Plane segmented automatic conveying chain device and conveying method
By designing a coordinated drive device and driven locking device in the planar segmented conveying chain, the synchronous transportation of the two conveying chains is achieved, which solves the problems of poor synchronization and high maintenance costs of the traditional conveying chain, and improves the stability of the conveying chain Sex and scope of application.
Patent Information
- Application Number
- CN202411714318.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-27
- Publication Date
- 2025-01-10
AI Technical Summary
Due to the incoordination of the drive devices in the traditional planar segment conveying chain, the conveying chain cannot be fully synchronized, which is prone to failure and has high maintenance and construction costs.
An automatic conveying chain device including two parallel conveying chains, a drive device, a driven main device and a driven locking device is designed. The two conveying chains are fully synchronized by the driven main bending entry mechanism and a multi-function pusher. Four-stud vertical bearing seat and centrifugal roller bearing are used to improve the strength and stability of the device.
It realizes the complete synchronous transportation of two conveying chains, reduces labor and maintenance costs, improves the accuracy and safety of conveying, has a wide range of application, reduces the occurrence of faults, and extends the service life of the device.
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Figure CN119284441A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of hull structure conveying systems, in particular to a plane segmented automatic conveying chain device and a conveying method, and in particular to an automatic conveying chain device and a conveying method for plane segments in a hull structure. Background Art
[0002] In the prior art, according to the structural characteristics of the hull, the production conditions of the shipyard and the requirements of the construction process, the hull is reasonably divided into a number of hull structure segments forming independent assembly units. According to the appearance, the hull can be divided into plane segments, curved segments and three-dimensional segments.
[0003] In traditional planar segmented conveyor chains, two production lines and two sets of drive devices are generally equipped. However, the hidden danger is that the single production conveyor chains controlled by the two sets of drive devices cannot achieve one-to-one correspondence in the same time period, and the conveying rhythm and drive displacement cannot be completely synchronized, which is very prone to failure, and the maintenance and construction costs are extremely high.
[0004] Therefore, there is an urgent need in the market for an improved plane segmented automatic conveyor chain device so that the two conveyor chains can be fully synchronized. Summary of the invention
[0005] The purpose of the present invention is to provide an improved planar segmented automatic conveyor chain device and transportation method. Through the improvement of the structure and method, the two conveyor chains are completely synchronized, with a high safety factor and convenient maintenance. It is suitable for the transportation of various profiles and has a wide range of applications.
[0006] In order to achieve the above-mentioned purpose, the technical solution of the present invention is: a plane segmented automatic conveying chain device, characterized in that: the plane segmented automatic conveying chain device comprises two parallel conveying chains, a driving device is arranged between the two conveying chains, one end of the two conveying chains is respectively provided with a driven main device connected to the driving device, and the other end of the two conveying chains is respectively provided with a driven locking device; the two conveying chains are respectively provided with a driven main bending entry mechanism, a driven secondary bending entry mechanism and a multi-functional pusher in sequence; the driven main device comprises a driven support seat, a four-stud vertical bearing seat assembly is arranged on the driven support seat, the four-stud vertical bearing seat assembly is provided with a transmission shaft, one end of the transmission shaft is provided with an 8-tooth sprocket, and one end of the 8-tooth sprocket is provided with a cover plate for limiting.
[0007] Preferably, the driving device includes a driving main seat, on which a reducer and a three-phase asynchronous driving motor are provided, a drum gear coupling is provided between the reducer and the three-phase asynchronous driving motor, and flange couplings are provided on both sides of the three-phase asynchronous driving motor; a reducer mounting mechanism is provided between the reducer and the driving main seat, reinforcing plate ribs are provided on the four sides of the driving main seat, and two protruding adjustment blocks are provided at one end of the driving main seat.
[0008] Furthermore, the four-stud vertical bearing seat as a whole includes a four-stud vertical bearing seat, a spherical roller bearing is arranged inside the four-stud vertical bearing seat, a standard positioning ring for axial limitation is arranged on the side of the spherical roller bearing, and a locking sleeve for radial limitation is arranged on the outside of the spherical roller bearing.
[0009] Furthermore, the driven locking device includes a supporting main seat, a connecting base plate is provided on the supporting main seat, two supporting frames are arranged in parallel on the connecting base plate, a driven sprocket is provided between the two supporting frames, locking flanges are provided at one end of the two supporting frames, an adjusting bolt is provided on one side of the locking flange, the locking flange and the adjusting bolt are connected by a locking nut, and a driving ring is provided on the adjusting bolt.
[0010] Furthermore, the support frame is respectively connected by a top connecting plate, a vertical left supporting frame and a vertical right supporting frame. Two auxiliary slide rails are respectively provided in each support frame, one auxiliary slide rail is connected to the connecting bottom plate, and the other auxiliary slide rail is connected to the top connecting plate; a special spacer is connected to the driven sprocket, and a high-strength cover plate for limiting axial movement is provided on one side of the special spacer.
[0011] A conveying method for a planar segmented automatic conveying chain device, characterized in that the conveying method is as follows: a. A load-bearing crane first hoists the thin plate to be welded onto the support main seat of the segmented support, and accurately positions and limits the thin plate to be welded; b. After the positioning is completed, the multifunctional pusher mounted on the chain moves to the starting position of the thin plate movement under the drive of the motor, waiting for the next step of work; c. The driving motor starts to work, and the two chains distributed on the left and right sides of the segment move forward synchronously under the joint action of two symmetrical connecting rods; d. Under the drive of the motor, the chain carries the multifunctional pusher to accurately deliver the thin plate to the welding station for welding; e. After welding is completed, the planar segment is transported to the next station for subsequent operations.
[0012] Compared with the prior art, the technical solution of the present invention not only improves the overall technical solution, but also includes many improvements in details. Specifically, it has the following beneficial effects: 1. The improved scheme of the present invention is that the plane segmented automatic conveyor chain device comprises two parallel conveyor chains, a driving device is arranged between the two conveyor chains, one end of the two conveyor chains is respectively provided with a driven main device connected to the driving device, and the other end of the two conveyor chains is respectively provided with a driven locking device; the two conveyor chains are respectively provided with a driven main bending entry mechanism, a driven secondary bending entry mechanism and a multifunctional pusher in sequence, so that the two conveyor chains can be transported completely synchronously, the conveyor chains can be applied to thin plates of different thicknesses, specifications and sizes, and the labor cost and maintenance cost are greatly reduced; 2. In the technical solution of the present invention, the driven main device includes a driven support seat, a four-stud vertical bearing seat is provided on the driven support seat, a transmission shaft is provided on the four-stud vertical bearing seat, an 8-tooth sprocket is provided at one end of the transmission shaft, and a cover plate for limiting is provided at one end of the 8-tooth sprocket. The driven components here are improved and structurally processed, so that the overall strength is enhanced and the structure is simpler, the cost is reduced, and the equipment performance is greatly improved; 3. In the structure of the present invention, the four-stud vertical bearing seat generally includes a four-stud vertical bearing seat, a spherical roller bearing is arranged inside the four-stud vertical bearing seat, a standard positioning ring for axial limiting is arranged on the side of the spherical roller bearing, and a locking sleeve for radial limiting is arranged on the outside of the spherical roller bearing, so that the device runs more smoothly, the safety of use is guaranteed, and the service life of the device is improved; 4. The present invention has a simple structure, reasonable layout, easy use, high stability, greatly improved conveying accuracy and precision, a wider range of applications, and is easy to promote and utilize. BRIEF DESCRIPTION OF THE DRAWINGS
[0013] Figure 1 It is a structural schematic diagram of an embodiment of the present invention.
[0014] Figure 2 It is a schematic structural diagram of a driving device according to an embodiment of the present invention.
[0015] Figure 3 This is a schematic structural diagram of a slave master device according to another embodiment of the present invention.
[0016] Figure 4 This is a schematic diagram of the overall structure of a fourth stud vertical bearing seat according to another embodiment of the present invention.
[0017] Figure 5 It is a schematic structural diagram of the driven locking device of the present invention.
[0018] Figure 6 It is a structural schematic diagram of the driven main bending entry mechanism of the present invention.
[0019] Figure 7 It is a structural schematic diagram of the multifunctional push handle of the present invention.
[0020] Figure 8 It is another structural schematic diagram of the driven master device of the present invention.
[0021] Fig. 9 The present invention is a method work flow chart.
[0022] Reference numerals: 1 driving device, 2 driven main device, 3 driven locking device, 4 driven main bending entry mechanism, 5 driven secondary bending entry mechanism, 6 multifunctional push handle, 7 conveyor chain; 2-1 side edge, 2-2 bottom edge, 2-3 long straight rib, 2-4 positioning hole; 3-1 driving main seat, 3-2 reducer mounting mechanism, 3-3 adjusting block, 3-4 flange coupling, 3-5 three-phase asynchronous driving motor, 3-6 drum gear coupling, reducer 3-7; 5-1 driven support seat, 5-2 four-stud vertical bearing seat as a whole, 5-3 transmission shaft, 5-4 8-tooth sprocket, 5-5 cover plate; 6-1 four-stud vertical bearing seat, 6-2 spherical roller bearing, 6-3 positioning ring, 6-4 locking sleeve; 8-1 supporting main seat, 8-2 connecting bottom plate, 8-3 vertical supporting bracket left, 8-4 locking flange, 8-5 locking nut, 8-6 adjusting bolt, 8-7 driving ring, 8-8 driven sprocket, 8-9 special spacer, 8-10 top connecting plate, 8-11 auxiliary slide rail, 8-12 vertical supporting bracket right, 8-13 high-strength cover plate; 9-1 longitudinal channel steel, 9-2 transverse channel steel, fixing plate 9-3, 9-4 adjustment bolts, 9-5 welding foot. DETAILED DESCRIPTION
[0023] The technical solution of the present invention will be described clearly and completely below in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.
[0024] The present invention provides a planar segmented automatic conveying chain device, see Figure 1 The difference between the two conveyor chains and the prior art is that the plane segmented automatic conveyor chain device comprises two parallel conveyor chains, a driving device is arranged between the two conveyor chains, one end of the two conveyor chains is respectively provided with a driven main device connected to the driving device, and the other end of the two conveyor chains is respectively provided with a driven locking device; the two conveyor chains are respectively provided with a driven main bending entry mechanism, a driven secondary bending entry mechanism and a multifunctional pusher.
[0025] A conveying method for a planar segmented automatic conveying chain device, characterized in that the conveying method is as follows: a. A load-bearing crane first hoists the thin plate to be welded onto the support main seat of the segmented support, and accurately positions and limits the thin plate to be welded; b. After the positioning is completed, the multifunctional pusher mounted on the chain moves to the starting position of the thin plate movement under the drive of the motor, waiting for the next step of work; c. The driving motor starts to work, and the two chains distributed on the left and right sides of the segment move forward synchronously under the joint action of two symmetrical connecting rods; d. Under the drive of the motor, the chain carries the multifunctional pusher to accurately deliver the thin plate to the welding station for welding; e. After welding is completed, the planar segment is transported to the next station for subsequent operations.
[0026] During implementation, this device can achieve complete synchronization of two conveyor chains, which can avoid accidents caused by inconsistent transportation rhythm. At the same time, the conveyor chain in this technology can be applied to thin plates of different thicknesses, specifications and sizes, with a wide range of applications. The conveyor chain is relatively stable during the overall transportation process, which extends the overall service life of the device.
[0027] Example 1 In this embodiment, the plane segmented automatic conveyor chain device includes two parallel conveyor chains, a driving device is provided between the two conveyor chains, one end of the two conveyor chains is respectively provided with a driven main device connected to the driving device, and the other end of the two conveyor chains is respectively provided with a driven locking device; the two conveyor chains are respectively provided with a driven main bending entry mechanism, a driven secondary bending entry mechanism and a multifunctional push handle. The driving device 1 is welded and fixed to the embedded parts of the pit; the driving device 1 is used as a calibration basis, and the horizontal and height directions are adjusted after installation to connect the driven main device 2 to the embedded parts of the pit; the driven locking device 3 is welded and fixed to the embedded parts of the pit; the driven main bending entry mechanism 4 and the driven secondary bending entry mechanism 5 are welded to the embedded parts of the ground through the welding feet; the multifunctional push handle 6 is fixed to the driving chain by buckles.
[0028] Specifically, the driving device includes a driving main seat, on which a reducer and a three-phase asynchronous driving motor are arranged, a drum gear coupling is arranged between the reducer and the three-phase asynchronous driving motor, and flange couplings are arranged on both sides of the three-phase asynchronous driving motor; a reducer mounting mechanism is arranged between the reducer and the driving main seat, reinforcing plate ribs are arranged on the four sides of the driving main seat, and two protruding adjustment blocks are arranged at one end of the driving main seat. The driven main device includes a driven support seat, on which a four-stud vertical bearing seat is arranged as a whole, and the four-stud vertical bearing seat as a whole is provided with a transmission shaft, one end of the transmission shaft is provided with an 8-tooth sprocket, and one end of the 8-tooth sprocket is provided with a cover plate for limiting.
[0029] Furthermore, the four-stud vertical bearing seat generally includes a four-stud vertical bearing seat, a spherical roller bearing is arranged inside the four-stud vertical bearing seat, a positioning ring for axial limitation is arranged on the side of the spherical roller bearing, and a locking sleeve for radial limitation is arranged on the outside of the spherical roller bearing.
[0030] The driven locking device includes a supporting main seat, a connecting base plate is provided on the supporting main seat, two supporting frames are arranged in parallel on the connecting base plate, a driven sprocket is arranged between the two supporting frames, a locking flange is provided at one end of each of the two supporting frames, an adjusting bolt is provided on one side of the locking flange, the locking flange and the adjusting bolt are connected by a locking nut, and a driving ring is provided on the adjusting bolt. The supporting frames are respectively connected by a top connecting plate, a vertical left supporting frame and a vertical right supporting frame, and two auxiliary slide rails are respectively arranged in each supporting frame, one auxiliary slide rail is connected to the connecting base plate, and the other auxiliary slide rail is connected to the top connecting plate; a special spacer is connected to the driven sprocket, and a high-strength cover plate for limiting axial movement is provided on one side of the special spacer.
[0031] The driven main bending entry mechanism includes a transverse channel steel and a longitudinal channel steel vertically connected to the transverse channel steel, and the transverse channel steel is connected to a fixed plate and a plurality of adjustment foot structures, each adjustment foot structure includes an adjustment bolt, and the two sides of the adjustment bolt are respectively connected to symmetrically arranged welding feet; there are two transverse steel channels, one end of the two transverse steel channels is arranged in parallel, and an angle is set between the two transverse steel channels at the other end, and the degree of the angle is 15-40 degrees.
[0032] The multifunctional push handle comprises a side edge 2-1, a bottom edge 2-2 and a long straight rib 2-3, the angle between the long straight rib and the horizontal plane is 75-85 degrees, and the bottom edge is provided with two positioning holes 2-4.
[0033] Example 2 In this embodiment, the plane segmented automatic conveyor chain device includes two parallel conveyor chains, a driving device is provided between the two conveyor chains, one end of the two conveyor chains is respectively provided with a driven main device connected to the driving device, and the other end of the two conveyor chains is respectively provided with a driven locking device; the two conveyor chains are respectively provided with a driven main bending entry mechanism, a driven secondary bending entry mechanism and a multifunctional push handle. The driving device 1 is welded and fixed to the embedded parts of the pit; the driving device 1 is used as a calibration basis, and the horizontal and height directions are adjusted after installation to connect the driven main device 2 to the embedded parts of the pit; the driven locking device 3 is welded and fixed to the embedded parts of the pit; the driven main bending entry mechanism 4 and the driven secondary bending entry mechanism 5 are welded to the embedded parts of the ground through the welding feet; the multifunctional push handle 6 is fixed to the driving chain by buckles.
[0034] The driving device 1 includes: a driving main seat 3-1, a reducer mounting mechanism 3-2, an adjustment block 3-3, a flange coupling 3-4, a three-phase asynchronous driving motor 3-5, a drum gear coupling 3-6 and a reducer 3-7. The driving main seat has 6 reinforcing ribs on the four sides, one for the strength and stability of the main seat as a whole, and the other for the adjustment block to have a force point when adjusting the overall mechanism to ensure safety and efficiency during debugging; like Figure 2 As shown, the reducer mounting mechanism 3-2 is composed of a 6×100×100mm hollow square steel as the supporting body, with 15mm steel plates welded on the upper and lower parts, and is connected to the driving main seat 3-1 by bolts; the adjustment block 3-3 is composed of a supporting block body, a high-strength nut and a high-strength bolt. During the overall adjustment, the entire drive device 1 is limited and adjusted by adjusting the high-strength bolts. After determining the specific position, the high-strength nut is locked and the drive device 1 is welded to the pit; the flange coupling 3-4 is connected to the three-phase asynchronous drive motor 3-5 through a key; the three-phase asynchronous drive motor 3-5 is connected to the reducer 3-7 through a drum gear coupling 3-6 and a high-strength key.
[0035] like Figure 3 It is a structural diagram of the driven main device 2, which mainly includes a driven support seat 5-1, a four-stud vertical bearing seat overall 5-2, a transmission shaft 5-3, an 8-tooth sprocket 5-4 and a cover plate 5-5. The driven support seat 5-1 is a hollow main seat made of 18mm thick steel plates, which can reduce the weight of the main body while ensuring the load-bearing capacity, and two reinforcing bottom plates are welded on the bearing seat installation; the four-stud vertical bearing seat overall 5-2 is fixed to the driven support seat 5-1 by bolts; the transmission shaft 5-3 is connected to the four-stud vertical bearing seat overall 5-2 by a key and is fastened by the locking sleeve inside the four-stud vertical bearing seat overall 5-2; the 8-tooth sprocket 5-4 is connected to the transmission shaft 5-3 by a high-strength key, and is horizontally limited by the cover plate 5-5. The two ends of the 8-tooth sprocket 5-4 are designed to be hollow protrusions, which can not only enhance the original strength of the 8-tooth sprocket and ensure the stability of the sprocket itself during high-speed operation, but also increase the fastening force between the sprocket and the transmission shaft 5-3, ensuring that the transmission shaft 5-3 has minimal energy loss when transmitting the force.
[0036] like Figure 4The figure shows a cross-sectional schematic diagram of the four-stud vertical bearing seat 5-2 as a whole, including a four-stud vertical bearing seat 6-1, a spherical roller bearing 6-2, a positioning ring 6-3 and a locking sleeve 6-4. The four-stud vertical bearing seat 6-1 is made of quenched and tempered 45# steel, and has excellent strength and durability; the spherical roller bearing 6-2 is installed inside the four-stud vertical bearing seat 6-1, and its axial direction is limited by the positioning ring 6-3; the locking sleeve 6-4 limits the radial direction of the spherical roller bearing 6-2 to ensure the stability of the four-stud vertical bearing seat 6-1 during high-speed operation.
[0037] like Figure 5 The figure shows a schematic diagram of the mechanism of the driven locking device 3, including a supporting main seat 8-1, a connecting base plate 8-2, a vertical supporting bracket left 8-3, a locking flange 8-4, a locking nut 8-5, an adjusting bolt 8-6, a driving ring 8-7, a driven sprocket 8-8, a special spacer 8-9, a top connecting plate 8-10, an auxiliary slide rail 8-11, a vertical supporting bracket right 8-12 and an end high-strength cover plate 8-13. The support main seat 8-1 is welded from a 16mm plate, and 12 triangular reinforcing ribs are welded around it to ensure rigidity; the connecting base plate 8-2 is connected to the support main seat 8-1 by bolts; the vertical support bracket left 8-3 and the vertical support bracket right 8-12 are fixed to the connecting base plate 8-2 by bolts; the locking flange 8-4 is connected to the vertical support bracket left 8-3 by bolts to increase the thread locking force and guide; the locking nut 8-5 is connected to the adjusting bolt 8-6 through its own thread; the adjusting bolt 8-6 is respectively connected to the vertical support bracket left 8-3, the locking flange 8-4, the locking The tightening nut 8-5 is connected to the driving ring 8-7, and the position of the bearing seat is adjusted by rotating the thread, thereby adjusting the position of the tensioner, so that the chain runs more smoothly and stably; the driven sprocket 8-8 and the special spacer 8-9 are connected to the bearing seat through a high-strength connecting shaft, and the axial movement is limited by a high-strength cover plate 8-13; the top connecting plate 8-10 is respectively connected to the left vertical support bracket 8-3 and the right vertical support bracket 8-12 by bolts; the upper and lower auxiliary slide rails 8-11 are respectively connected to the connecting bottom plate 8-2 and the top connecting plate 8-10, which play a guiding and limiting role on the bearing seat.
[0038] like Figure 6 The figure shows a schematic diagram of the driven main bending entry mechanism 4, which includes a transverse channel steel 9-2 and a longitudinal channel steel 9-1 vertically connected to the transverse channel steel, and a fixing plate 9-3 and a plurality of adjustment foot structures are connected to the transverse channel steel, each adjustment foot structure includes an adjustment bolt 9-4, and the two sides of the adjustment bolt are respectively connected with symmetrically arranged welding feet 9-5; there are two transverse steel grooves, one end of the two transverse steel grooves are arranged in parallel, and an angle is set between the two transverse steel grooves at the other end, and the degree of the angle is 15-40 degrees.
[0039] The connecting and fixing plates 9-3 are connected at the connection of the two transverse channel steels 9-2, which play a fixing role and ensure their horizontality and straightness; the adjusting bolts 9-4 are convenient for adjustment during installation; the transverse channel steel 9-2 is made into a curved arc shape at the chain entering the sprocket, which can facilitate the chain to perfectly mesh with the sprocket without interference, so that the chain does not rub or jam when moving at high speed, ensuring the orderly operation of the conveyor chain. The driven secondary bending entry mechanism 5 is similar to the driven main bending entry mechanism 4.
[0040] like Figure 7 The figure shows the schematic diagram of the mechanism of the multifunctional push handle 6. The multifunctional push handle 6 is made of 45# steel that is quenched and blackened. The two holes at the bottom match and are locked with the chain conveyor chain. It can follow the movement of the chain when it moves, thereby playing the role of transporting thin plates. The long straight rib of the multifunctional push handle 6 is made into an 83° bevel. Through simulation analysis, it can be known that this design can effectively convert the force generated by the chain into thrust to a greater extent and reduce the force loss in the process. At the same time, the equidistant hollowing of the center can not only make it easier to release the internal stress of the push handle during production and ensure the accuracy of each size, but also reduce the weight of the push handle itself to ensure maximum force transmission.
[0041] The above content is a further detailed description of the present invention in combination with specific preferred embodiments, and it cannot be determined that the specific implementation of the present invention is limited to the above descriptions. For ordinary technicians in the technical field to which the present invention belongs, several simple deductions or substitutions can be made without departing from the concept of the present invention, which should be regarded as falling within the scope of protection of the present invention.
Claims
1. A planar segmented automatic conveyor chain device, characterized in that: The plane segmented automatic conveying chain device comprises two parallel conveying chains, a driving device is arranged between the two conveying chains, one end of the two conveying chains is respectively provided with a driven main device connected to the driving device, and the other end of the two conveying chains is respectively provided with a driven locking device; the two conveying chains are respectively provided with a driven main bending entry mechanism, a driven secondary bending entry mechanism and a multifunctional pusher in sequence; the driven main device comprises a driven support seat, a four-stud vertical bearing seat assembly is arranged on the driven support seat, the four-stud vertical bearing seat assembly is provided with a transmission shaft, one end of the transmission shaft is provided with an 8-tooth sprocket, and one end of the 8-tooth sprocket is provided with a cover plate for limiting.
2. The planar segmented automatic conveying chain device according to claim 1, characterized in that: The driving device includes a driving main seat, on which a reducer and a three-phase asynchronous driving motor are arranged, a drum gear coupling is arranged between the reducer and the three-phase asynchronous driving motor, and flange couplings are arranged on both sides of the three-phase asynchronous driving motor; a reducer mounting mechanism is arranged between the reducer and the driving main seat, reinforcing plate ribs are arranged on the four sides of the driving main seat, and two protruding adjustment blocks are arranged at one end of the driving main seat.
3. The planar segmented automatic conveying chain device according to claim 1 is characterized in that: The four-stud vertical bearing seat generally comprises a four-stud vertical bearing seat, a spherical roller bearing is arranged inside the four-stud vertical bearing seat, a positioning ring for axial limitation is arranged on the side of the spherical roller bearing, and a locking sleeve for radial limitation is arranged on the outside of the spherical roller bearing.
4. The planar segmented automatic conveying chain device according to claim 1, characterized in that: The driven locking device includes a supporting main seat, a connecting base plate is provided on the supporting main seat, two supporting frames are arranged in parallel on the connecting base plate, a driven sprocket is arranged between the two supporting frames, locking flanges are respectively provided at one end of the two supporting frames, an adjusting bolt is provided on one side of the locking flange, the locking flange and the adjusting bolt are connected by a locking nut, and a driving ring is provided on the adjusting bolt.
5. The planar segmented automatic conveying chain device according to claim 4, characterized in that: The support frame is connected by a top connecting plate, a vertical left supporting bracket and a vertical right supporting bracket. Each support frame is provided with two auxiliary slide rails, one auxiliary slide rail is connected to the connecting bottom plate, and the other auxiliary slide rail is connected to the top connecting plate. A special spacer is connected to the driven sprocket, and a high-strength cover plate is provided on one side of the special spacer to limit axial movement.
6. The conveying method of the plane segmented automatic conveying chain device according to claim 1, characterized in that: The conveying method is as follows: a. The load-bearing crane first hoists the thin plate to be welded onto the support main seat of the segmented support, and accurately positions and limits the thin plate to be welded; b. After the positioning is completed, the multifunctional pusher mounted on the chain moves to the starting position of the thin plate movement under the drive of the motor, waiting for the next step of work; c. The driving motor starts working, and the two chains distributed on the left and right sides of the segment move forward synchronously under the joint action of two symmetrical connecting rods; d. Under the drive of the motor, the chain carries the multifunctional pusher to accurately deliver the thin plate to the welding station for welding; e. After welding is completed, the plane segment is transported to the next station for subsequent operations.