Microcomputer-controlled steel wire rope net bursting tester and system working method thereof

Abstract

The invention discloses a microcomputer-controlled steel wire rope net bursting testing machine, which comprises a control host used for controlling the operation of the whole testing machine and having the functions of starting, stopping, adjusting test parameters and the like; the pin penetrating supporting frame serves as a main body structure of the testing machine and is used for supporting and fixing other components; the test bottom column is connected with the control host, is mounted below the pin penetrating support frame and is used for bearing and bursting the test sample; the sample clamps are horizontally distributed on the pin penetrating supporting frame at equal intervals and used for clamping test samples, it is ensured that the samples are stable and immovable in the testing process, the clamping direction faces inwards, a top punch can conveniently conduct a bursting test, and the problems of a bursting testing machine in the prior art in the aspects of load applying, control modes and safety guarantee are solved. The load is stably applied without grading in the whole process, the three-closed-loop control requirements of load, deformation and displacement are met, a perfect protection mechanism is provided, and the safety of operators and equipment is guaranteed.

Description

Technical Field

[0001] The invention relates to the technical field of testing equipment, in particular to a microcomputer-controlled wire rope net bursting tester and a system working method thereof. Background Art

[0002] In the existing material mechanical properties testing technology, the bursting performance test of materials such as wire rope mesh is a key step in evaluating their structural strength and durability. However, the traditional bursting test machine has obvious shortcomings in technology and application.

[0003] First, traditional testing machines usually use a step-by-step control method for load application, that is, the gear position needs to be manually adjusted according to the load size during the test. This method is not only cumbersome to operate, but also because the load may fluctuate at the moment of gear switching, thus affecting the accuracy and reliability of the test results. Especially when conducting high-precision tests, even a slight change in load may have a significant impact on the final result.

[0004] Secondly, traditional testing machines also have limitations in control methods. Most traditional testing machines can only achieve a single closed-loop control, such as load closed-loop or displacement closed-loop, and cannot simultaneously meet the requirements of load, deformation, and displacement closed-loop control. This limits the application of testing machines in complex testing scenarios and also affects the comprehensiveness and accuracy of test results.

[0005] In addition, traditional testing machines also have obvious deficiencies in terms of safety assurance. Due to the lack of a complete protection mechanism, once an abnormal situation occurs during the test, such as overload, limit, overtemperature or overvoltage, the testing machine may not be able to respond in time and take corresponding protective measures, resulting in damage to operators and equipment.

[0006] Therefore, a microcomputer-controlled wire rope net bursting test machine and a system working method thereof are proposed to solve the above technical problems. Summary of the invention

[0007] The purpose of the present invention is to solve the above-mentioned technical problems and provide a microcomputer-controlled wire rope net bursting test machine and a system working method thereof. The present invention solves the problems existing in the prior art in terms of load application, control method and safety assurance of the bursting test machine, realizes stable application of load without any grade throughout the whole process, meets the three closed-loop control requirements of load, deformation and displacement, and has a complete protection mechanism to ensure the safety of operators and equipment.

[0008] The technical solution adopted by the present invention to solve the above technical problems is: a microcomputer-controlled wire rope net bursting tester, comprising:

[0009] Control host, used to control the operation of the entire test machine, including start, stop, adjust test parameters and other functions;

[0010] The pin support frame, as the main structure of the testing machine, is used to support and fix other components;

[0011] The test base column is connected to the control host and installed under the pin support frame to carry and break the test sample;

[0012] A number of sample clamps are evenly spaced and horizontally distributed on the pin support frame, and are used to clamp the test sample to ensure that the sample is stable and motionless during the test, and the clamping direction is inward to facilitate the punch to perform the burst test.

[0013] Preferably, the test base column comprises:

[0014] The punch head is controlled by the control host to move up and down during the test, and is used to directly break the test sample;

[0015] The guide light bars are arranged on both sides of the top punch to ensure that the top punch moves in a straight line during the test and maintain the stability and accuracy of the movement direction;

[0016] The top punch cylinder is installed in the middle of the guide light bar to provide the top punch with a punching force, ensuring that it can perform the bursting test according to the preset force and speed.

[0017] Preferably, the pin support frame comprises:

[0018] The fixed seat, as the basic part of the support frame, ensures the stability and firmness of the entire support frame;

[0019] The transverse welded crossbeam and the longitudinal welded crossbeam are both installed on the fixed seat for elevation and support. There are two of them and they are arranged parallel to each other in a rectangular shape to provide a platform for installing and fixing the sample fixture.

[0020] Preferably, the transverse welding beam and the longitudinal welding beam are provided with pin holes for installing and fixing the sample fixture to ensure that the sample fixture will not loosen or shift during the test.

[0021] Preferably, the sample holder comprises:

[0022] The clamp joint is installed on the pin hole through a high-strength screw to ensure a firm connection between the clamp and the support frame;

[0023] The clamping groove is located on the fixture joint and is used to clamp the test sample to ensure that the sample does not fall off or shift during the test;

[0024] The fixing rod is used to further fix the test sample and increase the stability and reliability of the clamping.

[0025] Preferably, the sample fixture also includes a tensioning plate, which is installed on the sample fixture on the transverse welded beam and the longitudinal welded beam. The tensioning plate is connected to the tail of the high-strength screw of the sample fixture on the transverse welded beam and the longitudinal welded beam to maintain the balance and uniformity of the clamping force and ensure the accuracy and reliability of the test results.

[0026] Preferably, the pin support frame further comprises:

[0027] Protective columns are installed above the transverse welded beams and the longitudinal welded beams to increase the height and stability of the support frame and prevent sample fragments from splashing and injuring people during the test;

[0028] The protective door is installed on the front of the protective column to protect the operator from injury during the test and to facilitate the observation and recording of test results.

[0029] Preferably, the pin support frame also includes a limiting beam, including a longitudinal limiting beam and a transverse limiting beam, both of which are 2 in number and are arranged in parallel to limit the punching position of the top punch, ensuring that the top punch will not exceed a preset test range during the test, thereby ensuring the accuracy and safety of the test results.

[0030] Preferably, the control host comprises:

[0031] General menu module, used to manage file information and equipment hardware settings, including hand controller, PI14, test standards, definition rounding, parameter units, etc.;

[0032] Numerical display module, used to clearly and intuitively display the numerical values ​​of each parameter change;

[0033] The test control module is used to adjust the moving speed of the crossbar. The moving speed is displayed in mm / min. The test speed can be changed dynamically during the loading and unloading of samples or the test operation.

[0034] The interface display module includes a user parameter interface, a single-graph interface, a multi-graph interface and a query interface, which are used to display the test plan, brief information, basic information of the test specimen, view single or multiple coordinate curve graphs, and query, analyze and issue reports on historical test data.

[0035] The working method applied to the microcomputer-controlled wire rope net bursting test machine system specifically includes the following steps:

[0036] Step 1: First, firmly fix the position of the pin support frame, adjust and determine the number and precise position of the sample fixtures required on the pin support frame according to the specific shape and size of the sample to be tested, and use the tensioning plate to further reinforce and precisely adjust the installation position of the sample fixture to ensure stability;

[0037] Step 2: Place the sample to be tested in an appropriate position so that its four sides are centered within the sample clamp range on the transverse welding beam and the longitudinal welding beam, ensuring that the sample is within the clamping range;

[0038] Step 3: After placing the sample, connect and turn on the power supply, start the control host, test software and the top punch cylinder drive motor on the pin support frame in sequence, and ensure that the system is in standby state;

[0039] Step 4: Enter the experimental window interface of the test system. In the test control module, set the specific test plan and various test parameters according to the test requirements, adjust the top punch to the specified position, and clear the force value on the numerical display module to prepare for the start of the test;

[0040] Step 5: Clamp the sample, connect and fix the sample to the sample fixtures on the transverse welding beam and the longitudinal welding beam, install the extensometer on the top punch, click the start button on the test control module to officially start the test, the system will operate according to the preset test plan and parameters, the test curve and data will be displayed on the interface display module until the test is completed. After the test, remove the extensometer and the system will automatically save the test data;

[0041] Step 6: Remove the currently tested sample, replace it with a new sample, repeat the above steps 2 to 5, and proceed to the next round of testing.

[0042] The present invention has the following beneficial effects:

[0043] 1. The feature of the load being ungraded throughout the whole process ensures the continuous and stable application of the load during the test, avoiding the load fluctuation caused by gear switching. The realization of the three closed-loop control requirements of load, deformation and displacement enables the testing machine to control the test process more accurately and improve the stability and reliability of the test results;

[0044] 2. The control modes can be combined arbitrarily and switched smoothly, which meets the needs of different test scenarios and improves the control flexibility and intelligence level of the test machine. The introduction of the microcomputer control system makes the operation of the test machine simpler and more intuitive, reducing the difficulty and complexity of operation;

[0045] 3. The significant improvement in test accuracy, control flexibility and safety assurance performance of the present invention enables it to be applied to material mechanical properties testing in more fields and scenarios. BRIEF DESCRIPTION OF THE DRAWINGS

[0046] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0047] Figure 2 It is a schematic diagram of the bottom structure of the present invention;

[0048] Figure 3 is a schematic structural diagram of a sample fixture of the present invention;

[0049] Figure 4 It is a structural schematic diagram of the transverse welded crossbeam of the present invention;

[0050] Figure 5 is a schematic diagram of the expansion of the file menu of the universal menu module of the present invention;

[0051] Figure 6 is a schematic diagram of the expansion of the setting menu of the universal menu module of the present invention;

[0052] Figure 7 is a schematic diagram of the expansion of the communication menu of the universal menu module of the present invention;

[0053] Figure 8 is a schematic diagram of the expansion of the test management menu of the universal menu module of the present invention;

[0054] Fig. 9 is a schematic diagram of the overall interface of the present invention;

[0055] Fig.10 is a schematic diagram of a single-image interface of the interface display module of the present invention;

[0056] Fig.11 It is a schematic diagram of the single-picture interface operation of the interface display module of the present invention;

[0057] Fig.12 is a schematic diagram of a multi-image interface of an interface display module of the present invention;

[0058] Fig.13 It is a schematic diagram of the query interface of the interface display module of the present invention.

[0059] In the figure: 1. Control host, 11. General menu module, 12. Numerical display module, 13. Test control module, 14. Interface display module, 2. Pin support frame, 21. Fixed seat, 22. Horizontal welded beam, 23. Longitudinal welded beam, 24. Protective column, 25. Protective door, 26. Limit beam, 3. Test bottom column, 31. Top punch, 32. Guide light bar, 33. Top punch cylinder, 4. Sample fixture, 41. Fixture joint, 411. Clamp groove, 412. Fixed rod, 42. High-strength screw, 43. Tensioning plate, 5. Pin hole. DETAILED DESCRIPTION

[0060] The present invention is further described below in conjunction with the accompanying drawings and implementation modes.

[0061] like Figure 1-4 As shown, the present invention is a microcomputer-controlled wire rope net bursting tester, comprising:

[0062] Control host 1, used to control the operation of the entire test machine, including starting, stopping, adjusting test parameters and other functions;

[0063] The pin support frame 2, as the main structure of the testing machine, is used to support and fix other components;

[0064] The test base column 3 is connected to the control host 1 and installed below the pin support frame 2, and is used to carry and break the test sample;

[0065] A number of sample clamps 4 are evenly spaced and horizontally distributed on the pin support frame 2, and are used to clamp the test sample to ensure that the sample is stable and motionless during the test, and the clamping direction is inward to facilitate the punch to perform a burst test.

[0066] By adopting the above technical solution, through the integrated control of the control host 1, the start, stop and test parameter adjustment of the test machine can be automated, greatly improving the efficiency and accuracy of the test. The control host can accurately control various parameters in the test process, such as load application speed, bursting force, etc., to ensure the stability of the test results. The number of sample clamps 4 is evenly distributed on the pin support frame 2. This design allows the test samples to be evenly distributed and each sample can be stably clamped.

[0067] Test base column 3 includes:

[0068] The punch 31 is controlled by the control host 1 to move up and down during the test, and is used to directly break the test sample;

[0069] The guide light bars 32 are arranged on both sides of the top punch 31 to ensure that the top punch 31 moves in a straight line during the test and maintain the stability and accuracy of the movement direction;

[0070] The punch cylinder 33 is installed in the middle of the guide light bar 32 to provide punching power for the punch head 31 to ensure that it can perform the bursting test according to the preset force and speed.

[0071] By adopting the above technical scheme, the top punch 31 is precisely controlled by the control host 1, and can move up and down according to the preset force and speed to directly break the test sample. The guide light rods 32 are arranged on both sides of the top punch 31, which play a role in guiding and stabilizing the movement direction of the top punch. The top punch cylinder 33 is installed in the middle of the guide light rod 32, which provides a stable and controllable top punching power for the top punch 31. The top punch cylinder 33 can adjust the movement speed and breaking force of the top punch according to the instructions of the control host to ensure that the test process meets the preset test parameters.

[0072] The pin support frame 2 comprises:

[0073] The fixing seat 21, as the basic part of the support frame, ensures the stability and firmness of the entire support frame;

[0074] The transverse welding beam 22 and the longitudinal welding beam 23 are both installed on the fixing seat 21 for elevation and support. There are two of them and they are arranged in parallel in a rectangular shape to provide a platform for installing and fixing the sample fixture 4 .

[0075] By adopting the above technical solution, the fixing base 21 serves as the basic part of the support frame, and its solid design ensures the stable installation of the entire support frame.

[0076] Pin holes 5 are provided on the transverse welding beam 22 and the longitudinal welding beam 23 for installing and fixing the sample fixture 4 to ensure that the sample fixture 4 will not loosen or shift during the test.

[0077] By adopting the above technical solution, the design of the pin hole 5 allows the sample fixture 4 to be firmly mounted on the beam by pinning. This fixing method is more stable than traditional bolt or buckle fixing, and can effectively prevent the fixture from loosening or shifting due to excessive force during the test. Installation and removal become simpler and faster, without the need for complicated bolt tightening or buckle operation, which greatly improves work efficiency.

[0078] The sample holder 4 includes:

[0079] The clamp joint 41 is mounted on the pin hole 5 through a high-strength screw 42 to ensure a firm connection between the clamp and the support frame;

[0080] A clamping groove 411, located on the fixture joint 41, is used to clamp the test sample to ensure that the sample does not fall off or shift during the test;

[0081] The fixing rod 412 is used to further fix the test sample and increase the stability and reliability of the clamping.

[0082] By adopting the above technical solution, the clamp joint 41 is installed on the pin hole 5 through the high-strength screw 42 to ensure a firm connection between the clamp and the support frame. The coordinated use of the clamp groove 411 and the fixing rod 412 enables the sample clamp 4 to clamp test samples of different sizes and shapes. The clamp groove 411 is appropriately adjusted according to the shape of the sample, and the fixing rod 412 can further fix the sample.

[0083] The sample fixture 4 also includes a tensioning plate 43, which is installed on the sample fixture 4 on the transverse welded beam 22 and the longitudinal welded beam 23. The tensioning plate 43 is connected to the tail of the high-strength screw 42 of the sample fixture 4 on the transverse welded beam 22 and the longitudinal welded beam 23 to maintain the balance and uniformity of the clamping force and ensure the accuracy and reliability of the test results.

[0084] By adopting the above technical solution, the tensioning plate 43 further enhances the clamping stability of the sample clamp 4 on the test sample, and can provide additional support force during the test to prevent the sample from falling off or shifting due to excessive force, thereby ensuring the smooth progress of the test and reducing errors during the test.

[0085] The pin support frame 2 also includes:

[0086] The protective column 24 is installed above the transverse welded beam 22 and the longitudinal welded beam 23 to increase the height and stability of the support frame and prevent sample fragments from splashing and injuring people during the test;

[0087] The protective door 25 is installed on the front side of the protective column 24 to protect the operator from injury during the test and to facilitate observation and recording of test results.

[0088] By adopting the above technical solution, the protective column 24 increases the overall height of the support frame and significantly improves its stability. During the test, even if the sample is subjected to a strong bursting force, the support frame can remain stable. The protective column 24 can also block the splashing of sample fragments. The protective door 25 can block the splashing sample fragments and possible debris, protect the operator from injury, and improve safety.

[0089] The pin support frame 2 also includes a limiting beam 26, including a longitudinal limiting beam and a transverse limiting beam, both of which are 2 in number and are arranged in parallel to limit the punching position of the top punch 31, ensuring that the top punch 31 will not exceed the preset test range during the test, thereby ensuring the accuracy and safety of the test results.

[0090] By adopting the above-mentioned technical scheme, the limiting beam 26 can accurately limit the punching position of the top punch 31, ensuring that it will not exceed the preset test range during the test process, ensuring the accuracy and consistency of the test results, and making each test carried out according to the same standards and conditions, making the test process more controllable and stable, reducing the test interruption and readjustment time caused by loss of control of the top punch, and improving efficiency.

[0091] The control host 1 includes:

[0092] The general menu module 11 is used to manage file information and equipment hardware settings, including hand controller, PI14, test standards, definition rounding, parameter units, etc. Figure 5-8 , the file menu is used to edit the various states of the file, the setting interface menu is used to set and adjust the hardware and hardware parameters, the communication menu is the setting of the device selection in the online and offline states, and the test management menu is used to edit and save the test plan (basic parameters, number settings, thinning, user parameters, result parameters);

[0093] The numerical display module 12 is used to clearly and intuitively display the numerical values ​​of each parameter change;

[0094] The test control module 13 is used to adjust the moving speed of the crossbeam. The moving speed is displayed in mm / min. The test running speed can be dynamically changed during loading and unloading of samples or test operation. It has the function keys of upward movement - running upward at the set speed, downward movement - running downward at the set speed, stop - stop the test or stop the movement of the crossbeam, run - start the test, return to zero - return to force zero point, return to position zero point, clear - current display value is set to zero, and remove the extensometer - remove the extensometer during the small deformation test;

[0095] The interface display module 14 includes a user parameter interface, a single graph interface, a multi-graph interface and a query interface, which is used to display the test plan, brief information, basic information of the test sample, view a single or multiple coordinate curve graphs, and query, analyze and issue reports on historical test data, such as Fig. 9 , in the user parameter interface, area A is the edited test plan, area B is the brief information of the selected test plan, and area C is the basic information of the test sample;

[0096] like Fig.10 and Fig.11 In the single-graph interface, area A is the single-graph curve display area. Right-clicking areas C and D can change the X and Y axis coordinates. Area B is the result display area, which displays the "user parameters" and "result parameters" pre-programmed in the test plan. Area E contains the "Generate Report" and "Curve Analysis" buttons. You can also double-click anywhere in area A with the left mouse button to switch between the test result and curve analysis interfaces.

[0097] like Fig.12 In the multi-graph interface, you can see 3 arbitrary coordinate curve graphs at the same time. If you need to change the coordinates of multiple graphs, right-click below the horizontal axis or to the left of the vertical axis and select Change Coordinates.

[0098] like Fig.13 It is a query interface that can query based on file name, date, scheme or other conditions.

[0099] The working method applied to the microcomputer-controlled wire rope net bursting test machine system specifically includes the following steps:

[0100] Step 1: First, firmly fix the position of the pin support frame 2, adjust and determine the number and precise position of the sample fixtures 4 required on the pin support frame 2 according to the specific shape and size of the sample to be tested, and use the tensioning plate 43 to further reinforce and precisely adjust the installation position of the sample fixture 4 to ensure stability;

[0101] Step 2: Place the sample to be tested in an appropriate position so that its four sides are centered within the range of the sample clamp 4 on the transverse welding beam 22 and the longitudinal welding beam 23, respectively, ensuring that the sample is within the clamping range;

[0102] Step 3: After the sample is placed, connect and turn on the power supply, start the control host 1, the test software and the driving motor of the punch cylinder 33 on the pin support frame 2 in sequence, and ensure that the system is in a standby state;

[0103] Step 4: Enter the experimental window interface of the test system, set the specific test plan and various test parameters in the test control module 13 according to the test requirements, adjust the top punch 31 to the specified position, and clear the force value on the numerical display module 12 to prepare for the start of the test;

[0104] Step 5: Clamp the sample, connect and fix the sample to the sample fixture 4 on the transverse welding beam 22 and the longitudinal welding beam 23, install the extensometer on the top punch 31, click the start button on the test control module 13, and officially start the test. The system will operate according to the preset test plan and parameters. The test curve and data will be displayed on the interface display module 14 until the test is completed. After the test is completed, remove the extensometer and the system will automatically save the test data;

[0105] Step 6: Remove the currently tested sample, replace it with a new sample, repeat the above steps 2 to 5, and proceed to the next round of testing.

[0106] The various embodiments in the specification are described in a progressive manner, and each embodiment focuses on the differences from other embodiments. The same or similar parts between the various embodiments can be referenced to each other.

[0107] The above description of the disclosed embodiments enables one skilled in the art to implement or use the present invention. Various modifications to these embodiments will be apparent to one skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the present invention. Therefore, the present invention will not be limited to the embodiments shown herein, but rather to the widest scope consistent with the principles and novel features disclosed herein.

Claims

1. A microcomputer-controlled wire rope net bursting tester, characterized in that: include: A control host (1) is used to control the operation of the entire testing machine, including starting, stopping, adjusting test parameters, etc.; The pin support frame (2) is the main structure of the testing machine and is used to support and fix other components; A test base column (3), connected to the control host (1) and installed below the pin support frame (2), is used to carry and break the test sample; A number of sample clamps (4) are horizontally distributed at equal intervals on the pin support frame (2) and are used to clamp the test sample to ensure that the sample is stable and motionless during the test, and the clamping direction is inwards, which is convenient for the punch to perform the burst test.

2. The microcomputer-controlled wire rope net bursting tester according to claim 1 is characterized in that: The test base column (3) comprises: The punch (31) is controlled by the control host (1) to move up and down during testing, and is used to directly break the test sample; Guide light bars (32) are arranged on both sides of the top punch (31) to ensure that the top punch (31) moves in a straight line during the test and maintain the stability and accuracy of the moving direction; The top punch cylinder (33) is installed in the middle of the guide light bar (32) to provide a top punch force for the top punch head (31) to ensure that it can perform a bursting test according to a preset force and speed.

3. The microcomputer-controlled wire rope net bursting tester according to claim 2 is characterized in that: The pin support frame (2) comprises: The fixing seat (21) serves as the base of the support frame and ensures the stability and firmness of the entire support frame; The transverse welded crossbeam (22) and the longitudinal welded crossbeam (23) are both installed on the fixed seat (21) for elevation and support. There are two of them and they are arranged in parallel in a rectangular shape to provide a platform for installing and fixing the sample fixture (4).

4. The microcomputer-controlled wire rope net bursting tester according to claim 3 is characterized in that: The transverse welding beam (22) and the longitudinal welding beam (23) are both provided with pin holes (5) for installing and fixing the sample fixture (4) to ensure that the sample fixture (4) will not loosen or shift during the test process.

5. The microcomputer-controlled wire rope net bursting tester according to claim 4 is characterized in that: The sample holder (4) comprises: The clamp connector (41) is mounted on the pin hole (5) via a high-strength screw (42) to ensure a firm connection between the clamp and the support frame; A clamping groove (411), located on the clamp joint (41), is used to clamp the test sample to ensure that the sample does not fall off or shift during the test process; The fixing rod (412) is used to further fix the test sample and increase the stability and reliability of the clamping.

6. The microcomputer-controlled wire rope net bursting tester according to claim 3 or 5, characterized in that: The sample fixture (4) further comprises a tensioning plate (43) mounted on the sample fixture (4) on the transverse welded beam (22) and the longitudinal welded beam (23); the tensioning plate (43) is connected to the tail of the high-strength screw (42) of the sample fixture (4) on the transverse welded beam (22) and the longitudinal welded beam (23) to maintain the balance and uniformity of the clamping force, thereby ensuring the accuracy and reliability of the test results.

7. The microcomputer-controlled wire rope net bursting tester according to claim 3 is characterized in that: The pin support frame (2) further comprises: A protective column (24) is installed above the transverse welded beam (22) and the longitudinal welded beam (23) to increase the height and stability of the support frame and prevent sample fragments from splashing and injuring people during the test; The protective door (25) is installed on the front side of the protective column (24) to protect the operator from injury during the test process and to facilitate observation and recording of the test results.

8. The microcomputer-controlled wire rope net bursting tester according to claim 2 is characterized in that: The pin support frame (2) further comprises a limiting beam (26), comprising a longitudinal limiting beam and a transverse limiting beam, both of which are 2 in number and are respectively arranged in parallel, and are used to limit the top punch position of the top punch (31), ensuring that the top punch (31) will not exceed a preset test range during the test, thereby ensuring the accuracy and safety of the test results.

9. The microcomputer-controlled wire rope net bursting tester according to claim 1 is characterized in that: The control host (1) comprises: General menu module (11), used to manage file information and equipment hardware settings, including hand controller, PI14, test standard, definition rounding, parameter unit, etc.; A numerical display module (12), used to clearly and intuitively display the numerical values ​​of various parameter changes; A test control module (13) is used to adjust the moving speed of the crossbar. The moving speed is displayed in mm / min and can dynamically change the test running speed during loading and unloading of samples or test operation. The interface display module (14) includes a user parameter interface, a single graph interface, a multi-graph interface and a query interface, and is used to display the test plan, brief information, basic information of the test sample, view a single or multiple coordinate curve graphs, and query, analyze and issue reports on historical test data.

10. The working method applied to the microcomputer-controlled wire rope net bursting tester system is characterized in that: The specific steps include: Step 1: First, firmly fix the position of the pin support frame (2), adjust and determine the number and precise position of the sample fixtures (4) required on the pin support frame (2) according to the specific shape and size of the sample to be tested, and use the tensioning plate (43) to further reinforce and precisely adjust the installation position of the sample fixture (4) to ensure stability; Step 2: Place the sample to be tested in an appropriate position so that its four sides are centered within the range of the sample clamp (4) on the transverse welding beam (22) and the longitudinal welding beam (23), respectively, ensuring that the sample is within the clamping range; Step 3: After the sample is placed, connect and turn on the power supply, start the control host (1), the test software and the driving motor of the punch cylinder (33) on the pin support frame (2) in sequence, and ensure that the system is in a standby state; Step 4: Enter the experimental window interface of the test system, set the specific test plan and various test parameters in the test control module (13) according to the test requirements, adjust the top punch (31) to the specified position, and clear the force value on the numerical display module (12) to prepare for the start of the test; Step 5: Clamp the sample, connect and fix the sample to the sample fixture (4) on the transverse welding beam (22) and the longitudinal welding beam (23), install the extensometer on the top punch (31), click the start button on the test control module (13), and officially start the test. The system will operate according to the preset test plan and parameters. The test curve graph and data will be displayed on the interface display module (14) until the test is completed. After the test is completed, remove the extensometer and the system will automatically save the test data; Step 6: Remove the currently tested sample, replace it with a new sample, repeat the above steps 2 to 5, and proceed to the next round of testing.

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