A thread milling processing device with a burr removal function

Abstract

The present invention discloses a thread milling processing device with a burr removal function, which relates to the technical field of metal processing. The processing device includes a processing bed body, on which a processing table is arranged. The processing table is slidably connected to the processing bed body. A transverse moving frame is arranged on the processing table, and a transverse motor is arranged on the transverse moving frame. A longitudinal moving frame is arranged on the transverse moving frame, and a milling seat is arranged on the longitudinal moving frame. A milling motor is arranged on the milling seat, a reduction box is arranged at the output end of the milling motor, a switching table is arranged at the output end of the reduction box, and a milling cutter is arranged on the switching table. A processing mold is arranged on the processing table, a cleaning tank is arranged inside the processing table, a cleaning pump is arranged on the cleaning tank, and a cleaning spray gun is arranged at the output end of the cleaning pump. A boosting component is arranged on the switching table, and a burr removal component is arranged on the processing table. The present invention has the functions of automatic workpiece recognition and automatic burr removal.

Description

Technical Field

[0001] The present invention relates to the technical field of metal processing, and in particular to a thread milling processing device with a burr removal function. Background Art

[0002] Thread processing is a common processing method in the industrial manufacturing field. Disk-shaped milling cutters or comb-shaped milling cutters are used for milling on thread milling machines. Usually, milling cutters are used to mill internal and external ordinary threads and taper threads. The pitch accuracy of thread milling can generally reach grades 8-9, and the productivity is very high. In addition, some manufacturers use five-axis CNC machine tools for thread milling processing, which fully improves the processing accuracy of thread milling, the surface finish of the thread is good, and it is not restricted by the thread helix direction and size.

[0003] During the process of thread processing, it largely depends on the hardness and strength of the workpiece. The precision and roughness of the thread are greatly affected by the strength of its own properties. Therefore, special attention needs to be paid during the processing, and the burr amount of the workpiece also greatly affects the grade of the workpiece, and it is very likely to cause a large number of unqualified products. Summary of the Invention

[0004] The purpose of the present invention is to provide a thread milling processing device with a burr removal function to solve the problems raised in the prior art.

[0005] To achieve the above purpose, the present invention provides the following technical solutions:

[0006] The processing equipment includes a processing bed body, on which a processing table is arranged. The processing table is slidably connected to the processing bed body. A transverse moving frame is arranged on the processing table, and a transverse motor is arranged on the transverse moving frame. A longitudinal moving frame is arranged on the transverse moving frame, and a milling seat is arranged on the longitudinal moving frame. A milling motor is arranged on the milling seat, a speed reducer is arranged on the output end of the milling motor, a switching table is arranged on the output end of the speed reducer, and a milling cutter is arranged on the switching table. A processing mold is arranged on the processing table, a cleaning tank is arranged inside the processing table, a cleaning pump is arranged on the cleaning tank, and a cleaning spray gun is arranged on the output end of the cleaning pump. A boosting component is arranged on the switching table, and a burr removing component is arranged on the processing table. When processing, first place the workpiece to be processed into the processing mold, and the processing mold clamps the workpiece. Under the action of the processing table, it will be sent into the processing bed body. The transverse motor drives the transverse moving frame and the longitudinal moving frame. The transverse moving frame will contact the processing table. The milling frame moves on the longitudinal moving frame, and then cooperative processing is carried out around the processing column. The milling motor drives the milling cutter to process and form threads. During the processing, the boosting component will detect the milling seat to control the processing power and speed. At the same time, the cleaning pump supplies cleaning liquid to the cleaning spray gun, and the burr removing component will interfere with the direction of the cleaning liquid to remove the chips generated during processing. When it is necessary to adjust the thread specification, only need to rotate the switching table.

[0007] Processing tracks are arranged on the processing bed body. A moving gear is arranged on the output end of the transverse motor. The moving gear meshes with the teeth on the processing tracks. The transverse moving frame is slidably connected to the processing tracks. A profiling track is arranged on the transverse moving frame. A profiling motor is arranged on the longitudinal moving frame. The output end of the profiling motor meshes with the teeth on the profiling track. The longitudinal moving frame is slidably connected to the profiling track. When processing, the transverse motor drives the moving gear to move on the processing tracks. One side of the transverse moving frame is embedded in the processing tracks to play a role in restricting the direction. Multiple lubricating beads can be added to the processing tracks to assist in moving. And the profiling motor will drive the longitudinal moving frame to move on the profiling track. Its structure is similar to that of the transverse moving frame. Driven by the milling motor, a three-dimensional processing space is formed.

[0008] A longitudinal moving frame is provided with a limiting groove, within which a lifting rack is arranged. A lifting motor is disposed within a milling seat, and a locking disc is provided at the output end of the lifting motor. A limiting gear and a lifting gear are arranged on the locking disc. The limiting gear meshes with the lifting gear and the lifting rack respectively, and the lifting gear meshes with the lifting rack. A limiting elastic piece is arranged on the locking disc, which is in sliding contact with the limiting gear. The limiting elastic piece and the locking disc are rotationally connected through an electric shaft. During machining, to avoid deviation in the lifting process caused by the resistance of the workpiece, a structure for assisting lifting is required at this time. The lifting motor drives the lifting gear to rotate. During the movement, the lifting gear will push the limiting elastic piece, causing the limiting elastic piece to release the limiting gear. The limiting gear will rotate on the locking disc. When the lifting gear stops rotating, the limiting elastic piece will engage with the teeth of the limiting gear and lock the locking disc.

[0009] The processing die includes a loading tray and multiple sliding claws. Each sliding claw is slidably connected to the loading tray. A rotating nut is provided at the bottom end of the loading tray, and each sliding claw meshes with the thread on the rotating nut respectively. A moving handle is arranged on the loading tray, and the loading tray is rotationally connected to the processing table. The processing table is rotationally connected to the processing bed body. A blocking buckle is arranged on the processing bed body, and the loading tray is in sliding contact with the blocking buckle. During processing, first place the workpiece on the loading tray, then turn the rotating nut. The thread on the rotating nut drives the sliding claws to slide on the loading tray and approach the workpiece. Subsequently, drive the loading tray to rotate through the moving handle until the blocking buckle on the loading tray is locked. At this time, preparation for processing is completed.

[0010] The boosting component includes a feedback board, which is arranged on the switching table. A tool holder is arranged on the switching table. A locking sleeve is arranged on the feedback board, and the milling cutter passes through the locking sleeve. The locking sleeve is rotationally connected to the feedback board. An amplifier is arranged on the feedback board, which is in sliding contact with the locking sleeve. The amplifier is electrically connected to the reduction gearbox through a wire. During the processing process, the boosting component needs to provide timely feedback on the strength of the workpiece and the vibration condition of the milling cutter during processing. Once the vibration is too obvious, it will not only cause damage to the workpiece, but also generate more burrs, and the processed product will be unqualified. More dangerously, the tool will break, which will cause great physical damage to the surrounding staff. When the tool is working, it will transmit power to the locking sleeve. When encountering a workpiece with a higher hardness, the locking sleeve will vibrate, and the vibration will be captured by the amplification sleeve, and then the captured signal will be transmitted into the control box.

[0011] A feedback block is slidably connected inside the locking sleeve. Multiple feedback grooves are provided inside the locking sleeve. A feedback spring is arranged inside the feedback groove. The two ends of the feedback spring respectively abut against the feedback block and the feedback groove. A control box is arranged on the processing table. The control box is electrically connected to the lifting motor, the transverse motor, and the profiling motor through wires. The control box is electrically connected to the amplifier and the reduction box through wires. When the tool rotates, the feedback block will slide inside the locking sleeve under the action of centrifugal force and can be reset in time under the action of the feedback spring. When the tool vibrates, the feedback block will be ejected from the locking sleeve, contact the amplifier, and transmit a signal. The control box controls the moving speeds of the lifting motor, the transverse motor, and the profiling motor, so that the workpiece processing is more uniform and the damage to the tool is reduced.

[0012] An adaptation ring is arranged inside the amplifier. The adaptation ring is electrically connected to the amplifier. The adaptation ring is connected to the inner wall of the amplifier through a traction spring. An exciter is arranged on the switching table. The output end of the exciter is connected to the amplifier. An induction circuit board is arranged inside the amplifier. The induction circuit board is electrically connected to the control box through a wire. The adaptation ring is in sliding contact with the induction circuit board. The feedback block will contact the adaptation ring. At the same time, the exciter will drive the adaptation ring to vibrate regularly. Under the touch of the feedback block, the adaptation ring will generate a large vibration. Under the signal collection of the induction circuit board, the induction circuit board transmits a deflection signal to know the hardness of the current workpiece. The control box adjusts the current working state to reduce the damage to the workpiece.

[0013] The burr removal assembly includes a linkage rod and a slag remover. The linkage rod is rotatably connected to the switching table and the feedback plate through a rotating shaft. One end of the linkage rod is rotatably connected to the output end of the exciter. The end of the linkage rod away from the output end of the exciter is rotatably connected to the slag remover. The slag remover is slidably connected to the switching table. The exciter drives the slag remover to vibrate through the linkage rod. The slag remover will remove the burrs generated during the milling process and reduce the influence of chip adhesion on workpiece processing.

[0014] A conversion air gun is arranged on the processing table. The conversion air gun is rotatably connected to the processing table. Teeth are arranged on the conversion air gun. A conversion motor is arranged inside the processing table. The output end of the conversion motor meshes with the teeth on the conversion air gun. The conversion motor is electrically connected to the control box through a wire. During the processing, it is necessary to remove the chips in time. The conversion motor operates to drive the conversion air gun to rotate. The conversion air gun cooperates with the cleaning spray gun, so that the cleaning spray gun can timely remove various chips during the processing and avoid these chips from scratching the workpiece.

[0015] Compared with the prior art, the beneficial effects of the present invention are:

[0016] The present invention adopts a feedback-type structural component to achieve the strength detection of the workpiece and the working state of the tool during the machining process. Through the resonant-type structural component, more kinds of minute vibrations can be fully captured, and more accurate strength changes and the tolerance of the tool can be obtained. At the same time, using the detected information, timely data regulation is carried out to adjust the various machining states of the equipment, adjust the machining speed and the position change speed, so as to fully adapt to various types of workpieces, making the processed product have a better effect. At the same time, the problem of tool breakage is reduced, which provides protection for the personal safety of the machining personnel. In addition, the present invention also adopts a follow-up technical means for removing burrs on the workpiece, which can fully wash and remove burrs and generated debris, reducing the scratch damage and other problems brought to the workpiece by these. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is a three-dimensional structural schematic diagram of the present invention;

[0018] Figure 2 is a top-view structural schematic diagram of the present invention;

[0019] Figure 3 is a partial cross-sectional structural schematic diagram of the machining table of the present invention;

[0020] Figure 4 is a structural schematic diagram of the milling seat of the present invention;

[0021] Figure 5 is a partial cross-sectional structural schematic diagram of the machining table of the present invention;

[0022] Figure 6 is Figure 5 a structural schematic diagram of the partial cross-section A in;

[0023] Figure 7 is a structural schematic diagram of the bottom end of the switching table of the present invention;

[0024] Figure 8 is a partial cross-sectional structural schematic diagram of the machining bed body of the present invention;

[0025] Figure 9 is Figure 8 a structural schematic diagram of the partial cross-section B in;

[0026] In the figure: 1. Machining bed; 101. Machining track; 2. Machining table; 3. Transverse moving frame; 301. Copying track; 4. Transverse motor; 401. Moving gear; 5. Longitudinal moving frame; 501. Copying motor; 502. Limiting groove; 503. Lifting rack; 504. Lifting motor; 505. Locking disc; 506. Limiting gear; 507. Lifting gear; 508. Limiting spring plate; 6. Milling seat; 7. Milling motor; 8. Reducing box; 9. Switching table; 10. Milling cutter; 11. Machining die; 1101. Loading tray; 1102. Sliding claw; 1103. Rotating nut; 1104. Moving handle; 1105. Blocking buckle; 12. Cleaning tank; 13. Cleaning pump; 14. Cleaning spray gun; 15. Boosting component; 1501. Feedback plate; 1502. Tool seat; 1503. Locking sleeve; 1504. Amplifier; 1505. Feedback block; 1506. Feedback groove; 1507. Feedback spring; 1508. Adaptation ring; 1509. Traction spring; 1510. Vibrator; 1511. Inductive circuit board; 16. Burr removal component; 1601. Link rod; 1602. Deslagger; 1603. Conversion air gun; 1604. Conversion motor; 17. Control box. Specific implementation mode

[0027] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0028] Embodiment: As Figures 1-9As shown in the figure, the present invention provides a technical solution. The processing equipment includes a processing bed 1, on which a processing table 2 is provided. The processing table 2 is slidably connected to the processing bed 1. A transverse moving frame 3 is provided on the processing table 2, a transverse motor 4 is provided on the transverse moving frame 3, a longitudinal moving frame 5 is provided on the transverse moving frame 3, a milling seat 6 is provided on the longitudinal moving frame 5, a milling motor 7 is provided on the milling seat 6, a reduction box 8 is provided at the output end of the milling motor 7, a switching table 9 is provided at the output end of the reduction box 8, a milling cutter 10 is provided on the switching table 9, a processing die 11 is provided on the processing table 2, a cleaning tank 12 is provided inside the processing table 2, a cleaning pump 13 is provided on the cleaning tank 12, a cleaning spray gun 14 is provided at the output end of the cleaning pump 13, an assisting component 15 is provided on the switching table 9, and a burr removing component 16 is provided on the processing table 2. When processing, first place the workpiece to be processed into the processing die 11, and the processing die 11 clamps the workpiece. Under the action of the processing table 2, it will be sent into the processing bed 1. The transverse motor 4 drives the transverse moving frame 3 and the longitudinal moving frame 5. The transverse moving frame 3 will contact the processing table 2. The milling frame moves on the longitudinal moving frame 5, and then cooperative processing is carried out around the processing column. The milling motor 7 drives the milling cutter 10 to process and form a thread. During the processing, the assisting component 15 will detect the milling seat 6 to control the processing power and speed. At the same time, the cleaning pump 13 supplies cleaning liquid to the cleaning spray gun 14, and the burr removing component 16 will interfere with the direction of the cleaning liquid to remove the chips generated during processing. When it is necessary to adjust the thread specification, only need to rotate the switching table 9.

[0029] A processing track 101 is provided on the processing bed 1. A moving gear 401 is provided at the output end of the transverse motor 4. The moving gear 401 meshes with the teeth on the processing track 101. The transverse moving frame 3 is slidably connected to the processing track 101. A profiling track 301 is provided on the transverse moving frame 3. A profiling motor 501 is provided on the longitudinal moving frame 5. The output end of the profiling motor 501 meshes with the teeth on the profiling track 301. The longitudinal moving frame 5 is slidably connected to the profiling track 301. When processing, the transverse motor 4 drives the moving gear 401 to move on the processing track 101. One side of the transverse moving frame 3 is embedded in the processing track 101 to play a role in restricting the direction. Multiple lubricating beads can be added to the processing track 101 to assist in moving. And the profiling motor 501 will drive the longitudinal moving frame 5 to move on the profiling track 301. Its structure is similar to that of the transverse moving frame 3. Driven by the milling motor 7, a three-dimensional processing space is formed.

[0030] A longitudinal moving frame 5 is provided with a limiting groove 502. An elevating rack 503 is arranged in the limiting groove 502. An elevating motor 504 is arranged in a milling seat 6. A locking disc 505 is arranged at the output end of the elevating motor 504. A limiting gear 506 and an elevating gear 507 are arranged on the locking disc 505. The limiting gear 506 meshes with the elevating gear 507 and the elevating rack 503 respectively. The elevating gear 507 meshes with the elevating rack 503. A limiting elastic piece 508 is arranged on the locking disc 505. The limiting elastic piece 508 is in sliding contact with the limiting gear 506. The limiting elastic piece 508 is rotationally connected to the locking disc 505 through an electric shaft. During machining, in order to avoid deviation in the elevating process caused by the resistance of the workpiece, a structure for auxiliary elevation is required at this time. The elevating motor 504 drives the elevating gear 507 to rotate. During the moving process, the elevating gear 507 will push the limiting elastic piece 508, so that the limiting elastic piece 508 releases the limiting gear 506. The limiting gear 506 will rotate on the locking disc 505. When the elevating gear 507 stops rotating, the limiting elastic piece 508 will mesh with the teeth on the limiting gear 506 and lock the locking disc 505.

[0031] The processing die 11 includes a loading tray 1101 and a plurality of sliding claws 1102. Each sliding claw 1102 is slidably connected to the loading tray 1101. A rotating nut 1103 is arranged at the bottom end of the loading tray 1101. Each sliding claw 1102 meshes with the thread on the rotating nut 1103 respectively. A moving handle 1104 is arranged on the loading tray 1101. The loading tray 1101 is rotationally connected to the processing table 2. The processing table 2 is rotationally connected to the processing bed 1. A blocking buckle 1105 is arranged on the processing bed 1. The loading tray 1101 is in sliding contact with the blocking buckle 1105. During processing, first place the workpiece on the loading tray 1101, then turn the rotating nut 1103. The thread on the rotating nut 1103 drives the sliding claw 1102 to slide on the loading tray 1101 and approach the workpiece. Then drive the loading tray 1101 to rotate through the moving handle 1104 until the blocking buckle 1105 on the loading tray 1101 is locked. At this time, preparation for processing is completed.

[0032] The assisting component 15 includes a feedback board 1501 which is arranged on the switching table 9. A tool holder 1502 is arranged on the switching table 9. A locking sleeve 1503 is arranged on the feedback board 1501. The milling cutter 10 passes through the locking sleeve 1503. The locking sleeve 1503 is rotatably connected to the feedback board 1501. An amplifier 1504 is arranged on the feedback board 1501. The amplifier 1504 is in sliding contact with the locking sleeve 1503. The amplifier 1504 is electrically connected to the reduction gearbox 8 through a wire. During the machining process, the assisting component 15 needs to timely feedback the strength of the workpiece, as well as the vibration condition of the milling cutter 10 during the machining process. Once the vibration is too obvious, it will not only cause damage to the workpiece, but also generate more burrs. The processed product is also unqualified. More dangerously, the cutter will break, which will cause great physical damage to the surrounding workers. When the cutter is working, it will transmit power to the locking sleeve 1503. When encountering a workpiece with higher hardness, the locking sleeve 1503 will vibrate, and the vibration will be captured by the amplifier sleeve, and then the captured signal will be transmitted into the control box 17.

[0033] A feedback block 1505 is slidably connected in the locking sleeve 1503. A plurality of feedback grooves 1506 are arranged in the locking sleeve 1503. A feedback spring 1507 is arranged in the feedback groove 1506. Two ends of the feedback spring 1507 respectively abut against the feedback block 1505 and the feedback groove 1506. A control box 17 is arranged on the machining table 2. The control box 17 is electrically connected to the lifting motor 504, the transverse motor 4, and the profiling motor 501 through wires. The control box 17 is electrically connected to the amplifier 1504 and the reduction gearbox 8 through wires. When the cutter rotates, the feedback block 1505 will slide in the locking sleeve 1503 under the action of centrifugal force, and can be reset in time under the action of the feedback spring 1507. When the cutter vibrates, the feedback block 1505 will be ejected from the locking sleeve 1503. The feedback block 1505 will contact the amplifier 1504 and transmit a signal, and the control box 17 controls the moving speeds of the lifting motor 504, the transverse motor 4, and the profiling motor 501, so that the workpiece machining is more uniform and the damage to the cutter is also reduced.

[0034] An adaptation loop 1508 is provided inside the amplifier 1504. The adaptation loop 1508 is electrically connected to the amplifier 1504. The adaptation loop 1508 is connected to the inner wall of the amplifier 1504 through a traction spring 1509. An exciter 1510 is provided on the switching table 9. The output end of the exciter 1510 is connected to the amplifier 1504. An induction circuit board 1511 is provided inside the amplifier 1504. The induction circuit board 1511 is electrically connected to the control box 17 through a wire. The adaptation loop 1508 is in sliding contact with the induction circuit board 1511. The feedback block 1505 will come into contact with the adaptation loop 1508. At the same time, the exciter 1510 will drive the adaptation loop 1508 to vibrate regularly. Under the touch of the feedback block 1505, the adaptation loop 1508 will generate a large vibration. And under the signal collection of the induction circuit board 1511, the induction circuit board 1511 transmits a deflection signal to know the hardness of the current workpiece. The control box 17 adjusts the current working state to reduce the damage to the workpiece.

[0035] The burr removal assembly 16 includes a linkage rod 1601 and a slag remover 1602. The linkage rod 1601 is rotatably connected to the switching table 9 and the feedback plate 1501 through a rotating shaft. One end of the linkage rod 1601 is rotatably connected to the output end of the exciter 1510. The end of the linkage rod 1601 away from the output end of the exciter 1510 is rotatably connected to the slag remover 1602. The slag remover 1602 is slidably connected to the switching table 9. The exciter 1510 drives the slag remover 1602 to vibrate through the linkage rod 1601. The slag remover 1602 will remove the burrs generated during the milling process to reduce the influence of chip adhesion on the workpiece processing.

[0036] A conversion air gun 1603 is provided on the processing table 2. The conversion air gun 1603 is rotatably connected to the processing table 2. Teeth are provided on the conversion air gun 1603. A conversion motor 1604 is provided inside the processing table 2. The output end of the conversion motor 1604 is meshed with the teeth on the conversion air gun 1603. The conversion motor 1604 is electrically connected to the control box 17 through a wire. During the processing, it is necessary to remove the chips in time. The conversion motor 1604 rotates to drive the conversion air gun 1603 to rotate. The conversion air gun 1603 cooperates with the cleaning spray gun 14 so that the cleaning spray gun 14 can timely remove various chips during the processing to avoid these chips from scratching the workpiece.

[0037] Working principle: Place the workpiece to be processed into the processing mold 11. The processing mold 11 clamps the workpiece. Pull the rotating nut 1103. The thread on the rotating nut 1103 drives the sliding claw 1102 to slide on the loading tray 1101 and approach the workpiece, pulling the processing table 2. The transverse motor 4 drives the moving gear 401 to move on the processing track 101. The profiling motor 501 will drive the longitudinal moving frame 5 to move on the profiling track 301. The lifting motor 504 drives the lifting gear 507 to rotate. The milling seat 6 moves on the longitudinal moving frame 5. During the movement, the lifting gear 507 will push the limiting elastic piece 508, so that the limiting elastic piece 508 releases the limiting gear 506, and then cooperative processing is carried out, processing around the processing column. The milling motor 7 drives the milling cutter 10 to process to form a thread. During the processing, the assisting component 15 will detect the milling seat 6. When the tool is working, it will transmit power to the locking sleeve 1503. When encountering a workpiece with higher hardness, the locking sleeve 1503 will vibrate. The feedback block 1505 will contact the amplifier 1504 and transmit a signal. The control box 17 controls the moving speeds of the lifting motor 504, the transverse motor 4, and the profiling motor 501. At the same time, the cleaning pump 13 supplies cleaning liquid to the cleaning spray gun 14. The burr removal component 16 will interfere with the direction of the cleaning liquid. The vibrator 1510 drives the slag remover 1602 to vibrate through the connecting rod 1601. The slag remover 1602 will remove the burrs generated during the milling process. The conversion air gun 1603 cooperates with the cleaning spray gun 14 so that the cleaning spray gun 14 can timely remove various chips during the processing. When it is necessary to adjust the specification of the thread, only need to rotate the switching table 9.

[0038] For those skilled in the art, it is obvious that the present invention is not limited to the details of the above exemplary embodiments, and without departing from the spirit or basic characteristics of the present invention, the present invention can be implemented in other specific forms. Therefore, in any regard, the embodiments should be regarded as exemplary and non-limiting. The scope of the present invention is defined by the appended claims rather than the above description. Therefore, it is intended to embrace all changes falling within the meaning and scope of the equivalent elements of the claims in the present invention. Any reference signs in the claims should not be regarded as limiting the claimed rights.

Claims

1. A thread milling processing equipment with burr removal function, characterized in that: The processing equipment comprises a processing bed (1), a processing table (2) is arranged on the processing bed (1), the processing table (2) is slidably connected to the processing bed (1), a transverse moving frame (3) is arranged on the processing table (2), a transverse motor (4) is arranged on the transverse moving frame (3), a longitudinal moving frame (5) is arranged on the transverse moving frame (3), a milling seat (6) is arranged on the longitudinal moving frame (5), a milling motor (7) is arranged on the milling seat (6), and a reduction gear is arranged on the output end of the milling motor (7). A reduction box (8), a switching table (9) is arranged on the output end of the reduction box (8), a milling tool (10) is arranged on the switching table (9), a processing mold (11) is arranged on the processing table (2), a cleaning tank (12) is arranged in the processing table (2), a cleaning pump (13) is arranged on the cleaning tank (12), a cleaning spray gun (14) is arranged on the output end of the cleaning pump (13), a power assist component (15) is arranged on the switching table (9), and a burr removal component (16) is arranged on the processing table (2); The power assist component (15) comprises a feedback plate (1501), the feedback plate (1501) is arranged on a switching table (9), a tool holder (1502) is arranged on the switching table (9), a locking sleeve (1503) is arranged on the feedback plate (1501), the milling tool passes through the locking sleeve (1503), the locking sleeve (1503) is rotatably connected to the feedback plate (1501), an amplifier (1504) is arranged on the feedback plate (1501), the amplifier (1504) is in sliding contact with the locking sleeve (1503), and the amplifier (1504) is electrically connected to the reduction box (8) via a wire; A feedback block (1505) is provided in the locking sleeve (1503) and is slidably connected thereto. A plurality of feedback grooves (1506) are provided in the locking sleeve (1503). A feedback spring (1507) is provided in the feedback groove (1506). Two ends of the feedback spring (1507) respectively abut against the feedback block (1505) and the feedback groove (1506). A control box (17) is provided on the processing table (2). The control box (17) is electrically connected to the lifting motor (504), the horizontal motor (4), and the profiling motor (501) through wires. The control box (17) is electrically connected to the amplifier (1504) and the reduction box (8) through wires. An adaption ring (1508) is arranged inside the amplifier (1504), the adaption ring (1508) is electrically connected to the amplifier (1504), the adaption ring (1508) is connected to the inner wall of the amplifier (1504) via a traction spring (1509), an exciter (1510) is arranged on the switching table (9), the output end of the exciter (1510) is connected to the amplifier (1504), an induction circuit board (1511) is arranged inside the amplifier (1504), the induction circuit board (1511) is electrically connected to the control box (17) via a wire, and the adaption ring (1508) is in sliding contact with the induction circuit board (1511); The burr removal assembly (16) comprises a linkage rod (1601) and a slag remover (1602); the linkage rod (1601) is rotationally connected to the switching table (9) and the feedback plate (1501) via a rotating shaft; one end of the linkage rod (1601) is rotationally connected to the output end of the vibration exciter (1510); one end of the linkage rod (1601) away from the output end of the vibration exciter (1510) is rotationally connected to the slag remover (1602); and the slag remover (1602) is slidably connected to the switching table (9).

2. The thread milling processing equipment with burr removal function according to claim 1, characterized in that: The processing bed (1) is provided with a processing track (101), the output end of the transverse motor (4) is provided with a moving gear (401), the moving gear (401) meshes with teeth on the processing track (101), the transverse moving frame (3) is slidably connected to the processing track (101), the transverse moving frame (3) is provided with a profiling track (301), the longitudinal moving frame (5) is provided with a profiling motor (501), the output end of the profiling motor (501) meshes with teeth on the profiling track (301), and the longitudinal moving frame (5) is slidably connected to the profiling track (301).

3. The thread milling processing equipment with burr removal function according to claim 2, characterized in that: The longitudinal moving frame (5) is provided with a limiting groove (502), a lifting rack (503) is provided in the limiting groove (502), a lifting motor (504) is provided in the milling seat (6), a locking plate (505) is provided on the output end of the lifting motor (504), a limiting gear (506) and a lifting gear (507) are provided on the locking plate (505), the limiting gear (506) is meshed with the lifting gear (507) and the lifting rack (503) respectively, the lifting gear (507) is meshed with the lifting rack (503), a limiting spring sheet (508) is provided on the locking plate (505), the limiting spring sheet (508) is in sliding contact with the limiting gear (506), and the limiting spring sheet (508) and the locking plate (505) are rotationally connected via an electric shaft.

4. The thread milling processing equipment with burr removal function according to claim 1, characterized in that: The processing mold (11) comprises a loading plate (1101) and a plurality of sliding claws (1102), each of the sliding claws (1102) being slidably connected to the loading plate (1101), a rotating nut (1103) being provided at the bottom end of the loading plate (1101), each of the sliding claws (1102) being respectively engaged with a thread on the rotating nut (1103), a moving handle (1104) being provided on the loading plate (1101), the loading plate (1101) being rotatably connected to the processing table (2), the processing table (2) being rotatably connected to the processing bed (1), a blocking buckle (1105) being provided on the processing bed (1), and the loading plate (1101) being in slidable contact with the blocking buckle (1105).

5. The thread milling processing equipment with burr removal function according to claim 1, characterized in that: The processing table (2) is provided with a conversion air gun (1603), the conversion air gun (1603) being rotationally connected to the processing table (2), the conversion air gun (1603) being provided with teeth, a conversion motor (1604) being provided inside the processing table (2), the output end of the conversion motor (1604) being meshed with the teeth on the conversion air gun (1603), and the conversion motor (1604) being electrically connected to a control box (17) via a wire.

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