A high-efficiency three-temperature automatic testing device, system and method

Abstract

The present invention belongs to the field of optical device testing technology, and provides a high-efficiency three-temperature automatic testing device, comprising a cabinet (1) and an impact test box (13) arranged outside the cabinet (1), a probe module (21) being arranged in the cabinet (1), and two sets of optical fiber fixing components being arranged in the cabinet (1). A high-efficiency three-temperature automatic testing system, comprising a motion control module, a test module, a data processing module and a relay power-on control module. A high-efficiency three-temperature automatic testing method, comprising four steps: clamping the optical fiber to be tested to start the automatic testing system, the test device automatically performing light detection on the optical fiber to be tested, performing performance testing of the product to be tested at different temperatures, and outputting, processing and judging the test data. The present invention can automatically perform three-temperature testing on the optical fiber to be tested, and process and judge the test data, with high test efficiency. At the same time, there is no need to manually install the product live test line during the temperature switching process, reducing the adverse effects introduced by the tester plugging and unplugging the optical fiber, and making the test data more accurate.

Description

Technical Field

[0001] The present invention belongs to the technical field of optical device product testing, and relates to a three-temperature testing system, in particular to a high-efficiency three-temperature automatic testing device, system and method. Background Art

[0002] In recent years, with the development of the global communications industry and strong national support for the sector, 5G has emerged and rapidly entered commercial use. The market demands ever-increasing demand for higher-speed, higher-quality products. Since high-speed products are primarily used in base stations, data centers, high-performance computing networks, and enterprise core networks, operating in environments with widely varying ambient temperatures and high product failure rates, ensuring the quality of optical components is crucial to supporting the smooth operation of these networks.

[0003] Under the comprehensive contradiction between market and output, three-temperature testing is an indispensable part of the entire fiber optic communication high-speed product. The research and development of high-efficiency three-temperature automatic testing system has become an important development direction for fiber optic communication companies.

[0004] Currently, test equipment in the optical fiber communications industry varies widely, both in-house and purchased, due to differences in company backgrounds and capabilities. Currently used three-temperature test systems are either manual plug-in test systems or use optical switcher-based equipment, such as Pusex's TE test equipment. These test systems typically include an optical switcher, integrated tester, electrical switcher, power supply board, and chassis. Test software controls the optical and electrical switches to select a single optical output, which is then connected to the LIV and spectrometer via a 1x2 optical splitter for testing.

[0005] Currently, the industry tests optical components by manually plugging and unplugging optical fibers and manually probing each product. For optical components that must be tested at three temperatures (high, normal, and low), manual operations have low production efficiency, high labor intensity, and are prone to errors. When testing batch products at three temperatures, companies need to invest more manpower, material resources, and financial resources to test the products, resulting in increased testing costs. Furthermore, during manual plug-and-unplug testing, the fiber end faces must be cleaned and inspected each time they are tested, and factors such as production line configuration, employee emotions, and employee skills can affect test efficiency by between 150 and 300 pieces per person per 10 hours, or even lower. Therefore, companies need to optimize their testing methods and utilize fewer resources to improve product testing efficiency and accuracy. Summary of the Invention

[0006] In view of the shortcomings of the prior art described above, the object of the present invention is to provide a high-efficiency three-temperature automatic testing device, system and method for solving the technical problems of low test efficiency and test accuracy in the prior art of optical fiber three-temperature testing.

[0007] To achieve the above-mentioned objectives and other related objectives, the present invention provides a high-efficiency three-temperature automatic testing device, comprising a cabinet and an impact test box arranged outside the cabinet, wherein a probe module is provided in the cabinet, and two groups of optical fiber fixing assemblies are also provided in the cabinet, each group of the optical fiber fixing assemblies includes an optical fiber connection flange array plate, the optical fiber connection flange array plate is connected to the optical fiber end of the optical fiber to be tested through an optical fiber test line, and the other end of the optical fiber to be tested is connected to a socket power array board, and the socket power array board is located in the impact test box.

[0008] Preferably, the optical fiber connection flange array board is provided with 8*8 optical fiber connection flanges, and each optical fiber connection flange is marked with a flange serial number in sequence. The Socket powering array board is provided with 8*8 Sockets, and the position of the Socket corresponds to the position of the optical fiber connection flange, and each Socket is marked with a Socket serial number in sequence. The Socket powering array board is connected to a relay array switch that controls the powering on of the optical fiber to be tested on the Socket of a certain serial number, and the relay array switch is controlled by an integrated test board.

[0009] Preferably, each of the Sockets is connected to an optical fiber to be tested, and the optical fiber end of the optical fiber to be tested is connected to the optical fiber connection flange array board through an optical fiber test line. Each of the optical fiber test lines is marked with an optical fiber test line serial number in sequence. The optical fiber test line serial number, flange serial number and Socket serial number correspond one to one, and the optical fiber to be tested is powered by the integrated test board power supply.

[0010] Preferably, the probe module includes a first PD probe and a second PD probe, the first PD probe and the second PD probe are connected in parallel to a connecting block, the connecting block is connected to a servo motor, the servo motor is powered by a motor power supply and a power filter, and the servo motor is controlled by a motion control card conversion board.

[0011] Preferably, a partition is provided in the cabinet, which divides the cabinet into a test room and a control room from top to bottom. The optical fiber fixing assembly and the probe module are arranged in the test room, and the motor power supply, motion control card conversion board, power supply filter, integrated test board power supply, relay array switch and integrated test board are all arranged in the control room. The control room is also provided with an air switch for controlling the equipment in the entire cabinet.

[0012] A high-efficiency three-temperature automatic testing system, comprising:

[0013] A motion control module is used to control the relative position of the probe module and the optical fiber connection flange array plate;

[0014] The test module is used to collect data and store it on the local computer and network disk;

[0015] Data processing module, used to call specifications, process data and make judgments;

[0016] The relay power control module is used to control the relay array switch to power the corresponding product on the socket power array board.

[0017] Preferably, the data collected by the test module is transmitted to a local computer via an RS232 interface, and the data processing module is located in the local computer to perform data processing and judgment in the local computer.

[0018] A high-efficiency three-temperature automatic testing method comprises the following steps:

[0019] S1. Clamp the optical fiber to be tested and start the automatic test system;

[0020] S2. The test device automatically receives light from the optical fiber to be tested on the optical fiber connection flange array board. The first PD probe tests the LIV data of the optical fiber to be tested, and the second PD probe tests the spectrum of the optical fiber to be tested;

[0021] S3. Perform performance tests on the product under test at different temperatures;

[0022] S4. Test data output, processing and judgment.

[0023] Preferably, in S2, the method in which the testing device automatically performs light receiving detection on the optical fiber to be tested on the optical fiber connection flange array board is as follows: the relay power-on control module controls the relay array switch to power on the optical fiber to be tested corresponding to the socket power-on array board, and the motion control module controls the probe module to automatically move to the optical fiber connection flange position corresponding to the powered optical fiber to be tested by controlling the motion control card conversion board, and detects the optical power under different current conditions.

[0024] Preferably, in said S3, the performance test of the product to be tested at different temperatures includes four steps: normal temperature test, low temperature test, high temperature test and restoration to normal temperature, wherein:

[0025] The temperature of the impact test box in the normal temperature test is 20-30°C, and the normal temperature test time is 3 minutes;

[0026] The temperature of the impact test box in the low temperature test is -35 to -45°C, and the low temperature test time is 3 minutes;

[0027] The temperature of the impact test box in the high temperature test is 80-90°C, and the high temperature test time is 3 minutes;

[0028] The returning to normal temperature is cooling for 3 minutes.

[0029] As described above, the high-efficiency three-temperature automatic testing device, system, and method of the present invention have the following beneficial effects:

[0030] 1. The present invention can automatically test the optical fiber to be tested and process and judge the test data. The test efficiency is high and the test time is short. The test can also reduce the adverse effects introduced by the tester when plugging and unplugging the optical fiber, thereby making the test data more accurate.

[0031] 2. The arrangement of two sets of optical fiber fixing components in the present invention allows the installation of another plate of optical fibers to be tested while testing one plate of optical fibers to be tested, thereby saving time for installing the optical fibers to be tested and improving testing efficiency. The testing efficiency can reach 700 to 800 pieces / person / 10 hours, which is nearly 4 times the efficiency, and the cost of supporting equipment is greatly reduced. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 Shown is a schematic structural diagram of the present invention.

[0033] Figure 2 Shown is a top view of the test chamber.

[0034] Figure 3 Displayed is a structural diagram of the operating platform.

[0035] Figure 4 Shown is a top view of the impact test chamber.

[0036] Figure 5 Shown is a structural diagram of the optical fiber connection flange array plate and the probe module.

[0037] Figure 6 Shown is a flow chart of the three-temperature automatic testing method.

[0038] Component number description

[0039] 1-cabinet, 2-X-axis slot, 3-first support frame, 4-fiber optic connection flange array board, 5-fiber optic connection flange, 6-second support frame, 7-motor power supply, 8-motion control card conversion board, 9-power filter, 10-integrated test board power supply, 11-circuit breaker, 12-relay array switch, 13-impact test chamber, 14-integrated test board, 15-first support shaft, 16-second support shaft, 17-Z-axis slot, 18-servo motor, 19-operating platform, 20-in-place sensing mechanism, 21-probe module, 22-first PD probe, 23-second PD probe, 24-Socket power array board, 25-Socket, 26-test room, 27-control room. DETAILED DESCRIPTION

[0040] The following describes the implementation of the present invention through specific embodiments. People skilled in the art can easily understand other advantages and effects of the present invention from the contents disclosed in this specification.

[0041] See also Figures 1 to 6 . It should be noted that the structures, proportions, sizes, etc. illustrated in the drawings of this specification are only used to match the contents disclosed in the specification for people familiar with this technology to understand and read, and are not used to limit the limiting conditions for the implementation of the present invention. Therefore, they have no substantive technical significance. Any modification of the structure, change in the proportional relationship or adjustment of the size should still fall within the scope of the technical content disclosed by the present invention without affecting the efficacy and purpose that can be achieved by the present invention. At the same time, the terms such as "upper", "lower", "left", "right", "middle" and "one" quoted in this specification are only for the convenience of description, and are not used to limit the scope of the implementation of the present invention. Changes or adjustments in their relative relationships should also be regarded as the scope of the implementation of the present invention without substantially changing the technical content.

[0042] Example 1

[0043] See also Figure 1-5 The present invention provides a high-efficiency three-temperature automatic testing device, including a cabinet 1 and an impact test box 13 arranged outside the cabinet 1, an operating platform 19 is also provided outside the cabinet 1, a partition is provided inside the cabinet 1, and the partition divides the cabinet 1 into a test room 26 and a control room 27 from top to bottom, a probe module 21 is provided in the test room 26, and two groups of optical fiber fixing components are also provided in the test room 26, each group of the optical fiber fixing components includes an optical fiber connection flange array plate 4, the optical fiber connection flange array plate 4 is connected to the optical fiber end of the optical fiber to be tested through an optical fiber test line, and the other end of the optical fiber to be tested is connected to a socket power array plate 24, and the socket power array plate 24 is located in the impact test box 13.

[0044] When a three-temperature test is required on an optical fiber in this embodiment, the optical fiber to be tested is mounted on the operating platform 19. The specific installation method is as follows: the optical fiber connection flange array plate 4 is fixed within the test chamber 26. Fiber test cables are connected to the optical fiber connection flange array plate 4 in sequence. The optical fiber ends of the optical fibers to be tested are connected to the fiber test cables, and the other ends of the optical fibers to be tested are mounted on the socket power array plate 24. After the optical fiber to be tested is installed, the socket power array plate 24 is placed in the impact test chamber 13. After the test temperature is set, the probe module 21 is activated to perform the three-temperature test on the optical fiber to be tested.

[0045] In this embodiment, the provision of two sets of optical fiber fixing assemblies enables installation of one set of optical fibers to be tested while another set of optical fibers to be tested is being tested, thereby saving time for installation of the optical fibers to be tested and improving testing efficiency.

[0046] In this embodiment, the structure and working principle of the impact test box 13 belong to the existing technology, and those skilled in the art can understand it based on the existing technology and their own knowledge, so they will not be further described in this embodiment.

[0047] As a further description of the above embodiment, the optical fiber connection flange array board 4 is provided with 8*8 optical fiber connection flanges 5, and each optical fiber connection flange 5 is marked with a flange serial number in sequence. The Socket powering array board 24 is provided with 8*8 Sockets 25, and the position of the Socket 25 corresponds to the position of the optical fiber connection flange 5, and each Socket 25 is marked with a Socket serial number in sequence. The Socket powering array board 24 is connected to a relay array switch 12 that controls the powering of the optical fiber to be tested on the Socket 25 of a certain serial number, and the relay array switch 12 is controlled by the integrated test board 14.

[0048] In this embodiment, the 8*8 fiber connection flanges 5 provided on the fiber connection flange array plate 4 can simultaneously mount 64 optical fibers under test, thereby simultaneously testing all 64 optical fibers under test during a single test, improving testing efficiency. The fiber connection flanges 5 not only ensure the stability of the installation of the optical fibers under test, but also facilitate the installation and removal of the optical fibers under test, improving the efficiency of installation and removal of the optical fibers under test, thereby improving the efficiency of optical fiber three-temperature testing.

[0049] The sockets 25 of the socket power array board 24 are arranged in an array. The number and position of the sockets 25 on the socket power array board 24 match the number and position of the fiber optic connection flanges 5. Relay array switches 12 can be used to control powering a product, enabling continuous sequential testing. A socket is a power supply socket.

[0050] Each optical fiber test line is marked with an optical fiber test line serial number. The optical fiber test line serial number, flange serial number and socket serial number correspond one to one, which can facilitate the collection and recording of test data, so that the test data of each optical fiber to be tested can be accurately and quickly processed to understand the performance of each optical fiber to be tested under three temperatures.

[0051] In this embodiment, the number of optical fiber connection flanges 5 on the optical fiber connection flange array board 4 is not limited to 8*8, and can be adjusted according to actual test requirements, such as 4*4, 6*6, etc. The number and position of Socket 25 on the Socket power array board 24 can match the number and position of the optical fiber connection flanges 5.

[0052] As a further description of the above embodiment, the probe module 21 includes a first PD probe 22 and a second PD probe 23, and the first PD probe 22 and the second PD probe 23 are connected in parallel to a connecting block, and the connecting block is connected to a servo motor 18. The servo motor 18 is powered by a motor power supply 7 and a power filter 9, and the servo motor 18 is controlled by a motion control card conversion board 8.

[0053] When this embodiment is used, the probe module 21 is connected to the servo motor 18 via a connecting block. The servo motor 18 operates in a servo system that can automatically move the position of the X and Z axes. The servo system includes an XZ servo axis, and the probe module 21 is installed on the XZ servo axis. It is equipped with an X and Z axis mechanism. Each axis includes a linear guide, a wire slot (X axis slot 2, Z axis slot 17), a motor adjustment frame, a stepper motor, an automatic return device, an in-position sensor, etc. The servo system uses X and Z axis adjustment to align the probe on the probe module 21 with the fiber optic test line with the corresponding serial number, thereby achieving high precision of the device and high test accuracy.

[0054] In this embodiment, the structure and working principle of the servo system driving the probe module 21 to move on the X and Z axes belong to the existing technology, which can be known to those skilled in the art based on the existing technology and their own knowledge, so it will not be further described in this embodiment.

[0055] In this embodiment, the first PD probe 22 tests the LIV data of the optical fiber to be tested, and the second PD probe 23 tests the spectrum of the optical fiber to be tested. The sizes of the first PD probe 22 and the second PD probe 23 match the sizes of the optical fiber connection flange 5. The distance between the first PD probe 22 and the second PD probe 23 is equal to the distance between two adjacent optical fiber connection flanges 5. By adjusting the distance and position between the probe module 21 and the optical fiber connection flange array plate 4, it is ensured that the optical signal can be fully detected, thereby ensuring the accuracy of the optical fiber test results.

[0056] In this embodiment, the servo motor 18 is fixed to the test chamber 26 via the first support shaft 15 and the second support shaft 16, and the optical fiber connection flange array plate 4 is fixed to the test chamber 26 via the first support frame 3 and the second support frame 6. The holes on the frame through which the first support shaft 15, the second support shaft 16, the first support frame 3, and the second support frame 6 are fixed are all waist-shaped holes, which facilitates adjustment of the distance between the probe module 21 and the optical fiber connection flange array plate 4, ensuring that the optical signal can be fully detected, thereby ensuring the accuracy of the optical fiber test results.

[0057] As a further description of the above embodiment, the motor power supply 7, motion control card conversion board 8, power supply filter 9, integrated test board power supply 10, relay array switch 12 and integrated test board 14 are all arranged in a control room 27, and the control room 27 is also provided with an air switch 11 for controlling the equipment in the entire cabinet 1.

[0058] In this embodiment, circuit breaker 11 controls the electrical power of all equipment in cabinet 1. Motor power supply 7 and power filter 9 power servo motor 18. Integrated test board power supply 10 powers the optical fiber under test. The optical fiber under test is mounted on socket power array board 24, which is connected to relay array switch 12 via a flat cable. Integrated test board 14 controls relay array switch 12 to power the product.

[0059] Example 2

[0060] A high-efficiency three-temperature automatic testing system, comprising:

[0061] A motion control module, used to control the relative position of the probe module 21 and the optical fiber connection flange array plate 4;

[0062] The test module is used to collect data and store the data on a local computer and a network disk through the RS232 interface;

[0063] Data processing module, used to call specifications, process data and make judgments;

[0064] The relay power-on control module is used to control the relay array switch 12 , thereby powering the corresponding products on the socket power-on array board 24 .

[0065] During the automatic testing of the optical fiber under test, this embodiment selects a set of test boards. Each set of test boards corresponds to the relay array switch 12, the socket power array board 24, and the optical fiber connection flange array board 4. Open the "Version Number - Serial Number Correspondence" interface, edit the board number information, and associate the optical fiber test cord serial number, flange serial number, and socket serial number with each other. These numbers are stored in the board number file. Each test board can test up to 64 products. The other end of the optical fiber test cord on the optical fiber connection flange array board 4 is connected to the optical fiber end of the optical fiber under test, and the other end of the optical fiber under test is plugged into the corresponding socket 25. After installing a board of products, place the products in the impact test box 13, click "Start automatic test", the relay power control module controls the relay array switch 12 to power the corresponding product on the socket power array board 24, and the motion control module controls the control probe module 21 to move, automatically moving to the back of the corresponding powered optical fiber connection flange 5 to detect the optical power, working voltage, backlight current and spectral parameters of the optical device, and calculate the threshold current, power efficiency, slope efficiency, differential resistance and other parameters and draw the photoelectric characteristic (LIV) curve. While testing LIV, the spectrum will also be tested. After the measurement is completed, you can switch to the next temperature to be tested, and the temperature set in the software interface will also change accordingly. After reaching the test temperature, wait for a few minutes and click the "Start automatic test" button to continue the test. The software will also select the temperature accordingly, and calculate the TE value through LIV parameter testing at different temperatures.

[0066] In this embodiment, after the product is manually installed, during the automatic test, the relay array switch 12 switches to power on a certain product, and the probe module 21 is automatically moved by the XZ servo system to the position of the optical fiber connection flange 5 corresponding to the powered product, and the optical power under different current conditions is detected. The data is transmitted to the computer through the RS232 interface, and the data is processed and judged. After measuring one temperature to be tested, it is switched to another temperature. There is no need to manually install the product or test line. You only need to wait for the temperature to reach the test requirements and click "Start automatic test". The test system will automatically test the product and process and judge the data. The system has a high test efficiency and reduces the defects caused by personnel plugging and unplugging optical fibers, and the test data is more accurate.

[0067] In this embodiment, the automatic test system can debug and set the position where the probe module 21 stops for testing, facilitating regular maintenance. The "Auto Test Start" button can control the start of movement of the probe module 21 and the switching of the socket power position on the socket power array board 24.

[0068] In this embodiment, the RS232 interface is connected to the computer, and is provided with data feedback and data computer connection. Through the automatic test program, the entire test system is controlled and data is stored.

[0069] In this embodiment, the automatic testing program can bind the serial numbers of the test line and the power line, and automatically test all products in sequence. The performance of the products in the impact test box 13 at different temperatures is tested through the integrated test board 14, and the data is fed back to the display screen of the automatic testing equipment for calculation and processing, automatic judgment and prompt of defects, and the test data is saved in the database.

[0070] Example 3

[0071] like Figure 6 As shown, a high-efficiency three-temperature automatic testing method includes the following steps:

[0072] S1. Clamp the optical fiber to be tested and start the automatic test system;

[0073] S2. The test device automatically receives light from the optical fiber to be tested on the optical fiber connection flange array plate 4, and the first PD probe 22 tests the LIV data of the optical fiber to be tested, and the second PD probe 23 tests the spectrum of the optical fiber to be tested;

[0074] S3. Perform performance tests on the product under test at different temperatures;

[0075] S4. Test data output, processing and judgment.

[0076] During use of this embodiment, the optical fiber to be tested is mounted on the operating platform 19 using a socket power array board 24. The optical fiber to be tested on the socket power array board 24 is connected to the optical fiber connection flange array board 4 via an optical fiber test line to transmit optical signals. After the optical fiber to be tested is installed, the socket power array board 24 is placed in the impact test chamber 13, and the automatic test program is activated to test the optical fiber to be tested. The relay power control module controls the relay array switch 12 to power the corresponding optical fiber to be tested on the socket power array board 24. The motion control module controls the motion control card converter board 8 to automatically move the probe module 21 to the optical fiber connection flange 5 corresponding to the powered optical fiber to be tested, detecting optical power under different current conditions. After detection, the test data is output, processed, and evaluated to determine the performance status of the different optical fibers to be tested.

[0077] The performance test of the product under test at different temperatures includes four steps: normal temperature test, low temperature test, high temperature test and return to normal temperature.

[0078] During the normal temperature test, the temperature of the impact test chamber 13 was 25°C, and the normal temperature test duration was 3 minutes. After the normal temperature test, the temperature was lowered and stabilized for 7 minutes, and the temperature inside the impact test chamber 13 was lowered to -40°C for a low temperature test, and the low temperature test duration was 3 minutes. After the low temperature test, the temperature was raised and stabilized for 9 minutes, and the temperature inside the impact test chamber 13 was lowered to 85°C for a high temperature test, and the high temperature test duration was 3 minutes. After the high temperature test, the temperature was lowered and restored to normal temperature for 3 minutes.

[0079] In summary, the present invention can automatically perform three-temperature testing on optical fibers under test and process and judge the test data, achieving high test efficiency. Furthermore, the temperature switching process eliminates the need for manual installation of products or test cables, reducing the adverse effects of testers plugging and unplugging optical fibers, and providing more accurate test data. Furthermore, while one set of optical fibers under test is being tested, another set can be installed. Testing efficiency can reach 700 to 800 fibers per person per 10 hours, a nearly fourfold increase in efficiency, while significantly reducing the cost of supporting equipment. Therefore, the present invention effectively overcomes the various shortcomings of the prior art and possesses high industrial value.

[0080] The above embodiments are merely illustrative of the principles and effects of the present invention and are not intended to limit the present invention. Anyone skilled in the art may modify or alter the above embodiments without departing from the spirit and scope of the present invention. Therefore, all equivalent modifications or alterations made by one of ordinary skill in the art without departing from the spirit and technical principles disclosed herein are intended to be covered by the claims of the present invention.

Claims

1. A high-efficiency three-temperature automatic testing device, comprising a cabinet (1) and an impact test box (13) arranged outside the cabinet (1), characterized in that: The cabinet (1) is provided with a probe module (21), and the cabinet (1) is also provided with two groups of optical fiber fixing components, each group of the optical fiber fixing components includes an optical fiber connection flange array plate (4), the optical fiber connection flange array plate (4) is connected to the optical fiber end of the optical fiber to be tested through an optical fiber test line, and the other end of the optical fiber to be tested is connected to a socket power array plate (24), and the socket power array plate (24) is located in the impact test box (13); The optical fiber connection flange array board (4) is provided with 8*8 optical fiber connection flanges (5), each optical fiber connection flange (5) is marked with a flange serial number in sequence, the socket power array board (24) is provided with 8*8 sockets (25), the position of the socket (25) corresponds to the position of the optical fiber connection flange (5), each socket (25) is marked with a socket serial number in sequence, the socket power array board (24) is connected to a relay array switch (12) for controlling the power on of the optical fiber to be tested on the socket (25) with a certain serial number, and the relay array switch (12) is controlled by the integrated test board (14); Each of the sockets (25) is connected to an optical fiber to be tested, and the optical fiber end of the optical fiber to be tested is connected to the optical fiber connection flange array board (4) through an optical fiber test line. Each of the optical fiber test lines is marked with an optical fiber test line serial number in sequence. The optical fiber test line serial number, flange serial number and socket serial number correspond to each other one by one. The optical fiber to be tested is powered by an integrated test board power supply (10); The probe module (21) includes a first PD probe (22) and a second PD probe (23), the first PD probe (22) and the second PD probe (23) are connected in parallel to a connection block, the connection block is connected to a servo motor (18), the servo motor (18) is powered by a motor power supply (7) and a power filter (9), and the servo motor (18) is controlled by a motion control card conversion board (8); A partition is provided in the cabinet (1), and the partition divides the cabinet (1) into a test room (26) and a control room (27) from top to bottom.

2. A high-efficiency three-temperature automatic testing device according to claim 1, characterized in that: The optical fiber fixing assembly and the probe module (21) are arranged in a test room (26); the motor power supply (7), the motion control card conversion board (8), the power filter (9), the integrated test board power supply (10), the relay array switch (12) and the integrated test board (14) are all arranged in a control room (27); and the control room (27) is also provided with an air switch (11) for controlling the equipment in the entire cabinet (1).

3. A high-efficiency three-temperature automatic testing system, characterized in that: A high-efficiency three-temperature automatic testing device according to any one of claims 1 to 2 is used, and the automatic testing system further comprises: A motion control module for controlling the relative position of the probe module (21) and the optical fiber connection flange array plate (4); The test module is used to collect data and store it on the local computer and network disk; Data processing module, used to call specifications, process data and make judgments; The relay power-on control module is used to control the relay array switch (12) to power on the corresponding product on the socket power-on array board (24).

4. A high-efficiency three-temperature automatic testing system according to claim 3, characterized in that: The data collected by the test module is transmitted to the local computer via the RS232 interface. The data processing module is located in the local computer and performs data processing and judgment in the local computer.

5. A high-efficiency three-temperature automatic testing method, characterized in that: A high-efficiency three-temperature automatic testing system according to claim 3 or 4 is used, and the automatic testing method further comprises the following steps: S1. Clamp the optical fiber to be tested and start the automatic test system; S2. The test device automatically detects the optical fiber to be tested on the optical fiber connection flange array plate (4), the first PD probe (22) tests the LIV data of the optical fiber to be tested, and the second PD probe (23) tests the spectrum of the optical fiber to be tested; S3. Perform performance tests on the product under test at different temperatures; S4. Test data output, processing and judgment.

6. A high-efficiency three-temperature automatic testing method according to claim 5, characterized in that: In the above S2, the method for the test device to automatically detect the optical fiber to be tested on the optical fiber connection flange array board (4) is as follows: the relay power control module controls the relay array switch (12) to power the corresponding optical fiber to be tested on the socket power array board (24); the motion control module controls the probe module (21) to automatically move to the optical fiber connection flange (5) corresponding to the powered optical fiber to be tested by controlling the motion control card conversion board (8), and detects the optical power under different current conditions.

7. A high-efficiency three-temperature automatic testing method according to claim 6, characterized in that: In said S3, the performance test of the product to be tested at different temperatures includes four steps: normal temperature test, low temperature test, high temperature test and restoration to normal temperature, wherein: The temperature of the impact test box (13) in the normal temperature test is 20-30°C, and the normal temperature test time is 3 minutes; The temperature of the impact test box (13) in the low temperature test is -35 to -45°C, and the low temperature test time is 3 minutes; The temperature of the impact test box (13) in the high temperature test is 80-90° C., and the high temperature test time is 3 minutes; The returning to normal temperature is cooling for 3 minutes.

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