Mould pressing tile oil injection slicing system

Abstract

The oil injection slicing system for the molded tiles comprises an oil injection machine, a slicing machine and an inspection machine, the oil injection machine and the slicing machine are both provided with transmission rollers, the oil injection machine carries an oil injection system through a first support, and a roller brush set is arranged below the oil injection system. A first sensor is arranged on a second support at the front end of the slicer, a first sliding rail and a cutting device are arranged in the middle of the slicer, the cutting device comprises a mounting seat, a slicing device and a corner cutting device, a first driving system is arranged in the slicer, and a recycling device is arranged at the bottom of the slicer. The first conveying belt is connected with the slicing machine, the inspection machine is arranged on the first conveying belt, a removing device is arranged on the third support, a second driving system and a second sensor are arranged at the top of the removing device, and a third sensor is arranged on the removing device. The slicing machine is provided with a control system, and the control system is electrically connected with the first sensor, the second sensor, the third sensor, the recycling device, the first driving system, the second driving system and the first conveying belt.

Description

Technical Field

[0001] This utility model relates to the field of tile production equipment technology, and in particular to a molding tile spraying and slicing system. Background Technology

[0002] Molded roofing tiles, a common roofing material, are widely used in various buildings. In continuous production lines for molded roofing tiles, after mixing, the material is typically pressed into long strips using an extruder. After being formed from the extruder, the tile blanks undergo multiple processes, including spray painting, demolding, slicing, and molding. In traditional production processes, the spray painting machine and the slicing machine are usually arranged as independent equipment at different workstations on the production line, which has the following drawbacks:

[0003] 1. Traditional production processes use manual spraying, where workers apply the paint to the tile blanks using handheld spraying equipment. This method is not only inefficient and difficult to meet the needs of large-scale production, but also suffers from poor consistency in manual operation, easily resulting in uneven spraying.

[0004] 2. Most traditional production processes rely on manual cutting tools, depending on worker experience and visual measurement to determine the cutting dimensions. This is not only labor-intensive but also results in extremely low cutting accuracy, leading to significant dimensional deviations in the cut molded tiles, which cannot meet the stringent dimensional accuracy requirements of the construction industry.

[0005] 3. Existing molded tile slicing equipment has limited precision, which can easily lead to inconsistent cutting sizes. Moreover, it has a low degree of automation, and the cutting operation is cumbersome. It requires frequent manual adjustment of the cutting position and parameters, which affects the overall aesthetics of the product and standardized production. Recycling is also inefficient and untimely. Summary of the Invention

[0006] The purpose of this invention is to solve the above-mentioned problems by proposing a molding tile spraying and slicing system.

[0007] To achieve the above objectives, the following technical solution was adopted:

[0008] A molding tile spraying and slicing system includes a spraying machine, a slicing machine, and an inspection machine. The spraying machine and slicing machine are equipped with drive rollers. The spraying machine includes a spraying system and a roller brush assembly. A first support is mounted on the spraying machine, and the spraying system is mounted on the first support. The roller brush assembly is positioned below the spraying system. The slicing machine is connected to the output end of the spraying machine. The slicing machine includes a first sensor, a cutting device, a first drive system, and a recovery device. A second support is located at the front end of the slicing machine, and the first sensor is mounted on the second support. A first slide rail is located in the middle of the slicing machine, and the cutting device is mounted on the first slide rail. The cutting device includes a mounting base, a slicing component, and a corner-cutting component. The slicing component and the corner-cutting component are respectively mounted on the mounting base. On the mounting, the first drive system is located inside the slicer, the recycling device is located at the bottom of the slicer, the output end of the slicer is connected to a first conveyor belt, the inspection machine is mounted on the first conveyor belt, the inspection machine includes a removal device, a second drive system, a second sensor, and a third sensor, the inspection machine is provided with a third bracket, the third bracket is provided with a removal device, the top of the removal device is provided with the second drive system, the second sensor is located on the top of the removal device, the third sensor is located on the removal device, the slicer is provided with a control system, the control system is electrically connected to the first sensor, the second sensor, the third sensor, the recycling device, the first drive system, the second drive system, and the first conveyor belt respectively.

[0009] Preferably, the roller brush assembly includes a first roller brush, a second roller brush, and a third roller brush. The oil injector is provided with a first support frame. The first roller brush includes two small roller brushes, which are respectively mounted on the first support frame via two connecting rods. The connecting rods are connected by a spring. The second and third roller brushes are mounted on the first bracket, and the third roller brush is positioned above the second roller brush. The second roller brush is provided with a connecting shaft, which is connected to the first bracket.

[0010] Preferably, the oil injection system includes an oil storage tank, a first oil outlet, a second oil outlet, a third oil outlet, and an oil inlet. The oil storage tank is located on the top of the first support. The first oil outlet and the second oil outlet are located on one side of the oil storage tank, and the third oil outlet is located on the other side. The second oil outlet is connected to an oil supply pipe. The first oil outlet and the third oil outlet are located directly above the first roller brush and the third roller brush, respectively. The other end of the oil supply pipe is connected to a connecting shaft, and the oil inlet is located on the top of the oil storage tank.

[0011] Preferably, the connecting shaft has a hollow internal structure and is connected to the interior of the second roller brush. The connecting shaft is provided with an oil inlet hole, which is connected to an oil delivery pipe. The roller wall of the second roller brush is provided with an oil seepage hole.

[0012] Preferably, the mounting base includes a front mounting bracket and a rear mounting bracket. The bottom of the mounting base is provided with a first slider, which matches a first slide rail. The first drive system includes a first drive device, a first transmission wheel, and a first transmission belt. The first transmission wheel is respectively disposed inside the machine body at both ends of the slicer and is connected by the first transmission belt. The first drive device is disposed on the first transmission wheel and fixed to the slicer. The first transmission belt is fixedly connected to the bottom of the mounting base by screws. The first drive device in the first drive system is electrically connected to the control system.

[0013] Preferably, the slicing device includes a third driving device, a third transmission wheel, a third transmission belt, a second slide rail, a second slider, and a slicing blade. The third driving device is disposed on the top of the front mounting frame. Rotating shafts are vertically disposed on both sides of the front mounting frame. Third transmission wheels are disposed at the upper and lower ends of the rotating shafts. The third transmission wheels on both sides of the front mounting frame are connected by a third transmission belt. The second slide rail is disposed on the upper and lower parts of the front mounting frame. The second slider matches the second slide rail and is fixed on the third transmission belt. The slicing blade is disposed on the second slider and is connected to the upper and lower second sliders respectively. The third driving device is electrically connected to the control system.

[0014] Preferably, the corner-cutting device includes a cylinder propulsion system, corner cutters, and a support platform. Two cylinder propulsion systems are mounted on the upper part of the rear mounting bracket. The corner cutters are respectively mounted on the bottom of the push rods of the cylinder propulsion systems. The corner cutters are L-shaped and staggered. Each corner cutter is equipped with a spring clip. The support platform is mounted on the rear mounting bracket directly below the cylinder propulsion systems. The support platform has two notches, the positions of which correspond to the positions of the corner cutters. The cylinder propulsion system is electrically connected to the control system.

[0015] Preferably, the recycling device includes a baffle, a second conveyor belt, and a fourth drive device. The second conveyor belt is disposed at the bottom of the slicer, the baffle is disposed on both sides of the second conveyor belt, the fourth drive device is disposed on the second conveyor belt, the upper part of the baffle has an inclined angle, and the fourth drive device is electrically connected to the control system.

[0016] Preferably, the removal device includes a fixed plate, a rotating wheel, a chain, and a push plate. The fixed plate is mounted on a third bracket, and the two fixed plates are connected by a second support frame. The two ends of the inner side of the fixed plate are respectively provided with rotating wheels, which are connected by a chain. The push plate is mounted on the chain, and both ends of the push plate are fixedly connected to the chain. The height of the push plate matches the height of the second sensor. The third sensor is mounted on the second support frame between the fixed plates.

[0017] Preferably, the second drive system includes a second drive device, a second transmission belt, and a second transmission wheel. The second transmission wheel is connected to the rotating wheel via a transmission shaft. The second drive device is mounted on a fixed plate and connected to the second transmission wheel via the second transmission belt. The second drive device in the second drive system is electrically connected to the control system. A fifth drive device is provided on the first conveyor belt and is electrically connected to the control system.

[0018] Compared with the prior art, the beneficial effects of this utility model are as follows:

[0019] 1. By equipping the spray gun with an oil reservoir and multiple oil outlets, such as the first, second, and third oil outlets, the coordinated operation between the multiple oil outlets and the roller brush allows the roller brush, which is mixed with release oil, to apply the coating to the tile blank from the top, bottom, and sides, achieving a more uniform spraying effect and improving product quality.

[0020] 2. A sensing device and a cutting device are installed on the slicing machine. The slicing device in the cutting device drives the cutter through a first drive device and a first transmission device, which can precisely control the cutting position and size. At the same time, the corner cutting device uses a cylinder propulsion device to push the corner cutter. The corner cutter is L-shaped and staggered, which can precisely control the angle and size of the cut corner, avoiding cutting problems caused by human operation differences, improving cutting accuracy, and making the dimensions of the cut molded tiles more in line with the strict requirements of the construction industry, thus improving the overall aesthetics of the product and the level of standardized production.

[0021] 3. The spraying machine and slicing machine are integrated into one system, electrically connected to each drive unit via a control system. Sensing information about the tile blanks through sensors, the control system automatically controls slicing and corner cutting operations according to a preset program, automating the production process. This not only reduces manual operation and labor intensity but also improves production continuity and stability, effectively increasing production efficiency. Furthermore, a recycling device is installed at the bottom of the slicing machine; an inclined baffle guides the scrap generated during cutting onto a conveyor belt, transporting it to a designated location for collection. This avoids scrap accumulation and its interference with production, optimizes the production environment, and achieves effective recycling of production waste.

[0022] 4. An inspection machine is set up at the end of the system. The cut molded tiles are inspected by the second sensor on the inspection machine, and unqualified molded tiles are removed by the removal device. The entire process of inspection, judgment and removal is automated, which reduces human intervention, reduces human error or missed inspection, and improves the overall operating efficiency of the production line. Attached Figure Description

[0023] Figure 1This is a schematic diagram of the structure of the molding tile spraying and slicing system of Embodiment 1 of this utility model;

[0024] Figure 2 This is a schematic diagram of the spraying machine structure of the molding tile spraying and slicing system in Embodiment 1 of this utility model;

[0025] Figure 3 This is a schematic diagram of the spraying machine for the molded tile spraying and slicing system of Embodiment 1 of this utility model;

[0026] Figure 4 This is a schematic diagram of the roller brush system of the molding tile spraying and slicing system in Embodiment 1 of this utility model;

[0027] Figure 5 This is a schematic diagram of the connecting shaft structure of the molding tile spraying and slicing system in Embodiment 1 of this utility model;

[0028] Figure 6 This is a schematic diagram of the slicing machine for the molded tile spraying and slicing system of Embodiment 1 of this utility model;

[0029] Figure 7 This is a schematic diagram of the first drive system of the molded tile spraying and slicing system in Embodiment 1 of this utility model;

[0030] Figure 8 This is a schematic diagram of the bottom of the cutting system of the molded tile spraying and slicing system in Embodiment 1 of this utility model;

[0031] Figure 9 This is a structural diagram of the cutting device of the molding tile spraying and slicing system according to Embodiment 1 of this utility model;

[0032] Figure 10 This is a schematic diagram of the slicing device structure of the molding tile spraying and slicing system in Embodiment 1 of this utility model;

[0033] Figure 11 This is a schematic diagram of the corner-cutting device structure of the molding tile spraying and slicing system in Embodiment 1 of this utility model;

[0034] Figure 12 This is a schematic diagram of the corner cutter structure of the molding tile spraying and slicing system in Embodiment 1 of this utility model;

[0035] Figure 13 This is a schematic diagram of the inspection machine structure of the molded tile spraying and slicing system according to Embodiment 1 of this utility model;

[0036] Figure 14 This is a schematic diagram of the removal device structure of the molded tile spraying and slicing system in Embodiment 1 of this utility model;

[0037] Figure 15 This is a schematic diagram of the control system circuit of the molding tile spraying and slicing system in Embodiment 1 of this utility model; Detailed Implementation

[0038] The following describes the molded tile spraying and slicing system of this utility model in detail with reference to the accompanying drawings.

[0039] like Figures 1 to 15 As shown, the molded tile spraying and slicing system includes a spraying machine 1, a slicing machine 2, and an inspection machine 3. The spraying machine 1 and slicing machine 2 are equipped with drive rollers 4. The spraying machine is equipped with a spraying system 11 and a roller brush assembly 12. The spraying machine 1 is equipped with a first support 13, on which the spraying system 11 is mounted. The roller brush assembly 12 is positioned below the spraying system 11. The slicing machine 2 is connected to the output end of the spraying machine 1. The slicing machine 2 includes a first sensor 21, a cutting device 22, a first drive system 23, and a recovery device 24. The front end of the slicing machine 2 is equipped with a second support 25, on which the first sensor 21 is mounted. The middle of the slicing machine 2 is equipped with a first slide rail 26, on which the cutting device 22 is mounted. The cutting device 22 includes a mounting base 27, a slicing device 28, and a corner-cutting device 29. The slicing device 28 and the corner-cutting device 29 are respectively mounted on the mounting base 27. On the mounting base 27, the first drive system 23 is located inside the slicer 2, the recycling device 24 is located at the bottom of the slicer 2, the output end of the slicer 2 is connected to the first conveyor belt 31, the inspection machine 3 is located on the first conveyor belt 31, the inspection machine 3 includes a removal device 32, a second drive system 33, a second sensor 34, and a third sensor 35, the inspection machine 3 is provided with a third support 36, the third support 36 is provided with the removal device 32, the second drive system 33 is located on the top of the removal device 32, the second sensor 34 is located on the top of the removal device 32, the third sensor 35 is located on the removal device 32, the slicer 2 is provided with a control system 5, the control system 5 is electrically connected to the first sensor 21, the second sensor 34, the third sensor 35, the recycling device 24, the first drive system 23, the second drive system 33, and the first conveyor belt 31 respectively.

[0040] like Figures 2 to 4As shown, the roller brush assembly 12 includes a first roller brush 121, a second roller brush 122, and a third roller brush 123. The oil injector 1 is provided with a first support frame 14. The first roller brush 121 includes two small roller brushes, which are respectively mounted on the first support frame 14 via two connecting rods 141. The connecting rods 141 are connected by a spring 142. The second roller brush 122 and the third roller brush 123 are mounted on a first bracket 13, and the third roller brush 123 is positioned above the second roller brush 122. The second roller brush 122 is provided with a connecting shaft 124, which is connected to the first bracket 13. The first roller brush 121 consists of two small roller brushes, mounted on the first support frame 14 via two connecting rods 141. The connecting rods 141 are connected by a spring 142, allowing the first roller brush 121 to flexibly adjust its spacing and pressure according to the surface condition of the molded tile, thereby achieving good oil spraying coverage for molded tiles of different shapes or with undulating surfaces. The third roller brush 123 is located above the second roller brush 122. Together, they can coat the molded tile with release oil, further improving the uniformity and effect of the coating.

[0041] Furthermore, since the bristles 127 on the surfaces of the first roller brush 121, the second roller brush 122, and the third roller brush 123 are relatively soft and can absorb release oil, when they roll in contact with the tile blank, the release oil can be evenly applied to the surface of the tile blank and the tile blank can be avoided from being damaged.

[0042] like Figure 2 , Figure 3 As shown, the fuel injection system 11 includes a fuel tank 111, a first fuel outlet 112, a second fuel outlet 113, a third fuel outlet 114, and a fuel inlet 115. The fuel tank 111 is located on the top of the first bracket 13. The first fuel outlet 112 and the second fuel outlet 113 are located on one side of the fuel tank 111, and the third fuel outlet 114 is located on the other side. The second fuel outlet 113 is connected to the fuel delivery pipe 116. The first fuel outlet 112 and the third fuel outlet 114 are located directly above the first roller brush 121 and the third roller brush 123, respectively. The other end of the fuel delivery pipe 116 is connected to the connecting shaft 124. The fuel inlet 115 is located on the top of the fuel tank 111. The first oil outlet 112 and the third oil outlet 114 are located directly above the first roller brush 121 and the third roller brush 123, respectively, and can directly supply oil to these two roller brushes, so that the roller brushes can evenly apply oil to the molded tile during the rolling process. The second oil outlet 113 is connected to the connecting shaft 124 of the second roller brush 122 through the oil supply pipe 116, which can deliver oil to the second roller brush 122, thereby completing the oil spraying operation of the molded tile.

[0043] like Figure 5As shown, the connecting shaft 124 has a hollow interior and connects to the interior of the second roller brush 122. The connecting shaft 124 has an oil inlet 125 connected to the oil supply pipe 116. The roller wall of the second roller brush 122 has oil seepage holes 126. The hollow interior of the connecting shaft 124, connected to the interior of the second roller brush 122, and the oil inlet 125 connected to the oil supply pipe 116, allow the oil supplied from the oil injection system 11 via the oil supply pipe 116 to smoothly enter the hollow part of the connecting shaft 124 and further flow into the interior of the second roller brush 122. The oil seepage holes 126 on the roller wall of the second roller brush 122 allow the oil to evenly seep from the inside of the roller to the roller surface.

[0044] like Figures 7 to 9 As shown, the mounting base 27 includes a front mounting bracket 271 and a rear mounting bracket 272. The bottom of the mounting base 27 is provided with a first slider 261, which matches the first slide rail 26. The first drive system 23 includes a first drive device 231, a first transmission wheel 232 and a first transmission belt 233. The first transmission wheel 232 is respectively disposed inside the body at the front and rear ends of the slicer 2 and is connected by the first transmission belt 233. The first drive device 231 is installed at the location of the first transmission wheel 232 and is fixedly connected to the slicer 2. The first transmission belt 233 is fixedly connected to the bottom of the mounting base 27 by screws. The first drive device 231 in the first drive system 23 is electrically connected to the control system 5. The first slider 261 and the first slide rail 26 provide a stable sliding foundation for the cutting device, ensuring that the cutting device can move along the predetermined track. When the first drive device 231 is started under the control of the control system 5, it can drive the first transmission wheel 232 to rotate, thereby causing the first transmission belt 233 to run, driving the mounting base 27 and the cutting device on it to move along the first slide rail 26, thus realizing the precise slicing operation of the molded tile.

[0045] like Figure 10As shown, the slicing device 28 includes a third drive device 281, a third transmission wheel 282, a third transmission belt 283, a second slide rail 284, a second slider 285, and a slicing blade 286. The third drive device 281 is located on the top of the front mounting bracket 271. Rotating shafts 287 are vertically arranged on both sides of the front mounting bracket 271. The upper and lower ends of the rotating shafts 287 are respectively provided with third transmission wheels 282. The third transmission wheels 282 on both sides of the front mounting bracket 271 are connected by the third transmission belt 283. The second slide rail 284 is located on the upper and lower parts of the front mounting bracket 271. The second slider 285 matches the second slide rail 284 and is fixed on the third transmission belt 283. The slicing blade 286 is located on the second slider 285 and is connected to the upper and lower second sliders 285 respectively. The third drive device 281 is electrically connected to the control system 5. The third drive unit 281 is mounted on top of the front mounting bracket 271, driving the third transmission wheel 282 on the two rotating shafts 287 to rotate. This, in turn, drives the second slider 285 fixed thereon to move vertically along the second slide rail 284 via the third transmission belt 283. The slicing blade 286 connects to the upper and lower second sliders 285, moving synchronously with them to complete the cutting action, converting rotational motion into linear cutting. The double slide rail and double slider design ensures the stability of the slicing blade's movement. Combined with the control system 5, it achieves precise control of the cutting position and depth, effectively improving the slicing accuracy and efficiency of the molded tile.

[0046] like Figure 11 , Figure 12 As shown, the corner-cutting device 29 includes a cylinder propulsion system 291, a corner cutter 292, and a support platform 293. The two cylinder propulsion systems 291 are mounted on the upper part of the rear mounting bracket 272. The corner cutters 292 are respectively mounted on the bottom of the push rods of the cylinder propulsion systems 291. The corner cutters 292 are L-shaped and staggered. The corner cutters 292 are provided with spring pieces 294. The support platform 293 is mounted on the rear mounting bracket 272 directly below the cylinder propulsion systems 291. The support platform 293 is provided with two notches 295. The positions of the notches 295 correspond to the positions of the corner cutters 292. The cylinder propulsion system 291 is electrically connected to the control system 5. The two cylinder propulsion system 291 is controlled by the control system 5 and can drive the bottom L-shaped corner cutter 292 to move downward. Its staggered layout can process the two corners of the molded tile at the same time. The spring 294 on the corner cutter 292 can spring away the cut corners of the molded tile that are stuck to the corner cutter 292, so as to prevent the corners of the molded tile from sticking to the corner cutter 292. The notch 295 on the support platform 293 corresponds to the position of the corner cutter 292. When the cylinder propulsion system 291 presses down, the support platform 293 will support the molded tile. At the same time, the corner cutter 292 directly above the notch 295 presses the corner of the molded tile into the notch 295, thereby achieving the cutting of the corner.

[0047] like Figure 11As shown, the recycling device 24 includes a baffle 241, a second conveyor belt 242, and a fourth drive device 243. The second conveyor belt 242 is located at the bottom of the slicer 2 to collect the waste generated during the cutting process. The baffle 241 is located on both sides of the second conveyor belt 242. The fourth drive device 243 is located on the second conveyor belt 242. The upper part of the baffle 241 has an inclined angle to guide the waste to fall onto the conveyor belt and prevent it from flying around. The fourth drive device 243 is electrically connected to the control system 5.

[0048] like Figure 14 As shown, the removal device 32 includes a fixed plate 321, a rotating wheel 322, a chain 323, and a push plate 324. The fixed plate 321 is mounted on the third bracket 31, and the two fixed plates 321 are connected by a second support frame 325. The two ends of the inner side of the fixed plate 321 are respectively provided with rotating wheels 322, and the rotating wheels 322 are connected by a chain 323. The push plate 324 is mounted on the chain 323, and both ends of the push plate 324 are fixedly connected to the chain 323. The height of the push plate 324 matches the height of the second sensor 34. The fixed plate 321 and the second support frame 325 form a frame. The rotating wheels 322 at both ends are connected by the chain 323. The push plate 324 is fixed on the chain and matches the height of the second sensor 34. It can move laterally under the transmission of the chain 323. The third sensor 35 is mounted on the second support frame 325 between the fixed plates 321 to detect the molded tiles in real time.

[0049] The second drive system 33 includes a second drive device 331, a second transmission belt 332, and a second transmission wheel 333. The second transmission wheel 333 is connected to the rotating wheel 322 via a transmission shaft 334. The second drive device 331 is mounted on a fixed plate 321 and is connected to the second transmission wheel 333 via the second transmission belt 332. The second drive device 331 in the second drive system 33 is electrically connected to the control system 5. The second drive system 33 drives the second transmission belt 332 through the second drive device 331, which in turn drives the second transmission wheel 333 connected to the rotating wheel 322, causing the chain 323 to rotate and realize the lateral movement of the push plate 324, thus completing the defective product rejection action. A fifth drive device 311 is provided on the first conveyor belt 31, and the fifth drive device 311 on the first conveyor belt 31 is electrically connected to the control system 5.

[0050] The control system 5 adopts the existing PLC control system, which is existing technology. This utility model does not make any innovative modifications to it. The working principle and working method of the control system 5 will not be described in detail here.

[0051] like Figure 15As shown, the control system 5 is electrically connected to the first sensor 21, the second sensor 34, the third sensor 35, the first drive device 231, the second drive device 331, the third drive device 281, the fourth drive device 243, the fifth drive device 311, and the cylinder propulsion system 291. The control system 5 is electrically connected to the first sensor 21, which transmits the detected conveying speed and length of the tile blanks to the control system 5 via electrical signals. Upon receiving the signals, the control system 5 processes them and, based on the information detected by the first sensor 21, controls the cylinder propulsion system 291, the first drive device 621, and the third drive device 281 to perform slicing and corner-cutting operations. It also controls the fourth drive device 243 to perform corner-recovery operations on the recovery device 24. The control system 5 controls the operation of the cylinder propulsion system 291 through a control valve within the cylinder propulsion system 291.

[0052] The cylinder propulsion system 291 typically consists of a cylinder, piston, control valve, booster, and vacuum generator, and is a relatively mature existing technology. This utility model only applies it simply here without any innovative modifications. The working principle and operation mode of the cylinder propulsion system 291 will not be elaborated here.

[0053] The first sensor 21 is a displacement sensor used to detect the conveying speed V and the length L of the tile blank, and sends the detected conveying speed V and the length L of the tile blank to the control system 5. This is existing technology, and this utility model does not make any innovative modifications to it.

[0054] In the control system 5, a first threshold for the tile blank length is set. When the tile blank length L is detected to reach the first threshold, the control system 5 sends a command signal to the third drive device 281 and the cylinder propulsion system 291, controlling the third drive device 281 and the cylinder propulsion system 291 to perform slicing and corner cutting operations. At the same time, the control system 5 sends a zeroing command to the first sensor 21. After receiving the zeroing command, the first sensor 21 restarts the detection of the tile blank length L.

[0055] At the same time, the control system 5 also collects the conveying speed V of the tile blank. When the length L of the tile blank is detected to reach the first threshold, the control system 5 sends a command signal to the first drive device 231 to control the first drive device 231 to move at the same conveying speed V, so that the first drive device 231 controls the mounting base 27 to move synchronously with the tile blank and then return to its original position.

[0056] The control system 5 sends a command signal to the fourth drive device 243, controlling the fourth drive device 243 to drive the operation of the recovery device 4.

[0057] The second sensor 34 and the third sensor 35 are photoelectric sensors, both existing technologies, and this utility model does not make any innovative modifications to them. The second sensor 34, which is mounted on the fixed plate 321, is used to detect the chain 323. When the second sensor 34 detects the chain 323, it sends a signal to the control system 5, which then controls the second drive device 331 to stop working, thereby stopping the push plate 324 on the chain 323.

[0058] The third sensor 35, mounted on the second support frame 325, is used to detect the length of the molded tile. The control system 5 compares the length of the molded tile detected by the third sensor 35 with the predetermined length of the molded tile, based on a set first threshold. If the length of the molded tile is greater than or less than the predetermined length, the control system 5 sends a signal to start the second drive device 331, thereby driving the push plate 324 to move. If the length of the molded tile is equal to the predetermined length, the control system 5 does not send a control signal to the second drive device 331.

[0059] The above description is merely a preferred embodiment of this application and is not intended to limit the scope of this application. Those skilled in the art may find other optimizations and additional functions in this application. Any modifications, equivalent substitutions, or improvements made within the spirit and principles of this application should be included within the scope of protection of this application.

Claims

1. A system for oiling a die pressed tile slice, the system comprising: The application relates to a tobacco processing device, which comprises an oil spraying machine (1), a slicing machine (2) and an inspection machine (3), the oil spraying machine (1) and the slicing machine (2) are provided with transmission rollers, the oil spraying machine is provided with an oil spraying system (11) and a roller brush group (12), the oil spraying machine (1) is provided with a first support (13), the first support (13) is provided with the oil spraying system (11), the roller brush group (12) is arranged below the oil spraying system (11), the slicing machine (2) is connected with the output end of the oil spraying machine (1), the slicing machine (2) comprises a first sensor (21), a cutting device (22), a first driving system (23) and a recycling device (24), the front end of the slicing machine (2) is provided with a second support (25), the first sensor (21) is arranged on the second support (25), the middle part of the slicing machine (2) is provided with a first sliding rail (26), the cutting device (22) is arranged on the first sliding rail (26), the cutting device (22) comprises a mounting seat (27), a slicing device (28) and an angle cutting device (29), the slicing device (28) and the angle cutting device (29) are arranged on the mounting seat (27) respectively, the first driving system (23) is arranged in the slicing machine (2), the recycling device (24) is arranged at the bottom of the slicing machine (2), the output end of the slicing machine (2) is connected with a first conveying belt (31), the inspection machine (3) is arranged on the first conveying belt (31), the inspection machine (3) comprises a removing device (32), a second driving system (33), a second sensor (34) and a third sensor (35), the inspection machine (3) is provided with a third support (36), the third support (36) is provided with the removing device (32), the top of the removing device (32) is provided with the second driving system (33), the second sensor (34) is arranged on the top of the removing device (32), the third sensor (35) is arranged on the removing device (32), the slicing machine (2) is provided with a control system (5), and the control system (5) is electrically connected with the first sensor (21), the second sensor (34), the third sensor (35), the recycling device (24), the first driving system (23), the second driving system (33) and the first conveying belt (31) respectively.

2. The extruded tile oil jet slicing system of claim 1, wherein: The roller brush group (12) comprises a first roller brush (121), a second roller brush (122) and a third roller brush (123), the oil spraying machine (1) is provided with a first support frame (14), the first roller brush (121) comprises two small roller brushes, the two small roller brushes are arranged on the first support frame (14) through two connecting rods (141), the connecting rods (141) are connected through springs (142), the second roller brush (122) and the third roller brush (123) are arranged on the first support (13), and the third roller brush (123) is arranged above the second roller brush (122), the second roller brush (122) is provided with a connecting shaft (124), and the connecting shaft (124) is connected with the first support (13).

3. The die pressed tile oil jet slice system of claim 2, wherein: The oil injection system (11) comprises an oil tank (111), a first oil outlet (112), a second oil outlet (113), a third oil outlet (114) and an oil inlet (115), the oil tank (111) is arranged on the top of the first support (13), one side of the oil tank (111) is provided with the first oil outlet (112) and the second oil outlet (113), and the other side is provided with the third oil outlet (114), the second oil outlet (113) is connected with the oil delivery pipe (116), the first oil outlet (112) and the third oil outlet (114) are respectively above the first roller brush (121) and the third roller brush (123), the other end of the oil delivery pipe (116) is connected with the connecting shaft (124), and the oil inlet (115) is arranged on the top of the oil tank (111).

4. The die pressed tile oil jet slice system of claim 2, wherein: The connecting shaft (124) is in a hollow structure and is connected with the inside of the second roller brush (122), the connecting shaft (124) is provided with an oil inlet hole (125), the oil inlet hole (125) is connected with the oil delivery pipe (116), and the roller wall of the second roller brush (122) is provided with an oil permeation hole (126).

5. The die pressed tile oil jet slice system of claim 1, wherein: The mounting seat (27) comprises a front mounting frame (271) and a rear mounting frame (272), the bottom of the mounting seat (27) is provided with a first sliding block (261), the first sliding block (261) is matched with the first sliding rail (26), the first driving system (23) comprises a first driving device (231), a first transmission wheel (232) and a first transmission belt (233), the first transmission wheel (232) is arranged in the machine body at the front and rear ends of the slicing machine (2) respectively and is connected through the first transmission belt (233), the first driving device (231) is arranged on the first transmission wheel (232) and is fixed on the slicing machine (2), the first transmission belt (233) is fixedly connected with the bottom of the mounting seat (27) through screws, and the first driving device (231) in the first driving system (23) is electrically connected with the control system (5).

6. The die pressed tile oil jet slice system of claim 1, wherein: The slicing device (28) comprises a third driving device (281), a third transmission wheel (282), a third transmission belt (283), a second sliding rail (284), a second sliding block (285) and a slicing knife (286), the third driving device (281) is arranged at the top of the front mounting frame (271), the two sides of the front mounting frame (271) are vertically provided with rotating shafts (287) respectively, the upper and lower ends of the rotating shaft (287) are respectively provided with the third transmission wheel (282), the third transmission wheels (282) on the two sides of the front mounting frame (271) are connected through the third transmission belt (283) respectively, the second sliding rails (284) are arranged at the upper and lower parts of the front mounting frame (271) respectively, the second sliding block (285) is matched with the second sliding rail (284), the second sliding block (285) is fixed on the third transmission belt (283), the slicing knife (286) is arranged on the second sliding block (285) and connected with the upper and lower second sliding blocks (285) respectively, and the third driving device (281) is electrically connected with the control system (5).

7. The die pressed tile oil jet slice system of claim 1, wherein: The corner cutting device (29) comprises a cylinder pushing system (291), a corner cutter (292) and a support table (293), two cylinder pushing systems (291) are arranged on the upper part of the rear mounting frame (272), the corner cutter (292) is arranged at the bottom of the pushing rod of the cylinder pushing system (291) respectively, the corner cutter (292) is L-shaped and arranged in front of and behind each other, the corner cutter (292) is provided with a spring piece (294), the support table (293) is arranged on the rear mounting frame (272) directly below the cylinder pushing system (291), the support table (293) is provided with two notches (295), the positions of the notches (295) correspond to the positions of the corner cutters (292), and the cylinder pushing system (291) is electrically connected with the control system (5).

8. The die pressed tile oil jet slice system of claim 1, wherein: The recycling device (24) comprises a baffle (241), a second conveying belt (242) and a fourth driving device (243), the second conveying belt (242) is arranged at the bottom of the slicing machine (2), the baffles (241) are arranged on the two sides of the second conveying belt (242), the fourth driving device (243) is arranged on the second conveying belt (242), the upper part of the baffle (241) has an inclination angle, and the fourth driving device (243) is electrically connected with the control system (5).

9. The die pressed tile oil jet slice system of claim 1, wherein: The removing device (32) comprises fixed plates (321), rotating wheels (322), chains (323) and push plates (324), the fixed plates (321) are arranged on the third support (36), two fixed plates (321) are connected through a second support frame (325), both ends of the inner side of the fixed plate (321) are respectively provided with rotating wheels (322), the rotating wheels (322) are connected through chains (323), the push plate (324) is arranged on the chain (323), and both ends of the push plate (324) are respectively fixedly connected with the chain (323), the height of the push plate (324) is matched with the second sensor (34), and the third sensor (35) is arranged on the second support frame (325) between the fixed plates (321).

10. The die pressed tile oil jet slice system of claim 1, wherein: The second driving system (33) comprises a second driving device (331), a second transmission belt (332) and a second transmission wheel (333), the second transmission wheel (333) is connected with the rotating wheel (322) through a transmission shaft (334), the second driving device (331) is arranged on the fixed plate (321), the second driving device (331) is connected with the second transmission wheel (333) through the second transmission belt (332), the second driving device (331) in the second driving system (33) is electrically connected with the control system (5), the first conveying belt (31) is provided with a fifth driving device (311), and the fifth driving device (311) on the first conveying belt (31) is electrically connected with the control system (5).

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