A trusted intelligent communication system and applications

Abstract

The application relates to a trusted intelligent communication system, which comprises an intelligent terminal, a communication base station, an information communication block chain and a trusted verification mechanism; the intelligent terminal, the communication base station, the information communication block chain and the trusted verification mechanism are electrically connected; the trusted verification mechanism comprises a mechanism main body and a trusted verification module; the trusted verification module compares and verifies the information communication watermark generated by the intelligent terminal and the intelligent terminal information communication dynamic characteristics generated by the communication base station through authorization, and verifies the authenticity of the information communication operation, which is a point-to-point instant communication life cycle, full-link and full-operation process security and trusted communication technology for realizing privacy protection.

Description

Technical Field

[0001] This invention relates to the field of information security technology, and in particular to a trusted intelligent communication system and application. Background Technology

[0002] Currently, smart communication terminals cannot achieve two-way, peer-to-peer, dynamic, and real-time verification of communication terminals. The verification process lacks credible and notarized verification, making current information communication verification vulnerable to hacker attacks or allowing hackers to act as hosts to attack others. This poses serious security and trust control risks. Smart communication terminal port uniqueness verification uses a three-way handshake and same-link verification, employing static verification, which fails to meet the requirements of dynamic trust verification. Dynamic verification typically separates the transmission link from the verification communication link, leading to latency and insecurity, directly resulting in unreliable verification results. Currently, the trust verification of smart communication terminal communication nodes relies on three-way handshake communication, and dynamic verification technology is immature. Dynamic verification methods such as SMS and email have serious security flaws, resulting in high verification costs and severe issues with anti-counterfeiting of trusted information across the entire link, hindering the application of artificial intelligence, information communication blockchain technology, and the reliable realization of digital assets. Furthermore, digital assets such as NFTs and legal digital currencies mounted on smart communication terminals face serious security and trust control problems, making them susceptible to theft and creating bottlenecks for the development of the digital economy.

[0003] There is a lack of native trusted watermarking technology for information communication in smart communication terminals. Smart communication terminals do not collect native trusted watermarks for information communication. There is a lack of trusted verification and evidence storage technologies and products for information in smart communication terminals. The communication and information of smart communication terminals cannot achieve trusted visualization and perceptible digital twins throughout the entire lifecycle and link operation. Digitalization such as NFTs and legal digital currencies cannot achieve secure and trusted control throughout the entire lifecycle.

[0004] There is a lack of technologies and products in intelligent communication terminals that enable the visualization and perception of trusted communication and trusted information products, which hinders the realization of perceptible convenience in the production, trading, storage, and pledging of digital assets. The services provided by smart communication terminals are typically information services. Digital information communication is a service industry. Since communication and information products are generally intangible, and service products are consumed over time and generally cannot be stored, their products are usually service processes, which are intangible. Digital information communication service products are invisible services. The unreliable presentation of verification, evidence storage, and auditing methods for existing communication service products hinders the development of trusted technologies and digital information communication service products. Evidence left on the dial pad of a mobile phone is usually call records, only showing the start and end times and the screen display numbers for incoming and outgoing calls. Effective and reliable verification, auditing, and evidence storage of the authenticity of the screen display numbers are not conducted, and real-time identification technology is not implemented, leading to serious negative impacts from online fraud. With the rapid development of big data, edge computing, information communication blockchain, artificial intelligence, and the digital economy, trusted technologies should further comply with national regulations for traditional communication and information technologies and products. However, existing communication and information products, information communication blockchain, and artificial intelligence products still rely on traditional communication technology approaches and products, making it difficult to meet society's requirements for anonymous, reliable traceability, and reliable real-time verification. There are difficulties in real-time verification of the reliability of communication, and technical challenges that real-time verification methods cannot solve.

[0005] There are currently gaps in existing methods for the reliable and real-time verification of digital assets throughout their entire lifecycle and across the entire chain in smart communication terminals. There is also a lack of technologies and products for the real-time storage of evidence in digital information communication and trusted digital processing, and for timely notification or early warning of the storage results to relevant institutions. These terminals cannot meet the trust requirements of a digital society. The reliable verification of digital assets by existing smart communication terminals using artificial intelligence products, information communication blockchain products, and other technologies typically employs non-universal verification schemes. These schemes are costly, have inconsistent algorithms, and face difficulties in judicial intervention and evidence collection in case of disputes. They lack scientific, reliable, real-time traceability, and absolute privacy protection technologies. Various forms of artificial intelligence lead to complex algorithms and traceability, further increasing application costs and making the operation and maintenance of public and private blockchains difficult. Data validity and security are severely challenged. While artificial intelligence has brought significant and far-reaching impacts to social construction and economic development, security issues such as data privacy, algorithmic bias, and technology abuse are also posing serious challenges to social governance and the intelligent transformation of industries. While secure, trustworthy, reliable, and scalable AI technologies can be used to build AI security algorithm platforms, it is still difficult to guarantee the security of data circulation links, including data sources, data transmission channels, data aggregation channels, and users. This makes it difficult to address issues such as "data silos" and "trust gaps" in data sharing and circulation, and to achieve the goal of data usability without visibility and the secure flow of data elements.

[0006] Current smart communication terminals lack low-cost, rapid, and reliable de-identification technologies, making it impossible to achieve end-to-end anonymization, reliable traceability, and de-identification / reconstruction of sensitive data in digital information communication data processing. Existing smart communication terminals exhibit strict spatiotemporal attributes in digital information communication. Current communication and information products lack reliable spatiotemporal data visualization products for evidence storage and reliable product verification. There are no low-cost, universal visualization technologies or products to achieve reliable evidence storage and immediate verification of the authenticity of communication and information products. Furthermore, the display of spatiotemporal data can lead to the leakage of privacy data, posing certain security risks and infringements. Currently, there is a lack of effective and rapid de-identification technologies for spatiotemporal data in digital information communication.

[0007] In the face of trusted technologies, smart communication terminals ensure the secure and reliable sharing of data among different entities. Computational methods for desensitizing and restoring privacy-protected data have become key technologies. However, the application of privacy-protecting data desensitization and homomorphic encryption / decryption technologies is progressing slowly. Faced with strict legal regulations governing privacy data and cross-border data transactions, big data applications based on privacy protection are struggling, and the severe information silo phenomenon makes implementation difficult. With the rapid development of big data, information and communication blockchain, artificial intelligence, and the digital economy, traditional smart communication terminals and information products should further comply with national regulations, achieving real-time desensitization of sensitive data. Data processing (including data collection, storage, use, processing, transmission, provision, publication, deletion, data interaction, data mapping, and data sharing) should effectively isolate sensitive data and provide reliable verification of the data processing process.

[0008] Therefore, there is an urgent need to collect native, trustworthy watermarks from the information communication of existing smart communication terminals. By employing collection, verification, desensitization, and desensitization restoration technologies, the native, trustworthy watermarks of smart communication terminals' information communication can be made perceptible throughout the entire lifecycle, link, and process of communication nodes, onboard software, data processing, information communication blockchain operations, and artificial intelligence. This will enable the anonymity, trustworthiness, traceability, uniqueness, and spatiotemporal dynamic characteristics of the native, trustworthy watermarks of smart communication terminals as a secondary certificate of operation. Using trustworthy real-time verification technology, the trustworthy visualization, perception, and controllability of communication nodes, onboard software, data processing, information communication blockchain, and artificial intelligence of smart communication terminals can be achieved, thus meeting society's demand for trustworthy and ethical product iterations in smart communication terminals. Summary of the Invention

[0009] The purpose of this invention is to provide a trusted intelligent communication terminal that generates a watermark for information communication by synchronizing with a communication network to achieve unique dynamic characteristics. This watermark enables anonymization, full lifecycle, end-to-end, and traceable trusted verification of information communication operations and digital assets on the information communication ports of intelligent communication terminals. This intelligent communication terminal is suitable for all communication terminals supporting IPv6 and can be used in telecommunications base stations, computers, mobile phones, cameras, photocopiers, fax machines, servers, wireless modems, cable TV set-top boxes, payment terminals, smart TVs, smart homes, smart access control systems, smart elevators, smart robots, industrial robots, industrial production lines, logistics equipment, smart refrigerators, smart meters, smart water meters, intelligent transportation control equipment, trusted information communication blockchain terminals, trusted artificial intelligence terminals, railway communications, traffic dispatching and command equipment, power communications, power dispatching equipment, aviation communications, aviation dispatching and command equipment, autonomous driving, digital legal tender service terminals, smart cars, NFT creation, trading, circulation, and other devices throughout their entire lifecycle. The verification system is established by telecommunications operators or authorized trusted third parties to verify the watermark for information communication operations on the intelligent communication terminal. This system comprises a trusted intelligent communication terminal, a complete system, and applications.

[0010] To achieve the above technical solution, the technical solution of the present invention is as follows: The trusted intelligent communication terminal of the present invention consists of four parts: intelligent terminal, communication base station, information communication blockchain, and trusted verification mechanism system.

[0011] Furthermore, the communication terminal includes a main body supporting IPv6, trusted communication nodes, and a watermark storage module. The communication nodes support IPv6 communication and generate traceable, unique, and dynamic temporal and spatial characteristics with the communication base station's dynamic feature recognition generator. The trusted communication nodes include trusted communication nodes supporting multiple standards and modes from different operators. The watermark storage module collects and physically isolates the intelligent communication terminal information communication watermark generated by the intelligent communication terminal, and implements trusted verification control over the storage, copying, deletion, mapping, transmission, and reading permissions of the intelligent communication terminal information communication watermark. The watermark storage module uploads the intelligent communication terminal information communication watermark generated by the intelligent communication terminal to the information communication watermark information communication blockchain, implementing unique dynamic characteristics as dynamic accounts, and the intelligent communication terminal information communication watermark as uploaded content.

[0012] Furthermore, the communication base station includes an IPv6-supporting communication base station main body, a dynamic feature recognition generator, and a dynamic feature storage module. The dynamic feature recognition generator identifies trusted communication nodes of the communication terminal and generates traceable, unique, and dynamic temporal and spatial features with the communication terminal. The dynamic feature storage module collects and physically isolates the dynamic features of the intelligent communication terminal information communication generated by the communication base station and the intelligent communication terminal, and implements trusted verification control on the permissions for storing, copying, deleting, mapping, transmitting, and reading the dynamic features of the intelligent communication terminal. The dynamic feature storage module uploads the generated dynamic features of the intelligent communication terminal information communication to the information communication watermark information communication blockchain, implementing the communication base station information communication watermark as the unique dynamic feature as the dynamic account, and the intelligent communication terminal information communication dynamic feature as the uploaded content.

[0013] Furthermore, the information and communication blockchain is a public data blockchain that supports unique dynamic and trusted data parsing of backup dynamic trusted features of all telecom operators based on the privacy parsing public protocol between smart communication terminals and telecom operators. It is compatible with the public and backup parsing data of all telecom operators of different standards; it supports the backup of information and communication watermarks of all smart communication terminals; the information and communication blockchain account implements one-time dynamic account, and the one-time dynamic account of the blockchain is a one-time trusted password for the information and communication operation record of the traceable real account of the blockchain.

[0014] Furthermore, the trusted verification mechanism system includes an organization body and a trusted verification module. The trusted verification module, through authorization, compares and verifies the information communication watermark generated by the smart communication terminal with the information communication dynamic features of the smart communication terminal generated by the communication base station. The comparison and verification methods include four types, which are combinations of the following two groups: The trusted verification module verification methods include any combination of the first and second groups (a total of four combinations) for comparison and verification: First group: The trusted verification module reads the communication terminal information communication watermark from the communication terminal watermark storage module and performs analysis of spatiotemporal data, the unique number of the information communication node, and the communication base station number; or the trusted verification module reads the information communication watermark information communication blockchain stored as a dynamic account for the smart communication terminal information communication watermark. Second group: The trusted verification module authorizes the reading of the communication terminal information communication watermark stored in the communication base station dynamic feature storage module and performs analysis of spatiotemporal data, the unique number of the information communication node, and the communication base station number; or the trusted verification module reads the information communication watermark information communication blockchain stored as a unique dynamic feature for the smart communication terminal information communication dynamic features stored as a dynamic account.

[0015] In practical use: When the information communication network starts operating, the smart terminal and the communication base station instantly generate unique dynamic characteristic data of the time and space of the continuous communication link between the smart terminal and the communication base station. This data is parseable and contains a unique identifier for the smart terminal's communication node and a unique identifier for the communication base station. Examples include IPv6 dynamic codes and the random characteristics of quantum states in quantum communication. Next, the smart terminal generates a watermark, which is stored in the smart terminal watermark storage module or uploaded to the information communication watermark blockchain using the unique dynamic characteristics of the communication node. The communication base station's dynamic characteristic generator identifies the trusted communication node of the communication terminal and generates unique dynamic characteristic data of the time and space of the continuous communication link between the smart terminal and the communication base station. This data is traceable, unique, non-repeating, and parseable for the communication node. According to reports, communication base stations implement trusted verification control over the permissions to store, copy, delete, map, transmit, and read the dynamic characteristics of smart communication terminals generated by communication base stations and smart communication terminals. They also collect and physically isolate the unique dynamic characteristic data of the time and space data of the traceable smart terminal and communication base station's continuous communication information link, which includes the unique identifiers of the smart terminal's communication node and the communication base station, in real time and store it in the dynamic characteristic storage module of the communication base station. Alternatively, the communication base station can use the unique dynamic characteristic data as a unique dynamic account to upload the unique dynamic characteristic parsing data of the smart communication terminal's information communication to the information communication watermark information communication blockchain.Furthermore, the verification agency system reads data and conducts comparison and trust verification of the read data: The trust verification module of the verification agency system, through authorization, reads the information communication watermark generated by the smart communication terminal (reading in two ways: one is directly reading the stored data of the smart communication terminal, and the other is reading through the information communication watermark blockchain). Simultaneously, it reads the information communication dynamic characteristics of the smart communication terminal generated by the communication base station (reading in two ways: one is directly reading the unique dynamic characteristic data of the time and space data of the continuous communication link between the smart terminal and the communication base station, which can be parsed by the unique number of the smart terminal communication node and the unique number of the communication base station; the other is reading the unique dynamic characteristic data uploaded by the communication base station, which uses the unique dynamic characteristic data as the unique dynamic account. The communication base station parses the unique dynamic characteristic data of the smart communication terminal's information communication, and the parsed data includes the unique number of the smart communication terminal communication node and the communication base station number, as well as the continuous communication time between the smart terminal communication node and the communication base station. The system verifies the spatial location of the smart communication terminal, the unique dynamic characteristics and continuous communication time of the data read by the verification agency system, and compares the data parsed by the communication base station, including the unique number of the smart communication terminal's communication node and the communication base station number, with the consistency of the continuous communication time between the smart communication terminal's communication node and the communication base station. According to the smart contract, the verification agency system determines the credibility of the smart terminal's information communication watermark verification result based on the comparison result within a time limit. If the verification agency system fails to read or obtain credible verification result data within the time limit stipulated in the smart contract, the system sends the reason for the verification failure to the notified party. The verification agency system sends auditory (telephone), visual (email, webpage, mobile APP page, fax, SMS, or 5G SMS), and tactile (vibration) notifications to authorized notified parties regarding the credible verification result of the smart terminal's information communication watermark. Finally, the notifier acknowledges the notification, and the smart communication terminal implements proactive and reliable security control based on the notifier's acknowledgement.

[0016] The present invention also discloses a native trusted watermark for the information communication link of a smart communication terminal, including the use of the trusted smart communication terminal described above.

[0017] The present invention also discloses a native trusted watermark for data processing and information communication, including the use of the trusted intelligent communication terminal described above.

[0018] This invention also discloses a native trusted watermark for intelligent software information communication, including the use of the trusted intelligent communication terminal described above.

[0019] The present invention also discloses a native trusted watermark for digital asset information communication, including the use of the trusted intelligent communication terminal described above.

[0020] The present invention also discloses a native trusted watermark for blockchain information communication, including the use of the trusted smart communication terminal described above.

[0021] The present invention also discloses a method for manufacturing a trusted NFT mobile camera smart communication terminal, including the use of the trusted smart communication terminal described above.

[0022] The present invention also discloses a trusted verification system, including the trusted intelligent communication terminal described above.

[0023] Compared with existing technologies, the present invention has the following beneficial effects: a trusted architecture for smart terminals, a smart terminal and communication network architecture, a smart terminal and digital asset architecture and trusted verification process, a design architecture for smart terminals and information communication blockchains and a trusted verification process for information communication blockchains; a design architecture for smart terminals and artificial intelligence and a trusted verification process for artificial intelligence; one-time dynamic passwords and one-time dynamic encrypted accounts, based on an agreed valid verification time, conduct time-limited valid trusted verification of unique dynamic data, protect privacy data, and ensure the trusted execution of smart contracts. Attached Figure Description

[0024] To further illustrate the various embodiments, the present invention provides accompanying drawings. These drawings are part of the disclosure of the present invention, primarily used to illustrate the embodiments and to explain the operating principles of the embodiments in conjunction with the relevant descriptions in the specification. With reference to these drawings, those skilled in the art should be able to understand other possible implementations and the advantages of the present invention. Components in the drawings are not drawn to scale, and similar component symbols are generally used to represent similar components.

[0025] Figure 1 This invention relates to the system architecture of a trusted intelligent communication terminal and a verification mechanism. Detailed Implementation

[0026] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0027] To enable those skilled in the art to better understand the present invention, the present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0028] See Figure 1 As shown, the trusted smart communication terminal of the present invention consists of four parts: a smart terminal, a communication base station, an information communication blockchain, and a trusted verification mechanism system.

[0029] Furthermore, the communication terminal includes a main body supporting IPv6, trusted communication nodes, and a watermark storage module. The communication nodes support IPv6 communication and generate traceable, unique, and dynamic temporal and spatial characteristics with the communication base station's dynamic feature recognition generator. The trusted communication nodes include trusted communication nodes supporting multiple standards and modes from different operators. The watermark storage module collects and physically isolates the intelligent communication terminal information communication watermark generated by the intelligent communication terminal, and implements trusted verification control over the storage, copying, deletion, mapping, transmission, and reading permissions of the intelligent communication terminal information communication watermark. The watermark storage module uploads the intelligent communication terminal information communication watermark generated by the intelligent communication terminal to the information communication watermark information communication blockchain, implementing unique dynamic characteristics as dynamic accounts, and the intelligent communication terminal information communication watermark as uploaded content.

[0030] Furthermore, the communication base station includes an IPv6-supporting communication base station main body, a dynamic feature recognition generator, and a dynamic feature storage module. The dynamic feature recognition generator identifies trusted communication nodes of the communication terminal and generates traceable, unique, and dynamic temporal and spatial features with the communication terminal. The dynamic feature storage module collects and physically isolates the dynamic features of the intelligent communication terminal information communication generated by the communication base station and the intelligent communication terminal, and implements trusted verification control on the permissions for storing, copying, deleting, mapping, transmitting, and reading the dynamic features of the intelligent communication terminal. The dynamic feature storage module uploads the generated dynamic features of the intelligent communication terminal information communication to the information communication watermark information communication blockchain, implementing the communication base station information communication watermark as the unique dynamic feature as the dynamic account, and the intelligent communication terminal information communication dynamic feature as the uploaded content.

[0031] Furthermore, the information and communication blockchain is a public data blockchain that supports unique dynamic and trusted data parsing of backup dynamic trusted features of all telecom operators based on the privacy parsing public protocol between smart communication terminals and telecom operators. It is compatible with the public and backup parsing data of all telecom operators of different standards; it supports the backup of information and communication watermarks of all smart communication terminals; the information and communication blockchain account implements one-time dynamic account, and the one-time dynamic account of the blockchain is a one-time trusted password for the information and communication operation record of the traceable real account of the blockchain.

[0032] Furthermore, the trusted verification mechanism system includes an organization body and a trusted verification module. The trusted verification module, through authorization, compares and verifies the information communication watermark generated by the smart communication terminal with the information communication dynamic features of the smart communication terminal generated by the communication base station. The comparison and verification methods include four types, which are combinations of the following two groups: The trusted verification module verification methods include any combination of the first and second groups (a total of four combinations) for comparison and verification: First group: The trusted verification module reads the communication terminal information communication watermark from the communication terminal watermark storage module and performs analysis of spatiotemporal data, the unique number of the information communication node, and the communication base station number; or the trusted verification module reads the information communication watermark information communication blockchain stored as a dynamic account for the smart communication terminal information communication watermark. Second group: The trusted verification module authorizes the reading of the communication terminal information communication watermark stored in the communication base station dynamic feature storage module and performs analysis of spatiotemporal data, the unique number of the information communication node, and the communication base station number; or the trusted verification module reads the information communication watermark information communication blockchain stored as a unique dynamic feature for the smart communication terminal information communication dynamic features stored as a dynamic account.

[0033] In practical use: When the information communication network starts operating, the smart terminal and the communication base station instantly generate unique dynamic characteristic data of the time and space of the continuous communication link between the smart terminal and the communication base station. This data is parseable and contains a unique identifier for the smart terminal's communication node and a unique identifier for the communication base station. Examples include IPv6 dynamic codes and the random characteristics of quantum states in quantum communication. Next, the smart terminal generates a watermark, which is stored in the smart terminal watermark storage module or uploaded to the information communication watermark blockchain using the unique dynamic characteristics of the communication node. The communication base station's dynamic characteristic generator identifies the trusted communication node of the communication terminal and generates unique dynamic characteristic data of the time and space of the continuous communication link between the smart terminal and the communication base station. This data is traceable, unique, non-repeating, and parseable for the communication node. According to reports, communication base stations implement trusted verification control over the permissions to store, copy, delete, map, transmit, and read the dynamic characteristics of smart communication terminals generated by communication base stations and smart communication terminals. They also collect and physically isolate the unique dynamic characteristic data of the time and space data of the traceable smart terminal and communication base station's continuous communication information link, which includes the unique identifiers of the smart terminal's communication node and the communication base station, in real time and store it in the dynamic characteristic storage module of the communication base station. Alternatively, the communication base station can use the unique dynamic characteristic data as a unique dynamic account to upload the unique dynamic characteristic parsing data of the smart communication terminal's information communication to the information communication watermark information communication blockchain.Furthermore, the verification agency system reads data and conducts comparison and trust verification of the read data: The trust verification module of the verification agency system, through authorization, reads the information communication watermark generated by the smart communication terminal (reading in two ways: one is directly reading the stored data of the smart communication terminal, and the other is reading through the information communication watermark blockchain). Simultaneously, it reads the information communication dynamic characteristics of the smart communication terminal generated by the communication base station (reading in two ways: one is directly reading the unique dynamic characteristic data of the time and space data of the continuous communication link between the smart terminal and the communication base station, which can be parsed by the unique number of the smart terminal communication node and the unique number of the communication base station; the other is reading the unique dynamic characteristic data uploaded by the communication base station, which uses the unique dynamic characteristic data as the unique dynamic account. The communication base station parses the unique dynamic characteristic data of the smart communication terminal's information communication, and the parsed data includes the unique number of the smart communication terminal communication node and the communication base station number, as well as the continuous communication time between the smart terminal communication node and the communication base station. The system verifies the spatial location of the smart communication terminal, the unique dynamic characteristics and continuous communication time of the data read by the verification agency system, and compares the data parsed by the communication base station, including the unique number of the smart communication terminal's communication node and the communication base station number, with the consistency of the continuous communication time between the smart communication terminal's communication node and the communication base station. According to the smart contract, the verification agency system determines the credibility of the smart terminal's information communication watermark verification result based on the comparison result within a time limit. If the verification agency system fails to read or obtain credible verification result data within the time limit stipulated in the smart contract, the system sends the reason for the verification failure to the notified party. The verification agency system sends auditory (telephone), visual (email, webpage, mobile APP page, fax, SMS, or 5G SMS), and tactile (vibration) notifications to authorized notified parties regarding the credible verification result of the smart terminal's information communication watermark. Finally, the notifier acknowledges the notification, and the smart communication terminal implements proactive and reliable security control based on the notifier's acknowledgement.

[0034] A method for processing trusted watermarks in digital file communication is characterized in that, during communication transmission between digital file communication nodes, a new file hash value is generated between the communication nodes using a combination of a trusted watermark for digital information communication generated by the trusted intelligent communication terminal described above and a hash value of the digital file, or between the digital file and the communication node using a combination of any of the trusted watermarks for digital information communication generated by the trusted intelligent communication terminal described above; the digital file communication comprises one or more of the following: digital signal files, data units, digital document files, digital image files, digital video files, digital voice files, or dialogue text, digital video files, and digital voice files.

[0035] A native trusted watermark for the information communication link of an intelligent communication terminal is disclosed. The aforementioned trusted intelligent communication terminal enables secure information transmission between communication nodes. The starting and ending information communication nodes constitute an information communication link. The native trusted watermark of the starting communication node and the native watermark of the ending communication node are combined to obtain the information communication link. Using the aforementioned trusted intelligent communication terminal, the native watermark of the information communication link between the starting and ending information communication nodes within the intelligent communication terminal is collected, recorded, stored, transmitted, and evidenced throughout the entire lifecycle of the information communication operation. This native watermark is a trusted native watermark for the intelligent communication terminal's information communication link.

[0036] The intelligent communication terminal collects, records, stores, transmits, and preserves the trusted watermark of the native communication link throughout the entire lifecycle of communication operations at communication nodes. This serves as a trusted credential for determining the secure and reliable information communication transmission operations between internal communication nodes and between the intelligent terminal and external communication nodes. By verifying the trusted watermark of the native communication link of the intelligent communication terminal against the dynamic spatiotemporal characteristics stored in the communication network, the authenticity of the secure and reliable information communication transmission operations conducted by the intelligent communication terminal along the communication link formed by the starting and ending communication nodes can be determined.

[0037] A native trusted watermark for blockchain information communication is provided. The communication terminal includes blockchain user terminals, blockchain cloud, blockchain user server, blockchain user mobile terminal, computer, blockchain router, blockchain base station, etc. The blockchain user terminal communication terminal is equipped with blockchain software and blockchain browser. The communication terminals communicate with each other as described above using trusted smart communication terminals. This constitutes a native trusted watermark for blockchain information communication generated between the blockchain user terminal communication terminal and the blockchain server, between blockchain servers, between blockchain software, and throughout the entire lifecycle of blockchain digital assets. The native trusted watermark for information communication generated between the blockchain software, the native trusted watermark for information communication links generated by the blockchain smart communication terminal, and the native trusted watermark for information communication of blockchain digital assets are combined to form a native trusted watermark for blockchain information communication.

[0038] By using the trusted watermark of the native information communication link between smart communication terminals and conducting IPv6 dynamic code and IPv6+ dynamic code verification with telecommunications companies or telecommunications companies' authorized verification agencies, the authenticity of the information communication operation of blockchain communication terminals can be verified.

[0039] Among them, the blockchain data storage and blockchain node data broadcasting adopt the aforementioned trusted intelligent communication terminal; and based on the trusted watermark of the native information communication link generated by the blockchain data storage and blockchain node data broadcasting operations, the IPv6 dynamic code and IPv6+ dynamic code verification can be carried out with the telecommunications company or the telecommunications company's authorized verification agency to verify the trustworthiness and authenticity of the blockchain data storage and blockchain node data broadcasting operations.

[0040] By using the native trusted watermark of blockchain information communication and conducting IPv6 dynamic code and IPv6+ dynamic code verification with telecommunications companies or their authorized verification agencies, the authenticity of information communication, data transmission, and broadcasting operations corresponding to blockchain software information communication throughout the entire lifecycle of blockchain user terminals, blockchain cloud, blockchain user servers, blockchain user mobile terminals, computers, blockchain routers, blockchain base stations, blockchain software, blockchain routers, blockchain digital assets, and blockchain digital assets can be verified.

[0041] A mobile camera-based smart communication terminal for creating trusted NFTs includes a smart communication terminal equipped with a camera, sound sensor, speaker, taste sensor, and skin sensor. When communicating using the aforementioned trusted smart communication terminal, communication is conducted between the communication node smart communication terminal and a communication base station. This mobile camera-based smart communication terminal for creating trusted NFTs is equipped with intelligent software that uses the visual sensor, sound sensor, taste sensor, and speaker hardware, along with an input / output module, to collect sound, drawings, animations, images, photos, audio, video, taste analysis files, and skin analysis files for editing and creating NFT works. The intelligent software generates a native trusted watermark function for the entire lifecycle information communication during the NFT creation process. The mobile camera-based smart communication terminal for creating trusted NFTs, equipped with NFT creation intelligent software, enables the creation of photographs, drawings, image editing, photo editing, audio production, video production, taste analysis file production, and skin analysis file production. The NFT creation lifecycle includes the automatic activation and restart of the aforementioned trusted smart communication terminal for creating trusted NFTs via IPv6 cellular communication. This forms a native trusted watermark for the entire lifecycle of NFT creation, encompassing the collection, editing, and creation of NFT works from drawings, animations, images, photos, videos, gustatory analysis files, and dermal analysis files. The trusted NFT creation mobile camera smart communication terminal is configured and stored as a trusted attachment to the created NFT file, and uploaded to the NFT blockchain data block via blockchain communication. By collecting IPv6 dynamic codes and IPv6+ dynamic codes from the trusted NFT creation mobile camera smart communication terminal and conducting verification with telecommunications companies or authorized verification agencies, the authenticity of the NFT creation work created by the trusted NFT creation mobile camera smart communication terminal can be verified.

[0042] A data processing method for anonymizing, traceable, and universally trusted real-time data desensitization is disclosed. The method involves a smart terminal storing sensitive data, communicating with the desensitized smart terminal using the aforementioned communication node to perform desensitization operations, and generating a unique, trusted, real-time data desensitization data processing identifier pointer. A real-time trusted restoration method for anonymized, traceable, and universally trusted real-time data desensitization is also disclosed. The method is characterized in that the smart terminal storing desensitized data communicates with the smart terminal using the aforementioned trusted smart communication node to perform desensitized data restoration operations, generating a unique, trusted, real-time desensitized data restoration processing identifier pointer for the smart terminal storing the desensitized data, thereby enabling real-time restoration of anonymized, traceable, and desensitized data from the smart terminal storing the desensitized data.

[0043] Based on the above embodiments, the trusted communication between mobile terminal A and mobile terminal B is as follows.

[0044] The first step is to initiate monitoring and control: the trusted monitoring software continuously monitors the communication link between mobile terminal A and mobile terminal B and controls the communication between mobile terminal A and mobile terminal B according to the trusted communication protocol between the two parties.

[0045] The second step is to initiate verification communication and perform trusted verification.

[0046] The monitoring software initiates cellular communication between mobile terminal A and mobile terminal B according to a trusted communication protocol to conduct verification communication.

[0047] Mobile terminal A, wirelessly connected to the cellular base station corresponding to mobile terminal A. Base station A includes the MSc(A) communication registration authority (please provide the full name of MSc). Similarly, mobile terminal B.

[0048] The trusted monitoring software conducts verification communication between mobile terminal A and mobile terminal B according to the trusted communication verification protocol. The verification agency performs a trusted verification of the consistency between the IPv6 codes (IPv6A, IPv6B) exchanged between mobile terminal A and mobile terminal B and the IPv6A and IPv6B codes distributed to the mobile terminals by the communication base stations when the mobile phone numbers are actually registered at their respective mobile base stations MSc (MSc(A) and MSc(B)). If the port trusted verification fails, the monitoring software terminates the communication between mobile terminal A and mobile terminal B.

[0049] The third step, trusted communication:

[0050] Once the port trust verification is successful, the monitoring software initiates trusted communication between mobile terminal A and mobile terminal B and monitors their communication.

[0051] Step 4: Communication watermarking evidence preservation:

[0052] The monitoring software generates a trusted communication watermark for the continuous trusted communication between mobile terminal A and mobile terminal B by combining the IPv6 codes (new IPv6A and new IPv6B) distributed by their respective communication base stations after MSC registration during trusted communication. This trusted communication watermark is then stored on a trusted communication evidence storage server.

[0053] Furthermore, more detailed usage records are already described in Chinese patent CN2023101927841, and will not be elaborated here.

[0054] The above description is merely an embodiment of the present invention and does not limit the patent scope of the present invention. Any equivalent structural or procedural transformations made based on the content of the present invention's specification and drawings, or direct or indirect applications in other related technical fields, are similarly included within the patent protection scope of the present invention.

Claims

1. A trusted intelligent communication system, characterized in that: It includes smart terminals, communication base stations, information and communication blockchains, and trusted verification institutions; the smart terminals, communication base stations, information and communication blockchains, and trusted verification institutions are interconnected; the trusted verification institution includes an institution body and a trusted verification module; The trusted verification module compares and verifies the authenticity of the information communication operation by authorizing the comparison between the information communication watermark generated by the smart terminal and the information communication dynamic features of the smart terminal generated by the communication base station. Specifically, the smart terminal generates the information communication watermark and stores it in the smart terminal watermark storage module. The communication base station generates unique dynamic feature data of the time and space of the information communication link between the traceable smart terminal and the communication base station, which is a unique identifier for the smart terminal communication node and a unique identifier for the communication base station. Using this unique dynamic feature data as a unique dynamic account, the base station uploads the unique dynamic feature parsing data of the smart terminal's information communication to the information communication watermark blockchain. A trusted verification institution reads the data and performs comparison and trusted verification: the trusted verification module of the trusted verification institution, upon authorization, reads the information communication watermark generated by the smart terminal stored in the smart terminal watermark storage module; simultaneously, it reads the unique dynamic feature parsing data of the smart terminal's information communication uploaded by the communication base station through the information communication watermark blockchain, using the unique dynamic feature data as a unique dynamic account.

2. The trusted intelligent communication system as described in claim 1, characterized in that: The aforementioned information and communication blockchain is a public data blockchain that supports unique dynamic and trusted data parsing of backup dynamic trusted features of all telecom operators based on the privacy parsing public protocol between smart terminals and telecom operators. It is compatible with the public and backup parsing data of all telecom operators of different standards. It supports the backup of information communication watermarks on all smart terminals; the information communication blockchain account implements a one-time dynamic account, which is a one-time trusted password for the information communication operation record of the blockchain traceable real account.

3. The trusted intelligent communication system as described in claim 1, characterized in that: The smart terminal includes a main body of the smart terminal, a communication node, and a trusted watermark storage module of the smart terminal that are electrically connected to each other.

4. The trusted intelligent communication system as described in claim 1, characterized in that: The smart terminal adopts a trusted NFT mobile camera smart terminal.

5. A native trusted watermark for information communication links in intelligent communication terminals, characterized in that: It is generated using the trusted intelligent communication system described in any one of claims 1 to 4.

6. A native trusted watermark for data processing and information communication, characterized in that: It is generated using the trusted intelligent communication system described in any one of claims 1 to 4.

7. A natively trusted watermark for intelligent software information communication, characterized in that: It is generated using the trusted intelligent communication system described in any one of claims 1 to 4.

8. A native trusted watermark for digital asset information communication, characterized in that: It is generated using the trusted intelligent communication system described in any one of claims 1 to 4.

9. A native trusted watermark for blockchain information communication, characterized in that: It is generated using the trusted intelligent communication system described in any one of claims 1 to 4.

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