Network communication optimization method based on HPLC + HRF dual modes

Abstract

The invention discloses a network communication optimization method based on an HPLC + HRF dual mode, and relates to the technical field of network communication, and the method comprises the following implementation steps: entering a multi-stage encryption module, achieving dual-mode communication network transmission through the combination of HPLC and HRF, and carrying out the real-time early warning of whether data in a dual-mode communication network has the risks of being stolen and leaked or not; entering a conflict early warning module, and monitoring whether a spectrum has conflicts and signal interference conditions or not in real time in network configuration; and a multi-source optimization module receives a dual-mode communication network transmission result in real time, performs dual-mode network communication optimization according to the result in real time, monitors channel selection, power control and route selection during network communication optimization in real time, plans and adjusts the frequency spectrum in real time, and optimizes the communication network. According to the network communication optimization method based on the HPLC + HRF dual modes, the risk that an attacker obtains data by invading a power line or a wireless network is avoided, and the network communication optimization efficiency is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of network communication, and in particular to a network communication optimization method based on HPLC+HRF dual mode. Background Art

[0002] HPLC+HRF dual-mode network communication is a hybrid communication technology that combines high-speed power line carrier (HPLC) and high-frequency wireless power line communication (HRF). HPLC is a broadband power line carrier technology that transmits data through low-voltage power lines. It has the advantages of high speed, real-time performance, and high anti-interference. However, it is greatly affected by the electromagnetic environment of the power grid and has a low success rate for fault reporting. HRF is a technology that uses high-frequency radio signals for communication. It has the characteristics of low power consumption and flexible networking. It can overcome some interference problems in power line communications. In the HPLC+HRF dual-mode network, the device can automatically select or switch to use HPLC or HRF channels for data transmission according to the actual communication environment and needs.

[0003] At present, the data transmitted in the HPLC+HRF dual-mode communication network may contain sensitive information such as users' personal information and electricity consumption data. Attackers can obtain data in the network or control communication equipment by invading power lines or wireless networks, resulting in the risk of data theft and leakage in the dual-mode communication network and privacy leakage to users, thus affecting the security and stability of the network. Since both HPLC and HRF communications use certain spectrum resources, and the dual-mode communication network needs to be configured according to different application scenarios and requirements, spectrum conflicts and interferences are prone to occur in the network configuration, and spectrum conflicts cannot be discovered and warned in time. In addition, when optimizing dual-mode network communications, it is impossible to reasonably plan and manage the spectrum in real time, resulting in complex channel selection, power control and routing selection during network communication optimization, affecting the efficiency of network communication optimization.

[0004] Therefore, a new network communication optimization method based on HPLC+HRF dual mode is proposed to solve the above problems. Summary of the invention

[0005] The main purpose of the present invention is to provide a network communication optimization method based on HPLC+HRF dual mode to solve the problems raised in the above background.

[0006] To achieve the above object, the technical solution adopted by the present invention is: a network communication optimization method based on HPLC+HRF dual mode, the method comprising the following implementation steps: Step 1: Enter the multi-level encryption module, realize dual-mode communication network transmission by combining HPLC and HRF, collect dual-mode transmission data in real time and arrange the sequence numbers, set multi-level encryption and decryption operations, monitor user information in real time to see if it is abnormal, and warn in real time whether the data in the dual-mode communication network is at risk of being stolen and leaked; Step 2: Enter the conflict warning module, set the dual-mode spectrum switching protocol, configure the network in real time according to different application scenarios and requirements, and monitor the spectrum in real time during the network configuration to see if there is any conflict or signal interference, so as to detect spectrum conflicts in time and issue warning reports; Step 3: Enter the multi-source optimization module, receive the dual-mode communication network transmission results in real time, optimize the dual-mode network communication according to the results in real time, monitor the channel selection, power control and route selection during network communication optimization in real time, plan and adjust the spectrum in real time, and optimize the communication network.

[0007] The multi-level encryption module includes a dual-mode combination unit, a multi-level encryption unit and a theft warning unit; The dual-mode combining unit is used to combine HPLC and HRF to realize dual-mode communication network transmission, and collect the data of dual-mode transmission in real time through a data acquisition instrument and arrange the serial numbers, and the serial numbers are arranged in ascending order using Arabic numerals.

[0008] The multi-level encryption unit is used to set multi-level encryption and decryption operations for the communication network of HPLC and HRF. The multi-level encryption method is as follows: Step 1: Enhance the encryption strength of different communication networks of HPLC and HRF by combining multiple security factors, including user passwords corresponding to the time, biometrics of the data, hardware keys of the data, information types of the data, and importance of the data; Step 2: Generate a key K1 using the user password of the corresponding time, and generate a key K2 by combining at least two of the hardware key of the data, the biometric feature of the data, the information type of the data, and the importance of the data; Step 3: Encrypted data M using multiple security factor keys, the calculation process is as follows: C=Encrypt K1,K2 (M), where C represents the final password data. K1,K2 Indicates different factors for generating keys among multiple security factors, C sets different levels of encryption data M according to different stages of dual-mode; Step 4: set a decryption operation based on the final password data obtained. The decryption operation is performed in combination with time, biometrics, forward hardware key, reverse hardware key, information type and importance. The time indicates the corresponding time of setting the password. The biometrics include facial features, fingerprint features and iris features.

[0009] The theft warning unit is used to identify the decryption operation of the final password data of different levels in real time and determine whether the decryption is abnormal in real time, as follows: Step (1), the calculation formula for decryption and identification combined with multiple factors is: K=f(F 1 ,F 2 ,…,F n ); M 解 =Decrypt K (C); Among them, F 1 ,F 2 ,…,F n are multiple security factors, f is the key generation function, Decrypt K is the decryption function, M 解 Indicates the final decrypted data; Step (2), concatenate and calculate the final decrypted data and the final password data, add the final decrypted data and the final password data with one digit left, and calculate the difference between the two numbers. If the difference is equal to 0, it means that the decryption is normal. If the difference is not equal to 0, it means that the decryption is abnormal, and the reporting system issues an abnormal alarm reminder.

[0010] The conflict warning module includes a spectrum switching unit, a demand configuration unit and a conflict warning unit; The spectrum switching unit is used to set the dual-mode spectrum switching protocol, and the dual-mode spectrum switching protocol is performed in real time according to the switching protocol according to different application scenarios and requirements. The dual-mode spectrum switching protocol is set in combination with economic benefits, as follows: Step Ⅰ: Calculate the economic benefits of dual-mode networks under different application scenarios and requirements. The calculation formula is as follows: ; Among them, CB represents the economic benefits of dual-mode networks under different application scenarios and requirements, TB represents the total benefits, which include performance benefits PB, user satisfaction benefits USB and market competitiveness benefits MCB, TC represents the total cost, which includes deployment costs DC, operation costs OC and maintenance costs MC; Step II: Set the dual-mode spectrum switching protocol according to the economic benefits of the dual-mode network under different application scenarios and requirements.

[0011] The demand configuration unit is used to set the corresponding network configuration parameters. The network configuration parameters are calculated in combination with economic benefits. The network weight calculation formula combined with economic benefits is: Score=w1×CB+w2×BW+w3×LT+w4×RL; Among them, Score represents the network weight parameter combined with economic benefits, CB represents the normalized dual-mode network economic benefits under different application scenarios and requirements, BW represents the normalized bandwidth, LT represents the normalized delay, RL represents the normalized reliability, and w1, w2, w3, and w4 represent weight coefficients.

[0012] The conflict warning unit is used to monitor the spectrum in real time to see if there is conflict and signal interference in combination with the network weighting parameters, as follows: Set the standard economic benefit threshold for network weighting. If the economic benefit under network weighting is lower than the standard economic benefit threshold, it means that there is a conflict in the spectrum and signal interference. Immediately report to the system to adjust the network configuration parameters. If the economic benefit under network weighting is equal to or higher than the standard economic benefit threshold, it means that there is no conflict in the spectrum and signal interference. Maintain the network configuration parameters.

[0013] The multi-source optimization module includes a real-time optimization unit, a multi-source monitoring unit and a planning adjustment unit; The real-time optimization unit is used to receive the dual-mode communication network transmission results in real time through a data receiver, and optimize the dual-mode network communication according to the results. The dual-mode network communication optimization method is determined by real-time monitoring of the spectrum for conflicts and signal interference based on network weight parameters.

[0014] The multi-source monitoring unit is used to monitor in real time whether the channel selection, power control and routing selection during network communication optimization are abnormal, and obtain the multi-source optimization result. The specific method is as follows: The method to monitor channel selection abnormality is as follows: AS 信道 =w1×CQ+w2×IN+w3×NL; Among them, AS 信道 represents the channel selection anomaly score, CQ represents the channel quality, IN represents the interference level, NL represents the network load, w1, w2 and w3 represent the weight coefficients of channel quality, interference level and network load respectively, and the weight coefficients w1, w2 and w3 are dynamically adjusted according to specific needs; Set the channel selection threshold. If AS 信道 >channel selection threshold, the channel selection is considered abnormal and the channel needs to be switched or the network configuration parameters need to be optimized. 信道 ≤channel selection threshold, the channel selection is considered normal; The methods for monitoring power control abnormalities are as follows: AS 功率 =w1×SS+w2×IN+w3×EC; Among them, AS 功率represents the power control abnormality score value, w1, w2 and w3 are weight coefficients, and the weight coefficients w1, w2 and w3 are dynamically adjusted according to specific needs to meet w1+w2+w3=1. SS represents signal strength, IN represents interference level, and EC represents energy consumption. Set the power control threshold. If AS 功率 ≥ the power control threshold, the power control is considered normal. 功率 < the power control threshold, the power control is considered abnormal and the network configuration parameters need to be optimized; The following are the methods to monitor routing anomalies: AS 路由 =w1×LT+w2×PL+w3×BU; Among them, AS 路由 represents the route selection anomaly score value, w1, w2 and w3 are weight coefficients, satisfying w1+w2+w3=1. The weight coefficients w1, w2 and w3 are dynamically adjusted according to specific needs. LT represents latency, PL represents packet loss rate, and BU represents bandwidth utilization. Set the route selection threshold. If AS 路由 ≥ routing selection threshold, the routing selection is considered normal. 路由 < routing selection threshold, the routing selection is considered abnormal and the network configuration parameters need to be optimized.

[0015] The planning adjustment unit is used to adjust the network configuration parameters in real time according to the multi-source optimization results, and to track the spectrum at the current moment in real time through a data tracker, and to monitor spectrum anomalies in real time according to the weights. The monitoring spectrum anomalies can be obtained according to the calculation formula, which is as follows: SS=w1×SU+w2×IN+w3×CQ Among them, SS represents the spectrum score value corresponding to the current moment, SU represents the spectrum utilization, IN represents the interference level, CQ represents the communication quality, w1, w2 and w3 represent the weight coefficients of the spectrum utilization, interference level and communication quality respectively, and the spectrum threshold is set. If the spectrum score value is greater than or equal to the spectrum threshold, it means that the spectrum is normal. If the spectrum score value is less than the spectrum threshold, it means that the spectrum is abnormal. By adjusting the network configuration parameters, the spectrum can be adjusted to complete the planning and adjustment of the communication network spectrum.

[0016] The present invention has the following beneficial effects: 1. In the present invention, by setting a multi-level encryption module, when optimizing the network communication operation based on the HPLC+HRF dual-mode, by setting the multi-level encryption and decryption operation on the HPLC and HRF communication networks, the real-time monitoring user information is judged to be abnormal through the multi-level decryption, and the real-time warning is whether the data in the dual-mode communication network is at risk of being stolen and leaked, so that the data transmitted in the HPLC+HRF dual-mode communication network is more secure, and the risk of attackers obtaining data by invading power lines or wireless networks is avoided, thereby enhancing the security and stability of the communication network; 2. In the present invention, by setting a conflict warning module, when the network communication optimization operation based on the HPLC+HRF dual-mode is performed, by setting the dual-mode spectrum switching protocol, the network configuration is performed in real time according to the switching protocol according to different application scenarios and requirements, so that the dual-mode communication network can be configured according to different application scenarios and requirements, and the spectrum conflict and interference are monitored in real time during the network configuration and the spectrum conflict is warned, so as to further reduce the limitations of the use after the dual-mode combination; 3. In the present invention, by setting a multi-source optimization module, during the network communication optimization operation based on HPLC+HRF dual-mode, the spectrum is adjusted through real-time planning, which further increases the convenience and speed of optimizing the communication network. The spectrum can be reasonably planned and managed in real time during the dual-mode network communication optimization process, reducing the complexity of channel selection, power control and route selection monitoring during network communication optimization, and improving the efficiency of network communication optimization. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 The present invention is an overall flow chart of a network communication optimization method based on HPLC+HRF dual mode; Figure 2 A schematic diagram of the architecture of a multi-level encryption module of a network communication optimization method based on HPLC+HRF dual-mode of the present invention; Figure 3 It is a schematic diagram of the framework of a conflict warning module of a network communication optimization method based on HPLC+HRF dual mode of the present invention; Figure 4 The present invention is a schematic diagram of the architecture of a multi-source optimization module of a network communication optimization method based on HPLC+HRF dual-mode. DETAILED DESCRIPTION

[0018] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0019] Embodiment 1 Please refer to Figure 1 to Figure 2 As shown: A network communication optimization method based on HPLC+HRF dual mode, including the following implementation steps: Step 1: Enter the multi-level encryption module, realize dual-mode communication network transmission by combining HPLC and HRF, collect dual-mode transmission data in real time and arrange the sequence numbers, set multi-level encryption and decryption operations, monitor user information in real time to see if it is abnormal, and warn in real time whether the data in the dual-mode communication network is at risk of being stolen and leaked; Step 2: Enter the conflict warning module, set the dual-mode spectrum switching protocol, configure the network in real time according to different application scenarios and requirements, and monitor the spectrum in real time during the network configuration to see if there is any conflict or signal interference, so as to detect spectrum conflicts in time and issue warning reports; Step 3: Enter the multi-source optimization module, receive the dual-mode communication network transmission results in real time, optimize the dual-mode network communication according to the results in real time, monitor the channel selection, power control and route selection during network communication optimization in real time, plan and adjust the spectrum in real time, and optimize the communication network.

[0020] The multi-level encryption module includes a dual-mode combination unit, a multi-level encryption unit and a theft warning unit; The dual-mode combination unit is used to combine HPLC and HRF to realize dual-mode communication network transmission, and collect the data of dual-mode transmission in real time through the data acquisition instrument and arrange the serial numbers. The serial numbers are arranged in ascending order using Arabic numerals.

[0021] The multi-level encryption unit is used to set multi-level encryption and decryption operations for the communication network of HPLC and HRF. The multi-level encryption method is as follows: Step 1: Enhance the encryption strength of different communication networks of HPLC and HRF by combining multiple security factors, including user passwords corresponding to the time, biometrics of the data, hardware keys of the data, information types of the data, and importance of the data; Step 2: Generate key K1 using the user password of the corresponding time, and generate key K2 by combining at least two of the hardware key of the data, the biometric feature of the data, the information type of the data, and the importance of the data; Step 3: Encrypted data M using multiple security factor keys. The calculation process is as follows: C=Encrypt K1,K2 (M), where C represents the final password data. K1,K2 Indicates different factors for generating keys among multiple security factors, C sets different levels of encryption data M according to different stages of the dual-mode; Step 4: set a decryption operation based on the final password data obtained. The decryption operation is performed in combination with time, biometrics, forward hardware key, reverse hardware key, information type and importance. The time indicates the corresponding time of setting the password. The biometrics include facial features, fingerprint features and iris features.

[0022] The theft warning unit is used to identify the decryption operation of the final password data of different levels in real time and determine whether the decryption is abnormal in real time, as follows: Step (1), the calculation formula for decryption and identification combined with multiple factors is: K=f(F 1 ,F 2 ,…,F n ); M 解 =Decrypt K (C); Among them, F 1 ,F 2 ,…,F n are multiple security factors, f is the key generation function, Decrypt K is the decryption function, M 解 Indicates the final decrypted data; Step (2), concatenate and calculate the final decrypted data and the final password data, add the final decrypted data and the final password data with one digit left, and calculate the difference between the two numbers. If the difference is equal to 0, it means that the decryption is normal. If the difference is not equal to 0, it means that the decryption is abnormal. The reporting system issues an abnormal alarm reminder. Through multi-level decryption, it is determined whether the real-time monitoring user information is abnormal, and a real-time warning is given whether there is a risk of data being stolen and leaked in the dual-mode communication network. This makes the data transmitted in the HPLC+HRF dual-mode communication network more secure, avoids the risk of attackers obtaining data by invading power lines or wireless networks, and further reduces the risk of data being stolen and leaked in the dual-mode communication network.

[0023] Embodiment 2 Please refer to Figure 3 As shown: Based on the first embodiment, the conflict warning module includes a spectrum switching unit, a demand configuration unit and a conflict warning unit; The spectrum switching unit is used to set the dual-mode spectrum switching protocol. The dual-mode spectrum switching protocol is performed in real time according to the switching protocol according to different application scenarios and requirements. The dual-mode spectrum switching protocol is set in combination with economic benefits, as follows: Step Ⅰ: Calculate the economic benefits of dual-mode networks under different application scenarios and requirements. The calculation formula is as follows: ; Among them, CB represents the economic benefits of dual-mode networks under different application scenarios and requirements, TB represents the total benefits, which include performance benefits PB, user satisfaction benefits USB and market competitiveness benefits MCB, TC represents the total cost, which includes deployment costs DC, operation costs OC and maintenance costs MC; Step II: Set the dual-mode spectrum switching protocol according to the economic benefits of the dual-mode network under different application scenarios and requirements.

[0024] The demand configuration unit is used to set the corresponding network configuration parameters. The network configuration parameters are calculated in combination with economic benefits. The network weight calculation formula combined with economic benefits is: Score=w1×CB+w2×BW+w3×LT+w4×RL; Among them, Score represents the network weight parameter combined with economic benefits, CB represents the normalized dual-mode network economic benefits under different application scenarios and requirements, BW represents the normalized bandwidth, LT represents the normalized delay, RL represents the normalized reliability, and w1, w2, w3, and w4 represent weight coefficients.

[0025] The conflict warning unit is used to monitor the spectrum in real time to see if there is conflict and signal interference in combination with the network weighting parameters, as follows: A standard economic benefit threshold for network weighting is set. If the economic benefit under the network weighting is lower than the standard economic benefit threshold, it indicates that there is a conflict in the spectrum and signal interference. The system is immediately reported to adjust the network configuration parameters. If the economic benefit under the network weighting is equal to or higher than the standard economic benefit threshold, it indicates that there is no conflict in the spectrum and signal interference. The network configuration parameters are maintained, and the spectrum is monitored in real time during the network configuration to see if there is a conflict or signal interference. This allows HPLC and HRF communications to promptly detect spectrum conflicts and issue warnings. At the same time, the dual-mode communication network can perform network configuration according to different application scenarios and requirements, and monitor spectrum conflicts and interference in real time during the network configuration and issue warnings of spectrum conflicts, further reducing the limitations of the use of the dual-mode combination.

[0026] Embodiment 3 Please refer to Figure 4 As shown: Based on the first embodiment, the multi-source optimization module includes a real-time optimization unit, a multi-source monitoring unit and a planning adjustment unit; The real-time optimization unit is used to receive the transmission results of the dual-mode communication network in real time through a data receiver, and optimize the dual-mode network communication according to the results. The dual-mode network communication optimization method is determined by real-time monitoring of the spectrum for conflicts and signal interference based on network weight parameters.

[0027] The multi-source monitoring unit is used to monitor in real time whether the channel selection, power control and routing selection during network communication optimization are abnormal, and obtain the multi-source optimization results. The specific method is as follows: The method to monitor channel selection abnormality is as follows: AS 信道 =w1×CQ+w2×IN+w3×NL; Among them, AS 信道represents the channel selection anomaly score, CQ represents the channel quality, IN represents the interference level, NL represents the network load, w1, w2 and w3 represent the weight coefficients of channel quality, interference level and network load respectively, and the weight coefficients w1, w2 and w3 are dynamically adjusted according to specific needs; Set the channel selection threshold. If AS 信道 >channel selection threshold, the channel selection is considered abnormal and the channel needs to be switched or the network configuration parameters need to be optimized. 信道 ≤channel selection threshold, the channel selection is considered normal; The methods for monitoring power control abnormalities are as follows: AS 功率 =w1×SS+w2×IN+w3×EC; Among them, AS 功率 represents the power control abnormality score value, w1, w2 and w3 are weight coefficients, and the weight coefficients w1, w2 and w3 are dynamically adjusted according to specific needs to meet w1+w2+w3=1. SS represents signal strength, IN represents interference level, and EC represents energy consumption. Set the power control threshold. If AS 功率 ≥ the power control threshold, the power control is considered normal. 功率 < the power control threshold, the power control is considered abnormal and the network configuration parameters need to be optimized; The following are the methods to monitor routing anomalies: AS 路由 =w1×LT+w2×PL+w3×BU; Among them, AS 路由 represents the route selection anomaly score value, w1, w2 and w3 are weight coefficients, satisfying w1+w2+w3=1. The weight coefficients w1, w2 and w3 are dynamically adjusted according to specific needs. LT represents latency, PL represents packet loss rate, and BU represents bandwidth utilization. Set the route selection threshold. If AS 路由 ≥ routing selection threshold, the routing selection is considered normal. 路由 < routing selection threshold, the routing selection is considered abnormal and the network configuration parameters need to be optimized.

[0028] The planning and adjustment unit is used to adjust the network configuration parameters in real time according to the multi-source optimization results, and to track the spectrum at the current moment in real time through the data tracker, monitor spectrum anomalies in real time according to the weights, and plan and adjust the spectrum in real time according to the results, thereby further increasing the convenience and speed of optimizing the communication network. It can reasonably plan and manage the spectrum in real time during the dual-mode network communication optimization process, reduce the complexity of channel selection, power control and route selection monitoring during network communication optimization, and improve the efficiency of network communication optimization.

[0029] In the present invention, a network communication optimization method based on HPLC+HRF dual-mode is provided. First, a network communication optimization remote control system is configured. When the network communication optimization operation based on HPLC+HRF dual-mode is performed, dual-mode communication network transmission is realized by combining HPLC and HRF, data of dual-mode transmission is collected in real time and arranged in sequence, and multi-level encryption and decryption operations are set for the communication network of HPLC and HRF. Through multi-level decryption, it is judged whether the real-time monitoring user information is abnormal, and a real-time warning is given whether the data in the dual-mode communication network is at risk of being stolen and leaked. This makes the data transmitted in the HPLC+HRF dual-mode communication network more secure, avoids the risk of attackers obtaining data by invading power lines or wireless networks, and further reduces the risk of data being stolen and leaked in the dual-mode communication network, thereby enhancing the security and stability of the communication network. By setting a dual-mode spectrum switching protocol, the data can be switched according to different application scenarios and requirements in real time. The network is configured according to the switching protocol, and the spectrum is monitored in real time during the network configuration for conflicts and signal interference, so that HPLC and HRF communications can detect spectrum conflicts in time and issue warnings. At the same time, the dual-mode communication network can configure the network according to different application scenarios and needs, and monitor spectrum conflicts and interference in real time during the network configuration and issue warnings for spectrum conflicts, further reducing the limitations of the use of the dual-mode combination; by receiving the transmission results of the dual-mode communication network in real time, and optimizing the dual-mode network communication according to the results, the channel selection, power control and route selection during the network communication optimization are monitored in real time during the optimization process for abnormalities, and the spectrum is planned and adjusted in real time according to the results, further increasing the convenience and speed of optimizing the communication network, and being able to reasonably plan and manage the spectrum in real time during the dual-mode network communication optimization process, reducing the complexity of channel selection, power control and route selection monitoring during network communication optimization, and improving the efficiency of network communication optimization.

[0030] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.

Claims

1. A network communication optimization method based on HPLC+HRF dual mode, characterized in that: The method comprises the following implementation steps: Step 1: Enter the multi-level encryption module, realize dual-mode communication network transmission by combining HPLC and HRF, collect dual-mode transmission data in real time and arrange the sequence numbers, set multi-level encryption and decryption operations, monitor user information in real time to see if it is abnormal, and warn in real time whether the data in the dual-mode communication network is at risk of being stolen and leaked; Step 2: Enter the conflict warning module, set the dual-mode spectrum switching protocol, configure the network in real time according to different application scenarios and requirements, and monitor the spectrum in real time during the network configuration to see if there is any conflict or signal interference, so as to detect spectrum conflicts in time and issue warning reports; Step 3: Enter the multi-source optimization module, receive the dual-mode communication network transmission results in real time, optimize the dual-mode network communication according to the results in real time, monitor the channel selection, power control and route selection during network communication optimization in real time, plan and adjust the spectrum in real time, and optimize the communication network.

2. The method according to claim 1, characterized in that: The multi-level encryption module includes a dual-mode combination unit, a multi-level encryption unit and a theft warning unit; The dual-mode combining unit is used to combine HPLC and HRF to realize dual-mode communication network transmission, and collect the data of dual-mode transmission in real time through a data acquisition instrument and arrange the serial numbers, and the serial numbers are arranged in ascending order using Arabic numerals.

3. The method according to claim 2, characterized in that: The multi-level encryption unit is used to set multi-level encryption and decryption operations for the communication network of HPLC and HRF. The multi-level encryption method is as follows: Step 1: Enhance the encryption strength of different communication networks of HPLC and HRF by combining multiple security factors, including user passwords corresponding to the time, biometrics of the data, hardware keys of the data, information types of the data, and importance of the data; Step 2: Generate key K1 using the user password of the corresponding time, and generate key K2 by combining at least two of the hardware key of the data, the biometric feature of the data, the information type of the data, and the importance of the data; Step 3: Encrypted data M using multiple security factor keys. The calculation process is as follows: C=Encrypt K1,K2 (M), where C represents the final password data. K1,K2 Indicates different factors for generating keys among multiple security factors, C sets different levels of encryption data M according to different stages of dual-mode; Step 4: set a decryption operation based on the final password data obtained. The decryption operation is performed in combination with time, biometrics, forward hardware key, reverse hardware key, information type and importance. The time indicates the corresponding time of setting the password. The biometrics include facial features, fingerprint features and iris features.

4. The method according to claim 3, characterized in that: The theft warning unit is used to identify the decryption operation of the final password data of different levels in real time and determine whether the decryption is abnormal in real time, as follows: Step (1), the calculation formula for decryption and identification combined with multiple factors is: K=f(F1,F2,…,F n ); M 解 =Decrypt K (C); Among them, F1, F2, …, F n are multiple security factors, f is the key generation function, Decrypt K is the decryption function, M 解 Indicates the final decrypted data; Step (2), concatenate and calculate the final decrypted data and the final password data, add the final decrypted data and the final password data with one digit left, and calculate the difference between the two numbers. If the difference is equal to 0, it means that the decryption is normal. If the difference is not equal to 0, it means that the decryption is abnormal, and the reporting system issues an abnormal alarm reminder.

5. The method according to claim 1, characterized in that: The conflict warning module includes a spectrum switching unit, a demand configuration unit and a conflict warning unit; The spectrum switching unit is used to set the dual-mode spectrum switching protocol, and the dual-mode spectrum switching protocol is performed in real time according to the switching protocol according to different application scenarios and requirements. The dual-mode spectrum switching protocol is set in combination with economic benefits, as follows: Step Ⅰ: Calculate the economic benefits of dual-mode networks under different application scenarios and requirements. The calculation formula is as follows: ； Among them, CB represents the economic benefits of dual-mode networks under different application scenarios and requirements, TB represents the total benefits, which include performance benefits PB, user satisfaction benefits USB and market competitiveness benefits MCB, TC represents the total cost, which includes deployment costs DC, operation costs OC and maintenance costs MC; Step II: Set the dual-mode spectrum switching protocol according to the economic benefits of the dual-mode network under different application scenarios and requirements.

6. The method according to claim 5, characterized in that: The demand configuration unit is used to set the corresponding network configuration parameters. The network configuration parameters are calculated in combination with economic benefits. The network weight calculation formula combined with economic benefits is: Score=w1×CB+w2×BW+w3×LT+w4×RL; Among them, Score represents the network weight parameter combined with economic benefits, CB represents the normalized dual-mode network economic benefits under different application scenarios and requirements, BW represents the normalized bandwidth, LT represents the normalized delay, RL represents the normalized reliability, and w1, w2, w3, and w4 represent weight coefficients.

7. The method according to claim 6, characterized in that: The conflict warning unit is used to monitor the spectrum in real time to see if there is conflict and signal interference in combination with the network weighting parameters, as follows: Set the standard economic benefit threshold for network weighting. If the economic benefit under network weighting is lower than the standard economic benefit threshold, it means that there is a conflict in the spectrum and signal interference. Immediately report to the system to adjust the network configuration parameters. If the economic benefit under network weighting is equal to or higher than the standard economic benefit threshold, it means that there is no conflict in the spectrum and signal interference. Maintain the network configuration parameters.

8. The method according to claim 1, characterized in that: The multi-source optimization module includes a real-time optimization unit, a multi-source monitoring unit and a planning adjustment unit; The real-time optimization unit is used to receive the dual-mode communication network transmission results in real time through a data receiver, and optimize the dual-mode network communication according to the results. The dual-mode network communication optimization method is determined by real-time monitoring of the spectrum for conflicts and signal interference based on network weight parameters.

9. The method according to claim 8, characterized in that: The multi-source monitoring unit is used to monitor in real time whether the channel selection, power control and routing selection during network communication optimization are abnormal, and obtain the multi-source optimization result. The specific method is as follows: The method to monitor channel selection abnormality is as follows: AS 信道 =w1×CQ+w2×IN+w3×NL; Among them, AS 信道 represents the channel selection anomaly score, CQ represents the channel quality, IN represents the interference level, NL represents the network load, w1, w2 and w3 represent the weight coefficients of channel quality, interference level and network load respectively, and the weight coefficients w1, w2 and w3 are dynamically adjusted according to specific needs; Set the channel selection threshold. If AS 信道 >channel selection threshold, the channel selection is considered abnormal and the channel needs to be switched or the network configuration parameters need to be optimized. 信道 ≤channel selection threshold, the channel selection is considered normal; The methods for monitoring power control abnormalities are as follows: AS 功率 =w1×SS+w2×IN+w3×EC; Among them, AS 功率 represents the power control abnormality score value, w1, w2 and w3 are weight coefficients, and the weight coefficients w1, w2 and w3 are dynamically adjusted according to specific needs to meet w1+w2+w3=1. SS represents signal strength, IN represents interference level, and EC represents energy consumption. Set the power control threshold. If AS 功率 ≥ the power control threshold, the power control is considered normal. 功率 < the power control threshold, the power control is considered abnormal and the network configuration parameters need to be optimized; The following are the methods to monitor routing anomalies: AS 路由 =w1×LT+w2×PL+w3×BU; Among them, AS 路由 represents the route selection anomaly score value, w1, w2 and w3 are weight coefficients, satisfying w1+w2+w3=1. The weight coefficients w1, w2 and w3 are dynamically adjusted according to specific needs. LT represents latency, PL represents packet loss rate, and BU represents bandwidth utilization. Set the route selection threshold. If AS 路由 ≥ routing selection threshold, the routing selection is considered normal. 路由 < routing selection threshold, the routing selection is considered abnormal and the network configuration parameters need to be optimized.

10. The method according to claim 9, characterized in that: The planning adjustment unit is used to adjust the network configuration parameters in real time according to the multi-source optimization result, and to track the spectrum at the current moment in real time through a data tracker, and to monitor spectrum anomalies in real time according to the weight.

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