Future code / FN code root server platform system and method based on future network / FN and OV overlapping multiplexing

Abstract

The invention provides a future code / FN code root server platform system and method based on future network / FN and OV overlapping multiplexing, and belongs to the technical field of future network, digital economy and Internet of Things identification. Aiming at the defects that the existing global anti-counterfeiting traceability code cannot realize cross-system and cross-boundary intercommunication, lacks a sovereign equal architecture and is weak in anti-counterfeiting capability, the invention provides a future network (FN) static IP address as a future code / FN code. According to the system, through a future code / FN code root server platform system, autonomous control and interconnection of anti-counterfeiting traceability codes of all countries are realized, so that any global smart phone terminal can be accessed and verified through direct code scanning by a browser. According to the system, OV overlapping multiplexing provides high-spectral-efficiency wireless access for massive terminals, and provides high-quality data transmission through a future network. According to the invention, a new-generation global identifier, communication infrastructure and future network space resource which have the advantages of anti-counterfeiting traceability, safety, high efficiency, equal sovereignty and natural intercommunication of future codes / FN codes is constructed.

Description

Technical Field

[0001] This invention relates to the fields of future network architecture, wireless communication, information coding, global resource allocation and distributed system technology, specifically to a root server platform system and implementation method that integrates the deterministic service capabilities of Future Network (FN), Overlapped Multiplexing (OvXDM) high-spectral-efficiency transmission technology, a novel "Future Code" (FN code) identification system, and the ability to allocate global coding resources sovereignly and equally. Background Technology

[0002] With the acceleration of Industry 4.0, the Internet of Things, the digital economy, digital twins, and the integration of global supply chains, the unique, reliable, and traceable identification and interconnection of goods have become a crucial foundation. However, existing global traceability coding systems, including barcodes, QR codes, RFID, EPC codes, and even Internet IPv4 / v6 addresses, all have insurmountable common defects, making it difficult to achieve "natural interoperability" and large-scale application across systems, platforms, industries, and national borders.

[0003] 1. Fundamental interoperability barriers exist in the technical architecture. The vast majority of existing codes are not natively resolvable addresses on the internet, and their identification heavily relies on dedicated readers or specific applications (Apps). For example, when consumers scan a product's QR code, they must rely on a specific App for parsing; they cannot directly access it through a globally unified internet protocol like accessing a website. This creates a natural technical barrier, causing the "Internet of Everything" to evolve into countless "platform silos."

[0004] 2. The coding system lacks a framework for sovereign equality and benefit sharing. The management rights, number segment allocation rights, and potential revenues of existing mainstream coding systems (such as EPC and mainstream IoT identifiers) are often concentrated in the hands of a few non-profit organizations or commercial entities. This fails to respect and guarantee, at the infrastructure level, the equal management, allocation, revenue, and pricing rights of each sovereign nation over the coding resources circulating within its territory. This leads to fundamental questions and obstacles regarding national network sovereignty and data security during globalization, making it difficult to reach an international consensus.

[0005] 3. Bottlenecks exist in capacity, cost, and ease of verification. IPv4 addresses are running out; while IPv6 addresses have a large capacity, they still face limitations and difficulties in compatibility with existing complex encoding systems (such as composite encodings containing information about country / industry / manufacturer), and their allocation and management models do not change the network sovereignty and security dilemma. At the same time, dedicated verification equipment or software increases application costs, hindering the widespread adoption of self-verification for low-value goods and consumers.

[0006] 4. Weak anti-counterfeiting and trust mechanisms. Existing codes are easily physically copied, and verification entry points (such as the URL pointed to by the QR code) can be hijacked or counterfeited, leading to a trust crisis of "genuine codes for fake goods" or "fake codes for genuine websites." Consumers lack convenient and reliable self-verification methods that do not require pre-installed software.

[0007] 5. Therefore, it is urgent to propose a completely new technical solution to fundamentally solve the above-mentioned systemic defects. Summary of the Invention

[0008] (a) Purpose of the invention.

[0009] The purpose of this invention is to fundamentally solve the common defects of the aforementioned global source coding systems and provide a Future Code (FN code) root server platform system and method based on Future Network and OV overlapped multiplexing. Its core idea is to elevate "source coding" to "Future Network static IP address (FN code)," and govern, resolve, and schedule policies through a root server platform with the ability to allocate global coding resources sovereignly and equally, thus giving it inherent global Internet accessibility. Simultaneously, it combines high-spectral-efficiency OV overlapped multiplexing (OvXDM) transmission technology to provide efficient wireless access capabilities for massive amounts of FN code data.

[0010] (II) System Architecture Scheme.

[0011] To achieve the above objectives, the present invention adopts the following technical solution.

[0012] 1. This invention provides a root server platform system for Future Code based on the overlapping and multiplexing of Future Network and OV. The system includes: an FN code application terminal, an FN-OV intelligent access node, a Future Code root server platform, and a Future Network deterministic core network.

[0013] FN Code Application Terminal: This terminal embeds an FN code engine that generates globally unique FN codes for entities or digital objects based on authorizations and rules obtained from root server platforms or national agencies. Essentially, the FN code is a static IP address with a new architecture conforming to future network protocols. Its length is scalable (basic length 256 bits, expandable to 2048 bits), and its top-level encoding reflects national / regional sovereignty (e.g., "86." for China). The terminal can attach a Public Key Infrastructure (PKI)-based digital signature to the FN code, ensuring its uniqueness and immutability.

[0014] 2. FN-OV intelligent access node.

[0015] Deployed at the network edge (such as at cross-border ports, industrial parks, and base stations), it serves as a bridge connecting the physical world's FN code with the digital network, and comprises three core units.

[0016] 2.1 FN Code Authentication Preprocessing Unit: Performs format verification and initial digital signature verification on the data containing FN codes initiated by the terminal, and acts as a proxy to send verification and parsing requests to the root server platform.

[0017] 2.2 Adaptive OV Overlapping Multiplexing (OvXDM) Transceiver: Based on the wireless transmission strategy template issued by the root server platform and real-time channel status feedback, it dynamically selects the optimal overlap domain (time, frequency, space, code) and parameters (such as overlap coefficient K) to achieve high spectral efficiency and high reliability physical layer transmission for massive FN code terminal access.

[0018] 2.3 Policy Execution and Interface Unit: Executes access control and Quality of Service (QoS) policies issued by the root server, encapsulates data according to future network protocols, and interacts with the future network deterministic core network.

[0019] 3. Future Code Root Server Platform (System Core).

[0020] Adopting a distributed architecture, it serves as the "brain" and trust anchor of the global FN code system. Its core innovation lies in the sovereign and equal allocation and governance functions of global coding resources, specifically including five modules.

[0021] 3.1 Global Resource Allocation and Sovereignty Management Module: Based on a comprehensive factor model including population, land area, GDP, administrative division level, and future development (land, sea, air, and space), this module uses a predefined international consultation mechanism to fairly and reasonably pre-allocate the top-level FN code segments globally to various sovereign states or regions (e.g., China obtains the "86." segment, and Germany obtains the "de." segment). This module ensures that each country enjoys full sovereignty, management rights, allocation rights, revenue rights, and pricing rights over all FN code resources within its own segment, and reserves independent coding capacity for new fields such as the deep sea and outer space.

[0022] 3.2 FN Code Root Database: Stores the mapping relationship between all registered FN codes and country / region code segments worldwide, core metadata (owner, object type, lifecycle, cross-border attributes) and verification public keys, and supports millisecond-level query response.

[0023] 3.3 Encoding Rules and Security Engine: Manages the FN code generation algorithm, geometric structure representation specifications (compatible with and enhanced by existing QR code carriers), cryptographic system, and digital certificate issuance to ensure the security of the entire FN code generation, registration, and verification process.

[0024] 3.4 Network Policy Library: Based on the country, industry, and application scenario of the FN code (such as cold chain pharmaceuticals, anti-counterfeiting of luxury goods, and industrial control), generate corresponding network service quality policies (such as low latency and high bandwidth) and physical layer transmission suggestion policies (such as OV overlapping multiplexing mode and modulation coding scheme).

[0025] 3.5 Global Resolution and Routing Engine: Receives FN code resolution requests from global access nodes, determines the target country and routing path by querying the global resource allocation and sovereignty management module and the FN code root library, and calls the network policy library to generate collaborative policies and distribute them to relevant nodes (such as access nodes and core network).

[0026] 4. Deterministic core network for future networks.

[0027] Built upon technologies such as computing power routing and Time-Sensitive Networking (TSN), it provides data transmission channels with guaranteed bandwidth, latency, and jitter. Based on policies issued by the root server platform or access nodes, it establishes end-to-end deterministic transmission paths for high-priority FN code services (such as remote device control and real-time traceability verification), ensuring low latency (≤50ms) and high reliability (packet loss rate ≤10⁻) for cross-border data transmission. 6 ).

[0028] 5. System connection relationships.

[0029] The FN code application terminal and the FN-OV smart access node are connected via a wireless link (5G / 6G, OV dedicated frequency band); both the FN-OV smart access node and the future code root server platform are connected to the future network deterministic core network; the future code root server platform and the FN-OV smart access node (200) realize policy interaction and command issuance through the control channel.

[0030] (III) Methods and Schemes.

[0031] This invention provides a future code transmission and parsing method based on the above system, including a global registration and sovereignty allocation process for FN codes, a global natural interoperability and verification process for FN codes, and a high spectral efficiency wireless access process.

[0032] 1. FN Code Global Registration and Sovereign Allocation Process.

[0033] S11: At the international level, the global resource allocation and sovereignty management module of the future code root server platform will pre-allocate the top-level FN code segments to participating countries based on a comprehensive factor model and international negotiation agreements.

[0034] S12: At the national level, after obtaining the number range, the national management agency establishes a national FN code registration agency, formulates domestic allocation rules, and allocates sub-number ranges or specific FN codes and supporting keys to domestic end users (enterprises and individuals).

[0035] S13: End users obtain a unique FN code and corresponding password materials through their domestic registration authority, complete the "one item, one code" binding and registration with a specific physical or digital object, and synchronize the registration information to the global FN code root database.

[0036] 2. FN Code Global Interoperability and Verification Process (Taking Cross-border Commodity Verification as an Example).

[0037] S21: Initiate verification: A U.S. consumer purchases a product made in China with an FN code printed on the packaging (physical form of a graphic compatible with universal QR codes, encoded as "fn: / / 86.xxx.xxx").

[0038] S22: Natural Recognition and Request Initiation: Consumers use their smartphone's universal camera to scan the FN code. The phone's operating system automatically recognizes it as a future web address and launches a universal browser (such as Chrome or Safari) to initiate an HTTP / HTTPS query request.

[0039] S23: Global Resolution and Routing: The request reaches the global resolution and routing engine of the future code root server platform via the public Internet. The engine resolves the FN code prefix "86." to identify its origin in China and routes the request to an authoritative tracing server within China.

[0040] S24: Policy Distribution and Path Establishment: The root server platform generates an optimization policy based on the business type (consumer tracing), distributes it to the local FN-OV smart access nodes in the United States and access nodes in China, and triggers the future network deterministic core network to establish a low-latency cross-border transmission path.

[0041] S25: Trusted Data Return and Display: The authoritative traceability server in China retrieves the full lifecycle traceability information (production, logistics, quality inspection, customs clearance) bound to the FN code, adds a digital signature, and returns it through an optimized path. After the signature is verified by the local access node in the United States, the trusted traceability information is displayed on the consumer's mobile phone browser.

[0042] 3. High-spectrum-efficiency wireless access process (applicable to data reporting by FN code terminals).

[0043] 3.1 Massive factory sensors (FN code application terminals) periodically report data such as temperature and vibration, and send data packets carrying FN code identifiers to nearby FN-OV smart access nodes via wireless links.

[0044] 3.2 The adaptive OV overlapping multiplexing transceiver of the FN-OV intelligent access node dynamically selects overlapping time division multiplexing (OvTDM) or overlapping frequency division multiplexing (OvFDM) mode based on the real-time channel congestion status, data priority, and the strategy pre-issued by the root server platform.

[0045] 3.3 By using carefully designed overlapping waveforms, more data symbols can be transmitted within the same bandwidth, improving spectral efficiency by 30%-50% compared to traditional technologies, enabling massive concurrent access from terminals.

[0046] 3.4 After the data is aggregated and processed at the access node, it is uploaded to the cloud IoT platform for analysis and application through the reliable transmission channel of the future network deterministic core network.

[0047] (iv) Beneficial effects.

[0048] The present invention has the following beneficial effects.

[0049] 1. Pioneering the "Code as Sovereign URL" paradigm to achieve natural global interoperability: FN codes, as future static IP addresses, can be natively recognized and accessed by global internet infrastructure and smartphones, completely eliminating dependence on specific apps, breaking down "platform silos," and achieving cross-border verification of "scan and access globally."

[0050] 2. Construct a new global coding governance system based on sovereign equality and shared benefits: By linking core coding resources with national sovereignty through the global resource allocation module of the root server platform, the system can guarantee the complete management and benefit rights of each country over its own code segments, solve the problem of sovereignty imbalance in the existing system, and lay the foundation for globalization.

[0051] 3. Provides a high-capacity, high-security, and low-cost identification solution: The scalable encoding length starting from 256 bits provides a near-infinite identification space; PKI-based digital signatures ensure that the encoding is uncopyable and the verification is tamper-proof; and verification is completed using the existing Internet and smartphones, significantly reducing the cost of terminal deployment and use.

[0052] 4. Achieve intelligent communication assurance through cross-layer integration: Transform the application semantics of FN codes into a collaborative strategy across the network layer (future network core network) and the physical layer (OV overlap and reuse) to meet the complex needs of massive connectivity and high-quality communication in the era of the Internet of Everything. Attached Figure Description

[0053] Figure 1This diagram illustrates the overall architecture and global sovereignty allocation of the Future Code Root Server Platform system. Its main contents are explained below: This diagram showcases the overall system architecture and core innovations—Global Sovereign Allocation of FN Codes: ① Future Network Deterministic Core Network: As the underlying "data high-speed rail," it provides end-to-end deterministic transmission, connecting globally distributed nodes; ② Future Code Root Server Platform: The core hub of the system, prominently displaying the "Global Resource Allocation Map," clearly marking the sovereign number segments of various countries (e.g., China 86.xxx) and the reserved number segments for deep sea / space (space.xxx); ③ FN-OV Smart Access Nodes: Distributed at the network edge, connecting FN code application terminals and the core network to achieve high-spectrum efficiency wireless access; ④ FN Code Application Terminals: Including product labels, industrial sensors, smartphones, etc., generating or parsing FN codes; ⑤ Process Diagram: The query request initiated by the consumer scanning the code serves as the parsing and routing instruction for the root server platform, and the reliable data returned by the traceability server intuitively demonstrates the entire cross-border verification process.

[0054] Figure 2 This diagram illustrates the internal functional modules of the future code root server platform. The main contents are explained as follows: This diagram reveals the internal structure and module collaboration relationships of the future code root server platform.

[0055] Figure 3 This diagram illustrates the entire process of global registration, communication, and verification of FN codes. The main contents are explained as follows: This diagram shows the two core stages, sovereign allocation registration and global interoperability verification, in chronological order. Detailed Implementation

[0056] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that the following embodiments are only for explaining the invention and are not intended to limit the invention.

[0057] Example 1: Cross-border anti-counterfeiting and traceability of high-end liquor.

[0058] 1. FN Code Allocation and Activation: A Chinese liquor group obtains FN codes in the "86.xxx" range from the national FN code management agency in China. On the production line, each bottle of liquor is assigned a unique FN code (such as "fn: / / 86.1234.5678.90"), which is linked to the liquor product information (production batch, aging year, place of origin) and attached with the company's digital signature. The FN code is then used to generate a QR code which is affixed to the bottle cap, and the registration information is synchronized to the global FN code root database.

[0059] 2. Consumer verification: After the liquor is exported to France, French consumers use their mobile phone cameras to scan the FN code on the bottle cap. The mobile phone automatically recognizes the code as a website address and opens a browser to initiate a request.

[0060] 3. Global Resolution and Data Return: After preprocessing by the local FN-OV smart access node in France, the request is sent to the Future Code Root server platform. The platform resolves the "86." number segment and routes it to the traceability server of the China Baijiu Group. The traceability server returns a digitally signed traceability data. Phase One: Global Sovereignty Allocation and National Registration (Left Swimlane): This phase sequentially demonstrates the sovereignty transfer process: international agreement allocation of number segments → national agency allocation of FN codes → end-user binding and registration. Phase Two: Cross-border Goods Natural Verification Process (Right Swimlane): This phase details the complete chain: US consumer scans the code → request resolution → routing to the Chinese server → return of trusted data, annotating the technical actions at each stage (such as signature verification and path optimization). Figure 3 Source information (production records, logistics trajectory, customs inspection report) is transmitted to the consumer terminal with low latency via the Future Network's deterministic core network, and the browser displays a traceability page with an official seal.

[0061] 4. Implementation results: Consumers can complete anti-counterfeiting verification without downloading a dedicated app. The data is encrypted and tamper-proof throughout the process. The liquor group retains control of the data, and all query traffic is directed to domestic servers, effectively combating cross-border counterfeiting.

[0062] Example 2: Predictive maintenance of equipment in globalized factories.

[0063] 1. Equipment Coding and Access: A multinational chemical group assigned FN codes ("fn: / / de.001" for Germany, "fn: / / 86.001" for China, and "fn: / / br.001" for Brazil) to the pump and valve equipment in its factories in Germany, China, and Brazil. The equipment has a built-in FN code terminal module and accesses the network through the FN-OV smart access node in the factory.

[0064] 2. Efficient data transmission: The equipment collects vibration and temperature data in real time. The access node uses OvFDM mode (overlap coefficient K=2) for data transmission, which improves the spectrum efficiency by 30% and enables concurrent access of 50,000 devices per square kilometer.

[0065] 3. Global Monitoring and Early Warning: Data is aggregated to the predictive maintenance platform at the European headquarters via the future network's deterministic core network (latency ≤20ms). The platform identifies the country and type of equipment based on the FN code and calls the corresponding analysis model. When the FN code data of a pump or valve in the Chinese factory shows abnormal vibration, the platform automatically generates a Chinese alarm work order and sends it to the maintenance terminal in the Chinese factory.

[0066] 4. Implementation Results: The unified FN code identifier solves the problem of incompatibility between cross-border equipment codes, OV overlapping and reuse ensures the efficiency of massive data transmission, the future network realizes real-time global data synchronization, and the accuracy of equipment fault early warning is improved by 90%.

Claims

1. A root server platform system based on Future Network / FN and OV overlapping and multiplexing Future Code / FN code, characterized in that, include: 1.1 FN code application terminal, used to generate or parse globally unique future codes (FN codes) according to authorization rules. The FN code is a static IP address that conforms to the future network protocol, and its top-level code segment contains the national / regional sovereignty identifier. 1.2 FN-OV intelligent access nodes are deployed at the network edge to perform authentication preprocessing and policy execution on FN code data, and to use adaptive OV overlap multiplexing technology for high-spectral-efficiency physical layer transmission. 1.3 The root server platform of FutureCode serves as the core management hub of the system, used for the sovereign and equal allocation, registration and parsing, policy generation and distribution of global FN code resources; 1.4 Future network deterministic core network, used to provide deterministic end-to-end transmission paths for FN code data streams according to policies; 1.5 The FN code application terminal is wirelessly connected to the FN-OV smart access node. The FN-OV smart access node and the root server platform of the future code are connected to the future network deterministic core network. The root server platform of the future code is communicatively connected to the FN-OV smart access node for policy interaction.

2. The system according to claim 1, characterized in that, The FN code application terminal has an embedded FN code engine. This engine generates FN codes with digital signatures for entities or digital objects based on the encoding rules and key materials obtained from the root server platform or national agency of the future code. The basic encoding length of the FN code is 256 bits in binary or decimal, and can be expanded to 2048 bits.

3. The system according to claim 1, characterized in that, The FN-OV intelligent access node includes: 3.1 FN code authentication preprocessing unit, used to perform format verification and preliminary verification on the received FN code data, and to send a parsing and policy request to the future code root server platform; 3.2 Adaptive OV overlapped multiplexing transceiver, used to dynamically adjust the overlap field, overlap coefficient, and modulation and coding scheme parameters according to the physical layer suggestion strategy received from the future code root server platform and real-time channel state feedback, so as to achieve high spectral efficiency wireless transmission; The policy execution and interface unit is used to execute the network service quality policy and access control policy issued from the future code root server platform, and to manage the communication interface with the future network deterministic core network.

4. The system according to claim 1, characterized in that, The future code root server platform includes: 4.1 Global Resource Allocation and Sovereignty Management Module, used to pre-allocate the top-level segment resources of global FN codes to participating sovereign states or regions based on a preset comprehensive factor model and international negotiation agreements; 4.2 The root library of FN codes is used to store the mapping relationship between globally registered FN codes and country / region code segments, core metadata, and verification public keys; 4.3 Encoding rules and security engine, used to manage and distribute FN code generation algorithms, geometric structure representation specifications, and public key infrastructure systems; 4.4 Network policy library, used to generate corresponding network service quality policy templates and physical layer transmission suggestion policy templates based on the country, industry, and application scenario attributes associated with the FN code; 4.5 Global parsing and routing engine, used to receive and process FN code parsing requests from access nodes, determine the target country and routing path by querying the global resource allocation and sovereignty management module and the FN code root library, and call the network policy library to generate collaborative policies and send them to relevant nodes.

5. The system according to claim 1, characterized in that, The future network deterministic core network is a network built on computing power routing and time-sensitive networking technology, which can provide deterministic data transmission services with bounded guarantees of bandwidth, latency, and jitter according to the service level agreement requirements of the services.

6. A method for transmitting and parsing future codes based on the system described in any one of claims 1-5, characterized in that, This includes the sovereign allocation registration process and the global interoperability verification process: The sovereign allocation registration process includes: S11: The global resource allocation and sovereignty management module of the future code root server platform will pre-allocate the top-level FN code segment to each sovereign state in accordance with international agreements; S12: After obtaining the number segment, the management agency within the sovereign state allocates the specific FN code and associated key to the nodes or end users within its territory; S13: The end user binds the obtained FN code to a physical or digital object to complete the registration; The global interoperability verification process includes: S21: Consumers use their smartphone's universal camera to scan the FN code carried on an object, and the phone's operating system automatically recognizes it as a URL and initiates an access request through a universal browser; S22: Request the global resolution and routing engine of the root server platform of the future code to be reached via the Internet; S23: The global parsing and routing engine parses the FN code, determines the sovereign country based on its number prefix, and routes the request to the corresponding authoritative data source server within that country. S24: The future code root server platform issues network and physical layer optimization strategies to relevant access nodes, and may trigger the future network deterministic core network to establish an optimized transmission path; S25: The authoritative data source server returns digitally signed traceability information, which is then returned via the network path and displayed in the consumer's mobile phone browser.

7. The method according to claim 6, characterized in that, In the global interoperability verification process, the FN code is physically represented as a graphic compatible with the general QR code standard, but its encoded data content is a URL format that conforms to future network protocols.

8. The method according to claim 6, characterized in that, The method also includes a high-spectral-efficiency wireless access process: a large number of FN code application terminals send data to the FN-OV intelligent access node through a wireless link. The adaptive OV overlapping multiplexing transceiver of the node dynamically adopts overlapping time division multiplexing, overlapping frequency division multiplexing or a hybrid mode for data transmission according to the channel state and strategy, so as to achieve spectral efficiency that surpasses traditional technologies.

9. The system according to claim 4, characterized in that, The comprehensive factor model upon which the global resource allocation and sovereignty management module is based includes at least population, land area, GDP, and administrative division level, and reserves independent expansion coding capacity for future development in deep sea, land, and airspace.

10. The system according to claim 3, characterized in that, The dynamic adjustment process of the adaptive OV overlapped multiplexing transceiver constitutes a closed-loop control: using the physical layer suggestion policy issued by the root server platform of the future code as the initial parameter, and based on the confirmation information and channel quality indication fed back by the receiver, the transmission parameters are continuously adjusted through the built-in optimization algorithm to balance transmission efficiency and reliability in complex wireless environments.

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