Full-automatic production line conveying device capable of achieving different-position conveying

Abstract

The invention discloses a full-automatic production line conveying device capable of achieving different-position conveying, and relates to the technical field of battery screen printing plate conveying. The full-automatic production line conveying device comprises a feeding conveying belt, a feeding conveying belt, a discharging conveying belt and a discharging conveying belt; and the output end of the discharging conveying belt is located behind the input end of the discharging conveying belt, and the discharging conveying belt is fixedly provided with a pair of L-shaped plates. A complete, efficient and flexible full-automatic production line transmission solution is constructed, the flexibility level and the automation degree of a production line are remarkably improved, the equipment investment and maintenance cost are effectively reduced, reliable technical support is provided for automatic production of precise components such as battery screens, and the production efficiency is improved. The method has wide application prospects and remarkable economic benefits.

Description

TECHNICAL FIELD

[0001] The present application relates to the battery screen transmission technical field, specifically to a full-automatic production line transmission device capable of being transmitted in a different place. BACKGROUND

[0002] With the rapid development of intelligent manufacturing, automated production lines play an increasingly important role in modern industrial production. In particular, in the fields of new energy, electronic components, precision instruments and other high-end manufacturing, higher requirements are placed on the flexibility, intelligence and efficiency of production lines. As a key component of automated production lines, the performance of the material conveying system directly affects the operation efficiency, product quality and production cost of the entire production line.

[0003] In the battery manufacturing industry, the battery screen is a core component, and its production process involves multiple processes, requiring frequent transmission and transfer between different stations. Traditional automated transmission systems usually use fixed-width conveyor belts in combination with mechanical hands or transplanting mechanisms to achieve material conveying. This type of system can work well when dealing with single-specification products, but when faced with the growing demand for flexible production of multiple varieties and small batches, it gradually reveals many limitations: The width of the traditional conveyor belt system is usually fixed and cannot adapt to the transmission requirements of different sizes of workpieces. When the product specifications change, mechanical adjustments or replacement of conveyor belt components are required, which not only consumes time and effort, but also seriously affects production continuity. According to statistics, in a production environment with frequent changes, the traditional width adjustment method can increase production line downtime by 15-25%, greatly reducing equipment utilization and production efficiency.

[0004] Existing transmission systems have obvious shortcomings in material transfer. Material transfer between parallel arranged conveyor belts usually relies on expensive industrial robots or multi-degree-of-freedom manipulators. Although these devices have high flexibility, they have high initial investment costs, complex programming and debugging, and high maintenance requirements, which are difficult for many small and medium-sized enterprises to bear. At the same time, the operating cycle of the robot sometimes cannot be perfectly matched with the high-speed running of the conveyor belt, which can easily form a production bottleneck.

[0005] Traditional transmission systems lack effective material positioning and centering functions. Materials can easily shift position during long-distance transmission, and existing correction devices are often complex in structure and slow in response, unable to meet the accuracy requirements of high-speed production lines. Inaccurately positioned materials can directly affect the quality of subsequent processing or detection processes, and may even cause equipment failure. SUMMARY

[0006] In view of the shortcomings of the prior art, the present application provides a full-automatic production line conveying device capable of being transferred in a different position, which solves the technical problems of the prior art that the existing automatic production line conveying device is usually composed of a series of fixed-width conveying belts and mechanical hands, such a system performs well when dealing with large-batch production of single-specification products, but its inherent limitations are exposed when facing flexible production requirements of multiple varieties and small batches, first, the width of the conventional conveying belt is usually fixed, which cannot quickly adapt to the transmission requirements of workpieces of different sizes, and when the product model is changed, it is often necessary to stop and manually replace the conveying belt components or perform tedious mechanical adjustment, which not only leads to prolonged downtime of the production line and reduced production efficiency, but also increases the labor intensity of the operators and the probability of errors.

[0007] To achieve the above object, the present application is implemented by the following technical scheme: a full-automatic production line conveying device capable of being transferred in a different position, comprising a feeding conveying belt, a feeding conveying belt, a discharging conveying belt and a discharging conveying belt, the output end of the feeding conveying belt is located behind the input end of the feeding conveying belt, the output end of the discharging conveying belt is located behind the input end of the discharging conveying belt, a pair of L-shaped plates are fixedly installed on the discharging conveying belt, a gas cylinder is fixedly installed on the side wall surface of the L-shaped plate, the telescopic end of the gas cylinder penetrates through the L-shaped plate and is fixedly installed with a concave plate, a first roller is rotatably installed between the upper and lower wall surfaces of the concave plate, the feeding conveying belt and the discharging conveying belt are arranged in parallel, a transverse carrying device is arranged between the feeding conveying belt and the discharging conveying belt, a load-bearing table is fixedly installed on one side of the transverse carrying assembly, and an adjusting assembly is arranged on the feeding conveying belt, the feeding conveying belt, the discharging conveying belt and the discharging conveying belt, and a photoelectric sensor is arranged on the adjusting assembly and the load-bearing table.

[0008] Preferably, the feeding conveying belt, the feeding conveying belt, the discharging conveying belt and the discharging conveying belt comprise a bottom plate, a pair of sliding grooves are formed in the bottom plate, a sliding block is slidably installed in the sliding groove, a T-shaped plate is fixedly installed on the sliding block, a pair of rotating shafts are rotatably installed on the T-shaped plate, a first gear is fixedly installed on the rotating shaft, a conveying belt body is sleeved on the first gear, a flexible rack is fixedly installed on the lower wall surface of the conveying belt body, the flexible rack is meshed and connected with the first gear, a driving motor is fixedly installed on the side wall surface of the T-shaped plate, the driving motor is connected with the rotating shaft, and the adjusting assembly is fixedly installed on the bottom plate and located between the T-shaped plates.

[0009] Preferably, the adjusting assembly comprises a support column fixedly installed on the bottom plate between the T-shaped plates, a barrel fixedly installed at the upper end of the support column, the barrel having a channel structure at both ends, a pair of telescopic rods inserted into the barrel, the other ends of the telescopic rods being fixedly connected with the T-shaped plates, one end of each telescopic rod being located in the barrel and having a guide block fixedly installed on the upper and lower walls respectively, a guide groove being formed in the barrel at the side of each guide block, each guide block being slidingly installed in the guide groove, a pair of support plates being fixedly installed in the barrel between the telescopic rods, a bidirectional lead screw being rotatably installed between the support plates, a threaded groove being formed in the end of each telescopic rod located in the barrel, the bidirectional lead screw being engagedly connected in the threaded groove, a driven gear being fixedly installed at the center of the bidirectional lead screw, an adjusting motor being fixedly installed on the outer front wall of the barrel, a driving gear being fixedly installed on the driving end of the adjusting motor and penetrating through the barrel, the driving gear being engagedly connected with the driven gear, and the photoelectric sensor being fixedly installed on the outer upper wall of the barrel.

[0010] Preferably, the barrel has a square tube structure, and the telescopic rods have a square column structure.

[0011] Preferably, the lateral conveying device comprises a bottom box, a first opening being formed in the upper wall of the bottom box, a work-shaped block being slidingly installed in the first opening, a pair of connecting plates being fixedly installed on the lower wall of the work-shaped block, a rotating rod being rotatably installed between the connecting plates, a second roller being fixedly installed on the rotating rod and located between the connecting plates, second gears being fixedly installed on both ends of the rotating rod and penetrating through the connecting plates, a second opening being formed in the outer front wall of the bottom box, dovetail grooves being formed in the outer front wall of the bottom box and located on both sides of the second opening, dovetail blocks being slidingly installed in the dovetail grooves, a box body being fixedly installed between the dovetail blocks, a second motor being fixedly installed in the box body, the driving end of the second motor penetrating through the second opening and being fixedly connected with the rotating rod, an electric push rod being fixedly installed on the upper wall of the work-shaped block, a horizontal rod being fixedly installed on the telescopic end of the electric push rod, four bearing rods being slidingly installed on the horizontal rod, second racks being fixedly installed below the second gears in the bottom box, and the gears and the racks being engagedly connected.

[0012] Preferably, the horizontal rod has an I-shaped structure in cross section, sleeves are fixedly installed on the bearing rods, threaded holes are formed in the front walls of the sleeves, bolts are screwed into the threaded holes, and limit blocks are rotatably installed on one end of each bolt located in the horizontal rod. Advantages

[0013] The application provides a full-automatic production line transmission device capable of being transferred in a different position, solves the technical problems that the existing automatic production line transmission device is usually composed of a series of fixed-width conveying belts and mechanical hands, such a system can perform well when dealing with mass production of single-specification products, but its inherent limitations are exposed when facing flexible production requirements of multiple varieties and small batches, first, the width of the traditional conveying belt is usually fixed, and it cannot quickly adapt to the transmission requirements of workpieces of different sizes, when the product model is changed, the conveying belt assembly often needs to be manually replaced or complicated mechanical adjustment is performed, which not only causes the production line to be out of service for a long time and the production efficiency to be reduced, but also increases the labor intensity of the operators and the probability of errors, and the application has the following advantages: The application perfectly solves the technical problems that the width of the traditional conveying belt is fixed and cannot adapt to workpieces of multiple sizes through the innovative design of the adjusting assembly, the adjusting assembly adopts a bidirectional screw rod transmission mechanism, drives the driving gear and the driven gear through an adjusting motor, and drives the bidirectional screw rod to synchronously rotate, since the thread directions of the left and right sides of the bidirectional screw rod are opposite, the opposite or reverse movement of the telescopic rods on the two sides can be simultaneously driven, and the T-shaped plate is further pushed to accurately slide along the sliding groove, the mechanical synchronous adjusting mode ensures that the two conveying belt bodies are always in a symmetrical position, the adjusting precision is high, and the operation is stable, the whole process can be completed through one key of the control system without manual intervention, the fast, accurate and stepless adjustment of the distance between the conveying belts is realized, the same production line can adapt to the transmission requirements of battery screen versions of various specifications from the smallest to the largest, the flexible production capacity of the production line is greatly improved, and the application is particularly suitable for modern manufacturing modes of multiple varieties and small batches.

[0014] The transverse carrying device adopts a gear-and-rack transmission mode, a second gear is driven by a second motor to roll on a fixed rack, and the whole carrying mechanism is stably moved along the bottom box, the transmission mode has the advantages of simple structure, strong carrying capacity and high positioning precision, an electric push rod cooperates with a spacing-adjustable carrying rod to form a lifting mechanism, the lifting mechanism can accurately lift the workpiece and complete transverse transfer, compared with a traditional industrial robot, the mechanism has lower manufacturing cost, is more convenient to maintain, and is more reliable in operation, can meet the requirements of high-speed production rhythm, and realizes efficient, stable and accurate material transfer between the feeding conveying belt and the discharging conveying belt, and effectively solves the problem of different-position transfer between the parallelly arranged conveying belts.

[0015] The automatic centering device arranged at the end of the discharge conveying belt is driven by a pair of L-shaped plates and a cylinder to drive the concave plates to move towards each other, and the workpiece is guided and positioned by the roller, the mechanical centering mode is fast in response and reliable in action, can effectively correct the position deviation of the workpiece in the transmission process, and ensure that each workpiece enters the next process or the discharge state with accurate position, which not only improves the standardization degree of the production process, but also provides accurate positioning guarantee for the subsequent automatic processing, detection or packaging process, effectively improves the process precision and product quality consistency of the whole production system.

[0016] The application arranges photoelectric sensors at key positions, monitors the position and state of the workpiece in real time, and forms a closed loop control with the PLC control system, the system can automatically identify the workpiece positioning signal, coordinate the control of the action time sequence of the conveying belt start-stop, transverse transfer, centering positioning and other actuators, realize the automatic operation of the whole process from feeding, loading, transverse transfer, unloading to discharging, the intelligent control system ensures the continuity and stability of the material flow, maximally reduces the manual intervention, significantly improves the production efficiency, and reduces the quality problems caused by human operation errors.

[0017] The four independently adjustable supporting rods arranged on the cross bar can flexibly adjust the position and spacing of the supporting points according to the specific size of the workpiece through the sleeve and bolt locking mechanism, the design ensures that different specifications of workpieces have good supporting effect, avoids workpiece deformation or damage caused by improper support, and at the same time, the cross-shaped cross bar provides sufficient rigidity and stability to ensure safety and reliability during the transfer process.

[0018] The various functional modules of the application are relatively independent and integrated, forming a complete transmission system, the modular design not only facilitates the installation, debugging and daily maintenance of the equipment, but also provides convenience for subsequent function expansion and production line upgrading, enterprises can flexibly configure the number and layout of the transmission units according to actual production needs to meet the requirements of different production scales and process routes.

[0019] The application constructs a complete, efficient and flexible full-automatic production line transmission solution through the adjustable width conveying belt, the efficient transverse transfer mechanism, the automatic centering device and the intelligent control system, the device not only significantly improves the flexibility and automation level of the production line, but also effectively reduces the equipment investment and maintenance cost, provides reliable technical support for the automatic production of battery screen and other precision components, has wide application prospect and significant economic benefit. BRIEF DESCRIPTION OF DRAWINGS

[0020] Figure 1 It is a front view structural schematic diagram of the full-automatic production line transmission device with allochthonous transmission.

[0021] Figure 2 A bottom view structural schematic diagram of the full-automatic production line transmission device capable of being transferred in a different position.

[0022] Figure 3 A feeding conveyor belt structural schematic diagram of the full-automatic production line transmission device capable of being transferred in a different position.

[0023] Figure 4 An exploded structural schematic diagram of the feeding conveyor belt of the full-automatic production line transmission device capable of being transferred in a different position.

[0024] Figure 5 A lateral carrying device structural schematic diagram of the full-automatic production line transmission device capable of being transferred in a different position.

[0025] Figure 6 An exploded structural schematic diagram of the lateral carrying device of the full-automatic production line transmission device capable of being transferred in a different position.

[0026] Figure 7 An exploded structural schematic diagram of the bottom box of the full-automatic production line transmission device capable of being transferred in a different position.

[0027] Figure 8 A partial display diagram of the full-automatic production line transmission device capable of being transferred in a different position.

[0028] Marked: 1, feeding conveyor belt; 2, feeding conveyor belt; 3, discharging conveyor belt; 4, discharging conveyor belt; 5, L-shaped plate; 6, air cylinder; 7, concave plate; 8, first roller; 9, bearing table; 10, photoelectric sensor; 11, bottom plate; 12, sliding groove; 13, sliding block; 14, T-shaped plate; 15, rotating shaft; 16, first gear; 17, conveyor belt body; 18, flexible rack; 19, driving motor; 20, support column; 21, cylinder; 22, telescopic rod; 23, guide block; 24, guide groove; 25, support plate; 26, bidirectional screw; 27, driven gear; 28, adjusting motor; 29, driving gear; 30, bottom box; 31, first opening; 32, work-shaped block; 33, connecting plate; 34, rotating rod; 35, second roller; 36, second gear; 37, second opening; 38, dovetail groove; 39, dovetail block; 40, second motor; 41, electric push rod; 42, cross bar; 43, bearing rod; 44, sleeve; 45, bolt; 46, limiting block; 47, second rack. DETAILED DESCRIPTION

[0029] Clearly, the embodiments described are only a part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments of the present application, all other embodiments obtained by a person of ordinary skill in the art without creative effort belong to the scope of protection of the present application.

[0030] Please refer to Figures 1-8 The present application provides a technical solution: a full-automatic production line transmission device capable of being transferred ectopically, comprising a feeding conveyor belt 1, a feeding conveyor belt 2, a discharging conveyor belt 3 and a discharging conveyor belt 4, the output end of the feeding conveyor belt 1 is located behind the input end of the feeding conveyor belt, the output end of the discharging conveyor belt 3 is located behind the input end of the discharging conveyor belt 4, a pair of L-shaped plates 5 are fixedly installed on the discharging conveyor belt 3, air cylinders 6 are fixedly installed on the side wall surface of the L-shaped plates 5, the telescopic end of the air cylinders 6 penetrates through the L-shaped plates 5 and is fixedly installed with concave plates 7, first rollers 8 are rotatably installed between the upper and lower wall surfaces of the concave plates 7, the feeding conveyor belt 2 and the discharging conveyor belt 3 are arranged in parallel, a transverse carrying device is arranged between the feeding conveyor belt 2 and the discharging conveyor belt 3, a bearing table 9 is fixedly installed on one side of the transverse carrying assembly, adjusting assemblies are arranged on the feeding conveyor belt 1, the feeding conveyor belt 2, the discharging conveyor belt 3 and the discharging conveyor belt 4, and photoelectric sensors 10 are arranged on the adjusting assemblies and the bearing table 9.

[0031] The present application further provides that the feeding conveyor belt 1, the feeding conveyor belt 2, the discharging conveyor belt 3 and the discharging conveyor belt 4 comprise a bottom plate 11, a pair of sliding grooves 12 are formed in the bottom plate 11, sliding blocks 13 are slidably installed in the sliding grooves 12, T-shaped plates 14 are fixedly installed on the sliding blocks 13, respectively, a pair of rotating shafts 15 are rotatably installed on the T-shaped plates 14, respectively, first gears 16 are fixedly installed on the rotating shafts 15, respectively, conveyor belt bodies 17 are sleeved on the first gears 16, flexible racks 18 are fixedly installed on the lower wall surface of the conveyor belt bodies 17, the flexible racks 18 are meshedly connected with the first gears 16, drive motors 19 are fixedly installed on the side wall surface of the T-shaped plates 14, the drive motors 19 are connected with the rotating shafts 15, and the adjusting assemblies are fixedly installed on the bottom plate 11 and located between the T-shaped plates 14.

[0032] The embodiment is further provided with the adjusting assembly, which comprises a support column 20 fixedly installed on the bottom plate 11 between the T-shaped plates 14, an upper end of the support column 20 being fixedly installed with a barrel 21, both ends of the barrel 21 being in a mode structure, a pair of telescopic rods 22 being inserted into the barrel 21, the other ends of the telescopic rods 22 being fixedly connected with the T-shaped plates 14, one end of each telescopic rod 22 being located in the barrel 21 and being fixedly installed with a guide block 23 on the upper and lower walls respectively, guide grooves 24 being formed in the barrel 21 on the side of the guide blocks 23, the guide blocks 23 being slidingly installed in the guide grooves 24, a pair of support plates 25 being fixedly installed in the barrel 21 between the telescopic rods 22, the support plates 25 being rotatably installed with a bidirectional lead screw 26 therebetween, a threaded groove being formed in the end of each telescopic rod 22 located in the barrel 21, the bidirectional lead screw 26 being engagedly connected in the threaded groove, a driven gear 27 being fixedly installed at the center of the bidirectional lead screw 26, an adjusting motor 28 being fixedly installed on the outer front wall of the barrel 21, a driving end of the adjusting motor 28 penetrating through the barrel 21 and being fixedly installed with a driving gear 29, the driving gear 29 being engagedly connected with the driven gear 27, the photoelectric sensor 10 being fixedly installed on the outer upper wall of the barrel 21.

[0033] The embodiment is further provided that the barrel 21 is in a square cylinder structure, and the telescopic rods 22 are in a square column structure.

[0034] The embodiment is further provided that the horizontal carrying device comprises a bottom box 30, a first opening 31 being formed in the upper wall of the bottom box 30, a work-shaped block 32 being slidingly installed in the first opening 31, a pair of connecting plates 33 being fixedly installed on the lower wall of the work-shaped block 32, a rotating rod 34 being rotatably installed between the connecting plates 33, a second roller 35 being fixedly installed on the rotating rod 34, the second roller 35 being located between the connecting plates 33, second gears 36 being fixedly installed on both ends of the rotating rod 34 penetrating through the connecting plates 33, a second opening 37 being formed in the outer front wall of the bottom box 30, dovetail grooves 38 being formed in the outer front wall of the bottom box 30 on both sides of the second opening 37, dovetail blocks 39 being slidingly installed in the dovetail grooves 38, a box body being fixedly installed between the dovetail blocks 39, a second motor 40 being fixedly installed in the box body, a driving end of the second motor 40 penetrating through the second opening 37 and being fixedly connected with the rotating rod 34, an electric push rod 41 being fixedly installed on the upper wall of the work-shaped block 32, a horizontal rod 42 being fixedly installed on the telescopic end of the electric push rod 41, four bearing rods 43 being slidingly installed on the horizontal rod 42, second racks 47 being fixedly installed below the second gears 36 in the bottom box 30, the gears being engagedly connected with the racks.

[0035] The embodiment is further provided with the horizontal rod 42 in the I-shaped structure, the sleeve 44 is fixedly installed on the bearing rod 43, the front wall of the sleeve 44 is provided with the threaded hole, the bolt 45 is screwed in the threaded hole, and one end of the bolt 45 is located in the horizontal rod 42 and rotationally installed with the limiting block 46.

[0036] The detailed connection means is a technology known in the art, and the working principle and process are mainly introduced below, and the specific work is as follows:

[0037] The embodiment is known from the accompanying drawings, in use, first, the size of the feeding conveying belt 1, the feeding conveying belt 2, the discharging conveying belt 3 and the discharging conveying belt 4 is adjusted, so as to be suitable for any length of the battery screen, at this time, the adjusting motor 28 is started, the adjusting motor 28 drives the driving gear 29 to rotate, the driving gear 29 drives the driven gear 27 to rotate, the driven gear 27 drives the bidirectional screw rod 26 to rotate, since the bidirectional screw rod 26 is engaged with the screw groove on the telescopic rod 22, the bidirectional screw rod 26 drives the telescopic rod 22 to rotate, the telescopic rod 22 moves along the path of the guide groove 24 under the action of the guide block 23, the telescopic rod 22 pushes the T-shaped plate 14 to move along the path of the sliding groove 12 under the action of the sliding block 13, the distance between the conveying belt bodies 17 is adjusted, so that the conveying belt bodies 17 can be suitable for any size of the battery screen, the driving motor 19 is started, the driving motor 19 drives the rotating shaft 15 to rotate, the first gear 16 rotates, the flexible rack 18 is engaged with the first gear 16, the flexible rack 18 drives the conveying belt bodies 17 to rotate, the sleeve 44 is pushed, the sleeve 44 drives the bearing rod 43 to move along the path of the cross rod 42, the distance between the bearing rods 43 is adjusted, so as to be suitable for any size of the battery screen, the bolt 45 is rotated, the bolt 45 feeds along the path of the threaded hole, until the limiting block 46 is pressed on the cross rod 42, the bearing rod 43 is limited, the battery screen is conveyed from the feeding conveying belt 1 to the feeding conveying belt 2, the photoelectric switch on the feeding conveying belt 2 detects the battery screen, at this time, the feeding conveying belt 1, the feeding conveying belt 2, the discharging conveying belt 3 and the discharging conveying belt 4 are stopped, the second motor 40 is started, the second motor 40 drives the rotating rod 34 to rotate, the second gear 36 rotates, the second gear 36 is engaged with the second rack 47, the second gear 36 drives the T-shaped block 32 to move horizontally, until the bearing rod 43 is below the battery screen, at this time, the electric push rod 41 is started, the bearing rod 43 moves upward, the bearing rod 43 lifts the battery screen, at this time, the feeding conveying belt 1, the feeding conveying belt 2, the discharging conveying belt 3 and the discharging conveying belt 4 are started, the next battery screen is transported to the feeding conveying belt 2, at this time, the second motor 40 is started again, the previous battery screen is transported to the bearing table 9, the bearing rod 43 returns to the feeding conveying belt 2 to carry the next battery screen, the second motor 40 is started again, the first battery screen is carried to the discharging conveying belt 3, the second battery screen is transported to the bearing table 9, the discharging conveying belt 3 transports the first battery screen to the discharging conveying belt 4, at this time, the photoelectric sensor 10 of the discharging conveying belt 4 detects the battery screen, the cylinder 6 is started, the cylinder 6 pushes the concave plate 7, the concave plate 7 drives the first roller 8 to move towards each other, the battery screen is centered on the discharging conveying belt 4, the battery screen is discharged.

[0038] It is to be understood that the terminology "first", "second", and the like used herein merely to distinguish one from another entity or action, but do not require or imply a practical relationship or order of such entities or actions.

Claims

1. A fully automated production line conveyor device capable of cross-positional conveying, comprising an infeed conveyor belt (1), a loading conveyor belt (2), a unloading conveyor belt (3), and an outlet conveyor belt (4), characterized in that, The output end of the feeding conveyor belt (1) is located behind the input end of the loading conveyor belt, and the output end of the unloading conveyor belt (3) is located behind the input end of the discharge conveyor belt (4). A pair of L-shaped plates (5) are fixedly installed on the unloading conveyor belt (3). A cylinder (6) is fixedly installed on the side wall of the L-shaped plate (5). The telescopic end of the cylinder (6) passes through the L-shaped plate (5) and is fixedly installed with a concave plate (7). A first roller (8) is rotatably installed between the upper and lower walls of the concave plate (7). The loading conveyor belt (2) and the unloading conveyor belt (3) are arranged in parallel. A transverse conveying device is provided between the loading conveyor belt (2) and the unloading conveyor belt (3). A bearing platform (9) is fixedly installed on one side of the transverse conveying device. An adjustment component is provided on the feeding conveyor belt (1), the loading conveyor belt (2), the unloading conveyor belt (3), and the discharge conveyor belt (4). A photoelectric sensor (10) is provided on the adjustment component and the bearing platform (9).

2. The fully automated production line conveying device capable of cross-location transmission according to claim 1, characterized in that... The feeding conveyor belt (1), loading conveyor belt (2), unloading conveyor belt (3), and discharging conveyor belt (4) include a base plate (11). A pair of sliding grooves (12) are provided on the base plate (11). A slider (13) is slidably installed in the sliding groove (12). A T-shaped plate (14) is fixedly installed on the slider (13). A pair of rotating shafts (15) are rotatably installed on the T-shaped plate (14). A first [missing information] is fixedly installed on the rotating shaft (15). The gear (16) is fitted with a conveyor belt body (17). A flexible rack (18) is fixedly installed on the lower wall of the conveyor belt body (17). The flexible rack (18) meshes with the first gear (16). A drive motor (19) is fixedly installed on the side wall of the T-shaped plate (14). The drive motor (19) is connected to the rotating shaft (15). The adjustment component is fixedly installed on the base plate (11) and located between the T-shaped plates (14).

3. The fully automated production line transmission device capable of cross-location transmission according to claim 2, characterized in that... The adjustment assembly includes a support column (20), which is fixedly installed on the base plate (11) and located between the T-shaped plates (14). A cylinder (21) is fixedly installed on the upper end of the support column (20). The cylinder (21) has two ends in a U-shape. A pair of telescopic rods (22) are inserted inside the cylinder (21). The other end of the telescopic rods (22) is fixedly connected to the T-shaped plates (14). One end of the telescopic rod (22) is located inside the cylinder (21), and guide blocks (23) are fixedly installed on the upper and lower walls respectively. Guide grooves (24) are respectively opened inside the cylinder (21) and on one side of the guide blocks (23). The guide blocks (23) are slidably installed in the guide grooves (24). A pair of support plates (25) are fixedly installed between the telescopic rods (22), and a bidirectional screw (26) is rotatably installed between the support plates (25). A threaded groove is opened on one end of the telescopic rod (22) located inside the cylinder (21). The bidirectional screw (26) is meshed and connected in the threaded groove. A driven gear (27) is fixedly installed at the center of the bidirectional screw (26). An adjusting motor (28) is fixedly installed on the outer front wall of the cylinder (21). The driving end of the adjusting motor (28) passes through the cylinder (21) and is fixedly installed with a driving gear (29). The driving gear (29) meshes and is connected with the driven gear (27). The photoelectric sensor (10) is fixedly installed on the outer upper wall of the cylinder (21).

4. The fully automated production line transmission device capable of cross-location transmission according to claim 3, characterized in that... The cylinder (21) has a square cylindrical structure, and the telescopic rod (22) has a square column structure.

5. A fully automated production line conveying device capable of cross-location transmission according to claim 1, characterized in that... The transverse conveying device includes a base box (30), the upper wall of the base box (30) has a first opening (31), an I-shaped block (32) is slidably installed in the first opening (31), a pair of connecting plates (33) are fixedly installed on the lower wall of the I-shaped block (32), a rotating rod (34) is rotatably installed between the connecting plates (33), a second roller (35) is fixedly installed on the rotating rod (34), the second roller (35) is located between the connecting plates (33), the two ends of the rotating rod (34) pass through the connecting plates (33) and are fixedly installed with second gears (36), the outer front wall of the base box (30) has a second opening (37), the outer front wall of the base box (30) and the second opening (37) are located on the second opening (37) The top and bottom sides are respectively provided with dovetail grooves (38), and dovetail blocks (39) are slidably installed in the dovetail grooves (38). A box is fixedly installed between the dovetail blocks (39). A second motor (40) is fixedly installed in the box. The driving end of the second motor (40) passes through the second opening (37) and is fixedly connected to the rotating rod (34). An electric push rod (41) is fixedly installed on the upper wall of the I-shaped block (32). A crossbar (42) is fixedly installed on the telescopic end of the electric push rod (41). Four bearing rods (43) are slidably installed on the crossbar (42). A second rack (47) is fixedly installed in the bottom box (30) and below the second gear (36). The gear and the rack are meshed and connected.

6. A fully automated production line transmission device capable of cross-location transmission according to claim 7, characterized in that... The crossbar (42) has an I-shaped cross section. A sleeve (44) is fixedly installed on the bearing rod (43). A threaded hole is opened on the front wall of the sleeve (44). A bolt (45) is screwed into the threaded hole. One end of the bolt (45) is located inside the crossbar (42) and a limit block (46) is rotatably installed.

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