A cutting device for pulley shaft production with anti-deviation function

Abstract

The present invention discloses a cutting device for producing a pulley shaft with an anti-deviating function. The cutting device comprises a frame, a cutting mechanism, a clamping mechanism, a positioning mechanism, a conveying mechanism, a feeding mechanism and a controller. The cutting mechanism is tightly connected to the positioning mechanism, the positioning mechanism is slidably connected to the frame, the clamping mechanism is tightly connected to the frame, the conveying mechanism is tightly connected to the frame, the feeding mechanism is tightly connected to the frame, the controller is tightly connected to the frame, the positioning mechanism is electrically connected to the controller, the conveying mechanism is electrically connected to the controller, the clamping mechanism is electrically connected to the controller, the cutting mechanism is located above the frame, the feeding mechanism is located at one end of the conveying mechanism away from the cutting mechanism, the conveying mechanism is located in the clamping mechanism, the conveying mechanism performs temperature control and controls the expansion and contraction amount to avoid material deformation caused by temperature change, so that a group of raw materials of different lengths that need to be processed can be cut at the same time.

Description

Technical Field

[0001] The invention relates to the technical field of cutting devices, in particular to a cutting device for producing a pulley shaft with an anti-deviating function. Background Art

[0002] In modern manufacturing, cutting technology is the key to achieving high-efficiency and high-quality production. With the rapid development of industrial automation and intelligent manufacturing, the demand for cutting equipment is growing. These devices need to be able to handle a variety of materials and perform complex cutting tasks while maintaining high precision and high reliability. The development trend of technology shows that cutting equipment that integrates highly automated functions, energy efficiency management and environmental adaptability will become the mainstream of the market, especially in areas where cutting conditions need to be controlled to adapt to special materials and fine design requirements.

[0003] At present, the cutting equipment on the market is traditional mechanical cutting equipment, which is used in industrial fields such as metal processing, semiconductor manufacturing and composite material processing, and improves production efficiency and product quality through manual loading and tool cutting.

[0004] Regarding the relevant technologies mentioned above, although the existing cutting technology is quite mature in many aspects, there are still some limitations and shortcomings. First, most traditional cutting equipment has limited functions in temperature control and material deformation management, which may lead to unstable processing quality when processing special materials or performing high-precision processing. Secondly, existing equipment is generally inefficient in synchronously processing materials of different lengths and specifications, which limits their application in large-scale and diversified production, and different batches of production have unstable coordination due to different precision. In addition, the existing technology often requires complicated operation and maintenance, which increases production costs and time. Therefore, the technical personnel in this field provide a cutting device for pulley shaft production with anti-deviation function to solve the problems raised in the above background. Summary of the invention

[0005] The object of the present invention is to provide a cutting device for producing a pulley shaft with an anti-deviating function, so as to solve the problems raised in the above-mentioned background technology.

[0006] In order to solve the above technical problems, the present invention provides the following technical solutions:

[0007] The cutting device includes a frame, a cutting mechanism, a clamping mechanism, a positioning mechanism, a conveying mechanism, a feeding mechanism and a controller. The cutting mechanism and the positioning mechanism are fixedly connected, the positioning mechanism and the frame are slidably connected, the clamping mechanism and the frame are fixedly connected, the conveying mechanism and the frame are fixedly connected, the feeding mechanism and the frame are fixedly connected, the controller and the frame are fixedly connected, the positioning mechanism and the controller are electrically connected, the conveying mechanism and the controller are electrically connected, the clamping mechanism and the controller are electrically connected, the cutting mechanism is located above the frame, the feeding mechanism is located at one end of the conveying mechanism away from the cutting mechanism, and the conveying mechanism is located inside the clamping mechanism.

[0008] By adopting the above technical scheme, the height difference is utilized by the feeding mechanism to first feed the raw material into the conveying mechanism and push it to the cutting position. The positioning mechanism is electrically connected to the controller to adjust the position of the cutting mechanism to ensure that it is correctly positioned on the frame. The driving of the positioning mechanism makes the cutting mechanism more precise. The clamping mechanism firmly fixes the raw material to prevent displacement during the cutting process. The temperature of the processing area is controlled inside the clamping mechanism by the conveying mechanism, and the conveying speed is controlled to control the expansion and contraction amount, thereby avoiding material deformation caused by temperature changes. The material is processed by the cutting mechanism for the second time through the preset compensation amount, thereby achieving the purpose of precise cutting. The cutting mechanism is located above the frame, so that precise cutting can be performed from top to bottom. Not only can a single rod raw material be accurately cut, but also a group of raw materials of different lengths that need to be processed can be cut at the same time through the control of the conveying mechanism, thereby achieving the purpose of simultaneous processing of the entire group in the cutting process of the pulley shaft. The entire process is uniformly managed by the controller to realize automated production, greatly improving production efficiency and processing accuracy.

[0009] Furthermore, the frame includes a chip storage groove, a chip sliding plate, a sliding groove and a discharge plate, the chip sliding plate and the chip storage groove are fastened together, the discharge plate and the chip storage groove are fastened together, the sliding groove and the chip storage groove are communicated, and the discharge plate and the sliding groove are communicated.

[0010] By adopting the above technical solution, the chip trough is located inside the frame and is tightly connected to the chip trough through the chip slide plate, ensuring that the chips generated during the cutting process can slide directly into the chip trough. The unloading plate is also tightly connected to the chip trough and is connected to the sliding groove, allowing the cut material to move smoothly from the processing area to the unloading area. The chips are automatically collected into the chip trough by the chip slide plate, and the cut materials are smoothly transferred to the unloading plate through the sliding groove, thereby realizing continuous production and efficient material processing. This design not only optimizes the cleanliness and safety of the workplace, but also improves the overall operating efficiency, reduces the need for manual cleaning, and ensures the smooth operation of the production line.

[0011] Furthermore, the cutting mechanism includes a cutting tool, a side disc tool, a cutting motor, a lifting cylinder, a lifting block, a fixed block and a transverse telescopic cylinder. The transverse telescopic cylinder is transmission-connected to the cutting tool, the cutting motor is transmission-connected to the cutting tool, the cutting tool and the side disc tool are transmission-connected, the cutting motor is fastened to the lifting block, the lifting block and the fixed block are hinged, the cutting motor is electrically connected to the controller, the lifting cylinder and the positioning mechanism are fastened to the fixed block, and the positioning mechanism is fastened to the fixed block.

[0012] By adopting the above technical scheme, the cutting motor drives the cutting tool to perform high-speed rotation cutting. At the same time, the side disc tool and the cutting tool work synchronously. After the reserved compensation amount, the side disc tool is used to position and compensate the raw material. The lateral telescopic cylinder controls the lateral movement of the cutting tool so that the cutting covers a wider area. The lifting cylinder controls the up and down movement of the lifting block, which allows the cutting tool to adjust the vertical position according to the thickness of the workpiece. The articulated design of the lifting block and the fixed block allows a certain range of tilt to meet the cutting requirements at different angles. Through the electrical connection with the controller, the entire cutting mechanism can achieve precise position control and motion coordination, thereby realizing efficient and accurate automatic cutting operations, improving cutting efficiency and processing accuracy, and optimizing operational flexibility and material processing capabilities.

[0013] Furthermore, the clamping mechanism includes a clamping assembly, a rotating assembly, a moving block, a fastening block, a moving screw, a moving motor and a sliding rod. The clamping assembly and the rotating assembly are fastened together, the rotating assembly and the moving block are fastened together, and the rotating assembly and the fastening block are fastened together, so the moving motor and the moving screw are transmission-connected, the moving block and the moving screw are transmission-connected, the moving motor and the frame are fastened together, and the moving block and the sliding rod are slidingly connected.

[0014] By adopting the above technical solution, the clamping assembly is tightly connected to the rotating assembly, allowing the workpiece to rotate while being fixed so as to be processed from multiple angles. The rotating assembly is further tightly connected to the moving block and the fastening block to ensure its stability and accuracy. The moving motor is driven by the moving lead screw to achieve precise linear movement of the moving block along the sliding rod, thereby adjusting the position of the workpiece, allowing the clamping mechanism to adjust the precise position and angle of the workpiece during the cutting process, thereby improving the flexibility and accuracy of the processing. The clamping mechanism can achieve fast and precise workpiece positioning, optimize the processing process, and improve production efficiency and product quality, which is particularly important in applications that require multi-angle or fine cutting.

[0015] Furthermore, the clamping assembly includes a clamping shell, a clamping motor, a clamping plate, a clamping finger, a connecting rod, a sliding block, a rotating plate, a rotating rod, a clamping cylinder and a second elastic member. The clamping motor and the clamping shell are fixedly connected, the clamping motor and the rotating plate are transmission-connected, the rotating plate and the clamping shell are rotationally connected, the rotating plate and the rotating rod are transmission-connected, the rotating plate and the rotating rod are slidingly connected, the rotating rod and the clamping plate are transmission-connected, the clamping finger and the connecting rod are hinged, the connecting rod and the sliding block are hinged, the sliding block and the clamping plate are slidingly connected, the sliding block and the connecting rod are transmission-connected, the clamping cylinder and the sliding block are transmission-connected, the clamping cylinder and the clamping shell are fixedly connected, the second elastic member and the clamping plate are fixedly connected, the clamping motor and the controller are electrically connected, the clamping cylinder and the controller are electrically connected, a flow chamber is provided on the clamping finger, and the flow chamber is connected to the transmission mechanism.

[0016] By adopting the above technical solution, the clamping motor is installed in the clamping shell and drives the rotating plate to rotate. The rotating plate transmits power to the clamping plate through the rotating rod to realize the rotation and fine adjustment of the workpiece. The sliding connection between the rotating plate and the rotating rod allows flexible angle adjustment. The clamping fingers are hinged to the sliding block through the connecting rod, which allows the clamping fingers to slide on the clamping plate to adapt to workpieces of different sizes. The clamping cylinder is connected to the sliding block to provide the required power to adjust the position of the clamping plate to achieve precise fixation of the workpiece. The flow chamber is arranged on the clamping fingers and is connected to the transmission mechanism, which helps to adjust or cool the workpiece during processing. Electrical connection and coordination are performed through the controller to achieve operational accuracy and reliability, improve processing flexibility and efficiency, and is particularly suitable for complex processing tasks that require high-precision positioning and fixation.

[0017] Furthermore, the rotating assembly includes a rotating outer shell, a rotating inner shell, a rotating slider, a clamping block, a third elastic member, a rotating motor and a fourth elastic member. The rotating outer shell and the positioning mechanism are fastened together, the rotating motor and the rotating slider are transmission-connected, the rotating motor and the rotating outer shell are fastened together, the rotating motor and the rotating slider are transmission-connected, the rotating slider and the rotating inner shell are slidingly connected, the rotating slider and the third elastic member are fastened together, the third elastic member and the rotating inner shell are fastened together, the fourth elastic member and the rotating outer shell are fastened together, the clamping block and the rotating inner shell are clamped together, and the rotating inner shell and the clamping shell are fastened together.

[0018] By adopting the above technical solution, the rotating motor is installed in the rotating outer shell and directly drives the rotating slider to achieve efficient power transmission. The sliding connection between the rotating slider and the rotating inner shell allows the rotating slider to move freely in the rotating inner shell. Such a design allows the entire rotating assembly to achieve flexible angle adjustment while maintaining stability. The addition of the third elastic member and the fourth elastic member provides the necessary elasticity and buffering, increases the durability and adaptability of the system, and ensures the smoothness of the rotation action. The clamping design of the clamping block and the rotating inner shell ensures the precise positioning and locking of the assembly during the rotation process. The design and implementation of the entire rotating assembly ensures high-precision rotation adjustment, optimizes processing quality and efficiency, is particularly suitable for workpieces with complex shapes or requiring multi-angle processing, and significantly improves the flexibility and accuracy of mechanical operations.

[0019] Furthermore, the positioning mechanism includes a positioning clamp, an infrared sensor, a positioning block, a sliding block, a first elastic part, a positioning motor, a compensating cylinder and a positioning screw. The positioning clamp and the first elastic part are fastened together, the positioning clamp and the positioning block are slidably connected, the first elastic part and the positioning clamp are fastened together, the infrared sensor and the positioning block are fastened together, the positioning block and the frame are slidably connected, the positioning block and the sliding rod are slidably connected, the positioning motor and the frame are fastened together, the positioning motor and the positioning screw are transmission-connected, the positioning block and the positioning screw are transmission-connected, the sliding block and the positioning block are slidably connected, the first elastic part and the sliding block are fastened together, the compensating cylinder and the sliding block are fastened together, the compensating cylinder and the positioning block are fastened together, the infrared sensor and the controller are electrically connected, the positioning motor and the controller are electrically connected, and the compensating cylinder and the controller are electrically connected.

[0020] By adopting the above technical solution, in the working process, the positioning motor drives the positioning block to move precisely linearly along the sliding rod through the positioning screw. At the same time, the positioning clamp provides a certain elasticity through the connection with the first elastic member to adapt to workpieces of different shapes and sizes. The infrared sensor is fixed on the positioning block to monitor the position of the workpiece in real time to ensure that it is within the predetermined position. These position information are transmitted to the controller for real-time adjustment to achieve the best processing accuracy. The compensation cylinder is connected to the sliding block and the positioning block to provide the necessary force adjustment for the entire system to cope with possible deviations during the machining process, so that the entire positioning mechanism can not only efficiently adjust and position the workpiece, but also realize automated precise control through the electrical connection between the infrared sensor and the controller, which greatly improves the processing efficiency and accuracy. Whether in high-speed processing or in the precise manufacturing process of complex workpieces, it can maintain extremely high position accuracy and operational stability, significantly improving production reliability and product quality.

[0021] Furthermore, the conveying mechanism includes a connecting pipe, a conveying frame, a conveying wheel, a conveying block, a conveying motor, a conveying hydraulic cylinder and a water pump. The conveying frame is provided with a temperature control chamber. The connecting pipe is connected to the flow chamber, the connecting pipe is slidably connected to the temperature control chamber, the temperature control chamber is firmly connected to the conveying frame, the temperature control chamber is connected to the connecting pipe, the temperature control chamber is connected to the water pump, the conveying frame is rotatably connected to the rotating shell, the conveying wheel is rotatably connected to the conveying block, the conveying motor is transmission-connected to the conveying wheel, the conveying motor is firmly connected to the conveying block, the conveying hydraulic cylinder is firmly connected to the conveying frame, the conveying hydraulic cylinder is transmission-connected to the conveying block, the conveying hydraulic cylinder is electrically connected to the controller, the water pump is electrically connected to the controller, and the conveying motor is electrically connected to the controller.

[0022] By adopting the above technical solution, the conveying motor drives the conveying wheel and then drives the conveying block to move smoothly along the conveying rack to achieve continuous advancement of the material. The temperature control chamber is connected to the flow chamber through a connecting pipe to ensure that the material is in a controlled temperature environment during the conveying process. The water pump maintains the circulation of the liquid in the temperature control chamber. In addition, the conveying hydraulic cylinder is tightly connected to the conveying rack and drives the conveying block to provide additional power support to adapt to materials of different weights or sizes, so that the conveying mechanism can adjust the processing environment through the temperature control chamber while maintaining material stability and precise position control, thereby preventing deformation or other quality problems caused by temperature fluctuations. The electrical connection between the controller and the conveying motor, water pump and conveying hydraulic cylinder ensures the coordinated operation of the entire system, realizes automated control, and improves processing efficiency and product quality, making it suitable for high-standard production lines that require precision processing and temperature-sensitive materials.

[0023] Furthermore, the feeding mechanism includes a feeding rack, a lifting plate, a first lifting cylinder, a second lifting cylinder, a displacement block, a feeding wheel, a transmission motor, a displacement rod, a displacement motor, a displacement block and a lifting block. The feeding rack and the frame are fastened together, the feeding rack and the lifting plate are hinged, the first lifting cylinder and the feeding rack are fastened together, the first lifting cylinder and the lifting plate are transmission-connected, the second lifting cylinder and the feeding rack are fastened together, the second lifting cylinder and the lifting block are transmission-connected, the lifting block and the feeding wheel are rotatably connected, the transmission motor and the feeding wheel are transmission-connected, the transmission motor and the lifting block are fastened together, the displacement motor and the displacement rod are transmission-connected, the displacement motor and the feeding rack are fastened together, the displacement rod and the displacement block are transmission-connected, and the displacement block and the feeding rack are slidingly connected.

[0024] By adopting the above technical solution, the first lifting cylinder and the second lifting cylinder are respectively connected to the loading rack and its power output components (lifting plate and lifting block), responsible for the vertical lifting and positioning of the raw materials. The lifting plate is actuated by the first lifting cylinder to lift the raw materials from a lower position to the working height, and the lifting block is further adjusted by the second cylinder to ensure that it is accurately connected to the processing line. The loading wheel is driven by the transmission motor and is responsible for pushing the raw materials along the loading rack to the processing area. The displacement motor controls the displacement rod and displacement block to achieve the lateral positioning of the raw materials and ensure their precise alignment, thereby improving the automation level and operating efficiency of the production line, reducing the need for manual loading and the related time consumption, and ensuring the continuity and accuracy of processing by automatically adjusting the height and position of the raw materials, significantly improving the fluency of the entire production process and product quality.

[0025] Compared with the prior art, the beneficial effects achieved by the present invention are:

[0026] The first lifting cylinder lifts the lifting plate and the raw materials on it from a lower initial position to a height suitable for feeding. Thereafter, the second lifting cylinder fine-tunes the position of the material to ensure its precise docking with the cutting mechanism. The precise control of these two cylinders avoids the deviation of the material during the loading process. The conveying motor controls the advancement of each piece of material by driving the conveying wheel, and the independent conveying block sets a specific feeding speed and position for each piece of material to ensure that even materials of different lengths can reach the cutting area synchronously. This precise control reduces the deviation caused by asynchronous material movement during the cutting process, so a group of materials of different lengths can be processed; the temperature control chamber is connected to the cutting area and can dynamically adjust the temperature of the workpiece according to the properties of the material and processing requirements. The heat exchange is formed by controlling the flow rate of the hot and cold exchange through connection with the water pump. The faster the flow rate, the faster the heat exchange rate. By connecting with the flow chamber, the heat is transferred to the processing material through the clamping plate. The uniform distribution and precise control of temperature are ensured, and the temperature can be adjusted in real time during the cutting process. The clamping plate is heated by heat exchange fluid during the cutting process, thereby reducing the jumping and preventing the deviation when cutting. The positioning block of the positioning mechanism is used to locate the compensation position. After the cutting is completed, the side disc tool is used for cooling compensation at the compensation position. The side disc tool is driven by the compensation cylinder, and the clamping plate on one side of the sliding block uses the coolant to cool the cut material to prevent deformation, restore the hardness and plasticity, and then cut with the side disc tool to achieve the purpose of preventing deviation. The clamping mechanism drives the clamping plate to rotate in the clamping shell through the clamping motor in the clamping assembly, and the rotating rod and the rotating plate slide relative to each other, so that the rotating rod drives the opening and closing of the clamping plate, so as to adapt to workpieces of different sizes. At the same time, the clamping fingers and the connecting rod are hinged, and the sliding of the sliding block drives the clamping fingers to close, so as to further stabilize the material and prevent deviation during the processing. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0028] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0029] Figure 2 It is a schematic diagram of the frame structure of the present invention;

[0030] Figure 3 is a schematic diagram of the cutting mechanism of the present invention;

[0031] Figure 4 is a schematic diagram of the clamping mechanism of the present invention;

[0032] Figure 5 is a schematic diagram of a clamping assembly of the present invention;

[0033] Figure 6 yes Figure 5 An enlarged schematic diagram of part A;

[0034] Figure 7 It is a schematic diagram of the clamping motor and the clamping cylinder of the present invention;

[0035] Figure 8 is a schematic diagram of a rotating assembly of the present invention;

[0036] Fig. 9 is a schematic diagram of the positioning mechanism of the present invention;

[0037] Fig.10 is a schematic diagram of the transmission mechanism of the present invention;

[0038] Fig.11 It is a schematic diagram of a feeding mechanism of the present invention.

[0039] In the figure: 1, frame; 11, chip storage groove; 12, chip slide plate; 13, sliding groove; 14, blanking plate; 2, cutting mechanism; 21, cutting tool; 22, side wheel disc tool; 23, cutting motor; 24, lifting cylinder; 25, lifting block; 26, fixed block; 27, horizontal telescopic cylinder; 3, clamping mechanism; 31, clamping assembly; 311, clamping shell; 312, clamping motor; 313, clamping plate; 314, clamping finger; 3141, flow chamber; 315, connecting rod; 316, sliding block; 317, rotating plate; 318, rotating rod; 319, clamping cylinder; 320, second elastic member; 32, rotating assembly; 321, rotating outer shell; 322, rotating inner shell; 323, rotating slider; 324, clamping block; 325, third elastic member; 326, rotating motor; 32 7. The fourth elastic member; 33. The moving block; 34. The fastening block; 35. The moving screw rod; 36. The moving motor; 37. The sliding rod; 4. The positioning mechanism; 41. The positioning clamp; 42. The infrared sensor; 43. The positioning block; 44. The first elastic member; 45. The positioning motor; 46. The compensation cylinder; 47. The positioning screw rod; 48. The sliding block; 5. The transmission mechanism; 51. The connecting pipe; 52. The transmission rack; 521. The temperature control chamber; 53. The transmission wheel; 54. The transmission block; 55. The transmission motor; 56. The transmission hydraulic cylinder; 57. The water pump; 6. The feeding mechanism; 61. The feeding rack; 62. The lifting plate; 63. The first lifting cylinder; 64. The second lifting cylinder; 65. The displacement block; 66. The feeding wheel; 67. The transmission motor; 68. The displacement rod; 69. The displacement motor; 610. The lifting block; 7. The controller. DETAILED DESCRIPTION

[0040] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. 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.

[0041] See also Figure 1 - Fig.11 , the present invention provides a technical solution:

[0042] The cutting device includes a frame 1, a cutting mechanism 2, a clamping mechanism 3, a positioning mechanism 4, a conveying mechanism 5, a feeding mechanism 6 and a controller 7. The cutting mechanism 2 is fixedly connected to the positioning mechanism 4, the positioning mechanism 4 is slidably connected to the frame 1, the clamping mechanism 3 is fixedly connected to the frame 1, the conveying mechanism 5 is fixedly connected to the frame 1, the feeding mechanism 6 is fixedly connected to the frame 1, the controller 7 is fixedly connected to the frame 1, the positioning mechanism 4 is electrically connected to the controller 7, the conveying mechanism 5 is electrically connected to the controller 7, the clamping mechanism 3 is electrically connected to the controller 7, the cutting mechanism 2 is located above the frame 1, the feeding mechanism 6 is located at one end of the conveying mechanism 5 away from the cutting mechanism 2, and the conveying mechanism 5 is located in the clamping mechanism 3.

[0043] By adopting the above technical scheme, the height difference is utilized by the feeding mechanism 6 to first feed the raw material into the conveying mechanism 5 and push it to the cutting position. The positioning mechanism 4 is electrically connected to the controller 7 to adjust the position of the cutting mechanism 2 to ensure that it is correctly positioned on the frame 1. The driving of the positioning mechanism 4 makes the cutting mechanism 2 more accurate. The clamping mechanism 3 firmly fixes the raw material to prevent it from shifting during the cutting process. The temperature of the processing area is controlled by the conveying mechanism 5 inside the clamping mechanism 3 while controlling the conveying speed to control the expansion and contraction amount to avoid material deformation caused by temperature changes. The material is processed again by the cutting mechanism 2 through a preset compensation amount, thereby achieving the purpose of precise cutting. The cutting mechanism 2 is located above the frame 1, so that precise cutting is performed from top to bottom. Not only can a single rod raw material be accurately cut, but also a group of raw materials of different lengths that need to be processed can be cut simultaneously through the control of the conveying mechanism 5, thereby achieving the purpose of simultaneous processing of the entire group in the cutting process of the pulley shaft. The entire process is uniformly managed by the controller 7 to realize automated production, greatly improving production efficiency and processing accuracy.

[0044] Furthermore, the frame 1 includes a chip storage groove 11, a chip sliding plate 12, a sliding groove 13 and a discharge plate 14, the chip sliding plate 12 and the chip storage groove 11 are fastened together, the discharge plate 14 and the chip storage groove 11 are fastened together, the sliding groove 13 and the chip storage groove 11 are communicated, and the discharge plate 14 and the sliding groove 13 are communicated.

[0045] By adopting the above technical solution, the chip trough 11 is located inside the frame 1, and is fastened to the chip trough 11 by the chip slide plate 12, ensuring that the chips generated during the cutting process can slide directly into the chip trough 11, and the unloading plate 14 is also fastened to the chip trough 11, and is communicated with the sliding groove 13, allowing the cut material to be smoothly moved from the processing area to the unloading area, and the chips are automatically collected into the chip trough 11 by the chip slide plate 12, and the cut materials are smoothly transferred to the unloading plate 14 through the sliding groove 13, thereby realizing continuous production and efficient material processing. This design not only optimizes the cleanliness and safety of the workplace, but also improves the overall operating efficiency, reduces the need for manual cleaning, and ensures the smooth operation of the production line.

[0046] Furthermore, the cutting mechanism 2 includes a cutting tool 21, a side disc tool 22, a cutting motor 23, a lifting cylinder 24, a lifting block 25, a fixed block 26 and a transverse telescopic cylinder 27. The transverse telescopic cylinder 27 is transmission-connected to the cutting tool 21, the cutting motor 23 is transmission-connected to the cutting tool 21, the cutting tool 21 is transmission-connected to the side disc tool 22, the cutting motor 23 is fastened to the lifting block 25, the lifting block 25 is hinged to the fixed block 26, the cutting motor 23 is electrically connected to the controller 7, the lifting cylinder 24 is fastened to the positioning mechanism 4, and the fixed block 26 is fastened to the positioning mechanism 4.

[0047] By adopting the above technical scheme, the cutting motor 23 drives the cutting tool 21 to perform high-speed rotation cutting. At the same time, the side disc tool 22 works synchronously with the cutting tool 21. After the reserved compensation amount, the raw material is positioned and compensated by the side disc tool 22. The lateral telescopic cylinder 27 controls the lateral movement of the cutting tool 21 so that the cutting covers a wider area. The lifting cylinder 24 controls the up and down movement of the lifting block 25, which allows the cutting tool 21 to adjust the vertical position according to the thickness of the workpiece. The articulated design of the lifting block 25 and the fixed block 26 allows a certain range of tilt to meet the cutting requirements at different angles. Through the electrical connection with the controller 7, the entire cutting mechanism 2 can achieve precise position control and motion coordination, thereby realizing efficient and accurate automatic cutting operations, improving cutting efficiency and processing accuracy, and optimizing operational flexibility and material processing capabilities.

[0048] Furthermore, the clamping mechanism 3 includes a clamping assembly 31, a rotating assembly 32, a moving block 33, a fastening block 34, a moving screw 35, a moving motor 36 and a sliding rod 37. The clamping assembly 31 and the rotating assembly 32 are fastened together, the rotating assembly 32 and the moving block 33 are fastened together, and the rotating assembly 32 and the fastening block 34 are fastened together, so the moving motor 36 and the moving screw 35 are transmission-connected, the moving block 33 and the moving screw 35 are transmission-connected, the moving motor 36 and the frame 1 are fastened together, and the moving block 33 and the sliding rod 37 are slidingly connected.

[0049] By adopting the above technical solution, the clamping component 31 is tightly connected to the rotating component 32, allowing the workpiece to rotate while being fixed so as to be processed from multiple angles. The rotating component 32 is further tightly connected to the moving block 33 and the fastening block 34 to ensure its stability and accuracy. The moving motor 36 is driven by the moving screw 35 to achieve precise linear movement of the moving block 33 along the sliding rod 37, thereby adjusting the position of the workpiece, allowing the clamping mechanism 3 to adjust the precise position and angle of the workpiece during the cutting process, thereby improving the flexibility and accuracy of the processing. The clamping mechanism 3 can achieve fast and precise workpiece positioning, optimize the processing process, and improve production efficiency and product quality, which is particularly important in applications that require multi-angle or fine cutting.

[0050] Furthermore, the clamping assembly 31 includes a clamping shell 311, a clamping motor 312, a clamping plate 313, a clamping finger 314, a connecting rod 315, a sliding block 316, a rotating plate 317, a rotating rod 318, a clamping cylinder 319 and a second elastic member 320, the clamping motor 312 and the clamping shell 311 are fastened, the clamping motor 312 and the rotating plate 317 are transmission-connected, the rotating plate 317 and the clamping shell 311 are rotationally connected, the rotating plate 317 and the rotating rod 318 are transmission-connected, the rotating plate 317 and the rotating rod 318 are slidingly connected, and the rotating rod 318 and the clamping plate 313 are transmission-connected. The clamping finger 314 and the connecting rod 315 are hinged, the connecting rod 315 and the sliding block 316 are hinged, the sliding block 316 and the clamping plate 313 are slidably connected, the sliding block 316 and the connecting rod 315 are transmission-connected, the clamping cylinder 319 and the sliding block 316 are transmission-connected, the clamping cylinder 319 and the clamping shell 311 are fastened, the second elastic member 320 and the clamping plate 313 are fastened, the clamping motor 312 and the controller 7 are electrically connected, the clamping cylinder 319 and the controller 7 are electrically connected, and a flow chamber 3141 is provided on the clamping finger 314, and the flow chamber 3141 is connected to the conveying mechanism 5.

[0051] By adopting the above technical solution, the clamping motor 312 is installed in the clamping shell 311 and drives the rotating plate 317 to rotate. The rotating plate 317 transmits power to the clamping plate 313 through the rotating rod 318 to realize the rotation and fine adjustment of the workpiece. The sliding connection between the rotating plate 317 and the rotating rod 318 allows flexible angle adjustment. The clamping finger 314 is hinged with the sliding block 316 through the connecting rod 315, so that the clamping finger 314 can slide on the clamping plate 313 to adapt to workpieces of different sizes. The clamping cylinder 319 is connected to the sliding block 316 to provide the required power to adjust the position of the clamping plate 313 to achieve accurate fixation of the workpiece. The flow chamber 3141 is set on the clamping finger 314 and is connected to the conveying mechanism 5, which helps to adjust or cool the workpiece during the processing. It is electrically connected and coordinated through the controller 7, achieving operational accuracy and reliability, improving the flexibility and efficiency of processing, and is particularly suitable for complex processing tasks that require high-precision positioning and fixing.

[0052] Furthermore, the rotating assembly 32 includes a rotating outer shell 321, a rotating inner shell 322, a rotating slider 323, a clamping block 324, a third elastic member 325, a rotating motor 326 and a fourth elastic member 327. The rotating outer shell 321 is fastened to the positioning mechanism 4, the rotating motor 326 is transmission-connected to the rotating slider 323, the rotating motor 326 is fastened to the rotating outer shell 321, the rotating motor 326 is transmission-connected to the rotating slider 323, the rotating slider 323 is slidingly connected to the rotating inner shell 322, the rotating slider 323 is fastened to the third elastic member 325, the third elastic member 325 is fastened to the rotating inner shell 322, the fourth elastic member 327 is fastened to the rotating outer shell 321, the fourth elastic member 327 is fastened to the clamping block 324, the clamping block 324 is clamped to the rotating inner shell 322, and the rotating inner shell 322 is fastened to the clamping shell 311.

[0053] By adopting the above technical solution, the rotating motor 326 is installed in the rotating outer shell 321, directly driving the rotating slider 323 to achieve efficient power transmission. The sliding connection between the rotating slider 323 and the rotating inner shell 322 allows the rotating slider 323 to move freely in the rotating inner shell 322. Such a design allows the entire rotating assembly 32 to achieve flexible angle adjustment while maintaining stability. The addition of the third elastic member 325 and the fourth elastic member 327 provides the necessary elasticity and buffer, increases the durability and adaptability of the system, and ensures the smoothness of the rotation action. The clamping design of the clamping block 324 and the rotating inner shell 322 ensures the precise positioning and locking of the assembly during the rotation process. The design and implementation of the entire rotating assembly 32 ensures high-precision rotation adjustment, optimizes processing quality and efficiency, is particularly suitable for workpieces with complex shapes or that require multi-angle processing, and significantly improves the flexibility and accuracy of mechanical operations.

[0054] Furthermore, the positioning mechanism 4 includes a positioning clamp 41, an infrared sensor 42, a positioning block 43, a sliding block 48, a first elastic member 44, a positioning motor 45, a compensation cylinder 46 and a positioning screw 47. The positioning clamp 41 is fastened to the first elastic member 44, the positioning clamp 41 is slidably connected to the positioning block 43, the first elastic member 44 is fastened to the positioning clamp 41, the infrared sensor 42 is fastened to the positioning block 43, the positioning block 43 is slidably connected to the frame 1, and the positioning block 43 is slidably connected to the sliding rod 37. Then, the positioning motor 45 is fastened to the frame 1, the positioning motor 45 is transmission-connected to the positioning screw 47, the positioning block 43 is transmission-connected to the positioning screw 47, the sliding block 48 is slidingly connected to the positioning block 43, the first elastic member 44 is fastened to the sliding block 48, the compensating cylinder 46 is fastened to the sliding block 48, the compensating cylinder 46 is fastened to the positioning block 43, the infrared sensor 42 is electrically connected to the controller 7, the positioning motor 45 is electrically connected to the controller 7, and the compensating cylinder 46 is electrically connected to the controller 7.

[0055] By adopting the above technical solution, in the working process, the positioning motor 45 drives the positioning block 43 to move precisely linearly along the sliding rod 37 through the positioning screw 47. At the same time, the positioning clamp 41 provides a certain elasticity through the connection with the first elastic member 44 to adapt to workpieces of different shapes and sizes. The infrared sensor 42 is fixed on the positioning block 43 to monitor the position of the workpiece in real time to ensure that it is within the predetermined position. These position information are transmitted to the controller 7 for real-time adjustment to achieve the best processing accuracy. The compensation cylinder 46 is connected to the sliding block 48 and the positioning block 43 to provide the necessary force adjustment for the entire system to cope with the deviations that may occur during the machining process, so that the entire positioning mechanism 4 can not only efficiently adjust and position the workpiece, but also realize automatic precise control through the electrical connection between the infrared sensor 42 and the controller 7, which greatly improves the processing efficiency and accuracy. Whether in high-speed processing or in the precise manufacturing process of complex workpieces, it can maintain extremely high position accuracy and operation stability, significantly improving the production reliability and product quality.

[0056] Further, the conveying mechanism 5 includes a connecting pipe 51, a conveying frame 52, a conveying wheel 53, a conveying block 54, a conveying motor 55, a conveying hydraulic cylinder 56 and a water pump 57. The conveying frame 52 is provided with a temperature control chamber 521, the connecting pipe 51 is connected to the flow chamber 3141, the connecting pipe 51 and the temperature control chamber 521 are slidably connected, the temperature control chamber 521 and the conveying frame 52 are tightly connected, the temperature control chamber 521 and the connecting pipe 51 are connected, the temperature control chamber 521 and the water pump 57 are connected, the conveying frame 52 is rotatably connected, the conveying wheel 53 and the conveying block 54 are rotatably connected, the conveying motor 55 and the conveying wheel 53 are transmission-connected, the conveying motor 55 and the conveying block 54 are tightly connected, the conveying hydraulic cylinder 56 and the conveying frame 52 are tightly connected, the conveying hydraulic cylinder 56 and the conveying block 54 are transmission-connected, the conveying hydraulic cylinder 56 and the controller 7 are electrically connected, the water pump 57 and the controller 7 are electrically connected, and the conveying motor 55 and the controller 7 are electrically connected.

[0057] By adopting the above technical solution, the conveying motor 55 drives the conveying wheel 53 and then drives the conveying block 54 to move smoothly along the conveying frame 52 to realize continuous advancement of the material. The temperature control chamber 521 is connected with the flow chamber 3141 through the connecting pipe 51 to ensure that the material is in a controlled temperature environment during the conveying process. The water pump 57 maintains the circulation of the liquid in the temperature control chamber 521. In addition, the conveying hydraulic cylinder 56 is tightly connected to the conveying frame 52 and drives the conveying block 54 to provide additional power support to adapt to materials of different weights or sizes, so that the conveying mechanism 5 can adjust the processing environment through the temperature control chamber 521 while maintaining material stability and precise position control, so as to prevent deformation or other quality problems caused by temperature fluctuations of the material. The electrical connection between the controller 7 and the conveying motor 55, the water pump 57 and the conveying hydraulic cylinder 56 ensures the coordinated operation of the entire system, realizes automatic control, and improves processing efficiency and product quality, so that it is suitable for high-standard production lines that require precision processing and temperature-sensitive materials.

[0058] Furthermore, the feeding mechanism 6 includes a feeding frame 61, a lifting plate 62, a first lifting cylinder 63, a second lifting cylinder 64, a displacement block 65, a feeding wheel 66, a transmission motor 67, a displacement rod 68, a displacement motor 69, a displacement block 65 and a lifting block 610. The feeding frame 61 is fastened to the frame body 1, the feeding frame 61 is hinged to the lifting plate 62, the first lifting cylinder 63 is fastened to the feeding frame 61, the first lifting cylinder 63 is transmission-connected to the lifting plate 62, and the second lifting cylinder 64 is fastened to the feeding frame 61. The lifting cylinder 64 is firmly connected to the loading rack 61, the second lifting cylinder 64 is transmission-connected to the lifting block 610, the lifting block 610 is rotationally connected to the loading wheel 66, the transmission motor 67 is transmission-connected to the loading wheel 66, the transmission motor 67 is firmly connected to the lifting block 610, the displacement motor 69 is transmission-connected to the displacement rod 68, the displacement motor 69 is firmly connected to the loading rack 61, the displacement rod 68 is transmission-connected to the displacement block 65, and the displacement block 65 is slidingly connected to the loading rack 61.

[0059] By adopting the above technical solution, the first lifting cylinder 63 and the second lifting cylinder 64 are respectively connected to the loading rack 61 and its power output components (lifting plate 62 and lifting block 610), responsible for the vertical lifting and positioning of the raw materials. The lifting plate 62 is actuated by the first lifting cylinder 63 to lift the raw materials from a lower position to the working height, and the lifting block 610 further adjusts the position of the raw materials through the second cylinder to ensure that it is accurately connected to the processing line. The loading wheel 66 is driven by the transmission motor 67 and is responsible for pushing the raw materials along the loading rack 61 to the processing area. The displacement motor 69 controls the displacement rod 68 and the displacement block 65 to achieve the lateral positioning of the raw materials and ensure their precise alignment, thereby improving the automation level and operating efficiency of the production line, reducing the need for manual loading and the related time consumption, and ensuring the continuity and accuracy of the processing by automatically adjusting the height and position of the raw materials, which significantly improves the fluency of the entire production process and the product quality.

[0060] Working principle of the present invention: the first lifting cylinder 63 lifts the lifting plate 62 and the raw materials thereon from a lower initial position to a height suitable for feeding, after which the second lifting cylinder 64 fine-tunes the position of the material to ensure its precise docking with the cutting mechanism 2. The precise control of these two cylinders avoids any deviation of the material during the loading process. The conveying motor 55 controls the advancement of each piece of material by driving the conveying wheel 53, and the independent conveying block 54 sets a specific feeding speed and position for each piece of material to ensure that even materials of different lengths can arrive at the cutting area synchronously. This precise control reduces the deviation caused by asynchronous material movement during the cutting process, so a group of materials of different lengths can be processed. The temperature control chamber 521 is connected to the cutting area and can dynamically adjust the temperature of the workpiece according to the properties of the material and processing requirements. At the same time, it is connected to the water pump 57 and the flow chamber 3141 to ensure uniform distribution and precise control of the temperature, which can be achieved during the cutting process. The temperature is adjusted in real time. During the cutting process, the clamping finger 314 is heated by the heat exchange fluid to prevent deviation during cutting. The side disc tool 22 is used for cooling compensation at the compensation point to achieve the purpose of preventing deviation. The clamping mechanism 3 drives the clamping plate 313 to rotate in the clamping shell 311 through the clamping motor 312 in the clamping assembly 31. The rotating rod 318 and the rotating plate 317 slide relative to each other, so that the rotating rod 318 drives the opening and closing of the clamping plate 313 to adapt to workpieces of different sizes. At the same time, the clamping finger 314 and the connecting rod 315 are hinged, and the sliding block 316 slides to drive the clamping finger 314 to close, thereby further stabilizing the material and preventing deviation during processing.

[0061] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0062] Finally, it should be noted that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. A cutting device for pulley shaft production with anti-deviating function, characterized in that: The cutting device comprises a frame (1), a cutting mechanism (2), a clamping mechanism (3), a positioning mechanism (4), a conveying mechanism (5), a feeding mechanism (6) and a controller (7); the cutting mechanism (2) and the positioning mechanism (4) are tightly connected; the positioning mechanism (4) and the frame (1) are slidably connected; the clamping mechanism (3) and the frame (1) are tightly connected; the conveying mechanism (5) and the frame (1) are tightly connected; the feeding mechanism (6) and the frame (1) are tightly connected; the controller (7) and the frame (1) are tightly connected; the positioning mechanism (4) and the controller (7) are electrically connected; the conveying mechanism (5) and the controller (7) are electrically connected; the clamping mechanism (3) and the controller (7) are electrically connected; the cutting mechanism (2) is located above the frame (1); the feeding mechanism (6) is located at one end of the conveying mechanism (5) away from the cutting mechanism (2); and the conveying mechanism (5) is located in the clamping mechanism (3); The clamping mechanism (3) comprises a clamping assembly (31), a rotating assembly (32), a moving block (33), a fastening block (34), a moving screw (35), a moving motor (36) and a sliding rod (37); the clamping assembly (31) and the rotating assembly (32) are fastened together, the rotating assembly (32) and the moving block (33) are fastened together, the rotating assembly (32) and the fastening block (34) are fastened together, the moving motor (36) and the moving screw (35) are transmission-connected, the moving block (33) and the moving screw (35) are transmission-connected, the moving motor (36) and the frame (1) are fastened together, and the moving block (33) and the sliding rod (37) are slidingly connected; The clamping assembly (31) comprises a clamping shell (311), a clamping motor (312), a clamping plate (313), a clamping finger (314), a connecting rod (315), a sliding block (316), a rotating plate (317), a rotating rod (318), a clamping cylinder (319) and a second elastic member (320); the clamping motor (312) and the clamping shell (311) are fastened together, the clamping motor (312) and the rotating plate (317) are transmission-connected, the rotating plate (317) and the clamping shell (311) are rotationally connected, the rotating plate (317) and the rotating rod (318) are transmission-connected, the rotating plate (317) and the rotating rod (318) are slidingly connected, the rotating rod (318) and the clamping plate (313) are transmission-connected, and the clamping The finger (314) and the connecting rod (315) are hinged, the connecting rod (315) and the sliding block (316) are hinged, the sliding block (316) and the clamping plate (313) are slidably connected, the sliding block (316) and the connecting rod (315) are transmission-connected, the clamping cylinder (319) and the sliding block (316) are transmission-connected, the clamping cylinder (319) and the clamping shell (311) are fastened, the second elastic member (320) and the clamping plate (313) are fastened, the clamping motor (312) and the controller (7) are electrically connected, the clamping cylinder (319) and the controller (7) are electrically connected, and a flow chamber (3141) is provided on the clamping finger (314), and the flow chamber (3141) is connected to the transmission mechanism (5).

2. A pulley shaft production cutting device with anti-deviating function according to claim 1, characterized in that: The frame (1) comprises a chip storage groove (11), a chip slide plate (12), a sliding groove (13) and a discharge plate (14); the chip slide plate (12) and the chip storage groove (11) are tightly connected; the discharge plate (14) and the chip storage groove (11) are tightly connected; the sliding groove (13) and the chip storage groove (11) are in communication; and the discharge plate (14) and the sliding groove (13) are in communication.

3. The cutting device for pulley shaft production with anti-deviating function according to claim 1, characterized in that: The cutting mechanism (2) comprises a cutting tool (21), a side wheel disc tool (22), a cutting motor (23), a lifting cylinder (24), a lifting block (25), a fixed block (26) and a transverse telescopic cylinder (27); the transverse telescopic cylinder (27) is transmission-connected to the cutting tool (21); the cutting motor (23) is transmission-connected to the cutting tool (21); the cutting tool (21) is transmission-connected to the side wheel disc tool (22); the cutting motor (23) is fixedly connected to the lifting block (25); the lifting block (25) is hinged to the fixed block (26); the cutting motor (23) is electrically connected to a controller (7); the lifting cylinder (24) is fixedly connected to the positioning mechanism (4); and the fixed block (26) is fixedly connected to the positioning mechanism (4).

4. The cutting device for pulley shaft production with anti-deviating function according to claim 1, characterized in that: The rotating assembly (32) comprises a rotating outer shell (321), a rotating inner shell (322), a rotating slider (323), a clamping block (324), a third elastic member (325), a rotating motor (326) and a fourth elastic member (327); the rotating outer shell (321) and the positioning mechanism (4) are fastened together, the rotating motor (326) and the rotating slider (323) are transmission-connected, the rotating motor (326) and the rotating outer shell (321) are fastened together, and the rotating motor (326) and the rotating slider (323) are transmission-connected. The rotating slider (323) and the rotating inner shell (322) are slidably connected, the rotating slider (323) and the third elastic member (325) are firmly connected, the third elastic member (325) and the rotating inner shell (322) are firmly connected, the fourth elastic member (327) and the rotating outer shell (321) are firmly connected, the fourth elastic member (327) and the clamping block (324) are firmly connected, the clamping block (324) and the rotating inner shell (322) are clamped, and the rotating inner shell (322) and the clamping shell (311) are firmly connected.

5. The cutting device for pulley shaft production with anti-deviating function according to claim 1, characterized in that: The positioning mechanism (4) comprises a positioning clamp (41), an infrared sensor (42), a positioning block (43), a sliding block (48), a first elastic member (44), a positioning motor (45), a compensating cylinder (46) and a positioning screw (47); the positioning clamp (41) and the first elastic member (44) are fixedly connected; the positioning clamp (41) and the positioning block (43) are slidably connected; the first elastic member (44) and the positioning clamp (41) are fixedly connected; the infrared sensor (42) and the positioning block (43) are fixedly connected; the positioning block (43) and the frame (1) are slidably connected; the positioning block (43) and the sliding rod (37) are slidably connected; the positioning The positioning motor (45) is fixedly connected to the frame (1), the positioning motor (45) is transmission-connected to the positioning screw (47), the positioning block (43) is transmission-connected to the positioning screw (47), the sliding block (48) is slidingly connected to the positioning block (43), the first elastic member (44) is fixedly connected to the sliding block (48), the compensating cylinder (46) is fixedly connected to the sliding block (48), the compensating cylinder (46) is fixedly connected to the positioning block (43), the infrared sensor (42) is electrically connected to the controller (7), the positioning motor (45) is electrically connected to the controller (7), and the compensating cylinder (46) is electrically connected to the controller (7).

6. The cutting device for producing a pulley shaft with an anti-deviating function according to claim 1, characterized in that: The conveying mechanism (5) comprises a connecting pipe (51), a conveying frame (52), a conveying wheel (53), a conveying block (54), a conveying motor (55), a conveying hydraulic cylinder (56) and a water pump (57); a temperature control chamber (521) is provided on the conveying frame (52); the connecting pipe (51) is connected to the flow chamber (3141); the connecting pipe (51) is slidably connected to the temperature control chamber (521); the temperature control chamber (521) is firmly connected to the conveying frame (52); the temperature control chamber (521) is connected to the connecting pipe (51); the temperature control chamber (521) is connected to the water pump (57); The conveying frame (52) and the rotating housing (321) are rotatably connected, the conveying wheel (53) and the conveying block (54) are rotatably connected, the conveying motor (55) and the conveying wheel (53) are transmission-connected, the conveying motor (55) and the conveying block (54) are fixedly connected, the conveying hydraulic cylinder (56) and the conveying frame (52) are fixedly connected, the conveying hydraulic cylinder (56) and the conveying block (54) are transmission-connected, the conveying hydraulic cylinder (56) and the controller (7) are electrically connected, the water pump (57) and the controller (7) are electrically connected, and the conveying motor (55) and the controller (7) are electrically connected.

7. The cutting device for producing a pulley shaft with an anti-deviating function according to claim 1, characterized in that: The feeding mechanism (6) comprises a feeding frame (61), a lifting plate (62), a first lifting cylinder (63), a second lifting cylinder (64), a displacement block (65), a feeding wheel (66), a transmission motor (67), a displacement rod (68), a displacement motor (69) and a lifting block (610); the feeding frame (61) and the frame body (1) are fastened together; the feeding frame (61) and the lifting plate (62) are hinged together; the first lifting cylinder (63) and the feeding frame (61) are fastened together; the first lifting cylinder (63) and the lifting plate (62) are transmission-connected; the second lifting cylinder (64) The lifting block (610) is connected to the loading rack (61) in a transmission connection. The lifting block (610) is connected to the loading wheel (66) in a rotation connection. The transmission motor (67) is connected to the loading wheel (66) in a transmission connection. The transmission motor (67) is connected to the lifting block (610) in a transmission connection. The displacement motor (69) is connected to the displacement rod (68) in a transmission connection. The displacement motor (69) is connected to the loading rack (61) in a transmission connection. The displacement rod (68) is connected to the displacement block (65). The displacement block (65) is connected to the loading rack (61) in a sliding connection.

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