Automatic noodle pressing device

Abstract

The utility model discloses an automatic noodle pressing equipment, including frame and its bottom installation power mechanism, top console and the first to fourth conveying mechanism of frame upper portion. Through three layer main conveying belt superposition arrangement and the stereo structure of lateral conveying belt, significantly reduce longitudinal space occupation, realize compact structure layout. The flywheel of power mechanism through the rotation axis one drive transmission gear one through chain linkage transmission gear two form core power source, and through multistage gear coordinated transmission will power shunt to each roll axle and conveying mechanism, make the first time roll -pressing area, secondary roll -pressing area, finished product roll -pressing area's all roll axle and second, fourth conveying belt share same power chain, reduce independent drive component quantity, reduce energy consumption. Console centralized control main motor and servo motor, further optimize energy consumption. The equipment has the dual advantages of high space utilization and low operation energy efficiency.

Description

Technical Field

[0001] This utility model belongs to the field of pasta processing technology, specifically relating to an automatic noodle pressing device. Background Technology

[0002] Existing automatic noodle pressing equipment suffers from space occupation and energy consumption issues due to limitations in the layout design of the conveying mechanism and the transmission control method. Its decentralized, multi-layered conveying structure results in significant redundancy in the connection space between various mechanisms, leading to a large overall size and a significantly increased footprint, making it difficult to meet the space requirements of small and medium-sized production sites. Furthermore, the fact that each mechanism relies on an independent drive system requires a large number of drive motors, increasing structural complexity and energy consumption, which hinders efforts to reduce production and operating costs. Utility Model Content

[0003] The purpose of this invention is to provide an automatic noodle pressing device to solve the problems of high energy consumption, high operating costs, and large footprint of existing noodle pressing devices, where each mechanism is driven independently.

[0004] To achieve the above objectives, the present invention adopts the following technical solution:

[0005] This utility model provides an automatic noodle pressing device, including a frame, a power mechanism installed at the bottom of the frame, a first conveying mechanism, a second conveying mechanism, a third conveying mechanism and a fourth conveying mechanism installed at the top of the frame, and a control console installed at the top of the frame;

[0006] The power mechanism includes a flywheel, on which a first rotating shaft is mounted. A first transmission gear is mounted on the free end of the first rotating shaft. The first transmission gear is connected to a second transmission gear via a chain drive. The first rotating shaft is mounted on a frame.

[0007] The first conveying mechanism includes a first conveyor belt, which is installed on the upper part of the frame. A drive gear is installed at one end of the first conveyor belt, and the drive gear is connected to a motor via a chain drive.

[0008] The second conveying mechanism includes a second conveyor belt, which is installed above the first conveyor belt. A second drive gear is installed at one end of the second conveyor belt, and the second drive gear is connected to a third drive gear via a chain drive.

[0009] The third conveying mechanism includes a third conveyor belt, which is installed above the second conveyor belt. A drive gear three is installed at one end of the third conveyor belt. The drive gear three is connected to a servo motor one via chain drive. The servo motor one is electrically connected to the control console.

[0010] The fourth conveying mechanism includes a fourth conveyor belt, which is installed on the side of the first conveyor belt. A drive gear is installed at one end of the fourth conveyor belt, and the drive gear is connected to a transmission gear via a chain.

[0011] In a further technical solution, the flywheel is connected to a main motor via a belt drive, and the main motor is electrically connected to the control console.

[0012] In a further technical solution, transmission gear two and transmission gear three are mounted on rotating shaft two, which is mounted on a frame. A roller shaft one is located in the middle of rotating shaft two, and transmission gear five is mounted on the other end of rotating shaft two. Transmission gear five is connected to transmission gear six, and transmission gear seven is located on one side of transmission gear six. Transmission gear six and transmission gear seven are mounted on rotating shaft three, which is mounted on a frame. A roller shaft two is located in the middle of rotating shaft three, and transmission gear eight is located on the other end of rotating shaft three. Transmission gear eight is connected to transmission gear nine via a chain drive. Transmission gear nine is mounted on rotating shaft four, which is mounted on a frame. Roller shaft three is mounted in the middle of rotating shaft four.

[0013] In a further technical solution, the transmission gear seven is connected to the transmission gear ten via a chain drive. The transmission gear ten is mounted on the rotating shaft five, which is mounted on the frame. A roller four is mounted in the middle of the rotating shaft five.

[0014] In a further technical solution, a transmission gear eleven is provided in the middle of the rotating shaft one. The transmission gear eleven is connected to a transmission gear twelve via a chain drive. The transmission gear twelve is mounted on a rotating shaft six, which is mounted on a frame. A transmission gear thirteen is mounted on the other end of the rotating shaft six. The transmission gear thirteen is connected to a transmission gear fourteen via a chain drive. The transmission gear fourteen is mounted on a rotating shaft seven, which is mounted on a frame. A roller shaft five is provided in the middle of the rotating shaft seven. A transmission gear fifteen is mounted on the other end of the rotating shaft seven. The transmission gear fifteen is connected to a transmission gear sixteen. The transmission gear sixteen is mounted on a rotating shaft eight, which is mounted on a frame. A roller shaft six is ​​provided in the middle of the rotating shaft eight.

[0015] In a further technical solution, a roller seven is installed above the roller six, the roller seven is set on the rotating shaft nine, the rotating shaft nine is installed on the frame, a transmission gear seventeen is installed at one end of the rotating shaft nine, the transmission gear seventeen is connected to a servo motor two through a chain drive, and the servo motor two is electrically connected to the control console.

[0016] In a further technical solution, a transmission gear eighteen is provided on one side of the transmission gear four. The transmission gear eighteen is connected to a motor two via a chain drive. The motor two is electrically connected to the control console. The transmission gear four and the transmission gear eighteen are mounted on a rotating shaft ten. The rotating shaft ten is mounted on a frame. A roller eight is provided in the middle of the rotating shaft ten.

[0017] In a further technical solution, a transmission gear nineteen is provided at the other end of the rotating shaft ten, and a transmission gear twenty is connected to the transmission gear nineteen. The transmission gear twenty is mounted on the rotating shaft eleven, the rotating shaft eleven is mounted on the frame, and a roller nine is provided in the middle of the rotating shaft eleven.

[0018] In a further technical solution, a sliding groove is provided below the end of the first conveyor belt near the first drive gear and the end of the fourth conveyor belt near the fourth drive gear, and the sliding groove is fixed on the frame.

[0019] In a further technical solution, a flour spreading machine is provided above one end of the third conveyor belt near the drive gear three, and a servo motor three is provided on one side of the flour spreading machine, and the servo motor three is electrically connected to the control console.

[0020] Beneficial effects:

[0021] This invention significantly reduces redundant connection space between mechanisms by optimizing the compact three-dimensional layout of the first to fourth conveying mechanisms, thereby reducing the overall footprint of the equipment and making it more suitable for the space requirements of small and medium-sized production sites, thus lowering site usage costs. Simultaneously, the integrated transmission design using gear combinations reduces the number of drive motors, simplifies the equipment structure, and lowers energy consumption, contributing to reduced production and operating costs. The equipment is centrally controlled via a control console, enabling automated continuous processing and greatly improving production efficiency. Attached Figure Description

[0022] This utility model will be described by way of example and with reference to the accompanying drawings, wherein:

[0023] Figure 1 A schematic diagram (I) of an automatic noodle pressing device provided for an embodiment of this utility model;

[0024] Figure 2 A side view of an automatic noodle pressing device provided for an embodiment of this utility model;

[0025] Figure 3 A top view of an automatic noodle pressing device provided in an embodiment of this utility model;

[0026] Figure 4 A schematic diagram (II) of an automatic noodle pressing device provided for an embodiment of this utility model;

[0027] Figure 5 A schematic diagram (III) of an automatic noodle pressing device provided for an embodiment of this utility model;

[0028] Figure 6 A schematic diagram (IV) of an automatic noodle pressing device provided for an embodiment of this utility model;

[0029] Figure 7 A schematic diagram (V) of an automatic noodle pressing device provided for an embodiment of this utility model;

[0030] Figure 8 for Figure 3 AA cross-section view.

[0031] in:

[0032] 1. Frame; 2. Power mechanism; 3. First conveying mechanism; 4. Second conveying mechanism; 5. Third conveying mechanism; 6. Fourth conveying mechanism; 7. Main motor; 8. Chute; 9. Noodle spreading machine; 11. Control console; 21. Flywheel; 22. Shaft 1; 23. Transmission gear 1; 24. Transmission gear 2; 25. Transmission gear 3; 26. Transmission gear 4; 27. Shaft 2; 28. Roller 1; 29. ​​Transmission gear 5; 210. Transmission gear 6; 211. Transmission gear 7; 212. Shaft 3; 213. Roller 2; 214. Transmission gear 8; 215. Transmission gear 9; 216. Shaft 4; 217. Roller 3; 218. Transmission gear 10; 219. Shaft 5; 220. Roller 4; 221. Transmission gear 11; 222. Transmission gear 12; 223. Shaft 6; 224. Transmission... Gear 13; 225, Transmission Gear 14; 226, Rotating Shaft 7; 227, Roller Shaft 5; 228, Transmission Gear 15; 229, Transmission Gear 16; 230, Rotating Shaft 8; 231, Roller Shaft 6; 232, Roller Shaft 7; 233, Rotating Shaft 9; 234, Transmission Gear 17; 235, Servo Motor 2; 236, Transmission Gear 18; 237, Motor 2; 238, Rotating Shaft 10; 239, Roller Shaft 8; 240, Transmission Gear 19; 241, Transmission Gear 20; 242, Rotating Shaft 11; 243, Roller Shaft 9; 31, First Conveyor Belt; 32, Drive Gear 1; 33, Motor 1; 41, Second Conveyor Belt; 42, Drive Gear 2; 51, Third Conveyor Belt; 52, Drive Gear 3; 53, Servo Motor 1; 61, Fourth Conveyor Belt; 62, Drive Gear 4; 91, Servo Motor 3. Detailed Implementation

[0033] To make the objectives, features, and advantages of this utility model more apparent and understandable, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this utility model, and not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this utility model.

[0034] Example:

[0035] like Figures 1 to 8 As shown, this utility model embodiment provides an automatic dough pressing device, including a frame 1. A power mechanism 2 is installed at the bottom of the frame 1, and a first conveying mechanism 3, a second conveying mechanism 4, a third conveying mechanism 5, and a fourth conveying mechanism 6 are installed on the upper part of the frame 1. A control console 11 is installed on the top of the frame 1. The power mechanism 2 includes a flywheel 21, on which a rotating shaft 22 is installed. A transmission gear 23 is installed at the free end of the rotating shaft 22. The transmission gear 23 is connected to a transmission gear 24 via a chain drive. The rotating shaft 22 is installed on the frame 1. The first conveying mechanism 3 includes a first conveyor belt 31, which is installed on the upper part of the frame 1. A drive gear 32 is installed at one end of the first conveyor belt 31. The drive gear 32 is connected to a motor 33 via a chain drive. The second conveyor belt 31 is connected to a motor 33 via a chain drive. The conveying mechanism 4 includes a second conveyor belt 41, which is installed above the first conveyor belt 31. A second drive gear 42 is installed at one end of the second conveyor belt 41, and the second drive gear 42 is connected to a third transmission gear 25 via a chain drive. The third conveying mechanism 5 includes a third conveyor belt 51, which is installed above the second conveyor belt 41. A third drive gear 52 is installed at one end of the third conveyor belt 51, and the third drive gear 52 is connected to a first servo motor 53 via a chain drive. The first servo motor 53 is electrically connected to the control console 11. The fourth conveying mechanism 6 includes a fourth conveyor belt 61, which is installed to the side of the first conveyor belt 31. A fourth drive gear 62 is installed at one end of the fourth conveyor belt 61, and the fourth drive gear 62 is connected to a fourth transmission gear 26 via a chain drive.

[0036] This embodiment of the utility model uses a frame 1 as the basic carrier, with a flywheel 21, a rotating shaft 22, and transmission gears 23 and 24 installed at the bottom, and power transmission achieved through chain drive. The upper part of the frame 1 is arranged in spatial hierarchy as first to fourth conveyor mechanisms 6. The first conveyor belt 31 is installed horizontally, the second conveyor belt 41 is installed above the first conveyor belt 31, the third conveyor belt 51 is installed above the second conveyor belt 41, and the fourth conveyor belt 61 is located to the side of the first conveyor belt 31, forming a three-dimensional and compact multi-layer conveyor structure. A control console 11 is provided at the top of the frame 1 to uniformly control all driving components. Specifically, the first conveyor belt 31 is driven by a motor 33 through a drive gear 32, the second conveyor belt 41 receives power through a transmission gear 25, the third conveyor belt 51 is independently driven by a servo motor 53, and the fourth conveyor belt 61 is driven by a transmission gear 26. The power connection between each mechanism is achieved through gears and chains. The three-dimensional layout of three-layer main conveyor plus one-sided conveyor reduces the vertical space occupation, achieves a compact design, and reduces the floor area. The multiple conveying mechanisms have clear division of labor and are centrally controlled by the control console 11, providing basic hardware support for the rolling, folding, and transfer of dough, and realizing automated continuous processing. The gear and chain drive of the power mechanism 2 and the conveying mechanism ensure stable power transmission and adapt to the load requirements of dough processing.

[0037] In one feasible implementation scheme, such as Figure 6 As shown, the flywheel 21 is connected to the main motor 7 via belt drive, and the main motor 7 is electrically connected to the control console 11. The flywheel 21 in the power mechanism 2 is connected to the main motor 7 via belt, and the main motor 7 is electrically connected to the control console 11, forming the core power source of the equipment. The control console 11 can adjust the output power of the entire power mechanism 2 by controlling the start / stop and speed of the main motor 7. As the core power source, the main motor 7 provides stable power to the power mechanism 2 via belt drive. Belt drive has a buffering and shock-absorbing effect, reducing vibration interference during dough processing. The control console 11 is electrically connected to the main motor 7, enabling precise control of power output. The speed can be adjusted according to the type of dough, improving the adaptability of the equipment.

[0038] In one feasible implementation scheme, such as Figures 3 to 8As shown, transmission gear 24 and transmission gear 3 25 are mounted on rotating shaft 27, which is mounted on frame 1. A roller 28 is located in the middle of rotating shaft 27, and transmission gear 5 29 is mounted on the other end. Transmission gear 5 29 is connected to transmission gear 6 210. A transmission gear 7 211 is located on one side of transmission gear 6 210. Transmission gears 6 210 and 7 211 are mounted on rotating shaft 3 212, which is mounted on frame 1. A roller 213 is located in the middle of rotating shaft 3 212, and transmission gear 8 214 is located on the other end. Transmission gear 8 214 is connected to transmission gear 9 215 via a chain drive. Transmission gear 9 215 is mounted on rotating shaft 4 216, which is mounted on frame 1. A roller 3 217 is mounted in the middle of rotating shaft 4 216. Driven by transmission gears 24 and 3, which are coaxially mounted on rotating shaft 27, roller 28 is located in the middle of rotating shaft 27. Rotating shaft 27 drives rotating shaft 3 212 via transmission gears 5 and 6, with roller 213 located in the middle of rotating shaft 3 212. Rotating shaft 3 212 drives rotating shaft 4 216 via transmission gears 8 and 9, with roller 217 located in the middle of rotating shaft 4 216. Rollers 3 217, 213, and 4 220 are arranged sequentially around roller 1 28 along the conveying path of the first conveyor belt 31, forming a continuous rolling area. The multiple rollers are linked by gears to achieve synchronous rolling, ensuring that the dough is evenly stretched during the initial processing, laying the foundation for subsequent processes. The rollers and conveyor mechanism share a power transmission chain, reducing independent drive components, simplifying the structure, and reducing energy consumption. The rolling path is closely matched with the conveyor belt, shortening the dough transfer distance and improving processing efficiency.

[0039] In one feasible implementation scheme, such as Figures 3 to 8 As shown, the transmission gear 7 211 is connected to the transmission gear 10 218 via a chain drive. The transmission gear 10 218 is mounted on the rotating shaft 5 219, which is mounted on the frame 1. A roller 4 220 is mounted in the middle of the rotating shaft 5 219. The transmission gear 7 211 on the rotating shaft 3 212 is connected to the transmission gear 10 218 on the rotating shaft 5 219 via a chain. The roller 4 220 is located in the middle of the rotating shaft 5 219. The roller 4 220, together with roller 1 28, roller 2 213, and roller 3 217, forms the initial rolling area, creating a "four-roller collaborative" rolling structure. Adding roller 4 220 increases the number of rolling points, resulting in more even force on the dough, avoiding insufficient stretching in certain areas, and improving the initial processing quality. Roller 4 220 obtains power from the existing transmission chain, eliminating the need for additional drive components, saving space and reducing costs.

[0040] In one feasible implementation scheme, such as Figures 3 to 8As shown, a transmission gear 11 221 is provided in the middle of the rotating shaft 1 22. The transmission gear 11 221 is connected to the transmission gear 12 222 via a chain drive. The transmission gear 12 222 is mounted on the rotating shaft 6 223. The rotating shaft 6 223 is mounted on the frame 1. A transmission gear 13 224 is mounted on the other end of the rotating shaft 6 223. The transmission gear 13 224 is connected to the transmission gear 14 225 via a chain drive. The transmission gear 14 225 is mounted on the rotating shaft 7 226. The rotating shaft 7 226 is mounted on the frame 1. A roller 5 227 is provided in the middle of the rotating shaft 7 226. A transmission gear 15 228 is mounted on the other end of the rotating shaft 7 226. The transmission gear 15 228 is connected to the transmission gear 16 229 via a drive. The transmission gear 16 229 is mounted on the rotating shaft 8 230. The rotating shaft 8 230 is mounted on the frame 1. A roller 6 231 is provided in the middle of the rotating shaft 8 230. Rotating shaft 1 22 drives rotating shaft 6 223 via transmission gears 11 221 and 12 222. Rotating shaft 6 223 drives rotating shaft 7 226 via transmission gears 13 224 and 14 225. Rotating shaft 7 226 drives rotating shaft 8 230 via transmission gears 10 218 and 16 229. Roller shaft 5 227 and roller shaft 6 231 are arranged along the falling path from the end of the second conveyor belt 41 to the first conveyor belt 31, forming a secondary rolling area. Roller shaft 5 227 and roller shaft 6 231 receive the dough conveyed by the second conveyor belt 41 and perform secondary rolling, further extending the dough and creating conditions for subsequent folding processes. The transmission chain extends directly from the power mechanism 2, realizing power reuse, simplifying the internal structure of the equipment, and reducing space occupation. The secondary rolling is closely connected with the folding action of the first conveyor belt 31, shortening the process interval and improving continuity.

[0041] In one feasible implementation scheme, such as Figures 3 to 8 As shown, a roller 7 232 is mounted above roller 6 231. Roller 7 232 is positioned on rotating shaft 9 233, which is mounted on frame 1. A transmission gear 17 234 is mounted at one end of rotating shaft 9 233. The transmission gear 17 234 is connected to servo motor 2 235 via chain drive. Servo motor 2 235 is electrically connected to control console 11. By mounting roller 7 232 on rotating shaft 9 233 and connecting it to servo motor 2 235 via transmission gear 17 234, it is positioned directly above roller 6 231, forming a finishing rolling area. Servo motor 2 235, electrically connected to control console 11, can adjust the rotational speed and pressure of roller 7 232. Roller 7 232 works in conjunction with roller 6 231 to achieve precision rolling. Through the precise control of servo motor 2 235, the pressure can be adjusted according to the dough thickness requirements to adapt to the processing requirements of different dough products. Independent servo drive allows the precision rolling process to be controlled separately, complementing other processes and improving equipment flexibility. The precision rolled dough is easier to transport to the third conveyor belt 51, reducing transmission resistance.

[0042] In one feasible implementation scheme, such as Figures 3 to 8 As shown, a transmission gear eighteen 236 is provided on one side of the transmission gear four 26. The transmission gear eighteen 236 is connected to a motor two 237 via a chain drive. The motor two 237 is electrically connected to the control console 11. The transmission gear four 26 and the transmission gear eighteen 236 are mounted on a rotating shaft ten 238, which is mounted on the frame 1. A roller eight 239 is provided in the middle of the rotating shaft ten 238. The transmission gear four 26 and the transmission gear eighteen 236 are mounted on the rotating shaft ten 238. The transmission gear eighteen 236 is connected to the motor two 237 via a chain. The motor two 237 is electrically connected to the control console 11. The roller eight 239 is located in the middle of the rotating shaft ten 238, between the end of the third conveyor belt 51 and the fourth conveyor belt 61. Motor 237 independently drives roller 8239 and fourth conveyor belt 61, allowing the rolling and output speed of the finished dough to be individually controlled, avoiding the impact of fluctuations in previous processes on the quality of the finished product; roller 8239 performs final rolling on the dough entering the fourth conveyor belt 61 to ensure uniform thickness of the finished product; independent drive simplifies the transmission structure, facilitates maintenance and reduces the risk of fault transmission.

[0043] In one feasible implementation scheme, such as Figures 3 to 8 As shown, a transmission gear 19 240 is provided at the other end of the rotating shaft 10 238. The transmission gear 19 240 is connected to a transmission gear 20 241. The transmission gear 20 241 is mounted on a rotating shaft 11 242, which is mounted on the frame 1. A roller 9 243 is provided in the middle of the rotating shaft 11 242. The rotating shaft 10 238 drives the rotating shaft 11 242 through the transmission gear 19 240 and the transmission gear 20 241. The roller 9 243 is located in the middle of the rotating shaft 11 242. The roller 9 243 corresponds to the roller 8 239, forming the final stage of finished product rolling. The roller 9 243 and the roller 8 239 cooperate to perform a second fine rolling on the finished dough, further improving the surface smoothness and thickness consistency. The transmission of the rotating shaft 10 238 realizes power reuse, eliminating the need for additional drive, saving space and reducing energy consumption. The double rollers work together to reduce the deviation during dough conveying, ensuring the regular shape of the finished product.

[0044] In one feasible implementation scheme, such as Figures 1 to 8As shown, chutes 8 are provided below the ends of the first conveyor belt 31 near the drive gear 32 and the fourth conveyor belt 61 near the drive gear 62, respectively. The chutes 8 are fixed to the frame 1. By fixing the chutes 8 below the ends of the first conveyor belt 31 and the fourth conveyor belt 61 near the drive gear 62, respectively, the chutes 8 are inclined to guide the collection of broken dough. The chutes 8 can catch the broken dough generated during dough processing, avoiding raw material waste and reducing production costs; they also reduce the accumulation of broken dough at the bottom of the equipment, reducing cleaning difficulty and maintaining a clean processing environment; the chutes 8 are fixed to the frame 1, have a simple structure, and do not occupy additional operating space.

[0045] In one feasible implementation scheme, such as Figures 1 to 8 As shown, a flour spreader 9 is installed above one end of the third conveyor belt 51 near the drive gear 52. A servo motor 91 is installed on one side of the flour spreader 9, and the servo motor 91 is electrically connected to the control console 11. By installing the flour spreader 9 above one end of the third conveyor belt 51 near the drive gear 52, with its drive end connected to the servo motor 91, and the servo motor 91 electrically connected to the control console 11, the amount and timing of flour release by the flour spreader 9 can be controlled. When the dough becomes sticky due to high moisture content, the control console 11 controls the servo motor 91 to drive the flour spreader 9 to release dry flour, effectively preventing the dough from sticking to the equipment and ensuring smooth conveying. The precise control of the servo motor 91 can adjust the amount of flour used, avoiding waste or insufficient use, balancing the anti-sticking effect and the taste of the dough products. The flour spreader 9 is integrated above the third conveyor belt 51, without occupying extra space, consistent with the overall compact design.

[0046] In this embodiment of the automatic dough pressing equipment, when the equipment is started, the control console 11 controls the main motor 7 to start. The main motor 7 drives the flywheel 21 to rotate via a belt. The flywheel 21 drives the rotating shaft 22 to rotate, which in turn drives the transmission gear 24 via the transmission gear 23 and chain, providing basic power for the entire power transmission system. At this time, each conveying mechanism and roller enters the standby state under the power linkage. The operator places the initial dough on the first conveyor belt 31, and the control console 11 controls the motor 33 to start. The motor 33 drives the gear 32 via chain, driving the first conveyor belt 31 to rotate. The dough is conveyed forward by the first conveyor belt 31 and first enters the initial rolling area composed of roller 1 28, roller 213, roller 3 217, and roller 4 220. Roller 1 28 rotates with rotating shaft 2 27 (driven by transmission gear 2 24), roller 2 213 rotates with rotating shaft 3 212 (linked with transmission gear 5 29 and transmission gear 6 210), roller 3 217 rotates with rotating shaft 4 216 (linked with transmission gear 8 214 and transmission gear 9 215), and roller 4 220 rotates with rotating shaft 5 219 (linked with transmission gear 7 211 and transmission gear 10 218). Roller 3 217, roller 2 213, and roller 4 220 work together around roller 1 28 to perform the initial rolling of the dough, so that the dough is initially stretched. After the initial rolling, the dough is conveyed to the starting point of the second conveyor belt 41. The transmission gear 3 25 (coaxial with the transmission gear 2 24 on the rotating shaft 2 27) drives the transmission gear 2 42 via a chain, causing the second conveyor belt 41 to rotate and convey the dough upwards to the end. When the dough falls from the second conveyor belt 41, it enters the secondary rolling area composed of roller 5 227 and roller 6 231. Roller 5 227 rotates with the rotating shaft 7 226 (linked with the transmission gear 13 224 and the transmission gear 14 225), and roller 6 231 rotates with the rotating shaft 8 230 (linked with the transmission gear 10 218 and the transmission gear 16 229). The two work together to further roll and extend the dough. After the second rolling, the dough falls onto the first conveyor belt 31 below. The control console 11 controls the first conveyor belt 31 to start the folding program via motor 33. When part of the dough falls onto the first conveyor belt 31, the first conveyor belt 31 reverses, allowing the dough to complete one fold. If multiple folds are required, the number of reciprocating rotations of the first conveyor belt 31 is increased to achieve multiple folds of the dough. The folded dough then re-enters the initial rolling area with the first conveyor belt 31, repeating the cycle of "initial rolling, second conveyor belt 41 conveying, second rolling, first conveyor belt 31, folding," so that the dough undergoes multiple rolling and folding processes to form a fine and uniform gluten network. After completing the preset cycle, the dough is conveyed to the end by the second conveyor belt 41. At this time, the control console 11 controls the servo motor 235 to start. The servo motor 235 drives the transmission gear 17 234 via a chain, which drives the roller 7 232 on the rotating shaft 9 233 to rotate. The roller 7 232 works in conjunction with the roller 6 231 to finely roll and shape the dough.After being rolled, the dough falls onto the third conveyor belt 51. Control console 11 starts servo motor 53, which drives gear 3 52 via a chain, causing the third conveyor belt 51 to rotate. If the dough sticks due to high moisture content, control console 11 can trigger servo motor 91, driving the flour sprinkler 9 above the third conveyor belt 51 to release an appropriate amount of dry flour to prevent the dough from sticking to the equipment. The dough is conveyed to the end of the third conveyor belt 51 and enters the finished product rolling area composed of roller 8 239 and roller 9 243. Roller 8 239 rotates with shaft 10 238 (driven by motor 2 237 via transmission gear 18 236), and roller 9 243 rotates with shaft 11 242 (linked with transmission gear 19 240 and transmission gear 20 241). Together, they perform final rolling of the dough, ensuring uniform thickness and a smooth surface. Finally, the finished dough is conveyed to the fourth conveyor belt 61. Motor 2 237 drives the fourth conveyor belt 61 via transmission gear 4 26, conveying the finished product to the discharge end. Throughout the entire processing, the chute 8 below the ends of the first conveyor belt 31 and the fourth conveyor belt 61 will automatically collect the generated fragments to avoid material waste. The control console 11 coordinates the running rhythm of each motor and servo motor throughout the process to ensure that the equipment works stably and efficiently.

[0047] Finally, it should be noted that the above description is merely a preferred embodiment of this utility model and is not intended to limit the scope of protection of this utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the scope of protection of this utility model.

Claims

1. An automatic dough pressing device, characterized in that: Includes a frame (1), a power mechanism (2) is installed at the bottom of the frame (1), a first conveying mechanism (3), a second conveying mechanism (4), a third conveying mechanism (5) and a fourth conveying mechanism (6) are installed on the upper part of the frame (1), and a control console (11) is installed on the top of the frame (1). The power mechanism (2) includes a flywheel (21), on which a first rotating shaft (22) is mounted. A first transmission gear (23) is mounted on the free end of the first rotating shaft (22). The first transmission gear (23) is connected to a second transmission gear (24) via a chain drive. The first rotating shaft (22) is mounted on the frame (1). The first conveying mechanism (3) includes a first conveyor belt (31), which is installed on the upper part of the frame (1). A drive gear (32) is installed at one end of the first conveyor belt (31), and the drive gear (32) is connected to a motor (33) via a chain drive. The second conveying mechanism (4) includes a second conveyor belt (41), which is installed above the first conveyor belt (31). A second drive gear (42) is installed at one end of the second conveyor belt (41), and the second drive gear (42) is connected to a third drive gear (25) via a chain drive. The third conveying mechanism (5) includes a third conveyor belt (51), which is installed above the second conveyor belt (41). A drive gear three (52) is installed at one end of the third conveyor belt (51). The drive gear three (52) is connected to a servo motor one (53) via chain drive. The servo motor one (53) is electrically connected to the control console (11). The fourth conveying mechanism (6) includes a fourth conveyor belt (61), which is installed on the side of the first conveyor belt (31). A drive gear four (62) is installed at one end of the fourth conveyor belt (61), and the drive gear four (62) is connected to a transmission gear four (26) via a chain drive.

2. The automatic dough pressing device according to claim 1, characterized in that: The flywheel (21) is connected to the main motor (7) via belt drive, and the main motor (7) is electrically connected to the control console (11).

3. The automatic dough pressing device according to claim 1, characterized in that: The second transmission gear (24) and the third transmission gear (25) are mounted on the second rotating shaft (27), which is mounted on the frame (1). A roller shaft (28) is provided in the middle of the second rotating shaft (27), and a fifth transmission gear (29) is mounted on the other end of the second rotating shaft (27). The fifth transmission gear (29) is connected to a sixth transmission gear (210), and a seventh transmission gear (211) is provided on one side of the sixth transmission gear (210). The sixth transmission gear (210) and the seventh transmission gear (211) are mounted on the rotating shaft (27). On shaft three (212), the rotating shaft three (212) is mounted on the frame (1). A roller shaft two (213) is provided in the middle of the rotating shaft three (212). A transmission gear eight (214) is provided at the other end of the rotating shaft three (212). The transmission gear eight (214) is connected to a transmission gear nine (215) via a chain drive. The transmission gear nine (215) is mounted on rotating shaft four (216). The rotating shaft four (216) is mounted on the frame (1). A roller shaft three (217) is installed in the middle of rotating shaft four (216).

4. The automatic dough pressing device according to claim 3, characterized in that: The transmission gear seven (211) is connected to the transmission gear ten (218) via chain drive. The transmission gear ten (218) is mounted on the rotating shaft five (219). The rotating shaft five (219) is mounted on the frame (1). The rotating shaft five (219) has a roller four (220) mounted in the middle.

5. An automatic dough pressing device according to claim 1, characterized in that: A transmission gear eleven (221) is provided in the middle of the rotating shaft one (22). The transmission gear eleven (221) is connected to a transmission gear twelve (222) via a chain drive. The transmission gear twelve (222) is mounted on a rotating shaft six (223). The rotating shaft six (223) is mounted on a frame (1). A transmission gear thirteen (224) is mounted on the other end of the rotating shaft six (223). The transmission gear thirteen (224) is connected to a transmission gear fourteen (225) via a chain drive. The transmission gear fourteen (225) is mounted on... On the rotating shaft seven (226), the rotating shaft seven (226) is mounted on the frame (1). The middle part of the rotating shaft seven (226) is provided with roller five (227). The other end of the rotating shaft seven (226) is provided with transmission gear fifteen (228). The transmission gear fifteen (228) is connected to transmission gear sixteen (229). The transmission gear sixteen (229) is mounted on the rotating shaft eight (230). The rotating shaft eight (230) is mounted on the frame (1). The middle part of the rotating shaft eight (230) is provided with roller six (231).

6. An automatic dough pressing device according to claim 5, characterized in that: A roller seven (232) is installed above the roller six (231). The roller seven (232) is set on the rotating shaft nine (233). The rotating shaft nine (233) is installed on the frame (1). A transmission gear seventeen (234) is installed at one end of the rotating shaft nine (233). The transmission gear seventeen (234) is connected to a servo motor two (235) through a chain drive. The servo motor two (235) is electrically connected to the control console (11).

7. An automatic dough pressing device according to claim 1, characterized in that: A transmission gear eighteen (236) is provided on one side of the transmission gear four (26). The transmission gear eighteen (236) is connected to a motor two (237) via a chain drive. The motor two (237) is electrically connected to the control console (11). The transmission gear four (26) and the transmission gear eighteen (236) are mounted on a rotating shaft ten (238). The rotating shaft ten (238) is mounted on a frame (1). A roller eight (239) is provided in the middle of the rotating shaft ten (238).

8. An automatic dough pressing device according to claim 7, characterized in that: The other end of the rotating shaft ten (238) is provided with a transmission gear nineteen (240), the transmission gear nineteen (240) is connected to a transmission gear twenty (241), the transmission gear twenty (241) is mounted on the rotating shaft eleven (242), the rotating shaft eleven (242) is mounted on the frame (1), and a roller nine (243) is provided in the middle of the rotating shaft eleven (242).

9. An automatic dough pressing device according to claim 1, characterized in that: A chute (8) is provided below the end of the first conveyor belt (31) near the drive gear one (32) and the end of the fourth conveyor belt (61) near the drive gear four (62), and the chute (8) is fixed on the frame (1).

10. An automatic dough pressing device according to claim 1, characterized in that: A flour spreading machine (9) is provided above one end of the third conveyor belt (51) near the drive gear three (52). A servo motor three (91) is provided on one side of the flour spreading machine (9). The servo motor three (91) is electrically connected to the control console (11).

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