A barrel conveying mechanism that meets the needs of multiple stations in the canning process

Abstract

The present application discloses a cylinder conveying mechanism that meets the requirements of multiple stations in a canning process, and relates to the field of can preparation, including: a machine belt, a plurality of support bases are arranged at intervals below the machine belt for support and fixation; a plurality of drive shafts are arranged, which are arranged as a whole in the machine belt, and the ends of the drive shafts extend outward to the outside of the machine belt for connecting to an external drive motor; a transmission chain group is arranged inside the machine belt, symmetrically arranged into two groups with a spacing maintained, and a part of the drive shafts is connected to and drives the transmission chain group to operate; an adsorption chain group is arranged in the machine belt, the adsorption chain group is located between the transmission chain groups, and the other part of the drive shafts is connected to and drives the adsorption chain group to operate; a flip component 1 is suspended above the machine belt, and the flip component 1 is supported and fixed by a support clamp; a flip component 2 is symmetrically arranged on both sides of the machine belt.

Description

Technical Field

[0001] The present application relates to the field of can preparation, and in particular to a cylinder conveying mechanism that meets the requirements of multiple stations in a can making process. Background Art

[0002] Metal cans can be used for temporary storage, transportation, circulation and long-term preservation of contents. They are strong, not easy to break and have strong barrier properties. Metal cans can be divided into two categories according to their shapes: round cans and special-shaped cans. They are mostly produced using the three-piece can process, which has a wider range of applications. The three-piece can production process mainly includes welding, necking, flanging, rolling and sealing steps. During the flow of different processes, the can body is transported by a conveyor belt, and the cans are usually placed equidistantly on the conveyor belt by evenly distributed convex pieces or a transmission chain.

[0003] However, there are some problems in the transmission process that affect the efficiency and quality of the entire production process, including poor adaptability of tanks of different shapes, inconvenience in adjusting the orientation and position of the tanks to suit different processes, and accumulation of tank transmission positioning errors, which makes it difficult to ensure the stability of transportation, resulting in the gradual accumulation of misaligned tank spacing or the displacement of the tank position, which leads to production errors at different workstations during continuous production, resulting in waste and affecting subsequent process production, resulting in interruptions in production and repairs, affecting production efficiency.

[0004] Therefore, it is necessary to provide a cylinder conveying mechanism that meets the requirements of multiple stations in the canning process to solve the problems raised in the above-mentioned background technology. Summary of the invention

[0005] To achieve the above purpose, the present application provides the following technical solution: a barrel conveying mechanism that meets the requirements of multiple stations in the canning process, comprising:

[0006] The machine belt has a plurality of support bases arranged at intervals below it for support and fixation;

[0007] A plurality of drive shafts are arranged and integrally disposed in the belt, and ends of the drive shafts extend outwardly to the outside of the belt for connecting to an external drive motor;

[0008] The transmission chain groups are arranged in two groups with a symmetrical spacing inside the belt, and a part of the drive shaft is connected to and drives the transmission chain groups to operate;

[0009] An adsorption chain group is arranged in the machine belt, the adsorption chain group is located between the transmission chain groups, and another part of the driving shaft is connected to and drives the adsorption chain group to operate;

[0010] A first flip assembly is suspended above the machine belt, and the first flip assembly is supported and fixed by a support clip;

[0011] The second flip assembly is symmetrically arranged on both sides of the belt.

[0012] Further, preferably, a stop plate is provided at the end of the belt in the transmission direction, and the middle portion of the stop plate extends obliquely toward the adsorption chain group until it is in contact with the adsorption chain group.

[0013] Further, preferably, the transmission chain group includes a transmission chain and a supporting bar group, wherein the transmission chain is formed by inner chain links and outer chain links being alternately hinged in sequence, and the inner chain links and outer chain links correspond to inner chain plates and outer chain plates respectively, and the supporting bar group includes spoke plates, hard rubber plates and rubber nails, and the spoke plates are evenly fixed on the inner chain plates and outer chain plates on the same side.

[0014] Further, as a preference, a mounting hole for accommodating the rubber nail is opened at the center of the spoke plate, and a fixing groove and a lap groove for accommodating the hard rubber plate are opened on both sides of the spoke plate, wherein the two ends of the hard rubber plate are a fixed end and a movable end, wherein the fixed end is fixed in the fixing groove, the movable end is processed with a notch, and the end face of the hard rubber plate remains flush with the end face of the spoke plate.

[0015] Further, preferably, the adsorption chain group includes a magnetic separation plate, a support wheel and a magnet, wherein the magnetic separation plate is hinged in sequence through a hinge joint arranged on the end face, and an embedded block for connecting the support wheel is fixedly arranged at the middle position of the inner surface of the magnetic separation plate, and the magnet is fitted on the inner surface of the magnetic separation plate, and the magnet is located on both sides of the embedded block, and the magnet is clamped and fixed by the side wings of the embedded block.

[0016] Furthermore, as a preference, the magnets can be arranged on the magnetic dividing plates at different intervals in different sections according to the sizes of multiple types of tank bodies produced, and can be adjusted by supporting wheels so that the magnetic dividing plates in the sections corresponding to the adapted tank body sizes can work.

[0017] Further, as a preference, the flip component 1 comprises: a rotating rod, a bracket, an arc-shaped support plate, an adsorption magnetic block and a silicone sticker, wherein one end of the rotating rod is connected to a rotating motor arranged on the supporting clamp, the bracket is fixedly arranged on the other end of the rotating rod, and an arc-shaped support plate is arranged on the bracket, and adsorption magnetic blocks are fixedly arranged at intervals on the inner arc surface of the arc-shaped support plate, and silicone stickers are arranged at intervals on the inner arc surface of the arc-shaped support plate near the upper end surface, and the height of the arc-shaped support plate can be adjusted by the supporting clamp, and the arc-shaped support plate can be flipped and adjusted by being driven by the rotating rod.

[0018] Further, as a preference, the second flip assembly comprises a tilted support rod and a flat support rod, and a hinge hole is provided at the connection between the ends of the tilted support rod and the flat support rod, and the tilted support rod and the flat support rod can be actively controlled to rotate synchronously around the hinge hole by cooperating with the external transmission shaft through the hinge hole.

[0019] Furthermore, preferably, the rotation range of the second flipping assembly is ninety degrees, and the two rotation limit positions correspond to the two situations of the inclined support rod being horizontal and the flat support rod being horizontal respectively, and the installation direction of the second flipping assembly is that when the inclined support rod is horizontal, the exposed end of the inclined support rod is opposite to the conveying direction.

[0020] Further, as a preference, when the inclined support rod is horizontal, the surface of the inclined support rod close to the upper end surface of the machine belt is inclined, and the movable end of the inclined support rod is located below the upper end surface of the machine belt, and when the flat-bottom support rod is horizontal, the surface of the flat-bottom support rod close to the upper end surface of the machine belt is horizontal, and the surface of the flat-bottom support rod is flush with the upper end surface of the machine belt.

[0021] Compared with the prior art, the present application provides a cylinder conveying mechanism that meets the requirements of multiple stations in the canning process, which has the following beneficial effects:

[0022] 1. In this application, the tank body is supported by a hard rubber plate and a spoke plate, and the rubber nails are used to prevent the tank body from directly contacting the transmission chain to cause slippage, deviation or wear. Especially when the tank body is placed vertically, the rubber nails can be separated into two areas inside and outside the pipe wall to limit the range of movement of the tank body, thereby controlling the deviation error of the tank body and fundamentally reducing the accumulation of errors. In addition, the transmission chain group keeps the tank body and the adsorption chain group at a distance;

[0023] 2. In this application, the adsorption chain group is prohibited from operating, wherein the magnets on both sides of the magnetic plate can effectively exert an adsorption force on the tank body, so that the tank body has a more stable contact with the transmission chain group. For the placement of the magnets, it is only necessary to ensure that there are always some magnets corresponding to the adsorption tank body during the transportation process of the tank body. The placement position and quantity of the magnets can be flexibly adjusted, and the operation of the magnetic plates in different sections can be set and adjusted to improve applicability;

[0024] 3. In this application, during the process, the flip component 1 can be set to control the tank body to flip 180°, or the flip component 2 can be set to control the tank body to flip 90°, so as to complete the tank body transportation work adapted to the needs of multiple stations. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Other features, objects and advantages of the present application will become more apparent by reading the detailed description of non-limiting embodiments with reference to the following drawings:

[0026] Figure 1It is a schematic diagram of the overall structure of a cylinder conveying mechanism that meets the requirements of multiple stations in the canning process;

[0027] Figure 2 It is a schematic diagram of the structure of a transmission chain group of a cylinder conveying mechanism that meets the requirements of multiple stations in a canning process;

[0028] Figure 3 A schematic diagram of a support bar structure of a cylinder conveying mechanism that meets the requirements of multiple stations in a canning process;

[0029] Figure 4 It is a schematic diagram of the structure of an adsorption chain group of a cylinder conveying mechanism that meets the requirements of multiple stations in a canning process;

[0030] Figure 5 A schematic diagram of a structure of a turning assembly of a cylinder conveying mechanism that meets the requirements of multiple stations in a canning process;

[0031] Figure 6 It is a structural schematic diagram of a second turning assembly of a cylinder conveying mechanism that meets the requirements of multiple stations in a canning process;

[0032] In the figure: 1. machine belt; 11. stop plate; 2. support base; 3. drive shaft; 4. transmission chain group; 41. transmission chain; 411. inner chain plate; 412. outer chain plate; 42. support bar group; 421. spoke plate; 422. hard rubber plate; 423. rubber nail; 424. mounting hole; 425. fixing groove; 426. overlapping groove; 5. adsorption chain group; 51. magnetic plate; 511. hinge head; 512. embedded block; 52. support wheel; 53. magnet; 6. flip component one; 61. rotating rod; 62. bracket; 63. arc support plate; 64. adsorption magnetic block; 65. silicone sticker; 7. support clamp; 8. flip component two; 81. tilt support rod; 82. flat support rod. DETAILED DESCRIPTION

[0033] See also Figure 1-6 In an embodiment of the present application, a barrel conveying mechanism that meets the requirements of multiple stations in a canning process includes:

[0034] The machine belt 1 has a plurality of support bases 2 arranged at intervals below it for support and fixation;

[0035] A plurality of drive shafts 3 are provided and are integrally disposed in the belt 1, and ends of the drive shafts 3 extend outward to the outside of the belt 1 for connecting to an external drive motor;

[0036] The transmission chain group 4 is arranged in two groups inside the belt 1 with a symmetrical spacing, and a part of the driving shaft 3 is connected to and drives the transmission chain group 4 to operate;

[0037] A suction chain group 5 is arranged in the machine belt 1, the suction chain group 5 is located between the transmission chain groups 4, and another part of the driving shaft 3 is connected to and drives the suction chain group 5 to operate;

[0038] A flip assembly 6 is suspended above the belt 1, and the flip assembly 6 is supported and fixed by a support clamp 7;

[0039] The flip assembly 2 8 is symmetrically arranged on both sides of the machine belt 1, and the specific installation positions of the flip assembly 1 6 and the flip assembly 2 8 are determined according to the process requirements.

[0040] It should be explained that during the entire can preparation process, whether it is a conventional round can or a square can, the can body is flipped, including the 180° flipping involved in the capping of both ends of the can body, and the 90° vertical flipping of the can body. In addition, during the continuous production process, in order to match the time and transmission stability required for different process productions, it is necessary to ensure that the can bodies maintain a fixed spacing in the conveyor belt to avoid accumulation while ensuring continuous supply.

[0041] In the present application, a belt 1 with a width smaller than the outer diameter or outer width of the tank is set as the main body for transporting the tank body, which is operated by a transmission chain group 4 and assisted by an adsorption chain group 5 for transporting the tank body. During this period, a flip component 1 6 can be set according to process requirements to control the tank body to flip 180°, or a flip component 2 8 can be set to control the tank body to flip 90°, thereby completing the tank transport work that meets the needs of multiple workstations.

[0042] As a preferred embodiment, a stop plate 11 is provided at the end of the belt 1 in the transmission direction, and the middle portion of the stop plate 11 extends obliquely toward the adsorption chain group 5 until it fits into the adsorption chain group 5 .

[0043] It needs to be explained that when the can body is transported to a specific process position, the can body needs to be processed at a precise position to ensure the yield rate. Accordingly, the can body always maintains a certain speed in movement on the transmission chain group 4, and needs to stop at a certain place and perform position calibration through other components before proceeding with the process steps. For example, in the process of adding an end cap to the end of the can body, especially for special-shaped can bodies, errors caused by deviations in the landing point of the end cap are one of the main factors affecting the processing efficiency. The matching stop plate 11 can conveniently transfer the can body out of the transmission chain for subsequent processing.

[0044] In this embodiment, Figure 2-3The transmission chain group 4 includes a transmission chain 41 and a supporting bar group 42, wherein the transmission chain 41 is formed by inner chain links and outer chain links being alternately hinged in sequence, and the inner chain links and the outer chain links correspond to inner chain plates 411 and outer chain plates 412 respectively, and the supporting bar group 42 includes a spoke plate 421, a hard rubber plate 422 and a rubber nail 423, and the spoke plate 421 is evenly fixed on the inner chain plate 411 and the outer chain plate 412 on the same side.

[0045] As a preferred embodiment, a mounting hole 424 for accommodating the glue nail 423 is provided at the center of the spoke plate 421. Specifically, the glue nail 423 can effectively increase the friction with the tank body, and the spoke plate 421 has a fixing groove 425 and a lap groove 426 for accommodating the hard rubber plate 422 on both sides, wherein the two ends of the hard rubber plate 422 are a fixed end and a movable end, wherein the fixed end is fixed in the fixing groove 425, and the movable end is processed with a notch. Specifically, as the transmission chain 41 runs, the movable end can be overlapped and separated with the lap groove 426. On the one hand, it constitutes a continuous supporting platform, and on the other hand, it does not affect the continuous operation of the transmission chain 41, and the end surface of the hard rubber plate 422 is kept flush with the end surface of the spoke plate 421. Specifically, the hard rubber plate 422 and the spoke plate 421 can jointly support the tank body, and cooperate with the rubber nails 423 to prevent the tank body from directly contacting the transmission chain 41 to cause slippage, deviation or wear. Especially when the tank body is placed vertically, the rubber nails 423 can be separated into two areas inside and outside the pipe wall, limiting the range of movement of the tank body, thereby controlling the deviation error of the tank body and fundamentally reducing error accumulation. In addition, the transmission chain group 4 allows the tank body to maintain a distance from the adsorption chain group 5.

[0046] In this embodiment, Figure 2 and Figure 4 The adsorption chain group 5 includes a magnetic separation plate 51, a support wheel 52 and a magnet 53, wherein the magnetic separation plate 51 is hinged in sequence through a hinge joint 511 arranged on the end face, and an embedded block 512 for connecting the support wheel 52 is fixedly arranged in the middle position of the inner surface of the magnetic separation plate 51, and the magnet 53 is fitted on the inner surface of the magnetic separation plate 51, and the magnet 53 is located on both sides of the embedded block 512, and the magnet 53 is clamped and fixed by the side wings of the embedded block 512.

[0047] It should be explained that, during the normal can transport process, the adsorption chain group 5 remains prohibited from operating, wherein the magnets 53 on both sides of the magnetic plate 51 can effectively exert an adsorption force on the can, so that the can has a more stable contact with the transport chain group 4.

[0048] As a preferred embodiment, the magnets 53 can be arranged on the magnetic dividing plate 51 at different intervals in different sections according to the sizes of multiple different types of tank bodies produced, and can be adjusted through the support wheel 52 to make the magnetic dividing plate 51 in the section corresponding to the adapted tank size work.

[0049] It should be explained that for the placement of the magnets 53, it is only necessary to ensure that during the transportation of the can body, there are always some magnets 53 corresponding to the adsorption of the can body. The placement position and quantity of the magnets 53 can be flexibly adjusted, and the operation of the magnetic plates 51 in different sections can be set and adjusted to improve applicability.

[0050] In this embodiment, Figure 5 The flip assembly 6 includes: a rotating rod 61, a bracket 62, an arc-shaped support plate 63, an adsorption magnetic block 64 and a silicone sticker 65, wherein one end of the rotating rod 61 is connected to a rotating motor and is arranged on the supporting clamp 7, and the bracket 62 is fixedly arranged at the other end of the rotating rod 61, and an arc-shaped support plate 63 is arranged on the bracket 62, and adsorption magnetic blocks 64 are fixedly arranged at intervals on the inner arc surface of the arc-shaped support plate 63, and silicone stickers 65 are arranged at intervals on the inner arc surface of the arc-shaped support plate 63 near the upper end surface, and the height of the arc-shaped support plate 63 can be adjusted by the supporting clamp 7, and the arc-shaped support plate 63 is driven by the rotating rod 61 to be flip-adjustable.

[0051] It needs to be explained that, in the initial state, the inner arc surface of the arc-shaped support plate 63 faces the opposite direction of the can transmission direction. When the can is close to the arc-shaped support plate 63, the can is fixedly adsorbed by the adsorption magnetic block 64. At the same time, the silicone sticker 65 can effectively reduce the slipping of the can and prevent the can from completely fitting the arc-shaped support plate 63. In addition, after the can is adsorbed, the can is flipped by rotating the rotating rod 61 and adjusting the height of the support clamp 7. Then, the can falls on the transmission chain group 4, and the transmission chain group 4 drives the tank and the arc-shaped support plate 63 to separate. The silicone sticker 65 is conducive to the separation of the tank from the arc-shaped support plate 63 after the flipping is completed. The whole flipping process is stable enough and is also suitable for special-shaped cans.

[0052] In this embodiment, Figure 6 The flip assembly 8 includes a tilting support rod 81 and a flat support rod 82. A hinge hole is provided at the connection between the ends of the tilting support rod 81 and the flat support rod 82. The hinge hole cooperates with the external transmission shaft to actively control the tilting support rod 81 and the flat support rod 82 to rotate synchronously around the hinge hole.

[0053] As a preferred embodiment, the rotation range of the flipping component 2 8 is ninety degrees, and the two rotation limit positions correspond to the two situations that the inclined support rod 81 is horizontal and the flat support rod 82 is horizontal, and the installation direction of the flipping component 2 8 is that when the inclined support rod 81 is horizontal, the exposed end of the inclined support rod 81 is opposite to the conveying direction.

[0054] As a preferred embodiment, when the inclined support rod 81 is horizontal, the surface of the inclined support rod 81 close to the upper end surface of the machine belt 1 is inclined, and the movable end of the inclined support rod 81 is located below the upper end surface of the machine belt 1, which is particularly beneficial for the smooth transfer of the can body to the inclined support rod 81; when the flat-bottom support rod 82 is horizontal, the surface of the flat-bottom support rod 82 close to the upper end surface of the machine belt 1 is horizontal, and the surface of the flat-bottom support rod 82 is flush with the upper end surface of the machine belt 1, which is particularly beneficial for the transfer of the can body to the transmission chain group 4.

[0055] In the specific implementation, the machine belt 1 serves as the main body for transmitting the can body, and is operated through the transmission chain group 4, and is matched with the adsorption chain group 5 to assist in the transportation of the can body. Specifically, the hard rubber plate 422 and the spoke plate 421 can jointly support the can body, and cooperate with the rubber nails 423 to prevent the can body from directly contacting the transmission chain 41 to cause slippage, displacement or wear, thereby controlling the displacement error of the can body and fundamentally reducing the error accumulation. In addition, the magnets 53 on both sides of the magnetic plate 51 can effectively exert an adsorption force on the can body, so that the can body has a more stable contact with the transmission chain group 4. During this period, according to the process requirements, a flip component 1 6 can be set to control the can body to flip 180°, or a flip component 2 8 can be set to control the can body to flip 90°, so as to complete the can body transportation work that adapts to the needs of multiple stations.

[0056] What has been described above is only a preferred specific implementation manner of the present application, but the protection scope of the present application is not limited thereto. Any technician familiar with the technical field can make equivalent substitutions or changes within the technical scope disclosed in the present application according to the technical solution and application concept of the present application, which should be covered by the protection scope of the present application.

Claims

1. A barrel conveying mechanism that meets the requirements of multiple stations in the canning process, characterized in that: include: A machine belt (1), with a plurality of support bases (2) arranged at intervals below the machine belt for support and fixation; A plurality of drive shafts (3) are arranged and integrally disposed in the machine belt (1), and ends of the drive shafts (3) extend outwardly to the outside of the machine belt (1) for connecting to an external drive motor; The transmission chain group (4) is arranged in two groups inside the machine belt (1) with a symmetrical spacing, and a part of the driving shaft (3) is connected to and drives the transmission chain group (4) to operate; An adsorption chain group (5) is arranged in the machine belt (1), the adsorption chain group (5) is located between the transmission chain groups (4), and another part of the driving shaft (3) is connected to and drives the adsorption chain group (5) to operate; A turnover assembly (6) is suspended above the belt (1), and the turnover assembly (6) is supported and fixed by a support clamp (7); A second turning assembly (8) is symmetrically arranged on both sides of the belt (1); The transmission chain group (4) comprises a transmission chain (41) and a support bar group (42), wherein the transmission chain (41) is formed by inner chain links and outer chain links being alternately hinged in sequence, and the inner chain links and the outer chain links respectively correspond to inner chain plates (411) and outer chain plates (412), and the support bar group (42) comprises a spoke plate (421), a hard rubber plate (422) and rubber nails (423), and the spoke plate (421) is evenly fixed on the inner chain plate (411) and the outer chain plate (412) on the same side; The center of the spoke plate (421) is provided with a mounting hole (424) for accommodating the rubber nail (423), and the two sides of the spoke plate (421) are respectively provided with a fixing groove (425) and a lap groove (426) for accommodating the hard rubber plate (422), wherein the two ends of the hard rubber plate (422) are respectively a fixed end and a movable end, wherein the fixed end is fixed in the fixing groove (425), and the movable end is processed with a notch, and the end surface of the hard rubber plate (422) is kept flush with the end surface of the spoke plate (421); The adsorption chain group (5) comprises a magnetic separation plate (51), a support wheel (52) and a magnet (53), wherein the magnetic separation plate (51) is hinged in sequence through a hinge joint (511) arranged on the end surface, and an embedded block (512) for connecting the support wheel (52) is fixedly arranged at the middle position of the inner surface of the magnetic separation plate (51), and the magnet (53) is arranged in a close contact with the inner surface of the magnetic separation plate (51), and the magnet (53) is located on both sides of the embedded block (512), and the magnet (53) is clamped and fixed by the side wings of the embedded block (512); The magnets (53) are arranged on the magnetic separation plates (51) at different intervals in different sections according to the sizes of multiple different types of tank bodies produced, and are adjusted by the support wheels (52) so that the magnetic separation plates (51) in the sections corresponding to the sizes of the tank bodies can work; A stop plate (11) is provided at the end of the conveying direction of the machine belt (1), and the middle part of the stop plate (11) extends obliquely toward the adsorption chain group (5) until it is in contact with the adsorption chain group (5).

2. According to claim 1, a barrel conveying mechanism that meets the requirements of multiple stations in the canning process is characterized by: The flip assembly (6) comprises: a rotating rod (61), a bracket (62), an arc-shaped supporting plate (63), an adsorption magnetic block (64) and a silicone sticker (65), wherein one end of the rotating rod (61) is connected to a rotating motor and is arranged on the supporting clamp (7), the bracket (62) is fixedly arranged on the other end of the rotating rod (61), and an arc-shaped supporting plate (63) is arranged on the bracket (62), and adsorption magnetic blocks (64) are fixedly arranged at intervals on the inner arc surface of the arc-shaped supporting plate (63), and silicone stickers (65) are arranged at intervals on the inner arc surface of the arc-shaped supporting plate (63) near the upper end surface, and the height of the arc-shaped supporting plate (63) is adjusted by the supporting clamp (7), and the arc-shaped supporting plate (63) is driven by the rotating rod (61) to perform flipping adjustment.

3. According to claim 1, a barrel conveying mechanism that meets the requirements of multiple stations in the canning process is characterized by: The second flip assembly (8) comprises a tilting support rod (81) and a flat bottom support rod (82), and a hinge hole is provided at the connection between the ends of the tilting support rod (81) and the flat bottom support rod (82). The hinge hole cooperates with an external transmission shaft to actively control the tilting support rod (81) and the flat bottom support rod (82) to rotate synchronously around the hinge hole.

4. A barrel conveying mechanism that meets the requirements of multiple stations in a canning process according to claim 3, characterized in that: The rotation range of the flip assembly 2 (8) is 90 degrees, and the two rotation limit positions correspond to the two situations where the tilting support rod (81) is horizontal and the flat support rod (82) is horizontal, respectively. The installation direction of the flip assembly 2 (8) is that when the tilting support rod (81) is horizontal, the exposed end of the tilting support rod (81) is opposite to the conveying direction.

5. A barrel conveying mechanism that meets the requirements of multiple stations in a canning process according to claim 4, characterized in that: When the inclined support rod (81) is horizontal, the surface of the inclined support rod (81) close to the upper end surface of the machine belt (1) is inclined, and the movable end of the inclined support rod (81) is located below the upper end surface of the machine belt (1); when the flat-bottom support rod (82) is horizontal, the surface of the flat-bottom support rod (82) close to the upper end surface of the machine belt (1) is horizontal, and the surface of the flat-bottom support rod (82) is flush with the upper end surface of the machine belt (1).

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