A method for detecting color difference of coated glass online

Abstract

The present invention discloses an online coated glass color difference detection method, which relates to the technical field of glass color difference detection. The online coated glass color difference detection method includes the following steps: Step 1: The coated glass is conveyed to the position of the detection mechanism by a first conveyor belt mechanism. After the coated glass reaches the bottom of the detection mechanism, the detection mechanism moves and detects the color difference of the coated glass in a sweeping manner; Step 2: The result of the color difference detection is judged to obtain a qualified or unqualified detection result; Step 3: After the detection is completed, the coated glass enters the second conveyor belt mechanism and is conveyed by the second conveyor belt mechanism; Step 4: If the color of the coated glass after the color difference inspection is unqualified, the coated glass is lifted off the second conveyor belt mechanism by the second conveyor belt mechanism; Since the unqualified glass is removed by the lifting method in the online coated glass color difference detection method, the coated glass is prevented from being broken.

Description

Technical Field

[0001] The present invention relates to the technical field of glass color difference detection, and in particular to an online coated glass color difference detection method. Background Art

[0002] Coated glass, also known as reflective glass, is coated with one or more layers of thin films of metal, alloy, or metal compound to alter the glass's optical properties and meet specific requirements. Coated glass can be categorized by its properties: heat-reflective glass, low-emissivity (Low-E) glass, and conductive film glass.

[0003] Compared with small glass, the size of coated glass is relatively large. Its common standard specifications include 1200mm×2000mm, 1500mm×2000mm, 1800mm×2100mm, etc. These sizes are suitable for the installation requirements of most windows, doors and partitions; and common small sizes include 500mm×700mm, 600mm×900mm, etc., which are also relatively large.

[0004] In the prior art, coated glass detection generally uses a color difference detector for detection. For example, Patent Publication No. CN214951808U discloses an online Low-E glass rapid color difference detection device, which uses a color difference detector for detection.

[0005] After inspection, if defective products are found, they can be removed using a rejection mechanism, such as the online Low-E glass color difference detection mechanism proposed in Patent Publication No. CN217894417U. However, in practice, when removing defective products by suction, if the suction cup loses power or malfunctions, the glass will fall off and shatter. Summary of the Invention

[0006] In view of the shortcomings of the existing technology, the present invention provides an online coated glass color difference detection method, which solves the problem of poor safety when removing defective products by adsorption.

[0007] To achieve the above objectives, the present invention is implemented through the following technical solutions: an online coated glass color difference detection method, comprising the following steps:

[0008] Step 1: The coated glass is transported to the position of the detection mechanism by the first conveyor belt mechanism. After the coated glass reaches the bottom of the detection mechanism, the detection mechanism moves and scans the entire area to detect the color difference of the coated glass;

[0009] Step 2: Judge the result of color difference detection and obtain the test result as qualified or unqualified;

[0010] Step 3: After the inspection, the coated glass enters the second conveyor mechanism and is transported by the second conveyor mechanism;

[0011] Step 4: If the color of the coated glass after the color difference inspection is unqualified, the coated glass is lifted off the second conveyor belt mechanism by the second conveyor belt mechanism and moved to a position away from the second conveyor belt mechanism. If the color of the coated glass after the color difference inspection is qualified, the second conveyor belt mechanism continues to transport the qualified coated glass to the packaging position.

[0012] Furthermore, the invention further comprises a first bracket located above the first conveyor belt mechanism, and a detection mechanism is assembled on the first bracket, and the detection mechanism comprises:

[0013] An inspection carrier plate is located above the first conveyor belt mechanism and parallel to the conveying direction of the first conveyor belt mechanism. At least three inspection heads are installed below the inspection carrier plate along the length direction.

[0014] The oblique movement structure is arranged obliquely relative to the first conveyor belt mechanism, and the oblique movement structure is used to drive the detection carrier to move obliquely, so that the detection head can scan the coated glass laterally in an oblique movement posture.

[0015] Furthermore, the testing organization also includes:

[0016] An adaptable shaft, the lower end of which is fixed to the middle of the detection carrier plate, and the upper end of which is rotatably mounted on the power output end of the oblique movement structure, so that the angle between the detection carrier plate and the oblique movement structure can be relatively changed. Compensation rods are provided at both ends of the detection carrier plate, and a horizontal slider is slidably provided on the end of the compensation rod away from the detection carrier plate. A horizontal slider perpendicular to the conveying direction of the first conveyor belt mechanism is fixedly provided at a position opposite to the horizontal slider on the first bracket. The horizontal slider is sleeved on the horizontal slider and can slide on the horizontal slider to limit the detection carrier plate to always be parallel to the conveying direction of the first conveyor belt mechanism.

[0017] The track structure is located on both sides of the first conveyor belt mechanism, and the track structure is hoisted under the first bracket. The track structure is an arc-shaped structure. The two ends of the oblique structure are located in the relative track structures, so that the two ends of the oblique structure can slide inside the track structure, so that the inclination angle of the oblique structure can be adjusted to adapt to the size of the coated glass.

[0018] Furthermore, the oblique shift structure includes:

[0019] A tilting screw rod, both ends of which are provided with bearing seats, and the tilting screw rod is rotatably mounted on the bearing seats through bearings;

[0020] a first guide rod, the first guide rod being fixed between the two bearing seats;

[0021] a second motor, the second motor being fixed on one of the bearing seats and being used to drive the tilting screw to rotate;

[0022] The tilting block is threadedly connected to the tilting screw, and the upper end of the adaptable shaft is rotated and installed below the tilting block;

[0023] The track structure includes:

[0024] The track body has a lifting slider slidably arranged in the track body, and the lower end of the lifting slider extends downward and is fixedly connected to the bearing seat.

[0025] Furthermore, the first conveyor belt mechanism includes:

[0026] A narrow belt, with both ends of the narrow belt driven by pulleys, and both ends of the pulleys are rotatably mounted on the first support;

[0027] a first motor, the first motor being used to drive one of the pulleys to rotate;

[0028] The support plate is located in the middle of the interlayer of the narrow strip, and a light source plate is installed on the upper surface of the support plate. The light source plate is used to provide light source when detecting the coated glass.

[0029] Furthermore, the second conveyor belt mechanism is provided at the discharge end of the first conveyor belt mechanism, and the second conveyor belt mechanism includes:

[0030] Intermediate conveyor belt;

[0031] Lifting rollers are arranged on both sides of the middle conveyor belt near the first conveyor belt mechanism area, and the lifting rollers include a first main cylinder away from the middle conveyor belt and a hemispherical head close to the middle conveyor belt, with an installation gap between the first main cylinder and the hemispherical head, and a first cylinder shaft is fixed in the middle of the first main cylinder and the hemispherical head;

[0032] The jacking drive structure is arranged in the installation gap and is used to drive the jacking roller to flip so that the hemispherical head can lift the coated glass upward, leaving both sides of the lower surface of the coated glass empty;

[0033] Step four also includes an upper supporting mechanism and a linear guide mechanism. The upper supporting mechanism is located above the second conveyor belt mechanism, and the upper supporting mechanism can lift the coated glass in the vacant areas on both sides of the lower surface of the coated glass. The linear guide mechanism can drive the upper supporting mechanism to move in a direction perpendicular to the transmission direction of the second conveyor belt mechanism to drive the upper supporting mechanism away from the second conveyor belt mechanism.

[0034] Furthermore, the care institutions include:

[0035] A U-shaped frame is located above the second conveyor belt mechanism, and side panels are provided on both sides of the U-shaped frame, and a support plate is provided on the side of the side panel close to the center of the U-shaped frame;

[0036] The bidirectional screw is rotatably installed on the upper part of the U-shaped frame, and the side panels are threadedly connected to the bidirectional screw, so that the bidirectional screw can move the two side panels closer to the coated glass or away from the coated glass when rotating;

[0037] The third motor is installed on the U-shaped frame and is used to drive the bidirectional screw to rotate;

[0038] The fourth guide rod is fixed in the U-shaped frame and is used to guide the side plate;

[0039] The retractable and rewinding structure is installed on the linear guide mechanism, and the retractable and rewinding structure is used to drive the U-shaped frame to rise or fall.

[0040] Furthermore, both ends of the support plate are rotatably mounted in the side plates, and an angle adjustment structure is provided on one side of the support plate located in the side plates, the angle adjustment structure comprising a gear portion, the gear portion being fixed to the support plate, and a moving rod being provided on one side of the gear portion, the moving rod being provided with a first rack portion meshing with the gear portion;

[0041] A force rod is also fixed in the U-shaped frame, which includes a second horizontal section. Both ends of the second horizontal section are provided with upwardly inclined sections, and the other end of the inclined section is provided with a first horizontal section. A slip ring is fixed at the upper end of the moving rod, and the slip ring can slide on the force rod.

[0042] Furthermore, the lifting drive structure includes:

[0043] An intermediate shaft seat is connected to the first barrel shaft via a bearing, the intermediate shaft seat is located within the installation gap, and two adjacent intermediate shaft seats are fixedly connected via a flip shaft;

[0044] Side frame, the tilt shaft is installed on the side frame through bearings;

[0045] A two-way cylinder, a rack plate is installed on the piston rod of the two-way cylinder, and a flip gear that can mesh with the rack plate is fixed on the flip shaft.

[0046] Furthermore, the second conveyor belt mechanism further comprises:

[0047] Drive shaft, which is located at both ends of the middle conveyor belt and is used to drive the middle conveyor belt to rotate;

[0048] Side rollers: The side rollers are located on both sides of the portion of the middle conveyor belt away from the first conveyor belt mechanism. The side rollers are connected to the drive shaft via a belt transmission member. A power transmission roller is provided between the side rollers and the lifting roller. A first main gear is installed at one end of the power transmission roller and one end of the side roller. A first intermediate gear is engaged between two adjacent first main gears to enable the side rollers, the power transmission rollers and the drive shaft to rotate synchronously.

[0049] The feeding transmission structure can connect the power transmission roller and the first cylindrical shaft so that the power transmission roller drives the first cylindrical shaft to rotate synchronously;

[0050] The power transmission roller includes a second main cylinder body away from the intermediate conveyor belt and an auxiliary cylinder body close to the intermediate conveyor belt. A second cylinder shaft is provided in the middle of the second main cylinder body and the auxiliary cylinder body, and there is also an installation gap between the second main cylinder body and the auxiliary cylinder body.

[0051] The feeding transmission structure includes:

[0052] a second bevel gear, the second bevel gear being fixed to a portion of the second cylindrical shaft located in the installation gap and a portion of the first cylindrical shaft located in the installation gap;

[0053] A first bevel gear is meshed with the second bevel gear below the first bevel gear, and a coaxial second main gear is provided below the first bevel gear, and a second intermediate gear is meshed between two adjacent second main gears;

[0054] The base is located below the second conveyor belt mechanism, and the shaft of the second intermediate gear and the shaft of the second main gear are both rotatably mounted on the base.

[0055] The present invention has the following beneficial effects:

[0056] This online coated glass color difference detection method can detect the color difference of coated glass in a full-area scanning manner. It is suitable for large-scale coated glass. In addition, since unqualified glass is removed by lifting, it can better ensure stability during removal and avoid the coated glass from breaking compared to the suction cup lifting method in the existing technology.

[0057] Of course, any product implementing the present invention does not necessarily need to achieve all of the advantages described above at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0058] Figure 1 It is a detection flow chart of the present invention;

[0059] Figure 2 It is a structural schematic diagram of the present invention;

[0060] Figure 3 It is an assembly diagram of the first conveyor belt mechanism and the detection mechanism of the present invention;

[0061] Figure 4 Schematic diagram of the structure of the first conveyor belt mechanism of the present invention;

[0062] Figure 5 This is an assembly diagram of the detection mechanism and the first bracket of the present invention;

[0063] Figure 6It is a structural schematic diagram of the detection mechanism of the present invention;

[0064] Figure 7 For the present invention Figure 6 Bottom view of ;

[0065] Figure 8 This is a schematic diagram of the position of the adaptable shaft of the present invention;

[0066] Figure 9 This is a diagram showing the position change of the oblique shift block during detection according to the present invention, wherein: Figure 9 (a) is the position diagram of the tilt block in the initial state of detection. Figure 9 (b) is the position diagram of the tilt block at the end of detection. Figure 9 (c) is the position diagram of the tilt block after the detection is completed;

[0067] Figure 10 This is a diagram showing the position change of the tilting block during the detection process after the tilting screw rod is adjusted counterclockwise, wherein: Figure 10 (a) is the position diagram of the tilt block in the initial state of detection. Figure 10 (b) is the position diagram of the tilt block at the end of detection. Figure 10 (c) is the position diagram of the tilt block after the detection is completed;

[0068] Figure 11 2 is a diagram showing the relative positions of the lifting mechanism and the second conveyor belt mechanism of the present invention;

[0069] Figure 12 A partial view of the second conveyor belt mechanism of the present invention near the connecting roller end;

[0070] Figure 13 A partial view of the second conveyor belt mechanism of the present invention near the drive shaft end;

[0071] Figure 14 This is an assembly diagram of the jacking roller of the present invention;

[0072] Figure 15 It is a structural schematic diagram of the jacking roller of the present invention;

[0073] Figure 16 This is an orthographic projection diagram of the jacking roller of the present invention in a state where it has not been jacked up;

[0074] Figure 17 It is an orthographic projection diagram of the jacking roller of the present invention in the jacking state;

[0075] Figure 18 It is a structural schematic diagram of the lifting mechanism of the present invention;

[0076] Figure 19 For the present invention Figure 18 Exploded view of

[0077] Figure 20 For the present invention Figure 18 A magnified view of area A;

[0078] Figure 21 This is a state change diagram of the supporting plate of the present invention gradually approaching and supporting the coated glass, wherein: Figure 21 (a) is the state diagram when the support plate has not yet approached the coated glass. Figure 21 (b) is the state diagram of the support plate close to the coated glass. Figure 21 (c) is a diagram showing the state of the support plate holding the coated glass;

[0079] Figure 22 This is a state change diagram of the present invention where the support plate gradually moves away from and releases the coated glass, wherein: Figure 22 (a) is the state diagram of the support plate not yet separated from the coated glass. Figure 22 (b) is the state diagram of the support plate separated from the coated glass. Figure 22 (c) is a diagram showing the state of the support plate moving upward after it detaches from the coated glass.

[0080] In the figure, 1. first bracket; 2. first conveyor belt mechanism; 21. narrow belt; 22. pulley; 23. first support; 24. support plate; 25. light source board; 26. first motor; 3. detection mechanism; 31. track structure; 311. track body; 313. lifting slider; 314. long slot; 315. clamping bolt; 32. tilting structure; 321. tilting screw rod; 322. first guide rod; 323. bearing seat; 324. second motor; 325. tilting block; 33. adapting shaft; 34 , detection carrier; 341, compensation rod; 342, spring; 343, horizontal slider; 36, horizontal slider; 37, detection head; 4, support mechanism; 41, U-shaped frame; 411, third guide rod; 42, side plate; 43, support plate; 44, third motor; 45, force rod; 451, first horizontal section; 452, tilting section; 453, second horizontal section; 46, fourth guide rod; 47, reeling and unreeling structure; 471, reeling motor; 472, reeling wheel; 473, steel rope; 48, angle adjustment The whole structure; 481, slip ring; 482, moving rod; 483, first rack; 484, gear; 49, bidirectional screw; 6, second conveyor belt mechanism; 61, connecting roller; 62, lifting roller; 621, first main cylinder; 622, first cylinder shaft; 623, hemispherical head; 63, feeding transmission structure; 631, second main gear; 632, second intermediate gear; 633, first bevel gear; 634, second bevel gear; 64, lifting drive structure; 641, bidirectional cylinder; 642, Rack plate; 643, flip gear; 644, flip shaft; 645, intermediate shaft seat; 646, side frame; 65, intermediate conveyor belt; 66, power transmission roller; 661, second main cylinder; 662, auxiliary cylinder; 663, second cylinder shaft; 67, side roller; 68, drive shaft; 69, main transmission structure; 691, first main gear; 692, first intermediate gear; 693, belt transmission member; 610, base; 7, linear guide mechanism; 71, trolley; 72, straight track; 73, bridge frame. DETAILED DESCRIPTION

[0081] The following is based on Figure 1-Figure 22 The present invention provides an online method for detecting color difference of coated glass.

[0082] See also Figure 1 The embodiment of the present invention provides an online coated glass color difference detection method, comprising the following steps:

[0083] Step 1: The coated glass is transported to the position of the detection mechanism 3 by the first conveyor mechanism 2. After the coated glass reaches the bottom of the detection mechanism 3, the detection mechanism 3 moves and scans the entire area to detect the color difference of the coated glass;

[0084] Step 2: Judge the result of color difference detection and obtain the test result as qualified or unqualified;

[0085] Step 3: After the inspection, the coated glass enters the second conveyor belt mechanism 6 and is conveyed by the second conveyor belt mechanism 6;

[0086] Step 4: If the color of the coated glass after the color difference test is unqualified, the coated glass is separated from the second conveyor belt mechanism 6 by lifting on the second conveyor belt mechanism 6 and moved to a position away from the second conveyor belt mechanism 6. If the color of the coated glass after the color difference test is qualified, the second conveyor belt mechanism 6 continues to transport the qualified coated glass to the packaging position.

[0087] Therefore, the online coated glass color difference detection method provided by the embodiment of the present invention can detect the color difference of the coated glass in the entire area in a scanning manner, and is used for large coated glass. Moreover, since unqualified glass is removed in a lifting manner, it can better ensure stability during removal and avoid the coated glass from breaking compared to the suction cup lifting method in the prior art.

[0088] In the above method, a first bracket 1 , a first conveyor belt mechanism 2 , a detection mechanism 3 , a second conveyor belt mechanism 6 , a lifting mechanism 4 and a linear guide mechanism 7 are required.

[0089] like Figure 2 The first bracket 1 is located above the first conveyor belt mechanism 2, and the detection mechanism 3 is assembled on the first bracket 1. The detection mechanism 3 is used to detect the color difference of the coated glass. The second conveyor belt mechanism 6 is used as a place to reject and convey unqualified coated glass. The upper supporting mechanism 4 is used to lift the unqualified coated glass. The linear guide mechanism 7 is used to move the upper supporting mechanism 4 carrying the unqualified coated glass to a position away from the second conveyor belt mechanism 6.

[0090] Combine Figure 3 、 Figures 5-10 As shown, the above-mentioned detection mechanism 3 includes at least a detection carrier plate 34, a tilting structure 32 and three detection heads 37. The detection head 37 is installed below the detection carrier plate 34. The detection carrier plate 34 is preferably in a rectangular shape, which is located above the first conveyor belt mechanism 2 and parallel to the conveying direction of the first conveyor belt mechanism 2. The tilting structure 32 is tilted relative to the first conveyor belt mechanism 2, and the tilting structure 32 is used to drive the detection carrier plate 34 to tilt and move, so that the detection head 37 can scan the coated glass laterally in a tilted posture. The horizontal direction here refers to the direction perpendicular to the conveying direction of the first conveyor belt mechanism 2, so that larger coated glass can be detected in all directions.

[0091] Preferably, the oblique movement structure 32 includes an inclined screw rod 321, a first guide rod 322, a second motor 324 and an oblique movement block 325. Bearing seats 323 are provided at both ends of the inclined screw rod 321, and the inclined screw rod 321 is rotatably mounted on the bearing seat 323 through bearings. The oblique movement block 325 is threadedly connected to the inclined screw rod 321. When the inclined screw rod 321 rotates, the oblique movement block 325 can be displaced, and when it moves, it can drive the detection carrier plate 34 and the detection head 37 below to move horizontally, so that the detection head 37 can perform all-round detection; in addition, the first guide rod 322 is fixed between the two bearing seats 323 for guiding the oblique movement block 325, the second motor 324 is fixed on one of the bearing seats 323, and the second motor 324 is used to drive the inclined screw rod 321 to rotate.

[0092] It should be noted that the moving speed of the oblique moving block 325 here is equal to the transmission speed of the first conveyor belt mechanism 2 in the direction of the first conveyor belt mechanism 2, and the moving speed of the oblique moving block 325 in the direction perpendicular to the transmission direction of the first conveyor belt mechanism 2 is equal, thereby ensuring that the detection head 37 can detect the coated glass in an all-round manner in a following manner.

[0093] Specifically, refer to Figure 9 As shown, Figure 9 (a) shows the first coated glass reaching the bottom of the detection head 37. At this time, the distance between the first coated glass and the second coated glass behind it is h3. At this time, the rotation of the tilting screw 321 can drive the detection carrier 34 to move to the lower left corner. The component speed of the detection carrier 34 moving downward (this component speed should be adjusted by adjusting the rotation speed of the tilting screw 321) is equal to the downward speed of the coated glass below, and finally reaches Figure 9 (b) shows the state, when it reaches Figure 9 (b) is the state shown, at this time relative to Figure 9 In the state shown in (a), the displacement of the coated glass is h1, and the displacement of the tilting block 325 is h2, then h1=h2. Since the second coated glass needs to reach the bottom of the detection head 37 after the tilting block 325 returns, Figure 9 (c) state, so h3=2h1.

[0094] Of course, in actual operation, the size of each batch of coated glass is different. In order to adapt to glasses of different sizes, the tilting structure 32 is configured as a component with adjustable angle.

[0095] Specifically, the detection mechanism 3 also includes a track structure 31, and the track structure 31 is located on both sides of the first conveyor belt mechanism 2, and the track structure 31 is hoisted under the first bracket 1. The track structure 31 is an arc-shaped structure, and the two ends of the oblique structure 32 are located in the relative track structures 31, so that the two ends of the oblique structure 32 can slide inside the track structure 31, so that the inclination angle of the oblique structure 32 can be adjusted to adapt to the size of the coated glass.

[0096] The track structure 31 includes a track body 311, in which a lifting slider 313 is slidably provided. The lower end of the lifting slider 313 extends downward and is fixed to the bearing seat 323. By directly pushing the tilting screw rod 321, the two ends of the tilting screw rod 321 can slide in the track body 311, thereby adjusting its own tilt angle. Figure 6 In the state shown, the more the tilt screw 321 is rotated counterclockwise, the longer the length of the coated glass swept by the detection head 37 is. Figure 9 (a) shows a relatively short length of the coated glass; when the coated glass is longer, the length of the carrier plate 34 that needs to be moved downward is longer, referring to Figure 10 As shown in (a), if the length of the test glass is large, it is necessary to adjust the inclination and speed of the tilt screw 321 before testing. Figure 9 (a) In the state shown, the tilt screw 321 is rotated counterclockwise to form Figure 10 (a) shows the state, during the test, as the tilt screw 321 rotates, it gradually forms Figure 10 (b) shows the state, and then the detection head 37 is reset to detect the second coated glass.

[0097] During actual operation, in order to ensure that the detection carrier 34 below remains in a direction parallel to the conveying direction of the first conveyor belt mechanism 2 even after the oblique moving structure 32 adjusts its own angle, an adaptation shaft 33 is also provided. The lower end of the adaptation shaft 33 is fixed to the middle of the detection carrier 34, and the upper end of the adaptation shaft 33 is rotatably installed on the power output end of the oblique moving structure 32. The power output end mentioned here is the oblique moving block 325, so that the angle between the detection carrier 34 and the oblique moving structure 32 can change relatively; compensation rods 341 are provided at both ends of the detection carrier 34, and a horizontal slider 343 is slidingly provided at the end of the compensation rod 341 away from the detection carrier 34. A horizontal slider 343 is fixed on the first bracket 1 at a position opposite to the horizontal slider 343 and perpendicular to the conveying direction of the first conveyor belt mechanism 2. The horizontal slider 343 is sleeved on the horizontal slider 36 and can slide on the horizontal slider 36.

[0098] Preferably, a compensation spring 342 is sleeved on the compensation rod 341 to buffer the vibration effect of the sliding of the compensation rod 341 on the detection head 37.

[0099] Figure 8 In the state shown, as the tilt screw 321 rotates, the tilt block 325 gradually moves to the lower left, so that the detection carrier 34 moves to the lower left. However, due to the guidance of the horizontal slide bar 36, the detection carrier 34 can only be horizontal; when the angle of the tilt screw 321 is manually adjusted ( Figure 10 As shown in the state), guided by the horizontal slider 343 and the horizontal slide bar 36, the detection carrier 34 can still only be in a state parallel to the first conveyor belt mechanism 2, ensuring the accurate position of its detection head 37.

[0100] It should be noted that the curvature of the track body 311 should be Figure 9 In the state shown, the position of the adaptation axis 33 is the arc center, Figure 9 The state shown is the initial state of the detection head 37. In this state, the tilting screw rod 321 can be pushed so that the two ends of the tilting screw rod 321 can move along the track body 311 to adjust the inclination of the tilting screw rod 321. Once the inclination adjustment is completed and the tilting screw rod 321 rotates, the positions of the tilting block 325 and the detection carrier plate 34 below on the tilting screw rod 321 change, so that the position of the adaptation shaft 33 also changes. The two ends of the tilting screw rod 321 have a tendency to slide in the track body 311, but due to the change in the position of the adaptation shaft 33 (that is, the adaptation shaft 33 is no longer located in the center area of ​​the track body 311), the track body 311 limits the position change of the two ends of the tilting screw rod 321, so that the tilting screw rod 321 can self-lock after adjusting the angle.

[0101] like Figure 6 In order to further ensure that the tilting screw rod 321 is locked in position after the angle adjustment is completed, a long groove 314 is opened on the periphery of the track body 311 and is equipped with a clamping bolt 315. A threaded hole adapted to the clamping bolt 315 is provided on the lifting slider 313, so that the self-locking position of the tilting screw rod 321 after the angle adjustment is further achieved by tightening the clamping bolt 315.

[0102] like Figure 4 In order to improve the detection accuracy of the detection head 37, the first conveyor belt mechanism 2 here includes a narrow belt 21, a first motor 26 and a support plate 24. Multiple groups of narrow belts 21 are provided, and a part of space should be reserved between two adjacent groups of narrow belts 21. The two ends of the narrow belt 21 are driven by pulleys 22, and the two ends of the pulleys 22 are rotatably installed on the first support 23. The first motor 26 is used to drive one of the pulleys 22 to rotate. The support plate 24 is located in the middle of the interlayer of the narrow belt 21, and a light source board 25 is installed on the upper surface of the support plate 24. The light source board 25 is used to provide a light source when detecting coated glass, thereby improving the brightness of the light during detection by the detection head 37 and improving the accuracy of the detection results.

[0103] like Figure 2 、 Figure 11-13 As shown, the second conveyor belt mechanism 6 mentioned above is arranged at the discharge end of the first conveyor belt mechanism 2, which can receive the coated glass from the first conveyor belt mechanism 2, and the second conveyor belt mechanism 6 includes an intermediate conveyor belt 65, a lifting roller 62 and a lifting drive structure 64; the intermediate conveyor belt 65 plays a major conveying role, the middle of the coated glass is located on the intermediate conveyor belt 65, the lifting rollers 62 are arranged on both sides of the intermediate conveyor belt 65 close to the first conveyor belt mechanism 2, and both sides of the coated glass are located on the lifting rollers 62. When the intermediate conveyor belt 65 and the lifting rollers 62 rotate synchronously, the coated glass can be conveyed.

[0104] In fact, the second conveyor belt mechanism 6 further has a connecting roller 61 at one end close to the first conveyor belt mechanism 2 . The connecting roller 61 is located on both sides of the intermediate conveyor belt 65 and is coaxial with the end of the intermediate conveyor belt 65 close to the first conveyor belt mechanism 2 .

[0105] like Figure 14 and Figure 15 The lifting roller 62 here includes a first main cylinder body 621 away from the intermediate conveyor belt 65 and a hemispherical head 623 close to the intermediate conveyor belt 65. There is an installation gap between the first main cylinder body 621 and the hemispherical head 623, and a first cylinder shaft 622 is fixed in the middle of the first main cylinder body 621 and the hemispherical head 623. When the first cylinder shaft 622 rotates, the first main cylinder body 621 and the hemispherical head 623 can rotate by themselves, thereby achieving the purpose of conveying coated glass.

[0106] In addition, the jacking drive structure 64 is arranged in the installation gap, and the jacking drive structure 64 is used to drive the jacking roller 62 to flip, so that the hemispherical head 623 can lift the coated glass upward, leaving both sides of the lower surface of the coated glass empty, thereby providing lifting space for the subsequent upper supporting mechanism 4 to lift the coated glass.

[0107] Reference Figure 13 and Figure 14 As shown, the aforementioned lifting drive structure 64 includes an intermediate shaft seat 645, a side frame 646 and a bidirectional cylinder 641, wherein the intermediate shaft seat 645 is connected to the first cylinder shaft 622 through a bearing, and is used to support the lifting roller 62 so that the lifting roller 62 is in a lifting state or a horizontal state, and the intermediate shaft seat 645 is located in the installation gap, and two adjacent intermediate shaft seats 645 are fixedly connected by a flip shaft 644. Then, when the flip shaft 644 rotates, it can drive the entire lifting roller 62 to be in a lifting state through the intermediate shaft seat 645 ( Figure 16 The lifting roller 62 is in a horizontal state. In this state, the lifting roller 62 is used to transport the coated glass. Figure 17The lifting roller 62 is lifting the coated glass. In this state, the upper support mechanism 4 is working, lifting the entire coated glass upward and away from the second conveyor mechanism 6.

[0108] Preferably, the flip shaft 644 is mounted on the side frame 646 via a bearing;

[0109] Specifically, in order to realize the rotation of the flip shaft 644 , a rack plate 642 is installed on the piston rod of the bidirectional cylinder 641 , and a flip gear 643 that can mesh with the rack plate 642 is fixed on the flip shaft 644 .

[0110] In addition, if Figure 13 In order to achieve the purpose of transporting the qualified coated glass to the required position, the second conveyor belt mechanism 6 here also includes side rollers 67. The side rollers 67 are located on both sides of the part of the intermediate conveyor belt 65 away from the first conveyor belt mechanism 2. A drive shaft 68 for driving the intermediate conveyor belt 65 to rotate is set at both ends of the intermediate conveyor belt 65. In order to realize the self-rotation feeding of the side rollers 67, a main transmission structure 69 is also provided. The main transmission structure 69 includes a belt transmission member 693. The side rollers 67 and the drive shaft 68 are connected by the belt transmission member 693. A power transmission roller 66 is provided between the side rollers 67 and the lifting roller 62. One end of the power transmission roller 66 and one end of the side roller 67 are both installed with a first main gear 691. A first intermediate gear 692 is engaged between the two adjacent first main gears 691, so that the side rollers 67, the power transmission roller 66 and the drive shaft 68 rotate synchronously.

[0111] like Figure 14In order to realize that the lifting roller 62 can rotate together with the power transmission roller 66, a feeding transmission structure 63 is also provided. The feeding transmission structure 63 can connect the power transmission roller 66 and the first cylinder shaft 622, so that the power transmission roller 66 drives the first cylinder shaft 622 to rotate synchronously, and then the lifting roller 62 can rotate on its own to transport coated glass. In order to realize the purpose of the power transmission roller 66 driving the lifting roller 62 to rotate through the feeding transmission structure 63 and the feeding transmission structure 63, the power transmission roller 66 here includes a second main cylinder body 661 away from the middle conveyor belt 65 and an auxiliary cylinder body 662 close to the middle conveyor belt 65. A second cylinder shaft 663 is provided in the middle of the second main cylinder body 661 and the auxiliary cylinder body 662. There is also an installation gap between the second main cylinder body 661 and the auxiliary cylinder body 662; the feeding transmission structure 63 includes a second bevel gear 634, a first bevel gear 633 and a base 610, the second bevel gear 634 is fixed to the part of the second cylinder shaft 663 located in the installation gap and the part of the first cylinder shaft 622 located in the installation gap, the first bevel gear 633 is engaged with the bottom of the second bevel gear 634, and a coaxial second main gear 631 is provided below the first bevel gear 633, and a second intermediate gear 632 is engaged between the two adjacent second main gears 631, the base 610 is located below the second conveyor belt mechanism 6, and the axis of the second intermediate gear 632 and the axis of the second main gear 631 are both rotatably mounted on the base 610.

[0112] In this embodiment, when the power transmission roller 66 rotates, it can drive the second bevel gear 634 on itself to rotate, and then drive a coaxial second main gear 631 to rotate through the first bevel gear 633 below itself, so that the remaining second main gears 631 and second intermediate gears 632 are rotated due to the action of the second intermediate gear 632, and then the first bevel gears 633 are rotated, and due to the action of the second bevel gear 634, the rotation of the first cylinder shaft 622 can be realized, that is, the purpose of self-rotation and feeding of the lifting roller 62 is achieved.

[0113] It should be noted that when the lifting roller 62 gradually turns over, the second bevel gear 634 thereon gradually disengages from the first bevel gear 633, so that during the lifting stage, the lifting roller 62 does not rotate and does not feed materials.

[0114] In addition, the above step four requires the use of an upper supporting mechanism 4 and a linear guide mechanism 7. The upper supporting mechanism 4 is located above the second conveyor belt mechanism 6, and the upper supporting mechanism 4 can lift the coated glass in the vacant areas on both sides of the lower surface of the coated glass. The linear guide mechanism 7 can drive the upper supporting mechanism 4 to move in a direction perpendicular to the transmission direction of the second conveyor belt mechanism 6, so as to drive the upper supporting mechanism 4 away from the second conveyor belt mechanism 6, thereby realizing the removal of unqualified coated glass.

[0115] Combine Figure 11 、 Figure 18 、 Figure 19 As shown in the figure, the upper supporting mechanism 4 includes a U-shaped frame 41, a bidirectional screw rod 49, a third motor 44, a fourth guide rod 46 and a retracting and unreeling structure 47.

[0116] The U-shaped frame 41 is located above the second conveyor belt mechanism 6, and side panels 42 are provided on the lower sides of the U-shaped frame 41. A support plate 43 is provided on the side of the side panel 42 close to the center of the U-shaped frame 41. The bidirectional screw rod 49 is rotatably installed on the upper part of the U-shaped frame 41. The side panels 42 are threadedly connected to the bidirectional screw rod 49, so that the bidirectional screw rod 49 can make the two side panels 42 close to the coated glass or away from the coated glass when rotating. The third motor 44 is installed on the U-shaped frame 41 for driving the bidirectional screw rod 49 to rotate. The fourth guide rod 46 is fixed in the U-shaped frame 41 for guiding the side panels 42. The retractable and rewinding structure 47 is installed on the linear guide rail mechanism 7, and the retractable and rewinding structure 47 is used to drive the U-shaped frame 41 to rise or fall.

[0117] Preferably, a third guide rod 411 is further installed on the U-shaped frame 41 , which cooperates with the linear guide rail mechanism 7 to reduce the shaking of the U-shaped frame 41 when the retractable and rewinding structure 47 lifts or lowers the U-shaped frame 41 .

[0118] In this embodiment, when the third motor 44 is working, the bidirectional screw 49 rotates to make the two side plates 42 approach the coated glass or move away from the coated glass. When the two side plates 42 are close to each other, the support plate 43 can enter the empty area below the two sides of the coated glass (such as Figure 17 ), at this time, the retractable and rewinding structure 47 can lift the U-shaped frame 41 upward, so that the support plate 43 can lift the coated glass upward. Compared with the suction cup transfer of coated glass in the prior art, this method is more stable.

[0119] The preferred reeling and unreeling structure 47 includes a reeling motor 471 , a reeling wheel 472 mounted on the power output end of the reeling motor 471 , and a steel rope 473 with one end wound around the reeling wheel 472 and the other end fixed to the U-shaped frame 41 .

[0120] In addition, it should be noted that the linear guide mechanism 7 is similar to the structure of a bridge crane in the prior art, which includes a bridge 73, a trolley 71 erected above the bridge 73, and a straight track 72 running on the trolley 71. The winding motor 471 is installed on the straight track 72. The straight track 72 and the trolley 71 here can be coordinated by a screw drive, a gear drive or a regional drive method that can realize the movement of the trolley 71 on the straight track 72.

[0121] The third guide rod 411 mentioned above passes through the trolley 71 , and the third guide rod 411 can slide up and down along the trolley 71 .

[0122] Reference Figure 18 、 Figure 20 、 Figure 21 and Figure 22 As shown, since the unqualified coated glass needs to be relocated to a desired position after being transported by the linear guide mechanism 7, such as a trolley for transferring unqualified coated glass, in order to ensure that the damage to the coated glass is minimized when the unqualified coated glass is released onto the trolley, the two ends of the support plate 43 are rotatably mounted in the side plate 42, and an angle adjustment structure 48 is provided on one side of the support plate 43 located in the side plate 42. The angle adjustment structure 48 includes a gear portion 484, and the gear portion 484 is fixed to the support plate. 43, and a moving rod 482 is provided on one side of the gear portion 484, and a first rack portion 483 is provided on the moving rod 482, which is meshed with the gear portion 484. A force rod 45 is also fixed in the U-shaped frame 41, and the force rod 45 includes a second horizontal section 453, and both ends of the second horizontal section 453 are provided with an upwardly inclined inclined section 452, and the other end of the inclined section 452 is provided with a first horizontal section 451. A slip ring 481 is fixed to the upper end of the moving rod 482, and the slip ring 481 can slide on the force rod 45.

[0123] In this implementation, the crawling phase:

[0124] Reference Figure 21 As shown, when the unqualified coated glass reaches the lifting roller 62, the lifting roller 62 lifts it. In the initial state, the state of the support plate 43 is as follows: Figure 21 As shown in (a), as the two-way screw rod 49 works, the two side plates 42 approach each other, the slip ring 481 passes through the inclined section 452 and moves downward to push the moving rod 482 to move downward, so that the moving rod 482 can drive the gear part 484 to rotate through the first rack part 483, so that the support plate 43 gradually tends to be horizontal, forming Figure 21 In the state shown in (b), as the slip ring 481 reaches the position of the second horizontal section 453, the support plate 43 reaches a completely horizontal state. At this time, the retractable and rewinding structure 47 lifts the U-shaped frame 41, and the linear guide mechanism 7 transfers the coated glass.

[0125] Reference Figure 22 Release stage: When the linear guide mechanism 7 moves the coated glass to the desired position, the retractable and rewinding structure 47 lowers the U-shaped frame 41. Figure 22 In the state shown in (a), the two side plates 42 move away from each other through the reverse rotation of the bidirectional screw 49. At this time, the slip ring 481 moves upward through the inclined section 452, and then the first rack part 483 drives the gear part 484 to rotate in the reverse direction, forming Figure 22 In the state shown in (b), as the two side panels 42 continue to move away from each other, the coated glass is placed on the desired trolley.

[0126] When in use (working):

[0127] ①Glass detection

[0128] The coated glass is transported on the first conveyor mechanism 2. When the glass reaches the bottom of the inspection mechanism 3 (when multiple inspection heads 37 are evenly distributed above the coated glass along the length direction of the coated glass), the oblique movement structure 32 works to drive the oblique movement block 325 to move obliquely along the inclined screw 321. At this time, the horizontal slider 343 slides on the horizontal slide bar 36, and the compensation rod 341 slides on the horizontal slider 343. When sliding, the inspection head 37 under the inspection carrier 34 can scan the entire coated glass in all directions (the moving speed of the oblique movement block 325 here is equal to the component speed in the direction of the first conveyor mechanism 2 and the conveying speed of the first conveyor mechanism 2, thereby ensuring that the inspection head 37 can inspect the coated glass in all directions in a following manner). After the inspection, the judgment system determines whether it is qualified. If it is unqualified, the unqualified coated glass should be discarded after entering the position of the second conveyor mechanism 6.

[0129] ②Removal of unqualified coated glass

[0130] When the entire coated glass reaches the position of the second conveyor mechanism 6 and is located below the upper supporting mechanism 4, the controller controls the bidirectional cylinder 641 to shorten, so that the rack plate 642 drives the second bevel gear 634 to rotate, and the tilting shaft 644 drives the intermediate shaft seat 645 to rotate, so that the lifting roller 62 can lift the coated glass through the hemispherical head 623, so that the lower sides of the coated glass are vacant. At this time, the third motor 44 works and the bidirectional screw 49 rotates, so that the two side plates 42 are close to the coated glass supporting plate 43 and can enter the vacant area below the two sides of the coated glass (such as Figure 17 ), at this time, the retractable and unreeling structure 47 can lift the U-shaped frame 41 upwards, so that the support plate 43 can lift the coated glass upwards. After the linear guide mechanism 7 transfers the coated glass, it is necessary to release the coated glass. At this time, Figure 22 In the state shown in (a), the two side plates 42 move away from each other through the reverse rotation of the bidirectional screw 49. At this time, the slip ring 481 moves upward through the inclined section 452, and then the first rack part 483 drives the gear part 484 to rotate in the reverse direction, forming Figure 22 In the state shown in (b), as the two side panels 42 continue to move away from each other, the coated glass is placed at the desired position.

Claims

1. An online coated glass color difference detection method, characterized in that: The following steps are involved: Step 1: The coated glass is transported to the position of the detection mechanism (3) by the first conveyor mechanism (2). After the coated glass reaches the bottom of the detection mechanism (3), the detection mechanism (3) moves and detects the color difference of the coated glass in a sweeping manner over the entire area; Step 2: Judge the result of color difference detection and obtain the test result as qualified or unqualified; Step 3: After the inspection is completed, the coated glass enters the second conveyor belt mechanism (6) and is conveyed by the second conveyor belt mechanism (6); Step 4: If the color of the coated glass after the color difference test is unqualified, the coated glass is separated from the second conveyor belt mechanism (6) by lifting on the second conveyor belt mechanism (6) and moved to a position away from the second conveyor belt mechanism (6); if the color of the coated glass after the color difference test is qualified, the second conveyor belt mechanism (6) continues to transport the qualified coated glass to the packaging position; The second conveyor belt mechanism (6) is provided at the discharge end of the first conveyor belt mechanism (2), and the second conveyor belt mechanism (6) comprises: Intermediate conveyor belt (65); A lifting roller (62) is arranged on both sides of the middle conveyor belt (65) near the first conveyor belt mechanism (2), and the lifting roller (62) includes a first main cylinder (621) away from the middle conveyor belt (65) and a hemispherical head (623) close to the middle conveyor belt (65), an installation gap is provided between the first main cylinder (621) and the hemispherical head (623), and a first cylinder shaft (622) is fixedly provided in the middle of the first main cylinder (621) and the hemispherical head (623); A lifting drive structure (64) is provided in the installation gap, and the lifting drive structure (64) is used to drive the lifting roller (62) to flip, so that the hemispherical head (623) can lift the coated glass upward, so that both sides of the lower surface of the coated glass are vacant; Step four also includes an upper supporting mechanism (4) and a linear guide mechanism (7), wherein the upper supporting mechanism (4) is located above the second conveyor belt mechanism (6), and the upper supporting mechanism (4) can lift the coated glass in the empty areas on both sides of the lower surface of the coated glass, and the linear guide mechanism (7) can drive the upper supporting mechanism (4) to move in a direction perpendicular to the transmission direction of the second conveyor belt mechanism (6) to drive the upper supporting mechanism (4) away from the second conveyor belt mechanism (6).

2. The method for detecting color difference of coated glass online according to claim 1, wherein: It also includes a first bracket (1) located above the first conveyor belt mechanism (2), the detection mechanism (3) is assembled on the first bracket (1), and the detection mechanism (3) includes: A detection carrier plate (34), the detection carrier plate (34) is located above the first conveyor belt mechanism (2) and parallel to the conveying direction of the first conveyor belt mechanism (2), and at least three detection heads (37) are installed below the detection carrier plate (34) along the length direction; The oblique movement structure (32) is arranged obliquely relative to the first conveyor belt mechanism (2), and the oblique movement structure (32) is used to drive the detection carrier (34) to move obliquely, so that the detection head (37) can scan the coated glass laterally in an oblique movement posture.

3. The method for detecting color difference of coated glass online according to claim 2, wherein: The detection mechanism (3) further comprises: An adaptable shaft (33), the lower end of the adaptable shaft (33) is fixed to the middle of the detection carrier (34), and the upper end of the adaptable shaft (33) is rotatably mounted on the power output end of the oblique structure (32), so that the angle between the detection carrier (34) and the oblique structure (32) can change relatively, and both ends of the detection carrier (34) are provided with compensation rods (341), and a horizontal slider (343) is provided on the end of the compensation rod (341) away from the detection carrier (34) for sliding. A horizontal slider (343) is fixed on the first bracket (1) at a position opposite to the horizontal slider (343) and perpendicular to the transmission direction of the first conveyor belt mechanism (2). The horizontal slider (343) is sleeved on the horizontal slider (36) and can slide on the horizontal slider (36) to limit the detection carrier (34) to always be parallel to the transmission direction of the first conveyor belt mechanism (2); A track structure (31) is provided, wherein the track structure (31) is located on both sides of the first conveyor belt mechanism (2), and the track structure (31) is hoisted below the first bracket (1). The track structure (31) is an arc-shaped structure, and the two ends of the oblique structure (32) are located in the opposite track structures (31), so that the two ends of the oblique structure (32) can slide inside the track structure (31), and the inclination angle of the oblique structure (32) can be adjusted to adapt to the size of the coated glass.

4. The method for detecting color difference of coated glass online according to claim 3, wherein: The tilting structure (32) comprises: A tilting screw rod (321), wherein both ends of the tilting screw rod (321) are provided with bearing seats (323), and the tilting screw rod (321) is rotatably mounted on the bearing seats (323) via bearings; A first guide rod (322), wherein the first guide rod (322) is fixed between two bearing seats (323); a second motor (324), the second motor (324) being fixed on one of the bearing seats (323), and the second motor (324) being used to drive the tilting screw (321) to rotate; An oblique moving block (325), wherein the oblique moving block (325) is threadedly connected to the inclined screw rod (321), and the upper end of the adapting shaft (33) is rotatably mounted below the oblique moving block (325); The track structure (31) comprises: A track body (311) is provided with a hanging slider (313) which is slidably arranged in the track body (311), and the lower end of the hanging slider (313) extends downward and is fixedly connected to the bearing seat (323).

5. The method for detecting color difference of coated glass online according to claim 4, wherein: The first conveyor belt mechanism (2) comprises: A narrow belt (21), wherein both ends of the narrow belt (21) are driven by pulleys (22), and both ends of the pulleys (22) are rotatably mounted on a first support (23); a first motor (26), the first motor (26) being used to drive one of the pulleys (22) to rotate; A support plate (24) is located in the middle of the interlayer of the narrow strip (21), and a light source plate (25) is installed on the upper surface of the support plate (24). The light source plate (25) is used to provide a light source when detecting coated glass.

6. The method for detecting color difference of coated glass online according to claim 1, wherein: The supporting mechanism (4) comprises: A U-shaped frame (41), the U-shaped frame (41) is located above the second conveyor belt mechanism (6), and side panels (42) are provided below both sides of the U-shaped frame (41), and a support plate (43) is provided on one side of the side panel (42) close to the center of the U-shaped frame (41); A bidirectional screw rod (49) is rotatably mounted on the upper portion of the U-shaped frame (41), and the side plates (42) are threadedly connected to the bidirectional screw rod (49), so that the bidirectional screw rod (49) can move the two side plates (42) closer to the coated glass or away from the coated glass when rotating. a third motor (44), the third motor (44) being mounted on the U-shaped frame (41) and configured to drive the bidirectional screw rod (49) to rotate; a fourth guide rod (46), the fourth guide rod (46) being fixed in the U-shaped frame (41) and used for guiding the side plate (42); The reeling and unreeling structure (47) is installed on the linear guide rail mechanism (7), and the reeling and unreeling structure (47) is used to drive the U-shaped frame (41) to rise or fall.

7. The method for detecting color difference of coated glass online according to claim 6, wherein: Both ends of the support plate (43) are rotatably mounted in the side plate (42), and an angle adjustment structure (48) is provided on one side of the support plate (43) located in the side plate (42), wherein the angle adjustment structure (48) includes a gear portion (484), wherein the gear portion (484) is fixed on the support plate (43), and a moving rod (482) is provided on one side of the gear portion (484), and a first rack portion (483) meshing with the gear portion (484) is provided on the moving rod (482); A force rod (45) is also fixed in the U-shaped frame (41), and the force rod (45) includes a second horizontal section (453). Both ends of the second horizontal section (453) are provided with upwardly inclined sections (452), and the other end of the inclined section (452) is provided with a first horizontal section (451). The upper end of the moving rod (482) is fixed with a slip ring (481), and the slip ring (481) can slide on the force rod (45).

8. The method for detecting color difference of coated glass online according to claim 1, wherein: The lifting drive structure (64) includes: An intermediate shaft seat (645), wherein the intermediate shaft seat (645) is connected to the first cylindrical shaft (622) via a bearing, the intermediate shaft seat (645) is located within the installation gap, and two adjacent intermediate shaft seats (645) are fixedly connected via a turning shaft (644); A side frame (646), wherein the tilt shaft (644) is mounted on the side frame (646) via a bearing; A bidirectional cylinder (641) is provided, wherein a rack plate (642) is mounted on the piston rod of the bidirectional cylinder (641), and a flip gear (643) capable of meshing with the rack plate (642) is fixed on the flip shaft (644).

9. The method for detecting color difference of coated glass online according to claim 8, characterized in that: The second conveyor belt mechanism (6) further comprises: A drive shaft (68), the drive shaft (68) is located at both ends of the intermediate conveyor belt (65) and is used to drive the intermediate conveyor belt (65) to rotate; Side rollers (67), the side rollers (67) are located on both sides of the portion of the intermediate conveyor belt (65) away from the first conveyor belt mechanism (2), the side rollers (67) are connected to the drive shaft (68) via a belt transmission member (693), a power transmission roller (66) is provided between the side rollers (67) and the lifting roller (62), one end of the power transmission roller (66) and one end of the side roller (67) are both installed with a first main gear (691), and a first intermediate gear (692) is engaged between two adjacent first main gears (691) to enable the side rollers (67), the power transmission roller (66) and the drive shaft (68) to rotate synchronously; A feeding transmission structure (63), wherein the feeding transmission structure (63) is capable of connecting the power transmission roller (66) and the first cylindrical shaft (622), so that the power transmission roller (66) drives the first cylindrical shaft (622) to rotate synchronously; The power transmission roller (66) comprises a second main cylinder (661) away from the intermediate conveyor belt (65) and an auxiliary cylinder (662) close to the intermediate conveyor belt (65); a second cylinder shaft (663) is provided in the middle of the second main cylinder (661) and the auxiliary cylinder (662); and an installation gap is also provided between the second main cylinder (661) and the auxiliary cylinder (662); The feeding transmission structure (63) comprises: a second bevel gear (634), the second bevel gear (634) being fixed to a portion of the second cylindrical shaft (663) located at the installation gap and a portion of the first cylindrical shaft (622) located at the installation gap; A first bevel gear (633), wherein the first bevel gear (633) is meshed with the second bevel gear (634) below, and a coaxial second main gear (631) is provided below the first bevel gear (633), and a second intermediate gear (632) is meshed between two adjacent second main gears (631); A base (610) is located below the second conveyor belt mechanism (6), and the shaft of the second intermediate gear (632) and the shaft of the second main gear (631) are both rotatably mounted on the base (610).

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