A liquid storage cylinder assembly pull-off strength test tool and its operation method
By designing a liquid cylinder assembly tensile strength test tooling including tooling body, upper connection device, connecting support device and locking device, the shape changes caused by traditional fixing methods are solved, and the test accuracy and result accuracy are improved.
Patent Information
- Application Number
- CN202510072812.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-17
- Publication Date
- 2025-04-04
AI Technical Summary
The traditional fixing method of the liquid storage cylinder assembly can easily lead to uneven clamping force, resulting in changes in the shape of the liquid storage cylinder assembly, affecting the test accuracy and result accuracy.
A liquid storage cylinder assembly tensile strength test tool set is designed, including the tooling body, upper connecting device, connecting support device and locking device. Through the careful combination and installation of these components, the shape of the liquid storage cylinder assembly and the stable connection of the test equipment are ensured.
Effectively support and fix the liquid storage cylinder assembly, avoid deformation and deviation, ensure the accuracy of the test accuracy and results, and improve the reliability of the test process and the credibility of the data.
Smart Images

Figure CN119757019A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to a pull-off test tooling technology, and more specifically, to a liquid storage cylinder assembly pull-off strength test tooling and an operating method thereof. Background Art
[0002] In the process of industrial manufacturing and testing, the accuracy and stability of equipment performance often directly affect the quality and reliability of the final product. Especially in applications such as liquid storage and pressure testing, the liquid storage cylinder is a core component, and its shape deformation will have a significant impact on the test results. In traditional operations, in order to facilitate the fixation of the liquid storage cylinder assembly, a bench vise clamping method is often used. Although this method can quickly fix the components, due to uneven clamping force, it often causes changes in the shape of the mouth of the liquid storage cylinder assembly, which in turn affects the test precision and the accuracy of the results. Summary of the invention
[0003] In view of the deficiencies in the prior art, the object of the present invention is to provide a liquid storage cylinder assembly pull-off strength test tool and an operating method thereof.
[0004] To achieve the above object, the present invention provides the following technical solution: a liquid storage cylinder assembly pull-off strength test tool, comprising:
[0005] Tool body: used to support the liquid storage cylinder assembly and ensure that its shape does not change;
[0006] Upper connecting device: used to connect the liquid storage cylinder assembly to the test equipment;
[0007] Connecting support device: used to support the lower part of the liquid storage cylinder assembly and keep it stable;
[0008] Locking device: used to ensure the stable connection and fixation of each component and ensure the accuracy of pull-off strength measurement during the test.
[0009] The present invention is further configured as follows: the tooling body comprises: a left half mold, a right half mold and a support column, the left half mold and the right half mold are combined to form a cylindrical mold, a through hole for installing the support column is coaxially penetrated through the center of the cylindrical mold, and a thread for increasing friction is arranged on the inner wall of the through hole, and locking holes for fixing the cylindrical mold are symmetrically opened on the cylindrical mold, which penetrate the cylindrical mold and are close to the connection between the left half mold and the right half mold; the top and bottom of the support column are respectively provided with connection holes for connection;
[0010] The height of the left half mold is smaller than that of the right half mold, the height of the support column is greater than that of the cylindrical mold, and the connection holes on the tooling body after installation are completely exposed to the outside.
[0011] The present invention is further configured as follows: the upper connecting device includes a limiting column, which is fixedly connected to each other by being inserted into a connecting hole on the upper part of the supporting column and a fixing hole on the testing equipment to ensure that it does not fall off during the test process.
[0012] The present invention is further configured as follows: the connecting support device includes a supporting base and a supporting pin that can be installed on the supporting base, the supporting pin is fixedly connected to each other by being inserted into a connecting hole at the lower part of the supporting column and a fixing hole on the supporting base, and the angle of the supporting base is adjustable to ensure stable support during the test.
[0013] The present invention is further configured as follows: the locking device includes a locking nut, and the locking nut is used to fix the left half mold, the right half mold and the support column to ensure stability during the test.
[0014] An operating method of a liquid storage cylinder assembly pull-off strength test tool, characterized in that it comprises the following steps:
[0015] S1. Preparation: When preparing to start the pull-off strength test of the liquid storage cylinder assembly, first check the tooling body and various components to ensure the integrity and accuracy of all components, including the left half mold, the right half mold, the support column, the upper connecting device, the connecting support device and the locking device, to avoid the test results being affected by manufacturing defects;
[0016] S2. Installation of the tooling body: After all parts are prepared, start to install the tooling body. First, place the support column on the right half mold, then merge the left half mold and the right half mold together, so that the support column is located in the mounting hole in the cylindrical mold. Finally, use the locking nut to fix the left half mold, the right half mold and the support column through the locking hole, and then check whether the support column is stable, and ensure that the thread in the through hole of the support column is tightly fitted with the outer surface of the support column to avoid affecting the stability of the test due to looseness;
[0017] S3. Installation of the upper connection device: After the tooling body is installed, the connection hole on the upper part of the support column is coaxially connected with the fixing hole on the test equipment, and then the limiting column is passed through the connection hole on the upper part of the support part and the fixing hole on the test equipment to fix the connection, ensuring that it does not fall off or loosen during the entire pull-off strength test process;
[0018] S4. Installation of the connecting support device: After the upper connecting device is installed, the connecting hole at the bottom of the support column is coaxially connected with the fixing hole on the support base, and then the supporting pin is inserted into the connecting hole at the bottom of the support column and fixedly connected with the fixing block on the support base. In addition, the angle of the support base needs to be adjusted according to the test requirements to ensure that the supporting device stably supports the tooling body during the test;
[0019] S5. Check the stability of the tooling: After all parts are installed, it is necessary to check the stability of the locking device, the upper connecting device and the connecting support device again to confirm that the tooling body will not be displaced or fall off during the entire test process;
[0020] S6. Installation of the liquid cylinder assembly: After the tooling body has been installed and confirmed to be stable, start installing the liquid storage cylinder assembly; align the liquid storage cylinder assembly with the fixed position on the tooling body, and then carefully install the liquid storage cylinder assembly at the designated position on the tooling body, and check whether the liquid storage cylinder assembly is completely fixed and ensure that it does not move;
[0021] S7. Debugging of test equipment: After the inspection is completed, debug the test equipment; check whether the pull-off strength test equipment is correctly connected and confirm that the equipment can operate normally. During the debugging process, special attention should be paid to the sensitivity of the equipment's tension sensor and measuring instrument to ensure that they can accurately read the pull-off strength value;
[0022] S8. Start the pull-off strength test: After the test equipment is debugged, the pull-off strength test is officially started. The test equipment is started, and the pulling force is slowly increased until the pull-off force of the liquid storage cylinder assembly reaches the set value. During the test, the data changes on the test equipment are monitored in real time to ensure that the test process is carried out smoothly and the pull-off strength data is accurate.
[0023] S9. Record test data: After the test is completed, record the value of the pull-off strength and the factors that affect the test results, including but not limited to the installation of the tooling and the performance of the test equipment;
[0024] S10, test result analysis: after all test data are recorded, compare the test data with the standard value to evaluate whether the pull-off strength of the liquid storage cylinder assembly meets the requirements. If the test results do not meet the requirements, it is necessary to analyze the reasons based on the test data, and may re-test or adjust the tooling design;
[0025] S11, cleaning and disassembly: After the test results are analyzed, start cleaning and disassembling the tooling, disassemble the tooling parts in sequence, and perform cleaning and maintenance to ensure the long-term service life of the equipment and tooling;
[0026] S12. Record and archive: When all disassembly and cleaning work is completed, organize the test report and archive it for future reference. The test report includes but is not limited to the use of the tooling, the performance of the liquid storage cylinder assembly, and the pull-off strength value.
[0027] The present invention is further configured as follows: the adjustable angle range of the support base is 5°-20°, and the sensitivity of the adjustment angle is 1°. This design can be finely adjusted according to different test requirements to improve the applicability and test accuracy of the tooling.
[0028] The beneficial effects of the present invention are:
[0029] 1. Compared with the prior art, the pull-off strength test tooling of the liquid storage cylinder assembly of the present invention can effectively support and fix the liquid storage cylinder assembly through carefully designed components to ensure that its shape does not change, and avoid deformation and deviation during the pull-off strength test. The coordinated use of the upper connecting device, the connecting support device and the locking device ensures the stability of the tooling, so that the tooling will not loosen or shift when the tension is applied, thereby ensuring the test accuracy. This design not only improves the reliability of the test process, but also improves the accuracy of the experimental results, ensures the credibility of the pull-off strength data, and can meet high-standard test requirements.
[0030] 2. The pull-off strength test fixture of the liquid storage cylinder assembly of the present invention has strong structural stability through the combination of the left half mold, the right half mold and the support column. The thread design between the cylindrical mold and the through hole of the support column increases the friction force, avoids the loosening phenomenon that may occur during the pull-off strength test, and ensures the stable connection of the test equipment.
[0031] 3. In the present invention, by limiting the close connection between the column and the supporting column and the fixing holes on the test equipment, the stability between the test equipment and the test equipment during the test process is ensured. This design can effectively prevent the upper connection from falling off or loosening due to increased tension, thereby ensuring the safety of the test process and the accuracy of the data. The plug-in fixation simplifies the operation steps and makes the overall device have higher tensile strength, effectively ensuring the linkage between the equipment, so that the tooling can withstand higher tension during the test without being affected by external interference, thereby improving the reliability of the test equipment and the durability of the tooling.
[0032] 4. The present invention has a simple and reasonable structure, is easy to manufacture, and is easy to operate. It avoids the defects of the prior art and is suitable for popularization and application. BRIEF DESCRIPTION OF THE DRAWINGS
[0033] Figure 1 It is a structural diagram of the pull-off strength test tool of the liquid storage cylinder assembly of the present invention.
[0034] Figure 2 This is the structural diagram of the tooling body.
[0035] Figure 1-2 Figure numerals: 1. tooling body; 2. upper connecting device; 3. connecting support device; 4. locking device; 5. left half mold; 6. right half mold; 7. supporting column; 8. supporting base; 9. supporting pin. DETAILED DESCRIPTION
[0036] Reference Figure 1-2The embodiment of the pull-off strength test tool for the liquid storage cylinder assembly and the operation method thereof of the present invention is further described.
[0037] For ease of explanation, spatial relative terms such as "upper", "lower", "left", "right" and the like are used in the embodiments to illustrate the relationship of one element or feature shown in the figure relative to another element or feature. It should be understood that, in addition to the orientation shown in the figure, the spatial terms are intended to include different orientations of the device in use or operation. For example, if the device in the figure is inverted, the element described as being "under" other elements or features will be positioned "on" other elements or features. Therefore, the exemplary term "under" can include both upper and lower orientations. The device can be positioned in other ways (rotated 90 degrees or in other orientations), and the spatial relative descriptions used here can be interpreted accordingly.
[0038] Furthermore, relational terms such as “first” and “second” and the like are merely used to distinguish one component from another having the same name, but do not necessarily require or imply any such actual relationship or order between these components.
[0039] Figure 1 to Figure 2 The pull-off strength test tool for a liquid storage cylinder assembly shown in the figure includes:
[0040] Tool body 1: used to support the liquid storage cylinder assembly and ensure that its shape does not change;
[0041] Upper connecting device 2: used to connect the liquid storage cylinder assembly to the test equipment;
[0042] Connecting support device 3: used to support the lower part of the liquid storage cylinder assembly and keep it stable;
[0043] Locking device 4: used to ensure stable connection and fixation of various components and ensure the accuracy of pull-off strength measurement during the test;
[0044] Through the careful design of various components, the liquid storage cylinder assembly can be effectively supported and fixed to ensure that its shape does not change, and deformation and deviation are avoided during the pull-off strength test. The coordinated use of the upper connecting device 2, the connecting support device 3 and the locking device 4 ensures the stability of the tooling, so that the tooling will not loosen or shift when the tension is applied, thereby ensuring the test accuracy. This design not only improves the reliability of the test process, but also improves the accuracy of the experimental results, ensures the credibility of the pull-off strength data, and can meet high-standard test requirements.
[0045] The tooling body 1 comprises: a left half mold 5, a right half mold 6 and a support column 7. The left half mold 5 and the right half mold 6 are combined to form a cylindrical mold. A through hole for installing the support column 7 is coaxially penetrated in the center of the cylindrical mold, and a thread is provided on the inner wall of the through hole for increasing friction. The cylindrical mold is symmetrically provided with locking holes that penetrate the cylindrical mold and are close to the connection between the left half mold 5 and the right half mold 6 for fixing the cylindrical mold; the top and bottom of the support column 7 are respectively provided with connection holes for connection;
[0046] The height of the left half mold 5 is smaller than that of the right half mold 6, and the height of the support column 7 is greater than that of the cylindrical mold. After installation, the connection holes on the tooling body 1 are completely exposed to the outside;
[0047] The combination of the left half mold 5, the right half mold 6 and the support column 7 has a strong structural stability. The threaded design between the cylindrical mold and the through hole of the support column 7 increases the friction force, avoids the loosening phenomenon that may occur during the pull-off strength test, and ensures the stable connection of the test equipment.
[0048] The upper connection device 2 includes a limiting column, which is fixedly connected to each other by being inserted into a connection hole on the upper part of the support column 7 and a fixing hole on the test equipment to ensure that it does not fall off during the test;
[0049] By limiting the tight connection between the column and the support column 7 and the fixing holes on the test equipment, the stability between the test equipment and the test equipment is ensured during the test. This design can effectively prevent the upper connection from falling off or loosening due to increased tension, ensuring the safety of the test process and data accuracy. The plug-in fixation simplifies the operation steps and makes the overall device have higher tensile strength, effectively ensuring the linkage between the equipment, so that the tooling can withstand higher tension during the test without being affected by external interference, thereby improving the reliability of the test equipment and the durability of the tooling.
[0050] The connecting support device 3 includes a supporting base 8 and a supporting pin 9 that can be installed on the supporting base 8. The supporting pin 9 is fixedly connected to each other by being inserted into a connecting hole at the bottom of the supporting column 7 and a fixing hole on the supporting base 8. The angle of the supporting base 8 is adjustable to ensure stable support during the test.
[0051] The structure of the adjustable support base 8 and the support pin 9 ensures that the lower part of the tooling can stably support the entire liquid storage cylinder assembly, and the angle of the support base 8 can be adjusted according to the test requirements, so that the tooling can adapt to different test scenarios. Through this angle adjustment function, the tooling can be supported more accurately under different test conditions, thereby improving the applicability of the tooling and the accuracy of the test. The adjustable angle design of the support base 8 solves the problem of the inapplicability of fixed angles under different test environments, making the tooling more versatile and adaptable to a variety of test requirements, greatly improving its operational flexibility and functionality.
[0052] The locking device 4 includes a locking nut, which is used to fix the left half mold 5, the right half mold 6 and the support column 7 to ensure stability during the test;
[0053] The locking device 4 is designed with a locking nut. By firmly connecting the left half mold 5, the right half mold 6 and the support column 7, it can effectively prevent loosening due to vibration or tension during the test, and ensure that the tooling always remains stable during the pull-off strength test. The locking device 4 is simple in design, easy to operate and not easy to damage, which effectively improves the reliability and stability of the entire tooling. In addition, the fixing effect of the locking nut can minimize the interference of external environmental factors on the test results, thereby ensuring the accuracy of each test data. This design can effectively improve the service life of the tooling and reduce the maintenance cost caused by looseness.
[0054] An operating method of a liquid storage cylinder assembly pull-off strength test tool, characterized in that it comprises the following steps:
[0055] S1. Preparation: When preparing to start the pull-off strength test of the liquid storage cylinder assembly, firstly, the tooling body 1 and each component need to be inspected to ensure the integrity and accuracy of all components, including the left half mold 5, the right half mold 6, the support column 7, the upper connecting device 2, the connecting support device 3 and the locking device 4, to avoid the test results being affected by manufacturing defects;
[0056] S2. Installation of the tooling body 1: After all parts are prepared, the tooling body 1 is installed. First, the support column 7 is placed on the right half mold 6, and then the left half mold 5 and the right half mold 6 are combined and connected together, so that the support column 7 is located in the mounting hole in the cylindrical mold. Finally, the left half mold 5, the right half mold 6 and the support column 7 are fixedly connected through the locking hole using a locking nut, and then the support column 7 is checked to see if it is stable, and it is ensured that the thread in the through hole of the support column 7 is tightly fitted with the outer surface of the support column 7 to avoid affecting the stability of the test due to looseness;
[0057] S3, installation of the upper connection device 2: After the tool body 1 is installed, the connection hole on the upper part of the support column 7 is coaxially connected with the fixing hole on the test equipment, and then the limiting column is passed through the connection hole on the upper part of the support part and the fixing hole on the test equipment to fix the connection, ensuring that it does not fall off or loosen during the entire pull-off strength test process;
[0058] S4, installation of the connecting support device 3: After the upper connecting device 2 is installed, the connecting hole at the lower part of the support column 7 is coaxially connected with the fixing hole on the support base 8, and then the support pin 9 is inserted into the connecting hole at the lower part of the support column 7 and the fixing block on the support base 8 for fixed connection. In addition, the angle of the support base 8 needs to be adjusted according to the test requirements to ensure that the support device stably supports the tooling body 1 during the test;
[0059] S5. Check the stability of the tooling: After all components are installed, it is necessary to check the stability of the locking device 4, the upper connecting device 2 and the connecting support device 3 again to confirm that the tooling body 1 will not be displaced or fall off during the entire test process;
[0060] S6, installation of the liquid cylinder assembly: when the tool body 1 has been installed and confirmed to be stable, start installing the liquid storage cylinder assembly; align the liquid storage cylinder assembly with the fixed position on the tool body 1, and then carefully install the liquid storage cylinder assembly at the specified position on the tool body 1, and check whether the liquid storage cylinder assembly is completely fixed and ensure that it does not move;
[0061] S7. Debugging of test equipment: After the inspection is completed, debug the test equipment; check whether the pull-off strength test equipment is correctly connected and confirm that the equipment can operate normally. During the debugging process, special attention should be paid to the sensitivity of the equipment's tension sensor and measuring instrument to ensure that they can accurately read the pull-off strength value;
[0062] S8. Start the pull-off strength test: After the test equipment is debugged, the pull-off strength test is officially started. The test equipment is started, and the pulling force is slowly increased until the pull-off force of the liquid storage cylinder assembly reaches the set value. During the test, the data changes on the test equipment are monitored in real time to ensure that the test process is carried out smoothly and the pull-off strength data is accurate.
[0063] S9. Record test data: After the test is completed, record the value of the pull-off strength and the factors that affect the test results, including but not limited to the installation of the tooling and the performance of the test equipment;
[0064] S10, test result analysis: after all test data are recorded, compare the test data with the standard value to evaluate whether the pull-off strength of the liquid storage cylinder assembly meets the requirements. If the test results do not meet the requirements, it is necessary to analyze the reasons based on the test data, and may re-test or adjust the tooling design;
[0065] S11, cleaning and disassembly: After the test results are analyzed, start cleaning and disassembling the tooling, disassemble the tooling parts in sequence, and perform cleaning and maintenance to ensure the long-term service life of the equipment and tooling;
[0066] S12. Record and file: After all disassembly and cleaning work is completed, organize the test report and file it for future reference. The test report includes but is not limited to the use of the tooling, the performance of the liquid storage cylinder assembly, and the pull-off strength value;
[0067] The operating method of the present invention describes the specific operation of each step in detail and clearly, ensuring the correct use of the tooling and the efficient conduct of the test. All components are checked in the preparation stage to ensure the integrity and accuracy of the tooling and avoid test data errors caused by component defects. During the installation process, the installation steps of the tooling body 1 and each connecting device are strictly carried out in accordance with the prescribed process, effectively avoiding the instability of the tooling due to operational errors. The accuracy and traceability of the test are ensured by debugging the equipment and recording data before and after the test. The cleaning and disassembly steps effectively ensure the long-term use of the tooling and extend its life. The method provides a complete and systematic testing process, which improves the standardization and efficiency of the testing process.
[0068] The angle of the support base 8 can be adjusted in the range of 5°-20°, and the sensitivity of the angle adjustment is 1°. This design can be finely adjusted according to different test requirements to improve the applicability and test accuracy of the tooling;
[0069] According to different test requirements, the operator can finely adjust the angle of the support base 8 to better adapt to different specifications of liquid storage cylinder assemblies and test environments. This design not only enables the tooling to flexibly respond to a variety of test requirements, but also improves the stability of the test and data accuracy at different angles. Through this fine adjustment function, the tooling can provide more precise support and improve the repeatability and reliability of the test results.
[0070] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Common changes and substitutions made by those skilled in the art within the scope of the technical solution of the present invention should be included in the protection scope of the present invention.
Claims
1. A pull-off strength test tool for a liquid storage cylinder assembly, characterized in that: include: Tool body (1): used to support the liquid storage cylinder assembly and ensure that its shape does not change; Upper connecting device (2): used to connect the liquid storage cylinder assembly to the testing equipment; A connecting support device (3) is used to support the lower part of the liquid storage cylinder assembly and maintain stability; Locking device (4): used to ensure the stable connection and fixation of each component and ensure the accuracy of the pull-off strength measurement during the test.
2. A liquid storage cylinder assembly pull-off strength test tool as claimed in claim 1, characterized in that: The tooling body (1) comprises: a left half mold (5), a right half mold (6) and a support column (7); the left half mold (5) and the right half mold (6) are combined to form a cylindrical mold; a through hole for installing the support column (7) is coaxially penetrated through the center of the cylindrical mold, and a thread is arranged on the inner wall of the through hole for increasing friction; a locking hole for fixing the cylindrical mold is symmetrically provided on the cylindrical mold and passes through the cylindrical mold and is close to the connection between the left half mold (5) and the right half mold (6); and connection holes for connection are respectively provided at the top and bottom of the support column (7); The height of the left half mold (5) is smaller than that of the right half mold (6), the height of the support column (7) is greater than that of the cylindrical mold, and the connection holes on the tooling body (1) after installation are completely exposed to the outside.
3. A liquid storage cylinder assembly pull-off strength test tool as claimed in claim 1, characterized in that: The upper connection device (2) comprises a limiting column, which is fixedly connected to each other by being inserted into a connection hole on the upper part of the support column (7) and a fixing hole on the test equipment, thereby ensuring that the limiting column does not fall off during the test process.
4. A liquid storage cylinder assembly pull-off strength test tool as claimed in claim 1, characterized in that: The connecting support device (3) comprises a supporting base (8) and a supporting pin shaft (9) which can be mounted on the supporting base (8); the supporting pin shaft (9) is fixedly connected to each other by being inserted into a connecting hole at the bottom of the supporting column (7) and a fixing hole on the supporting base (8); and the angle of the supporting base (8) is adjustable to ensure stable support during the test process.
5. The pull-off strength test tool for a liquid storage cylinder assembly according to claim 1, characterized in that: The locking device (4) comprises a locking nut, which is used to fix the left half mold (5), the right half mold (6) and the support column (7) to ensure stability during the test.
6. An operating method for the liquid storage cylinder assembly pull-off strength test tooling according to any one of claims 1 to 5, characterized in that: The following steps are involved: S1. Preparation: When preparing to conduct the pull-off strength test of the liquid storage cylinder assembly, it is first necessary to inspect the tooling body (1) and various components to ensure the integrity and accuracy of all components, including the left half mold (5), the right half mold (6), the support column (7), the upper connecting device (2), the connecting support device (3) and the locking device (4), so as to avoid the test results being affected by manufacturing defects; S2. Installation of the tooling body (1): After all parts are prepared, the tooling body (1) is installed. First, the support column (7) is placed on the right half mold (6), and then the left half mold (5) and the right half mold (6) are combined and connected together so that the support column (7) is located in the installation hole in the cylindrical mold. Finally, the left half mold (5), the right half mold (6) and the support column (7) are fixedly connected through the locking hole using a locking nut. Then, check whether the support column (7) is stable and ensure that the thread in the through hole of the support column (7) is tightly fitted with the outer surface of the support column (7) to avoid affecting the stability of the test due to looseness. S3. Installation of the upper connection device (2): After the tool body (1) is installed, the connection hole on the upper part of the support column (7) is coaxially connected with the fixing hole on the test equipment, and then the limiting column is passed through the connection hole on the upper part of the support part and the fixing hole on the test equipment to fix the connection, ensuring that it does not fall off or loosen during the entire pull-off strength test process; S4. Installation of the connecting support device (3): After the upper connecting device (2) is installed, the connecting hole at the bottom of the supporting column (7) is coaxially connected with the fixing hole on the supporting base (8), and then the supporting pin (9) is inserted into the connecting hole at the bottom of the supporting column (7) and the fixing block on the supporting base (8) to fix the connection. In addition, the angle of the supporting base (8) needs to be adjusted according to the test requirements to ensure that the supporting device stably supports the tooling body (1) during the test; S5. Check the stability of the tooling: After all parts are installed, it is necessary to check the stability of the locking device (4), the upper connecting device (2) and the connecting support device (3) again to confirm that the tooling body (1) will not be displaced or fall off during the entire test process; S6. Installation of the liquid cylinder assembly: After the tool body (1) has been installed and confirmed to be stable, start installing the liquid storage cylinder assembly; align the liquid storage cylinder assembly with the fixed position on the tool body (1), and then carefully install the liquid storage cylinder assembly at the designated position on the tool body (1), and check whether the liquid storage cylinder assembly is completely fixed and ensure that it does not move; S7. Debugging of test equipment: After the inspection is completed, debug the test equipment; check whether the pull-off strength test equipment is correctly connected and confirm that the equipment can operate normally. During the debugging process, special attention should be paid to the sensitivity of the equipment's tension sensor and measuring instrument to ensure that they can accurately read the pull-off strength value; S8. Start the pull-off strength test: After the test equipment is debugged, the pull-off strength test is officially started. The test equipment is started, and the pulling force is slowly increased until the pull-off force of the liquid storage cylinder assembly reaches the set value. During the test, the data changes on the test equipment are monitored in real time to ensure that the test process is carried out smoothly and the pull-off strength data is accurate. S9. Record test data: After the test is completed, record the value of the pull-off strength and the factors that affect the test results, including but not limited to the installation of the tooling and the performance of the test equipment; S10, test result analysis: after all test data are recorded, compare the test data with the standard value to evaluate whether the pull-off strength of the liquid storage cylinder assembly meets the requirements. If the test results do not meet the requirements, it is necessary to analyze the reasons based on the test data, and may re-test or adjust the tooling design; S11, cleaning and disassembly: After the test results are analyzed, start cleaning and disassembling the tooling, disassemble the tooling parts in sequence, and perform cleaning and maintenance to ensure the long-term service life of the equipment and tooling; S12. Record and archive: When all disassembly and cleaning work is completed, organize the test report and archive it for future reference. The test report includes but is not limited to the use of the tooling, the performance of the liquid storage cylinder assembly, and the pull-off strength value.
7. A liquid storage cylinder assembly pull-off strength test tool as claimed in claim 4, characterized in that: The adjustable angle range of the support base (8) is 5°-20°, and the sensitivity of the angle adjustment is 1°. This design can be finely adjusted according to different test requirements to improve the applicability and test accuracy of the tooling.