Terahertz magnetic communication AIOT encryption device and IOT interface device

Abstract

The invention relates to the technical field of terahertz communication encryption and AIOT, in particular to terahertz magnetic communication AIOT encryption equipment and IOT interface equipment. Data information digital parameters are transmitted from a terahertz magnetic frequency band to a light wave frequency band from 100GHZ to 1THZ to identify AIOT equipment, and the AIOT equipment is arranged in a processor chip of terahertz magnetic communication AIOT encryption equipment. And the AIOT encryption equipment identifies the ID information data of the terahertz magnetic communication equipment by identifying and calculating the transmission data information. In AIOT encryption, each group of numbers form each group of functions, each group of functions verifies, identifies and calculates another function to obtain digital mathematical data information to identify terahertz magnetic communication ID, terahertz magnetic communication equipment ID identifies transmission information data to perform terahertz magnetic communication decryption frequency bands, and each section of light wave calculation data information forms terahertz magnetic frequency band light wave encryption communication ID information data. And the IOT equipment performs data information matching through terahertz magnetic communication AIOT equipment, each group of encrypted mathematics performs a DNA digital programming program, and each group of programs forms an independent DNA digital programming program.

Description

Technical Field

[0001] The present invention relates to the fields of terahertz communication encryption technology and AIOT technology. Specifically, it relates to a terahertz magnetic communication AIOT encryption device and an IOT interface device. Background Art

[0002] This invention patent relates to a terahertz magnetic communication AIOT encryption device and an IOT interface device, which are used for various encryptions and DNA digital programming for BSD open-source code programming. They are used for multiple encryptions and digital protection of secure data information in the mobile communication industry, aerospace industry, military industry, satellite communication industry, encryption industry, terahertz magnetic communication industry, medical industry, and biomedical industry. Independent protection of data information digital security is carried out through BSD open-source code DNA digital programming. For example, equipment in the aerospace industry, such as rocket launch access programs and other IOTs to strengthen the confidentiality of data information and prevent data security leaks, and prevent illegal elements from stealing, decrypting, and stealing. In the military industry, in detective instruments, measuring instruments, identification instruments, satellite communication instruments, rocket operation instruments, multi-layer encryption of data information digital and multi-layer security defenses are carried out through IOT interfaces, BSD open sources, and terahertz magnetic communication technologies to protect data information security with strong defense capabilities.

[0003] The present invention uses DNA digital programming programs, which are divided into each group of programs to form independent DNA digital programming programs, and then divided into small molecule DNA digital mathematical independent programming programs for multiple verification and identification programming programs. At the same time, the independent DNA digital programming programs are divided into s1 / 2 for each group of encryption, which is self-divided into multiple protocols, and y1 / 3 for a group of encryption, which is self-divided into multiple encryptions to form multiple numerical verifications to obtain different numerical and different forms of encryption. A mixed mechanism particle encryption private key is formed from the first to the fourth different numerical values. The terahertz magnetic communication AIOT encryption device, the terahertz magnetic frequency light wave frequency band from 100 GHZ to 1 THZ transmits data information digital parameters to identify the AIOT device, and the AIOT device is inside the processor chip of the terahertz magnetic communication AIOT encryption device. Summary of the Invention

[0004] 1. A terahertz magnetic communication AIOT encryption device, characterized in that the terahertz magnetic communication AIOT encryption device is applied. The terahertz magnetic communication AIOT encryption device transmits data information digital parameters in the terahertz magnetic frequency light wave frequency band from 100 GHZ to 1 THZ to identify the AIOT device, and the AIOT device is inside the processor chip of the terahertz magnetic communication AIOT encryption device.

[0005] 2. According to the method described in claim 1, the AIOT encryption device identifies and calculates the transmitted data information to identify the ID information data of the terahertz magnetic communication device, and the ID of the terahertz magnetic communication device identifies the AIOT encryption device through data information / digital mathematical means.

[0006] 3. The method according to claim 2, wherein in the AIOT encryption, each group of numbers forms each group of functions, and each group of functions verifies and identifies a calculation of another function to obtain digital mathematical data information for identifying the terahertz magnetic communication ID. The terahertz magnetic communication device ID identifies the transmission information data to perform terahertz magnetic communication decryption frequency band, and each segment of light wave calculates data information to form terahertz frequency band light wave encrypted communication ID information data.

[0007] 4. The method according to claim 3, an IOT interface device, characterized in that for the applied IOT interface device, the IOT interface device performs identification calculation of the encrypted communication ID, the encrypted communication ID information data performs calculation of data information, and the calculation data information parameter is used to perform identification calculation of data information to obtain a data information parameter number. The obtained data information parameter number calls each group of block encryption mathematical methods, and the called each group of block encryption mathematical methods performs verification and identification calculation of data information parameters.

[0008] 5. The IOT device according to claim 4, wherein the IOT device performs data information matching through a terahertz magnetic communication AIOT device, each group of matching data information performs block encryption mathematics, and each group of encryption mathematics performs DNA digital programming procedures. The DNA digital programming procedures include that each group of procedures forms an independent DNA digital programming procedure, and the independent DNA digital programming procedure is divided into small molecule DNA digital mathematics independent programming procedures.

[0009] 6. The method according to claim 5, wherein the terahertz magnetic communication AIOT device identifies the BSD open source code, the BSD open source code performs DNA digital programming procedure calculation programming, the DNA digital programming procedure calculation programming data information parameter performs identification calculation of the small molecule DNA digital mathematics independent programming procedure, and the small molecule DNA digital mathematics independent programming verifies each group of programming calculation procedure data information parameters. The verification of each group of programming calculation procedure data information parameters obtains data digital information for performing block encryption calculation.

[0010] 7. The method according to claim 6, wherein the block encryption calculation includes the BSD open source code, the BSD open source code calculates, identifies, and verifies the programming procedure, each group of programming procedures verifies the previous group of programming procedures, each group of programming procedures matches data information numbers, and the matching information data information parameters form an independent DNA digital programming procedure.

[0011] 8. The method according to claim 7, an independent DNA digital programming program, characterized in that in the independent DNA digital programming program, each formula method includes: the self-generated each group of encryption methods, s1 / 2 each group of encryption is self-divided into multiple protocols, y1 / 3 a group of encryption is self-divided into multiple encryptions, when two numerical values are equal, a tamper-proof password numerical value is formed, and each numerical value forms multiple different forms of encryption.

[0012] The two numerical values form different numerical values, and the encrypted data information calculates and identifies the data information to verify each encryption numerical value. When the each encryption numerical value, it verifies that each forms a single molecule particle, and the numerical values represented by the single molecule particles are different. The first numerical value forms the encryption numerical value generated by the first numerical value encryption information data; the second numerical value generates encryption parameters based on the data information parameter numbers at the first numerical value, and the encryption parameters perform random encryption parameter verification and identification calculation of the data information digital parameter values.

[0013] 9. The method according to claim 8, when the third numerical value, it verifies the random encryption parameters in the second verified data information parameters; the encrypted parameter information data numbers are verified to obtain the identification of different particles with equal values. The different particles with equal values are characterized in that when the data information parameters of each particle are equal, it calculates the data information numbers to verify multiple encryptions and multiple decryptions of the data information parameters to obtain multiple mixed mechanism encryption password parameter data information programs.

[0014] 10. The method according to claim 9, the fourth numerical value encryption is to verify the information data of the first to the fourth different numerical values to calculate and obtain the equal parameter information data numbers for verification and identification, calculate and identify the data information numbers to obtain a mixed mechanism particle encryption private key, and the mixed mechanism particle encryption private key is verified and identified according to the first to the fourth numerical values of a terahertz magnetic communication AIOT encryption device and an IOT interface device as claimed in the claim. Description of the Drawings

[0015] Figure 1 It is a flowchart of a terahertz magnetic communication AIOT encryption device in an embodiment of the present invention;

[0016] Figure 2 It is a flowchart of an AIOT encryption device in an embodiment of the present invention;

[0017] Figure 3 It is a flowchart of a DNA digital programming program in an embodiment of the present invention; Detailed Embodiments

[0018] 1. As Figure 1As shown in the figure, an AIOT encryption device method for terahertz magnetic communication is provided in an embodiment of the present invention, including: applying an AIOT encryption device for terahertz magnetic communication, identifying digital parameters of data information transmitted in the terahertz magnetic frequency band and optical wave frequency band from 100 GHz to 1 THz to identify AIOT devices, and the AIOT devices are within the processor chip of the AIOT encryption device for terahertz magnetic communication.

[0019] The AIOT encryption device identifies the ID information data of the terahertz magnetic communication device by identifying and calculating the transmitted data information, and the ID of the terahertz magnetic communication device identifies the AIOT encryption device through data information / digital mathematical methods.

[0020] AIOT encryption includes each group of numbers forming each group of functions. Each group of functions verifies and identifies another function to obtain digital mathematical data information to identify the terahertz magnetic communication ID. The ID of the terahertz magnetic communication device identifies the transmitted information data for the terahertz magnetic communication decryption frequency band, and each section of optical wave calculates the data information to form the ID information data of the terahertz magnetic frequency band optical wave encrypted communication.

[0021] 2. As Figure 2 As shown in the figure, an AIOT encryption device method is provided in an embodiment of the present invention, including: applying an IOT interface device, the IOT interface device performs identification and calculation of the encrypted communication ID, the encrypted communication ID information data is calculated for the data information, and the data information parameters are identified and calculated to obtain the digital data information parameters. The obtained digital data information parameters call each group of block encryption mathematical methods, and the called each group of block encryption mathematical methods are used to verify and identify the calculation data information parameters.

[0022] The IOT device matches the data information through the AIOT device for terahertz magnetic communication. Each group of matched data information performs block encryption mathematics, and each group of encryption mathematics performs DNA digital programming procedures. The DNA digital programming procedures include each group of procedures forming independent DNA digital programming procedures, and the independent DNA digital programming procedures are divided into small molecule DNA digital mathematical independent programming procedures. The AIOT device for terahertz magnetic communication identifies the BSD open source code, and the BSD open source code performs DNA digital programming procedure calculation and programming. The data information parameters of the DNA digital programming procedure calculation and programming are used to identify and calculate the small molecule DNA digital mathematical independent programming procedure. The small molecule DNA digital mathematics is independently programmed to verify the data information parameters of each group of programming calculation procedures, and the data digital information is obtained by verifying the data information parameters of each group of programming calculation procedures for block encryption calculation.

[0023] Block encryption calculation includes the BSD open source code. The BSD open source code calculates, identifies, and verifies the programming procedures. Each group of programming procedures verifies the previous group of programming procedures, and each group of programming procedures matches the data information numbers. The matched information data information parameters form an independent DNA digital programming procedure.

[0024] 3. As Figure 3 shown, in the embodiment of the present invention, a DNA digital programming program is provided, including: an independent DNA digital programming program. It is characterized in that in the independent DNA digital programming program, each formula method includes the self-generated encryption methods for each group. S1 / 2 each group of encryption is divided into multiple protocols, and y1 / 3 is a group of encryption divided into multiple encryptions. When two values are equal, an anti-tampering password value is formed, and each value forms multiple different forms of encryption.

[0025] The two values form different values. The encrypted data information calculates and identifies the data information to verify each encryption value. When each encryption value is verified, each forms a single molecule particle, and the values represented by the single molecule particles are different. The first value forms the encryption value generated by the first numerical encryption information data; the second value generates encryption parameters based on the data information parameter numbers in the first value, and the encryption parameters are used to verify and identify the calculated data information digital parameter values through random encryption parameter verification.

[0026] The third value is to verify the random encryption parameters in the second verified data information parameters; the encrypted parameter information data numbers are verified to obtain different particle equivalent values. The different particle equivalent values are characterized in that when the data information parameters of each particle are equal, the data information numbers are calculated to verify multiple encryption and decryption data information parameters, and multiple mixed mechanism encryption password parameter data information programs are obtained.

[0027] The fourth numerical encryption is to verify the information data of the first to the fourth different values, calculate the equivalent parameter information data numbers for verification and identification, calculate and identify the data information numbers to obtain a mixed mechanism particle encryption private key, and the mixed mechanism particle encryption private key is verified and identified according to the first to the fourth numerical values of the claims by a terahertz magnetic communication AIOT encryption device and an IOT interface device.

Claims

1. A terahertz magnetic communication AIoT encryption device, characterized in that Apply the terahertz magnetic communication AIoT encryption device. The terahertz magnetic communication AIoT encryption device is an AIoT device that identifies digital parameters of data information transmitted in the terahertz magnetic frequency band and the optical wave frequency band from 100 GHz to 1 THz. The AIoT device is within the processor chip of the terahertz magnetic communication AIoT encryption device.

2. According to the method described in claim 1, the AIoT encryption device identifies the ID information data of the terahertz magnetic communication device by recognizing and calculating the transmitted data information. The ID of the terahertz magnetic communication device identifies the AIoT encryption device through data information / digital mathematical means.

3. According to the method described in claim 2, each group of numbers in the AIoT encryption forms each group of functions. Each group of functions verifies and calculates another function to obtain digital mathematical data information to identify the terahertz magnetic communication ID. The ID of the terahertz magnetic communication device identifies the transmitted information data for the terahertz magnetic communication decryption frequency band. Each optical wave calculation data information forms the terahertz frequency band optical wave encrypted communication ID information data.

4. The method according to claim 3, an IOT interface device, characterized in that, The applied IoT interface device. The IoT interface device performs recognition and calculation of the encrypted communication ID. The encrypted communication ID information data is used to calculate the data information. The calculation data information parameter is used to identify and calculate the data information parameter to obtain the data information parameter number. The obtained data information parameter number calls each group of block encryption mathematical methods, and the called each group of block encryption mathematical methods are used to verify and calculate the data information parameter.

5. According to the IoT device described in claim 4, the IoT device performs data information matching through the terahertz magnetic communication AIoT device. Each group of matching data information undergoes block encryption mathematics. Each group of encryption mathematics undergoes DNA digital programming. The DNA digital programming, including each group of programs forming an independent DNA digital programming program, and the independent DNA digital programming program is divided into small molecule DNA digital mathematical independent programming programs.

6. According to the method described in claim 5, the terahertz magnetic communication AIoT device identifies the BSD open source code. The BSD open source code performs DNA digital programming calculation programming. The DNA digital programming calculation programming data information parameter is used to identify and calculate the small molecule DNA digital mathematical independent programming program. The small molecule DNA digital mathematical independent programming verifies each group of programming calculation program data information parameters. The verification of each group of programming calculation program data information parameters obtains data digital information for block encryption calculation.

7. According to the method described in claim 6, the block encryption calculation includes the BSD open source code. The BSD open source code calculates, identifies, and verifies the programming program. Each group of programming programs verifies the previous group of programming programs. Each group of programming programs matches the data information number. The matching information data information parameter forms an independent DNA digital programming program.

8. The method according to claim 7, an independent DNA digital programming program, characterized in that, In the independent DNA digital programming program, each formula method includes self-generating each set of encryption methods, s 1 / 2 Each set of encryption is self-divided into multiple protocols, y 1 / 3 A set of encryption is self-divided into multiple encryptions. When two values are equal, an anti-tampering password value is formed, and each value forms multiple different forms of encryption. The two numerical values form different numerical values. The data information calculated by the encrypted data information verifies each encrypted numerical value. When each encrypted numerical value is verified, it is ensured that each forms a single molecular particle, and the numerical values represented by the single molecular particles are different. The first numerical value is the encrypted numerical value generated by the encrypted information data of the first type of numerical value; the second numerical value is the encrypted parameter generated by the data information parameter number of the first type of numerical value, and the encrypted parameter is used to verify and identify the calculation of the data information digital parameter value of the random encrypted parameter.

9. According to the method described in claim 8, when the third numerical value is used to identify the random encryption parameter in the second verification data information parameter; the encrypted parameter information data number verification yields the identification of equal values for different particles, and for the equal values of different particles, it is characterized in that, When the data information parameters of each particle are equal, the data information numbers are calculated to verify various encrypted and decrypted data information parameters, and various mixed mechanism encrypted password parameter data information programs are obtained.

10. The method according to claim 9, wherein the fourth type of numerical value encryption is to verify that the information data of the first to the fourth different numerical values are calculated to obtain equal parameter information data numbers for verification and identification, and the calculated and identified data information numbers are used to obtain a mixed mechanism particle encryption private key. The mixed mechanism particle encryption private key is verified and identified according to the first to the fourth numerical values of the claim by a terahertz magnetic communication AIOT encryption device and an IOT interface device.

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