Digital hub / FN root server system and method based on future network / FN and OVXDM overlapped multiplexing and FN / M virtual-real routing

Abstract

The invention discloses a digital hub / FN root server system and method based on future network / FN and OVXDM overlapped multiplexing and FN / M virtual-real routing, and belongs to the technical field of FN network communication and information. The system is deployed in a digital center of a region according to a distributed design, and integrates six functional modules including an FN root server system, an OVXDM system, an FN / M routing system, a distributed storage and calculation module, an ad hoc network and toughness guarantee module and a security and credibility module; the digital centers are transversely connected to form a peer-to-peer network, and are longitudinally connected to form a global FN network covering land, sea, air and sky. And basic deployment, ad hoc network, equipment registration, intelligent routing communication, data processing application, flexible operation and autonomous recovery are realized. According to the method, the network is autonomously controllable, the transmission capacity addressing efficiency is improved, the network toughness is enhanced, data authentication and value conversion are realized, regional or global multi-level digital economy and the Internet of Things are adapted, and the problems of network sovereignty hidden dangers, performance bottlenecks, FN code global natural intercommunication and the like in the prior art are solved.

Description

TECHNICAL FIELD

[0001] The application relates to the field of future networks, digitization, communication and information technology, in particular to a digital infrastructure system and implementation method of fusion future networks (FN), OVXDM overlay multiplexing channel technology and FN / M virtual-real routing mechanism, and is suitable for multi-level digital new network application scenarios such as digital economy, Internet of Things and digital logistics. BACKGROUND

[0002] The existing Internet takes TCP / IP protocol as the core, and the root domain name system is controlled by a few countries, which has network sovereignty and network security risks, and cannot meet the needs of massive terminal access, low-latency communication and data security protection in the digital age. The spectrum efficiency of traditional technology is insufficient, IP routing and addressing are disconnected from physical topology, routing efficiency is low, and it is difficult to support land-sea-air-space integrated network interconnection. Therefore, a new FN network architecture is needed for self-controllable network infrastructure. SUMMARY

[0003] (I) Invention purpose.

[0004] 1. Provide a self-contained modular digital hub / FN root base unit to support regional data on-site analysis, storage and value.

[0005] 2. Build a distributed peer-to-peer FN root server system to protect network sovereignty and adapt to global interconnection.

[0006] 3. Integrate OVXDM technology to improve transmission capacity and achieve efficient routing and addressing through FN / M virtual-real routing.

[0007] (II) Technical solution.

[0008] 1. System architecture.

[0009] This system is based on the principle of distributed peer-to-peer, with modular digital hub / FN root as the core, deployed in cities, districts and counties, etc. Each digital hub integrates six functional modules, and the digital hub is interconnected horizontally and hierarchically, forming a national or global digital future network system.

[0010] 1.1, FN root service module: regional addressing and analysis core, following the self-contained protocol, managing regional domain name space, providing localized millisecond-level resolution services.

[0011] 1.2, OVXDM enhanced communication core module: deploy OVXDM technology gateway, dynamically configure multiplexing factor, improve channel capacity, and ensure massive data transmission.

[0012] 1.3, FN / M virtual-real routing engine module: processes FN / M routing containing hierarchical information, maintains virtual-real address mapping table, realizes optimal matching of logical address and physical path, and preferentially schedules horizontal links.

[0013] 1.3, Distributed storage and computing architecture module: integrate heterogeneous computing storage resources, realize regional data local processing, support data right and value conversion.

[0014] 1.4, Ad hoc network and resilience guarantee module: built-in ad hoc network protocol, automatically establish adjacent hub horizontal link, trigger network autonomy mode when vertical connection is interrupted.

[0015] 1.5, Secure and trusted execution module: integrate national encryption algorithm, build trusted computing environment, store key operation FN block chain, realize full link security traceability.

[0016] 2. Implementation method.

[0017] 2.1, Deploy digital hub, complete module parameter configuration, hub automatically discovers adjacent nodes to establish horizontal direct connection grid, and simultaneously accesses upper coordination nodes.

[0018] 2.2, Regional equipment registers with local hub FN root service module, and obtains FN / M and FN domain name.

[0019] 2.3, When accessing services, the addressing engine parses the target FN / M, schedules the link according to the target attribution, and the OVXDM module guarantees high-speed transmission.

[0020] 2.4, Business data is preferentially processed in local or collaborative hub, and the result is righted and stored by the security module to form tradable data assets.

[0021] 2.5, Real-time monitoring of network state, entering autonomous mode when vertical link fails, and returning to global operation after fault recovery.

[0022] (Three) Beneficial effects.

[0023] 1. Network sovereignty security autonomy: independent FN root system and national encryption application, free from traditional root domain name or DNS dependence.

[0024] 2. Performance improvement: OVXDM technology improves transmission capacity by several times, FN / M routing reduces addressing delay, and network is smooth.

[0025] 3. Strong resilience: modular design and ad hoc network capability, network autonomy guarantees uninterrupted service.

[0026] 4. Data value: distributed architecture supports data right and circulation, realizes data to wealth conversion.

[0027] 5. Flexible expansion: digital hub can be deployed and replicated, suitable for regional to global multi-level application scenarios. BRIEF DESCRIPTION OF DRAWINGS

[0028] Figure 1 For the digital hub modular architecture and local connection diagram, the content is as follows: this figure is used to show the internal functional module composition of the digital hub and the connection relationship of the digital hub in the region. The left side of the figure clearly presents the six functional modules integrated by the digital hub and the cooperative interaction relationship among the modules; through the layout of "hub A", "hub B" and "hub C" on the right side, the equal interconnection mode of "horizontal direct connection grid" among multiple digital hubs and the cascading relationship of "vertical connection" of each digital hub with "upper network" are directly shown, and the local networking logic of "horizontal cooperation and vertical penetration" of the system is clearly defined.

[0029] Figure 2 For the system service process and globalization networking diagram, the content is as follows: this figure is divided into two parts, the upper half is the core process of system service implementation, through step annotation, judgment node and branch link, the complete business closed loop from digital hub deployment, device registration, link scheduling, data processing to network fault autonomy and recovery is clearly presented; the lower half is the globalization networking architecture, which shows the vertical hierarchical structure of regional "district / county digital hub", "city / region FN node" and "national FN core", the horizontal grid interconnection relationship in the region, the equal interconnection mode between countries, and at the same time embodies the access mode of heterogeneous terminals such as satellite, offshore platform and unmanned aerial vehicle, fully reflects the globalization deployment logic of the system adapting to multi-level scenarios. Embodiment

[0030] Implementation case: construction of regional future network demonstration area.

[0031] 1. Deployment: one set of digital hub is deployed in each of Shangcheng District, Xihu District and Xiaoshan District of Hangzhou.

[0032] 2. Networking: after the three district hubs are powered on, a horizontal direct connection grid is established, and they are connected to the Hangzhou level FN coordination node at the same time.

[0033] 3. Application effect: the cross-district data of the government system is transmitted through the horizontal link, with a time delay of less than 10 milliseconds; after the city-level node is interrupted, the three districts automatically enter the interconnection or autonomy mode, and the core services run normally; after the local processing of industrial Internet of Things data is authorized, data product transactions are formed.

[0034] 4. Expansion: the mode is replicated to the whole of Hangzhou and each city in Zhejiang province, the county hub is connected to the provincial network, the national FN root cluster is interconnected with the basic hub in layers, and the globalization future network is constructed.

Claims

1. A digital hub / FN root server system based on Future Network / FN and OVXDM overlapping multiplexing and FN / M virtual-physical routing, characterized in that: The system is built according to the principle of distributed peer-to-peer, with the core being a modular digital hub / FN root. Each digital hub integrates an FN root service module, an OVXDM enhanced communication core module, an FN / M virtual and physical routing engine module, a distributed storage and computing architecture module, a self-organizing network and resilience assurance module, and a secure and reliable execution environment module. The digital hubs are interconnected horizontally to form a peer-to-peer network, and vertically connected to form a national or global future network covering land, sea, air and space.

2. The system according to claim 1, characterized in that: The FN root service module follows an independent naming and resolution system, is independent of and compatible with the traditional network root domain name system, manages regional exclusive domain name space, and provides local millisecond-level resolution services.

3. The system according to claim 1, characterized in that: The OVXDM enhanced communication core module is deployed to support gateway devices that utilize OVXDM overlap and multiplexing technology, thereby improving physical channel capacity communication through dynamic configuration of multiplexing factors.

4. The system according to claim 1, characterized in that: The FN / M virtual-physical routing engine module processes hierarchical FN / Ms containing country, region, device type, and unique identifier, maintains a virtual-physical address mapping table, and prioritizes traffic transmission through horizontal direct links between digital hubs.

5. The system according to claim 1, characterized in that: The self-organizing network and resilience assurance module has a built-in self-organizing network protocol stack, which can automatically discover adjacent digital hubs and establish horizontal links. When the vertical connection is interrupted, it triggers the network outage self-governance mode.

6. A method for implementing the system according to any one of claims 1-5, characterized in that, Includes the following steps: 6.1 Deploy the digital hub and configure its parameters. The hub will automatically establish a horizontally connected grid and connect to the upper-level coordination node. 6.

2. Register regional devices to obtain FN / M and FN domain names; 6.3 The addressing engine resolves the target FN / M and schedules the link, while the OVXDM module ensures data transmission; 6.4 Data is processed locally or in a collaborative hub, and the results are verified and stored by the security module. 6.5 Monitor network status, trigger autonomous mode in case of failure, and return to global operation synchronously after recovery.

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