A multi-line parallel processing architecture

Abstract

This utility model relates to the field of decorative material coating processing, and proposes a multi-line parallel processing architecture for a wood strip coating machine. The wood strip coating machine includes a feeding mechanism, a conveying mechanism, and a coating mechanism. The conveying mechanism is connected to the feeding mechanism; the coating mechanism is connected to the conveying mechanism; one or more sets of the feeding mechanism, conveying mechanism, and coating mechanism are provided; one or more sets of the multi-line parallel processing architecture are installed on each set of the feeding mechanism, conveying mechanism, and coating mechanism. This utility model realizes synchronous operation of multiple production lines through the multi-line parallel processing architecture, breaking through the capacity ceiling of traditional single-station serial processing; by dynamically balancing the matching relationship between material coating amount and mechanical feed rate, an exponential increase in output per unit time is achieved without changing the single-line processing speed.

Description

Technical Field

[0001] This utility model relates to the field of decorative material coating and processing, and in particular to a multi-line parallel processing structure. Background Technology

[0002] In the fields of furniture manufacturing, architectural decoration, and interior design, surface treatment of lines often requires the use of decorative material coating technology (such as PVC-coated paper, natural wood veneer, PU paper, etc.) to achieve multiple goals such as aesthetic enhancement, weather resistance enhancement, and functional integration.

[0003] Current industrial-grade coating line production processes generally adopt a single-station, single-line serial processing mode. A single profile needs to complete the entire process chain, including feeding and positioning, glue application, and finishing by a multi-axis linkage coating molding machine. The output of this process is mainly constrained by two key parameters: the complexity of the profile structure (involving geometric features such as surface curvature and corner radius) and the line speed (limited by the response characteristics of the mechanical system and the material processing window). When the processing object is complex and fixed, traditional technical solutions can only break through the production capacity bottleneck by increasing the line speed. However, due to the physical constraints of mechanical vibration threshold and material curing time window, the space for increasing the line speed has approached the technical limit while ensuring the adhesion and surface finish of the coating layer.

[0004] The above has led to significant technical bottlenecks in the current mainstream processes in the industry: a single line can only complete the entire process of coating a single line at a time. Due to factors such as mechanical transmission efficiency and material compatibility, the line speed has approached the physical limit, making it difficult to break through the capacity ceiling. Therefore, when market demand surges, existing production lines cannot achieve economies of scale by simply increasing the number of equipment, which directly affects the order delivery cycle and has become the core pain point that restricts enterprises from undertaking mid-to-high-end projects. Utility Model Content

[0005] This invention proposes a multi-line parallel processing architecture, which enables synchronous operation of multiple production lines and breaks through the capacity ceiling of traditional single-station serial processing. By dynamically balancing the matching relationship between material coating amount and mechanical feed rate, it achieves exponential growth in output per unit time without changing the processing speed of a single line.

[0006] The technical solution of this utility model is implemented as follows:

[0007] A multi-line parallel processing architecture is used for a wood strip wrapping machine, the wood strip wrapping machine including a feeding mechanism, a conveying mechanism and a film-coating mechanism, the conveying mechanism being connected to the feeding mechanism; the film-coating mechanism being docked with the conveying mechanism;

[0008] The feeding mechanism, conveying mechanism and coating mechanism are each provided with one or more sets;

[0009] Each of the aforementioned feeding mechanism, conveying mechanism, and coating mechanism is simultaneously equipped with one or more sets of the aforementioned multi-line parallel processing architecture.

[0010] Furthermore, the feeding mechanism includes a first support frame, a first motor, a first drive shaft, a first driven shaft, and a conveyor belt. The first motor is mounted on the feeding end of the first support frame; the first drive shaft and the first driven shaft are rotatably mounted on the feeding end and the discharging end of the first support frame, respectively; the first drive shaft is drive-connected to the first motor; and the conveyor belt is simultaneously mounted on the first drive shaft and the first driven shaft.

[0011] The multi-line parallel processing architecture includes multiple wood strip feeding sections arranged in parallel.

[0012] The first support frame is provided with a front baffle, a left baffle and a right baffle. The front baffle is installed on the support frame and located at the discharge end of the conveyor belt. The left baffle and the right baffle are respectively installed on the support frame and located on both sides of the conveying direction of the conveyor belt.

[0013] The multi-line parallel processing architecture also includes a first partition, the two ends of which are respectively installed on the feed end and the discharge end of the first support frame, and the first partition is located above the center of the conveyor belt.

[0014] The left baffle and the right baffle are each provided with one or more sets, and correspondingly, the partition is provided with one or more; the wood strip feeding part is formed between adjacent left baffles.

[0015] Furthermore, each set of left and right baffles is provided with one or more of these.

[0016] Furthermore, the conveying mechanism includes a second support frame and a conveying wheel, the second support frame being disposed adjacent to the first support frame, and the conveying wheel being rotatably mounted on the second support frame;

[0017] The second support frame is equipped with a cantilever frame, and a pressure roller is rotatably mounted on the cantilever frame;

[0018] The multi-line parallel processing architecture includes multiple wood strip conveying units;

[0019] The multi-line parallel processing architecture also includes a second partition;

[0020] The conveyor wheels are provided in multiple sets, and the multiple sets of conveyor wheels are arranged in parallel; correspondingly, the pressure wheels are provided in multiple sets, and the multiple sets of first pressure wheels are arranged in parallel; the second partition is provided in multiple ways.

[0021] A set of adjacent conveyor wheels, a first pressure wheel, and a second partition plate form a wood strip conveying section;

[0022] One of the wood strip conveying units is connected to one of the wood strip loading units.

[0023] Furthermore, the conveyor wheel and the cantilever frame are both mounted on the second support frame with adjustable spacing.

[0024] Furthermore, each set of conveyor wheels, pressure wheels, and cantilever frames is provided with one or more of these components.

[0025] Furthermore, the plane height of the upper surface of the second partition is greater than or equal to the plane height of the highest point of the transmission wheel.

[0026] Furthermore, the laminating mechanism includes a third support frame, a film roller, a glue applicator, a heating gun, an upper pressure roller, a left pressure roller, a right pressure roller, and a lower pressure roller. The third support frame is arranged adjacent to the second support frame. The film roller, glue applicator, heating gun, upper pressure roller, left pressure roller, right pressure roller, and lower pressure roller are all mounted on the third support frame. A wrapping paper roll is placed on the film roller, and the wrapping paper roll passes through the glue applicator and is attached to the surface of the wood strip. The heating port of the heating gun is located above the wood strip conveying section. The upper pressure roller is rotatably mounted on the third support frame and located above the wood strip conveying section. The left and right pressure rollers are located on opposite sides of the conveying direction of the wood strip conveying section. The lower pressure roller is rotatably mounted on the third support frame and located below the wood strip conveying section.

[0027] The multi-line parallel processing architecture also includes multiple sets of coating structures, and the multiple sets of coating structures are arranged in parallel.

[0028] The multi-line parallel processing architecture also includes a dividing blade, which is mounted on the third support frame via a dividing bracket; the dividing blade is located above the middle of the two adjacent wood strip conveying sections.

[0029] The dividing blade is provided in multiple ways, and the upper pressure roller, left pressure roller, right pressure roller and lower pressure roller are each provided in multiple sets;

[0030] The adjacent upper pressure roller, left pressure roller, right pressure roller, lower pressure roller and dividing knife form a set of the film-coating structure.

[0031] Furthermore, each group of the upper pressure roller, left pressure roller, right pressure roller and lower pressure roller is provided with multiple rollers;

[0032] The coating mechanism is provided in one or more sets.

[0033] This invention achieves synchronous operation of multiple production lines through a multi-line parallel processing architecture, breaking through the capacity ceiling of traditional single-station serial processing; by dynamically balancing the matching relationship between material coating amount and mechanical feed rate, it achieves exponential growth in output per unit time without changing the processing speed of a single line. Attached Figure Description

[0034] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0035] Figure 1 This is a schematic diagram of a multi-line parallel processing architecture in a specific embodiment of the present utility model;

[0036] Explanation of reference numerals in the attached drawings: Feeding mechanism 1; First support frame 11; Front baffle 111; First left baffle 112; First right baffle 113; First motor 12; First drive shaft 13; First driven shaft 14; Conveyor belt 15; Conveying mechanism 2; Second support frame 21; Cantilever frame 22; First pressure roller 23; Second pressure roller 23'; Conveyor roller 24; Coating mechanism 3; Third support frame 31; Film roller 32; Coating machine 33; Heating gun 34; First upper pressure roller 35 Second upper pressure roller 35'; First left pressure roller 36; Second left pressure roller 36'; First right pressure roller 37; Second right pressure roller 37'; Double-line parallel processing structure 4; First partition 41; Second left baffle 411; Second right baffle 412; Dividing knife 43; First wood strip feeding section 401; Second wood strip feeding section 402; First wood strip conveying section 403; Second wood strip conveying section 404; First film coating structure 405; Second film coating structure 406. Detailed Implementation

[0037] The technical solutions of this utility model will be clearly and completely described below with reference to the embodiments of this utility model. 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 of ordinary skill in the art without creative effort are within the protection scope of this utility model.

[0038] In a specific embodiment of this utility model, see Figure 1A multi-line parallel processing architecture is used for a wood strip wrapping machine. The wood strip wrapping machine includes a feeding mechanism 1, a conveying mechanism 2, and a film-coating mechanism 3. The conveying mechanism 2 is connected to the feeding mechanism 1, and the film-coating mechanism 3 is connected to the conveying mechanism 2.

[0039] The feeding mechanism 1, the conveying mechanism 2 and the film coating mechanism 3 are each provided with one or more sets;

[0040] Each of the feeding mechanism 1, conveying mechanism 2 and coating mechanism 3 is simultaneously equipped with one or more sets of the multi-line parallel processing architecture.

[0041] The multi-line parallel processing architecture can divide a complete set of feeding mechanism 1, conveying mechanism 2 and coating mechanism 3 into multiple wood strip feeding parts, multiple wood strip conveying parts and multiple coating structures arranged in parallel.

[0042] The attached diagram uses a dual-line parallel processing architecture 4 as an example. The feeding mechanism, conveying mechanism and coating mechanism are all divided into two parallel sets of wood strip feeding parts, two sets of wood strip conveying parts and two sets of coating structures. One set of wood strip feeding parts, one set of wood strip conveying parts and one set of coating structures together form a wood strip coating production line, that is, one original production line is converted into two production lines.

[0043] In a specific embodiment of this utility model, see Figure 1 In the existing equipment, the feeding mechanism 1 includes a first support frame 11, a first motor 12, a first drive shaft 13, a first driven shaft 14, and a conveyor belt 15. The first motor 12 is mounted on the feeding end of the first support frame 11; the first drive shaft 13 and the first driven shaft 14 are respectively rotatably mounted on the feeding end and the discharging end of the first support frame 11; the first drive shaft 13 is connected to the first motor 12 in a transmission manner; and the conveyor belt 15 is simultaneously fitted onto the first drive shaft 13 and the first driven shaft 14.

[0044] One conveyor belt 15 is provided; to meet the needs of two production lines, conveyor belt 15 needs to be divided into two parts, specifically:

[0045] The dual-line parallel processing architecture 4 includes two parallel wood strip feeding sections, namely the first wood strip feeding section 401 and the second wood strip feeding section 402.

[0046] The dual-line parallel processing architecture 4 also includes a first partition 41. The two ends of the first partition 41 are respectively installed at the feeding end and the discharging end of the first support frame 11. The first partition 41 is located above the center of the conveyor belt 15. The first partition 41 divides the conveyor belt 15 into two parts. When feeding, a stack of wooden strips can be placed on each part at the same time. The friction between the conveyor belt 15 and the wooden strips should be sufficient to push and transport the wooden strips forward.

[0047] The first support frame 11 is provided with a front baffle 111. Since there is only one conveyor belt in the existing equipment, a first left baffle 112 and a first right baffle 113 are also provided on both sides of the first support frame 11. The front baffle 111 is installed on the support frame 11 and is located at the discharge end of the conveyor belt 15. The first left baffle 113 and the first right baffle 113 are respectively installed on the support frame 11 and are located on both sides of the conveying direction of the conveyor belt 15.

[0048] The bottom of the front baffle 111 is at a certain height from the conveyor belt 15 to ensure the normal operation of the conveyor belt 15. The front baffle 111 can be installed on the first support frame 11 with adjustable height to meet the feeding requirements of wood strips of different thicknesses.

[0049] In order to meet the requirements of the two parallel wood strip feeding sections, a set of left baffles and a set of right baffles 411 and 412 are also provided on both sides of the first partition 41. The first wood strip feeding section 401 is formed between the first left baffle 412 and the second left baffle 411 and the conveyor belt 15, and the second wood strip feeding section 402 is formed between the second right baffle 412 and the first right baffle 113 and the conveyor belt 15.

[0050] At this time, the first wood strip feeding section 401 and the second wood strip feeding section 402 are set in parallel to meet the needs of feeding materials on two production lines at the same time.

[0051] In a specific embodiment of this utility model, see Figure 1 Each group of first left baffle, second left baffle, first right baffle, and second right baffle is provided with one or more of these.

[0052] When setting one, it can be set as a long strip in the same direction as the conveyor belt 15;

[0053] When setting multiple, see attached Figure 1 It can be configured to include multiple vertical bars.

[0054] In a specific embodiment of this utility model, see Figure 1 The conveying mechanism 2 includes a second support frame 21 and a first conveying wheel. The second support frame 21 is arranged adjacent to the first support frame 11. The first conveying wheel is rotatably mounted on the second support frame 21. A cantilever frame 22 is provided on the second support frame 21.

[0055] The second support frame 21 runs through all parts of the equipment except for the feeding mechanism 1, and serves as the conveying section of the entire production line.

[0056] During operation, the wooden strips are pushed one by one onto the first conveyor wheel. The first conveyor wheel can be driven to rotate by a motor, and the wooden strips behind will push the wooden strips in front forward. Therefore, the conveyor wheel mainly plays a supporting role. At the same time, in order to ensure that the wooden strips are transported more smoothly, the first conveyor wheel is set to rotate. This will not cause excessive friction on the wooden strips and ensure the quality of the wooden strips.

[0057] The first pressure roller 23 is rotatably mounted on the cantilever frame 22 to limit the transmission of the wooden strips and ensure that the wooden strips can be stably conveyed forward.

[0058] The dual-line parallel processing architecture 4 includes two wood strip conveying sections, namely the first wood strip conveying section 403 and the second wood strip conveying section 404;

[0059] The dual-line parallel processing architecture 4 also includes a second partition 42, a second pressure roller 23' and a second conveyor roller. In a specific embodiment, a second partition 42, a set of second pressure rollers 23' and a set of second conveyor rollers are provided. The second pressure rollers 23' are installed on the second support frame 21 through a second cantilever.

[0060] The first and second transfer wheels are arranged in parallel.

[0061] The second partition 42 is located between the first pressure roller and the second pressure roller;

[0062] The second partition 42 forms a first wood strip conveying section 403 between the first conveying wheel and the first pressure wheel 23;

[0063] The second partition 42 forms a second wood strip conveying section 404 between the second conveying wheel and the second pressure wheel 23';

[0064] The first wood strip conveying unit 403 is connected to the first wood strip feeding unit 401, and the second wood strip conveying unit 404 is connected to the second wood strip feeding unit 402;

[0065] The height of the upper surface of the second partition 22 should be higher than the height of the highest point of the first and second conveyor wheels;

[0066] The first and second conveyor wheels can be replaced by a single, wider conveyor wheel, such as conveyor wheel 24 shown in the attached diagram. The second partition 42 is located directly above the central axis of conveyor wheel 24.

[0067] Both the first pressure roller 23 and the second pressure roller 23' are sets of rollers. Taking the first pressure roller 23 as an example, the first pressure roller 23 includes a pressure roller set on the top of the wooden strip and a pressure roller on the side. The upper pressure roller limits the thickness of the wooden strip, and the side pressure roller limits the width of the wooden strip. The height of the upper pressure roller can be adjusted, and the width and position of the lower pressure roller can be adjusted to adapt to the conveying of wooden strips of different thicknesses and widths. At the same time, it should be ensured that the width settings of the first and second conveying rollers can meet the requirements for stable conveying of the wooden strips.

[0068] In a specific embodiment of this utility model, see Figure 1 The conveying wheel 24 and the cantilever frame 22 are both installed on the second support frame 21 with adjustable spacing to meet the conveying requirements of wooden strips of different widths and thicknesses.

[0069] In a specific embodiment of this utility model, see Figure 1 Each set of the conveyor wheel, the first pressure wheel, and the cantilever frame is provided with one or more of these components;

[0070] Some of the first pressure rollers are positioned above the wooden strip to limit its movement, while others are positioned on the side of the wooden strip to block it, ensuring that the wooden strip can be conveyed stably.

[0071] In a specific embodiment of this utility model, see Figure 1 The plane height of the upper surface of the second partition 42 is greater than or equal to the plane height of the highest point of the transmission wheel.

[0072] In a specific embodiment of this utility model, see Figure 1 The laminating mechanism 3 includes a third support frame 31, a film roller 32, a glue coater 33, a heating gun 34, a first upper pressure roller 35, a first left-side pressure roller 36, a first right-side pressure roller 37, and a first lower pressure roller. The third support frame 31 is arranged adjacent to the second support frame 21. The film roller 32, the glue coater 33, the heating gun 34, the first upper pressure roller 35, the first left-side pressure roller 36, the first right-side pressure roller 37, and the first lower pressure roller are all mounted on the third support frame 31. A wrapping paper roll is placed on the film roller 32, and the wrapping paper roll passes through the film roller. The glue-coating machine 33 is used to attach the glue to the surface of the wood strips; the heating port of the heating gun 34 is located above the first wood strip conveying section 403 and the second wood strip conveying section 404; the first upper pressure roller 35 is rotatably mounted on the third support frame 31 and is located above the first wood strip conveying section 403; the first left pressure roller 36 and the first right pressure roller 37 are located on both sides of the conveying direction of the first wood strip conveying section 403; the first lower pressure roller is rotatably mounted on the third support frame 31 and is located below the first wood strip conveying section 403.

[0073] The dual-line parallel processing architecture 4 also includes two sets of coating structures, namely a first coating structure 405 and a second coating structure 406, which are arranged in parallel.

[0074] The dual-line parallel processing architecture 4 further includes a dividing blade 43, a second upper pressure roller 35', a second left pressure roller 36', a second right pressure roller 37', and a second lower pressure roller. The dividing blade 43 is mounted on the third support frame 31 via a dividing frame. The dividing blade 43 is located directly above the middle of the first wood strip conveying section 403 and the second wood strip conveying section 404. The second upper pressure roller 35', the second left pressure roller 36', the second right pressure roller 37', and the second lower pressure roller are all mounted on the third support frame 31. The dividing blade 43, the first upper pressure roller 35, the first left pressure roller 36, the second left pressure roller 36', and the first lower pressure roller form a first film-coating structure 405. The dividing blade 43, the second upper pressure roller 35, the first right pressure roller 37, the second right pressure roller 37', and the second lower pressure roller form a second film-coating structure 406.

[0075] The heating gun 34 can be matched with one set of coating structures or two sets of coating structures.

[0076] Regarding the coating machine 33, as long as the width of the film roller is sufficient, multiple production lines can share one coating machine, and the same applies to the film roller;

[0077] The angles of the first left pressure roller 36, the second left pressure roller 36', the first right pressure roller 37, and the second right pressure roller 37' are all adjustable to adapt to paper covering and pressing operations.

[0078] The first and second lower pressure rollers have the same structure as the first and second upper pressure rollers and are not shown in the figure.

[0079] During operation, the starting end of the wrapping paper is attached to the wooden strip. As the wooden strip moves forward, it pulls the wrapping paper forward. During this process, the wrapping paper passes through the glue applicator and then through the heating gun. The heating gun heats the wrapping paper and, in turn, the glue. The wrapping paper adheres to the wooden strip through the glue applied on the glue applicator and the first upper pressure roller, the first left pressure roller, and the first right pressure roller, thus completing the wrapping of the wooden strip. Before the wrapping paper is attached to the wooden strip, the cutting blade cuts it in half (or at a set width), heats it with the heating gun, and then presses it onto the wooden strips of the corresponding production line.

[0080] In a specific embodiment of this utility model, see Figure 1 Each group of the first upper pressure roller, the second upper pressure roller, the first left pressure roller, the second left pressure roller, the first right pressure roller, the second right pressure roller, the first lower pressure roller, and the second lower pressure roller is provided with multiple rollers to ensure that the covering paper can be flatly covered on the wooden strip.

[0081] In a specific embodiment of this utility model, see Figure 1 Furthermore, vacuuming devices can be installed in the desired locations.

[0082] In a specific embodiment of this utility model, see Figure 1 The dual-line parallel processing architecture enables simultaneous feeding of two lines, and can be upgraded to simultaneous feeding of multiple lines. After the covering paper is coated with glue simultaneously, it is divided by a special cutting knife. The two sets of line covering wheels share a single covering machine bridge (first support frame and second support frame) to simultaneously perform line covering, breaking through the traditional single machine single line capacity ceiling.

[0083] This equipment achieves a doubling of output per unit time without changing the single-line processing speed by balancing the matching relationship between material coating amount and mechanical feed rate.

[0084] Verified by a third-party testing agency, the production line using the technology of this invention can increase the single-shift capacity by more than 200% compared with the traditional process when processing standard profiles, while maintaining a dimensional accuracy of ±0.1mm and a yield rate of ≥95%. It provides a revolutionary capacity solution for the fields of high-end customized home furnishing and precision decoration engineering, solving the problems of insufficient capacity and low efficiency. Moreover, the equipment has a high return on investment, low cost, and is easy to operate.

[0085] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A multi-line parallel processing architecture for a wood strip wrapping machine, the wood strip wrapping machine comprising a feeding mechanism, a conveying mechanism, and a film-coating mechanism, wherein the conveying mechanism is connected to the feeding mechanism; and the film-coating mechanism is connected to the conveying mechanism. characterized in that The feeding mechanism, conveying mechanism and coating mechanism are each provided with one or more sets; Each of the aforementioned feeding mechanism, conveying mechanism, and coating mechanism is simultaneously equipped with one or more sets of the aforementioned multi-line parallel processing architecture.

2. The multi-line parallel processing architecture of claim 1, wherein: The feeding mechanism includes a first support frame, a first motor, a first drive shaft, a first driven shaft, and a conveyor belt. The first motor is mounted on the feeding end of the first support frame. The first drive shaft and the first driven shaft are rotatably mounted on the feeding end and the discharging end of the first support frame, respectively. The first drive shaft is connected to the first motor via a transmission. The conveyor belt is simultaneously mounted on the first drive shaft and the first driven shaft. The multi-line parallel processing architecture includes multiple wood strip feeding sections arranged in parallel. The first support frame is provided with a front baffle, a left baffle and a right baffle. The front baffle is installed on the support frame and located at the discharge end of the conveyor belt. The left baffle and the right baffle are respectively installed on the support frame and located on both sides of the conveying direction of the conveyor belt. The multi-line parallel processing architecture also includes a first partition, the two ends of which are respectively installed on the feed end and the discharge end of the first support frame, and the first partition is located above the center of the conveyor belt. The left baffle and the right baffle are each provided with one or more sets, and correspondingly, the partition is provided with one or more; the wood strip feeding part is formed between adjacent left baffles.

3. The multi-line parallel processing architecture of claim 2, wherein: Each group has one or more left and right baffles.

4. The multi-line parallel processing architecture as described in claim 2, characterized in that: The conveying mechanism includes a second support frame and a conveying wheel. The second support frame is arranged adjacent to the first support frame, and the conveying wheel is rotatably mounted on the second support frame. The second support frame is equipped with a cantilever frame, and a pressure roller is rotatably mounted on the cantilever frame; The multi-line parallel processing architecture includes multiple wood strip conveying units; The multi-line parallel processing architecture also includes a second partition; The conveyor wheels are provided in multiple sets, and the multiple sets of conveyor wheels are arranged in parallel; correspondingly, the pressure wheels are provided in multiple sets, and the multiple sets of pressure wheels are arranged in parallel; the second partition is provided in multiple ways. A set of adjacent conveyor wheels, pressure wheels and a second partition plate form a wood strip conveying section; One of the wood strip conveying units is connected to one of the wood strip loading units.

5. The multi-line parallel processing architecture as described in claim 4, characterized in that: The conveyor wheel and the cantilever frame are both installed on the second support frame with adjustable spacing.

6. The multi-line parallel processing architecture as described in claim 4, characterized in that: Each set of conveyor wheels, pressure wheels, and cantilever frames is equipped with one or more.

7. The multi-line parallel processing architecture as described in claim 4, characterized in that: The plane height of the upper surface of the second partition is greater than or equal to the plane height of the highest point of the conveyor wheel.

8. The multi-line parallel processing architecture as described in claim 4, characterized in that: The laminating mechanism includes a third support frame, a film roller, a glue applicator, a heating gun, an upper pressure roller, a left pressure roller, a right pressure roller, and a lower pressure roller. The third support frame is arranged adjacent to the second support frame. The film roller, glue applicator, heating gun, upper pressure roller, left pressure roller, right pressure roller, and lower pressure roller are all mounted on the third support frame. A wrapping paper roll is placed on the film roller, and the wrapping paper roll passes through the glue applicator and is attached to the surface of the wood strip. The heating port of the heating gun is located above the wood strip conveying section. The upper pressure roller is rotatably mounted on the third support frame and located above the wood strip conveying section. The left and right pressure rollers are located on opposite sides of the conveying direction of the wood strip conveying section. The lower pressure roller is rotatably mounted on the third support frame and located below the wood strip conveying section. The multi-line parallel processing architecture also includes multiple sets of coating structures, and the multiple sets of coating structures are arranged in parallel. The multi-line parallel processing architecture also includes a dividing blade, which is mounted on the third support frame via a dividing bracket; the dividing blade is located above the middle of the two adjacent wood strip conveying sections. The dividing blade is provided in multiple ways, and the upper pressure roller, left pressure roller, right pressure roller and lower pressure roller are each provided in multiple sets; The adjacent upper pressure roller, left pressure roller, right pressure roller, lower pressure roller and dividing knife form a set of the film-coating structure.

9. The multi-line parallel processing architecture as described in claim 8, characterized in that: Each group of upper pressure roller, left pressure roller, right pressure roller and lower pressure roller is provided with multiple rollers; The coating mechanism is provided in one or more sets.

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