Method and device for testing compatibility of database

Abstract

The invention provides a database compatibility test method and device, and relates to the technical field of software development, the device comprises a test board, a test host, a switching positioning assembly and an external storage module, the test host is screwed on the surface of the test board, the switching positioning assembly is welded above the test board, the side edge of the switching positioning assembly is provided with a switching track, and the switching track is connected with the external storage module. An external storage module is embedded in the inner side of the switching positioning assembly. Additional locking and heat dissipation treatment can be provided for storage carriers of different specifications, the locking mechanism and the heat dissipation assembly have the self-adaptive function, it is ensured that the different storage carriers can be matched and attached, the accurate and effective connection locking effect and the attaching heat dissipation effect are provided, and the service life of the storage carriers is prolonged. The connection stability of the hardware part in the subsequent test process is improved, efficient positioning and convenient plugging can be carried out when one group of connection ports are connected to transmit data, and other ports which are not plugged provide a covering dustproof effect.

Description

Technical Field

[0001] The present invention relates to the technical field of software development, and in particular to a database compatibility testing method and device. Background Art

[0002] Database compatibility testing is used to test the compatibility of applications in different database systems, including but not limited to relational and non-relational databases. Through this testing, developers can verify whether the application can run stably in various database environments, handle data conversion and storage issues, and ensure that data is transmitted and processed between different databases without errors or loss. In addition, this test also focuses on how the application handles different data formats, such as JSON and XML, which is crucial to ensure that the application can handle diverse data input and output.

[0003] In the prior art compatibility test method for databases, it is necessary to import the data to be tested into the test host, and complete the subsequent test process with the help of the test program installed in the host. For multiple databases of different types or versions, multiple tests are often required. In order to improve the test efficiency and facilitate unified management, an external data storage module is used, which is connected to the host before testing. This leads to the need to frequently plug and unplug the external storage module, and different data storage carriers have different specifications and inconsistent connection ports, which makes it impossible to provide equivalent locking and heat dissipation treatment for storage carriers of different specifications, thereby reducing the stability of the hardware connection during the subsequent test process. Summary of the invention

[0004] In view of the deficiencies in the prior art, the purpose of the present invention is to provide a database compatibility testing method and device to solve the problems raised in the above-mentioned background technology. The present invention can provide additional locking and heat dissipation treatments for storage carriers of different specifications, and the locking mechanism and the heat dissipation component have adaptive functions to ensure that different storage carriers can be matched and fitted, providing accurate and effective connection locking effect and fitting heat dissipation effect, thereby improving the stability of the hardware part connection in the subsequent testing process, and can also efficiently locate and conveniently plug and unplug when one group of connection ports is connected to transmit data, while other unplugged ports provide covering and dustproof effects.

[0005] In order to achieve the above-mentioned purpose, the present invention is implemented through the following technical scheme: a database compatibility testing device, including a testing device body, the testing device body including a test bench, a test host, a switching positioning component and an external storage module, the test host is screwed on the surface of the test bench, the switching positioning component is welded on the top of the test bench, and a switching track is arranged on the side of the switching positioning component, an external storage module is embedded in the inner side of the switching positioning component, a data slot is carried on the inner bottom area of ​​the switching track, a hard disk slot is provided on the inner side of the external storage module, an adaptive heat dissipation component is embedded on one side of the hard disk slot, a locking mechanism is inserted on the side of the external storage module, the top and bottom of the hard disk slot are both in an open state, and the bottom side of the external storage module is in contact with the inner wall of the switching track.

[0006] Furthermore, the external storage module includes a hard disk box and a slider, the slider is integrally formed at the bottom of both sides of the hard disk box, the side of the hard disk box is provided with a lifting groove, and the two ends of the locking mechanism pass through the inside of the lifting groove.

[0007] Furthermore, the adaptive heat dissipation component includes a rear baffle and an extension rod, the end of the extension rod is provided with a supporting roller, the surface of the extension rod is integrally formed with a convex column, the rear end of the convex column is welded with a second spring rod, the rear end of the second spring rod is provided with a telescopic sleeve, and the rear end of the telescopic sleeve is integrally formed with a sliding sheet.

[0008] Furthermore, balls are embedded on the surface of the sliding plate, a thermal conductive silicon pad is mounted on the surface of the rear baffle, a heat dissipation bin is integrally formed on the top of the rear baffle, a heat dissipation fan is embedded on the top of the heat dissipation bin, and the side of the rear baffle is in contact with the inner wall of the hard disk slot.

[0009] Furthermore, the switching positioning assembly includes a positioning plate and a switching track, the positioning plate is welded to the top of the switching track on one side, a positioning interlayer is provided on the inner side of the positioning plate, a guide inclined plate is provided at the rear end of the positioning interlayer, and a groove is provided on the surface of the guide inclined plate.

[0010] Furthermore, the supporting roller moves along the surface of the guide inclined plate, the extension rod is embedded in the interior of the positioning interlayer, a sliding groove is opened on the inner wall of the switching track, the sliding block is embedded in the interior of the sliding groove, and a winding shaft is inserted at both ends of the inner side of the switching track, a dustproof film is wound on the surface of the winding shaft, and the end of the dustproof film is attached to the side of the hard disk box.

[0011] Furthermore, the locking mechanism includes a pull rod and a flip clamp, the two ends of the pull rod are welded with brackets, the bottom of the bracket is welded with a bonding plate, the inner side of the bonding plate is integrally formed with an insert block, and the surface of the insert block is inserted with a first spring rod.

[0012] Furthermore, a rotating sleeve is welded to the end of the first spring rod, the rear end of the flip splint is inserted into the interior of the rotating sleeve through a rod, an anti-slip pad is mounted on the surface of the flip splint, and a counterweight block is mounted on the top of the rear end of the flip splint.

[0013] A testing method using the above-mentioned testing device comprises the following steps:

[0014] Step 1: Determine the database types that the test application needs to support, verify data compatibility and interactive functions; select the database version and configuration to be tested, and identify the specific data formats and data operations that need to be tested;

[0015] Step 2: Prepare the test environment, which includes installing and configuring the database, preparing test data, and configuring test tools;

[0016] Step 3: Design test cases to test routine business operations, abnormal and boundary conditions, and data integrity and consistency;

[0017] Step 4: Run the test cases, execute the test cases one by one according to the test plan, and monitor and record the test process;

[0018] Step 5: Compare and evaluate the test results in different database environments, evaluate the compatibility of the application, and analyze the failures and anomalies in the test results;

[0019] Step 6. Work with the development team to fix problems based on the list of issues in the test results. If new or legacy issues are found, continue to fix and test.

[0020] Furthermore, in the step one, the database types tested include relational databases MySQL, Oracle, SQL Server, and NoSQL databases MongoDB, Cassandra; data modification operations include adding, modifying, deleting, and query processing; in the step four, the execution results of each test case are recorded, including success, failure, and abnormal situations, and the monitoring scope includes monitoring the performance indicators, response time, and throughput of the database during the test.

[0021] Beneficial effects of the present invention:

[0022] 1. The present invention clamps the data storage carriers with the help of a locking mechanism for storage carriers of different specifications, and uses the clamping effect to plug, unplug and move the storage carriers. The flip clamp and the counterweight block in the locking mechanism can automatically provide clamping from both sides when the storage carrier is inserted, and different storage carriers can be matched and fitted, providing an accurate and effective connection locking effect, thereby improving the stability of the hardware part connection during subsequent testing.

[0023] 2. The present invention can provide additional heat dissipation treatment, and the heat dissipation component has an adaptive function, ensuring that different storage carriers can be matched and fitted, providing accurate and effective fitting and heat dissipation effects, expanding the applicable hard disk or other storage carrier specification range, and having higher flexibility. At the same time, it also provides an extrusion effect on the storage carrier in another direction, further improving stability and reducing the probability of loosening after collision.

[0024] 3. The present invention uses an external storage module to push storage carriers of different specifications inside so that they can be docked with different plug-in ports. The switching positioning component can be used to efficiently locate and conveniently plug and unplug one group of connection ports when they are connected to transmit data, while other unplugged ports provide a covering and dustproof effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 A schematic diagram of the structure of a database compatibility testing device according to the present invention;

[0026] Figure 2 It is a structural schematic diagram of the external storage module part of the testing device of the present invention;

[0027] Figure 3 A cross-sectional top view of the interior of the positioning plate of the present invention;

[0028] Figure 4 It is a schematic diagram of the structure of the adaptive heat dissipation component part of the test device of the present invention;

[0029] Figure 5 is a cross-sectional view of the locking mechanism portion of the test device of the present invention;

[0030] Figure 6 A cross-sectional view of a switching positioning component portion of a testing device of the present invention;

[0031] Figure 7 A flowchart of a database compatibility testing method of the present invention;

[0032] In the figure: 1. test bench; 2. test host; 3. data slot; 4. switch positioning component; 5. positioning plate; 6. external storage module; 7. hard disk box; 8. slider; 9. lifting slot; 10. hard disk slot; 11. locking mechanism; 12. adaptive heat dissipation component; 13. positioning interlayer; 14. guide inclined plate; 15. rear baffle; 16. thermal conductive silicon pad; 17. heat dissipation compartment; 18. heat dissipation fan; 19. extension rod; 20. top roller; 21. pull rod; 22. bracket; 23. bonding plate; 24. insert block; 25. first spring rod; 26. flip splint; 27. anti-skid pad; 28. counterweight; 29. ​​dustproof film; 30. groove; 31. boss; 32. second spring rod; 33. telescopic sleeve; 34. sliding sheet; 35. rotating sleeve; 36. switching track; 37. winding shaft; 38. slide groove. DETAILED DESCRIPTION

[0033] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0034] See also Figures 1 to 7 The present invention provides the following technical solutions: a compatibility test device for a database, comprising a test device body, the test device body comprising a test bench 1, a test host 2, a switching positioning component 4 and an external storage module 6, the test host 2 is screwed on the surface of the test bench 1, the switching positioning component 4 is welded on the top of the test bench 1, and a switching track 36 is arranged on the side of the switching positioning component 4, the external storage module 6 is embedded in the inner side of the switching positioning component 4, the inner bottom area of ​​the switching track 36 is equipped with a data slot 3, a hard disk slot 10 is opened on the inner side of the external storage module 6, an adaptive heat dissipation component 12 is embedded on one side of the hard disk slot 10, a locking mechanism 11 is inserted on the side of the external storage module 6, the top and bottom of the hard disk slot 10 are both in an open state, and the bottom side of the external storage module 6 is in contact with the inner wall of the switching track 36. The compatibility testing device of the database is used to test the data stored in the external hard disk. With the external storage module, the storage carrier is embedded in the hard disk box 7. After the switching positioning component 4 is connected with the corresponding data slot 3, the external hard disk can be connected to the test host 2 to complete the subsequent database compatibility testing process.

[0035] When the present invention is used, the storage carrier, that is, the hard disk storing the database to be tested, is first inserted into the external storage module 6, and then the hard disk is clamped and locked with the help of the locking mechanism 11. Subsequently, the external storage module 6 is pulled to move along the switching positioning component 4 until it moves to the data slot 3 area corresponding to the hard disk, and then downward pressure is applied to the hard disk at this position, so that the bottom of the hard disk can be embedded in the data slot 3, and the connection process with the test host 2 is realized. At this time, the subsequent test process can be carried out. During the entire test process, the adaptive heat dissipation component 12 is used to provide clamping and heat dissipation effects, and the locking mechanism 11 always provides a clamping and locking effect. After the test is completed, the pull rod 21 on the outside of the locking mechanism 11 can be directly pulled to remove the external hard disk device that has completed the test inside.

[0036] In this embodiment, the external storage module 6 includes a hard disk box 7 and a slider 8, the slider 8 is integrally formed at the bottom of both sides of the hard disk box 7, the side of the hard disk box 7 is provided with a lifting slot 9, and the two ends of the locking mechanism 11 pass through the inside of the lifting slot 9. The adaptive heat dissipation component 12 includes a rear baffle 15 and an extension rod 19, the end of the extension rod 19 is sleeved with a supporting roller 20, the surface of the extension rod 19 is integrally formed with a convex column 31, the rear end of the convex column 31 is welded with a second spring rod 32, the rear end of the second spring rod 32 is sleeved with a telescopic sleeve 33, and the rear end of the telescopic sleeve 33 is integrally formed with a sliding sheet 34. The surface of the sliding sheet 34 is embedded with a ball bearing, the surface of the rear baffle 15 is mounted with a thermal conductive silicon pad 16, the top of the rear baffle 15 is integrally formed with a heat dissipation chamber 17, the top of the heat dissipation chamber 17 is embedded with a heat dissipation fan 18, and the side of the rear baffle 15 is in contact with the inner wall of the hard disk slot 10. It provides additional heat dissipation treatment, and the heat dissipation component has an adaptive function, ensuring that it can match and fit different storage carriers, providing accurate and effective fitting and heat dissipation effects, expanding the applicable hard disk or other storage carrier specification range, and having higher flexibility. It also provides an extrusion effect on the storage carrier in another direction, further improving stability and reducing the probability of loosening after collision. The inner wall of the opening of the positioning interlayer 13 is provided with an inner convex strip structure, and the sliding sheet 34 is pressed against the convex strip on the inner side of the opening of the positioning interlayer 13 through the ball bearings embedded on the surface.

[0037] Specifically, by pulling the external storage module 6, the adaptive heat dissipation component 12 on the inside can be driven to move. Since the hard disk specifications and the types of data slot 3 interfaces corresponding to different areas in the switching track 36 are fixed, the guide ramp 14 on the inner side of the positioning interlayer 13 also corresponds to the hard disk types suitable for different areas, and supports and guides the extension rod 19. Finally, after moving to any position, the position of the rear baffle 15 can be changed through the guide ramp 14 at that position to ensure that the rear baffle 15 can maintain contact with the surface of the hard disk used at that position, so that any specification of the hard disk can ensure that the adaptive heat dissipation component 12 at the rear automatically completes the contact process with the surface of the hard disk of that specification after moving to the corresponding position.

[0038] In this embodiment, the switching positioning assembly 4 includes a positioning plate 5 and a switching track 36. The positioning plate 5 is welded to the top of the switching track 36 on one side. A positioning interlayer 13 is provided on the inner side of the positioning plate 5. A guide inclined plate 14 is provided at the rear end of the positioning interlayer 13. A groove 30 is provided on the surface of the guide inclined plate 14. The supporting roller 20 moves along the surface of the guide inclined plate 14. The extension rod 19 is embedded in the interior of the positioning interlayer 13. A slide groove 38 is provided on the inner wall of the switching track 36. The slider 8 is embedded in the interior of the slide groove 38. A reeling shaft 37 is inserted at both ends of the inner side of the switching track 36. A dustproof film 29 is wound on the surface of the reeling shaft 37. The end of the dustproof film 29 is attached to the side of the hard disk box 7. With the help of the external storage module 6, storage carriers of different specifications inside are pushed to connect with different plug-in ports. The switching positioning component 4 can efficiently locate and conveniently plug and unplug when one group of connection ports is connected to transmit data, while other unplugged ports provide covering and dustproof effects.

[0039] Specifically, since the hard disk is loaded through the external storage module 6, when in use, the hard disk will be loaded through the slidable hard disk box 7, and the internal hard disk will be moved synchronously by the moving effect of the external storage module 6 until it moves to the data slot 3 area that matches the hard disk type, and the hard disk embedded in it can be directly pressed down by the locking mechanism 11 to complete the data plug-in process, and the hard disk box 7 always moves along the slide groove 38 of the inner wall of the switching track 36 through the slider 8 on the bottom side, so as to achieve the effect of switching and docking storage carriers of different types and specifications. At the same time, pulling the hard disk box 7 can also pull the dustproof film 29 at both ends synchronously, so that each data slot 3 in the two side areas of the hard disk box 7 is covered, preventing external dust from entering the unused data slot 3, achieving a dustproof effect, and only the same database compatibility can be tested at the same time, so only a single external storage module 6 can meet the test task requirements.

[0040] In this embodiment, the locking mechanism 11 includes a pull rod 21 and a flip clamp 26. The two ends of the pull rod 21 are welded with a bracket 22. The bottom of the bracket 22 is welded with a bonding plate 23. The inner side of the bonding plate 23 is integrally formed with an insert block 24. The surface of the insert block 24 is inserted with a first spring rod 25. The end of the first spring rod 25 is welded with a rotating sleeve 35. The rear end of the flip clamp 26 is inserted into the interior of the rotating sleeve 35 through a rod. The surface of the flip clamp 26 is mounted with an anti-slip pad 27. The top of the rear end of the flip clamp 26 is mounted with a counterweight 28. The locking mechanism 11 is used to clamp the data storage carriers of different specifications, and the clamping effect is used to plug, unplug and move the data storage carriers. The flip clamp 26 and the counterweight 28 in the locking mechanism 11 can automatically provide clamping from both sides when the storage carrier is inserted, and can match and fit different storage carriers, provide accurate and effective connection locking effects, and improve the stability of the hardware part connection in the subsequent test process.

[0041] Specifically, after the hard disk is embedded into the hard disk slot 10, the bottom of the hard disk will be pressed downward onto the surface of the flip clamp 26. Since the flip clamp 26 has a counterweight block 28 at the top rear end in the initial state, the top ends of the flip clamps 26 on both sides are tilted toward the rear. This means that after the hard disk is embedded, the tilted flip pressure plate can gradually rotate to a vertical state due to vertical pressure, and the first spring rod 25 at the rear end is also compressed. Finally, the anti-slip pad 27 on the surface is used to squeeze the side of the hard disk to provide a squeezing effect. After being squeezed, the external pull rod 21 can be used to control the hard disk to rise and fall, so that the entire hard disk can be hidden inside the hard disk slot 10, providing an impact-resistant effect without affecting the subsequent plugging and unplugging process.

[0042] This embodiment also provides a testing method using the above-mentioned testing device, comprising the following steps:

[0043] Step 1: Determine the database types that the test application needs to support, verify data compatibility and interactive functions; select the database version and configuration to be tested, identify the specific data format and data operations that need to be tested, and the database types tested include relational databases MySQL, Oracle, SQL Server, and NoSQL databases MongoDB and Cassandra; data modification operations include adding, modifying, deleting, and querying;

[0044] Step 2: Prepare the test environment, which includes installing and configuring the database: install the target database system and its different versions in the test environment. The database includes database table structure, indexes, views, etc. to simulate the actual application scenario; prepare test data: prepare various types of test data according to the test case design, including normal data and abnormal data, such as data type mismatch, length exceeding the limit, etc.; configure test tools: select appropriate test tools, such as database test framework, automated test tools, etc., and then configure the test tools to connect to and operate the database;

[0045] Step 3: Design test cases to verify the application's regular business operations on the database, such as adding, deleting, modifying and checking data, to ensure that the application can correctly perform these operations in each database environment, test regular business operations, abnormal and boundary conditions, and data integrity and consistency, and finally check whether there is any problem such as data loss, data duplication or data inconsistency;

[0046] Step 4: Run the test cases. Execute the test cases one by one according to the test plan, monitor and record the test process, and record the execution results of each test case, including success, failure, and abnormal conditions. The monitoring scope includes the performance indicators, response time, and throughput of the monitoring database during the test process.

[0047] Step 5: Compare and evaluate the test results under different database environments, evaluate the compatibility of the application, analyze the failures and anomalies in the test results, and prepare a summary report based on the above test results. The report includes the test overview, test environment, test cases, test results, problem list and suggestions, etc.;

[0048] Step 6. Work with the development team to fix problems based on the problem list in the test results. If new or legacy issues are found, continue to fix and test. Based on actual testing experience and feedback, continuously optimize the test process, test cases, and test tools, establish a long-term monitoring mechanism to track the occurrence and changing trends of database compatibility issues, and provide data support for future optimization.

[0049] The basic principles and main features of the present invention and the advantages of the present invention are shown and described above. For those skilled in the art, it is obvious that the present invention is not limited to the details of the above exemplary embodiments, and the present invention can be implemented in other specific forms without departing from the spirit or basic characteristics of the present invention.

[0050] In addition, it should be understood that although the present specification is described according to implementation modes, not every implementation mode contains only one independent technical solution. This description of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation modes that can be understood by those skilled in the art.

Claims

1. A database compatibility testing device, comprising a testing device body, characterized in that: The test device body comprises a test bench (1), a test host (2), a switching positioning component (4) and an external storage module (6); the test host (2) is screwed onto the surface of the test bench (1); the switching positioning component (4) is welded on the top of the test bench (1); a switching track (36) is arranged on the side of the switching positioning component (4); an external storage module (6) is embedded inside the switching positioning component (4); a data slot (3) is mounted on the inner bottom area of ​​the switching track (36); a hard disk slot (10) is provided inside the external storage module (6); an adaptive heat dissipation component (12) is embedded on one side of the hard disk slot (10); a locking mechanism (11) is inserted on the side of the external storage module (6); the top and bottom of the hard disk slot (10) are both in an open state; and the bottom side of the external storage module (6) is in contact with the inner wall of the switching track (36).

2. A database compatibility testing device according to claim 1, characterized in that: The external storage module (6) comprises a hard disk box (7) and a slider (8), wherein the slider (8) is integrally formed at the bottom of both sides of the hard disk box (7), and a lifting groove (9) is provided on the side of the hard disk box (7), and both ends of the locking mechanism (11) pass through the inside of the lifting groove (9).

3. A database compatibility testing device according to claim 2, characterized in that: The adaptive heat dissipation assembly (12) comprises a rear baffle (15) and an extension rod (19); the end of the extension rod (19) is sleeved with a supporting roller (20); a convex column (31) is integrally formed on the surface of the extension rod (19); a second spring rod (32) is welded to the rear end of the convex column (31); a telescopic sleeve (33) is sleeved at the rear end of the second spring rod (32); and a sliding sheet (34) is integrally formed at the rear end of the telescopic sleeve (33).

4. A database compatibility testing device according to claim 3, characterized in that: A ball bearing is embedded on the surface of the sliding plate (34), a heat-conducting silicon pad (16) is mounted on the surface of the rear baffle (15), a heat dissipation chamber (17) is integrally formed on the top of the rear baffle (15), a heat dissipation fan (18) is embedded on the top of the heat dissipation chamber (17), and the side of the rear baffle (15) is in contact with the inner wall of the hard disk slot (10).

5. The database compatibility testing device according to claim 3, characterized in that: The switching positioning assembly (4) comprises a positioning plate (5) and a switching track (36); the positioning plate (5) is welded to the top of the switching track (36) on one side; a positioning interlayer (13) is provided on the inner side of the positioning plate (5); a guide inclined plate (14) is provided at the rear end of the positioning interlayer (13); and a groove (30) is provided on the surface of the guide inclined plate (14).

6. A database compatibility testing device according to claim 5, characterized in that: The supporting roller (20) moves along the surface of the guide inclined plate (14), the extension rod (19) is embedded in the interior of the positioning interlayer (13), a slide groove (38) is opened on the inner wall of the switching track (36), the slider (8) is embedded in the interior of the slide groove (38), and a winding shaft (37) is inserted at both ends of the inner side of the switching track (36), and a dustproof film (29) is wound on the surface of the winding shaft (37), and the end of the dustproof film (29) is attached to the side of the hard disk box (7).

7. A database compatibility testing device according to claim 2, characterized in that: The locking mechanism (11) comprises a pull rod (21) and a flip clamp (26), the two ends of the pull rod (21) are welded with brackets (22), the bottom of the bracket (22) is welded with a bonding plate (23), the inner side of the bonding plate (23) is integrally formed with an insert block (24), and the surface of the insert block (24) is inserted with a first spring rod (25).

8. A database compatibility testing device according to claim 7, characterized in that: A rotating sleeve (35) is welded to the end of the first spring rod (25), the rear end of the flip clamp (26) is inserted into the interior of the rotating sleeve (35) through a rod, an anti-slip pad (27) is attached to the surface of the flip clamp (26), and a counterweight (28) is attached to the top of the rear end of the flip clamp (26).

9. A testing method using the testing device as claimed in claim 1, characterized in that: The following steps are involved: Step 1: Determine the database types that the test application needs to support, verify data compatibility and interactive functions; select the database version and configuration to be tested, and identify the specific data formats and data operations that need to be tested; Step 2: Prepare the test environment, which includes installing and configuring the database, preparing test data, and configuring test tools; Step 3: Design test cases to test routine business operations, abnormal and boundary conditions, and data integrity and consistency; Step 4: Run the test cases, execute the test cases one by one according to the test plan, and monitor and record the test process; Step 5: Compare and evaluate the test results in different database environments, evaluate the compatibility of the application, and analyze the failures and anomalies in the test results; Step 6. Work with the development team to fix problems based on the list of issues in the test results. If new or legacy issues are found, continue to fix and test.

10. The testing method according to claim 9, characterized in that: In the step 1, the database types tested include relational databases MySQL, Oracle, SQL Server, and NoSQL databases MongoDB, Cassandra; data modification operations include adding, modifying, deleting, and querying; in the step 4, the execution results of each test case are recorded, including success, failure, and abnormal situations, and the monitoring scope includes monitoring the performance indicators, response time, and throughput of the database during the test.

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