Automatic cutting machine

Abstract

The utility model relates to the technical field of cutting machining, and discloses an automatic cutting machine, a feeding assembly comprises a feeding sliding rail and a feeding conveying plate, and the feeding conveying plate is connected to the feeding sliding rail in a sliding mode; the conveying assembly comprises a conveying sliding rail, a conveying lifting driving part and a transfer conveying plate, the conveying lifting driving part is installed on the conveying sliding rail in a sliding mode, the transfer conveying plate is connected to the conveying lifting driving part, and the conveying sliding rail is located on the outer side of the feeding conveying plate; the machining assembly comprises a cutting wheel, a machining sliding rail and a machining conveying plate, the cutting wheel is located above the machining sliding rail, the conveying sliding rail is located on the outer side of the machining sliding rail, the machining conveying plate comprises a machining supporting plate, a machining driving part and a machining bottom plate, the machining bottom plate is slidably connected to the machining sliding rail, and the machining driving part is connected to the machining bottom plate; the machining supporting plate is connected to the driving end of the machining driving part and faces the cutting wheel. According to the automatic cutting machine, the pipe fitting cutting efficiency is improved, and pipe fitting cutting safety accidents are avoided.

Description

Technical Field

[0001] The utility model relates to the technical field of cutting processing, in particular to an automatic cutting machine. Background Art

[0002] In the existing technology, a pipe fitting is cut by a cutting grinding wheel manually. During the grinding wheel cutting process, workers need to continuously apply force, resulting in a relatively high labor intensity. Long-term operation may cause worker fatigue, thereby affecting work efficiency and cutting quality. At the same time, during the grinding wheel cutting process, the high-speed rotating grinding wheel may be dangerous. If the worker operates improperly or the quality of the grinding wheel is poor, the grinding wheel may break or fly out, causing harm to the worker. Content of the Utility Model

[0003] It aims to solve at least one of the technical problems existing in the prior art. The utility model provides an automatic cutting machine, which realizes automatic cutting, improves the cutting efficiency of pipe fittings, and avoids the occurrence of safety accidents in pipe fitting cutting.

[0004] To achieve the above object, the utility model provides an automatic cutting machine, which includes a feeding component, a conveying component, and a processing component arranged in sequence;

[0005] The feeding component includes a feeding slide rail and a feeding conveyor plate, and the feeding conveyor plate is slidably connected to the feeding slide rail;

[0006] The conveying component includes a conveying slide rail, a conveying lifting driving member, and a transfer conveyor plate. The conveying lifting driving member is slidably installed on the conveying slide rail, the transfer conveyor plate is connected to the conveying lifting driving member, and the conveying slide rail is located outside the feeding conveyor plate;

[0007] The processing component includes a cutting wheel, a processing slide rail, and a processing conveyor plate. The cutting wheel is located above the processing slide rail, the conveying slide rail is located outside the processing slide rail, the processing conveyor plate includes a processing support plate, a processing driving member, and a processing bottom plate. The processing bottom plate is slidably connected to the processing slide rail, the processing driving member is connected to the processing bottom plate, the processing support plate is connected to the driving end of the processing driving member, and the processing support plate faces the cutting wheel.

[0008] As a preferred solution, the transfer slide rail includes a first transfer slide rail and a second transfer slide rail extending in a first direction. The transfer intermediate plate includes a first intermediate plate and a second intermediate plate. The transfer lifting driving member includes a first transfer driving member and a second transfer driving member. The first transfer driving member is slidably connected to the first transfer slide rail. The first intermediate plate is connected to the driving end of the first transfer driving member. The second transfer driving member is slidably connected to the second transfer slide rail. The second intermediate plate is connected to the driving end of the second transfer driving member. The loading transfer plate, the loading slide rail, the processing slide rail, and the processing transfer plate are located between the first transfer slide rail and the second transfer slide rail in a second direction, wherein the first direction is perpendicular to the second direction.

[0009] As a preferred solution, the cutting wheel includes a cutting grinding wheel, a cutting driving member, and a cutting support frame. Cutting support frames are connected to one side of the first transfer slide rail and the second transfer slide rail away from the processing slide rail respectively. The cutting driving member is connected to the upper end of the cutting support frame. The cutting grinding wheel is in transmission connection with the cutting driving member. One of the cutting grinding wheels is located between the first transfer slide rail and the processing bottom plate, and the other cutting grinding wheel is located between the second transfer slide rail and the processing bottom plate.

[0010] As a preferred solution, the loading slide rail includes a first loading slide rail and a second loading slide rail extending in the first direction and arranged at intervals in the second direction. One end of the loading transfer plate in the second direction is connected to the first loading slide rail, and the other end is connected to the second loading slide rail. The processing slide rail includes a first processing slide rail and a second processing slide rail extending in the first direction and arranged at intervals in the second direction. One end of the processing transfer plate in the second direction is connected to the first processing slide rail, and the other end is connected to the second processing slide rail. The first processing slide rail and the second processing slide rail are located between the first loading slide rail and the second loading slide rail in the second direction.

[0011] As a preferred solution, at least a part of one end of the transfer slide rail overlaps with the loading slide rail in the second direction to form a loading transfer area. In the loading transfer area, the transfer intermediate plate is located outside the corresponding position of the loading transfer plate. At least a part of the other end of the transfer slide rail overlaps with the processing slide rail in the second direction to form a processing transfer area. In the processing transfer area, the transfer intermediate plate is located outside the corresponding position of the processing transfer plate.

[0012] As a preferred embodiment, the feeding assembly includes a feeding bracket and a feeding rocker, the feeding bracket is provided with a feeding storage area, the feeding rocker includes a first rocker group and a second rocker group that are relatively arranged and have the same structure, the first rocker group includes a first sub-rocker, a first sub-drive, a second sub-rocker and a second sub-drive, the first sub-rocker and the first sub-rocker are swingably connected to the feeding bracket and are arranged toward the feeding storage area, the first sub-drive and the second sub-drive are fixed to the feeding bracket, the first sub-drive is transmission-connected to the first sub-rocker, the second sub-drive is transmission-connected to the second sub-rocker, and a feeding transmission channel is formed between the first sub-rocker and the second sub-rocker;

[0013] The loading conveyor plate includes a loading support plate, a loading drive and a loading base plate. The loading base plate is slidably connected to the loading slide rail, the loading drive is fixed to the loading base plate, and the loading support plate is arranged toward the loading storage area and is transmission-connected to the driving end of the loading drive.

[0014] As a preferred solution, the loading assembly also includes a material storage conveying plate, which includes a material storage support plate, a material storage driving member and a material storage bottom plate. The material storage bottom plate is slidably connected to the loading slide rail, and the material storage driving member is fixed to the material storage bottom plate. The material storage support plate is arranged toward the loading storage area and is transmission-connected to the driving end of the material storage driving member. The loading conveying plate is slidably connected to one end of the loading slide rail toward the cutting wheel, and the material storage conveying plate is slidably connected to one end of the loading slide rail away from the cutting wheel.

[0015] As a preferred solution, the loading bracket includes a loading support foot and a loading frame, the loading storage area is arranged on the loading frame, the first rocker arm group and the second rocker arm group are respectively connected to the loading frame, and the loading frame is connected to the upper end of the loading support foot, and the loading support foot is located on the outside of the loading slide rail.

[0016] As a preferred solution, the processing assembly includes a processing bracket and a processing rocker arm, the processing bracket is provided with a processing storage area, the processing rocker arm includes a third rocker arm group and a fourth rocker arm group that are relatively arranged and have the same structure, the third rocker arm group includes a third sub-rocker arm, a third sub-drive, a fourth sub-rocker arm and a fourth sub-drive, the third sub-rocker arm and the third sub-rocker arm are swingably connected to the processing bracket and are arranged toward the processing storage area, the third sub-drive and the fourth sub-drive are fixed to the processing bracket, the third sub-drive is transmission connected to the third sub-rocker arm, the fourth sub-drive is transmission connected to the fourth sub-rocker arm, and a processing transmission channel is formed between the third sub-rocker arm and the fourth sub-rocker arm.

[0017] As a preferred solution, the processing bracket includes processing support feet and a processing frame. The processing pipe storage area is arranged in the processing frame. The third swing rod group and the fourth swing rod group are respectively oppositely connected to the processing frame. The processing frame is connected to the upper end of the processing support feet, and the processing support feet are located outside the processing slide rail.

[0018] Compared with the prior art, the automatic cutting machine of the embodiment of the present invention has the following beneficial effects: The feeding assembly, the conveying assembly, and the processing assembly are arranged in sequence, and the overall layout is linear. The linear production line enables a short material handling distance and a single logistics route, which is convenient for material management and control. This layout form is conducive to realizing the automatic conveying of materials and reducing the input of human and material resources. Among them, the pipe fittings are placed on the feeding conveyor plate, and the feeding conveyor plate moves along the feeding slide rail towards the cutting wheel, making the pipe fittings closer to the cutting wheel. The transfer conveyor plate slides along the conveying slide rail to the outside of the feeding conveyor plate, and the conveying lifting driving member rises to lift the pipe fittings upward, so that the pipe fittings are transferred from the feeding conveyor plate to the transfer conveyor plate. The processing conveyor plate moves along the processing slide rail to the end close to the cutting wheel. The transfer conveyor plate moves to the corresponding outside of the processing conveyor plate, and the transfer conveyor plate drives the pipe fittings to descend synchronously. The transfer conveyor plate descends to a position lower than the processing support plate, and the pipe fittings are transferred from the transfer conveyor plate to the processing support plate. The processing support plate drives the pipe fittings to move to the corresponding position below the cutting wheel, and the processing driving member controls the processing support plate to rise. During the rising process of the processing support plate, the cutting wheel cuts and processes the pipe fittings. After the pipe fittings are cut and processed, the processing support plate drives the pipe fittings to move along the processing slide rail in a direction away from the cutting wheel, facilitating the blanking of the pipe fittings. The feeding of the pipe fittings is conveyed through the feeding conveyor plate, and the blanking of the pipe fittings is conveyed through the processing conveyor plate. The positions of the feeding and blanking of the pipe fittings are far from the cutting processing area, improving the operation safety of the feeding and blanking of the pipe fittings. The pipe fittings are conveyed through the cooperation of the feeding assembly, the conveying assembly, and the processing assembly, and combined with the cutting wheel to realize the full-automatic cutting and processing of the pipe fittings, improving the cutting efficiency of the pipe fittings and avoiding the occurrence of pipe fitting cutting safety accidents. Description of the Drawings

[0019] Figure 1 is the overall structural schematic diagram of the embodiment of the present invention.

[0020] Figure 2 is the structural schematic diagram of the conveying assembly of the embodiment of the present invention.

[0021] Figure 3 is the structural schematic diagram of the feeding assembly of the embodiment of the present invention.

[0022] Figure 4 is the structural schematic diagram of the feeding bracket of the embodiment of the present invention.

[0023] Figure 5 is the overall structural schematic diagram of the processing assembly of the embodiment of the present invention.

[0024] Figure 6 It is a schematic structural diagram of the processing bracket in the embodiment of the present utility model.

[0025] In the figure:

[0026] 10. Loading component; 11. Loading slide rail; 12. First loading slide rail; 13. Second loading slide rail; 14. Loading transfer plate; 15. Loading support plate; 16. Loading driving part; 17. Loading bottom plate; 18. Loading bracket; 19. Loading support feet; 20. Loading frame; 21. Loading storage area; 22. Loading swing rod; 23. First swing rod group; 24. Second swing rod group; 25. Loading transfer channel; 26. First sub-swing rod; 27. First sub-drive; 28. Second sub-swing rod; 29. Second sub-drive; 30. Storage transfer plate; 31. Storage support plate; 32. Storage driving part; 33. Storage bottom plate;

[0027] 40. Transfer component; 41. Transfer slide rail; 42. First transfer slide rail; 43. Second transfer slide rail; 44. Transfer lifting driving part; 45. Transfer intermediate plate; 46. First intermediate plate; 47. Second intermediate plate; 48. First transfer driving part; 49. Second transfer driving part;

[0028] 60. Processing component; 61. Processing slide rail; 62. Processing transfer plate; 63. Processing support plate; 64. Processing driving part; 65. Processing bottom plate; 66. Processing bracket; 67. Processing support feet; 68. Processing frame; 69. Processing swing rod; 70. Processing storage area; 71. Third swing rod group; 72. Third sub-swing rod; 73. Third sub-drive; 74. Fourth sub-swing rod; 75. Fourth sub-drive; 76. Fourth swing rod group; 77. Processing transfer channel; 78. First processing slide rail; 79. Second processing slide rail;

[0029] 80. Cutting wheel; 81. Cutting grinding wheel; 82. Cutting driving part; 83. Cutting support frame;

[0030] 90. Loading handover area; 91. Processing handover area;

[0031] X. First direction; Y. Second direction. Detailed implementation manners

[0032] Next, in combination with the drawings and embodiments, the detailed implementation manners of the present utility model will be further described in detail. The following embodiments are used to illustrate the present utility model, but are not used to limit the scope of the present utility model.

[0033] In the description of the present utility model, it should be understood that the orientation or positional relationship indicated by the terms "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc. in the present utility model is based on the orientation or positional relationship shown in the drawings. It is only for the convenience of describing the present utility model and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, it should not be construed as a limitation to the present utility model.

[0034] In the description of the present utility model, it should be understood that the terms "connected", "connected to", "fixed", etc. used in the present utility model should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or integrated; it can be a mechanical connection, or a welded connection; it can be directly connected, or indirectly connected through an intermediate medium. It can be the communication inside two elements or the interaction relationship between two elements, unless otherwise clearly defined. For those of ordinary skill in the art, the specific meanings of the above terms in the present utility model can be understood according to specific circumstances.

[0035] As Figures 1 to 6 shown, an automatic cutting machine of a preferred embodiment of the present utility model includes a feeding assembly 10, a conveying assembly 40, and a processing assembly 60 arranged in sequence;

[0036] The feeding assembly 10 includes a feeding slide rail 11 and a feeding transfer plate 14, and the feeding transfer plate 14 is slidably connected to the feeding slide rail 11;

[0037] The conveying assembly 40 includes a conveying slide rail 41, a conveying lifting driving member 44, and a transfer conveying plate 45. The conveying lifting driving member 44 is slidably installed on the conveying slide rail 41, the transfer conveying plate 45 is connected to the conveying lifting driving member 44, and the conveying slide rail 41 is located outside the feeding transfer plate 14;

[0038] The processing assembly 60 includes a cutting wheel 80, a processing slide rail 61, and a processing transfer plate 62. The cutting wheel 80 is located above the processing slide rail 61, the conveying slide rail 41 is located outside the processing slide rail 61. The processing transfer plate 62 includes a processing support plate 63, a processing driving member 64, and a processing bottom plate 65. The processing bottom plate 65 is slidably connected to the processing slide rail 61, the processing driving member 64 is connected to the processing bottom plate 65, and the processing support plate 63 is connected to the driving end of the processing driving member 64. The processing support plate 63 faces the cutting wheel 80.

[0039] The automatic cutting machine of the present utility model has a feeding assembly 10, a conveying assembly 40, and a processing assembly 60 arranged in sequence, with an overall linear layout. The linear production line layout results in a short material handling distance and a single logistics route, facilitating material management and control. This layout form is conducive to realizing the automatic conveying of materials and reducing the input of manpower and material resources. Among them, the pipe fittings are placed on the feeding conveyor plate 14, and the feeding conveyor plate 14 moves along the feeding slide rail 11 towards the cutting wheel 80, bringing the pipe fittings closer to the cutting wheel 80. The transfer conveyor plate 45 slides along the transfer slide rail 41 to the outside of the feeding conveyor plate 14, and the transfer lifting driving member 44 rises to lift the pipe fittings upward, transferring the pipe fittings from the feeding conveyor plate 14 to the transfer conveyor plate 45. The processing conveyor plate 62 moves along the processing slide rail 61 to the end close to the cutting wheel 80, and the transfer conveyor plate 45 moves to the corresponding outside of the processing conveyor plate 62. The transfer conveyor plate 45 drives the pipe fittings to descend synchronously. The transfer conveyor plate 45 descends to a position lower than the processing support plate 63, and the pipe fittings are transferred from the transfer conveyor plate 45 to the processing support plate 63. The processing support plate 63 drives the pipe fittings to move to the corresponding position below the cutting wheel 80, and the processing driving member 64 controls the processing support plate 63 to rise. During the rising process of the processing support plate 63, the cutting wheel 80 performs cutting processing on the pipe fittings. After the cutting processing of the pipe fittings is completed, the processing support plate 63 drives the pipe fittings to move along the processing slide rail 61 in a direction away from the cutting wheel 80, facilitating the unloading of the pipe fittings. The feeding of the pipe fittings is conveyed through the feeding conveyor plate 14, and the unloading of the pipe fittings is conveyed through the processing conveyor plate 62. The positions of the feeding and unloading of the pipe fittings are both far from the cutting processing area, improving the operation safety of the feeding and unloading of the pipe fittings. The pipe fittings are conveyed through the cooperation of the feeding assembly 10, the conveying assembly 40, and the processing assembly 60, and combined with the cutting wheel 80 to realize the full-automatic cutting processing of the pipe fittings, improving the cutting efficiency of the pipe fittings and avoiding the occurrence of pipe cutting safety accidents.

[0040] Further, as Figures 1 to 2As shown, the transfer slide rail 41 includes a first transfer slide rail 42 and a second transfer slide rail 43 extending along the first direction X. The transfer and lift driving member 44 includes a first transfer driving member 48 and a second transfer driving member 49. The first transfer driving member 48 is slidably connected to the first transfer slide rail 42, and the first transfer plate 46 is connected to the driving end of the first transfer driving member 48. The second transfer driving member 49 is slidably connected to the second transfer slide rail 43, and the second transfer plate 47 is connected to the driving end of the second transfer driving member 49. The loading transfer plate 14, the loading slide rail 11, the processing slide rail 61, and the processing transfer plate 62 are located between the first transfer slide rail 42 and the second transfer slide rail 43 in the second direction Y. The first transfer plate 46 is connected to the driving end of the first transfer driving member 48. The lifting of the first transfer plate 46 is controlled by the first transfer driving member 48. The first transfer driving member 48 is slidably connected to the first transfer slide rail 42, enabling the first transfer plate 46 to slide to the outside of the loading transfer plate 14 or the outside of the processing transfer plate 62 to achieve the transfer of one end of the pipe fitting. The second transfer plate 47 is connected to the driving end of the second transfer driving member 49. The lifting of the second transfer plate 47 is controlled by the second transfer driving member 49. The second transfer driving member 49 is slidably connected to the second transfer slide rail 43, enabling the second transfer plate 47 to slide to the outside of the loading transfer plate 14 or the outside of the processing transfer plate 62 to achieve the transfer of the other end of the pipe fitting. Through the cooperation of the first transfer plate 46 and the second transfer plate 47, the transfer of the pipe fitting during the cutting process is realized.

[0041] Furthermore, as Figure 1 shown, the cutting wheel 80 includes a cutting grinding wheel 81, a cutting driving member 82, and a cutting support frame 83. Cutting support frames 83 are connected to the sides of the first transfer slide rail 42 and the second transfer slide rail 43 that are away from the processing slide rail 61 respectively. The cutting driving member 82 is connected to the upper end of the cutting support frame 83, and the cutting grinding wheel 81 is in transmission connection with the cutting driving member 82. One of the cutting grinding wheels 81 is located between the first transfer slide rail 42 and the processing base plate 65, and the other cutting grinding wheel 81 is located between the second transfer slide rail 43 and the processing base plate 65. The cutting support frame 83 supports the cutting grinding wheel 81 and the cutting driving member 82. Cutting grinding wheels 81 are respectively provided on both sides of the processing support plate 63 in the second direction Y. When the processing driving member 64 controls the processing support plate 63 to rise, the two cutting grinding wheels 81 simultaneously cut both ends of the pipe fitting, with high processing efficiency. The cutting grinding wheels 81 are arranged outside the processing base plate 65, enhancing cutting safety and avoiding interference during cutting.

[0042] Furthermore, as Figure 1 and Figure 3As shown in the figure, the loading slide rail 11 includes a first loading slide rail 12 and a second loading slide rail 13 that extend along the first direction X and are arranged at intervals along the second direction Y. One end of the loading transfer plate 14 in the second direction Y is connected to the first loading slide rail 12, and the other end is connected to the second loading slide rail 13. The processing slide rail 61 includes a first processing slide rail 78 and a second processing slide rail 79 that extend along the first direction X and are arranged at intervals along the second direction Y. One end of the processing transfer plate 62 in the second direction Y is connected to the first processing slide rail 78, and the other end is connected to the second processing slide rail 79. The first processing slide rail 78 and the second processing slide rail 79 are located between the first loading slide rail 12 and the second loading slide rail 13 in the second direction Y. Both ends of the loading transfer plate 14 are respectively connected to the first loading slide rail 12 and the second loading slide rail 13, improving the moving stability of the loading transfer plate 14 for transferring pipe fittings. Both ends of the processing transfer plate 62 are respectively connected to the first processing slide rail 78 and the second processing slide rail 79, improving the moving stability of the processing transfer plate 62 for transferring pipe fittings. Since the length of the pipe fitting after cutting is shorter than that before cutting, the first processing slide rail 78 and the second processing slide rail 79 are located between the first loading slide rail 12 and the second loading slide rail 13 in the second direction Y. At the same time, the first transfer slide rail 42 is located outside the first loading slide rail 12, and the second transfer slide rail 43 is located outside the second loading slide rail 13. The positions of the transfer slide rail 41, the processing slide rail 61, and the loading slide rail 11 in the second direction Y are reasonably arranged to avoid interference during the transfer process and ensure the smooth progress of the transfer process.

[0043] Furthermore, one end of the transfer slide rail 41 at least partially overlaps with the loading slide rail 11 in the second direction Y to form a loading transfer area 90. In the loading transfer area 90, the transfer intermediate plate 45 is located outside the loading transfer plate 14 to ensure the smooth transfer of the pipe fitting from the loading transfer plate 14 to the transfer intermediate plate 45. The other end of the transfer slide rail 41 at least partially overlaps with the processing slide rail 61 in the second direction Y to form a processing transfer area 91. In the processing transfer area 91, the transfer intermediate plate 45 is located outside the processing transfer plate 62 to ensure the smooth transfer of the pipe fitting from the transfer intermediate plate 45 to the processing transfer plate 62.

[0044] Furthermore, as Figure 3 and Figure 4As shown, the loading assembly 10 includes a loading bracket 18 and a loading rocker 22. The loading bracket 18 is provided with a loading storage area 21. The loading rocker 22 includes a first rocker group 23 and a second rocker group 24 arranged opposite each other and having the same structure. The first rocker group 23 includes a first sub-rocker 26, a first sub-drive 27, a second sub-rocker 28, and a second sub-drive 29. The first sub-rocker 26 and the first sub-rocker 26 are swingably connected to the loading bracket 18 and are arranged toward the loading storage area 21. The first sub-drive 27 and the second sub-drive 29 are fixed to the loading bracket 18. The first sub-drive 27 is transmission-connected to the first sub-rocker 26, and the second sub-drive 29 is transmission-connected to the second sub-rocker 28. A loading conveying channel 25 is formed between the first sub-rocker 26 and the second sub-rocker 28. The loading bracket 18 is used to temporarily store the loaded pipes and can temporarily store multiple pipes to be processed at the loading end. The loading rocker 22 is connected to the loading bracket 18 to carry the pipes to be processed. The first rocker arm assembly 23 supports one end of the pipe, while the second rocker arm assembly 24 supports the other end. The cooperation between the first rocker arm assembly 23 and the second rocker arm assembly 24 achieves support for both ends of the pipe. Specifically, the first sub-driver 27 controls the swinging of the first sub-rocker arm 26, while the second sub-driver 29 controls the swinging of the first sub-rocker arm 26. The swinging of the first and second sub-rocker arms 26, 28 adjusts the width of the loading and conveying channel 25. The first and second sub-rocker arms 26, 28 reduce the width of the loading and conveying channel 25 to a value smaller than the diameter of the pipe, allowing one end of the pipe to rest on the first and second sub-rocker arms 26, 28. When the loading pallet 15 supports the pipe, the width of the loading and conveying channel 25 is greater than or equal to the pipe diameter. The pipe is then driven downward by the loading pallet 15, transferring the pipe from the loading bracket 18 to the loading pallet 15. The loading pallet 15 then moves the pipe toward the cutting wheel 80.

[0045] like Figure 3 As shown, the loading conveyor plate 14 includes a loading support plate 15, a loading drive member 16, and a loading base plate 17. The loading base plate 17 is slidably connected to the loading slide rail 11, and the loading drive member 16 is fixed to the loading base plate 17. The loading support plate 15 is arranged toward the loading pipe storage area 21 and is in driving connection with the driving end of the loading drive member 16. The loading base plate 17 drives the loading support plate 15 and the loading drive member 16 to move synchronously. The loading drive member 16 controls the loading support plate 15 to rise or fall, thereby achieving the transfer of pipes between the loading swing arm 22 and the loading support plate 15.

[0046] As one embodiment, Figure 4 As shown, the first sub-drive 27 is in transmission connection with the upper end of the first sub-rocker 26 , and the second sub-drive 29 is in transmission connection with the upper end of the second sub-rocker 28 .

[0047] Further, such as Figure 3As shown, the loading assembly 10 also includes a material storage conveying plate 30, which includes a material storage support plate 31, a material storage driving member 32 and a material storage bottom plate 33. The material storage bottom plate 33 is slidably connected to the loading slide rail 11, and the material storage driving member 32 is fixed to the material storage bottom plate 33. The material storage support plate 31 is arranged toward the loading storage area 21 and is transmission-connected to the driving end of the material storage driving member 32. The loading conveying plate 14 is slidably connected to one end of the loading slide rail 11 toward the cutting wheel 80, and the material storage conveying plate 30 is slidably connected to the end of the loading slide rail 11 away from the cutting wheel 80. The material storage conveying plate 30 slides in the loading and storage area 21 and the end of the loading slide 11 away from the cutting wheel 80 to realize automatic loading. Specifically, the material storage support plate 31 supports the tube to move toward the loading and storage area 21. The width of the loading and transmission channel 25 is greater than or equal to the diameter of the pipe. The material storage driving component 32 controls the material storage support plate 31 to rise, and the pipe rises above the first sub-rocker 26 and the second sub-rocker 28. The first sub-rocker 26 and the second sub-rocker 28 reduce the width of the loading and transmission channel 25 so that the width of the loading and transmission channel 25 is less than the diameter of the pipe. The material storage driving component 32 controls the material storage support plate 31 to descend, and the end of the pipe is supported by the first sub-rocker 26 and the second sub-rocker 28 to realize the handover of the pipe and place it in the loading and storage area 21, thereby realizing automatic storage of the pipe.

[0048] Further, such as Figure 3 and Figure 4 As shown, the loading bracket 18 includes a loading support leg 19 and a loading frame 20. A loading storage area 21 is provided with the loading frame 20. A first rocker arm group 23 and a second rocker arm group 24 are respectively connected to the loading frame 20. The loading frame 20 is connected to the upper end of the loading support leg 19. The loading support leg 19 is located outside the loading slide 11. The pipe fittings are placed on the loading frame 20 via the first rocker arm group 23 and the second rocker arm group 24. The loading support leg 19 supports the loading frame 20 to improve the stability of the pipe fitting placement. The loading support leg 19 is located outside the loading slide 11 to prevent interference between the pipe fittings during the transfer process between the loading frame 20 and the loading conveyor plate 14. At the same time, it is more convenient to move or replace the loading bracket 18.

[0049] Further, such as Figure 5 and Figure 6As shown, the processing assembly 60 includes a processing bracket 66 and a processing rocker 69. The processing bracket 66 is provided with a processing storage area 70. The processing rocker 69 includes a third rocker group 71 and a fourth rocker group 76 that are relatively arranged and have the same structure. The third rocker group 71 includes a third sub-rocker 72, a third sub-drive 73, a fourth sub-rocker 74 and a fourth sub-drive 75. The third sub-rocker 72 and the third sub-rocker 72 are swingably connected to the processing bracket 66 and are arranged toward the processing storage area 70. The third sub-drive 73 and the fourth sub-drive 75 are fixed to the processing bracket 66. The third sub-drive 73 is transmission-connected to the third sub-rocker 72. The fourth sub-drive 75 is transmission-connected to the fourth sub-rocker 74. A processing transmission channel 77 is formed between the third sub-rocker 72 and the fourth sub-rocker 74. The processing pallet 63 supports the pipe to move toward the processing storage area 70. The width of the processing transmission channel 77 is greater than or equal to the diameter of the pipe. The processing drive 64 controls the processing pallet 63 to rise, and the pipe rises above the third sub-rocker 72 and the fourth sub-rocker 74. The third sub-rocker 72 and the fourth sub-rocker 74 reduce the width of the processing transmission channel 77 so that the width of the processing transmission channel 77 is less than the diameter of the pipe. The processing drive 64 controls the processing pallet 63 to descend, and the end of the pipe is supported by the third sub-rocker 72 and the fourth sub-rocker 74, so that the pipe is handed over and placed in the processing storage area 70, realizing automatic storage of the cut pipes, and facilitating the collection of the cut pipes.

[0050] Further, such as Figure 5 and Figure 6 As shown, the processing bracket 66 includes processing support legs 67 and a processing frame 68. A processing storage area 70 is provided with the processing frame 68. A third rocker assembly 71 and a fourth rocker assembly 76 are respectively connected to the processing frame 68. The processing frame 68 is connected to the upper ends of the processing support legs 67. The processing support legs 67 are located outside the processing slide 61. The pipe fittings are placed in the processing frame 68 via the third rocker assembly 71 and the fourth rocker assembly 76. The processing support legs 67 support the processing frame 68 to improve the stability of the pipe fittings. The processing support legs 67 are located outside the processing slide 61 to prevent interference between the pipe fittings during the transfer process between the processing frame 68 and the processing transfer plate 62. At the same time, the processing bracket 66 is more convenient to move or replace.

[0051] In summary, the embodiment of the present utility model provides an automatic cutting machine. The feeding assembly 10, the conveying assembly 40, and the processing assembly 60 are arranged in sequence, presenting a linear layout as a whole. The linear production line has a short material handling distance and a single logistics route, which is convenient for material management and control. This layout form is conducive to realizing the automatic conveying of materials and reducing the input of human and material resources. Among them, the pipe fitting is placed on the feeding conveyor plate 14, and the feeding conveyor plate 14 moves along the feeding slide rail 11 towards the cutting wheel 80, making the pipe fitting closer to the cutting wheel 80. The transfer conveyor plate 45 slides along the transfer slide rail 41 to the outside of the feeding conveyor plate 14, and the transfer lifting driving member 44 rises to lift the pipe fitting upward, so that the pipe fitting is transferred from the feeding conveyor plate 14 to the transfer conveyor plate 45. The processing conveyor plate 62 moves along the processing slide rail 61 to the end close to the cutting wheel 80, and the transfer conveyor plate 45 moves to the corresponding outside of the processing conveyor plate 62. The transfer conveyor plate 45 drives the pipe fitting to descend synchronously. The transfer conveyor plate 45 descends to a position lower than the processing support plate 63, and the pipe fitting is transferred from the transfer conveyor plate 45 to the processing support plate 63. The processing support plate 63 drives the pipe fitting to move to the corresponding lower part of the cutting wheel 80, and the processing driving member 64 controls the processing support plate 63 to rise. During the rising process of the processing support plate 63, the cutting wheel 80 performs cutting processing on the pipe fitting. After the pipe fitting cutting processing is completed, the processing support plate 63 drives the pipe fitting to move along the processing slide rail 61 in a direction away from the cutting wheel 80, facilitating the blanking of the pipe fitting. The feeding of the pipe fitting is conveyed through the feeding conveyor plate 14, and the blanking of the pipe fitting is conveyed through the processing conveyor plate 62. The positions of the pipe fitting feeding and blanking are both far from the cutting processing area, improving the operation safety of the pipe fitting feeding and blanking. The pipe fitting is conveyed through the cooperation of the feeding assembly 10, the conveying assembly 40, and the processing assembly 60, and the full-automatic cutting processing of the pipe fitting is realized in combination with the cutting wheel 80, improving the cutting efficiency of the pipe fitting and avoiding the occurrence of pipe fitting cutting safety accidents.

[0052] The above is only the preferred embodiment of the present utility model. It should be noted that for those of ordinary skill in the art in this technical field, without departing from the technical principle of the present utility model, several improvements and replacements can still be made, and these improvements and replacements should also be regarded as the protection scope of the present utility model.

Claims

1. An automatic cutting machine, characterized in that: It includes a loading component, a conveying component and a processing component arranged in sequence; The loading assembly includes a loading slide rail and a loading conveying plate, wherein the loading conveying plate is slidably connected to the loading slide rail; The conveying assembly includes a conveying slide rail, a conveying lifting drive member and a transfer conveying plate, the conveying lifting drive member is slidably mounted on the conveying slide rail, the transfer conveying plate is connected to the conveying lifting drive member, and the conveying slide rail is located on the outer side of the loading conveying plate; The processing assembly includes a cutting wheel, a processing slide and a processing transfer plate. The cutting wheel is located above the processing slide, and the transfer slide is located on the outside of the processing slide. The processing transfer plate includes a processing support plate, a processing drive member and a processing base plate. The processing base plate is slidably connected to the processing slide, the processing drive member is connected to the processing base plate, the processing support plate is connected to the driving end of the processing drive member, and the processing support plate is arranged toward the cutting wheel.

2. The automatic cutting machine according to claim 1, wherein: The conveying slide includes a first conveying slide and a second conveying slide extending along a first direction, the transfer conveying plate includes a first transfer plate and a second transfer plate, the conveying lifting drive includes a first conveying drive and a second conveying drive, the first conveying drive is slidably connected to the first conveying slide, the first transfer plate is connected to the driving end of the first conveying drive, the second conveying drive is slidably connected to the second conveying slide, the second transfer plate is connected to the driving end of the second conveying drive, the loading conveying plate, the loading slide, the processing slide and the processing conveying plate are located between the first conveying slide and the second conveying slide in the second direction, wherein the first direction is perpendicular to the second direction.

3. The automatic cutting machine according to claim 2, characterized in that: The cutting wheel includes a cutting grinding wheel, a cutting drive and a cutting support frame. The first transfer slide and the second transfer slide are respectively connected to the cutting support frame on one side away from the processing slide. The cutting drive is connected to the upper end of the cutting support frame. The cutting grinding wheel is transmission-connected to the cutting drive. One of the cutting grinding wheels is located between the first transfer slide and the processing base plate, and the other cutting grinding wheel is located between the second transfer slide and the processing base plate.

4. The automatic cutting machine according to claim 2, characterized in that: The loading slide includes a first loading slide and a second loading slide extending in the first direction and spaced apart in the second direction. The loading conveyor plate is connected to the first loading slide at one end in the second direction and is connected to the second loading slide at the other end. The processing slide includes a first processing slide and a second processing slide extending in the first direction and spaced apart in the second direction. The processing conveyor plate is connected to the first processing slide at one end in the second direction and is connected to the second processing slide at the other end. The first processing slide and the second processing slide are located between the first loading slide and the second loading slide in the second direction.

5. The automatic cutting machine according to claim 2, wherein: One end of the transfer slide at least partially overlaps with the loading slide in the second direction to form a loading handover area, in which the transfer transfer plate is located outside the corresponding position of the loading transfer plate, and the other end of the transfer slide at least partially overlaps with the processing slide in the second direction to form a processing handover area, in which the transfer transfer plate is located outside the corresponding position of the processing transfer plate.

6. The automatic cutting machine according to claim 1, wherein: The loading assembly includes a loading bracket and a loading rocker arm, the loading bracket is provided with a loading storage area, the loading rocker arm includes a first rocker arm group and a second rocker arm group that are relatively arranged and have the same structure, the first rocker arm group includes a first sub-rocker arm, a first sub-drive, a second sub-rocker arm and a second sub-drive, the first sub-rocker arm and the first sub-rocker arm are swingably connected to the loading bracket and are arranged toward the loading storage area, the first sub-drive and the second sub-drive are fixed to the loading bracket, the first sub-drive is transmission-connected to the first sub-rocker arm, the second sub-drive is transmission-connected to the second sub-rocker arm, and a loading transmission channel is formed between the first sub-rocker arm and the second sub-rocker arm; The loading conveyor plate includes a loading support plate, a loading drive and a loading base plate. The loading base plate is slidably connected to the loading slide rail, the loading drive is fixed to the loading base plate, and the loading support plate is arranged toward the loading storage area and is transmission-connected to the driving end of the loading drive.

7. The automatic cutting machine according to claim 6, wherein: The loading assembly also includes a material storage conveying plate, which includes a material storage support plate, a material storage driving member and a material storage bottom plate. The material storage bottom plate is slidably connected to the loading slide rail, and the material storage driving member is fixed to the material storage bottom plate. The material storage support plate is arranged toward the loading storage area and is transmission-connected to the driving end of the material storage driving member. The loading conveying plate is slidably connected to one end of the loading slide rail toward the cutting wheel, and the material storage conveying plate is slidably connected to one end of the loading slide rail away from the cutting wheel.

8. The automatic cutting machine according to claim 6, characterized in that: The loading bracket includes a loading support foot and a loading frame. The loading storage area is arranged on the loading frame. The first rocker arm group and the second rocker arm group are respectively connected to the loading frame. The loading frame is connected to the upper end of the loading support foot. The loading support foot is located on the outside of the loading slide rail.

9. The automatic cutting machine according to claim 1, wherein: The processing assembly includes a processing support and a processing rocker arm. The processing support is provided with a processing storage area. The processing rocker arm includes a third rocker arm group and a fourth rocker arm group that are relatively arranged and have the same structure. The third rocker arm group includes a third sub-rocker arm, a third sub-drive, a fourth sub-rocker arm and a fourth sub-drive. The third sub-rocker arm and the third sub-rocker arm are swingably connected to the processing support and are arranged toward the processing storage area. The third sub-drive and the fourth sub-drive are fixed to the processing support. The third sub-drive is transmission-connected to the third sub-rocker arm, and the fourth sub-drive is transmission-connected to the fourth sub-rocker arm. A processing transmission channel is formed between the third sub-rocker arm and the fourth sub-rocker arm.

10. The automatic cutting machine according to claim 9, characterized in that: The processing bracket includes a processing support foot and a processing frame. The processing storage area is arranged in the processing frame. The third swing rod group and the fourth swing rod group are respectively oppositely connected to the processing frame. The processing frame is connected to the upper end of the processing support foot, and the processing support foot is located outside the processing slide rail.

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