereby reducing the transmission ratio between the transmission wheel 22 and the cone wheel, so that the rotation speed of the rotating shaft 7 matches the length of the coated glass, a spring is arranged between the transmission wheel 22 and the adjacent rotating shaft 7, and a cleaning mechanism for cleaning the coated glass is arranged on the fixed frame 1.

[0053] like Fig.14 and 15As shown, the cleaning mechanism includes a liquid storage tube 61, which is fixedly connected to the middle part of the rear side of the fixing frame 1, and the lower part of the liquid storage tube 61 is communicated with the liquid storage cavity on the upper rear side of the fixing frame 1. The sliders of the two first slide rails 4 are fixedly connected with third telescopic rods 62, and the two third telescopic rods 62 are centrally symmetrical. The opposite sides of the fixed parts of the two third telescopic rods 62 are communicated with the upper part of the liquid storage tube 61, and the telescopic ends of the third telescopic rods 62 are fixedly connected with racks 63. The transmitter 6 is rotatably connected with a missing gear 64, and the rack 63 drives the missing gear 64 to rotate, which is used to determine the moving distance of the slider on the second slide rail 5 after measuring the length of the coated glass, so as to avoid the slider driving the transmitter 6 to move to an area without coated glass, thereby reducing the detection efficiency. The rack 63 and the missing gear 64 are in transmission cooperation, and the lower part of the missing gear 64 is fixedly connected with an air gun 65, and the air gun 65 is externally connected with an air pump. The air gun 65 is used to clean impurities on the surface of the coated glass to avoid impurities blocking light and affecting the measurement results.

[0054] During the process of the anti-slip plate 11 moving to the left, the hydraulic oil in the elastic telescopic rod 10 enters the adjacent first telescopic rod 51, and the telescopic end of the first telescopic rod 51 pushes the adjacent L-shaped frame 9 to move to the right. The L-shaped frame 9 drives the parts thereon to move to the right and compresses the adjacent spring. When the anti-slip plate 11 contacts the glass, the L-shaped frame 9 stops moving to the right, so as to avoid the situation where the buffer plate 12 supports the glass in the unchanged position after the length of the glass changes when detecting glasses of different lengths, thereby increasing the distance between the adjacent ends of the glass on the buffer plate 12 and causing the glass to break during the process of driving the glass to rotate.

[0055] During the process of the anti-skid plate 11 moving to the right, the left part of the elastic telescopic rod 10 draws the hydraulic oil in the adjacent liquid storage chamber through the adjacent liquid storage shell 52, and the liquid storage chamber on the front side of the fixed frame 1 draws the hydraulic oil in the two second telescopic rods 53, and the telescopic end of the second telescopic rod 53 drives the transmission wheel 22 to move backward. The movement of the transmission wheel 22 compresses the adjacent spring and changes the transmission ratio with the cone wheel on the motor 21, so that the transmission ratio between the transmission wheel 22 and the cone wheel increases, so as to avoid that after the length of the glass increases, the speed of the rotating shaft 7 remains unchanged, the inertia of the two ends of the glass increases when rotating, resulting in the two ends of the glass breaking during the rotation process, affecting the normal progress of the detection, when the anti-skid plate 11 stops moving, the telescopic end of the second telescopic rod 53 no longer moves, and the transmission ratio between the transmission wheel 22 and the cone wheel no longer changes.

[0056] During the backward movement of the transmission wheel 22, the rear liquid storage chamber draws the hydraulic oil in the liquid storage tube 61. The pressure in the liquid storage tube 61 decreases and the hydraulic oil in the two third telescopic rods 62 is drawn, so that the telescopic end of the third telescopic rod 62 drives the adjacent rack 63 to move to the right. When the anti-slide plate 11 stops moving, the telescopic end of the third telescopic rod 62 stops driving the adjacent rack 63 to move. The staff starts the first slide rail 4 and the second slide rail 5, and the slider on the second slide rail 5 starts the movement of the parts thereon.

[0057] When the slider on the second slide rail 5 moves, the staff starts the air pump to make the air gun 65 absorb the dust on the surface to prevent impurities on the glass surface from affecting the measurement results. In the process of the slider on the second slide rail 5 driving the transmitter 6 to move, the transmitter 6 drives the missing gear 64 and the air gun 65 to move to the right. After the missing gear 64 contacts the rack 63 on the right, the rack 63 drives the air gun 65 to rotate through the missing gear 64. When the air gun 65 rotates 180°, the air gun 65 is located on the left side of the transmitter 6, so that the air gun 65 is always located in the front side of the moving direction of the transmitter 6, and the impurities in the moving direction of the transmitter 6 can be cleaned. The staff controls the slider on the second slide rail 5 to move the slider in the opposite direction to prevent the transmitter 6 from moving to a position without glass and affecting the measurement efficiency. At this time, the teeth on the missing gear 64 and the teeth on the rack 63 on the right are in contact with each other. The teeth are separated. When the missing gear 64 contacts the left rack 63 again, the missing gear 64 repeats the above process to drive the air gun 65 to rotate. After the measurement is completed, the staff closes the air gun 65, the first slide rail 4 and the second slide rail 5, and then starts the second push rod 13 to repeat the above process to release the fixation of the glass. During this process, the hydraulic oil in the elastic telescopic rod 10 enters the adjacent first telescopic rod 51, so that the telescopic end of the first telescopic rod 51 drives the adjacent L-shaped frame 9 to move right and reset, and the hydraulic oil in the elastic telescopic rod 10 enters the adjacent liquid storage shell 52, so that the telescopic end of the second telescopic rod 53 and the telescopic end of the third telescopic rod 62 are extended and retracted respectively, and the transmission wheel 22 moves forward under the push of the adjacent spring and restores the transmission ratio between it and the cone wheel, and the telescopic end of the third telescopic rod 62 drives the adjacent rack 63 to move and reset.

[0058] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A coated glass measuring device, comprising a fixed frame (1), a photoelectric sensor being arranged on the fixed frame (1), a first push rod (2) being fixedly connected to the upper part of the fixed frame (1), a lifting plate (3) being fixedly connected to a symmetrically distributed first slide rail (4), a slider being slidably connected to the first slide rail (4), the symmetrically distributed sliders being commonly fixedly connected to a second slide rail (5), the second slide rail (5) being slidably connected to a slider, the slider being fixedly connected to a transmitter (6), characterized in that: It also includes symmetrically distributed rotating shafts (7), which are all slidably connected to the fixed frame (1), and the opposite sides of the symmetrically distributed rotating shafts (7) are spline-connected with transverse plates (8), a spring is provided between the transverse plate (8) and the adjacent rotating shaft (7), and the lower side of the transverse plate (8) is provided with a symmetrically distributed L-shaped frame (9), and the back side of the symmetrically distributed transverse plate (8) is fixedly connected with symmetrically distributed elastic telescopic rods (10), and the telescopic ends of the elastic telescopic rods (10) are hinged with anti-slip plates (11), and the anti-slip plates (11) A torsion spring is arranged between the telescopic end of the adjacent elastic telescopic rod (10), a buffer plate (12) is slidably connected to the L-shaped frame (9), a tension spring is arranged between the L-shaped frame (9) and the adjacent buffer plate (12), the transverse plate (8) is fixedly connected with symmetrically distributed second push rods (13), the telescopic end of the second push rod (13) is fixedly connected with an L-shaped rod (14) which is slidably connected to the adjacent transverse plate (8) and is squeezed and matched with the adjacent anti-slip plate (11), and a transmission component for driving one of the rotating shafts (7) to rotate is arranged on the fixed frame (1); The transmission assembly comprises a motor (21), the motor (21) being fixedly connected to a side of the fixed frame (1) close to one of the transverse plates (8), a transmission wheel (22) being arranged on the rotating shaft (7) close to the motor (21), a cone wheel being arranged on the output shaft of the motor (21), the cone wheel and the transmission wheel (22) being frictionally driven, the fixed frame (1) being fixedly connected to symmetrically distributed third push rods (23), the third push rods (23) being located on a side of the fixed frame (1) close to the adjacent rotating shaft (7), The telescopic end of the third push rod (23) is limitedly matched with the adjacent rotating shaft (7), the telescopic end of the second push rod (13) is slidably connected with an extrusion block (24), a damper is provided between the extrusion block (24) and the telescopic end of the adjacent second push rod (13), the extrusion block (24) is extrusion-matched with the fixing frame (1), the fixing portion of the second push rod (13) and the horizontal plate (8) are both limitedly matched with the adjacent extrusion block (24), and a fixing component for fixing the coated glass is provided on the L-shaped frame (9); The fixing assembly comprises a fixing rod (31), the fixing rod (31) being hinged to the upper part of the adjacent L-shaped frame (9), a torsion spring being arranged between the fixing rod (31) and the adjacent L-shaped frame (9), a fixing plate (32) being slidably connected to the upper end of the fixing rod (31), a tension spring being arranged between the fixing plate (32) and the adjacent fixing rod (31), a sliding block (33) and a sliding plate (34) being slidably connected to the L-shaped frame (9), and a tension spring being arranged between the sliding block (33) and the sliding plate (34) and the adjacent L-shaped frame (9). A spring is arranged, the sliding block (33) is pressed and matched with the adjacent fixing rod (31), a positioning block (35) is fixedly connected to a side of the sliding plate (34) close to the adjacent sliding block (33), the positioning block (35) and the adjacent sliding block (33) are pressed and matched, a Z-shaped rod (36) is fixedly connected to a side of the L-shaped rod (14) close to the adjacent L-shaped frame (9), the Z-shaped rod (36) and the adjacent sliding plate (34) are pressed and matched, and a support component for increasing the force-bearing area of ​​the coated glass is arranged on the sliding plate (34); The invention also comprises an adjusting mechanism, the adjusting mechanism being arranged on the symmetrically distributed transverse plates (8), the adjusting mechanism being used to adjust the rotation speed of the symmetrically distributed transverse plates (8), the adjusting mechanism comprising rectangularly distributed first telescopic rods (51), the rectangularly distributed first telescopic rods (51) being respectively fixedly connected to the symmetrically distributed transverse plates (8), the first telescopic rods (51) being connected to adjacent elastic telescopic rods (10), the telescopic ends of the first telescopic rods (51) being fixedly connected to adjacent L-shaped frames (9), the L-shaped frames (9) being slidably connected to adjacent transverse plates (8), a spring being arranged between the L-shaped frames (9) and adjacent transverse plates (8), the fixed frame (1) being rotatably connected to symmetrically distributed liquid storage shells (52), the liquid storage shells (52) being located at the positions of the first telescopic rods (51) and the adjacent elastic telescopic rods (10). On one side of the fixed frame (1) close to the adjacent rotating shaft (7), the elastic telescopic rod (10) is communicated with the adjacent liquid storage shell (52), the fixed frame (1) is provided with symmetrically distributed liquid storage cavities, and the liquid storage cavities are communicated with the adjacent liquid storage shell (52), and on one side of the fixed frame (1) close to the motor (21), symmetrically distributed second telescopic rods (53) are fixedly connected, and the symmetrically distributed second telescopic rods (53) are all communicated with the adjacent liquid storage cavities, and the telescopic ends of the second telescopic rods (53) are slidably connected to the transmission wheel (22), and the transmission wheel (22) is slidably connected to the adjacent rotating shaft (7), and a spring is provided between the transmission wheel (22) and the adjacent rotating shaft (7), and a cleaning mechanism for cleaning the coated glass is provided on the fixed frame (1).

2. A coated glass measuring device according to claim 1, characterized in that: An inclined surface is provided at one end of the L-shaped rod (14) away from the adjacent second push rod (13), and the inclined surface faces downward, and the inclined surface is pressed and matched with the adjacent anti-slip plate (11).

3. A coated glass measuring device according to claim 1, characterized in that: The support assembly comprises a trapezoidal block (41), wherein the trapezoidal block (41) is fixedly connected to one end of the adjacent sliding plate (34) away from the adjacent positioning block (35), and one end of the L-shaped frame (9) close to the adjacent trapezoidal block (41) is hingedly connected with symmetrically distributed connecting plates (42), and the symmetrically distributed connecting plates (42) are all squeezed and matched with the adjacent trapezoidal blocks (41), and a torsion spring is arranged between the connecting plate (42) and the adjacent L-shaped frame (9), and the back sides of the symmetrically distributed connecting plates (42) are all fixedly connected with support plates (43).

4. A coated glass measuring device according to claim 3, characterized in that: The cross section of the trapezoidal block (41) is an isosceles trapezoid, and its upper base is located on a side away from the adjacent sliding plate (34).

5. The coated glass measuring device according to claim 1, characterized in that: The generatrix of the cone wheel on the output shaft of the motor (21) close to the rotating shaft (7) is parallel to the axis of the transmission wheel (22).

6. A coated glass measuring device according to claim 2, characterized in that: The sum of the distance moved by the telescopic end of the first telescopic rod (51) and the initial distance between the Z-shaped rod (36) and the adjacent sliding plate (34) is less than the distance moved by the L-shaped rod (14) driving the adjacent Z-shaped rod (36).

7. A coated glass measuring device according to claim 5, characterized in that: The cleaning mechanism comprises a liquid storage tube (61), the liquid storage tube (61) being fixedly connected to a side of the fixed frame (1) away from the motor (21), the liquid storage tube (61) being communicated with an adjacent liquid storage cavity on the fixed frame (1), the sliders of the symmetrically distributed first slide rails (4) being fixedly connected with third telescopic rods (62), the third telescopic rods (62) on the sliders of different first slide rails (4) being centrally symmetrical, the centrally symmetrically distributed third telescopic rods (62) being communicated with the liquid storage tube (61), the telescopic ends of the third telescopic rods (62) being fixedly connected with racks (63), the launcher (6) being rotatably connected with a missing gear (64), the rack (63) being in transmission cooperation with the missing gear (64), and the lower part of the missing gear (64) being fixedly connected with an air gun (65).

Images