Intelligent socket multifunctional detection bench body and test method

Abstract

The invention relates to the technical field of multifunctional detection, in particular to an intelligent socket multifunctional detection table body and a test method, and aims to reduce manual intervention and improve the test efficiency and speed through automatic test. Automatic detection can reduce personal errors and ensure that each product is tested according to the same standard. The method is suitable for batch testing during large-scale production, and the stability of product quality in the production process is guaranteed. A very accurate test can be executed, and the electrical performance and safety of each product are ensured. Through a data recording function of an automatic system, test data of each batch of products can be traced, quality management is facilitated, and various test data are collected and recorded through a control platform, analyzed and generated into a detailed test report. The problem that traditional testing depends on manual operation and is low in efficiency is solved.

Description

Technical Field

[0001] The present invention relates to the field of multifunctional detection technology, and in particular to a multifunctional detection platform for an intelligent socket and a testing method. Background Art

[0002] As a key device that connects home electrical appliances to the Internet, smart sockets are widely used in smart homes, smart home appliances and other fields. As the market demand for smart home appliances increases year by year, smart sockets need to be used in various complex application scenarios, and their performance and safety are crucial.

[0003] The current detection method still has the following problems: There are still at least the following defects: First, the test process lacks automation and consistency: Traditional test methods often require a lot of manual operations, and the test process is easily affected by human factors, resulting in poor repeatability and consistency of test results. In addition, manual testing is inefficient and difficult to cope with a large number of test requirements and complex test scenarios. Second, insufficient data processing accuracy and dynamic adaptability: In the traditional test process, data processing mainly relies on simple signal processing methods, which is difficult to effectively remove noise and correct errors (voltage, current errors). Especially in a dynamically changing test environment, traditional methods are difficult to respond quickly to data changes, resulting in insufficient accuracy and real-time performance of metering data processing. Third, the means of comprehensive performance evaluation are limited: Traditional performance evaluation mainly focuses on a single test dimension, such as functional testing or simple load testing, which is difficult to fully cover the various complex scenarios of smart sockets in actual applications. Especially in terms of electromagnetic compatibility (EMC) and fault recovery capabilities, traditional test methods lack systematic evaluation methods and cannot provide comprehensive performance data and improvement suggestions. Summary of the invention

[0004] The purpose of the present invention is to provide a multifunctional testing platform and a testing method for an intelligent socket, aiming to solve the problem that traditional testing relies on manual operation and has low efficiency.

[0005] To achieve the above-mentioned purpose, in a first aspect, the present invention provides a smart socket multifunctional detection platform body, comprising a workbench, a plurality of smart socket connection modules, a dynamic load test module, a functional test module, a fault simulation and recovery module, an EMC detection module, an automatic control module and an environmental monitoring module, wherein the plurality of smart socket connection modules, the dynamic load test module, the functional test module, the fault simulation and recovery module, the EMC detection module, the automatic control module and the environmental monitoring module are all installed on the workbench, and the plurality of smart socket connection modules, the dynamic load test module, the functional test module, the fault simulation and recovery module, the EMC detection module and the environmental monitoring module are respectively connected to the automatic control module;

[0006] A plurality of said intelligent socket connection modules are used to connect the plug to be detected and automatically remove the plug;

[0007] The dynamic load test module is used to simulate the dynamic load conditions of the smart socket in actual applications and evaluate the electrical stability and response speed of the smart socket in complex application scenarios;

[0008] The functional testing module is used to test the electrical installation and communication functions of the test smart socket;

[0009] The fault simulation and recovery module simulates the performance of the smart socket under various fault conditions, which can not only trigger the fault but also automatically perform the recovery operation, and evaluate the fault recovery capability and self-repair performance of the smart socket;

[0010] The EMC detection module is used to test the performance of the smart socket in an electromagnetic environment;

[0011] The environment monitoring module is used to test the working data of the smart socket in different environments;

[0012] The automatic control module is used to automatically control the entire testing process and generate a detailed test report.

[0013] Wherein, the functional test module includes an electrical test submodule and a communication test submodule;

[0014] The electrical test submodule is used to perform electrical safety test on the smart socket;

[0015] The communication test submodule is used to perform a communication function test on the smart socket.

[0016] The electrical test submodule includes a voltage tester, a current tester, a power meter, a leakage current detector, a grounding tester, a metrological stability measurement unit, an overload and short circuit protection test unit, and an over- and under-voltage protection test unit;

[0017] The voltage tester is used to detect whether the voltage output by the smart socket is stable and meets the specification requirements;

[0018] The current tester monitors the current output by the socket;

[0019] The power meter measures the power under the socket load;

[0020] The leakage current detector checks whether there is abnormal current leakage;

[0021] The grounding tester ensures that the grounding wire of the smart socket is properly connected to avoid electrical faults;

[0022] The metering stability measurement unit and the detection device can measure the voltage, current, power, power factor, and electrical energy value of the smart socket under different loads to ensure that it meets the design specifications and safety standards;

[0023] The overload and short circuit protection test unit simulates overload and short circuit conditions to detect whether the protection mechanism of the smart socket is effective;

[0024] The over-voltage and under-voltage protection test unit simulates the over-voltage and under-voltage conditions of the socket power supply voltage to detect whether the over-voltage and under-voltage protection mechanism of the smart socket is effective.

[0025] Wherein, the communication test submodule includes a Wi-Fi connection test unit, a Bluetooth test unit, a Zigbee / Z-wave unit and an interference test unit;

[0026] The Wi-Fi connection test unit verifies whether the smart socket can stably connect to the router through Wi-Fi or a smart phone, smart home system or other device;

[0027] The Bluetooth test unit tests Bluetooth signal strength and connection stability;

[0028] The Zigbee / Z-wave unit tests the communication quality of the Zigbee or Z-Wave protocol;

[0029] The interference test unit simulates various electromagnetic interference environments to check the performance of the smart socket under interference conditions.

[0030] The environmental monitoring module includes a temperature sensor, a humidity sensor, an environmental adaptability test unit, a stability and durability test unit, a remote control test unit, a timer switch test unit, a power monitoring and statistical function test unit, a linkage function test unit, and a leakage protection test unit.

[0031] The temperature sensor detects the temperature rise of the socket and its load part during operation;

[0032] The humidity sensor tests the humidity of the socket working environment;

[0033] The environmental adaptability test unit tests the working performance of the socket under different temperature, humidity and other environments;

[0034] The stability and durability test unit simulates the long-term use of the socket to evaluate its long-term stability and durability;

[0035] The remote control test unit tests whether the user can remotely control the switch state of the smart socket;

[0036] The timing switch test unit verifies whether the smart socket can automatically switch on and off the electrical equipment at the set time;

[0037] The power monitoring and statistics function test unit detects whether the smart socket can accurately monitor and count the power consumption of electrical appliances and provide energy-saving suggestions to users;

[0038] The linkage function test unit tests whether the smart socket can be linked with other smart home devices to achieve scene-based automatic control;

[0039] The leakage protection test unit simulates a leakage situation and detects whether the smart socket can cut off the power supply in time.

[0040] Wherein, the automation control module comprises a control unit and a data analysis and report generation unit, and the control unit is connected to the data analysis and report generation unit;

[0041] The control unit is used to select all or a single module to detect the smart socket;

[0042] The data analysis and report generation unit is used to collect and record various test data for analysis and generate a test report.

[0043] Among them, the smart socket connection module includes a connection unit, a driving member, a bidirectional screw, two sleeves, two moving blocks, two electric push rods, two insulating splints, a guide rail and two guide blocks; the connection unit is installed on the workbench, the driving member is installed in the workbench, the bidirectional screw is fixedly connected to the output end of the driving member and is rotatably connected to the workbench, the two sleeves are respectively threadedly connected to the bidirectional screw and are both located on the bidirectional screw, the two moving blocks are respectively fixedly connected to the two sleeves and are respectively located on the two sleeves, the two electric push rods are respectively fixedly connected to the two moving blocks and are respectively located on the two moving blocks, the two insulating splints are respectively fixedly connected to the output ends of the two electric push rods, the guide rail is fixedly connected to the workbench and is located in the workbench, the two guide blocks are respectively fixedly connected to the two sleeves and are respectively slidably connected to the guide rail.

[0044] In a second aspect, a method for testing a smart socket multifunctional detection platform is provided, which is used for the smart socket multifunctional detection platform described in the first aspect, and comprises the following steps:

[0045] Connect the smart socket to be tested to the smart socket connection module;

[0046] All test modules are selected through the automatic control module to test the smart socket to be tested, and the test data is recorded to generate a test report.

[0047] A multifunctional detection platform for intelligent sockets of the present invention comprises a workbench, a plurality of intelligent socket connection modules, a dynamic load test module, a functional test module, a fault simulation and recovery module, an EMC detection module and an automatic control module, wherein the plurality of intelligent socket connection modules, the dynamic load test module, the functional test module, the fault simulation and recovery module, the EMC detection module and the automatic control module are all installed on the workbench, and the plurality of intelligent socket connection modules, the dynamic load test module, the functional test module, the fault simulation and recovery module and the EMC detection module are respectively connected to the automatic control module; the dynamic load test module is used to simulate the dynamic load condition of the intelligent socket in actual application, and evaluate the electrical stability and response speed of the intelligent socket in complex application scenarios; the functional test module is used to perform electrical installation and communication function tests on the tested intelligent socket; the fault simulation and recovery module simulates the performance of the intelligent socket under various fault conditions, can not only trigger the fault, but also automatically perform the recovery operation, and evaluate the fault recovery ability and self-repair performance of the intelligent socket; the EMC detection module is used to test the performance of the intelligent socket in an electromagnetic environment; the automatic control module is used to automatically control the entire detection process and generate a detailed test report. The present invention reduces manual intervention and improves the efficiency and speed of testing through automated testing. Automated testing can reduce human errors and ensure that each product is tested according to the same standard. It is suitable for batch testing during large-scale production to ensure the stability of product quality during the production process. Very accurate tests can be performed to ensure the electrical performance and safety of each product. Through the data recording function of the automated system, the test data of each batch of products can be traced, which is convenient for quality management. The control platform collects and records various test data, analyzes them, and generates a detailed test report. The report includes various electrical parameters, communication test results, safety assessments, etc., which are provided to designers or consumers for reference. Thereby solving the problem of low efficiency of traditional testing relying on manual operation. BRIEF DESCRIPTION OF THE DRAWINGS

[0048] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0049] Figure 1 It is a structural schematic diagram of a smart socket multifunctional detection platform provided by the present invention.

[0050] Figure 2 It is a structural diagram of a smart socket connection module.

[0051] Figure 3 It is a cross-sectional view of the smart socket connection module.

[0052] Figure 4 It is a structural diagram of the functional test module.

[0053] Figure 5 It is a structural diagram of the electrical test submodule.

[0054] Figure 6 It is a structural diagram of the communication test submodule.

[0055] Figure 7 It is a structural diagram of the automation control module.

[0056] Figure 8 It is a structural diagram of the environmental monitoring module.

[0057] Fig. 9 The present invention provides a flow chart of a method for testing a multifunctional detection platform for an intelligent socket.

[0058] In the figure: 1- workbench, 2- intelligent socket connection module, 3- function test module, 4- dynamic load test module, 5- fault simulation and recovery module, 6- EMC detection module, 7- automation control module, 8- environmental monitoring module, 21- connection unit, 22- driving part, 23- bidirectional screw, 24- sleeve, 25- moving block, 26- electric push rod, 27- insulating splint, 28- guide rail, 29- guide block, 31- electrical test submodule, 32- communication test submodule, 311- voltage tester, 312- current tester, 313- power meter, 314- leakage current detector, 315- grounding tester, 316- measurement stability Measurement unit, 317-overload and short circuit protection test unit, 318-overvoltage and undervoltage protection test unit, 321-Wi-Fi connection test unit, 322-Bluetooth test unit, 323-Zigbee / Z-wave unit, 324-interference test unit, 71-control unit, 72-data analysis and report generation unit, 81-temperature sensor, 82-humidity sensor, 83-environmental adaptability test unit, 84-stability and durability test unit, 85-remote control test unit, 86-timing switch test unit, 87-power monitoring and statistical function test unit, 88-linkage function test unit, 89-leakage protection test unit. DETAILED DESCRIPTION

[0059] Embodiments of the present invention are described in detail below, examples of which are shown in the accompanying drawings, wherein the same or similar reference numerals throughout represent the same or similar elements or elements having the same or similar functions. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, and should not be construed as limiting the present invention.

[0060] See also Figures 1 to 8 , including a workbench 1, multiple smart socket connection modules 2, a dynamic load test module 4, a functional test module 3, a fault simulation and recovery module 5, an EMC detection module 6, an automatic control module 7 and an environmental monitoring module 8, multiple smart socket connection modules 2, the dynamic load test module 4, the functional test module 3, the fault simulation and recovery module 5, the EMC detection module 6, the automatic control module 7 and the environmental monitoring module 8 are all installed on the workbench 1, and multiple smart socket connection modules 2, the dynamic load test module 4, the functional test module 3, the fault simulation and recovery module 5, the EMC detection module 6 and the environmental monitoring module 8 are respectively connected to the automatic control module 7;

[0061] A plurality of said intelligent socket connection modules 2, used for connecting the plug to be detected and automatically removing the plug;

[0062] The dynamic load test module 4 is used to simulate the dynamic load condition of the smart socket in actual application and evaluate the electrical stability and response speed of the smart socket in complex application scenarios;

[0063] The functional testing module 3 is used to test the electrical installation and communication functions of the test smart socket;

[0064] The fault simulation and recovery module 5 simulates the performance of the smart socket under various fault conditions, which can not only trigger the fault, but also automatically perform the recovery operation, and evaluate the fault recovery capability and self-repair performance of the smart socket;

[0065] The EMC detection module 6 is used to test the performance of the smart socket in an electromagnetic environment;

[0066] The environment monitoring module 8 is used to test the working data of the smart socket in different environments;

[0067] The automatic control module 7 is used to automatically control the entire testing process and generate a detailed test report.

[0068] In this embodiment, the dynamic load test module 4 simulates the operation of the smart socket under different voltage, current and power factor conditions, and monitors the metering stability, error stability, communication stability, response speed, working stability and coping ability of the smart socket in real time. The present invention reduces manual intervention and improves the efficiency and speed of testing through automated testing. Automated testing can reduce human errors and ensure that each product is tested according to the same standards. It is suitable for batch testing during large-scale production to ensure the stability of product quality during the production process. Very precise tests can be performed to ensure the electrical performance and safety of each product. Through the data recording function of the automation system, the test data of each batch of products can be traced, which is convenient for quality management. The control platform collects and records various test data, analyzes them, and generates a detailed test report. The report includes various electrical parameters, communication test results, safety assessments, etc., which are provided to designers or consumers for reference. Thereby solving the problem of low efficiency of traditional testing relying on manual operation.

[0069] Further, the functional test module 3 includes an electrical test submodule 31 and a communication test submodule 32;

[0070] The electrical test submodule 31 is used to perform electrical safety test on the smart socket;

[0071] The communication test submodule 32 is used to perform a communication function test on the smart socket.

[0072] In this embodiment, the electrical test submodule 31 performs an electrical safety test on the smart socket; and the communication test submodule 32 performs a communication function test on the smart socket.

[0073] Further, the electrical test submodule includes a voltage tester 311, a current tester 312, a power meter 313, a leakage current detector 314, a grounding tester 315, a metrological stability measurement unit 316, an overload and short circuit protection test unit 317 and an over- and under-voltage protection test unit 318;

[0074] The voltage tester 311 is used to detect whether the voltage output by the smart socket is stable and meets the specification requirements;

[0075] The current tester 312 monitors the current output by the socket;

[0076] The power meter 313 measures the power under the socket load;

[0077] The leakage current detector 314 checks whether there is abnormal current leakage;

[0078] The grounding tester 315 ensures that the grounding wire of the smart socket is properly connected to avoid electrical faults;

[0079] The metering stability measurement unit 316, the detection device can measure the voltage, current, power, power factor, and electrical energy value of the smart socket under different loads to ensure that it meets the design specifications and safety standards;

[0080] The overload and short circuit protection test unit 317 simulates overload and short circuit conditions to detect whether the protection mechanism of the smart socket is effective;

[0081] The over-voltage and under-voltage protection test unit 318 simulates the over-voltage and under-voltage conditions of the socket power supply voltage to detect whether the over-voltage and under-voltage protection mechanism of the smart socket is effective.

[0082] In this embodiment, the voltage tester 311 detects whether the voltage output by the smart socket is stable and meets the specification requirements (for example, 220V±10%). The current tester 312 monitors the current output by the socket to ensure that the load does not exceed the safety range. The power meter 313 measures the power under the socket load to ensure that the power output meets the design requirements. The leakage current detector 314 checks whether there is abnormal current leakage to ensure the electrical safety of the socket during use. The grounding tester 315 ensures that the grounding wire of the smart socket is connected normally to avoid electrical failures. Measurement stability measurement: The detection device can measure the voltage, current, power, power factor, and electrical energy value of the smart socket under different loads to ensure that it meets the design specifications and safety standards. Overload and short-circuit protection test: simulates overload and short-circuit conditions to detect whether the protection mechanism of the smart socket is effective. Over-voltage and under-voltage protection test: simulates the overvoltage and under-voltage conditions of the socket power supply voltage to detect whether the over-voltage and under-voltage protection mechanism of the smart socket is effective.

[0083] Further, the communication test submodule includes a Wi-Fi connection test unit 321, a Bluetooth test unit 322, a Zigbee / Z-wave unit 323 and an interference test unit 324;

[0084] The Wi-Fi connection test unit 321 verifies whether the smart socket can stably connect to the router through Wi-Fi or a smart phone, smart home system or other device;

[0085] The Bluetooth testing unit 322 tests Bluetooth signal strength and connection stability;

[0086] The Zigbee / Z-wave unit 323 tests the communication quality of the Zigbee or Z-Wave protocol;

[0087] The interference testing unit 324 simulates various electromagnetic interference environments to check the performance of the smart socket under interference conditions.

[0088] In this embodiment, Wi-Fi connection test: verify whether the smart socket can stably connect to the router through Wi-Fi or smart phones, smart home systems and other devices, and detect whether it can connect to the router normally and transmit data stably. Bluetooth test module: if the smart socket supports Bluetooth, you can test the Bluetooth signal strength, connection stability, etc. Zigbee / Z-wave module: if the socket supports protocols such as Zigbee or Z-Wave, it is necessary to test the communication quality of these protocols. Interference test: simulate various electromagnetic interference environments to check the performance of smart sockets under interference conditions, such as the reliability of Wi-Fi or Bluetooth connections, and apply harmonic interference tests to the power supply voltage.

[0089] Further, the environment monitoring module 8 includes a temperature sensor 81, a humidity sensor 82, an environmental adaptability test unit 83, a stability and durability test unit 84, a remote control test unit 85, a timer switch test unit 86, a power monitoring and statistical function test unit 87, a linkage function test unit 88, and a leakage protection test unit 89;

[0090] The temperature sensor 81 detects the temperature rise of the socket and its load part during operation;

[0091] The humidity sensor 82 tests the humidity of the socket working environment;

[0092] The environmental adaptability testing unit 83 tests the working performance of the socket under different temperature, humidity and other environments;

[0093] The stability and durability testing unit 84 simulates the long-term use of the socket to evaluate its long-term stability and durability;

[0094] The remote control test unit 85 tests whether the user can remotely control the switch state of the smart socket;

[0095] The timing switch test unit 86 verifies whether the smart socket can automatically switch on and off the electrical equipment at the set time;

[0096] The power monitoring and statistics function test unit 87 detects whether the smart socket can accurately monitor and count the power consumption of electrical appliances and provide energy-saving suggestions to users;

[0097] The linkage function test unit 88 tests whether the smart socket can be linked with other smart home devices to achieve scene-based automatic control;

[0098] The leakage protection test unit 89 simulates a leakage situation to detect whether the smart socket can cut off the power supply in time.

[0099] In this embodiment, the temperature sensor 81 detects the temperature rise of the socket and its load part during operation to ensure that the temperature does not exceed the safety limit. The humidity sensor 82 tests the humidity of the socket working environment to prevent short circuit or failure caused by moisture. Environmental adaptability test: tests the working performance of the socket under different temperature, humidity and other environments to ensure that it does not fail in extreme environments. Long-term stability and durability test: simulates the long-term use of the socket through a long-term operation test to evaluate its long-term stability and durability. Remote control test: tests whether the user can remotely control the switch state of the smart socket through a mobile phone APP or the like. Timer switch test: verifies whether the smart socket can automatically switch on and off electrical equipment at the set time. Power monitoring and statistical function test: detects whether the smart socket can accurately monitor and count the power consumption of electrical appliances and provide energy-saving suggestions for users. Linkage function test: tests whether the smart socket can be linked with other smart home devices to achieve scene-based automatic control. Leakage protection test: simulates leakage conditions to detect whether the smart socket can cut off the power supply in time to prevent electric shock accidents. Current leakage test: connects a current leakage detector to test whether the socket has any current leakage problems. Overload test: Apply a load exceeding the design load to the socket to test whether its overload protection function is effective and whether it can automatically cut off the power for protection. Temperature rise test: Measure the temperature of the socket through the temperature sensor 81, run it for a long time under different loads, check whether the temperature is too high, detect that the temperature inside the smart socket is too high, automatically stop working, and disconnect the power supply to avoid fire and smoke causing fire accidents. Lightning protection test: Verify the protection ability of the smart socket in the event of a lightning strike. Material flame retardancy test: Test the flame retardant properties of materials such as the shell of the smart socket to ensure its safety in extreme situations such as fire. Socket diversification: Multifunctional smart sockets are usually equipped with multiple types of sockets, such as two-hole and three-hole, to meet the power requirements of different electrical equipment. Energy saving: Through intelligent control, the socket can automatically cut off the power when not in use to reduce standby power consumption. Some sockets also support power monitoring and statistics functions to help users understand power usage and achieve energy saving.

[0100] Further, the automation control module 7 includes a control unit 71 and a data analysis and report generation unit 72, and the control unit 71 and the data analysis and report generation unit 72 are connected;

[0101] The control unit 71 is used to select all or a single module to detect the smart socket;

[0102] The data analysis and report generation unit 72 is used to collect and record various test data for analysis and generate a test report.

[0103] In this embodiment, all test modules or a single test module can be selected to achieve comprehensive automated testing. Test cases have been compiled before testing. During testing, you only need to select the corresponding test module to test. Click the computer mouse to start the test and wait for the test results to be displayed. Data analysis and report generation: The control platform collects and records various test data, analyzes them, and generates a detailed test report. The report includes various electrical parameters, communication test results, safety assessments, etc., and is provided to designers or consumers for reference. The test results can be exported to facilitate R&D analysis of problems, and the test results have a log storage function.

[0104] Furthermore, the intelligent socket connection module 2 includes a connection unit 21, a driving member 22, a bidirectional screw 23, two sleeves 24, two moving blocks 25, two electric push rods 26, two insulating clamps 27, a guide rail 28 and two guide blocks 29; the connection unit 21 is installed on the workbench 1, the driving member 22 is installed in the workbench 1, the bidirectional screw 23 is fixedly connected to the output end of the driving member 22, and is rotatably connected to the workbench 1, the two sleeves 24 are respectively threadedly connected to the bidirectional screw 23, and are both located in the bidirectional screw 23. On the screw rod 23, the two moving blocks 25 are respectively fixedly connected to the two sleeves 24 and are respectively located on the two sleeves 24, the two electric push rods 26 are respectively fixedly connected to the two moving blocks 25 and are respectively located on the two moving blocks 25, the two insulating clamping plates 27 are respectively fixedly connected to the output ends of the two electric push rods 26, the guide rail 28 is fixedly connected to the workbench 1 and is located inside the workbench 1, and the two guide blocks 29 are respectively fixedly connected to the two sleeves 24 and are respectively slidably connected to the guide rail 28.

[0105] In this embodiment, the smart socket to be detected can be connected through the connecting unit 21, the driving member 22 is a driving motor, the guide rail 28 provides installation conditions for the two sleeves 24, and the two guide blocks 29 can guide and limit the two sleeves 24. When the smart socket needs to be pulled out, the driving member 22 drives the bidirectional screw 23 to rotate, and the bidirectional screw 23 drives the two sleeves 24 to approach each other, and the two sleeves 24 drive the two moving blocks 25 to approach each other. The two moving blocks 25 drive the two insulating clamping plates 27 on the two electric push rods 26 to approach each other and clamp the smart socket. The two electric push rods 26 work to pull the smart socket out to the side away from the connecting unit 21, thereby effectively improving the detection efficiency of the smart socket.

[0106] See also Fig. 9In a second aspect, a method for testing a smart socket multifunctional detection platform is provided, which is used for the smart socket multifunctional detection platform described in the first aspect, and comprises the following steps:

[0107] S1 connects the smart socket to be detected to the smart socket connection module 2;

[0108] Specifically, the smart socket to be detected is inserted into the connecting unit 21 .

[0109] S2 selects all test modules to test the smart socket to be tested through the automatic control module 7, and records the test data to generate a test report.

[0110] Specifically, you can select all test modules or a single test module to achieve comprehensive automated testing, collect and record various test data through the control platform, analyze and generate a detailed test report. The report includes various electrical parameters, communication test results, safety assessment, etc., and is provided to designers or consumers for reference.

[0111] Beneficial effects:

[0112] 1. The present invention uses a multi-module and multi-dimensional testing method to comprehensively evaluate the electrical performance, safety, communication capabilities and other aspects of the smart socket, solving the problem of incomplete detection in the prior art.

[0113] 2. Through automated control and data collection, the detection process is simplified, the test efficiency is improved, and time and labor costs are saved.

[0114] 3. The present invention can simulate the load and working conditions in a real environment to ensure that the test results can truly reflect the actual performance of the smart socket.

[0115] The above disclosure is only a preferred embodiment of a smart socket multifunctional detection platform and a testing method of the present invention. Of course, this cannot be used to limit the scope of rights of the present invention. Ordinary technicians in this field can understand that all or part of the processes of the above embodiments are implemented, and equivalent changes made according to the claims of the present invention still fall within the scope of the invention.

Claims

1. A multifunctional intelligent socket detection platform, characterized in that: It includes a workbench, multiple smart socket connection modules, a dynamic load test module, a functional test module, a fault simulation and recovery module, an EMC detection module, an automatic control module and an environmental monitoring module, wherein the multiple smart socket connection modules, the dynamic load test module, the functional test module, the fault simulation and recovery module, the EMC detection module, the automatic control module and the environmental monitoring module are all installed on the workbench, and the multiple smart socket connection modules, the dynamic load test module, the functional test module, the fault simulation and recovery module, the EMC detection module and the environmental monitoring module are respectively connected to the automatic control module; A plurality of said intelligent socket connection modules are used to connect the plug to be detected and automatically remove the plug; The dynamic load test module is used to simulate the dynamic load conditions of the smart socket in actual applications and evaluate the electrical stability and response speed of the smart socket in complex application scenarios; The functional testing module is used to test the electrical installation and communication functions of the test smart socket; The fault simulation and recovery module simulates the performance of the smart socket under various fault conditions, which can not only trigger the fault but also automatically perform the recovery operation, and evaluate the fault recovery capability and self-repair performance of the smart socket; The EMC detection module is used to test the performance of the smart socket in an electromagnetic environment; The environment monitoring module is used to test the working data of the smart socket in different environments; The automatic control module is used to automatically control the entire testing process and generate a detailed test report.

2. The intelligent socket multifunctional detection platform as claimed in claim 1, characterized in that: The functional test module includes an electrical test submodule and a communication test submodule; The electrical test submodule is used to perform electrical safety test on the smart socket; The communication test submodule is used to perform a communication function test on the smart socket.

3. The intelligent socket multifunctional detection platform as claimed in claim 2, characterized in that: The electrical test submodule includes a voltage tester, a current tester, a power meter, a leakage current detector, a grounding tester, a metrological stability measurement unit, an overload and short circuit protection test unit, and an over- and under-voltage protection test unit; The voltage tester is used to detect whether the voltage output by the smart socket is stable and meets the specification requirements; The current tester monitors the current output by the socket; The power meter measures the power under the socket load; The leakage current detector checks whether there is abnormal current leakage; The grounding tester ensures that the grounding wire of the smart socket is properly connected to avoid electrical faults; The metering stability measurement unit and the detection device can measure the voltage, current, power, power factor, and electrical energy value of the smart socket under different loads to ensure that it meets the design specifications and safety standards; The overload and short circuit protection test unit simulates overload and short circuit conditions to detect whether the protection mechanism of the smart socket is effective; The over-voltage and under-voltage protection test unit simulates the over-voltage and under-voltage conditions of the socket power supply voltage to detect whether the over-voltage and under-voltage protection mechanism of the smart socket is effective.

4. The intelligent socket multifunctional detection platform as claimed in claim 2, characterized in that: The communication test submodule includes a Wi-Fi connection test unit, a Bluetooth test unit, a Zigbee / Z-wave unit and an interference test unit; The Wi-Fi connection test unit verifies whether the smart socket can stably connect to the router through Wi-Fi or a smart phone, smart home system or other device; The Bluetooth test unit tests Bluetooth signal strength and connection stability; The Zigbee / Z-wave unit tests the communication quality of the Zigbee or Z-Wave protocol; The interference test unit simulates various electromagnetic interference environments to check the performance of the smart socket under interference conditions.

5. The intelligent socket multifunctional detection platform as claimed in claim 1, characterized in that: The environmental monitoring module includes a temperature sensor, a humidity sensor, an environmental adaptability test unit, a stability and durability test unit, a remote control test unit, a timer switch test unit, a power monitoring and statistical function test unit, a linkage function test unit, and a leakage protection test unit; The temperature sensor detects the temperature rise of the socket and its load part during operation; The humidity sensor tests the humidity of the socket working environment; The environmental adaptability test unit tests the working performance of the socket under different temperature, humidity and other environments; The stability and durability test unit simulates the long-term use of the socket to evaluate its long-term stability and durability; The remote control test unit tests whether the user can remotely control the switch state of the smart socket; The timing switch test unit verifies whether the smart socket can automatically switch on and off the electrical equipment at the set time; The power monitoring and statistics function test unit detects whether the smart socket can accurately monitor and count the power consumption of electrical appliances and provide energy-saving suggestions to users; The linkage function test unit tests whether the smart socket can be linked with other smart home devices to achieve scene-based automatic control; The leakage protection test unit simulates a leakage situation and detects whether the smart socket can cut off the power supply in time.

6. The intelligent socket multifunctional detection platform as claimed in claim 1, characterized in that: The automation control module comprises a control unit and a data analysis and report generation unit, wherein the control unit is connected to the data analysis and report generation unit; The control unit is used to select all or a single module to detect the smart socket; The data analysis and report generation unit is used to collect and record various test data for analysis and generate a test report.

7. The intelligent socket multifunctional detection platform as claimed in claim 1, characterized in that: The smart socket connection module includes a connection unit, a driving member, a bidirectional screw, two sleeves, two moving blocks, two electric push rods, two insulating splints, a guide rail and two guide blocks; the connection unit is installed on the workbench, the driving member is installed in the workbench, the bidirectional screw is fixedly connected to the output end of the driving member and is rotatably connected to the workbench, the two sleeves are respectively threadedly connected to the bidirectional screw and are both located on the bidirectional screw, the two moving blocks are respectively fixedly connected to the two sleeves and are respectively located on the two sleeves, the two electric push rods are respectively fixedly connected to the two moving blocks and are respectively located on the two moving blocks, the two insulating splints are respectively fixedly connected to the output ends of the two electric push rods, the guide rail is fixedly connected to the workbench and is located in the workbench, the two guide blocks are respectively fixedly connected to the two sleeves and are respectively slidably connected to the guide rail.

8. A method for testing a multifunctional intelligent socket detection platform, used for the multifunctional intelligent socket detection platform according to any one of claims 1 to 7, characterized in that: The following steps are involved: Connect the smart socket to be tested to the smart socket connection module; All test modules are selected through the automatic control module to test the smart socket to be tested, and the test data is recorded to generate a test report.

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