Communication system and method for mining power equipment based on intelligent terminal
The unique communication network number and protocol set of mining power equipment are obtained through intelligent terminals, wireless communication connections are established, and communication protocols are dynamically optimized, solving the problems of communication distance and low efficiency in traditional methods, and achieving efficient power equipment monitoring and management .
Patent Information
- Application Number
- CN202410986689.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2024-07-23
- Publication Date
- 2024-12-27
- Estimated Expiration
- 2044-07-23
AI Technical Summary
The traditional communication methods for mining power equipment have problems such as limited communication distance and low data transmission efficiency, which cannot meet the needs of remote monitoring and safe operation of mining power equipment.
Through intelligent terminals, obtain the unique communication network number of mining power equipment and the supported communication protocol set, establish wireless communication connections, realize real-time data exchange and remote control between devices, and optimize the stability of communication connections through dynamic evaluation and adjustment of communication protocols. Sex and efficiency.
It improves the communication distance and data transmission efficiency between mining power equipment and smart terminals, ensures the safe operation and communication management of equipment, enhances the flexibility and response speed of data transmission, and reduces the complexity of equipment management.
Smart Images

Figure CN118869747B_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of equipment communication, and in particular to a communication system and method for mining power equipment based on an intelligent terminal. Background Art
[0002] In the mining industry, the safe operation and remote monitoring of power equipment are the key to ensuring production stability and safety. With the rapid development of smart terminals and Internet of Things technology, the communication method of mining power equipment based on smart terminals has become an emerging technical direction to improve the remote monitoring capability and operation efficiency of mining power equipment. Using smart terminal devices (such as smart phones, tablets, control panels, etc.) as terminal nodes for data acquisition and control, by establishing a communication transmission channel between the mining power equipment terminal, the equipment operation data is collected and transmitted to the smart terminal in real time, which can reduce the amount of data and energy consumption during the transmission process, thereby improving the efficiency and real-time performance of data transmission. In addition, by combining the Internet of Things communication technology, the smart terminal can be connected to the central monitoring system through a variety of communication methods. For example, by using wireless communication technologies such as WiFi, Bluetooth, LTE, or wired communication methods such as Ethernet or RS485, remote transmission and real-time monitoring of equipment data can be achieved. This multi-channel communication method not only improves the stability and coverage of communication, but also can select the optimal communication method according to the specific environment and needs. However, traditional mining power equipment communication methods usually rely on limited communication means and simple data transmission protocols, and often have problems such as limited communication distance and low data transmission efficiency. Summary of the invention
[0003] Based on this, it is necessary for the present invention to provide a communication system and method for mining power equipment based on an intelligent terminal to solve at least one of the above technical problems.
[0004] To achieve the above purpose, a communication method for mining power equipment based on an intelligent terminal comprises the following steps:
[0005] Step S1: obtaining the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface, and encapsulating the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data to obtain mining power equipment communication connection request frame data; using wireless communication technology to send the mining power equipment communication connection request frame data to the intelligent terminal;
[0006] Step S2: parsing the connection request data of the mine power equipment communication connection request frame data through the intelligent terminal to obtain the mine power equipment communication connection request target address and the mine power equipment connection request communication protocol set; establishing a communication connection channel for the target mine power equipment terminal and the intelligent terminal based on the mine power equipment communication connection request target address and any one of the communication protocols in the mine power equipment connection request communication protocol set to generate an initial transmission channel for the power communication connection between the target device terminal and the intelligent terminal;
[0007] Step S3: obtaining the power communication connection channel transmission verification frame data through the target mining power equipment terminal encapsulation, and sending the power communication connection channel transmission verification frame data to the smart terminal through the target mining power equipment terminal based on the power communication connection initial transmission channel between the target equipment terminal and the smart terminal; performing communication connection channel stability evaluation and analysis on the power communication connection channel transmission verification frame data through the smart terminal to obtain the communication stability degree of the terminal power communication connection channel;
[0008] Step S4: comparing and judging the communication stability of the terminal power communication connection channel according to a preset communication stability threshold, if the communication stability of the terminal power communication connection channel is less than the preset communication stability threshold, executing step S5, otherwise, the initial transmission channel of the power communication connection between the target device terminal and the smart terminal is used as the communication optimization channel to generate the power communication connection optimization channel between the target device terminal and the smart terminal;
[0009] Step S5: By selecting the next communication protocol in the mining power equipment connection request communication protocol set, the connection channel is updated and tested for the initial transmission channel of the power communication connection between the target device terminal and the smart terminal, so as to obtain the power communication connection update channel between the target device terminal and the smart terminal; the power communication connection update channel between the target device terminal and the smart terminal is iteratively evaluated and judged by the target mining power equipment terminal and the smart terminal until the communication stability degree of the terminal power communication connection channel is greater than or equal to the preset communication stability degree threshold.
[0010] The present invention first obtains the unique communication network number of the target mining power equipment terminal, which is the primary step in establishing a communication connection between the intelligent terminal and the mining power equipment. The acquisition of the communication network number is the basis for equipment identification and management, which ensures the accuracy and security of subsequent data exchange. Through the unique network number, each device can be accurately located and identified, providing the necessary target address for the subsequent communication connection processing process. By utilizing the Internet of Things device access platform to parse and judge the supported communication protocols of the communication interface of the target mining power equipment terminal, the key to this step is to identify and determine the communication protocol set supported by the device communication interface. Through in-depth analysis of historical communication data, all communication protocols supported by the device can be effectively identified, providing a basis for the preparation and management of subsequent communication connections, thus ensuring smooth communication and interoperability between devices. At the same time, by encapsulating the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data, and using wireless communication technology to send the connection request frame data to the intelligent terminal, this step can realize real-time data exchange and remote control between the equipment and the intelligent terminal through wireless communication technology. This process not only realizes remote monitoring and management of the equipment, but also improves the flexibility and response speed of equipment operation. The application of wireless communication makes equipment management more efficient and intelligent, thus providing important technical support for the safe operation and communication management of mining power equipment. The connection request frame data of the mining power equipment communication connection request is also parsed by using the frame parsing tool built into the intelligent terminal, which can accurately restore and extract the unique communication network number of the target terminal and the communication protocol set supported by the target terminal, and use the unique communication network number of the target terminal as the target address of the connection request, and use the previously obtained communication protocol set as the protocol set to be used when establishing the connection. Such processing ensures the accuracy and effectiveness of the connection request, and provides a clear guidance direction for the subsequent selection and establishment of communication protocols. This method of accurate setting based on the specific information obtained by the previous analysis effectively avoids confusion or errors in communication connections. By establishing a communication connection channel for the target mining power equipment terminal and the intelligent terminal based on the target address of the mining power equipment communication connection request and any communication protocol in the mining power equipment connection request communication protocol set, this process is a key step in establishing a communication link. By establishing a connection channel, effective data exchange and communication operations can be ensured between the device end and the intelligent terminal. The key to this step is to achieve the final implementation of the communication connection, ensure the reliability and stability of the communication, and provide a solid guarantee for the smooth execution of subsequent data transmission and control instructions, thereby improving the communication distance between the target device and the intelligent terminal and the communication data transmission efficiency.Secondly, by using the target mining power equipment terminal to monitor and capture the communication address of the intelligent terminal and encapsulate the transmission verification frame data of the power communication connection channel, the target mining power equipment terminal combines it with the specific transmission verification requirements by using the communication address of the intelligent terminal obtained in the previous step, and encapsulates it into verification frame data. The key to this process is that through effective encapsulation and preparation, the integrity and correctness of the communication data can be ensured, and the necessary data basis and support are provided for the subsequent communication connection verification. Based on the initial transmission channel of the power communication connection between the target device terminal and the intelligent terminal, the target mining power equipment terminal sends the power communication connection channel transmission verification frame data to the intelligent terminal, and uses the intelligent terminal to perform a stable evaluation and analysis of the communication connection channel. The stability of the power communication connection channel can be accurately judged, including the influence of data transmission delay and transmission packet loss on the stability of the communication connection channel. The key to this process is that it can provide an objective evaluation of the quality of the communication connection, help optimize and adjust the configuration and parameters of the communication link, so as to ensure the stable operation of the communication under various working environments and conditions, and the evaluation results directly affect the effectiveness of subsequent data transmission and real-time monitoring, thereby improving the operation efficiency and reliability of the communication between mining power equipment and intelligent terminals. Then, the stability of the terminal power communication connection channel is compared and judged according to the preset communication stability threshold, which means that the stability of the current communication channel during data transmission, such as delay, packet loss rate and other indicators, will be evaluated and compared with the preset threshold. If the evaluation result shows that the stability of the current communication channel does not reach the preset threshold, the next step will be executed; otherwise, the current power communication connection initial transmission channel will be regarded as the communication optimization channel, and the optimized communication connection will be generated. Through real-time stability comparison and judgment, the lack of communication channel stability can be discovered and responded to in time, so as to take appropriate measures to improve communication efficiency and data transmission reliability. This dynamic evaluation and adjustment mechanism helps to optimize the operation of the communication system, ensure a stable data transmission environment under different working conditions, and improve the availability and performance of the overall communication connection process. Finally, by selecting the next communication protocol in the mining power equipment connection request communication protocol set, the connection channel is updated and tested for the initial transmission channel of the power communication connection between the target device terminal and the intelligent terminal. This includes updating the currently used communication protocol to improve the efficiency and stability of the communication channel, and conducting detailed tests to verify the feasibility and advantages of the new protocol in practical applications. Through updating and testing, the latest communication protocol technology can be introduced to adapt to the ever-changing communication needs and technical standards. The application of new protocols can improve the speed of data transmission, reduce communication delays, and improve communication security, thereby optimizing the power communication connection between terminal devices and smart terminals.In addition, the updated communication connection is iteratively evaluated and judged for stability through the target mining power equipment terminals and smart terminals to ensure the stability and reliability of the new protocol in long-term use.
[0011] Preferably, the present invention further provides a mine power equipment communication system based on an intelligent terminal, which is used to execute the mine power equipment communication method based on an intelligent terminal as described above. The mine power equipment communication system based on an intelligent terminal includes:
[0012] The terminal power communication connection request sending module is used to obtain the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface, and encapsulate the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data to obtain the mining power equipment communication connection request frame data; use wireless communication technology to send the mining power equipment communication connection request frame data to the intelligent terminal;
[0013] The terminal power communication connection channel establishment module is used to perform connection request data analysis on the mine power equipment communication connection request frame data through the intelligent terminal to obtain the mine power equipment communication connection request target address and the mine power equipment connection request communication protocol set; based on the mine power equipment communication connection request target address and any one of the communication protocols in the mine power equipment connection request communication protocol set, establish a communication connection channel for the target mine power equipment terminal and the intelligent terminal to generate an initial transmission channel for the power communication connection between the target device terminal and the intelligent terminal;
[0014] The communication connection channel communication stability evaluation module is used to obtain the power communication connection channel transmission verification frame data through the target mining power equipment terminal encapsulation, and send the power communication connection channel transmission verification frame data to the smart terminal through the target mining power equipment terminal based on the power communication connection initial transmission channel between the target equipment terminal and the smart terminal; perform communication connection channel stability evaluation and analysis on the power communication connection channel transmission verification frame data through the smart terminal, so as to obtain the communication stability degree of the terminal power communication connection channel;
[0015] A communication stability judgment module is used to compare and judge the communication stability of the terminal power communication connection channel according to a preset communication stability threshold. If the communication stability of the terminal power communication connection channel is less than the preset communication stability threshold, the specific content of the communication connection channel iterative update optimization module is executed. Otherwise, the initial transmission channel of the power communication connection between the target device terminal and the smart terminal is used as the communication optimization channel to generate the power communication connection optimization channel between the target device terminal and the smart terminal.
[0016] The communication connection channel iterative update optimization module is used to update and test the connection channel of the initial transmission channel of the power communication connection between the target device terminal and the smart terminal by selecting the next communication protocol in the mine power equipment connection request communication protocol set, so as to obtain the power communication connection update channel between the target device terminal and the smart terminal; and iteratively evaluate and judge the stability of the power communication connection update channel between the target device terminal and the smart terminal through the target mine power equipment terminal and the smart terminal until the communication stability degree of the terminal power communication connection channel is greater than or equal to the preset communication stability degree threshold.
[0017] In summary, the present invention provides a mine power equipment communication system based on an intelligent terminal, which is composed of a terminal power communication connection request sending module, a terminal power communication connection channel establishment module, a communication connection channel communication stability evaluation module, a communication stability degree judgment module and a communication connection channel iterative update optimization module. It can realize any mine power equipment communication method based on the intelligent terminal described in the present invention, and is used to combine the operations between computer programs running on each module to realize the mine power equipment communication method based on the intelligent terminal. The internal structures of the system cooperate with each other, which can greatly reduce repetitive work and manpower investment, and can quickly and effectively provide a more accurate and efficient mine power equipment communication process based on the intelligent terminal, thereby simplifying the operation process of the mine power equipment communication system based on the intelligent terminal. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] Other features, objects and advantages of the present invention will become more apparent from the detailed description of non-limiting embodiments thereof made with reference to the following drawings:
[0019] Figure 1 It is a schematic diagram of the steps of the mine power equipment communication method based on the intelligent terminal of the present invention;
[0020] Figure 2 for Figure 1 Detailed step flow diagram of step S1;
[0021] Figure 3 for Figure 2 Detailed step flow chart of step S13 in FIG. DETAILED DESCRIPTION
[0022] The technical method of the present invention is described clearly and completely below in conjunction with the accompanying drawings. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by technicians in this field without creative work are within the scope of protection of the present invention.
[0023] To achieve this, please refer to Figures 1 to 3 The present invention provides a communication method for mining power equipment based on an intelligent terminal, the method comprising the following steps:
[0024] Step S1: obtaining the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface, and encapsulating the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data to obtain mining power equipment communication connection request frame data; using wireless communication technology to send the mining power equipment communication connection request frame data to the intelligent terminal;
[0025] Step S2: parsing the connection request data of the mine power equipment communication connection request frame data through the intelligent terminal to obtain the mine power equipment communication connection request target address and the mine power equipment connection request communication protocol set; establishing a communication connection channel for the target mine power equipment terminal and the intelligent terminal based on the mine power equipment communication connection request target address and any one of the communication protocols in the mine power equipment connection request communication protocol set to generate an initial transmission channel for the power communication connection between the target device terminal and the intelligent terminal;
[0026] Step S3: obtaining the power communication connection channel transmission verification frame data through the target mining power equipment terminal encapsulation, and sending the power communication connection channel transmission verification frame data to the smart terminal through the target mining power equipment terminal based on the power communication connection initial transmission channel between the target equipment terminal and the smart terminal; performing communication connection channel stability evaluation and analysis on the power communication connection channel transmission verification frame data through the smart terminal to obtain the communication stability degree of the terminal power communication connection channel;
[0027] Step S4: comparing and judging the communication stability of the terminal power communication connection channel according to a preset communication stability threshold, if the communication stability of the terminal power communication connection channel is less than the preset communication stability threshold, executing step S5, otherwise, the initial transmission channel of the power communication connection between the target device terminal and the smart terminal is used as the communication optimization channel to generate the power communication connection optimization channel between the target device terminal and the smart terminal;
[0028] Step S5: By selecting the next communication protocol in the mining power equipment connection request communication protocol set, the connection channel is updated and tested for the initial transmission channel of the power communication connection between the target device terminal and the smart terminal, so as to obtain the power communication connection update channel between the target device terminal and the smart terminal; the power communication connection update channel between the target device terminal and the smart terminal is iteratively evaluated and judged by the target mining power equipment terminal and the smart terminal until the communication stability degree of the terminal power communication connection channel is greater than or equal to the preset communication stability degree threshold.
[0029] In the embodiment of the present invention, please refer to Figure 1 As shown, it is a schematic diagram of the steps of the mine power equipment communication method based on the intelligent terminal of the present invention. In this example, the mine power equipment communication method based on the intelligent terminal includes the following steps:
[0030] Step S1: obtaining the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface, and encapsulating the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data to obtain mining power equipment communication connection request frame data; using wireless communication technology to send the mining power equipment communication connection request frame data to the intelligent terminal;
[0031] In an embodiment of the present invention, the target mining power equipment terminal is assigned a corresponding communication network number by the equipment manufacturer or the equipment management platform. This number is a unique serial number or an identification code generated by a specific rule, such as a MAC address or an IP address, which is used to uniquely identify the location and identity of each mining power equipment in the network, thereby obtaining a unique communication network number of the target mining power equipment terminal. At the same time, the communication interface of the target mining power equipment terminal is captured and processed by using the Internet of Things device access platform to capture and record the historical communication data of the mining power equipment in real time, and the communication protocol supported in the acquired communication information data is parsed and judged by using a data parsing method to analyze and judge the type and version of the communication protocol used by the mining power equipment in the communication process, and the communication protocol set supported by the mining power equipment is determined therefrom, such as TCP / IP, Modbus, CANopen, PROFINET, etc., thereby obtaining a communication protocol set supported by the communication interface. The previously acquired unique communication network number and the communication protocol set supported by the communication interface are encapsulated in the target mining power equipment terminal into a connection request frame to prepare a request data packet for establishing a communication connection with the intelligent terminal, thereby obtaining the mining power equipment communication connection request frame data. Then, the previously packaged mining power equipment communication connection request frame data is sent to the intelligent terminal by using wireless communication technology to initiate an actual communication connection request action with the intelligent terminal.
[0032] Step S2: parsing the connection request data of the mine power equipment communication connection request frame data through the intelligent terminal to obtain the mine power equipment communication connection request target address and the mine power equipment connection request communication protocol set; establishing a communication connection channel for the target mine power equipment terminal and the intelligent terminal based on the mine power equipment communication connection request target address and any one of the communication protocols in the mine power equipment connection request communication protocol set to generate an initial transmission channel for the power communication connection between the target device terminal and the intelligent terminal;
[0033] In an embodiment of the present invention, the received mining power equipment communication connection request frame data is parsed by using a frame parsing tool built into the intelligent terminal to extract the unique communication network number of the target terminal and the communication protocol set supported by the communication interface from the data frame, and the unique communication network number of the target terminal obtained by the previous parsing is used as the target address of the connection request, and the communication protocol set supported by the parsed communication interface is used as the communication protocol set of the connection request, in order to prepare to send a connection request establishment frame to the mining power equipment, thereby obtaining the mining power equipment communication connection request target address and the mining power equipment connection request communication protocol set. At the same time, by using the intelligent terminal to arbitrarily select a suitable communication protocol in the mine power equipment connection request communication protocol set, and by obtaining its own communication address at the intelligent terminal, its own communication address is encapsulated with the previously determined mine power equipment communication connection request target address and the communication protocol into a connection request establishment frame. This frame of data contains all the key information required to establish a communication connection, thereby establishing a bridge for communication between the intelligent terminal and the mine power equipment. Then, by combining the encapsulated communication connection request establishment frame, a corresponding communication connection channel is established between the target mine power equipment terminal and the intelligent terminal, so as to realize the actual communication interaction process between the intelligent terminal and the target equipment terminal, thereby establishing an initial transmission channel, and finally generating the initial transmission channel of the power communication connection between the target equipment terminal and the intelligent terminal.
[0034] Step S3: obtaining the power communication connection channel transmission verification frame data through the target mining power equipment terminal encapsulation, and sending the power communication connection channel transmission verification frame data to the smart terminal through the target mining power equipment terminal based on the power communication connection initial transmission channel between the target equipment terminal and the smart terminal; performing communication connection channel stability evaluation and analysis on the power communication connection channel transmission verification frame data through the smart terminal to obtain the communication stability degree of the terminal power communication connection channel;
[0035] In an embodiment of the present invention, a communication connection request frame between the target device terminal and the smart terminal is established and parsed by using a monitoring tool on the target mining power equipment terminal to monitor and capture the communication connection request frame between the target device terminal and the smart terminal, so as to parse and obtain the communication address of the smart terminal, and encapsulate the corresponding transmission verification frame by using the previously obtained communication address of the smart terminal on the target mining power equipment terminal in combination with the specific transmission verification requirements, and specify the communication address sent to the smart terminal so that it can be accurately sent to the smart terminal to complete the verification process of the stability of the communication connection channel, thereby obtaining the power communication connection channel transmission verification frame data. At the same time, by using the previously established power communication connection initial transmission channel between the target device terminal and the smart terminal, the power communication connection channel transmission verification frame data encapsulated on the target mining power equipment terminal is sent to the smart terminal. Then, by using the smart terminal, the transmission process of the power communication connection channel transmission verification frame data on the communication connection channel is evaluated and analyzed, so as to analyze the transmission process and results of the received verification frame data to obtain and analyze whether there is packet loss, delay or other abnormal conditions in the data transmission process to evaluate the stability of the current power communication connection channel, and finally obtain the communication stability of the terminal power communication connection channel.
[0036] Step S4: comparing and judging the communication stability of the terminal power communication connection channel according to a preset communication stability threshold, if the communication stability of the terminal power communication connection channel is less than the preset communication stability threshold, executing step S5, otherwise, the initial transmission channel of the power communication connection between the target device terminal and the smart terminal is used as the communication optimization channel to generate the power communication connection optimization channel between the target device terminal and the smart terminal;
[0037] In an embodiment of the present invention, a comparison is made with the communication stability degree of the terminal power communication connection channel obtained by the previously quantitative calculation by using a preset communication stability degree threshold. If the communication stability degree of the terminal power communication connection channel is less than the preset communication stability degree threshold, it means that the stability of the communication connection channel established by the corresponding communication protocol is poor, and it is necessary to update the communication protocol to execute the specific content of step S5; otherwise, if the communication stability degree of the terminal power communication connection channel is greater than or equal to the preset communication stability degree threshold, it means that the stability of the communication connection channel established by the corresponding communication protocol meets the original requirements, and the initial transmission channel of the power communication connection between the target device terminal and the smart terminal is used as the communication optimization channel, and finally the power communication connection optimization channel between the target device terminal and the smart terminal is generated.
[0038] Step S5: By selecting the next communication protocol in the mining power equipment connection request communication protocol set, the connection channel is updated and tested for the initial transmission channel of the power communication connection between the target device terminal and the smart terminal, so as to obtain the power communication connection update channel between the target device terminal and the smart terminal; the power communication connection update channel between the target device terminal and the smart terminal is iteratively evaluated and judged by the target mining power equipment terminal and the smart terminal until the communication stability degree of the terminal power communication connection channel is greater than or equal to the preset communication stability degree threshold.
[0039] In an embodiment of the present invention, by selecting the communication protocol supported by the next power equipment from the mining power equipment connection request communication protocol set, this selection process usually involves evaluating the performance and function of the current communication protocol to determine whether the communication channel established by it is stable, and arbitrarily selecting a suitable new protocol based on its instability. After selection, the next step is to encapsulate the selected communication protocol into a communication protocol update and upgrade data packet, including a new communication port, data frame format and its existing security authentication mechanism, so as to realize the update and test processing of the corresponding communication protocol in the initial transmission channel of the power communication connection between the target device terminal and the smart terminal, so as to ensure that the update process can proceed smoothly, and the new communication protocol can be compatible with existing equipment and systems, thereby obtaining the power communication connection update channel between the target device terminal and the smart terminal. Then, the target mining power equipment terminal and the intelligent terminal are used to iteratively evaluate and compare the stability of the updated power communication connection update channel between the updated target equipment terminal and the intelligent terminal. Similarly, the target mining power equipment terminal is used to send channel verification frame data, and the intelligent terminal is used to perform stability evaluation and analysis to continuously monitor the stability and performance of the communication connection channel established by each communication protocol until the communication stability level of the terminal power communication connection channel is greater than or equal to the preset communication stability level threshold.
[0040] The present invention first obtains the unique communication network number of the target mining power equipment terminal, which is the primary step in establishing a communication connection between the intelligent terminal and the mining power equipment. The acquisition of the communication network number is the basis for equipment identification and management, which ensures the accuracy and security of subsequent data exchange. Through the unique network number, each device can be accurately located and identified, providing the necessary target address for the subsequent communication connection processing process. By utilizing the Internet of Things device access platform to parse and judge the supported communication protocols of the communication interface of the target mining power equipment terminal, the key to this step is to identify and determine the communication protocol set supported by the device communication interface. Through in-depth analysis of historical communication data, all communication protocols supported by the device can be effectively identified, providing a basis for the preparation and management of subsequent communication connections, thus ensuring smooth communication and interoperability between devices. At the same time, by encapsulating the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data, and using wireless communication technology to send the connection request frame data to the intelligent terminal, this step can realize real-time data exchange and remote control between the equipment and the intelligent terminal through wireless communication technology. This process not only realizes remote monitoring and management of the equipment, but also improves the flexibility and response speed of equipment operation. The application of wireless communication makes equipment management more efficient and intelligent, thus providing important technical support for the safe operation and communication management of mining power equipment. The connection request frame data of the mining power equipment communication connection request is also parsed by using the frame parsing tool built into the intelligent terminal, which can accurately restore and extract the unique communication network number of the target terminal and the communication protocol set supported by the target terminal, and use the unique communication network number of the target terminal as the target address of the connection request, and use the previously obtained communication protocol set as the protocol set to be used when establishing the connection. Such processing ensures the accuracy and effectiveness of the connection request, and provides a clear guidance direction for the subsequent selection and establishment of communication protocols. This method of accurate setting based on the specific information obtained by the previous analysis effectively avoids confusion or errors in communication connections. By establishing a communication connection channel for the target mining power equipment terminal and the intelligent terminal based on the target address of the mining power equipment communication connection request and any communication protocol in the mining power equipment connection request communication protocol set, this process is a key step in establishing a communication link. By establishing a connection channel, effective data exchange and communication operations can be ensured between the device end and the intelligent terminal. The key to this step is to achieve the final implementation of the communication connection, ensure the reliability and stability of the communication, and provide a solid guarantee for the smooth execution of subsequent data transmission and control instructions, thereby improving the communication distance between the target device and the intelligent terminal and the communication data transmission efficiency.Secondly, by using the target mining power equipment terminal to monitor and capture the communication address of the intelligent terminal and encapsulate the transmission verification frame data of the power communication connection channel, the target mining power equipment terminal combines it with the specific transmission verification requirements by using the communication address of the intelligent terminal obtained in the previous step, and encapsulates it into verification frame data. The key to this process is that through effective encapsulation and preparation, the integrity and correctness of the communication data can be ensured, and the necessary data basis and support are provided for the subsequent communication connection verification. Based on the initial transmission channel of the power communication connection between the target device terminal and the intelligent terminal, the target mining power equipment terminal sends the power communication connection channel transmission verification frame data to the intelligent terminal, and uses the intelligent terminal to perform a stable evaluation and analysis of the communication connection channel. The stability of the power communication connection channel can be accurately judged, including the influence of data transmission delay and transmission packet loss on the stability of the communication connection channel. The key to this process is that it can provide an objective evaluation of the quality of the communication connection, help optimize and adjust the configuration and parameters of the communication link, so as to ensure the stable operation of the communication under various working environments and conditions, and the evaluation results directly affect the effectiveness of subsequent data transmission and real-time monitoring, thereby improving the operation efficiency and reliability of the communication between mining power equipment and intelligent terminals. Then, the stability of the terminal power communication connection channel is compared and judged according to the preset communication stability threshold, which means that the stability of the current communication channel during data transmission, such as delay, packet loss rate and other indicators, will be evaluated and compared with the preset threshold. If the evaluation result shows that the stability of the current communication channel does not reach the preset threshold, the next step will be executed; otherwise, the current power communication connection initial transmission channel will be regarded as the communication optimization channel, and the optimized communication connection will be generated. Through real-time stability comparison and judgment, the lack of communication channel stability can be discovered and responded to in time, so as to take appropriate measures to improve communication efficiency and data transmission reliability. This dynamic evaluation and adjustment mechanism helps to optimize the operation of the communication system, ensure a stable data transmission environment under different working conditions, and improve the availability and performance of the overall communication connection process. Finally, by selecting the next communication protocol in the mining power equipment connection request communication protocol set, the connection channel is updated and tested for the initial transmission channel of the power communication connection between the target device terminal and the intelligent terminal. This includes updating the currently used communication protocol to improve the efficiency and stability of the communication channel, and conducting detailed tests to verify the feasibility and advantages of the new protocol in practical applications. Through updating and testing, the latest communication protocol technology can be introduced to adapt to the ever-changing communication needs and technical standards. The application of new protocols can improve the speed of data transmission, reduce communication delays, and improve communication security, thereby optimizing the power communication connection between terminal devices and smart terminals.In addition, the updated communication connection is iteratively evaluated and judged for stability through the target mining power equipment terminals and smart terminals to ensure the stability and reliability of the new protocol in long-term use.
[0041] Preferably, as an embodiment of the present invention, reference is made to Figure 2 As shown, Figure 1 Detailed step flow diagram of step S1 in FIG. 1 , in this embodiment, step S1 includes the following steps:
[0042] Step S11: obtaining the unique communication network number of the target mining power equipment terminal;
[0043] In an embodiment of the present invention, a corresponding communication network number is assigned to the target mining power equipment terminal by the equipment manufacturer or the equipment management platform. This number is a unique serial number or an identification code generated by specific rules, such as a MAC address or an IP address, which is used to uniquely identify the location and identity of each mining power equipment in the network. This number is obtained to ensure that communication requests can be accurately sent to a specific smart terminal or control command information can be received from the smart terminal, and finally the unique communication network number of the target mining power equipment terminal is obtained.
[0044] Step S12: Capture and process the communication data of the communication interface of the target mining power equipment terminal through the Internet of Things device access platform to obtain historical communication information data of the target mining power equipment interface;
[0045] In an embodiment of the present invention, the communication data of the communication interface of the target mining power equipment terminal is captured and processed by using an Internet of Things device access platform to capture and record the historical communication data of the mining power equipment in real time. For example, assuming that an Internet of Things access platform specially designed for monitoring and management of mining power equipment is used, a communication connection with the target device will be established through the platform to capture the data frames sent and received by the device in real time. These data may include device status updates, sensor data, control commands, etc., thereby establishing a communication history record of the target device, and finally obtaining the historical communication information data of the target mining power equipment interface.
[0046] Step S13: parsing and judging the supported communication protocols of the historical communication information data of the target mining power equipment interface to obtain the communication protocol set supported by the communication interface;
[0047] In an embodiment of the present invention, a data parsing method is used to parse and judge the communication protocols supported in the historical communication information data of the interface of the target mining power equipment, so as to analyze and judge the type and version of the communication protocol used by the mining power equipment in the communication process, and determine the communication protocol set supported by the mining power equipment, such as TCP / IP, Modbus, CANopen, PROFINET, etc., and finally obtain the communication protocol set supported by the communication interface.
[0048] Step S14: encapsulating the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data to obtain mining power equipment communication connection request frame data;
[0049] In an embodiment of the present invention, the previously acquired unique communication network number and the communication protocol set supported by the communication interface are encapsulated into a connection request frame in the target mining power equipment terminal to prepare a request data packet for establishing a communication connection with the intelligent terminal, and these information are encapsulated according to a predetermined communication protocol format. For example, in the Modbus protocol, the device network number and the requested function code are combined into a complete Modbus request frame. This request frame may include information such as the device address, function code, data length, and check bit to ensure that the intelligent terminal that establishes a connection channel with it can correctly parse and respond to the corresponding communication request, and finally obtain the mining power equipment communication connection request frame data.
[0050] Step S15: Using wireless communication technology to transmit the mining power equipment communication connection request frame data to the intelligent terminal.
[0051] In the embodiment of the present invention, the previously packaged mining power equipment communication connection request frame data is sent to the intelligent terminal by using wireless communication technology to initiate an actual communication connection request action with the intelligent terminal.
[0052] The present invention first obtains the unique communication network number of the target mining power equipment terminal, which is the primary step to establish the communication connection between the intelligent terminal and the mining power equipment. The acquisition of the communication network number is the basis for equipment identification and management, which ensures the accuracy and security of subsequent data exchange. Through the unique network number, each device can be accurately located and identified, and the necessary target address is provided for the subsequent communication connection processing process. Secondly, by using the Internet of Things device access platform to capture data on the communication interface of the target mining power equipment terminal, this step is not limited to simply capturing data, but more importantly, it ensures the integrity and timeliness of the data. Through the Internet of Things device access platform, efficient monitoring and data capture of the device communication interface can be achieved, ensuring the basic data quality of subsequent data analysis and decision-making. Then, by parsing and judging the supported communication protocol of the historical communication information data of the target mining power equipment interface, the key to this step is to identify and determine the communication protocol set supported by the device communication interface. Through the in-depth analysis of the historical communication data, all the communication protocols supported by the device can be effectively identified, providing a basis for the preparation and management of the subsequent communication connection, so as to ensure the smoothness and interoperability of communication between devices. Next, the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface are encapsulated into connection request frame data. This process is a key step in establishing a communication connection between the device and the intelligent terminal. The generation of connection request frame data ensures the correctness and integrity of the communication data and provides the necessary communication identification and parameter settings for the device to access the intelligent terminal. Finally, the connection request frame data is sent to the intelligent terminal by using wireless communication technology. This step can realize real-time data exchange and remote control between the device and the intelligent terminal through wireless communication technology. This process not only realizes remote monitoring and management of the equipment, but also improves the flexibility and response speed of the equipment operation. The application of wireless communication makes equipment management more efficient and intelligent, thus providing important technical support for the safe operation and communication management of mining power equipment.
[0053] Preferably, as an embodiment of the present invention, reference is made to Figure 3 As shown, Figure 2 FIG. 1 is a schematic diagram of a detailed step flow chart of step S13 in FIG. 1 . In this embodiment, step S13 includes the following steps:
[0054] Step S131: dividing the target mining power equipment interface historical communication information data into communication protocol data fields to obtain each target mining power equipment interface communication protocol data field;
[0055] In an embodiment of the present invention, the communication protocol data fields in the historical communication information data of the target mining power equipment interface are divided and processed to divide and classify the overall communication information data according to the data fields defined by the protocol, and accurately divide the data fields related to the communication protocol therefrom. For example, by collecting the historical communication records of the corresponding mining power equipment, which contain the input and output data, control commands, alarm information, etc. of the equipment, and dividing these communication data into different data fields, such as command fields, data fields, status fields, etc., according to the equipment manual or protocol specifications, the data fields related to the communication protocol are identified therefrom, and finally the communication protocol data fields of each target mining power equipment interface are obtained.
[0056] Step S132: performing communication protocol structure analysis on each target mining power equipment interface communication protocol data field to obtain interface communication protocol structure information data of each communication protocol field;
[0057] In an embodiment of the present invention, an information structure analysis method is used to identify and analyze the protocol structure of each target mining power equipment interface communication protocol data field obtained by division, so as to deeply analyze the structure and organization of each communication protocol field, and understand its specific structural information in the communication process, including the length of the field, data type (such as integer, floating point number, character string), the position and calculation method of the check bit, etc., so as to help understand the exchange process and meaning of each communication protocol data field in the communication, and finally obtain the interface communication protocol structure information data of each communication protocol field.
[0058] Step S133: performing communication protocol exchange characteristic analysis on the interface communication protocol structure information data of each communication protocol field to obtain communication protocol exchange characteristic data of each communication protocol field;
[0059] In an embodiment of the present invention, the interface communication protocol structure information data of each communication protocol field is identified and analyzed by using a feature analysis method to analyze the exchange characteristics of each communication protocol field in the communication process, including its frequency, sequence, correlation and other aspects in the communication, and thereby identify and understand the exchange mechanisms of different communication protocol fields and their corresponding data transmission specifications, and finally obtain the communication protocol exchange characteristic data of each communication protocol field.
[0060] Step S134: Based on the communication protocol exchange characteristic data of each communication protocol field, the information exchange mechanism identification and analysis is performed on each target mining power equipment interface communication protocol data field to obtain the communication process information exchange mechanism of each communication protocol field;
[0061] In an embodiment of the present invention, the exchange mechanism within the corresponding target mining power equipment interface communication protocol data field is identified and analyzed by combining the communication protocol exchange characteristic data of each communication protocol field obtained by previous analysis to determine the specific information exchange mechanism of each communication protocol field, including the message format, encoding method, transmission rules, and existing error handling strategies, etc., and finally obtain the communication process information exchange mechanism of each communication protocol field.
[0062] Step S135: parsing and judging the supported communication protocols for the communication process information exchange mechanism of each communication protocol field according to the preset communication protocol information exchange mechanism standard, and obtaining the communication protocol set supported by the communication interface.
[0063] In an embodiment of the present invention, the communication protocol information exchange mechanism standard pre-set inside the computer is used to perform communication protocol parsing and matching judgment on the communication process information exchange mechanism of each communication protocol field obtained by identification and analysis, so as to verify and parse the historical communication protocol field exchange mechanism of the previously identified mining power equipment according to the communication protocol specification provided by the communication protocol exchange mechanism standard, thereby determining the specific communication protocol supported by the mining power equipment. For example, assuming that the communication protocol exchange mechanism historically supported by the mining power equipment has been identified, then by referring to the corresponding communication protocol standard, such as the specification of the Modbus or Profibus protocol, it is verified whether the supported communication protocol exchange mechanism is consistent with the standard, thereby confirming what the specific communication protocol supported by the communication interface is, and the identified communication protocols are grouped together to finally obtain the communication protocol set supported by the communication interface.
[0064] The present invention firstly divides the target mining power equipment interface historical communication information data into communication protocol data fields, thereby realizing structured processing of the data. The key to this step is to segment and organize the complex historical communication data according to the data fields of the communication protocol, so that the subsequent data analysis and understanding become clearer and more efficient. By accurately dividing the communication protocol data fields, the foundation can be laid for the subsequent communication protocol structure analysis, while ensuring the accuracy and completeness of the data in the subsequent steps. Secondly, by performing communication protocol structure analysis on each target mining power equipment interface communication protocol data field, the structure of each communication protocol field can be deeply analyzed, including aspects such as data format, encoding method, and field meaning, thereby obtaining the interface communication protocol structure information data. This analysis process not only helps to understand the role and meaning of each field in communication, but also helps to identify and correct existing data format errors or inconsistencies, thereby improving the accuracy and reliability of data processing. Then, the communication protocol exchange feature analysis is performed on the interface communication protocol structure information data of each communication protocol field to analyze the exchange characteristics of each communication protocol field, such as data packet length, start bit, check mode, etc. This analysis process helps to identify and understand the exchange mechanism of different communication protocol fields and their corresponding data transmission specifications, thereby providing the necessary basis for the identification of information exchange mechanisms in subsequent steps. Next, the information exchange mechanism identification and analysis of each target mining power equipment interface communication protocol data field is performed based on the communication protocol exchange feature data of each communication protocol field. The core of this step is to identify and analyze the specific mechanism and specification of each communication protocol field in the information exchange process based on the communication protocol exchange characteristics obtained in the previous analysis. By accurately identifying the information exchange mechanism, the communication interoperability between devices and the effectiveness of data transmission can be ensured, while providing necessary support for subsequent communication protocol analysis. Finally, the communication process information exchange mechanism of each communication protocol field is analyzed and judged according to the preset communication protocol information exchange mechanism standard to support the communication protocols. This step compares and verifies the analyzed communication protocol exchange characteristics with the preset standards to determine the specific communication protocol set supported by each communication protocol field. This analysis and judgment not only helps to verify the compliance and compatibility of the equipment communication protocol, but also provides the necessary reference basis for subsequent data integration and system integration, thereby ensuring the stability and reliability of the entire mining power equipment communication process.
[0065] Preferably, step S134 includes the following steps:
[0066] Perform data flow pattern analysis on each target mining power equipment interface communication protocol data field to obtain the communication process data flow usage pattern of each communication protocol field;
[0067] In an embodiment of the present invention, a traffic pattern recognition and analysis method is used to identify and analyze the traffic pattern of each target mining power equipment interface communication protocol data field, so as to deeply understand the data traffic usage pattern of each target mining power equipment interface communication protocol data field during the communication process, including basic characteristics such as data packet size, frequency, and transmission direction, and reveal the peak and trough periods of data traffic transmission. For example, assuming that it is necessary to analyze the Modbus communication protocol used by a mining power equipment, in the data traffic pattern analysis stage, by collecting and analyzing the Modbus data packets transmitted from the device to the control center, it will be found that the device periodically sends data packets, each containing a specific number of register values, which represent sensor data or device status, and the frequency and data packet size of the data during the communication process are determined therefrom, and finally the communication process data traffic usage pattern of each communication protocol field is obtained.
[0068] Preferably, based on the communication process data flow usage mode of each communication protocol field, the communication exchange behavior analysis is performed on each target mining power equipment interface communication protocol data field to obtain the communication protocol exchange behavior data of each communication protocol field;
[0069] In an embodiment of the present invention, by combining the communication process data flow usage pattern of each communication protocol field previously determined, the communication exchange behavior of the corresponding target mining power equipment interface communication protocol data field is identified and analyzed to analyze the behavior pattern of each communication protocol field in the actual communication process, including the data exchange method, response time, error handling mechanism, etc., and finally the communication protocol exchange behavior data of each communication protocol field is obtained.
[0070] Preferably, based on the communication protocol exchange behavior data and the communication protocol exchange characteristic data of each communication protocol field, dynamic reverse engineering is performed on the communication protocol data field of each target mining power equipment interface to generate the communication dynamic exchange process of each communication protocol field;
[0071] In an embodiment of the present invention, a dynamic reverse engineering analysis of the exchange process of the corresponding target mining power equipment interface communication protocol data field is performed by combining the communication protocol exchange behavior data and the communication protocol exchange characteristic data of each communication protocol field obtained by the previous analysis, so as to infer the dynamic exchange process of the communication protocol field under different circumstances through the existing behavior data, that is, to understand the dynamic interaction mode of the communication protocol. For example, if it is found in the previous analysis that the device will send a query request under specific conditions and perform the next operation after receiving the response, then this request-response interaction process will be simulated in the exchange dynamic reverse engineering, which includes setting up a test environment to observe the response of the device, or conducting experiments through a simulator to verify the understanding of the communication behavior, thereby helping to establish the dynamic exchange process of the communication protocol, and at the same time better understand the communication process between mining power equipment and other equipment, and finally generate the communication dynamic exchange process of each communication protocol field.
[0072] Preferably, the dynamic communication exchange process of each communication protocol field is analyzed by a state machine interaction to obtain the communication information exchange change rule data of each communication protocol field under different exchange states;
[0073] In an embodiment of the present invention, a state machine interaction analysis is performed on the communication dynamic exchange process of each communication protocol field obtained by the corresponding simulation analysis to model the dynamic interaction process of the protocol as a state machine, so as to further analyze the communication exchange change rules of each communication protocol field under different exchange states. For example, if a dynamic model of the Modbus communication protocol has been established, the state machine interaction analysis will help identify different states and transition conditions. For example, the device sends a request to read a register (state A) and waits for a response from the control center (state B). If the control center responds successfully, the state will be transferred to another state (state C), otherwise error handling will be considered (state D). Through the state machine interaction analysis, the communication change rules of the communication protocol under different states can be captured, thereby distinguishing different communication protocols, and finally obtaining the communication information exchange change rule data of each communication protocol field under different exchange states.
[0074] Preferably, the information exchange mechanism identification and analysis is performed on each target mining power equipment interface communication protocol data field according to the communication information exchange change law data of each communication protocol field under different exchange states to obtain the communication process information exchange mechanism of each communication protocol field.
[0075] In an embodiment of the present invention, the exchange mechanism in the corresponding target mining power equipment interface communication protocol data field is identified and analyzed by combining the communication information exchange change law data of each communication protocol field under different exchange states obtained by the previous interactive analysis to determine the specific information exchange mechanism of each communication protocol field, including the message format, encoding method, transmission rules, and existing error handling strategies, etc. For example, assuming that the communication change law data of the Modbus protocol under different states has been obtained through the previous analysis, in this analysis stage, the message format of the Modbus protocol, such as function code, address and data type of data register, etc., will be deeply analyzed, and the transmission rules of the communication protocol will also be studied, including the data reading, writing and confirmation process and the existing abnormal response processing (such as timeout or invalid response). Through these analyses, the specific information exchange mechanism of each communication protocol field can be fully understood, and finally the communication process information exchange mechanism of each communication protocol field can be obtained.
[0076] The present invention first analyzes the data flow pattern of each target mining power equipment interface communication protocol data field to deeply understand the data flow usage pattern of each target mining power equipment interface communication protocol data field in the communication process. This analysis not only includes basic characteristics such as data packet size, frequency, and transmission direction, but also reveals the peak and trough periods of data transmission, thereby providing a basis for data exchange behavior analysis for subsequent steps. Secondly, based on the communication process data flow usage pattern of each communication protocol field, the communication exchange behavior analysis of each target mining power equipment interface communication protocol data field is performed to obtain the communication protocol exchange behavior data of each communication protocol field. The key to this step is to combine the data flow pattern with the specific communication protocol field, and analyze its behavior performance in the actual communication process, such as response time, data transmission efficiency, etc., thereby providing a reliable basis for subsequent processing. Then, the communication protocol data fields of each target mining power equipment interface are exchanged dynamically by reverse engineering based on the communication protocol exchange behavior data and communication protocol exchange characteristic data of each communication protocol field. Through this process, the dynamic exchange process of each communication protocol field in actual communication can be generated, including the generation and parsing mechanism of data packets, so as to deeply understand the specific implementation details and working principles of the communication protocol, and lay the foundation for the subsequent state machine analysis. Next, by performing state machine interaction analysis on the communication dynamic exchange process of each communication protocol field, the interaction mode and data exchange law of each communication protocol field under different exchange states can be analyzed, and the change law of communication information under different states can be identified, thereby revealing the correlation between communication protocol fields and the logic of data transmission, providing in-depth insights for the subsequent exchange mechanism identification process. Finally, by performing information exchange mechanism identification analysis on each target mining power equipment interface communication protocol data field according to the communication information exchange change law data of each communication protocol field under different exchange states, the core of this step is to identify the specific information exchange mechanism of each communication protocol field in the communication process, such as synchronous transmission, asynchronous transmission, etc., based on the regular data obtained from the previous analysis, so as to provide necessary support for the subsequent communication protocol analysis.
[0077] Preferably, step S2 comprises the following steps:
[0078] Step S21: parsing the connection request frame data of the mine power equipment communication connection request data through the frame parsing tool built into the intelligent terminal to obtain the original target terminal unique communication network number and the communication protocol set supported by the communication interface;
[0079] In an embodiment of the present invention, the received communication connection request frame data of the mining power equipment is parsed by using the built-in frame parsing tool of the intelligent terminal to extract the unique communication network number of the target terminal and the communication protocol set supported by the communication interface from the data frame. The process of parsing the frame data usually includes decoding the data packet header information, extracting the key fields according to the protocol specification, and verifying the integrity and correctness of the data. For example, assuming that the intelligent terminal receives a communication connection request frame from the mining power equipment, the intelligent terminal uses its built-in parsing tool to analyze the structure and content of the data frame. Through parsing, the intelligent terminal can identify the unique communication network number of the device from the data frame, such as the MAC address of the device, and the communication protocol set supported by the communication interface, such as TCP / IP, Modbus, etc., and finally obtain the original unique communication network number of the target terminal and the communication protocol set supported by the communication interface.
[0080] Step S22: The original target terminal unique communication network number is used as the connection request target address, and the communication protocol set supported by the original communication interface is used as the connection request communication protocol set to obtain the mine power equipment communication connection request target address and the mine power equipment connection request communication protocol set;
[0081] In an embodiment of the present invention, the previously parsed unique communication network number of the target terminal is used as the target address of the connection request, and the communication protocol set supported by the parsed communication interface is used as the communication protocol set of the connection request, so as to prepare to send a connection request establishment frame to the mining power equipment, and clarify the communication protocol set for subsequent negotiation and connection establishment, thereby ensuring that the subsequent connection request establishment frame can accurately reach the mining power equipment, and use the communication protocol supported by the mining power equipment to communicate, and finally obtain the target address of the mining power equipment communication connection request and the mining power equipment connection request communication protocol set.
[0082] Step S23: selecting a suitable communication protocol in the mining power equipment connection request communication protocol set by the intelligent terminal to generate a mining power equipment terminal connection establishment communication protocol;
[0083] In an embodiment of the present invention, an intelligent terminal is used to arbitrarily select a suitable communication protocol in the communication protocol set for connection request of mining power equipment to select a communication protocol suitable for current communication needs and equipment capabilities, and ensure the effectiveness and stability of communication. For example, the intelligent terminal selects the TCP / IP protocol as the communication protocol for establishing a connection with mining power equipment in the supported communication protocol set. TCP / IP is a commonly used network protocol that can provide reliable data transmission and connection management functions, and is suitable for scenarios requiring stable data transmission. Finally, a communication protocol for establishing a terminal connection for mining power equipment is generated.
[0084] Step S24: Obtain the communication address of the intelligent terminal, and encapsulate the communication address of the intelligent terminal, the target address of the mine power equipment communication connection request, and the mine power equipment terminal connection establishment communication protocol into a connection request establishment frame, and obtain the communication protocol link connection request establishment frame data between the target device terminal and the intelligent terminal;
[0085] In an embodiment of the present invention, by obtaining its own communication address at the intelligent terminal, and encapsulating its own communication address with the previously determined mining power equipment communication connection request target address and the mining power equipment terminal connection establishment communication protocol into a connection request establishment frame, this frame data contains all the key information required to establish a communication connection, thereby establishing a bridge for the communication between the intelligent terminal and the mining power equipment. For example, when the intelligent terminal is preparing to establish a connection request frame, it obtains its own communication address, such as its IP address or MAC address, and packages the communication address of the target device (such as the device IP address determined in step S22), the selected communication protocol (such as the TCP / IP protocol selected in step S23) and its own communication address into a data frame. This data frame is a complete connection request packet, which contains all the information required to initiate a connection request, ensuring that subsequent communications can be successfully established, and finally obtaining the communication protocol link connection request establishment frame data between the target device terminal and the intelligent terminal.
[0086] Step S25: Establishing a communication connection channel for the target mining power equipment terminal and the smart terminal based on the communication protocol link connection request frame data between the target device terminal and the smart terminal to generate an initial transmission channel for the power communication connection between the target device terminal and the smart terminal.
[0087] In an embodiment of the present invention, a corresponding communication connection channel is established between the target mining power equipment terminal and the smart terminal by combining the communication protocol link connection request frame data obtained by encapsulation between the target device terminal and the smart terminal, so as to realize the actual communication interaction process between the smart terminal and the target device terminal, thereby establishing an initial transmission channel. For example, when the target device terminal receives the connection request establishment frame sent by the smart terminal, it will parse the data therein and respond according to the protocol agreement. If everything goes well, the target device terminal will send confirmation data to the smart terminal, indicating that the connection has been accepted and is ready for subsequent data exchange. In this way, an initial communication connection channel is established between the smart terminal and the target device terminal, and finally an initial transmission channel for the power communication connection between the target device terminal and the smart terminal is generated.
[0088] The present invention firstly uses the frame parsing tool built into the intelligent terminal to perform connection request data parsing on the communication connection request frame data of the mine power equipment, and can accurately extract the unique communication network number of the target terminal, which is an important identifier for the subsequent establishment of communication connection. In addition, the communication protocol set supported by the target terminal can also be obtained. This information is crucial for determining the communication mode and protocol selection. This process is not only the extraction of data, but also provides the necessary basis and preparation for the establishment of the subsequent communication link. Secondly, by using the unique communication network number and communication protocol set of the target terminal obtained in the previous step, the unique identifier of the target terminal is used as the target address of the connection request, and at the same time, the communication protocol set obtained before is used as the protocol set to be used when establishing the connection. Such processing ensures the accuracy and effectiveness of the connection request, and at the same time provides a clear guiding direction for the subsequent selection and establishment of the communication protocol. This method of accurately setting based on the specific information obtained by the previous parsing effectively avoids the confusion or errors in the communication connection. Then, the intelligent terminal arbitrarily selects a suitable communication protocol in the mine power equipment connection request communication protocol set, so that the appropriate communication protocol is flexibly selected, and this flexibility ensures the adaptability and efficiency of the communication connection. By selecting a suitable one from a variety of communication protocols, the communication needs in specific scenarios can be better met, and the reliability and stability of communication can be improved. In addition, the choice of protocol also takes into account the compatibility and interoperability between the device side and the smart terminal, thereby avoiding unnecessary compatibility issues during the communication link establishment phase. Next, by obtaining the communication address of the smart terminal, and encapsulating the communication address of the smart terminal, the target address of the mine power equipment communication connection request, and the mine power equipment terminal connection establishment communication protocol into a connection request establishment frame to generate connection request establishment frame data. These data will be used as a request for the establishment of the communication protocol link. The key to this process is to ensure the integrity and correctness of the communication request, while clarifying the identities and protocol specifications of the two communicating parties, thereby laying a solid foundation for the security and stability of the subsequent communication link. Finally, by establishing frame data based on the communication protocol link connection request between the target device terminal and the smart terminal, a communication connection channel is established for the target mining power equipment terminal and the smart terminal. This process is a key step in establishing the communication link. By establishing the connection channel, effective data exchange and communication operations can be ensured between the device end and the smart terminal. The key to this step is to achieve the final implementation of the communication connection, ensure the reliability and stability of the communication, and provide a solid guarantee for the smooth execution of subsequent data transmission and control instructions.
[0089] Preferably, step S3 comprises the following steps:
[0090] Step S31: capturing the communication protocol link connection request frame data between the target device terminal and the intelligent terminal through the target mining power equipment terminal monitoring and parsing to obtain the communication address of the intelligent terminal;
[0091] In an embodiment of the present invention, a monitoring tool on a target mining power equipment terminal is used to monitor and capture the communication protocol link connection request between the target device terminal and the smart terminal to establish frame data and parse it to obtain the communication address of the smart terminal, thereby accurately determining the communication location of the smart terminal and finally obtaining the communication address of the smart terminal.
[0092] Step S32: obtaining power communication connection channel transmission verification frame data through the target mining power equipment terminal and in combination with the intelligent terminal communication address encapsulation;
[0093] In an embodiment of the present invention, by utilizing the previously acquired communication address of the smart terminal on the target mining power equipment terminal and combining it with specific transmission verification requirements to encapsulate it into a corresponding transmission verification frame, this means that the target mining power equipment terminal will package the verification data to be transmitted into a format that meets the requirements of the communication protocol, and specify the communication address to be sent to the smart terminal, so that it can be accurately sent to the smart terminal to complete the verification process of the stability of the communication connection channel, and finally obtain the power communication connection channel transmission verification frame data.
[0094] Step S33: sending power communication connection channel transmission verification frame data to the smart terminal through the target mining power equipment terminal based on the power communication connection initial transmission channel between the target equipment terminal and the smart terminal;
[0095] In an embodiment of the present invention, the power communication connection channel transmission verification frame data encapsulated on the target mining power equipment terminal is sent to the smart terminal by using the power communication connection initial transmission channel previously established between the target device terminal and the smart terminal.
[0096] Step S34: the intelligent terminal performs a communication connection channel stability assessment and analysis on the power communication connection channel transmission verification frame data to obtain the communication stability degree of the terminal power communication connection channel.
[0097] In an embodiment of the present invention, an intelligent terminal is used to evaluate and analyze the transmission process of verification frame data transmitted through the power communication connection channel on the communication connection channel, so as to analyze the transmission process and results of the received verification frame data to obtain and analyze whether there is packet loss, delay or other abnormal conditions in the data transmission process to evaluate the stability of the current power communication connection channel, and finally obtain the communication stability of the terminal power communication connection channel.
[0098] The present invention firstly establishes frame data and parses the communication protocol link connection request between the target equipment terminal and the intelligent terminal by using the target mining power equipment terminal to monitor and capture the target equipment terminal and the intelligent terminal, which can realize real-time monitoring and data capture of the communication process. By parsing the captured data, especially extracting the communication address of the intelligent terminal, the correctness and reliability of the subsequent communication verification and transmission are ensured. This process is not only to obtain the communication address, but also to lay the foundation for the establishment of the communication channel and the verification of data transmission, thereby ensuring the security and stability of the communication link. Secondly, the target mining power equipment terminal is combined with the communication address of the intelligent terminal to encapsulate and obtain the power communication connection channel transmission verification frame data. In this way, by using the communication address of the intelligent terminal obtained in the previous step, the target mining power equipment terminal combines it with the specific transmission verification requirements and encapsulates it into verification frame data. The key to this process is that through effective encapsulation and preparation, the integrity and correctness of the communication data can be ensured, and the necessary data foundation and support are provided for the subsequent communication connection verification. At the same time, this step also lays a key preparatory work for the stability and reliability evaluation of the communication link. Then, based on the initial transmission channel of the power communication connection between the target device terminal and the smart terminal, the target mining power equipment terminal sends the power communication connection channel transmission verification frame data to the smart terminal by using the target mining power equipment terminal. This step describes in detail the initial transmission channel of the power communication connection established, and the target mining power equipment terminal sends the previously encapsulated power communication connection channel transmission verification frame data to the smart terminal. Through this action, the normal connection and data transmission capacity of the communication link are confirmed. The key to this process is to realize the actual verification of the communication connection and ensure the effectiveness and stability of the communication link. Through the transmission and verification of data, the trust and communication efficiency between the two communicating parties are further strengthened, thus laying a solid foundation for the subsequent actual data exchange and control command transmission. Finally, by using the intelligent terminal to evaluate and analyze the stability of the power communication connection channel transmission verification frame data, the stability of the power communication connection channel can be accurately judged, including the impact of data transmission delay and transmission packet loss on the stability of the communication connection channel. The key to this process is that it can provide an objective evaluation of the quality of the communication connection, help optimize and adjust the configuration and parameters of the communication link, thereby ensuring the stable operation of the communication under various working environments and conditions. The evaluation results directly affect the effectiveness of subsequent data transmission and real-time monitoring, thereby improving the operating efficiency and reliability of communication between mining power equipment and intelligent terminals.
[0099] Preferably, step S34 includes the following steps:
[0100] Step S341: monitoring the communication time delay of the power communication connection channel transmission verification frame data through the intelligent terminal to obtain the communication time delay of the terminal power communication connection channel;
[0101] In an embodiment of the present invention, the communication time monitoring tool of the smart terminal is used to monitor the communication delay of the power communication connection channel transmission verification frame data from the target device to the smart terminal, so as to monitor the time required for the transmission frame data from sending to receiving, and record the sending timestamp and receiving timestamp of each data packet to calculate the communication time delay of each data packet, and finally obtain the communication time delay of the terminal power communication connection channel.
[0102] Step S342: using a data flow monitoring tool built into the smart terminal to monitor the transmission frame data flow of the power communication connection channel transmission verification frame data, and obtain the transmission frame data flow of the terminal power communication connection channel;
[0103] In an embodiment of the present invention, the data flow situation of the corresponding power communication connection channel transmission verification frame data is monitored and analyzed by using the built-in data flow monitoring tool of the smart terminal to monitor the data transmission flow situation, wherein the smart terminal will record the size and transmission rate of the data packet as well as the sending frequency and receiving frequency of the data packet in real time. Through the monitoring tool, the transmission frame data flow situation in each time period can be obtained. For example, the smart meter records the number and size of the electric energy data packets sent every hour and the data transmission rate through the built-in data flow monitoring tool, and finally obtains the transmission frame data flow of the terminal power communication connection channel.
[0104] Step S343: Based on the communication time delay of the terminal power communication connection channel and the transmission frame data flow of the terminal power communication connection channel, the channel stability impact assessment analysis is performed on the power communication connection channel transmission verification frame data to obtain the communication delay connection channel stability impact factor and the communication transmission flow packet loss connection channel stability impact factor;
[0105] In an embodiment of the present invention, the stability of the corresponding power communication connection channel transmission verification frame data on the communication transmission channel is evaluated and analyzed by combining the communication time delay of the terminal power communication connection channel and the transmission frame data flow of the terminal power communication connection channel obtained by previous monitoring using an impact assessment algorithm, so that the communication time delay and the transmission frame data flow are used as evaluation indicators to evaluate and analyze the impact of communication delay and transmission packet loss on the stability of the power communication connection channel. For example, based on the time delay and data flow of the electric energy data packet sent by the aforementioned smart meter, the daily communication delay changes and data packet flow fluctuations are analyzed, thereby evaluating the stability of the power communication connection channel, and finding out whether there is a problem of communication delay or data packet loss, and finally obtaining the communication delay connection channel stability influencing factor and the communication transmission flow packet loss connection channel stability influencing factor.
[0106] Step S344: Based on the communication delay connection channel stability influencing factor and the communication transmission flow packet loss connection channel stability influencing factor, the communication connection channel stability assessment analysis is performed on the power communication connection channel transmission verification frame data to obtain the terminal power communication connection channel communication stability degree.
[0107] In an embodiment of the present invention, the stability of the corresponding power communication connection channel transmission verification frame data on the communication connection channel is quantitatively calculated by combining the communication delay connection channel stability influencing factor and the communication transmission traffic packet loss connection channel stability influencing factor obtained by previous analysis, so as to combine factors such as communication delay and transmission traffic packet loss to perform in-depth stability analysis. For example, based on the aforementioned smart meter communication time delay and data traffic packet loss rate, the delay fluctuation, packet loss rate and long-term performance of communication stability are comprehensively considered to evaluate the stability level of the power communication connection channel under different workloads and network conditions, and finally the communication stability degree of the terminal power communication connection channel is obtained.
[0108] The present invention firstly monitors the communication time delay of the power communication connection channel transmission verification frame data by using an intelligent terminal, and can obtain and record the communication delay in real time. The key to this step is that time delay is one of the important indicators for measuring communication efficiency and real-time performance. The response speed and stability of the communication link can be evaluated through accurate monitoring. The obtained time delay data provides an important basis for subsequent communication performance optimization and troubleshooting, ensuring the stability and reliability of the power communication connection under various working conditions. Secondly, by using the built-in data flow monitoring tool of the intelligent terminal to monitor the transmission frame data flow of the power communication connection channel transmission verification frame data, the data flow information of the transmission frame can be accurately obtained, including key indicators such as transmission rate and data packet size. These data are important bases for evaluating the load capacity of the communication connection and the efficiency of data transmission. By monitoring the flow, possible congestion or load problems in the communication can be discovered in time, and corresponding optimization measures can be taken to ensure the stability and performance of the communication channel. Then, the stability of the communication link and the influencing factors are evaluated by comprehensively analyzing the delay data and flow data, including the stability of the communication delay connection channel and the stability of the transmission flow packet loss connection channel. These evaluation factors can directly reflect the stability problems and potential performance bottlenecks that the communication connection may face in actual operation, and help system operation and maintenance personnel to more accurately identify and solve problems in communication, thereby ensuring the continuity and reliability of communication. Finally, the stability of the communication connection channel is evaluated and analyzed based on the communication delay connection channel stability influencing factor and the communication transmission flow packet loss connection channel stability influencing factor. The stability of the power communication connection channel transmission verification frame data is comprehensively evaluated to determine the stability of the terminal power communication connection channel, thereby providing a comprehensive evaluation of the quality and reliability of the communication connection. This evaluation process can provide a scientific basis for the operation and maintenance and optimization of power equipment, help improve the overall performance and stability of the power communication system, and ensure that the communication link can always maintain an efficient and stable working state during long-term operation.
[0109] Preferably, step S343 includes the following steps:
[0110] Based on the communication time delay of the terminal power communication connection channel, the stability impact of the channel transmission delay on the power communication connection channel transmission verification frame data is evaluated and analyzed, and the communication delay connection channel stability impact factor is obtained;
[0111] In an embodiment of the present invention, the stability of the transmission of verification frame data on the communication connection channel of the corresponding power communication connection channel is evaluated and analyzed by using an impact assessment algorithm in combination with the communication time delay of the terminal power communication connection channel obtained in the previous analysis (that is, the time required for the data frame to be sent and received), so as to evaluate and determine the factors affecting the stability of the communication connection channel, such as network congestion, device response speed, etc., that is, the degree of fluctuation and stability of the communication connection channel under different conditions, and finally obtain the communication delay connection channel stability impact factor.
[0112] Preferably, the transmission frame data flow of the terminal power communication connection channel is divided into flow time points to obtain the transmission frame data packet flow of the power communication connection channel at each transmission time end point;
[0113] In an embodiment of the present invention, the data flow time point is divided for the transmission frame data flow of the terminal power communication connection channel at each time point at the smart terminal to obtain the specific data packet flow situation at each time point when the transmission frame is sent from the target device to the smart terminal end point, and make it reflect the quantitative situation of data transmission in different time periods, including key indicators such as data packet size and transmission rate, so as to help determine the data transmission capacity and efficiency of communication under different load conditions, and finally obtain the power communication connection channel transmission frame data packet flow at each transmission time end point.
[0114] Preferably, based on the communication time delay of the terminal power communication connection channel and the power communication connection channel transmission frame data packet flow at each transmission time end point, the power communication connection channel transmission verification frame data is traced to the transmission time starting point data packet, and the power communication connection channel transmission frame data packet flow at each transmission time starting point is obtained;
[0115] In an embodiment of the present invention, the communication time delay of the terminal power communication connection channel obtained by previous monitoring and the power communication connection channel transmission frame data packet flow at each transmission time end point are traced to the specific time point at the transmission starting point of each transmission time end point, and the corresponding power communication connection channel transmission verification frame data is analyzed for data packet conditions according to the transmission start time point obtained by tracing, so as to trace and analyze the data packet flow conditions at each transmission time starting point, and finally obtain the power communication connection channel transmission frame data packet flow at each transmission time starting point.
[0116] Preferably, the transmission packet loss rate of the power communication connection channel transmission frame data packet flow at the end of each transmission time and the power communication connection channel transmission frame data packet flow at the starting point of each transmission time is accumulated and summed to obtain the total communication transmission packet loss rate of the terminal power communication connection channel;
[0117] In an embodiment of the present invention, by performing statistical calculations on the transmission packet loss rate of the power communication connection channel transmission frame data packet flow at each transmission time end point and the power communication connection channel transmission frame data packet flow at its corresponding transmission time start point, the corresponding transmission packet loss rate at each transmission time point is quantitatively calculated, and each transmission time point is summed up by using cumulative summation to accurately evaluate and analyze the data loss of the communication connection in different time periods, and finally the total communication transmission packet loss rate of the terminal power communication connection channel is obtained.
[0118] Preferably, based on the total packet loss rate of the terminal power communication connection channel, the power communication connection channel transmission verification frame data is evaluated and analyzed for the channel transmission packet loss stability impact, and the communication transmission flow packet loss connection channel stability impact factor is obtained.
[0119] In an embodiment of the present invention, the total packet loss rate of the terminal power communication connection channel obtained by quantitative calculation is combined with the impact assessment algorithm to evaluate and analyze the corresponding power communication connection channel transmission verification frame data, so as to comprehensively consider the impact of the packet loss rate on the stability of the communication connection channel, and evaluate and analyze the impact of the communication transmission traffic packet loss on the stability of the connection channel. For example, if the communication packet loss rate increases significantly during high-load periods, it will affect the real-time transmission and processing of key data, and further affect the overall performance of the communication of mining power equipment, thereby effectively analyzing and evaluating the performance indicators of the power communication connection channel, such as network congestion, network jitter, network reliability, etc., and finally obtaining the communication transmission traffic packet loss connection channel stability influencing factor.
[0120] The present invention firstly evaluates and analyzes the stability impact of channel transmission delay on the power communication connection channel transmission verification frame data based on the communication time delay of the terminal power communication connection channel, and can evaluate and determine the stability influencing factor of the communication delay connection channel. The communication time delay refers to the time delay between data sending and receiving, which directly affects the real-time and response speed of data transmission. Through detailed evaluation and analysis, various influencing factors that cause communication delays, such as network congestion, device response speed, etc., can be identified, thereby providing specific directions and strategies for optimizing communication links. The key to this step is that it can ensure the stable communication of the power communication system under various working conditions, and provide a scientific basis for improving the reliability and efficiency of data transmission. Secondly, by dividing and monitoring the transmission frame data flow of the terminal power communication connection channel at time points, the transmission frame data packet flow information at each transmission time end is obtained. These data reflect the quantitative situation of data transmission in different time periods, including key indicators such as data packet size and transmission rate. By real-time monitoring and accurate division of data flow time points, the load situation and data transmission efficiency of the communication connection in different time periods can be more accurately understood, which is helpful to optimize the allocation and performance adjustment of network resources, thereby ensuring that the power communication system can still operate stably under high load conditions. Then, based on the aforementioned communication time delay and the transmission frame data packet flow at each transmission time end point, the transmission verification frame data of the power communication connection channel is traced to the transmission time start point data packet. This means that the data packet flow at each transmission time start point can be traced and analyzed, so as to have a deeper understanding of the problems or optimization space in the data transmission process, such as data packet loss, transmission delay, etc., which helps to improve the starting efficiency and reliability of data transmission and ensure the integrity and stability of data on the communication link. Next, the transmission packet loss rate is analyzed by accumulating and summing the transmission frame data packet flow at each transmission time end point and starting point. The transmission packet loss rate is an important indicator to measure the proportion of data packets lost during data transmission, which directly reflects the stability of the communication connection and the integrity of the data. Through accurate packet loss rate analysis, we can accurately evaluate the data loss of the communication connection in different time periods, and formulate corresponding optimization strategies and improvement measures accordingly to improve the stability and reliability of the communication system and ensure the continuity and accuracy of data transmission. Finally, based on the total packet loss rate of the terminal power communication connection channel, the stability impact of channel transmission packet loss on the power communication connection channel transmission verification frame data is evaluated. This step describes in detail how to evaluate the stability and influencing factors of the communication connection based on the transmission packet loss rate, thereby providing system operation and maintenance personnel with effective means and basis for improving communication links and optimizing data transmission. Through the analysis of stable influencing factors, the root causes and frequency of packet loss problems in communication connections can be fully understood, which helps to timely adjust network configuration and protocol optimization to improve the overall performance and user experience of mine power equipment communication.
[0121] Preferably, step S5 comprises the following steps:
[0122] Step S51: encapsulating the next communication protocol in the mining power equipment connection request communication protocol set into a communication protocol update and upgrade data packet;
[0123] In an embodiment of the present invention, by selecting the communication protocol supported by the next power equipment from the mining power equipment connection request communication protocol set, this selection process usually involves evaluating the performance and function of the current communication protocol to determine whether the communication channel established by it is stable, and arbitrarily selecting a suitable new protocol based on its instability. For example, assuming that the current communication protocol has a transmission rate that is insufficient to meet the real-time data transmission requirements under high load conditions, a more efficient protocol will be selected, such as Modbus TCP / IP or PROFIBUS, to improve communication performance. After selection, the next step is to encapsulate the selected communication protocol into a communication protocol update and upgrade data packet. This data packet needs to contain detailed information on the protocol and the configuration parameters required for the upgrade to ensure that the new communication specifications can be correctly identified and applied during the update process, and finally encapsulate the corresponding communication protocol update and upgrade data packet.
[0124] Step S52: updating and testing the initial transmission channel of the power communication connection between the target device terminal and the smart terminal through the communication protocol update data packet to obtain an updated power communication connection channel between the target device terminal and the smart terminal;
[0125] In an embodiment of the present invention, the communication protocol corresponding to the initial transmission channel of the power communication connection between the target device terminal and the smart terminal is updated and tested by using the previously encapsulated communication protocol update upgrade data packet to ensure that the update process can proceed smoothly and the new communication protocol can be compatible with existing equipment and systems. For example, for an intelligent terminal in a power substation, the communication channel between it and the mining power equipment terminal is updated by sending an update data packet containing the new Modbus TCP / IP protocol. After the update is completed, a series of tests and verifications will be performed, such as checking communication delays, data packet loss rates, and connection stability, to ensure that the new protocol can operate normally and provide the expected communication performance, and finally obtain the power communication connection update channel between the target device terminal and the smart terminal.
[0126] Step S53: Perform an iterative stability assessment on the power communication connection update channel between the target mining power equipment terminal and the smart terminal through the target mining power equipment terminal and the smart terminal until the communication stability level of the terminal power communication connection channel is greater than or equal to the preset communication stability level threshold.
[0127] In an embodiment of the present invention, the target mining power equipment terminal and the intelligent terminal are used to perform iterative stability evaluation and comparative judgment on the power communication connection update channel between the target device terminal and the intelligent terminal after the update. Similarly, the target mining power equipment terminal is used to send channel verification frame data, and the intelligent terminal is used to perform stability evaluation and analysis to continuously monitor the stability and performance of the communication connection channel established by each communication protocol until the communication stability level of the terminal power communication connection channel is greater than or equal to the preset communication stability level threshold.
[0128] The present invention first encapsulates the next communication protocol in the communication protocol set of the mine power equipment connection request into a communication protocol update and upgrade data packet. This process involves selecting a suitable next-generation protocol from the existing communication protocol set to meet new functional requirements or technical standards. By updating the protocol, it can be ensured that the communication connection channel can be compatible with the new generation of equipment and technology, improve communication efficiency and data security, and upgrade the communication protocol. It can not only enhance the versatility and scalability of the system, but also lay a solid foundation for future system upgrades and the introduction of new functions, thereby improving the stability and performance of the overall mine power equipment system. Then, by using the communication protocol update and upgrade data packet, the connection channel is updated and tested for the initial transmission channel of the power communication connection between the target device terminal and the intelligent terminal, which means that the new communication protocol is applied to the actual communication environment, and the connection channel is updated and tested. Through this process, the compatibility and stability of the new protocol in the actual scene can be verified, ensuring the reliability of the communication connection and the effectiveness of data transmission. Through the update and test process, the protocol compatibility problem and the fault in the communication connection can be discovered and solved in time, thereby improving the stability and reliability of the communication operation and ensuring the normal communication and data exchange between the power equipment and the intelligent terminal. Finally, by combining the target mining power equipment terminal and the intelligent terminal, an iterative stability assessment is performed on the power communication connection update channel between the target equipment terminal and the intelligent terminal. This means performing multiple iterative stability assessments to confirm that the new communication connection channel can reach the preset communication stability threshold. Through repeated assessments and judgments, the long-term stability and reliability of the new protocol and communication connection can be comprehensively tested, thereby ensuring the consistent performance of the communication system under different working conditions and environments. This iterative assessment method can effectively reduce the potential risks after system upgrades, improve the robustness and availability of the overall system, and ensure long-term stable communication connections between power equipment and intelligent terminals.
[0129] Preferably, the present invention further provides a mine power equipment communication system based on an intelligent terminal, which is used to execute the mine power equipment communication method based on an intelligent terminal as described above. The mine power equipment communication system based on an intelligent terminal includes:
[0130] The terminal power communication connection request sending module is used to obtain the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface, and encapsulate the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data to obtain the mining power equipment communication connection request frame data; use wireless communication technology to send the mining power equipment communication connection request frame data to the intelligent terminal;
[0131] The terminal power communication connection channel establishment module is used to perform connection request data analysis on the mine power equipment communication connection request frame data through the intelligent terminal to obtain the mine power equipment communication connection request target address and the mine power equipment connection request communication protocol set; based on the mine power equipment communication connection request target address and any one of the communication protocols in the mine power equipment connection request communication protocol set, establish a communication connection channel for the target mine power equipment terminal and the intelligent terminal to generate an initial transmission channel for the power communication connection between the target device terminal and the intelligent terminal;
[0132] The communication connection channel communication stability evaluation module is used to obtain the power communication connection channel transmission verification frame data through the target mining power equipment terminal encapsulation, and send the power communication connection channel transmission verification frame data to the smart terminal through the target mining power equipment terminal based on the power communication connection initial transmission channel between the target equipment terminal and the smart terminal; perform communication connection channel stability evaluation and analysis on the power communication connection channel transmission verification frame data through the smart terminal, so as to obtain the communication stability degree of the terminal power communication connection channel;
[0133] A communication stability judgment module is used to compare and judge the communication stability of the terminal power communication connection channel according to a preset communication stability threshold. If the communication stability of the terminal power communication connection channel is less than the preset communication stability threshold, the specific content of the communication connection channel iterative update optimization module is executed. Otherwise, the initial transmission channel of the power communication connection between the target device terminal and the smart terminal is used as the communication optimization channel to generate the power communication connection optimization channel between the target device terminal and the smart terminal.
[0134] The communication connection channel iterative update optimization module is used to update and test the connection channel of the initial transmission channel of the power communication connection between the target device terminal and the smart terminal by selecting the next communication protocol in the mine power equipment connection request communication protocol set, so as to obtain the power communication connection update channel between the target device terminal and the smart terminal; and iteratively evaluate and judge the stability of the power communication connection update channel between the target device terminal and the smart terminal through the target mine power equipment terminal and the smart terminal until the communication stability degree of the terminal power communication connection channel is greater than or equal to the preset communication stability degree threshold.
[0135] In summary, the present invention provides a mine power equipment communication system based on an intelligent terminal, which is composed of a terminal power communication connection request sending module, a terminal power communication connection channel establishment module, a communication connection channel communication stability evaluation module, a communication stability degree judgment module and a communication connection channel iterative update optimization module. It can realize any mine power equipment communication method based on the intelligent terminal described in the present invention, and is used to combine the operations between computer programs running on each module to realize the mine power equipment communication method based on the intelligent terminal. The internal structures of the system cooperate with each other, which can greatly reduce repetitive work and manpower investment, and can quickly and effectively provide a more accurate and efficient mine power equipment communication process based on the intelligent terminal, thereby simplifying the operation process of the mine power equipment communication system based on the intelligent terminal.
[0136] The above description is only a specific embodiment of the present invention, so that those skilled in the art can understand or implement the present invention. Various modifications to these embodiments will be apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the present invention. Therefore, the present invention will not be limited to the embodiments shown herein, but should conform to the widest scope consistent with the principles and novel features invented herein.
Claims
1. A communication method for mining power equipment based on intelligent terminals, characterized in that: The following steps are involved: Step S1: obtaining the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface, and encapsulating the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data to obtain mining power equipment communication connection request frame data; using wireless communication technology to send the mining power equipment communication connection request frame data to the intelligent terminal; Step S2: parsing the connection request data of the mine power equipment communication connection request frame data through the intelligent terminal to obtain the mine power equipment communication connection request target address and the mine power equipment connection request communication protocol set; Establishing a communication connection channel for a target mining power equipment terminal and an intelligent terminal based on a target address of a mining power equipment communication connection request and any one of the communication protocols in a mining power equipment connection request communication protocol set, so as to generate an initial transmission channel for a power communication connection between the target equipment terminal and the intelligent terminal; Step S3: obtaining the power communication connection channel transmission verification frame data through the target mining power equipment terminal encapsulation, and sending the power communication connection channel transmission verification frame data to the smart terminal through the target mining power equipment terminal based on the power communication connection initial transmission channel between the target equipment terminal and the smart terminal; performing communication connection channel stability evaluation and analysis on the power communication connection channel transmission verification frame data through the smart terminal to obtain the communication stability degree of the terminal power communication connection channel; Step S4: comparing and judging the communication stability of the terminal power communication connection channel according to a preset communication stability threshold, if the communication stability of the terminal power communication connection channel is less than the preset communication stability threshold, executing step S5, otherwise, the initial transmission channel of the power communication connection between the target device terminal and the smart terminal is used as the communication optimization channel to generate the power communication connection optimization channel between the target device terminal and the smart terminal; Step S5: by selecting the next communication protocol in the mining power equipment connection request communication protocol set, the connection channel is updated and tested for the initial transmission channel of the power communication connection between the target device terminal and the smart terminal, so as to obtain the power communication connection update channel between the target device terminal and the smart terminal; An iterative stability assessment is performed on the power communication connection update channel between the target mining power equipment terminal and the smart terminal through the target equipment terminal and the smart terminal until the communication stability level of the terminal power communication connection channel is greater than or equal to the preset communication stability level threshold.
2. The method for communication of mining power equipment based on intelligent terminal according to claim 1, characterized in that: Step S1 includes the following steps: Step S11: obtaining the unique communication network number of the target mining power equipment terminal; Step S12: Capture and process the communication data of the communication interface of the target mining power equipment terminal through the Internet of Things device access platform to obtain historical communication information data of the target mining power equipment interface; Step S13: parsing and judging the supported communication protocols of the historical communication information data of the target mining power equipment interface to obtain the communication protocol set supported by the communication interface; Step S14: encapsulating the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data to obtain mining power equipment communication connection request frame data; Step S15: Using wireless communication technology to transmit the mining power equipment communication connection request frame data to the intelligent terminal.
3. The mine power equipment communication method based on intelligent terminal according to claim 2 is characterized in that: Step S13 includes the following steps: Step S131: dividing the target mining power equipment interface historical communication information data into communication protocol data fields to obtain each target mining power equipment interface communication protocol data field; Step S132: performing communication protocol structure analysis on each target mining power equipment interface communication protocol data field to obtain interface communication protocol structure information data of each communication protocol field; Step S133: performing communication protocol exchange characteristic analysis on the interface communication protocol structure information data of each communication protocol field to obtain communication protocol exchange characteristic data of each communication protocol field; Step S134: Based on the communication protocol exchange characteristic data of each communication protocol field, the information exchange mechanism identification and analysis is performed on each target mining power equipment interface communication protocol data field to obtain the communication process information exchange mechanism of each communication protocol field; Step S135: parsing and judging the supported communication protocols for the communication process information exchange mechanism of each communication protocol field according to the preset communication protocol information exchange mechanism standard, and obtaining the communication protocol set supported by the communication interface.
4. The mine power equipment communication method based on intelligent terminal according to claim 3 is characterized in that: Step S134 includes the following steps: Perform data flow pattern analysis on each target mining power equipment interface communication protocol data field to obtain the communication process data flow usage pattern of each communication protocol field; Based on the communication process data flow usage mode of each communication protocol field, the communication exchange behavior analysis is performed on each target mining power equipment interface communication protocol data field to obtain the communication protocol exchange behavior data of each communication protocol field; Based on the communication protocol exchange behavior data and communication protocol exchange characteristic data of each communication protocol field, dynamic reverse engineering is performed on the communication protocol data field of each target mining power equipment interface to generate the communication dynamic exchange process of each communication protocol field; Perform state machine interaction analysis on the dynamic communication exchange process of each communication protocol field to obtain the communication information exchange change law data of each communication protocol field under different exchange states; According to the communication information exchange change law data of each communication protocol field under different exchange states, the information exchange mechanism of each target mining power equipment interface communication protocol data field is identified and analyzed to obtain the communication process information exchange mechanism of each communication protocol field.
5. The mine power equipment communication method based on intelligent terminal according to claim 1 is characterized in that: Step S2 includes the following steps: Step S21: parsing the connection request frame data of the mine power equipment communication connection request data through the frame parsing tool built into the intelligent terminal to obtain the original target terminal unique communication network number and the communication protocol set supported by the communication interface; Step S22: The original target terminal unique communication network number is used as the connection request target address, and the communication protocol set supported by the original communication interface is used as the connection request communication protocol set to obtain the mine power equipment communication connection request target address and the mine power equipment connection request communication protocol set; Step S23: selecting a suitable communication protocol in the mining power equipment connection request communication protocol set by the intelligent terminal to generate a mining power equipment terminal connection establishment communication protocol; Step S24: Obtain the communication address of the intelligent terminal, and encapsulate the communication address of the intelligent terminal, the target address of the mine power equipment communication connection request, and the mine power equipment terminal connection establishment communication protocol into a connection request establishment frame, and obtain the communication protocol link connection request establishment frame data between the target device terminal and the intelligent terminal; Step S25: Establishing a communication connection channel for the target mining power equipment terminal and the smart terminal based on the communication protocol link connection request frame data between the target device terminal and the smart terminal to generate an initial transmission channel for the power communication connection between the target device terminal and the smart terminal.
6. The mine power equipment communication method based on intelligent terminal according to claim 1 is characterized in that: Step S3 includes the following steps: Step S31: capturing the communication protocol link connection request frame data between the target device terminal and the intelligent terminal through the target mining power equipment terminal monitoring and parsing to obtain the communication address of the intelligent terminal; Step S32: obtaining power communication connection channel transmission verification frame data through the target mining power equipment terminal and in combination with the intelligent terminal communication address encapsulation; Step S33: sending power communication connection channel transmission verification frame data to the smart terminal through the target mining power equipment terminal based on the power communication connection initial transmission channel between the target equipment terminal and the smart terminal; Step S34: the intelligent terminal performs a communication connection channel stability assessment and analysis on the power communication connection channel transmission verification frame data to obtain the communication stability degree of the terminal power communication connection channel.
7. The mine power equipment communication method based on intelligent terminal according to claim 6 is characterized in that: Step S34 includes the following steps: Step S341: monitoring the communication time delay of the power communication connection channel transmission verification frame data through the intelligent terminal to obtain the communication time delay of the terminal power communication connection channel; Step S342: using a data flow monitoring tool built into the smart terminal to monitor the transmission frame data flow of the power communication connection channel transmission verification frame data, and obtain the transmission frame data flow of the terminal power communication connection channel; Step S343: Based on the communication time delay of the terminal power communication connection channel and the transmission frame data flow of the terminal power communication connection channel, the channel stability impact assessment analysis is performed on the power communication connection channel transmission verification frame data to obtain the communication delay connection channel stability impact factor and the communication transmission flow packet loss connection channel stability impact factor; Step S344: Based on the communication delay connection channel stability influencing factor and the communication transmission flow packet loss connection channel stability influencing factor, the communication connection channel stability assessment analysis is performed on the power communication connection channel transmission verification frame data to obtain the terminal power communication connection channel communication stability degree.
8. The mine power equipment communication method based on intelligent terminal according to claim 7 is characterized in that: Step S343 includes the following steps: Based on the communication time delay of the terminal power communication connection channel, the stability impact of the channel transmission delay on the power communication connection channel transmission verification frame data is evaluated and analyzed, and the communication delay connection channel stability impact factor is obtained; The transmission frame data flow of the terminal power communication connection channel is divided into flow time points to obtain the transmission frame data packet flow of the power communication connection channel at each transmission time end point; Based on the communication time delay of the terminal power communication connection channel and the power communication connection channel transmission frame data packet flow at each transmission time end point, the power communication connection channel transmission verification frame data is traced to the transmission time starting point data packet, and the power communication connection channel transmission frame data packet flow at each transmission time starting point is obtained; The transmission packet loss rate of the power communication connection channel transmission frame data packet flow at the end of each transmission time and the transmission frame data packet flow of the power communication connection channel at the starting point of each transmission time is accumulated and summed to obtain the total communication transmission packet loss rate of the terminal power communication connection channel; Based on the total packet loss rate of the terminal power communication connection channel, the stability impact of channel transmission packet loss on the power communication connection channel transmission verification frame data is evaluated and analyzed, and the stability impact factor of the communication transmission flow packet loss connection channel is obtained.
9. The mine power equipment communication method based on intelligent terminal according to claim 1, characterized in that: Step S5 includes the following steps: Step S51: encapsulating the next communication protocol in the mining power equipment connection request communication protocol set into a communication protocol update and upgrade data packet; Step S52: updating and testing the initial transmission channel of the power communication connection between the target device terminal and the smart terminal through the communication protocol update data packet to obtain the power communication connection update channel between the target device terminal and the smart terminal; Step S53: Perform an iterative stability assessment on the power communication connection update channel between the target mining power equipment terminal and the smart terminal through the target mining power equipment terminal and the smart terminal until the communication stability level of the terminal power communication connection channel is greater than or equal to the preset communication stability level threshold.
10. A mine power equipment communication system based on intelligent terminal, characterized in that: Used to execute the mine power equipment communication method based on the intelligent terminal as claimed in claim 1, the mine power equipment communication system based on the intelligent terminal includes: The terminal power communication connection request sending module is used to obtain the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface, and encapsulate the unique communication network number of the target mining power equipment terminal and the communication protocol set supported by the communication interface into connection request frame data to obtain the mining power equipment communication connection request frame data; use wireless communication technology to send the mining power equipment communication connection request frame data to the intelligent terminal; The terminal power communication connection channel establishment module is used to perform connection request data analysis on the mine power equipment communication connection request frame data through the intelligent terminal to obtain the mine power equipment communication connection request target address and the mine power equipment connection request communication protocol set; based on the mine power equipment communication connection request target address and any one of the communication protocols in the mine power equipment connection request communication protocol set, establish a communication connection channel for the target mine power equipment terminal and the intelligent terminal to generate an initial transmission channel for the power communication connection between the target device terminal and the intelligent terminal; The communication connection channel communication stability evaluation module is used to obtain the power communication connection channel transmission verification frame data through the target mining power equipment terminal encapsulation, and send the power communication connection channel transmission verification frame data to the smart terminal through the target mining power equipment terminal based on the power communication connection initial transmission channel between the target equipment terminal and the smart terminal; perform communication connection channel stability evaluation and analysis on the power communication connection channel transmission verification frame data through the smart terminal, so as to obtain the communication stability degree of the terminal power communication connection channel; A communication stability judgment module is used to compare and judge the communication stability of the terminal power communication connection channel according to a preset communication stability threshold. If the communication stability of the terminal power communication connection channel is less than the preset communication stability threshold, the specific content of the communication connection channel iterative update optimization module is executed. Otherwise, the initial transmission channel of the power communication connection between the target device terminal and the smart terminal is used as the communication optimization channel to generate the power communication connection optimization channel between the target device terminal and the smart terminal. The communication connection channel iterative update optimization module is used to update and test the connection channel of the initial transmission channel of the power communication connection between the target device terminal and the smart terminal by selecting the next communication protocol in the mine power equipment connection request communication protocol set, so as to obtain the power communication connection update channel between the target device terminal and the smart terminal; and iteratively evaluate and judge the stability of the power communication connection update channel between the target device terminal and the smart terminal through the target mine power equipment terminal and the smart terminal until the communication stability degree of the terminal power communication connection channel is greater than or equal to the preset communication stability degree threshold.