Bean product processing production line and processing method thereof

Abstract

The invention discloses a bean product processing production line and a processing method thereof, and belongs to the field of conveyor belt cleaning. The device comprises a network chain conveying mechanism; the mesh cleaning mechanism comprises a driving assembly installed on the mesh chain conveying mechanism, a poking assembly is installed on the driving assembly, and the poking assembly is provided with a plurality of poking parts arrayed in the width direction of a conveying belt of the mesh chain conveying mechanism. The driving assembly is used for driving the poking assembly to annularly move below a conveying belt of the network chain conveying mechanism, and the poking assembly moves so that the poking parts can sequentially poke meshes below the conveying belt in the conveying direction of the network chain conveying mechanism. Through the driving assembly, the poking parts on the poking assembly clean the meshes in the net chain conveying mechanism, and through the scraping assembly, the conveying face of the net chain conveying mechanism is cleaned, so that the cleaning effect is improved, disintegrating slag and grease adhering to the meshes can be cleaned without shutdown, and the cleaning effect is effectively improved.

Description

Technical Field

[0001] This invention relates to the field of conveyor belt cleaning, and in particular to a soybean product processing production line and its processing method. Background Technology

[0002] In the production process of fried soy products, freshly fried soy products (such as fried tofu and vegetarian chicken) need to be cooled to below 50°C by a mesh conveyor belt to prevent the residual heat from causing excessive dehydration and hardening of the products and oxidation and rancidity of the oil. Currently, when frying soy products are cooled and transported, a mesh conveyor belt is generally used to transport the fried soy products, which has better high temperature resistance than belt conveyor. However, when freshly fried bean products are conveyed to the mesh conveyor belt, the process is usually cooled by a fan. This causes grease and debris to seep out when the hot bean products come into contact with the mesh. After cooling, the grease has strong viscosity, causing the grease and debris to adhere to the surface of the mesh and the inner walls of the mesh. If the grease and debris adhering to the mesh conveyor belt are not cleaned in time, it will not only affect the taste of the fried bean products, but the presence of debris and grease on the mesh conveyor belt will also easily cause uneven tension during use, reducing the service life of the mesh conveyor belt. The existing method of cleaning the mesh is generally to use a scraper to scrape it, but this requires stopping the machine, which delays the production efficiency of the bean product production line. Moreover, it is inconvenient to clean the mesh holes during cleaning, and the debris and grease adhering to the mesh holes are difficult to remove, resulting in poor cleaning effect. Summary of the Invention

[0003] This invention provides a soybean product processing production line and processing method, which can solve the problems of the existing technology that uses scraper scraping to clean the chain mesh, which requires machine shutdown and is inconvenient to clean the mesh holes, making it difficult to remove the debris and grease adhering to the mesh holes.

[0004] A soybean product processing production line and its processing method, comprising: Wire mesh conveyor mechanism; A mesh cleaning mechanism includes a drive assembly mounted on the mesh conveyor mechanism. A poking assembly is mounted on the drive assembly. The poking assembly has a plurality of poking parts arranged in an array along the width direction of the conveyor belt of the mesh conveyor mechanism. The drive assembly drives the poking assembly to move circumferentially below the conveyor belt of the mesh conveyor mechanism. The movement of the poking assembly causes the plurality of poking parts to sequentially pok at the mesh holes below the conveyor belt along the transport direction of the mesh conveyor mechanism. The puncturing component is equipped with a scraping component. When the driving component moves the puncturing component, the scraping component scrapes the adjacent sections of the conveyor belt mesh cleaned by the puncturing part. A cleaning mechanism, installed on the mesh conveyor mechanism, is used to clean the scraping and puncturing components.

[0005] Furthermore, the mesh conveyor mechanism is equipped with a support frame located below its conveyor belt. There are multiple abutment components. The drive component is installed on the support frame and drives the multiple abutment components to move to the cleaning area and the cleaning area. When the abutment components move to the cleaning area, the multiple abutment parts clean the mesh of the conveyor belt. When the abutment components move to the cleaning area, the cleaning mechanism cleans the abutment parts and scraping components located in the cleaning area. When the drive component continuously drives the abutment components to move, when there are abutment components in the cleaning area, there are also abutment components in the cleaning area.

[0006] Furthermore, the drive assembly includes a chain plate conveyor belt mounted on the support frame. The chain plate conveyor belt is located below the tail end of the conveyor belt in the direction of movement of the mesh chain conveyor mechanism. The upper half of the chain plate conveyor belt is a cleaning area, and the lower half is a cleaning area. The agitating component is mounted on the surface of the chain plate conveyor belt, and the corresponding agitating parts are arrayed along the length direction of the chain plate.

[0007] Furthermore, the actuating component includes multiple mounting cylinders, all of which are mounted on the chain plates of the chain conveyor belt and are arranged in an array along the length of the chain plates. An actuating plate is vertically slidably mounted on the top of each mounting cylinder. The actuating plate is used to insert into the mesh hole of the mesh conveyor mechanism. A return spring is installed inside the mounting cylinder to abut against the actuating plate. A forcing inclined surface is formed along one edge of the top of the actuating plate along its length, which is used to contact the conveying surface of the mesh conveyor mechanism. The scraping component is mounted on the actuating plate.

[0008] Furthermore, the scraping assembly includes a movable rod disposed on the agitating plate, with scrapers horizontally constructed on both opposite sides of the movable rod. The two scrapers are used to scrape adjacent segments of corresponding mesh holes. The agitating plate is provided with a clamping mechanism acting on the scrapers. When the agitating plate vertically reciprocates to agitate the mesh holes, the clamping mechanism ensures that the scrapers always remain in contact with the adjacent segments of the corresponding mesh holes. The agitating plate is equipped with a transmission assembly for driving the scrapers to move horizontally.

[0009] Furthermore, the agitator plate has a sliding groove, and a strip-shaped through groove is formed through the middle of one side of the agitator plate, which divides the sliding groove. The movable rod is vertical and partially located in the strip-shaped through groove. A through groove is formed vertically on the side of the movable rod located in the strip-shaped through groove. The abutting mechanism includes a sliding plate that is horizontally slidably installed in the sliding groove through the through groove. An abutting spring is installed between the bottom of the through groove and the bottom surface of the sliding plate.

[0010] Furthermore, the transmission assembly includes two vertically elastically slidably mounted sliding blocks on the agitation plate. The two sliding blocks are located on one side of the movable rod and are symmetrically distributed relative to the agitation plate. Rotary disks are rotatably mounted on opposite sides of the two sliding blocks. A movable groove is vertically opened on the movable rod. A column rod that slides tangent to the movable groove is eccentrically constructed between the opposite sides of the two rotating disks. A linkage that acts on the rotating disks is installed on the support frame. When the mounting cylinder moves horizontally in the cleaning area, the rotating disks are driven to rotate through the linkage.

[0011] Furthermore, the linkage includes multiple abutment plates horizontally installed on the support frame. Multiple abutment plates located on the same chain plate are grouped into two adjacent pairs. The abutment plates in the same group have slots on opposite sides located below the rotating disk. When the abutment plates in the cleaning area move horizontally, the abutment plates are located in the two slots of the same group and abut against the rotating disk.

[0012] Furthermore, the cleaning mechanism includes a cleaning chamber opened on the support frame, a drainage trough that limits the water level in the cleaning chamber is opened on one side of the cleaning chamber, a water storage chamber is opened at the lowest end of the drainage trough, and a water circulation assembly is installed on the support frame to pump water from the water storage chamber into the cleaning chamber.

[0013] A processing method for soybean products using a soybean product processing production line includes the following steps: S1: The mesh conveyor mechanism starts and drives the conveyor belt to move. At this time, the driving component drives the puncturing component to move in a circular motion in the opposite direction of the mesh conveyor mechanism. The puncturing component located in the cleaning area cleans the mesh holes below the tail of the mesh conveyor mechanism through multiple puncturing parts. S2: When the perforating part is cleaning the mesh, the corresponding scraping component scrapes the adjacent sections of the mesh to clean the residue and grease from the conveying surface of the mesh chain conveyor. S3: As the drive component continues to move the pawing component, the pawing and scraping components in the cleaning area move to the cleaning area and clean the residue and grease on the pawing and scraping components through the cleaning mechanism. The pawing and scraping components that have been cleaned in the cleaning area will then move to the cleaning area to continuously clean the mesh conveyor mechanism.

[0014] Beneficial effects: 1. This invention uses a driving component to enable multiple actuating parts on the actuating component to clean the mesh holes on the mesh conveyor mechanism, and uses a scraping component to clean the conveying surface of the mesh conveyor mechanism. This not only improves the cleaning effect, but also removes debris and grease adhering to the mesh holes without stopping the machine, thus effectively improving the cleaning effect. Attached Figure Description

[0015] Figure 1This is a three-dimensional structural diagram of the present invention; Figure 2 For the present invention Figure 1 Partial three-dimensional sectional view; Figure 3 For the present invention Figure 1 Another part of the structural diagram; Figure 4 This is a partial structural diagram of the present invention; Figure 5 This is another structural schematic diagram of the present invention; Figure 6 For the present invention Figure 5 Another perspective illustration; Figure 7 For the present invention Figure 5 Partial three-dimensional sectional view; Figure 8 For the present invention Figure 6 Partial three-dimensional sectional view.

[0016] Explanation of reference numerals in the attached figures: 1. Mesh conveyor mechanism; 2. Mesh cleaning mechanism; 3. Chain plate conveyor belt; 4. Drive assembly; 5. Actuating assembly; 501. Mounting cylinder; 502. Actuating plate; 503. Return spring; 6. Scraping assembly; 601. Movable rod; 602. Scraper; 7. Cleaning mechanism; 701. Cleaning chamber; 702. Drainage trough; 703. Water storage chamber; 704. Water circulation assembly; 8. Support frame; 9. Pressing mechanism; 901. Strip groove; 902. Sliding groove; 903. Through groove; 904. Sliding plate; 905. Abutment spring; 10. Transmission assembly; 1001. Sliding block; 1002. Rotating disk; 1003. Movable groove; 1004. Column rod; 11. Linkage element; 1101. Abutment plate; 1102. Slot. Detailed Implementation

[0017] The specific embodiments of the present invention will be described in detail below, but it should be understood that the scope of protection of the present invention is not limited to the specific embodiments.

[0018] like Figures 1 to 8 As shown in the figure, an embodiment of the present invention provides a soybean product processing production line, comprising: Mesh conveyor mechanism 1; specifically, the mesh conveyor mechanism 1 is a mesh conveyor belt commonly used in existing bean product production lines for cooling after frying. Preferably, it includes a frame, on which two chain drive belt assemblies are symmetrically installed. A mesh chain assembly is installed between the two chain drive belt assemblies. The mesh chain assembly includes multiple mesh chain links. Each mesh chain link includes two chain links and two rods fixedly installed between the two chain links. The chain links on the multiple mesh chain links are connected to each other. The chain links at the beginning and end are respectively connected to the chain links of the two chain drive belt assemblies to form a mesh chain assembly (e.g., Figure 3 (as shown) The mesh cleaning mechanism 2 includes a drive assembly 4 mounted on the mesh conveyor mechanism 1. An abutting assembly 5 is mounted on the drive assembly 4. The abutting assembly 5 has multiple abutting parts arranged in an array along the width direction of the conveyor belt of the mesh conveyor mechanism 1. The drive assembly 4 drives the abutting assembly 5 to move circumferentially below the conveyor belt of the mesh conveyor mechanism 1. The movement of the abutting assembly 5 causes the multiple abutting parts to sequentially abut the mesh openings below the conveyor belt along the transport direction of the mesh conveyor mechanism 1. Figure 2 As shown in the direction, the mesh conveyor 1 moves clockwise to transport fried bean products. In the bean product production line, the fried bean products being transported are cooled by the help of a fan. At this time, the drive component 4 causes the agitator component 5 to move in a circular motion in the opposite direction to the mesh conveyor 1. It should be noted that the drive component 4 drives the agitator component 5 to move faster than the mesh conveyor 1. Thus, when the agitator component 5 passes under the mesh conveyor 1, the movement of the agitator component 5 will cause multiple agitators to agitate the mesh holes under the conveyor belt in sequence. That is to say, the agitators will agitate and clean the residue between the two rods. Multiple agitators will clean all the mesh holes in the width direction of the mesh conveyor 1, and the cleaning range will be increased under the drive component 4. At this time, the mesh conveyor 1 is also moving continuously, thereby cleaning the residue and grease in the mesh conveyor 1. The agitation component 5 is equipped with a scraping component 6. When the driving component 4 moves the agitation component 5, the scraping component 6 scrapes the adjacent sections of the conveyor belt mesh cleaned by the agitation part. In other words, during the process of the agitation part cleaning the gaps between the rods, the scraping component 6 will also clean the parts of the rods and chain links that come into contact with the fried bean products, i.e., the conveying surface. In this embodiment, the rods and chain links have the same diameter, which ensures the flatness of the conveying surface and makes it easier for the scraping component 6 to scrape the conveying surface of the mesh conveyor mechanism 1. The cleaning mechanism 7, installed on the mesh conveyor mechanism 1, is used to clean the scraping component 6 and the agitating component 5. That is, as the scraping component 6 and the agitating component 5 move, they pass through the cleaning mechanism 7, which cleans away residue and grease from them, thus improving the subsequent cleaning effect and preventing excessive residue and grease from adhering to the scraping component 6 and the agitating parts, which would affect the cleaning effect. Compared with existing technologies, the driving component 4 enables multiple agitating parts on the agitating component 5 to clean the mesh openings on the mesh conveyor mechanism 1, and the scraping component 6 cleans the conveying surface of the mesh conveyor mechanism 1. This not only improves the cleaning effect but also allows for the cleaning of debris and grease adhering to the mesh openings without stopping the machine. Furthermore, with the cooperation of the upper cleaning mechanism 7, it can clean the residue and grease on the agitating parts and the scraping component 6, effectively improving the subsequent cleaning effect of the mesh conveyor mechanism 1.

[0019] like Figures 1 to 7 As shown, in some embodiments, a support frame 8 is installed on the mesh conveyor mechanism 1 below its conveyor belt, and the number of abutting components 5 is multiple. The design of multiple abutting components can further improve the cleaning effect of the mesh conveyor mechanism 1 and prevent insufficient cleaning. Because the scraping components 6 are set on the abutting components 5, the number of corresponding scraping components 6 will also increase. The drive component 4 is installed on the support frame 8, and the drive component 4 drives multiple abutting components 5 to move to the cleaning area and the area to be cleaned. When the abutting components 5 move to the cleaning area, multiple abutting parts clean the mesh of the conveyor belt. When the abutting components 5 move to the area to be cleaned, the cleaning mechanism 7 cleans the abutting parts and scraping components 6 located in the cleaning area. When the drive component 4 continuously drives the abutting components 5 to move, when the cleaning area has abutting components 5, the area to be cleaned also has abutting components 5. Specifically, as shown... Figure 2 As shown, the drive assembly 4 includes a chain conveyor belt 3 mounted on the support frame 8. The chain conveyor belt 3 is located below the tail end of the conveyor belt in the direction of movement of the mesh chain conveyor mechanism 1. The upper half of the chain conveyor belt 3 is the cleaning area, and the lower half is the area to be cleaned. The agitating assembly 5 is mounted on the surface of the chain conveyor belt 3, and the corresponding agitating parts are arrayed along the length of the chain. That is to say, as Figure 2 As shown, when multiple actuating parts in the upper half of the chain conveyor belt 3 (cleaning area) clean the mesh conveyor mechanism 1, there are also multiple actuating parts and scraping components 6 in the lower half of the chain conveyor belt 3 (cleaning area), which are staggered. After the actuating parts and scraping components 6 in the upper half of the chain conveyor belt 3 have cleaned the mesh conveyor mechanism 1, they will directly enter the cleaning area for cleaning. At this time, the clean actuating parts and scraping components 6 in the cleaning area will move to the cleaning area one after another, thus ensuring that while the mesh conveyor mechanism 1 is being continuously cleaned, the actuating parts and scraping components 6 can also be cleaned in a timely manner, improving the cleaning effect and efficiency of the mesh conveyor mechanism 1.

[0020] like Figure 1 , Figures 6 to 8 As shown, a partial structure of the actuating component 5 is disclosed. The actuating component 5 includes multiple mounting cylinders 501, which are all mounted on the chain plate of the chain conveyor belt 3 and are arranged in an array along the length of the chain plate, as shown. Figure 4As shown, the connection between the chain conveyor belt 3 and the mounting cylinder 501 is achieved through chain plate conveyor belt 3, which makes the movement of the mounting cylinder 501 more stable. Compared with conventional belt conveyors, the chain plate conveyor belt has good load-bearing capacity and support. When the mounting cylinder 501 moves from horizontal to arc-shaped movement, it can smoothly transition without jamming. Preferably, one of the output shafts of the chain plate conveyor belt 3 is located externally, and a large gear is installed on the output shaft of the mesh chain conveyor mechanism 1. A rotating shaft is rotatably installed on the support frame 8, and a gear meshing with the large gear is fitted on the rotating shaft. The small gear is connected to the output shaft on the chain conveyor belt 3 via a pulley assembly, allowing the chain plates on the chain conveyor belt 3 to move in opposite directions without additional driving force. Furthermore, the chain conveyor belt 3 moves faster than the chain conveyor mechanism. A slidable abutment plate 502 is vertically mounted on the top of the mounting cylinder 501 of the chain conveyor mechanism. The abutment plate 502 is inserted into the mesh hole of the chain conveyor mechanism 1, specifically into the gap between the two rods. A return spring 503 is installed inside the mounting cylinder 501, which abuts against the abutment plate 502. The agitator plate 502 has a forcing bevel along one of its length edges, which is used to contact the conveying surface of the mesh conveyor mechanism 1. Specifically, the forcing bevel is used to contact the outer periphery of the rod. The scraping assembly 6 is mounted on the agitator plate 502. In actual use, because the moving speed of the chain conveyor belt 3 is faster than that of the mesh conveyor mechanism 1, when multiple mounting cylinders 501 move continuously under the action of the chain conveyor belt 3, the bevel of the agitator plate 502 will contact the rod, thus inserting itself between two rods to remove residue between the two rods. During the cleaning process, as the mounting cylinder 501 continues to move, the inclined surface of the abutting plate 502 will contact the rod and move downward. At this time, the return spring 503 is compressed until the abutting plate 502 is located between the next two rods. At this time, the return spring 503 returns to its original position due to its elastic deformation, which causes the abutting plate 502 to move upward quickly. In this way, during the horizontal movement of the mounting cylinder 501 in the cleaning area, multiple abutting plates 502 clean the mesh by moving vertically, which can effectively avoid missing mesh during cleaning.

[0021] like Figures 5 to 8As shown, a portion of the structure of the scraping assembly 6 is disclosed. The scraping assembly 6 includes a movable rod 601 mounted on the agitating plate 502. Scrapers 602 are horizontally mounted on both opposite sides of the movable rod 601. The two scrapers 602 are used to scrape adjacent segments of corresponding mesh holes. A clamping mechanism 9 is provided on the agitating plate 502, which acts on the scrapers 602. When the agitating plate 502 vertically reciprocates to agitate the mesh holes, the clamping mechanism 9 ensures that the scrapers 602 always remain in contact with the adjacent segments of the corresponding mesh holes. A transmission assembly is mounted on the agitating plate 502 to drive the scrapers 602 to move horizontally. Component 10, that is, through the clamping mechanism 9, ensures that during the vertical reciprocating movement of the abutting plate 502 in the cleaning area, the scraper 602 always abuts against the conveying surface adjacent to the corresponding mesh, thus ensuring the cleaning effect. Furthermore, through the transmission component 10, the scraper 602 can also move horizontally while abutting against the conveying surface, effectively improving the cleaning effect of the scraper 602 on the conveying surface of residue and grease. This ensures that when the abutting plate 502 moves horizontally in the cleaning area, the continuous vertical movement of the abutting plate 502 to clean the mesh will not affect the scraper 602's cleaning of the conveying surface.

[0022] like Figures 5 to 8 As shown, in some embodiments, a sliding groove 902 is provided in the agitator plate 502, and a strip-shaped through groove 901 is provided through the middle of one side of the agitator plate 502, which divides the sliding groove 902. The movable rod 601 is vertical and partially located in the strip-shaped through groove 901. A through groove 903 is provided vertically on the side of the movable rod 601 located in the strip-shaped through groove 901. The pressing mechanism 9 includes a sliding plate 904 that is horizontally slidably installed in the sliding groove 902 through the through groove 903. An abutment spring 905 is installed between the bottom of the through groove 903 and the bottom surface of the sliding plate 904. Preferably, the top surface of the scraper 602 is triangular. Under normal conditions, the support of the abutment spring 905 will keep the movable rod 601 at a certain height. The design of the sliding plate 904 is such that when the scraper 602 is driven to move horizontally back and forth by the transmission component 10, the sliding plate 904 will also move horizontally. When the scraper 602 contacts the conveying surface below the chain conveyor mechanism (e.g. Figure 2As shown, with the vertical reciprocating movement of the agitator plate 502, the position of the horizontally sliding plate 904 mounted on it changes, thereby squeezing the contact spring 905. This causes the contact spring 905 to reciprocate and compress. During this process, the contact force between the scraper 602 and the conveying surface of the chain conveyor mechanism changes from normal contact to tight contact, thus temporarily increasing the contact force between the scraper 602 and the conveying surface, thereby improving the effect of the scraper 602 in scraping the conveying surface. It should be noted that when the agitator plate 502 moves counterclockwise in a circular motion, the agitator plate 502 is slightly higher than the conveying surface below the chain conveyor mechanism 1 in its normal state. When the triangular surface of the top surface of the scraper 602 contacts the conveying surface, the contact spring 905 has a certain compression, so that the scraper 602 has a certain contact force with the conveying surface when it is in the cleaning area. During the reciprocating vertical movement of the agitator plate 502, the contact surface becomes larger, thereby improving the effect of scraping residues and grease.

[0023] like Figures 5 to 8 As shown, the specific structure of the transmission assembly 10 is disclosed. The transmission assembly 10 includes two sliding blocks 1001 vertically and elastically slidably mounted on the agitating plate 502. Specifically, two spring telescopic rods are vertically mounted on the agitating plate 502, with the movable ends of the spring telescopic rods facing downwards. The two sliding blocks 1001 are respectively connected to the two spring telescopic rods. The two sliding blocks 1001 are located on one side of the movable rod 601 and are symmetrically distributed relative to the agitating plate 502. Rotating disks 1002 are rotatably mounted on opposite sides of the two sliding blocks 1001. A movable groove 1003 is vertically opened on the movable rod 601. A column rod 1004 is eccentrically constructed between the opposite sides of the two rotating disks 1002 and slides tangentially to the movable groove 1003. A linkage 11 acting on the rotating disks 1002 is mounted on the support frame 8. When the mounting cylinder 501 moves horizontally in the cleaning area, the rotating disks 1002 are driven to rotate through the linkage 11. That is, when the mounting cylinder 501 moves horizontally in the cleaning area, the rotating disks 1002 are driven to rotate. Figure 2When rotated counterclockwise, the mounting cylinder 501 moves a certain distance along the arc of the area being cleaned and then transitions to horizontal movement. At this time, the agitator plate 502 contacts the mesh to achieve vertical reciprocating movement. During this process, the rotating disk 1002 will continue to rotate through the linkage 11. The rotation of the rotating disk 1002 will cause the column rod 1004 to rotate eccentrically. Because the column rod 1004 is tangential to the movable groove 1003, the column rod 1004 will reciprocate within the movable groove 1003, thereby forcing the movable rod 601 to reciprocate horizontally. At this time, the sliding plate 904, because it passes through the through groove 903, will also reciprocate horizontally. The sliding plate 904 is relatively stationary with respect to the contact spring 905 between the through grooves 903. Therefore, even if the movable rod 601 reciprocates horizontally, it will not affect the vertical reciprocating movement of the agitator plate 502. Moreover, the contact spring 905 will be repeatedly squeezed, which will increase the contact force between the scraper 602 and the conveying surface, effectively improving the cleaning effect.

[0024] like Figures 3 to 7 As shown, the specific structure of the linkage 11 is disclosed. The linkage 11 includes multiple abutment plates 1101 horizontally mounted on the support frame 8. Multiple abutment plates 502 located on the same chain plate are grouped into pairs of adjacent plates. The abutment plates 502 in the same group have slots 1102 on opposite sides located below the rotating disk 1002. When the abutment plates 502 in the cleaning area move horizontally, the abutment plates 1101 are located in the two slots 1102 in the same group and abut against the rotating disk 1002. Figure 2 and Figure 3 As shown, multiple frame plates are vertically arranged on the support frame 8, and the chain conveyor belt 3 passes through the frame plates. Because there are multiple abutment plates 502 on the chain conveyor belt 3, horizontal abutment plates 1101 are connected to both opposite sides of the frame plates. Preferably, the abutment plate 1101 at the lowest end of the tail end of the mesh chain conveyor mechanism 1 is constructed with an inclined surface (not shown in the figure). When the rotating disk 1002 in the cleaning area is not in contact with the abutment plate 1101, it is slightly lower than the top surface of the abutment plate 1101. In this way, when the abutment plate 502 moves from the cleaning area to the cleaning area, the inclined surface of the abutment plate 1101 will push the rotating disk 1002 and the movable rod 601 towards the cleaning area. The plate 1101 is pushed up, causing it to abut against the conveyor surface. The rotating disk 1002 and the plate 1101 will also abut against each other. As the abutting plate 502 moves horizontally in the cleaning area, the rotating disk 1002 will continue to rotate due to the friction between it and the plate 1101, so as to realize the horizontal reciprocating movement of the scraper 602. No additional power is needed to drive the multiple plates 1101 located in the cleaning area to continuously move horizontally and reciprocatingly, which is more convenient to use. In addition, the plate 1101 also increases the contact force between the scraper 602 and the conveyor surface, further improving the scraping effect of the scraper 602.

[0025] like Figure 2 and Figure 8 As shown, in some embodiments, it should be noted that this application does not impose specific limitations on the cleaning mechanism 7, which can be any cleaning structure that satisfies the cleaning of the scraper 602 and the agitator 502, such as a rinsing nozzle, an automatic cleaning roller brush, etc. In this embodiment, the cleaning mechanism 7 includes a cleaning chamber 701 opened on the support frame 8. A drainage trough 702 is inclinedly opened on one side of the cleaning chamber 701 to limit the water level in the cleaning chamber 701. A water storage chamber 703 is opened at the lowest end of the drainage trough 702. A water circulation assembly 704 is installed on the support frame 8. The water circulation assembly 704 is used to pump water from the water storage chamber 703 into the cleaning chamber 701. Specifically, The water circulation assembly 704 includes a water pump mounted on the support frame 8. A water pumping pipe is installed between one end of the pump and the water storage chamber 703, and an inlet pipe is installed between the other end of the pump and the cleaning chamber 701. Water is pumped from the water storage chamber 703 into the cleaning chamber 701 through the water pumping pipe. Once the cleaning chamber 701 is full, water flows into the drain trough 702 and finally back into the water storage chamber 703. It should be noted that when the agitator plate 502 and scraper plate 602 move from the cleaning area to the washing area, one end of the agitator plate 502 and scraper plate 602 is immersed in the cleaning chamber 701. At this time, the direction of the water flow in the cleaning chamber 701 is opposite to that of the agitator plate 502. Conversely, the grease and residue on the scraper 602 and the agitator 502 are flushed into the drain trough 702. Preferably, a filter box plate located in the drain trough 702 is bolted to one side of the support frame 8. The opening of the filter box plate faces the cleaning chamber 701, and the filter plate faces the water storage chamber 703, thus facilitating the filtration and collection of residue and preventing excessive residue accumulation from entering the water pump and reducing its service life. It should be noted that after the water in the water storage chamber 703 mixes with the grease and residue and reaches a certain concentration, the water in the water storage tank needs to be replaced to ensure the cleaning effect. Of course, the water pump can also be directly connected to an external water pipe without being connected to the water storage tank. Additional water is continuously pumped from the water tank to ensure that the water in the cleaning chamber 701 remains clean and does not need to be replaced regularly, but this will increase water consumption. In actual use, the settings can be adjusted according to needs. It should also be noted that after cleaning, the agitator plate 502 and scraper plate 602 will have some water stains. The movement of the chain conveyor belt 3 and the movement of the agitator plate 502 and scraper plate 602 will dry the water stains. Furthermore, the cleaned part of the mesh chain conveyor mechanism 1 can also keep the conveying surface of the mesh chain conveyor mechanism 1 dry when passing through the cooling station (fan) on the existing bean product production line, so as not to affect the taste of the fried bean products.

[0026] like Figures 1 to 8 As shown, a processing method for a soybean product processing production line, using the aforementioned soybean product processing production line, includes the following steps: S1: The mesh conveyor 1 starts and drives the conveyor belt to move. At this time, the drive component 4 drives the puncturing component 5 to move in a circular motion in the opposite direction to the mesh conveyor 1. The puncturing component 5 located in the cleaning area cleans the mesh holes below the tail of the mesh conveyor 1 through multiple puncturing parts. S2: When the perforating part is cleaning the mesh, the corresponding scraping component 6 scrapes the adjacent sections of the mesh to clean the residue and grease on the conveying surface of the mesh chain conveyor mechanism 1. S3: As the drive component 4 continues to drive the agitator component 5 to move, the agitator component 5 and the scraper component 6 in the cleaning area move to the cleaning area and clean the residue and grease on the agitator and scraper component 6 through the cleaning mechanism 7. After being cleaned in the cleaning area, the agitator component 5 and the scraper component 6 will move to the cleaning area to continuously clean the mesh conveyor mechanism 1.

[0027] The above-disclosed embodiments are merely a few specific examples of the present invention. However, the embodiments of the present invention are not limited thereto, and any variations that can be conceived by those skilled in the art should fall within the protection scope of the present invention.

Claims

1. A soybean product processing production line, characterized in that, include: Wire conveyor mechanism (1); The mesh cleaning mechanism (2) includes a drive assembly (4) mounted on the mesh conveyor (1), and a poking assembly (5) mounted on the drive assembly (4). The poking assembly (5) has a plurality of poking parts arranged in an array along the width direction of the conveyor belt of the mesh conveyor (1). The drive assembly (4) drives the poking assembly (5) to move in a ring below the conveyor belt of the mesh conveyor (1). The poking assembly (5) moves so that the plurality of poking parts sequentially poking the mesh below the conveyor belt along the transport direction of the mesh conveyor (1). Among them, the puncturing component (5) is provided with a scraping component (6). When the driving component (4) drives the puncturing component (5) to move, the scraping component (6) scrapes the adjacent sections of the conveyor belt mesh cleaned by the puncturing part. A cleaning mechanism (7) is installed on the mesh conveyor mechanism (1) and is used to clean the scraping assembly (6) and the poking assembly (5).

2. The soybean product processing production line as described in claim 1, characterized in that, The mesh conveyor mechanism (1) is equipped with a support frame (8) located below its conveyor belt. There are multiple abutment components (5). The drive component (4) is installed on the support frame (8). The drive component (4) drives multiple abutment components (5) to move to the cleaning area and the cleaning area. When the abutment component (5) moves to the cleaning area, multiple abutment parts clean the mesh of the conveyor belt. When the abutment component (5) moves to the cleaning area, the cleaning mechanism (7) cleans the abutment parts and scraping components (6) located in the cleaning area. When the drive component (4) continuously drives the abutment component (5) to move, when the cleaning area has abutment components (5), the cleaning area also has abutment components (5).

3. The soybean product processing production line as described in claim 2, characterized in that, The drive assembly (4) includes a chain plate conveyor belt (3) installed on the support frame (8). The chain plate conveyor belt (3) is located below the tail end of the conveyor belt of the mesh chain conveyor mechanism (1) in the direction of movement. The upper half of the chain plate conveyor belt (3) is the cleaning area, and the lower half is the cleaning area. The agitating assembly (5) is installed on the plate surface of the chain plate conveyor belt (3), and the corresponding agitating parts are arrayed along the length direction of the chain plate.

4. A soybean product processing production line as described in claim 3, characterized in that, The actuating component (5) includes multiple mounting cylinders (501), which are all mounted on the chain plate of the chain conveyor belt (3) and are arranged in an array along the length of the chain plate. An actuating plate (502) is vertically slidably mounted on the top of the mounting cylinder (501). The actuating plate (502) is used to be inserted into the mesh hole of the mesh conveyor mechanism (1). A reset spring (503) is installed inside the mounting cylinder (501) and abuts against the actuating plate (502). A forcing slope is opened at one of the edges of the top of the actuating plate (502) along the length direction, which is used to contact the conveying surface of the mesh conveyor mechanism (1). The scraping component (6) is mounted on the actuating plate (502).

5. A soybean product processing production line as described in claim 4, characterized in that, The scraping assembly (6) includes a movable rod (601) disposed on the agitator plate (502). Scrapers (602) are horizontally constructed on both opposite sides of the movable rod (601). The two scrapers (602) are used to scrape the adjacent segments of the corresponding mesh holes. A clamping mechanism (9) acting on the scraper (602) is provided on the agitator plate (502). When the agitator plate (502) vertically reciprocates to agitate the mesh holes, the clamping mechanism (9) ensures that the scraper (602) always remains in contact with the adjacent segments of the corresponding mesh holes. A transmission assembly (10) for driving the scraper (602) to move horizontally is installed on the agitator plate (502).

6. A soybean product processing production line as described in claim 5, characterized in that, The actuating plate (502) has a sliding groove (902) inside. A strip-shaped through groove (901) is opened through the middle of one side of the actuating plate (502). The strip-shaped through groove (901) divides the sliding groove (902). The movable rod (601) is vertical and part of it is located in the strip-shaped through groove (901). A through groove (903) is vertically opened on the side of the movable rod (601) located in the strip-shaped through groove (901). The pressing mechanism (9) includes a sliding plate (904) that slides horizontally through the through groove (903) and is installed in the sliding groove (902). An abutting spring (905) is installed between the bottom of the through groove (903) and the bottom surface of the sliding plate (904).

7. A soybean product processing production line as described in claim 6, characterized in that, The transmission assembly (10) includes two vertically elastically sliding blocks (1001) mounted on the agitator plate (502). The two sliding blocks (1001) are located on one side of the movable rod (601) and are symmetrically distributed relative to the agitator plate (502). Rotary disks (1002) are rotatably mounted on opposite sides of the two sliding blocks (1001). A movable groove (1003) is vertically opened on the movable rod (601). A column rod (1004) is eccentrically constructed between opposite sides of the two rotating disks (1002) and is tangent to the movable groove (1003). A linkage (11) acting on the rotating disk (1002) is installed on the support frame (8). When the mounting cylinder (501) moves horizontally in the cleaning area, the rotating disk (1002) is driven to rotate through the linkage (11).

8. A soybean product processing production line as described in claim 7, characterized in that, The linkage (11) includes multiple abutments (1101) horizontally mounted on the support frame (8). Multiple abutment plates (502) located on the same chain plate are grouped into two adjacent pairs. The abutment plates (502) in the same group have slots (1102) on opposite sides located below the rotating disk (1002). When the abutment plates (502) in the cleaning area move horizontally, the abutment plates (1101) are located in the two slots (1102) in the same group and abut against the rotating disk (1002).

9. A soybean product processing production line as described in claim 2, characterized in that, The cleaning mechanism (7) includes a cleaning chamber (701) opened on the support frame (8). A drainage trough (702) is inclined on one side of the cleaning chamber (701) to limit the water level of the cleaning chamber (701). A water storage chamber (703) is opened at the lowest end of the drainage trough (702). A water circulation assembly (704) is installed on the support frame (8). Water in the water storage chamber (703) is pumped into the cleaning chamber (701) through the water circulation assembly (704).

10. A processing method for a soybean product processing production line, characterized in that, Using the soybean product processing production line as described in claim 2 above includes the following steps: S1: The mesh conveyor (1) starts and drives the conveyor belt to move. At this time, the drive component (4) drives the puncturing component (5) to move in a circular motion in the opposite direction to the mesh conveyor (1). The puncturing component (5) located in the cleaning area cleans the mesh holes below the tail of the mesh conveyor (1) through multiple puncturing parts. S2: When the perforating part is cleaning the mesh, the corresponding scraping component (6) scrapes the adjacent sections of the mesh to clean the residue and grease on the conveying surface of the mesh chain conveyor (1); S3: As the drive component (4) continues to drive the puncturing component (5) to move, the puncturing component (5) and the scraping component (6) in the cleaning area move to the cleaning area and clean the residue and grease on the puncturing part and the scraping component (6) through the cleaning mechanism (7). The puncturing component (5) and the scraping component (6) after being cleaned in the cleaning area will move to the cleaning area to continuously clean the mesh conveyor mechanism (1).

Images