High-precision machining and cutting method for chain link

Abstract

The application relates to the technical field of cutting treatment methods, in particular to a chain track joint high-precision machining cutting treatment method, which comprises the following steps: S1: a chain track joint detection method, approximate degree analysis is performed by a processing analysis unit; S2: selecting corresponding equipment; S3: subsequent transmission operation and cutting operation are performed by a transmission cutting device; and S4: cutting surface detection is performed. In the application, approximate degree analysis is performed by a processing analysis unit of an in-place detection system, the corresponding equipment is selected based on the machined chain track joint, the machining precision and the adaptability are ensured, the driving effect on the chain track joint body is achieved based on the quantitative transmission system by the transmission equipment in the transmission cutting device, the processing of locking first and then cutting is performed by the machining equipment, the situation that the joint part of the machined chain track joint is moved is avoided, the force is reduced by the heat cutting processing mode, the final flatness of the cutting surface is ensured, and the corresponding quality inspection process is arranged to ensure the product quality.

Description

TECHNICAL FIELD

[0001] The application relates to a cutting treatment method, in particular to a high-precision cutting treatment method for a chain track joint. BACKGROUND

[0002] The cutting treatment method is a machining method for cutting treatment of machined parts by a cutter and the like, and the purpose is to cut machined parts of a corresponding length to provide convenience for subsequent machining or application of the machined parts. In actual operation of the cutting treatment method, the overall mobility of a chain track joint product is relatively strong, and based on the difference of the application field and equipment, the chain track joint product has various types. The existing cutting treatment method is difficult to perform professional machining based on the type of the chain track joint, and due to the mobility characteristics of the joint part of the chain track joint product, the chain track joint product is easily moved due to the kinetic energy of the cutting operation during the cutting process, resulting in insufficient cutting machining precision, and improvement is needed. SUMMARY

[0003] The application aims to solve the problems in the prior art and provides a high-precision cutting treatment method for a chain track joint.

[0004] In order to achieve the above-mentioned purpose, the application adopts the following technical scheme: a high-precision cutting treatment method for a chain track joint, comprising the following steps:

[0005] S1: a chain track joint detection method, performing approximation analysis by a processing analysis unit;

[0006] S2: selecting a corresponding instrument;

[0007] S3: performing subsequent transmission operation and cutting operation by a transmission cutting device;

[0008] S4: performing cutting surface detection.

[0009] As a further scheme of the application, in S1, the chain track joint detection method adopts an insertion type detection system, the insertion type detection system comprises a control system and a detection unit, the output end of the control system is electrically connected with the input end of the detection unit, the output end of the detection unit is electrically connected with a width and height detection, the output end of the width and height detection is electrically connected with a temporary variable table, and the temporary variable table comprises a width coefficient and a height coefficient.

[0010] As a further scheme of the application, the output end of the control system is electrically connected with a processing analysis unit, the output end of the processing analysis unit is electrically connected with an approximation analysis, the output end of the approximation analysis is electrically connected with a judgment unit and a preset reference, the output end of the preset reference is electrically connected with an instrument type table, and the instrument type table comprises a chain track joint type, a width preset and a height preset.

[0011] As a further aspect of the present invention, in step S1, the approximation analysis is based on a comprehensive determination of the percentage of the width coefficient to the approximate value of the preset width and the percentage of the height coefficient to the approximate value of the preset height. The specific steps are as follows:

[0012] S110: Clear the values ​​in the temporary variable table, perform width and height detection, import the detected width value into the width coefficient field, and import the detected height value into the height coefficient field.

[0013] S120: Set the loop function, with the initial value i set to 0, the loop loading item i = i + 1, and the final value being the number of records for the track link model;

[0014] S130: Import the temporary variable table into the processing and analysis unit and perform approximation analysis. The approximation analysis reads the data from the device model table according to the preset reference and loads the loop function.

[0015] S140: Operation X i = Width coefficient / Width preset, Y i = Height coefficient / Height preset, obtain the width and height approximation result of the detected track link and track link model, and enter the next loop until i = final value;

[0016] S150: Overall Comparison X i With Y i Select the track link model that is closest to the width and height approximation result item.

[0017] As a further aspect of the present invention, in step S2, the step of selecting the corresponding instrument is to perform a feasibility determination by a determination unit. That is, if the difference between the selected width and height approximation results is less than 5%, it is determined to be feasible, and the corresponding instrument of the track link model is selected for processing. If the difference between the selected width and height approximation results is greater than or equal to 5%, it is determined to be an infeasible solution, an error item is output, and the track link is imported into the inventory for processing.

[0018] As a further embodiment of the present invention, in S2, the corresponding instrument is specifically a transmission and cutting device, which includes a transmission device and a processing device, an upper drive motor and a lower drive motor, a connecting block fixedly installed between the upper drive motor and the lower drive motor, a track link body provided between the upper drive motor and the lower drive motor, and a drive gear being drivenly connected to the inner side of both the upper drive motor and the lower drive motor, the drive gear meshing with the track link body.

[0019] As a further embodiment of the present invention, the processing equipment includes a support frame, with guide rails fixedly installed between the support frames. The chain link body is slidably connected to the inner side of the guide rails. Single-axis cylinders are fixedly installed on both sides of the guide rails. A locking frame is installed at the output end of the single-axis cylinder. Locking teeth are installed on the inner side of the locking frame. The locking frame is in contact with the chain link body. The locking teeth are inserted into the inner side of the chain link body. A processing table is installed on the upper surface of the locking frame. A cutting machine is installed on the upper surface of the processing table. The output end of the cutting machine extends through to the lower surface of the processing table. A power cord is installed at the input end of the cutting machine. A pressure plate is installed at the output end of the cutting machine. Heat-conducting columns are installed on both sides of the lower surface of the pressure plate. A cutting blade is installed between the heat-conducting columns.

[0020] As a further embodiment of the present invention, in S3, the transmission operation is driven based on a quantitative transmission system. The quantitative transmission system includes a defined item and an input platform. The output end of the input platform is electrically connected to the input end of the defined item. The input platform includes a selected unit and an item value. The output end of the defined item is electrically connected to a conversion unit. The output end of the conversion unit is electrically connected to an instrument model detail table. The instrument model detail table includes a gear circumference preset. The transmission operation is specifically as follows:

[0021] S311: Select the unit of the item value through the input platform, that is, select the unit such as millimeter or centimeter, and then enter the item value;

[0022] S312: Transfer the item value and the selected unit to the defined item and transfer it to the conversion unit. The conversion unit performs calculations based on the gear cycle preset in the instrument model details table and outputs the amount of rotation required to drive the gear.

[0023] S313: The upper and lower drive motors drive the drive gears to rotate based on the rotation amount, thereby achieving the driving effect on the machined track link body.

[0024] As a further aspect of the present invention, in step S3, the cutting operation specifically comprises:

[0025] S321: Through the synchronous operation of four sets of single-axis cylinders, two sets of locking frames are driven to press down synchronously until the locking frame is in contact with the track link body and the locking teeth are inserted into the inner side of the track link body, thus achieving the function of all-round fixation of the track link body.

[0026] S322: When the locking frame is pressed down, the processing table moves downwards and drives the cutting machine to move;

[0027] S323: Power is supplied to the cutting machine via the power cord. The operation of the cutting machine causes the pressure plate to move down and supplies energy to the cutting blade through the heat-conducting column.

[0028] S324: The cutter is heated by energy and cuts the track link body.

[0029] As a further aspect of the present invention, in step S4, the section detection step specifically comprises:

[0030] S401: Cooling of the finished track links after cutting;

[0031] S402: Fix the cut track links to a horizontal plane;

[0032] S403: Flatness is tested using a laser inspection instrument to determine whether the finished product is qualified. If it is qualified, the whole product is cut off and the process is completed. If it is not qualified, it is listed as a defective part and the corresponding instruments are inspected for quality.

[0033] Compared with the prior art, the advantages and positive effects of the present invention are as follows:

[0034] In this invention, the processing and analysis unit of the implantable detection system performs approximation analysis to achieve the effect of selecting the appropriate instrument based on the processed track link, ensuring processing accuracy and adaptability. The transmission device in the transmission and cutting equipment is driven by a quantitative transmission system to achieve the driving effect on the track link body. The processing equipment performs a locking-before-cutting process to avoid displacement of the joint parts of the processed track link. The thermal cutting process reduces the applied force to ensure the flatness of the final cut surface. The corresponding quality inspection process is set to ensure the quality of the finished product. Attached Figure Description

[0035] Figure 1 This is a schematic diagram illustrating the main steps of the high-precision machining and cutting method for track links proposed in this invention;

[0036] Figure 2 The flowchart of the insertion detection system for the high-precision machining and cutting method of track links proposed in this invention is shown below.

[0037] Figure 3 A detailed schematic diagram of step 1 of the high-precision machining and cutting method for track links proposed in this invention;

[0038] Figure 4 This is a schematic diagram of the cutting state of the transmission cutting equipment for the high-precision machining and cutting method of the track link proposed in this invention;

[0039] Figure 5 This is a schematic diagram of the track link body for the high-precision machining and cutting method proposed in this invention;

[0040] Figure 6 This is a schematic diagram of the transmission and cutting equipment for the high-precision machining and cutting method of the track link proposed in this invention;

[0041] Figure 7This is an exploded view of the transmission and cutting equipment for the high-precision machining and cutting method of track links proposed in this invention;

[0042] Figure 8 This invention proposes a high-precision machining and cutting method for track links. Figure 7 Partial structural diagram;

[0043] Figure 9 The present invention provides a flowchart of a quantitative transmission system for a high-precision machining and cutting method for track links.

[0044] Figure 10 A detailed schematic diagram of step 3 of the high-precision machining and cutting method for track links proposed in this invention;

[0045] Figure 11 This is a detailed schematic diagram of step 4 of the high-precision machining and cutting method for track links proposed in this invention.

[0046] Legend:

[0047] 1. Upper drive motor; 2. Lower drive motor; 3. Connecting block; 4. Track link body; 5. Drive gear; 6. Support frame; 7. Guide rail; 8. Single-axis cylinder; 9. Locking frame; 10. Processing table; 11. Cutting machine; 12. Power cord; 13. Pressure plate; 14. Heat-conducting column; 15. Cutting blade. Detailed Implementation

[0048] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention.

[0049] In the description of this invention, it should be understood that the terms "length," "width," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicating orientation or positional relationships, are based on the orientation or positional relationships shown in the accompanying drawings and are only for the convenience of describing the invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of the invention. Furthermore, in the description of this invention, "a plurality of" means two or more, unless otherwise explicitly specified.

[0050] Example 1

[0051] Please see Figure 1 This invention provides a technical solution: a high-precision machining and cutting method for track links, comprising the following steps:

[0052] S1: Track link detection method, which performs approximation analysis through a processing and analysis unit;

[0053] S2: Select the appropriate instrument;

[0054] S3: Subsequent transmission and cutting operations are performed via a transmission cutting device;

[0055] S4: Perform cross-section detection.

[0056] Please see Figure 2 In S1, the track link detection method adopts an insertion detection system, which includes a control system and a detection unit. The output end of the control system is electrically connected to the input end of the detection unit. The output end of the detection unit is electrically connected to a width and height detection system. The output end of the width and height detection system is electrically connected to a temporary variable table, which includes a width coefficient and a height coefficient.

[0057] Please see Figure 2 The output of the control system is electrically connected to a processing and analysis unit. The output of the processing and analysis unit is electrically connected to an approximation analysis unit. The output of the approximation analysis unit is electrically connected to a judgment unit and a preset reference. The output of the preset reference is electrically connected to a device model table, which includes the track link model, width preset, and height preset.

[0058] Please see Figure 3 In S1, the approximation analysis is based on a comprehensive judgment of the percentage of the width coefficient relative to the preset width and the percentage of the height coefficient relative to the preset height. The specific steps are as follows:

[0059] S110: Clear the values ​​in the temporary variable table, perform width and height detection, import the detected width value into the width coefficient field, and import the detected height value into the height coefficient field.

[0060] S120: Set the loop function, with the initial value i set to 0, the loop loading item i = i + 1, and the final value being the number of records for the track link model;

[0061] S130: Import the temporary variable table into the processing and analysis unit and perform approximation analysis. The approximation analysis reads the data from the device model table according to the preset reference and loads the loop function.

[0062] S140: Calculate Xi = width coefficient / width preset, Yi = height coefficient / height preset, obtain the width and height approximation result of the detected track link and track link model, and enter the next loop until i = final value;

[0063] S150: By comprehensively comparing the width and height approximation results of Xi and Yi, the track link model with the closest width and height approximation results is selected.

[0064] In S2, the step of selecting the corresponding equipment is to perform a feasibility judgment through the judgment unit. That is, if the difference between the selected width and height approximation results is less than 5%, it is judged as feasible, and the corresponding equipment of the track link model is selected for processing. If the difference between the selected width and height approximation results is greater than or equal to 5%, it is judged as an infeasible solution, an error item is output, and the track link is imported into the inventory for processing.

[0065] Please see Figures 4 to 8 In S2, the corresponding instrument is specifically a transmission and cutting device, which includes a transmission device and a processing device, an upper drive motor 1 and a lower drive motor 2, a connecting block 3 fixedly installed between the upper drive motor 1 and the lower drive motor 2, a track link body 4 provided between the upper drive motor 1 and the lower drive motor 2, and drive gears 5 drivingly connected to the inner sides of both the upper drive motor 1 and the lower drive motor 2, with the drive gears 5 meshing with the track link body 4. The processing device includes a support frame 6, with guide rails 7 fixedly installed between the support frames 6, and the track link body 4 slidably connected to the inner side of the guide rail 7. Single-axis cylinders 8 are fixedly installed on both sides. A locking frame 9 is installed at the output end of the single-axis cylinder 8. Locking teeth are installed on the inner side of the locking frame 9. The locking frame 9 fits into the track link body 4. The locking teeth are inserted into the inner side of the track link body 4. A processing table 10 is installed on the upper surface of the locking frame 9. A cutting machine 11 is installed on the upper surface of the processing table 10. The output end of the cutting machine 11 extends to the lower surface of the processing table 10. A power cord 12 is installed at the input end of the cutting machine 11. A pressure plate 13 is installed at the output end of the cutting machine 11. Heat-conducting columns 14 are installed on both sides of the lower surface of the pressure plate 13. A cutter 15 is installed between the heat-conducting columns 14.

[0066] Please see Figures 9 to 10 In S3, the transmission operation is driven by a quantitative transmission system. This system includes a defined item and an input platform. The output of the input platform is electrically connected to the input of the defined item. The input platform includes the selected unit and item value. The output of the defined item is electrically connected to a conversion unit. The output of the conversion unit is electrically connected to an instrument model detail table, which includes gear circumference presets. The transmission operation is as follows:

[0067] S311: Select the unit of the item value through the input platform, that is, select the unit such as millimeter or centimeter, and then enter the item value;

[0068] S312: Transfer the project value and the selected unit to the defined project and transfer it to the conversion unit. The conversion unit performs calculations based on the gear cycle preset in the instrument model details table and outputs the required rotation amount of the drive gear 5.

[0069] S313: The upper drive motor 1 and the lower drive motor 2 drive the drive gear 5 to rotate based on the rotation amount, thereby achieving the driving effect on the processed track link body 4.

[0070] Please see Figure 10 In S3, the specific steps of the cutting operation are as follows:

[0071] S321: Through the synchronous operation of four sets of single-axis cylinders 8, two sets of locking frames 9 are driven to press down synchronously until the locking frame 9 is in contact with the track link body 4, and the locking teeth are inserted into the inside of the track link body 4, thereby achieving the function of all-round fixation of the track link body 4.

[0072] S322: When the locking frame 9 is pressed down, the processing table 10 moves downward and drives the cutting machine 11 to move;

[0073] S323: Power is supplied to the cutting machine 11 through the power cord 12. The cutting machine 11 operates, causing the pressure plate 13 to move down and supplying energy to the cutting blade 15 through the heat-conducting column 14.

[0074] S324: The cutter 15 is heated by energy and cuts the track link body 4.

[0075] Please see Figure 11 In S4, the specific steps for section detection are as follows:

[0076] S401: Cooling of the finished track links after cutting;

[0077] S402: Fix the cut track links to a horizontal plane;

[0078] S403: Flatness is tested using a laser inspection instrument to determine whether the finished product is qualified. If it is qualified, the whole product is cut off and the process is completed. If it is not qualified, it is listed as a defective part and the corresponding instruments are inspected for quality.

[0079] Working Principle: The track link detection method (using an implantable detection system) performs approximation analysis through a processing and analysis unit. This is based on a comprehensive judgment using the percentage approximation of the width coefficient to a preset width and the percentage approximation of the height coefficient to a preset height. The specific steps are: clearing the temporary variable table; detecting width and height; importing the detected width value into the width coefficient field; importing the detected height value into the height coefficient field; setting a loop function with an initial value i of 0, a loop loading term of i = i + 1, and a final value of the number of track link model records; importing the temporary variable table into the processing and analysis unit and performing approximation analysis; the approximation analysis reads data from the instrument model table according to a preset reference and loads the loop function to calculate Xi. = Width coefficient / Width preset, Yi = Height coefficient / Height preset, obtain the width and height approximation results of the detected track link and track link model, and enter the next loop until i = final value, comprehensively compare the width and height approximation results of Xi and Yi, and select the track link model with the closest width and height approximation results); select the corresponding machine (the feasibility is determined by the judgment unit, that is, if the difference of the selected width and height approximation results is less than 5%, it is judged as feasible, and the corresponding machine for the track link model is selected for processing; if the difference of the selected width and height approximation results is greater than or equal to 5%, it is judged as an infeasible solution, an error item is output, the track link is imported into the inventory, and awaits processing); process through the transmission cutting equipment. The subsequent transmission operation (driven by a quantitative transmission system, specifically: selecting the unit of the item value through the input platform, i.e., selecting millimeters, centimeters, etc., and then inputting the item value; transmitting the item value and the selected unit to the defined item and transferring it to the conversion unit; the conversion unit performs calculations based on the gear circumference preset in the instrument model details table, outputting the required rotation amount of the drive gear 5; the upper drive motor 1 and the lower drive motor 2 drive the drive gear 5 to rotate based on the rotation amount, achieving the driving effect on the processed track link body 4) and cutting operation (through the synchronous operation of four sets of single-axis cylinders 8, driving two sets of locking frames 9 to press down synchronously until the locking frames 9 are in contact with the track link body 4, and the locking teeth are engaged) and cutting operation (through the synchronous operation of four sets of single-axis cylinders 8, driving two sets of locking frames 9 to press down synchronously until the locking frames 9 are in contact with the track link body 4, and the locking teeth are engaged) and cutting operation (through the synchronous operation of four sets of single-axis cylinders 8, driving two sets of locking frames 9 to press down synchronously until the locking frames 9 are in contact with the track link body 4, and the locking teeth are engaged) Inside the track link body 4, the track link body 4 is fixed in all directions. When the locking frame 9 is pressed down, the processing table 10 moves downward and drives the cutting machine 11 to move. The cutting machine 11 is powered through the power line 12. The cutting machine 11 moves the pressure plate 13 downward and supplies energy to the cutting blade 15 through the heat conduction column 14. The cutting blade 15 is heated and cuts the track link body 4. The cut surface is inspected (waiting for the finished track link to cool down, fixing the finished track link to a horizontal plane, and using a laser detector to check the flatness and determine whether the finished product is qualified. If it is qualified, the overall cutting process is completed. If it is unqualified, it is listed as a defective part and the corresponding instruments are inspected for quality).

[0080] The above are merely preferred embodiments of the present invention and are not intended to limit the present invention in any other way. Any person skilled in the art may make changes or modifications to the above-disclosed technical content to create equivalent embodiments that can be applied to other fields. However, any simple modifications, equivalent changes, and modifications made to the above embodiments based on the technical essence of the present invention without departing from the scope of the present invention shall still fall within the protection scope of the present invention.

Claims

1. A high-precision machining and cutting method for track links, characterized in that, Includes the following steps: S1: Track link detection method, which performs approximation analysis through a processing and analysis unit; In step S1, the approximation analysis is based on a comprehensive determination of the percentage of the width coefficient to the preset width and the percentage of the height coefficient to the preset height. The specific steps are as follows: S110: Clear the values ​​in the temporary variable table, perform width and height detection, import the detected width value into the width coefficient field, and import the detected height value into the height coefficient field. S120: Set the loop function, with the initial value i set to 0, the loop loading item set to i=i+1, and the final value set to the number of records for the track link model; S130: Import the temporary variable table into the processing and analysis unit and perform approximation analysis. The approximation analysis reads the data from the device model table according to the preset reference and loads the loop function. S140: Operation X i =Width coefficient / Preset width, Y i =Height coefficient / Height preset, obtain the width and height approximation result of the detected track link and track link model, and enter the next loop until i = final value; S150: Overall Comparison X i With Y i Select the track link model that is closest to the width and height approximation result item; S2: Select the appropriate instrument; S3: Subsequent transmission and cutting operations are performed via a transmission cutting device; In S3, the transmission operation is driven by a quantitative transmission system. The quantitative transmission system includes a defined item and an input platform. The output end of the input platform is electrically connected to the input end of the defined item. The input platform includes the selected unit and item value. The output end of the defined item is electrically connected to a conversion unit. The output end of the conversion unit is electrically connected to an instrument model detail table. The instrument model detail table includes gear circumference presets. The transmission operation specifically involves: S311: Select the unit of the item value through the input platform, that is, select the unit such as millimeter or centimeter, and then enter the item value; S312: Transfer the project value and the selected unit to the defined project and transfer it to the conversion unit. The conversion unit performs calculations based on the gear cycle preset in the instrument model details table and outputs the required rotation amount of the drive gear (5). S313: The upper drive motor (1) and the lower drive motor (2) drive the drive gear (5) to rotate based on the amount of rotation, thereby achieving the driving effect on the processed track link body (4); S4: Perform cross-section detection.

2. The high-precision machining and cutting method for track links according to claim 1, characterized in that, In step S1, the track link detection method employs an insertion detection system. The insertion detection system includes a control system and a detection unit. The output of the control system is electrically connected to the input of the detection unit. The output of the detection unit is electrically connected to a width and height detector. The output of the width and height detector is electrically connected to a temporary variable table, which includes a width coefficient and a height coefficient.

3. The high-precision machining and cutting method for track links according to claim 2, characterized in that, The output of the control system is electrically connected to a processing and analysis unit. The output of the processing and analysis unit is electrically connected to an approximation analysis unit. The output of the approximation analysis unit is electrically connected to a judgment unit and a preset reference. The output of the preset reference is electrically connected to an instrument model table, which includes track link model, width preset, and height preset.

4. The high-precision machining and cutting method for track links according to claim 1, characterized in that, In step S2, the step of selecting the corresponding instrument involves a feasibility determination by a determination unit. If the difference between the selected width and height approximation results is less than 5%, it is determined to be feasible, and the corresponding instrument for the track link model is selected for processing. If the difference between the selected width and height approximation results is greater than or equal to 5%, it is determined to be an infeasible solution, an error item is output, and the track link is imported into the inventory for processing.

5. The high-precision machining and cutting method for track links according to claim 1, characterized in that, In S2, the corresponding instrument is specifically a transmission and cutting device, which includes a transmission device and a processing device, an upper drive motor (1) and a lower drive motor (2), a connecting block (3) is fixedly installed between the upper drive motor (1) and the lower drive motor (2), a track link body (4) is provided between the upper drive motor (1) and the lower drive motor (2), and a drive gear (5) is driven and connected to the inner side of both the upper drive motor (1) and the lower drive motor (2), and the drive gear (5) meshes with the track link body (4).

6. The high-precision machining and cutting method for track links according to claim 5, characterized in that, The processing equipment includes a support frame (6), and guide rails (7) are fixedly installed between the support frames (6). The chain link body (4) is slidably connected to the inner side of the guide rails (7). Single-axis cylinders (8) are fixedly installed on both sides of the guide rails (7). A locking frame (9) is installed at the output end of the single-axis cylinder (8). Locking teeth are installed on the inner side of the locking frame (9). The locking frame (9) fits against the chain link body (4), and the locking teeth are inserted into the inner side of the chain link body (4). The upper surface of the locking frame (9) is equipped with a processing table (10), the upper surface of the processing table (10) is equipped with a cutting machine (11), the output end of the cutting machine (11) extends through to the lower surface of the processing table (10), the input end of the cutting machine (11) is equipped with a power cord (12), the output end of the cutting machine (11) is equipped with a pressure plate (13), both sides of the lower surface of the pressure plate (13) are equipped with heat-conducting columns (14), and a cutter (15) is installed between the heat-conducting columns (14).

7. The high-precision machining and cutting method for track links according to claim 1, characterized in that, In step S3, the specific steps of the cutting operation are as follows: S321: Through the synchronous operation of four sets of single-axis cylinders (8), the two sets of locking frames (9) are driven to press down synchronously until the locking frame (9) is in contact with the track link body (4), and the locking teeth are inserted into the inside of the track link body (4) to achieve the all-round fixing function of the track link body (4). S322: When the locking frame (9) is pressed down, the processing table (10) moves downward and drives the cutting machine (11) to move; S323: Power is supplied to the cutting machine (11) via the power cord (12). The cutting machine (11) operates, causing the pressure plate (13) to move down and supplying energy to the cutter (15) via the heat-conducting column (14). S324: The cutter (15) is heated by energy and cuts the track link body (4).

8. The high-precision machining and cutting method for track links according to claim 1, characterized in that, In step S4, the section detection step specifically includes: S401: Cooling of the finished track links after cutting; S402: Fix the cut track links to a horizontal plane; S403: Flatness is tested using a laser inspection instrument to determine whether the finished product is qualified. If it is qualified, the whole product is cut off and the process is completed. If it is not qualified, it is listed as a defective part and the corresponding instruments are inspected for quality.

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