Air pump movement integrated automatic testing method and clamp
By using an integrated automatic testing method and fixture for air pump components, fully automated testing and data recording of air pump components have been achieved, solving the problems of cumbersome operation and low efficiency of traditional testing methods, and providing efficient data management and statistical functions.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- YIWU LIHU AUTO ACCESSORIES CO LTD
- Filing Date
- 2023-09-09
- Publication Date
- 2026-05-12
AI Technical Summary
Traditional air pump core testing methods are limited in function, cumbersome in operation, inefficient, unable to automatically record and query data, and require multiple operators.
The system adopts an integrated automatic testing method and fixture for air pumps and motors. Through the collaborative work of the host computer and the slave computer, it realizes automatic testing and data recording, supports the switching of multiple units, and tests items include no-load current, on-load current, air flow rate, power consumption, and maximum air pressure. It automatically generates data tables and graphs, and allows querying and statistical analysis of test results.
It achieves fully automated testing of air pump components, reduces floor space, requires only one operator, can test two sets of components simultaneously, automatically records and saves data, supports multiple test units, generates data tables and graphs, and provides real-time data query and statistical functions.
Smart Images

Figure CN117028236B_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of air pump mechanism technology, specifically to an integrated automatic testing method and fixture for air pump mechanisms. Background Technology
[0002] Traditional manual test clamps have disadvantages such as limited functionality, large testing space requirements, large number of personnel required for testing, cumbersome and complex operation, slow testing speed and low efficiency, and inability to automatically record and review data. Summary of the Invention
[0003] The technical problem to be solved by this invention is to provide an integrated automatic testing method and fixture for air pump components; this invention can be used for PSI, BAR, KPA, kg / cm², etc. 2 The unit can be freely switched, and it supports no-load and load current testing, air flow testing at 0-40 PSI, maximum air pressure testing, airtightness testing, power consumption testing, automatic laser engraving of good product codes after successful testing, automatic generation of data tables and graphs, data storage and query functions, etc. Current or previous data can be viewed and exported at any time. It can also automatically calculate the number of good products / yield rate, number of defective products / defect rate, and total number of tests for the day, thus solving the technical problems mentioned in the background.
[0004] The automatic testing method for the integrated air pump core of this invention is achieved through the following technical solution: including a testing method installed in a host computer; the specific testing method is as follows:
[0005] S1. The host computer displays the UI and retrieves previously saved preset data;
[0006] S2. Press the A / B group start button in the host computer or press the A and B group start buttons at the same time;
[0007] S3. The host computer sends the A / B group start command and power preset value to the slave computer. Five seconds later, the air pump motor does not respond. The host computer displays a UI reminder: A / B group slave computer communication is abnormal.
[0008] S4. No-load current test:
[0009] S41. The host computer sends an open-circuit current test command to the slave computer.
[0010] S42. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S43; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: Communication between lower-level machines in group A / B is abnormal.
[0011] S43. The host computer displays the measured values and judges and displays the results based on the preset values;
[0012] S5. Load Current Test:
[0013] S51, The host computer sends a load current test command to the slave computer;
[0014] S52. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S53; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: A / B group lower-level machine communication abnormality.
[0015] S53. The host computer displays the measured values and judges and displays the results based on preset values;
[0016] S6, 0-50PSI airflow test:
[0017] S61, The host computer sends a gas flow test command to the slave computer;
[0018] S62. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S63; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: A / B group lower-level machine communication abnormality.
[0019] S63. The host computer displays the measured values and judges and displays the results based on preset values;
[0020] S7, Power Consumption Test;
[0021] S71, The host computer sends a power consumption test command to the slave computer;
[0022] S72. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S73; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: A / B group lower-level machine communication abnormality.
[0023] S73, The host computer displays the measured values and judges and displays the results based on preset values;
[0024] S8, Pressure Holding Test;
[0025] S81, The host computer sends a pressure holding test command to the slave computer;
[0026] S82. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S83; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: A / B group lower-level machine communication abnormality.
[0027] S83, The host computer displays the measured values and judges and displays the results based on preset values;
[0028] S9, Maximum air pressure test;
[0029] S91. The host computer sends the highest air pressure test command to the slave computer.
[0030] S92. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S93; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: Communication between lower-level machines in group A / B is abnormal.
[0031] S93. The host computer displays the measured values and judges and displays the results based on preset values;
[0032] S10, Overall Judgment and Processing;
[0033] If the test results of steps S101 and S4-S9 all meet the standard, proceed to step S102; if the test results of steps S4-S9 do not meet the standard or one of them does not meet the standard, upload to the host computer, increment the number of defective products by 1, update the daily defective product rate, save all data to the background database, and automatically generate data tables and graphs for future reference.
[0034] S102. The host computer updates the good product code, increments the good product count by 1, updates the daily good / defect rate, saves all data to the background database, and automatically generates data tables and graphs for future reference.
[0035] S103. The host computer sends the good product codes of group A / B to the slave computer. After processing, the slave computer sends the codes to the laser machine for marking, so as to make good product codes for future reference.
[0036] As a preferred technical solution, S1, the host computer displays the UI and retrieves previously saved preset data;
[0037] S11, Data Query;
[0038] S12, query by date and query by code.
[0039] The automatic testing fixture for the integrated air pump mechanism of this invention is achieved through the following technical solution: it includes a worktable and a testing fixture assembly and a laser marking assembly mounted on the worktable;
[0040] The test fixture assembly includes a first host computer assembly and a slave computer assembly connected to the first host computer assembly; a test assembly connected to the slave computer assembly is provided on the surface of the worktable.
[0041] As a preferred technical solution, the test assembly includes a first panel and A / B group test assemblies and a solenoid valve mounted on the first panel;
[0042] Both the A and B group test components include a first mechanism fixture. A front-to-back telescopic cylinder is provided on one side of the first mechanism fixture, and an up-and-down telescopic cylinder is provided on the upper end of the first mechanism fixture. Both the front-to-back telescopic cylinder and the up-and-down telescopic cylinder are connected to solenoid valves.
[0043] As a preferred technical solution, the lower-level machine component includes a second panel and a first power supply box; the first power supply box is connected to the air pump mechanism (not shown) on the first mechanism fixture;
[0044] The movable end of the front and rear telescopic cylinders is hollow, and a first interface is provided on the movable end; the movable end is connected to the air pump core.
[0045] As a preferred technical solution, the second panel includes one or more cylinders; an airflow sensor and a flow control display are provided on the side of the cylinder.
[0046] The cylinder is connected to the airflow sensor via a first pipe; the airflow sensor is connected to the flow control display via a second pipe; a second interface is provided on the second pipe; the second interface is connected to the first interface via a third pipe.
[0047] As a preferred technical solution, the first host computer component includes a first display and a computer host connected to the first display;
[0048] The laser marking assembly includes a second core fixture mounted on the worktable and a lifting laser machine; the lifting laser machine and the second core fixture are arranged vertically opposite each other.
[0049] As a preferred technical solution, the first monitor is connected to the computer host; a second power supply box connecting the first monitor and the computer host is provided inside the workbench.
[0050] The lifting laser machine is equipped with a second monitor; the workbench also contains a laser machine control amplifier, a laser computer host, and a foot pedal controller.
[0051] As a preferred technical solution, the second display, the lifting laser machine, the laser machine control amplifier, and the foot pedal controller are all connected to the laser computer host.
[0052] The workbench is equipped with a third power supply box that supplies power to the second monitor, the lifting laser machine, the laser computer host, and the laser machine control amplifier; the laser computer host is connected to the computer host for communication.
[0053] The beneficial effects of this invention are: This invention is fully automatically controlled by a computer, occupies a small area, and only requires one person to operate it to automatically test all functions and automatically record and save relevant data to the computer. It can simultaneously test two sets of movements; PSI, BAR, KPA, kg / cm² 2The unit can be freely switched, and it supports no-load and load current testing, air flow testing at 0-40 PSI, maximum air pressure testing, airtightness testing, power consumption testing, automatic laser engraving of good product codes after successful testing, automatic generation of data tables and graphs, data storage and query functions, etc. Users can view and export current or previous data at any time, and it can also automatically calculate the number of good products / yield rate, number of defective products / defect rate, and total number of tests for the day. Attached Figure Description
[0054] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.
[0055] Figure 1 and Figure 2 This is a flowchart illustrating the integrated automatic testing method and fixture for the air pump core of the present invention.
[0056] Figure 3 This is a schematic diagram of the test component;
[0057] Figure 4 This is a schematic diagram of the integrated automatic testing method and fixture for the air pump core of the present invention;
[0058] Figure 5 This is a schematic diagram of the lower-level machine components. Detailed Implementation
[0059] All features disclosed in this specification, or all steps in all disclosed methods or processes, may be combined in any way, except for mutually exclusive features and / or steps.
[0060] Any feature disclosed in this specification (including any appended claims, abstract, and drawings) may be replaced by other equivalent or similar features, unless specifically stated otherwise. That is, unless specifically stated otherwise, each feature is merely one example of a series of equivalent or similar features.
[0061] In the description of this invention, it should be understood that the terms "one end", "the other end", "outer side", "upper", "inner side", "horizontal", "coaxial", "center", "end", "length", "outer end", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing this invention and simplifying the description, and are not intended to indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this invention.
[0062] Furthermore, in the description of this invention, "a plurality of" means at least two, such as two, three, etc., unless otherwise explicitly specified.
[0063] The terms used in this invention, such as “above,” “over,” “below,” and “under,” indicating spatial relative position, are for illustrative purposes to describe the relationship of one unit or feature relative to another unit or feature as shown in the accompanying drawings. The terms of spatial relative position may be intended to include different orientations of the device in use or operation other than those shown in the figures. For example, if the device in the figures is flipped, a unit described as being “below” or “under” other units or features would be located “above” other units or features. Therefore, the exemplary term “under” can encompass both above and below orientations. The device may be oriented in other ways (rotated 90 degrees or otherwise) and the spatially related descriptive terms used herein shall be interpreted accordingly.
[0064] In this invention, unless otherwise explicitly specified and limited, the terms "set," "socket," "connect," "through," and "plug-in" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components, unless otherwise explicitly limited. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.
[0065] like Figure 1 and Figure 2 As shown, the present invention provides an integrated automatic testing method for an air pump core, including a testing method installed in a host computer; the specific testing method is as follows:
[0066] S1. The host computer displays the UI and retrieves previously saved preset data;
[0067] S2. Press the A / B group start button in the host computer or press the A and B group start buttons at the same time;
[0068] S3. The host computer sends the A / B group start command and power preset value to the slave computer. Five seconds later, the air pump motor does not respond. The host computer displays a UI reminder: A / B group slave computer communication is abnormal.
[0069] S4. No-load current test:
[0070] S41. The host computer sends an open-circuit current test command to the slave computer.
[0071] S42. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S43; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: Communication between lower-level machines in group A / B is abnormal.
[0072] S43. The host computer displays the measured values and judges and displays the results based on the preset values;
[0073] S5. Load Current Test:
[0074] S51, The host computer sends a load current test command to the slave computer;
[0075] S52. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S53; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: A / B group lower-level machine communication abnormality.
[0076] S53. The host computer displays the measured values and judges and displays the results based on preset values;
[0077] S6, 0-50PSI airflow test:
[0078] S61, The host computer sends a gas flow test command to the slave computer;
[0079] S62. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S63; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: A / B group lower-level machine communication abnormality.
[0080] S63. The host computer displays the measured values and judges and displays the results based on preset values;
[0081] S7, Power Consumption Test;
[0082] S71, The host computer sends a power consumption test command to the slave computer;
[0083] S72. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S73; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: A / B group lower-level machine communication abnormality.
[0084] S73, The host computer displays the measured values and judges and displays the results based on preset values;
[0085] S8, Pressure Holding Test;
[0086] S81, The host computer sends a pressure holding test command to the slave computer;
[0087] S82. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S83; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: A / B group lower-level machine communication abnormality.
[0088] S83, The host computer displays the measured values and judges and displays the results based on preset values;
[0089] S9, Maximum air pressure test;
[0090] S91. The host computer sends the highest air pressure test command to the slave computer.
[0091] S92. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and entered step S93; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: Communication between lower-level machines in group A / B is abnormal.
[0092] S93. The host computer displays the measured values and judges and displays the results based on preset values;
[0093] S10, Overall Judgment and Processing;
[0094] If the test results of steps S101 and S4-S9 all meet the standard, proceed to step S102; if the test results of steps S4-S9 do not meet the standard or one of them does not meet the standard, upload to the host computer, increment the number of defective products by 1, update the daily defective product rate, save all data to the background database, and automatically generate data tables and graphs for future reference.
[0095] S102. The host computer updates the good product code, increments the good product count by 1, updates the daily good / defect rate, saves all data to the background database, and automatically generates data tables and graphs for future reference.
[0096] S103. The host computer sends the good product codes of group A / B to the slave computer. After processing, the slave computer sends the codes to the laser machine for marking, so as to make good product codes for future reference.
[0097] In this embodiment, S1 involves the host computer displaying the UI and retrieving previously saved preset data;
[0098] S11, Data Query;
[0099] S12, query by date and query by code.
[0100] Thus achieving PSI, BAR, KPA, kg / cm 2 Units can be freely switched, including no-load and load current testing, air flow testing under 0-40 pressure (PSI), maximum air pressure testing, air tightness testing, power consumption testing, automatic laser engraving of good product codes after testing is OK, automatic generation of data tables and graphs, data storage and query functions, etc.
[0101] You can view and export current or previous data at any time. It can also automatically calculate the number of good products / good product rate, the number of defective products / defective product rate, the total number of tests, and other information for the day.
[0102] It is fully automatically controlled by computer, occupies a small area, and only requires one person to operate it to automatically test all functions and automatically record and save relevant data to the computer. It can test two sets of movements at the same time.
[0103] like Figures 3-5 As shown, the present invention provides an integrated automatic testing fixture for an air pump core. The testing component 6 includes a first panel 11 and an A / B group testing component 7 and a solenoid valve 8 mounted on the first panel 11.
[0104] The test components 7 of groups A and B both include a first mechanism fixture 9-1. A front and rear telescopic cylinder 9 is provided on one side of the first mechanism fixture 9-1, and an upper and lower telescopic cylinder 10 is provided on the upper end of the first mechanism fixture 9-1. Both the front and rear telescopic cylinder 9 and the upper and lower telescopic cylinder 10 are connected to a solenoid valve 8.
[0105] In this embodiment, the lower-level machine component 5 includes a second panel 12 and a first power supply box 13-1; the first power supply box 13-1 is connected to the air pump mechanism (not shown) on the first mechanism clamp 9-1;
[0106] The movable end 9-1 of the front and rear telescopic cylinder 9 is hollow, and the movable end 9-1 is provided with a first interface 9-2; the movable end 9-1 is connected to the air pump core.
[0107] In this embodiment, the second panel 12 includes one or more cylinders 14; an airflow sensor 15 and a flow control display 16 are provided on the side of the cylinder 14.
[0108] Cylinder 14 is connected to airflow sensor 15 through first pipe 17-1; airflow sensor 15 is connected to flow control display 16 through second pipe 17-2; second interface 9-3 is provided on second pipe 17-2; second interface 9-3 is connected to first interface 9-2 through third pipe 17-3.
[0109] In this embodiment, the first host computer component 4 includes a first display 18-1 and a computer host 19 connected to the first display 18-1;
[0110] The laser marking assembly 3 includes a second core fixture 9-2 and a lifting laser machine 21 mounted on the worktable 1; the lifting laser machine 21 and the second core fixture 9-2 are arranged vertically opposite each other.
[0111] In this embodiment, the first display 18-1 is connected to the computer host 19; the workbench 1 is provided with a second power supply box 13-2 that connects the first display 18-1 and the computer host 19.
[0112] The lifting laser machine 21 is equipped with a second display 18-2; the workbench 1 is also equipped with a laser machine control amplifier 20, a laser computer host 22, and a foot pedal controller 23.
[0113] In this embodiment, the second display 18-2, the lifting laser machine 21, the laser machine control amplifier 20, and the foot controller 23 are all connected to the laser computer host 22;
[0114] The workbench 1 is equipped with a third power supply box 13-3 that supplies power to the second monitor 18-2, the lifting laser machine 21, the laser computer host 22, and the laser machine control amplifier 20; the laser computer host 22 is connected to the computer host 19 to realize automatic laser engraving of good product codes after the test is OK.
[0115] The working principle of this invention is:
[0116] Place the air pump mechanism on the first mechanism fixture, press the start button, and the lower computer controls the vertical telescopic cylinder 10 to move downwards to fix the air pump mechanism, while the front and rear telescopic cylinders move forward. The first interface on the movable end of the front and rear telescopic cylinders connects to the air pump mechanism. The upper computer sends data such as air pressure unit, voltage, current, and test steps to the lower computer according to the set test mode. The lower computer tests the 10 functions and data of the mechanism according to the received test steps and data, and then returns the test data to the upper computer. The upper computer automatically judges whether the received test data is OK according to the set range. If OK, a green light is turned on and a good product code is sent to the laser engraving component for laser engraving and saving all test data to the database for future reference and tracking. If OK, a red light is turned on and the test fails, and the next mechanism is replaced and the above actions are repeated.
[0117] The above description is merely a specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any changes or substitutions conceived without inventive effort should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be determined by the scope defined in the claims.
Claims
1. An integrated automatic testing method for an air pump core, characterized in that: The specific testing method is as follows: S1. The host computer displays the UI and recalls the previously saved preset data; S2. Press the A / B group start button on the host computer or press the A / B group start button simultaneously; S3. The host computer sends the A / B group start command and the power preset value to the slave computer. After five seconds, the air pump mechanism does not respond, and the host computer displays a UI reminder: A / B group slave computer communication error; S4. No-load current test: S41. The host computer sends the no-load current test command to the slave computer; S42. After the slave computer tests, does it return the measured data value to the host computer? Five seconds ago, the air pump mechanism responded and proceeded to step S43; after five seconds, the air pump mechanism did not respond, and the host computer displayed a UI reminder: A / B group slave computer communication error; S43. The host computer displays the measured value and judges and displays the result according to the preset value; S5. Load current test: S51. The host computer sends the load current test command to the slave computer. S52. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and proceeded to step S53; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: Communication between the lower-level machines of group A / B is abnormal; S53. The upper-level machine displays the measured value and judges and displays the result according to the preset value; S6. 0-50PSI airflow test: S61. The upper-level machine sends an airflow test command to the lower-level machine; S62. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism reacted and proceeded to step S63; five seconds later, the air pump mechanism did not react, and the upper-level machine displayed a UI reminder: Communication between the lower-level machines of group A / B is abnormal; S63. The upper-level machine displays the measured value and judges and displays the result according to the preset value; S7. Power consumption test; S71. The upper-level machine sends a power consumption test command to the lower-level machine; S72. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism responded, proceeding to step S73; five seconds later, the air pump mechanism does not respond, and the upper-level machine displays a UI reminder: Communication between the lower-level machines of group A / B is abnormal; S73. The upper-level machine displays the measured value and judges and displays the result according to the preset value; S8. Pressure holding test; S81. The upper-level machine sends a pressure holding test command to the lower-level machine; S82. After the lower-level machine tests, does it return the measured data value to the upper-level machine? Five seconds ago, the air pump mechanism responded, proceeding to step S83; five seconds later, the air pump mechanism does not respond, and the upper-level machine displays a UI reminder: Communication between the lower-level machines of group A / B is abnormal; S83. The host computer displays the measured value and judges and displays the result according to the preset value; S9. Maximum air pressure test; S91. The host computer sends the maximum air pressure test command to the slave computer; S92. After the slave computer tests, does it return the measured data value to the host computer? Five seconds ago, the air pump core reacts and enters step S93; five seconds later, the air pump core does not react, and the host computer displays a UI reminder: A / B group slave computer communication abnormal; S93. The host computer displays the measured value and judges and displays the result according to the preset value; S10. Overall judgment and processing; S101. If the test results of steps S4-S9 all meet the standard, proceed to step S102; if the test results of steps S4-S9 do not meet the standard or one of them does not meet the standard, upload to the host computer, increment the number of defective products by 1, update the daily defective product rate, save all data to the background database, and automatically generate data tables and graphs for future reference; S102. The host computer updates the good product code, increments the good product count by 1, updates the daily defect rate, saves all data to the background database, and automatically generates data tables and graphs for future reference. S103. The host computer sends the good product codes of group A / B to the slave computer. After processing, the slave computer sends them to the laser machine to mark the good product codes for future reference. S1. Display the UI on the host computer and retrieve previously saved preset data; S12. Data query; S13. Query by date and query by code; The air pump core is fixed by a test fixture, including a workbench (1) and a test fixture assembly (2) and a laser marking assembly (3) mounted on the workbench (1); the test fixture assembly (2) includes a first host computer assembly (4) and a lower computer assembly (5) connected to the first host computer assembly (4); the workbench (1) surface is provided with a test assembly (6) connected to the lower computer assembly (5); The test assembly (6) includes a first panel (11) and an A / B group test assembly (7) and a solenoid valve (8) mounted on the first panel (11); the A / B group test assembly (7) includes a first mechanism fixture (9-1), a front and rear telescopic cylinder (9) is provided on one side of the first mechanism fixture (9-1), and an upper and lower telescopic cylinder (10) is provided on the upper end of the first mechanism fixture (9-1); the front and rear telescopic cylinder (9) and the upper and lower telescopic cylinder (10) are both connected to the solenoid valve (8); The lower-level machine component (5) includes a second panel (12) and a first power supply box (13-1); the first power supply box (13-1) is connected to the air pump mechanism on the first mechanism clamp (9-1); the movable end (9-6) on the front and rear telescopic cylinder (9) is hollow, and a first interface (9-2) is provided on the movable end (9-6); the movable end (9-6) is connected to the air pump mechanism; The second panel (12) includes one or more cylinders (14); an airflow sensor (15) and a flow control display (16) are provided on the side of the cylinder (14); the cylinder (14) is connected to the airflow sensor (15) through a first pipe (17-1); the airflow sensor (15) is connected to the flow control display (16) through a second pipe (17-2); a second interface (9-3) is provided on the second pipe (17-2); the second interface (9-3) is connected to the first interface (9-2) through a third pipe (17-3); The first host computer component (4) includes a first display (18-1) and a computer host (19) connected to the first display (18-1); the laser marking component (3) includes a second core fixture (9-8) and a lifting laser machine (21) mounted on the workbench (1); the lifting laser machine (21) and the second core fixture (9-8) are arranged vertically opposite each other; The first monitor (18-1) is connected to the computer host (19); the workbench (1) is equipped with a second power supply box (13-2) that connects the first monitor (18-1) and the computer host (19); the lifting laser machine (21) is equipped with a second monitor (18-2); the workbench (1) is also equipped with a laser machine control amplifier (20), a laser computer host (22), and a foot pedal controller (23); The second monitor (18-2), the lifting laser machine (21), the laser machine control amplifier (20), and the foot controller (23) are all connected to the laser computer host (22); a third power supply box (13-3) is provided in the workbench (1) to supply power to the second monitor (18-2), the lifting laser machine (21), the laser computer host (22), and the laser machine control amplifier (20); the laser computer host (22) is connected to the computer host (19).