Evaluation system and method for testing HPLC + HRF dual-mode communication capability and medium

Abstract

The invention discloses an evaluation system and method for testing an HPLC + HRF dual-mode communication capability, and a medium, mainly relates to the technical field of dual-mode communication capability evaluation, and is used for solving the problems that an existing test device cannot meet detection requirements and standard laboratories, the test period is long, and the test cost is high. Comprising a cloud test server used for removing invalid signals and error signals in actually measured signals; the playback test module is used for simulating HPLC (High Performance Liquid Chromatography) signal data in the actual measurement signal; simulating HRF signal data in the actually measured signal; simulating line state interference information in the actually measured signal; simulating operation scene data in the actual measurement signal; communicating with the tested equipment through the simulated HPLC signal data and HRF signal data, and acquiring the communication success rate, response time and bit error rate corresponding to the tested equipment in real time; and generating a capability evaluation result according to the communication success rate, the response time and the bit error rate.

Description

Technical Field

[0001] The present application relates to the technical field of dual-mode communication evaluation, and in particular to an evaluation system, method and medium for testing HPLC+HRF dual-mode communication capability. Background Art

[0002] According to the development outline of the power industry, the new dual-mode HPLC (High-speed Power Line Carrier) + HRF (High-speed Radio Frequency) has the characteristics of automatic switching, stable communication link, high communication rate and strong anti-interference ability. It will completely replace the local communication module that is currently dominated by single mode. At the same time, it includes in-depth application functions such as high-frequency acquisition, active reporting of power outage / re-powering, phase topology identification, automatic identification of substations, and module ID management, and is being widely used.

[0003] The existing test devices have single test methods and functions, and the data models are usually inconsistent with the actual situation. However, the original broadband carrier module test device can no longer meet the detection requirements. In addition, the overall line itself is open and easily interfered by external factors. In other words, the current test technology update speed is much slower than the development speed of new technologies. At the same time, there are many terminal manufacturers, and each uses different technologies. The internal test methods of each manufacturer are quite different from the original measurement data. If you want to detect the standard original measurement data model, you need to send the tested equipment to the standard laboratory, which has a long test cycle and high test costs.

[0004] Therefore, there is an urgent need for an evaluation system, method and medium for testing the HPLC+HRF dual-mode communication capability, a simulation analysis test method that can adapt to various on-site conditions, and solve the problems that the existing test equipment cannot meet the detection requirements, standard laboratories, have long test cycles, and high test costs. Summary of the invention

[0005] In view of the above-mentioned deficiencies in the prior art, the present application provides an evaluation system, method and medium for testing the HPLC+HRF dual-mode communication capability, so as to solve the problems that the existing testing devices cannot meet the detection requirements, standard laboratories, have long testing cycles and high testing costs.

[0006] In a first aspect, the present application provides an evaluation system for testing HPLC+HRF dual-mode communication capability, the system comprising: The signal acquisition module is arranged in a preset typical power consumption information collection area, and is used to collect measured signals in the current area; wherein the measured signals include at least: HPLC signal data, HRF signal data, line status interference information, and operation scenario data; the cloud test server is used to obtain the measured signals uploaded by the signal acquisition module, and remove invalid signals and error signals in the measured signals by comparing them with typical sample signals; the playback test module is used to call the HPLC signal playback unit to simulate the HPLC signal data in the measured signal; call the HRF signal playback unit to simulate the HRF signal data in the measured signal; call the preset interference data simulation unit to simulate the line status interference information in the measured signal; call the field data simulation unit to simulate the operation scenario data in the measured signal; communicate with the device under test through the simulated HPLC signal data and HRF signal data, and collect the communication success rate, response time and bit error rate corresponding to the device under test in real time; generate the capability evaluation result according to the communication success rate, response time and bit error rate.

[0007] The evaluation system of dual-mode communication capability provided by the embodiment of the present application, the present application can collect a variety of measured signals through the signal acquisition module, including HPLC signal data, HRF signal data, etc., realizes a comprehensive test of the dual-mode communication capability, and solves the problem of single function of the test device. The original broadband carrier module test device can no longer meet the detection requirements, and the line openness is susceptible to interference. The present application compares and screens the measured signals through the cloud test server, removes invalid signals and error signals, and improves the accuracy and reliability of the test. At the same time, the playback test module can simulate various data in the measured signal, further ensuring the accuracy of the test. There are many terminal manufacturers with different technologies, and the test needs to be sent to the standard laboratory, which has a long cycle and high cost. The present application can be tested on site without sending the tested equipment to the laboratory, which greatly reduces the test cost and cycle. For manufacturers, this can obtain test results faster and improve production efficiency. In addition, the internal test methods of each manufacturer are quite different from the original measurement data, and there is a lack of unified evaluation standards. This application can collect multiple indicators such as the communication success rate, response time and bit error rate of the device under test in real time, and generate unified capability evaluation results based on these indicators, which helps to better understand the communication performance of the device under test.

[0008] In one implementation of the present application, the signal acquisition module includes several acquisition units and an upload unit, and the acquisition unit includes at least: a power line HPLC communication signal acquisition device, a wireless HRF communication signal acquisition device, and a field environment quantity acquisition cabin; a power line HPLC communication signal acquisition device, used for real-time acquisition of HPLC signal data; a wireless HRF communication signal acquisition device, used for real-time HRF signal data; a field environment quantity acquisition cabin, used for real-time acquisition of line status interference information and operation scenario data; wherein the operation scenario data at least includes complete current and voltage analog information of the acquisition cabin from start to stop operation; an upload unit, connected to the acquisition unit, is used to upload the data collected by the acquisition unit to a cloud test server via a 4g / 5g public network.

[0009] In one implementation of the present application, a cloud-based test server is composed of a data front-end and a big data fuzzy comparison model algorithm back-end server; the data front-end is used to receive the measured signal collected by the signal acquisition module and send it to the big data fuzzy comparison model algorithm back-end server; the big data fuzzy comparison model algorithm back-end server is used to compare the measured signal with the typical sample signal through the built-in big data fuzzy comparison model algorithm, obtain the fuzzy comparison results of each measured signal, and remove the measured signals whose fuzzy comparison results are invalid signals and error signals.

[0010] In one implementation of the present application, the playback test module includes a result processing unit, which is used to collect the response of the device under test to the HPLC signal data and the HRF signal data in real time, and obtain the communication success rate by the proportion of the response to the total transmitted signal; the response time of each communication is counted, and then the average time is calculated as the response time; the ratio of the number of erroneous code elements occurring during the communication process to the total number of code elements is counted to obtain the bit error rate; the communication success rate, response time and bit error rate are substituted into a preset weighted formula to obtain an evaluation result.

[0011] In one implementation of the present application, the playback test module includes a display unit for displaying the communication success rate, response time, bit error rate, and evaluation results on a preset interface.

[0012] In a second aspect, the present application provides an evaluation method for testing the HPLC+HRF dual-mode communication capability, the method comprising: The measured signals in the current area are collected by setting up collection devices in several preset typical electricity consumption information collection areas; wherein the measured signals at least include: HPLC signal data, HRF signal data, line status interference information, and operation scenario data; the measured signals are compared with typical sample signals to remove invalid signals and error signals in the measured signals; the HPLC signal playback unit is called to simulate the HPLC signal data in the measured signals; the HRF signal playback unit is called to simulate the HRF signal data in the measured signals; the preset interference data simulation unit is called to simulate the line status interference information in the measured signals; the field data simulation unit is called to simulate the operation scenario data in the measured signals; the measured device is communicated with through the simulated HPLC signal data and HRF signal data, and the communication success rate, response time and bit error rate corresponding to the measured device are collected in real time; the capability evaluation results are generated according to the communication success rate, response time and bit error rate.

[0013] In one implementation of the present application, the measured signals in the current area are collected by collecting equipment arranged in several preset typical electricity consumption information collection areas, specifically including: real-time collection of HPLC signal data through a power line HPLC communication signal collection device; real-time HRF signal data through a wireless HRF communication signal collection device; real-time collection of line status interference information and operation scenario data through a field environment quantity collection cabin; wherein the operation scenario data includes at least complete current and voltage analog quantity information of the collection cabin from start to stop operation; and uploading the data collected by the collection unit to the cloud test server through the 4g / 5g public network.

[0014] In one implementation of the present application, comparing the measured signal with the typical sample signal to remove invalid signals and error signals in the measured signal specifically includes: The measured signal collected by the signal acquisition module is received and sent to the big data fuzzy comparison model algorithm back-end server; the measured signal is compared with the typical sample signal through the big data fuzzy comparison model algorithm built in the big data fuzzy comparison model algorithm back-end server to obtain the fuzzy comparison results of each measured signal, and the measured signals whose fuzzy comparison results are invalid signals and error signals are removed.

[0015] In one implementation of the present application, the communication success rate, response time and bit error rate corresponding to the device under test are collected in real time; based on the communication success rate, response time and bit error rate, a capability evaluation result is generated, specifically including: The response of the tested equipment to the HPLC signal data and the HRF signal data is collected in real time, and the communication success rate is obtained by the ratio of the response to the total transmitted signals; the response time of each communication is counted, and then the average time is calculated as the response time; the ratio of the number of erroneous code elements to the total number of code elements in the communication process is counted to obtain the bit error rate; the communication success rate, response time and bit error rate are substituted into the preset weighted formula to obtain the evaluation result.

[0016] In a third aspect, the present application provides a non-volatile computer storage medium having computer instructions stored thereon, which when executed implement an evaluation method for testing HPLC+HRF dual-mode communication capability as described in any one of the above items.

[0017] Those skilled in the art can understand that the present application has at least the following beneficial effects: The present application provides an evaluation system, method and medium for testing the dual-mode communication capability of HPLC+HRF. Through the signal acquisition module, a variety of measured signals can be collected, including HPLC signal data, HRF signal data, etc., to achieve a comprehensive test of the dual-mode communication capability and solve the problem of single function of the test device. The original broadband carrier module test device can no longer meet the detection requirements, and the line openness is susceptible to interference. The present application compares and screens the measured signals through the cloud test server, removes invalid signals and error signals, and improves the accuracy and reliability of the test. At the same time, the playback test module can simulate various data in the measured signal, further ensuring the accuracy of the test. There are many terminal manufacturers with different technologies. The test needs to be sent to a standard laboratory, which has a long cycle and high cost. The present application can be tested on site without sending the tested equipment to the laboratory, which greatly reduces the test cost and cycle. For manufacturers, this can obtain test results faster and improve production efficiency. In addition, the internal test methods of each manufacturer are quite different from the original measurement data, and there is a lack of unified evaluation standards. This application can collect multiple indicators such as the communication success rate, response time and bit error rate of the device under test in real time, and generate unified capability evaluation results based on these indicators, which helps to better understand the communication performance of the device under test.

[0018] In summary, this application provides an evaluation system, method and medium for testing the dual-mode communication capability of HPLC+HRF, through data collection of actual working conditions, data analysis and comparison calculation and storage in the cloud, and testing in local laboratories and remote experimental cabin models. This allows complex and tedious data collection, analysis, debugging and testing work on site to be repeated indefinitely in the later stage or in the laboratory, helping users to find the root cause of the problem more effectively. It improves the testing efficiency of the HPLC+HRF communication module and reduces the actual cost of the enterprise. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Some embodiments of the present disclosure are described below with reference to the accompanying drawings, in which: Figure 1 It is a schematic diagram of the internal structure of an evaluation system for testing HPLC+HRF dual-mode communication capability provided in an embodiment of the present application.

[0020] Figure 2 It is a flow chart of an evaluation method for testing HPLC+HRF dual-mode communication capability provided in an embodiment of the present application. DETAILED DESCRIPTION

[0021] It should be understood by those skilled in the art that the embodiments described below are only preferred embodiments of the present disclosure, and do not mean that the present disclosure can only be implemented through the preferred embodiments. The preferred embodiments are only used to explain the technical principles of the present disclosure, and are not used to limit the protection scope of the present disclosure. Based on the preferred embodiments provided by the present disclosure, all other embodiments obtained by ordinary technicians in this field without creative work should still fall within the protection scope of the present disclosure.

[0022] It should also be noted that the terms "include", "comprises" or any other variations thereof are intended to cover non-exclusive inclusion, so that a process, method, commodity or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, commodity or device. In the absence of more restrictions, the elements defined by the sentence "comprises a ..." do not exclude the existence of other identical elements in the process, method, commodity or device including the elements.

[0023] The technical solution proposed in the embodiments of the present application is described in detail below with reference to the accompanying drawings.

[0024] This application Figure 1 An evaluation system for testing HPLC+HRF dual-mode communication capability is provided in the embodiment of the present application. Figure 1 As shown, the system provided in the embodiment of the present application mainly includes: The signal collection module 110 is arranged in a preset typical power consumption information collection area, and is used to collect the measured signal in the current area.

[0025] It should be noted that the preset typical power consumption information collection areas are such as urban residential buildings, office buildings, industrial parks, etc. The measured signals at least include: HPLC signal data, HRF signal data, line state interference information, and operation scenario data.

[0026] As an example, the signal acquisition module 110 includes several acquisition units and upload units, and the acquisition units include at least: a power line HPLC communication signal acquisition device, a wireless HRF communication signal acquisition device, and a field environmental quantity acquisition cabin (for an HPLC+HRF dual-mode signal acquisition test cabin). The power line HPLC communication signal acquisition device (which can be a device or apparatus capable of collecting HPLC signal data) is used to collect HPLC signal data in real time. The wireless HRF communication signal acquisition device (which can be a device or apparatus capable of collecting HRF signal data) is used for real-time HRF signal data. The field environmental quantity acquisition cabin is used to collect line status interference information and operation scenario data in real time; wherein the operation scenario data at least includes the complete current and voltage analog quantity information of the acquisition cabin from start to stop operation; the upload unit is connected to the acquisition unit and is used to upload the data collected by the acquisition unit to the cloud test server 120 through the 4g / 5g public network.

[0027] Those skilled in the art can understand that: 1. The signal acquisition module 110 1. can collect and upload data in real time, ensuring the timeliness and accuracy of the test; 2. The collected measured signals cover all aspects of HPLC and HRF dual-mode communications, as well as line status interference information and operation scenario data, making the test more comprehensive and accurate; 3. The signal acquisition module 110 can be flexibly configured and adjusted according to different test requirements and scenarios; 4. Uploading data through the 4G / 5G public network improves the efficiency and speed of data transmission.

[0028] The cloud test server 120 is used to obtain the measured signal uploaded by the signal acquisition module 110, and remove invalid signals and error signals in the measured signal by comparing it with the typical sample signal.

[0029] It should be noted that the comparison scheme may be an existing scheme that can eliminate invalid signals and erroneous signals from a number of measured signals through samples of normal data.

[0030] As an example, the cloud testing server 120 is composed of a data front-end and a big data fuzzy comparison model algorithm back-end server.

[0031] The data front-end is used to receive the measured signal collected by the signal acquisition module 110 and send it to the big data fuzzy comparison model algorithm back-end server; the data front-end is responsible for receiving and processing the collected data and sending it to the big data fuzzy comparison model algorithm back-end server for analysis and comparison. The data front-end can manage more than 500 million link points at most and can handle 3,000 data transmission tasks at the same time.

[0032] The big data fuzzy comparison model algorithm backend server is used to compare the measured signal with the typical sample signal through the built-in big data fuzzy comparison model algorithm, obtain the fuzzy comparison results of each measured signal, and remove the measured signals whose fuzzy comparison results are invalid signals and error signals.

[0033] The playback test module 130 is used to call the HPLC signal playback unit to simulate the HPLC signal data in the measured signal; call the HRF signal playback unit to simulate the HRF signal data in the measured signal; call the preset interference data simulation unit to simulate the line state interference information in the measured signal; call the field data simulation unit to simulate the operation scenario data in the measured signal; communicate with the device under test through the simulated HPLC signal data and HRF signal data, and collect the communication success rate, response time and bit error rate corresponding to the device under test in real time; generate capability evaluation results based on the communication success rate, response time and bit error rate.

[0034] It should be noted that the HPLC signal playback unit is a device or apparatus that can simulate the HPLC signal data in the measured signal; the HRF signal playback unit is a device or apparatus that can simulate the HRF signal data in the measured signal; the preset interference data simulation unit is a device or apparatus that can simulate the line status interference information in the measured signal; and the field data simulation unit is a device or apparatus that can simulate the operating scenario data in the measured signal.

[0035] In addition, the communication success rate, response time and bit error rate corresponding to the device under test are collected in real time; according to the communication success rate, response time and bit error rate, the specific implementation process of generating the evaluation result of the capability can be: The response of the device under test to the HPLC signal data and the HRF signal data is collected in real time through the result processing unit in the playback test module 130, and the communication success rate is obtained by the proportion of the response to the total transmitted signal; the response time of each communication is counted, and then the average time is calculated as the response time; the ratio of the number of erroneous code elements occurring during the communication process to the total number of code elements is counted to obtain the bit error rate; the communication success rate, response time and bit error rate are substituted into a preset weighted formula to obtain an evaluation result.

[0036] In addition, the present application can perform visual operations. Specifically, the playback test module 130 includes a display unit to display the communication success rate, response time, bit error rate, and evaluation results on a preset interface.

[0037] In some embodiments, the playback test module 130 is composed of a core detection circuit and 16 module detection bits, supporting up to 16 module detections. Each detection bit supports both three-phase and single-phase module detections. The automatic detection process is completed by controlling the pull-up and push-down of the crimping device. Pull up the crimping device to stop detection and take and place the detection device; push down the crimping device to start detection and wait for the detection to be completed. The main functions of the core detection circuit are: 1. Provide power-on for the device under test and reply address. 2. Provide high and low electrical frequency conversion for the Reset pin of the module under test. 3. Provide timed power-off and power-on of the module under test. 4. Provide functions such as connection of the high-voltage line between the module under test and the terminal.

[0038] In addition, the embodiment provides an evaluation method for testing the HPLC+HRF dual-mode communication capability, such as Figure 2 As shown, the method provided in the embodiment of the present application mainly includes the following steps: Step 210: Collect the measured signals in the current area through collection devices set in several preset typical electricity consumption information collection areas.

[0039] The measured signal includes at least: HPLC signal data, HRF signal data, line status interference information, and operation scenario data.

[0040] In some embodiments, the actual measured signal in the current area is collected by collecting devices set in several preset typical power consumption information collection areas, which may be specifically: Through the power line HPLC communication signal acquisition device, HPLC signal data is collected in real time; through the wireless HRF communication signal acquisition device, HRF signal data is collected in real time; through the on-site environmental quantity acquisition cabin, line status interference information and operation scenario data are collected in real time; wherein, the operation scenario data at least includes the complete current and voltage analog quantity information of the acquisition cabin from start to stop operation; the data collected by the acquisition unit is uploaded to the cloud test server through the 4g / 5g public network.

[0041] Step 220: Compare the measured signal with the typical sample signal to remove invalid signals and erroneous signals in the measured signal.

[0042] This step can be specifically as follows: The measured signal collected by the signal acquisition module is received and sent to the big data fuzzy comparison model algorithm back-end server; the measured signal is compared with the typical sample signal through the big data fuzzy comparison model algorithm built in the big data fuzzy comparison model algorithm back-end server to obtain the fuzzy comparison results of each measured signal, and the measured signals whose fuzzy comparison results are invalid signals and error signals are removed.

[0043] Step 230, calling the HPLC signal playback unit to simulate the HPLC signal data in the measured signal; calling the HRF signal playback unit to simulate the HRF signal data in the measured signal; calling the preset interference data simulation unit to simulate the line status interference information in the measured signal; calling the field data simulation unit to simulate the operation scenario data in the measured signal; communicating with the device under test through the simulated HPLC signal data and HRF signal data, and collecting the communication success rate, response time and bit error rate corresponding to the device under test in real time; generating capability evaluation results based on the communication success rate, response time and bit error rate.

[0044] The communication success rate, response time and bit error rate of the device under test are collected in real time; based on the communication success rate, response time and bit error rate, the evaluation results of the capability are generated, which can be specifically: The response of the tested equipment to the HPLC signal data and the HRF signal data is collected in real time, and the communication success rate is obtained by the ratio of the response to the total transmitted signals; the response time of each communication is counted, and then the average time is calculated as the response time; the ratio of the number of erroneous code elements to the total number of code elements in the communication process is counted to obtain the bit error rate; the communication success rate, response time and bit error rate are substituted into the preset weighted formula to obtain the evaluation result.

[0045] In addition, an embodiment of the present application further provides a non-volatile computer storage medium on which executable instructions are stored. When the executable instructions are executed, an evaluation method for testing the HPLC+HRF dual-mode communication capability as described above is implemented.

[0046] So far, the technical solutions of the present disclosure have been described in combination with the above multiple embodiments, but it is easy for those skilled in the art to understand that the protection scope of the present disclosure is not limited to these specific embodiments. Without departing from the technical principles of the present disclosure, those skilled in the art can split and combine the technical solutions in the above-mentioned various embodiments, and can also make equivalent changes or replacements to the relevant technical features. Any changes, equivalent replacements, improvements, etc. made within the technical concept and / or technical principle of the present disclosure will fall within the protection scope of the present disclosure.

Claims

1. An evaluation system for testing HPLC+HRF dual-mode communication capability, characterized in that: The system comprises: The signal acquisition module is arranged in a preset typical power consumption information acquisition area, and is used to collect measured signals in the current area; wherein the measured signals at least include: HPLC signal data, HRF signal data, line state interference information, and operation scenario data; The cloud test server is used to obtain the measured signal uploaded by the signal acquisition module, and remove invalid and erroneous signals from the measured signal by comparing it with the typical sample signal; The playback test module is used to call the HPLC signal playback unit to simulate the HPLC signal data in the measured signal; call the HRF signal playback unit to simulate the HRF signal data in the measured signal; call the preset interference data simulation unit to simulate the line status interference information in the measured signal; call the field data simulation unit to simulate the operation scenario data in the measured signal; communicate with the device under test through the simulated HPLC signal data and HRF signal data, and collect the communication success rate, response time and bit error rate corresponding to the device under test in real time; generate capability evaluation results based on the communication success rate, response time and bit error rate.

2. The evaluation system for testing HPLC+HRF dual-mode communication capability according to claim 1, characterized in that: The signal acquisition module includes several acquisition units and upload units, and the acquisition units at least include: a power line HPLC communication signal acquisition device, a wireless HRF communication signal acquisition device, and a field environment quantity acquisition cabin; Power line HPLC communication signal acquisition device, used for real-time acquisition of HPLC signal data; Wireless HRF communication signal acquisition device for real-time HRF signal data; The on-site environmental quantity collection cabin is used to collect line status interference information and operation scenario data in real time; wherein the operation scenario data at least includes the complete current and voltage analog quantity information of the collection cabin from start to stop operation; The upload unit is connected to the collection unit and is used to upload the data collected by the collection unit to the cloud test server through the 4G / 5G public network.

3. The evaluation system for testing HPLC+HRF dual-mode communication capability according to claim 1, characterized in that: The cloud test server consists of a data front-end and a big data fuzzy comparison model algorithm back-end server; The data front-end is used to receive the measured signal collected by the signal acquisition module and send it to the big data fuzzy comparison model algorithm back-end server; The big data fuzzy comparison model algorithm backend server is used to compare the measured signal with the typical sample signal through the built-in big data fuzzy comparison model algorithm, obtain the fuzzy comparison results of each measured signal, and remove the measured signals whose fuzzy comparison results are invalid signals and error signals.

4. The evaluation system for testing HPLC+HRF dual-mode communication capability according to claim 1, characterized in that: The playback test module includes a result processing unit, It is used to collect the response of the tested equipment to HPLC signal data and HRF signal data in real time, and obtain the communication success rate through the proportion of the response situation to the total sent signal; the response time of each communication is counted, and then the average time is calculated as the response time; The ratio of the number of erroneous code elements to the total number of code elements in the communication process is calculated to obtain the bit error rate; the communication success rate, response time and bit error rate are substituted into the preset weighted formula to obtain the evaluation result.

5. The evaluation system for testing HPLC+HRF dual-mode communication capability according to claim 1, characterized in that: The playback test module includes a display unit, Used to display the communication success rate, response time, bit error rate, and evaluation results on the preset interface.

6. An evaluation method for testing HPLC+HRF dual-mode communication capability, characterized in that: The method comprises: The measured signals in the current area are collected by collecting devices set in several preset typical power consumption information collection areas; wherein the measured signals at least include: HPLC signal data, HRF signal data, line state interference information, and operation scenario data; Compare the measured signal with the typical sample signal to remove invalid and erroneous signals from the measured signal; Call the HPLC signal playback unit to simulate the HPLC signal data in the measured signal; call the HRF signal playback unit to simulate the HRF signal data in the measured signal; call the preset interference data simulation unit to simulate the line status interference information in the measured signal; call the field data simulation unit to simulate the operation scenario data in the measured signal; communicate with the device under test through the simulated HPLC signal data and HRF signal data, and collect the communication success rate, response time and bit error rate corresponding to the device under test in real time; generate capability evaluation results based on the communication success rate, response time and bit error rate.

7. The evaluation method for testing HPLC+HRF dual-mode communication capability according to claim 6, characterized in that: The actual measured signals in the current area are collected by setting up collection devices in several preset typical electricity consumption information collection areas, including: Through the power line HPLC communication signal acquisition device, HPLC signal data is collected in real time; Real-time HRF signal data through wireless HRF communication signal collection device; Through the on-site environmental quantity collection cabin, line status interference information and operation scenario data are collected in real time; wherein the operation scenario data at least includes complete current and voltage analog quantity information from the start to the stop of the collection cabin; The data collected by the collection unit is uploaded to the cloud test server through the 4G / 5G public network.

8. The evaluation method for testing HPLC+HRF dual-mode communication capability according to claim 6, characterized in that: Compare the measured signal with the typical sample signal to remove invalid and erroneous signals from the measured signal, including: Receive the measured signal collected by the signal acquisition module and send it to the big data fuzzy comparison model algorithm backend server; Through the big data fuzzy comparison model algorithm built into the back-end server of the big data fuzzy comparison model algorithm, the measured signal is compared with the typical sample signal to obtain the fuzzy comparison results of each measured signal, and the measured signals whose fuzzy comparison results are invalid signals and error signals are removed.

9. The evaluation method for testing HPLC+HRF dual-mode communication capability according to claim 6, characterized in that: Real-time collection of communication success rate, response time and bit error rate of the device under test; The evaluation results of the generation capability are generated based on the communication success rate, response time and bit error rate, including: The response of the tested equipment to the HPLC signal data and the HRF signal data is collected in real time, and the communication success rate is obtained by the ratio of the response to the total transmitted signals; the response time of each communication is counted, and then the average time is calculated as the response time; the ratio of the number of erroneous code elements to the total number of code elements in the communication process is counted to obtain the bit error rate; the communication success rate, response time and bit error rate are substituted into the preset weighted formula to obtain the evaluation result.

10. A non-volatile computer storage medium, characterized in that: Computer instructions are stored thereon, and when the computer instructions are executed, the evaluation method for testing the HPLC+HRF dual-mode communication capability as described in any one of claims 6 to 9 is implemented.

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