A cross-terminal compatible ar visualization credible traceable global commercial ecological software and hardware base system

Abstract

The application discloses a cross-terminal compatible AR visual trusted traceable global commercial ecological software and hardware base system and belongs to the technical field of intelligent terminals and global commercial digitization compliance. The application constructs a four-layer progressive software and hardware base architecture, is suitable for self-terminal front installation and third-party terminal rear installation dual-mode deployment, relies on passive NFC hardware to build a lifelong trusted traceable identity system, integrates a local offline lightweight AR visual virtual-real fusion core module, is matched with a local front discount operation, a double-track merchant access, a self-adaptive hierarchical account distribution and a decoupled compliance settlement system, and carries a terminal remote safety management and control and a full life cycle scene enabling mechanism. The application solves the problems of poor adaptability of a traditional terminal ecology, low traceability, price channel conflict, rough account distribution, no AR visual virtual-real interaction capability and weak equipment protection and the like, relies on general hardware to realize zero incremental cost landing, and can construct a long-term trusted digital ecology integrating business, livelihood and public welfare.

Description

Technical Field

[0001] This invention relates to the fields of intelligent terminal hardware and software adaptation, cross-terminal data collaboration, edge-cloud microservice architecture, multimodal physical identifier trusted traceability, local offline lightweight AR visualization virtual-real fusion interaction, full-domain commercial price control, compliant distributed settlement and revenue sharing, lifetime membership rights management, intelligent terminal remote security risk control, and full lifecycle digital services for people's livelihood. Specifically, this invention is applicable to scenarios such as full-category commercial production, sales and circulation, offline physical merchant operation, full-domain user lifetime rights operation and maintenance, multi-brand intelligent terminal adaptation and compatibility, AR visualization commercial traceability and virtual-real scene interaction, one-stop convenient services for people's livelihood, government-enterprise public welfare collaboration and empowerment, and remote security management of equipment. It can effectively solve the industry's technical shortcomings and operational pain points such as weak terminal compatibility, low credibility of identity traceability, price channel conflicts, insufficient standardization of revenue sharing and accounting, single ecological scenario, lack of AR visualization virtual-real interaction, weak equipment security protection, and high cost of large-scale implementation in the existing digital ecosystem. Background Technology

[0002] Currently, mainstream smart terminal ecosystems, local business service platforms, and membership traceability and settlement systems generally suffer from closed architectures, fragmented functions, limited adaptability, and fragmented ecosystems. Existing technical solutions can only achieve single functions such as terminal device management, product traceability and anti-counterfeiting, online and offline transaction settlement, distribution of basic membership benefits, and partial public services. They have not yet formed a standardized software and hardware foundation system that integrates multi-brand terminal compatibility and adaptation, multi-modal full-domain reliable traceability, terminal local autonomous price control, local offline lightweight AR visualization virtual and real interaction, compliant tiered revenue sharing, lifelong cross-platform benefit migration, full lifecycle public service and commercial closed loop, remote device security risk control, and zero-cost merchant empowerment. The current mainstream technical solutions in the industry have multiple technical limitations and operational drawbacks, which can be mainly divided into six categories: 1. For brand-specific smart terminal ecosystems; such systems are only compatible with their own brand's terminal devices, have a closed architecture, extremely poor compatibility, and cannot be adapted to the access and functional compatibility of mainstream third-party smart terminals on the market. When users change devices, ecosystem rights and data records cannot be transferred. Terminal adaptation costs are high, ecosystem scalability is weak, and it is impossible to form a universal digital service system. At the same time, such systems do not set up a unified hardware trusted identity confirmation mechanism, and user accounts, rights and data are fragmented across multiple terminals, making it impossible to achieve lifelong binding and cross-terminal synchronization. 2. Traditional one-item-one-code traceability systems: These solutions rely solely on a single QR code or RFID tag to achieve basic product anti-counterfeiting and traceability. The traceability scenarios are limited, and adaptability is restricted. They fail to establish a reliable traceability system across the entire production and sales chain, and do not integrate core business logic such as user authentication, AR visual traceability display, price control, transaction settlement, and profit sharing. They only possess basic traceability functions and cannot form a closed-loop business ecosystem. Furthermore, these solutions lack hardware-level encrypted identity support, making traceability data easily tampered with and resulting in low credibility of rights confirmation. 3. Online and offline commercial settlement membership platforms; these platforms generally adopt a unified cloud-based discount calculation model, rely excessively on third-party platforms to control prices, and are prone to online and offline price conflicts and customer diversion issues; membership benefits are only bound to the software account, can be canceled and cleared, and cannot be retained for life; the revenue sharing model is fixed and crude, only supporting one-way consumption rebates, without differentiated tiered revenue sharing and no basic consumption benefits, resulting in low accounting efficiency, limited adaptability to scenarios, inability to adapt to the needs of multi-entity, full-scenario ecosystem operation, and lack of lightweight AR visualization virtual and real interactive experience, resulting in weak user commercial participation; 4. Third-party payment revenue sharing systems; These systems either rely on their own payment qualifications, resulting in high barriers to entry and significant compliance risks, or they depend entirely on third-party payment institutions, lacking independent discount control, revenue sharing configuration, and rights linkage logic, and have poor functional scalability; at the same time, these systems generally suffer from opaque fund management and incomplete accounting records, making them unsuitable for large-scale compliant operation across the entire ecosystem, and they lack AR visualization capabilities for business display, resulting in insufficient intuitiveness of business processes; 5. Single-function digital service platforms for people's livelihood; such platforms only cover single sub-scenarios such as marriage and dating, childcare, elderly care, travel, and housekeeping. The scenarios are severely fragmented and are not deeply integrated with commercial production and sales, physical operations, user consumption, and profit sharing systems. They lack local offline AR visualization auxiliary interaction functions for people's livelihood scenarios and cannot form a service loop that covers the entire life cycle and all domains. The ecosystem stickiness is weak and the user retention rate is low. 6. Traditional AR commercial interaction systems; these systems are mostly independent, lightweight applications that rely on cloud-based graphics rendering, require dedicated hardware support, have high deployment costs, lack cross-terminal compatibility, and are not integrated with commercial trusted traceability, price control, revenue sharing and settlement, or public service systems. They suffer from isolated data, limited functionality, and inability to integrate into the overall digital ecosystem. They exhibit poor adaptability, weak scalability, difficulty in large-scale deployment, and inaccessibility when offline. Furthermore, they generally only achieve basic virtual-real overlay, lacking systematic AR visualization capabilities, resulting in extremely poor functional implementation. Existing publicly available patents and commercial technologies generally suffer from ten core technological defects, which severely restrict the large-scale implementation of a comprehensive digital ecosystem: (1) Strong limitations in terminal adaptation: There is no universal terminal adaptation architecture, and it cannot be compatible with its own terminals and mainstream third-party smart terminals on the market. After the device is replaced, data, rights and identity cannot be transferred, and the ecosystem universality is extremely poor. (2) The identity traceability system is unreliable: relying solely on pure software accounts and a single traceability identifier, without hardware-level lifetime confirmation certificates, traceability data is easily tampered with, rights and interests are fragmented across multiple terminals, and it is impossible to achieve reliable lifetime binding and lossless cross-terminal migration; (3) The traceability system is singular: it only supports a single traceability identifier, cannot be compatible with mainstream multimodal traceability technologies on the market, has a narrow scenario adaptability, lacks a full-chain four-level production and sales traceability and evidence storage mechanism, and lacks a systematic AR visualization virtual and real interactive display method. (4) Lack of price control mechanism: Relying on cloud-based unified price adjustment, fixed and rigid discount levels, serious online and offline price conflicts, and inability to achieve channel synergy and customer flow; (5) The profit-sharing system is crude: the profit-sharing ratio is fixed, the main body is single, there is no adaptive dynamic adjustment mechanism, there are no basic consumer rights, the manual accounting cost is high, the accuracy is low, and the compliance is insufficient. (6) Weak compliance of payment and settlement: The platform fund collection model is mostly adopted, which poses the risk of fund pooling. The threshold for unqualified implementation is high, and it is impossible to achieve decoupled compliant settlement. (7) Incomplete coverage of ecological scenarios: It only focuses on commercial transaction scenarios and does not connect scenarios throughout the entire life cycle, such as marriage, pregnancy, childcare, education, elderly care, employment, public welfare, and convenient living, resulting in an incomplete ecological closed loop; (8) Weak equipment security protection: There is no terminal remote security management mechanism. After the equipment is lost or abnormal, it is impossible to remotely lock the machine, reset the password, and locate the risk control. The risk of leakage of user privacy data is high. (9) Weak virtual-real interaction capability: Traditional AR relies on cloud computing power, has high hardware costs, poor cross-platform adaptation, and lacks a local offline lightweight AR visualization virtual-real fusion architecture, making it impossible to achieve full-scene, offline-usable visualization virtual-real interaction; (10) High cost of technology implementation: Existing virtual-real integration solutions require dedicated hardware support, cannot reuse the native computing power and hardware of the terminal, and are difficult to mass-produce and popularize; This invention legally draws upon mature underlying technologies in the industry, such as edge-cloud collaboration, radio frequency identification, lightweight AR local rendering, compliant settlement, and digital services. It comprehensively reconstructs the terminal adaptation architecture, hardware-level trusted traceability and rights confirmation mechanism, local offline AR visualization virtual-real interaction logic, price control logic, revenue sharing and settlement algorithm, ecosystem scenario system, and device security risk control system. It adds unique core technical features such as multimodal trusted traceability compatibility, local pre-discount calculation, local offline lightweight AR visualization virtual-real fusion interaction, dual-track merchant access, lifetime rights migration, and remote terminal risk control, forming an independent and complete patent protection system. It completely avoids the defects and scope of patent protection of existing technologies, and relies on general-purpose hardware to achieve zero incremental cost, low cost, wide coverage, high compliance, and scalable full-domain trusted ecosystem implementation. Summary of the Invention

[0003] To address the existing technical shortcomings of smart terminal ecosystems, commercial trusted traceability and settlement systems, and digital public service systems, such as poor terminal compatibility, low credibility of identity traceability, fragmented rights and interests, channel price conflicts, crude revenue sharing mechanisms, insufficient compliance, fragmented scenarios, difficulty in implementing AR visualization and virtual-real interaction, weak device security, and high cost of large-scale scaling, this invention provides a cross-terminal compatible AR visualization trusted traceability full-domain commercial ecosystem integrated hardware and software foundation system. Through integrated hardware and software architecture innovation and collaborative optimization of multiple core technology modules, it centrally solves several core pain points in the industry. The overall purpose of this invention can be summarized into three core directions, as follows: Core Objective 1: To build a universal, compatible, reliable, and lifelong end-to-end hardware and software foundation system. This invention aims to overcome the industry bottlenecks of closed terminal adaptation, unreliable identity verification, and fragmented user rights in the traditional digital ecosystem. It establishes a dual-mode universal compatibility architecture that supports pre-installation on proprietary terminals and OTA upgrades / plugin adaptation on mainstream third-party terminals. This architecture achieves full coverage of all brands of smart terminals without hardware modification or incremental costs, supporting seamless migration of user identity, data, and rights across devices. Simultaneously, it leverages universal passive NFC hardware to create a device-level, lifelong, unique, and trustworthy ecosystem identity. This is complemented by a multimodal, full-domain traceability identification system and a four-level production and sales encryption and evidence storage mechanism, achieving hardware-level trusted verification and end-to-end data tamper-proof evidence storage. This breaks down data barriers between multiple terminals and constructs a one-time authentication, full-domain interoperability, and lifelong valid ecosystem identity system, solving the core problems of poor adaptability, low traceability credibility, inability to retain rights for life, and lack of standardized AR visualization traceability display in the traditional ecosystem. Core Objective Two: To create a compliant, efficient, and conflict-free business operation settlement and revenue sharing system. Addressing the multiple drawbacks of traditional commercial platforms, such as online-offline price conflicts, customer diversion, crude revenue sharing, insufficient settlement compliance, and high merchant entry barriers, this invention innovatively employs a terminal-based pre-discount calculation and adaptive tiered pricing mechanism. It establishes a channel collaboration model of online display and verification, and offline fulfillment and payment collection, completely eliminating channel competition. Simultaneously, it builds a dual-track merchant access system and a multi-entity adaptive tiered revenue sharing architecture, innovating a two-tiered allocation mechanism of no-consumption-based benefits + tiered consumption-based value-added benefits. Relying on automated algorithms, it achieves accurate calculation, full traceability, and compliant distribution. Adopting a compliant settlement model that decouples business logic from fund clearing, it independently controls core businesses such as orders, discounts, and revenue sharing, only connecting with licensed institutions to complete fund transfers, eliminating the risk of fund pooling. Coupled with supply chain empowerment and omni-channel traffic generation, it provides lightweight empowerment for small and medium-sized physical merchants, achieving efficient business operations, fair distribution of benefits, and compliant fund flow. It also features a full-process AR visualization display to enhance the transparency of business operations. Core Objective 3: To build a closed-loop ecosystem service for AR visualization that integrates the virtual and real worlds, covers the entire lifecycle, and is highly secure. To address the industry shortcomings of fragmented digital service scenarios, high costs of AR interaction implementation, strong network dependence, and lack of device security risk control, this invention connects the entire chain of business operations, public services, and government-enterprise public welfare. It integrates local offline lightweight AR visualization and virtual-real fusion core capabilities at zero incremental cost, reuses native terminal hardware and computing power, and achieves AR visualization traceability, immersive business interaction, scenario-based public services, and intelligent operation and maintenance guidance that are available even when offline and compatible with all terminals. At the same time, it builds a remote encrypted security risk control system for terminals, which can realize full-dimensional security control such as device anomaly locking, location tracking, and privacy protection, making up for the shortcomings of terminal security. Ultimately, it forms a closed loop of a trusted digital ecosystem with reliable hardware, controllable prices, compliant revenue sharing, AR visualization virtual-real linkage, full scenario coverage, and guaranteed security throughout the entire life cycle. Supplementary Invention Objective To further overcome the shortcomings of closed terminal adaptation and poor universality in the existing ecosystem, a dual-mode compatible architecture is built, which includes pre-installed features on proprietary terminals and OTA upgrades / plugin adaptations for mainstream third-party terminals. This architecture does not require large-scale hardware modifications and relies on mature and universal software and hardware technologies to achieve full coverage of multi-brand smart terminals. It supports lossless migration of user data, identity, and rights across devices, significantly reducing the cost of ecosystem entry and device adaptation. At the same time, it enables AR visualization and virtual-real interaction empowerment for the entire business process and unifies the standards for ecosystem visualization services. Technical solution

[0004] A cross-terminal compatible AR visualization trusted traceable full-domain business ecosystem integrated hardware and software base system is characterized by a four-layer progressive hardware and software base architecture, from top to bottom: a universal business application layer for all scenarios, a terminal local intermediate scheduling layer, a smart terminal hardware adaptation layer, and a cloud-based full-domain ecosystem service layer. The system is equipped with a multi-modal identification trusted traceability unit, a dual-mode terminal adaptation unit, a local pre-discount calculation unit, a dual-track merchant access authentication unit, an adaptive hierarchical revenue sharing unit, a decoupled compliant settlement unit, a lifetime rights cross-terminal migration unit, a terminal remote security management unit, a full lifecycle scenario empowerment unit, and a local offline lightweight AR visualization virtual-real fusion interaction unit. All units work together, with data sharing and mutual access, relying on mature and universal hardware and software technologies to achieve a complete trusted ecosystem closed loop encompassing multi-brand terminal compatibility, full-link trusted traceability and rights confirmation, conflict-free price control, compliant hierarchical revenue sharing, lifetime rights maintenance, local offline AR visualization virtual-real empowerment, full-domain scenario empowerment, and terminal security risk control. 1. Four-layer overall base architecture, complete hardware parameters, working principle, and collaborative mechanism. Furthermore, the four-layer base architecture serves as the core carrier of the system. The hardware selection at each layer adopts mature mass-produced components available on the market, with standardized parameters and scalable mass production capabilities. The hardware and software modules at each layer are deeply adapted and work together collaboratively, requiring no hardware modifications and incurring no incremental costs. It is compatible with all brands of smart terminals. At the same time, each layer of the architecture can share a set of terminal computing resources with local AR visualization rendering, local discount calculation, and trusted traceability verification, achieving resource reuse and functional decoupling and collaboration. Furthermore, the intelligent terminal hardware adaptation layer serves as the underlying foundation of the system. The core hardware includes a passive NFC radio frequency chip, a terminal main control chip, a general wireless communication module, a peripheral adapter interface module, an IMU six-axis inertial sensing module, a high-definition RGB camera, a terminal GPU / NPU graphics acceleration unit, and a local high-speed Flash storage module. All hardware reuses the terminal's native devices and requires no additional installation or modification. Specifically, the passive NFC RF chip uses the MF1S50 passive RF chip, with a rated operating voltage of 0V, employing a passive inductive power supply mode, operating at a frequency of 13.56MHz, strictly adhering to the ISO14443A general RF specification, zero static power consumption, 1KB storage capacity, and built-in read-only fixed partitions and dynamically rewritable partitions; the terminal main control chip is compatible with mainstream Snapdragon, Dimensity, and Kirin series general mobile terminal main control chips on the market, with a rated operating voltage of 3.7V, an operating frequency ≥1.8GHz, and supports multi-threaded parallel computing; the wireless communication module integrates a BLE 5.0 Bluetooth module, an MQTT IoT communication module, and a 4G / 5G full network compatibility module, wherein the BLE module's rated operating voltage is... 3.3V, communication distance ≥10m, MQTT module supports low-power long connection; the peripheral interface is compatible with USB, Type-C, and Bluetooth universal protocols, supporting plug-and-play functionality for common sensors, home, automotive, and security peripherals; the IMU six-axis inertial sensing module integrates a gyroscope and accelerometer, providing accurate pose data for AR visualization spatial positioning; the high-definition RGB camera supports 1080P high-definition viewing, used for AR visualization anchor point recognition and real-scene acquisition; the GPU / NPU graphics acceleration unit provides core computing power support for local AR visualization 3D rendering; the local high-speed Flash storage is used to pre-store lightweight AR visualization 3D model resource packages and locally cache business data; Specifically, the overall working principle of the smart terminal hardware adaptation layer is as follows: the native main control chip coordinates the overall scheduling of the underlying hardware; the NFC chip is responsible for hardware-level trusted identity verification and traceability identification reading; the high-definition camera and IMU module work together to complete AR visualization real-scene acquisition and spatial pose calculation; the GPU / NPU provides local rendering computing power support for AR visualization; the wireless communication module realizes data interaction between the terminal and the cloud; and the peripheral interface completes the adaptation and access of external devices. All hardware modules operate stably based on the terminal's native driver, decoupled and adapted from the upper-layer software architecture, ensuring stable compatibility of all functions including underlying hardware, trusted traceability, AR visualization virtual-real interaction, and business operations. Furthermore, the terminal local intermediate scheduling layer is the core unit for system core relay computing, local processing, and AR visualization scheduling, and runs on the terminal's native main control chip, memory, flash memory, and GPU / NPU hardware carrier; the core software sub-modules include device identity verification subroutine, local pre-discount calculation subroutine, lightweight AR visualization rendering scheduling subroutine, SLAM spatial positioning subroutine, virtual and real coordinate matching subroutine, data encryption and uploading subroutine, local permission control subroutine, instruction parsing and execution subroutine, peripheral device adaptation scheduling subroutine, offline function support subroutine, and rights cache update subroutine; Preferably, the terminal's native configuration requirements are ≥4GB of memory and ≥64GB of flash memory. It can independently complete local core business operations, AR visualization offline rendering, and trusted traceability decryption verification without relying on real-time computing power in the cloud, which greatly reduces network dependence and cloud load and ensures stable operation of all functions in weak network and network outage scenarios. Specifically, the collaborative working mechanism of the terminal local intermediate scheduling layer is as follows: trusted identity, traceability data, device status, AR visualization real-world images and spatial pose data collected by the hardware adaptation layer are transmitted to the local intermediate scheduling layer in real time. The subroutines process them in parallel and collaboratively, and simultaneously complete local discount calculation, AR visualization offline rendering, virtual and real layer matching, trusted identity verification, and data encryption caching. The processed structured business data is uploaded to the cloud as needed. At the same time, cloud management instructions, rights updates, and AR visualization scene resource data are received and distributed to the business application layer and hardware layer to achieve two-way software and hardware collaboration and deep linkage between business and AR visualization functions. Furthermore, the universal business application layer integrates business modules across the entire lifecycle, including commercial production and sales, physical operations, AR visualization and virtual-real interaction, user consumption, marriage and dating services, pregnancy guidance, parenting, education and learning, employment and entrepreneurship, elderly care and security, convenient travel, public welfare assistance, and government-enterprise collaboration. This layer supports the compliant access of self-developed applications and certified third-party applications, unifies application management rules and data interaction protocols, effectively avoids application redundancy and excessive memory consumption, and all businesses can be linked to AR visualization and virtual-real interaction. Furthermore, the cloud-based full-domain ecosystem service layer adopts a microservice modular decomposition and data layering and sharding architecture. The cloud server uses general-purpose Alibaba Cloud / Huawei Cloud elastic computing power servers with a rated operating voltage of 220V, a computing power frequency of ≥2.5GHz, and memory of ≥16GB. It has built-in cloud microservice modules such as traceability and evidence storage, price control, revenue sharing and accounting, compliance settlement, rights and interests maintenance, AR visualization lightweight model resource storage, device risk control, merchant empowerment, traffic scheduling, data statistics, and qualification review, and is equipped with an elastic computing power scheduling mechanism. The cloud is only responsible for the initial AR visualization model package distribution, data filing, and backend management, and does not participate in real-time terminal rendering and business calculations. It can support high-concurrency access from massive terminals and ensure the long-term stable operation of the system. 2. Multimodal identification trusted traceability unit (including hardware parameters, software algorithm, and control logic) Furthermore, this unit serves as the core of the system's comprehensive trusted identity verification and end-to-end traceability, compatible with seven mainstream mature traceability identification systems on the market. The data of each identification system is from the same source, the rules are interconnected, and the scenarios are complementary. They can be activated independently or combined in any way, and all are included in the scope of protection of this invention patent. Specifically, it includes encrypted dynamic QR code identification, national standard one-dimensional barcode identification, general RFID radio frequency identification, invisible nano-optical coding identification, PUF physical non-clonable hardware fingerprint identification, compliant encrypted security code identification, and thermal transfer integrated coding identification. Specifically, the core hardware of this unit is the MF1S50 passive NFC radio frequency chip, which serves as the core carrier for full-domain trusted authentication. It adopts a general-purpose, low-cost passive radio frequency chip, complies with the ISO14443A general radio frequency specification, and is powered by passive electromagnetic induction at 13.56MHz with zero static power consumption. The chip has a built-in permanent and tamper-proof read-only partition and a dynamically rewritable partition. It is factory-installed with a unique hardware UID, an ecosystem-specific identifier, and encrypted index information, which are permanent, tamper-proof, and uncopyable, ensuring the absolute trustworthiness of traceability and identity authentication from the hardware level. The other six traceability identifiers serve as lightweight and scenario-based supplementary adaptations, covering high-end, mid-range, and low-end scenarios, and adapting to the full-category implementation needs of bulk circulation, lightweight retail, high-end anti-counterfeiting, and traditional supermarkets. Furthermore, the core software traceability algorithm of this unit is a four-level production and sales traceability encryption and evidence storage algorithm, and the specific working steps are as follows: S1. Product manufacturing stage: The terminal hardware collects product model, batch, place of origin, and quality inspection data, writes it into the dynamic partition of the NFC chip, and synchronizes it with the cloud for encrypted filing. S2, Multi-level Distribution Stage: First- and second-level distribution terminals scan product traceability labels, automatically collect data on distribution nodes, handling entities, and circulation time, and encrypt and upload the data to the cloud traceability database; S3, Terminal Retail Stage: User terminals read the product traceability identifier and complete the decryption and trusted verification of traceability data through the local intermediate scheduling layer; S4. Data integration and archiving stage: The cloud automatically integrates the entire chain of production, multi-level distribution and terminal retail data, generates a visual production and sales map and permanently encrypts and stores it, and at the same time links the AR visualization virtual and real interaction unit to complete the virtual and real visualization display of traceability information. Specifically, this unit establishes a four-tiered, fully credible traceability system covering the entire production and sales chain, from manufacturer production and first-level wholesale agents to second-level distributors and retailers. All circulation, transaction, and verification data are encrypted and permanently stored, automatically generating a visual production and sales map that can be exported for verification at any time, serving as legal electronic credentials for quality control, after-sales service, rights confirmation, and revenue sharing. At the same time, this unit deeply integrates with a lightweight AR visual virtual-real fusion interactive unit, enabling the AR three-dimensional, visual, and dynamic display of traceability information, completely solving the industry drawbacks of traditional traceability information being obscure, unreliable, and having a single display format. 3. Dual-mode terminal adaptation unit (including hardware adaptation logic and software adaptation program) Furthermore, this unit achieves seamless adaptation for all brands of smart terminals, including two modes: pre-installed on proprietary terminals and post-installed on third-party terminals. It covers more than 90% of mainstream smart terminal devices on the market, requiring no hardware modification, no performance issues, and no additional high-cost investment. Both adaptation modes are fully compatible with all local offline AR visualization virtual-real interaction functions. Specifically, the self-developed terminal pre-installed mode is as follows: during the factory stage of self-developed smart terminals, the system base, core ecosystem applications, lightweight AR visualization offline rendering plugin, security management module, and SLAM spatial positioning subroutine are pre-installed through firmware burning program; the built-in applications can only be paused and cannot be uninstalled by the user, and are compatible with all ecosystem functions and local AR visualization virtual and real interaction functions by default. The terminal is fully adapted to the ecosystem and AR visualization functions as soon as it leaves the factory; the self-developed terminal hardware uses industry-standard main control, NFC, communication, IMU, and camera module, with standardized parameters, which can be mass-produced on a large scale; Furthermore, the third-party terminal aftermarket adaptation mode includes three implementation paths to adapt to different user needs, fully reuse the terminal's native hardware, and achieve zero incremental cost adaptation: First, brand customization and adaptation: In collaboration with mainstream terminal manufacturers, we embed system base, ecosystem functions and lightweight offline rendering plugins for AR visualization on the basis of original hardware, and rely on the original supply chain and quality control system to ensure the stability of device operation and the smoothness of AR visualization rendering. Second, system OTA upgrade adaptation: For mature terminals on the market, the system core architecture, AR visualization rendering underlying layer and SLAM positioning algorithm are implanted through the official OTA upgrade package, which is fully compatible with the ecosystem and all AR visualization functions; Third, lightweight plugin adaptation: For scenarios where users are unwilling to change devices or upgrade systems, core business functions and simple offline AR visualization interaction capabilities are imported through compliant lightweight APK plugins, achieving full coverage of basic ecosystem functions and lightweight AR visualization functions. Preferably, this unit is equipped with a unified account and unified card software synchronization program. After the user completes full-domain real-name registration with a unique mobile phone number and ID card number, the terminal automatically binds the user's exclusive and trusted identity information. After the device is powered on, it will connect to the network by default to synchronize the latest data in the cloud. Through the account synchronization subroutine, it realizes multi-terminal account interoperability, rights synchronization, lossless data migration, AR visualization scene configuration synchronization, and AR visualization model resource local cache synchronization, ensuring the consistency of cross-terminal AR visualization interactive experience and seamless business data connection. 4. Local pre-discount calculation unit (including core algorithm, control steps, and hardware / software co-processing logic) Furthermore, this unit is a core innovative module for resolving price conflicts in industry channels. Unlike the traditional cloud-based unified discount calculation mode, it adopts a terminal-local independent front-end computing architecture, without relying on third-party platforms or cloud computing power. It runs entirely on the local computing power of the terminal's native main control chip, achieving zero incremental hardware cost deployment. Moreover, the entire calculation process can be linked with the AR visualization module to achieve process visualization display. Specifically, the core of this unit is the adaptive gradient discount algorithm. The software parameter system supports flexible configuration in the backend and can dynamically adjust the discount level according to product category, industry added value, merchant qualifications, operation strategy, and user level, without fixed numerical constraints. The core weight calculation formula of the algorithm is as follows: W=A*B*C*D Where W is the final discount weight, A is the user level coefficient, B is the merchant qualification coefficient, C is the category added value coefficient, and D is the operation period coefficient; all of the above coefficients are flexible parameters that can be configured in the backend and can be adjusted in real time according to the needs of ecosystem operation. The algorithm calculation results are synchronized to the AR visualization rendering module in real time to realize the visualization display of discount calculation logic and calculation process. Furthermore, the complete control steps for this unit are as follows: S1. Merchants configure differentiated discount rules in the backend according to their business needs, and upload all parameters to the cloud after encryption to complete the filing. S2. The cloud sends the compliant discount parameters to the corresponding terminal devices, and the local intermediate scheduling layer completes the parameter caching and storage. S3, User consumption verification stage: The terminal hardware reads the product traceability mark and the user's trusted identity information and transmits them to the local discount calculation subroutine. S4: The local adaptive gradient discount algorithm completes discount calculations, price deductions, and benefit verification in real time. S5. The calculation results are stored and backed up locally, and then encrypted and uploaded to the cloud to complete the data storage and archiving. The cloud does not interfere with the local transaction calculation logic. At the same time, the AR visualization module renders the discount calculation process animation in real time, intuitively showing the entire discount calculation process. Specifically, the system strictly adheres to the same pricing rules for online and offline operations. The online platform only serves as a product display, identity verification, and order reservation function, without any exclusive price advantages. All online orders are fulfilled and collected by offline merchants, completely eliminating the channel conflict of online customers diverting to offline channels. At the same time, it is equipped with AR visual transaction process display, which greatly improves the transparency and trust of users' consumption. 5. Dual-track merchant access authentication unit (including hardware device parameters and software review logic) Furthermore, this unit takes into account both the need for rapid expansion of the ecosystem and the need for compliance and risk control of merchant qualifications. It adopts a dual-track access mode of rapid hardware onboarding and genuine qualification certification, which can be adapted to physical merchants of different sizes, industries and qualifications. After merchants are onboarded, they can be granted different levels of AR visual store interaction and visual operation and maintenance permissions. Specifically, the core hardware of the rapid onboarding mode is an ecosystem-exclusive LED advertising terminal. The device has a rated operating voltage of 220V and a rated operating power of 15W. It has a built-in general-purpose main control chip and WiFi communication module, and supports automatic online registration. After purchasing the device, small and micro merchants connect to the system and automatically trigger the onboarding registration subroutine to quickly complete the ecosystem onboarding registration. At the same time, a unique store promotion QR code is generated. This QR code contains preset discount parameters for merchants, a unique store identifier, and user locking and binding rules, which can complete the ecosystem onboarding quickly and at low cost. It is suitable for small and micro lightweight merchants and has basic AR visualization traceability display and simple store interaction functions enabled by default. Furthermore, the qualification verification model relies on a cloud-based qualification review subroutine. After merchants submit compliant materials such as business licenses, operating qualifications, and industry compliance certificates, the system completes the initial review through image recognition and intelligent qualification verification algorithms. After manual review and filing, a unique certification number is assigned, completing the high-end qualification verification and onboarding process. Merchants who join through this model can participate in special benefits such as high-end revenue sharing, supply chain empowerment, public welfare support, high-end AR visual digital store construction, and AR visual operation and maintenance guidance, making it suitable for brand stores, chain merchants, and merchants in high-value-added industries. Preferably, the system sets differentiated access rules for different regions through a regional access control subroutine, pre-setting that only one similar merchant is authorized to join within a fixed service radius, effectively avoiding vicious competition among peers and fully protecting the legitimate business rights of merchants. At the same time, the system introduces an inclusive entry policy for micro and small merchants, exempting them from entry fees and security deposits, charging only for basic promotional material costs, significantly lowering the threshold for digital operation of the real economy, and allowing inclusive merchants to use the system's basic AR visualization ecosystem functions for free. Specifically, merchants can choose their own supply model. Merchants with compliant and independent supply channels can purchase and sell independently, while merchants without high-quality supply channels can access the system's unified supply chain and enjoy the platform's centralized procurement, unified distribution, and low-cost product distribution empowerment. At the same time, all merchants can rely on the AR visualization module to complete the digital display of their stores and the visual operation and maintenance of product traceability, achieving a lightweight digital upgrade. 6. Adaptive hierarchical revenue sharing unit (including core revenue sharing algorithm and automated control process) Furthermore, this unit is a core innovative module for the distribution of ecological rights and interests. It breaks through the traditional fixed-ratio revenue sharing and single consumption rebate model, and innovatively constructs a two-tier revenue sharing system with no basic consumption rights and tiered consumption value-added rights. The revenue sharing ratio, entry threshold, distribution cycle, and weight allocation are all flexible parameters that can be configured in the backend. They can be dynamically adjusted adaptively according to the ecological operation status, industry attributes, and the main body's contribution. In addition, the system formally incorporates AR visualization scene interaction data into the revenue sharing weight calculation system to achieve refined, intelligent, and compliant rights and interests distribution. Specifically, the core of this unit is a multi-entity adaptive revenue sharing algorithm, which finely divides revenue sharing objects into multiple categories such as continuously operating merchants, dormant and retained merchants, high-value members, ordinary real-name members, channel promotion entities, platform operation and maintenance entities, and public welfare support entities. Differentiated revenue sharing weights are set for different entities based on their operating status, retention time, consumption contribution, promotion contribution, and AR visualization scene interaction contribution. Furthermore, the system has a built-in automated batch accounting subroutine, and the complete operation steps are as follows: S1. Real-time cloud-based capture of trusted traceability data across the entire supply chain, including merchant operational data, user consumption retention data, and AR-visualized interactive scene data. S2. The algorithm automatically identifies the level, identity attributes, and comprehensive contribution weight of each ecological entity. S3. Collect incremental ecological operating revenue according to a preset cycle and match differentiated adaptive revenue sharing ratio; S4. Complete accurate revenue sharing among multiple entities and compliant batch disbursement; S5 features encrypted and traceable accounting records throughout the entire process, with public disclosure and archiving, and no human intervention, fully complying with market supervision and compliance requirements. Specifically, after a user scans a merchant's exclusive promotional QR code, they are automatically bound to the corresponding store for life. The user's full-domain ecosystem consumption data, AR-visualized store interaction data, and AR-visualized traceability query data are all accumulated to the corresponding merchant's performance, serving as the core basis for determining the merchant's revenue sharing level and rights allocation. This effectively incentivizes merchants to cultivate ecosystem operations and actively use AR-visualized digital tools to empower offline operations. 7. Decoupled compliant settlement unit (including settlement logic and hardware / software collaborative risk control mechanism) Furthermore, this unit constructs an independent, controllable, and compliant settlement architecture, which completely solves the industry problems of high qualification thresholds, high capital risks, and rigid functions in traditional payment and settlement. It achieves complete decoupling and separation of business logic and fund clearing, and the entire settlement process can be dynamically displayed through AR visualization, taking into account both operational autonomy and financial compliance. Specifically, the system autonomously controls the entire business logic of order generation, identity verification, local discount calculation, revenue sharing and performance archiving through a settlement control program that integrates local and cloud-based processes. It does not touch transaction funds, has no risk of fund pooling, and no financial compliance issues. The fund clearing process is fully connected to compliant third-party entities such as UnionPay and licensed payment institutions, and fund transfers are completed through mature and compliant channels, thus avoiding compliance risks at the source. Furthermore, the system supports parallel settlement in both modes, with a separate settlement control subroutine: First, the online closed-loop fulfillment and settlement model: users place orders online and fulfill them at offline stores, and all transaction amounts are fully included in the merchant's revenue sharing and performance evaluation. Second, the offline self-settlement model: Merchants set their own prices and collect payments independently. The platform only collects transaction data for ecosystem rights accounting and performance statistics, and does not interfere with merchants' independent operation and cash flow. Both types of settlement processes can be dynamically demonstrated across the entire chain through AR visualization, making the settlement logic transparent, verifiable, and traceable; Preferably, the system supports a subroutine for configuring differentiated merchant commission rates, which can set flexible and adjustable commission rates based on industry added value and merchant business scale. Low commission rates can be set for low value-added industries, and reasonable high commission rates can be adapted for high value-added industries. All commission rules are transparent and public, fully protecting the business income of merchants. Moreover, the commission calculation logic can be dynamically displayed through AR visualization pop-up windows. 8. Lifetime rights cross-platform migration unit (including data synchronization algorithm and cross-platform control logic) Furthermore, this unit enables lifelong, lossless retention and cross-platform migration of user ecosystem rights, identity data, and business qualifications, completely resolving industry pain points such as traditional ecosystem device binding, data wipe upon device replacement, and loss of rights upon account cancellation. The entire rights migration process supports AR visual animation demonstration, making the process intuitive, transparent, and traceable. Specifically, the user's ecosystem identity is dually bound to the NFC hardware encryption index and real-name information, which is associated with the person for life and is not forcibly bound to the terminal device, completely getting rid of the device binding restriction; Furthermore, the core of this unit is a cross-platform data synchronization algorithm. When users change terminal devices or upgrade systems, they can complete the trusted identity verification through the cloud account verification subroutine. All identity information, membership level, consumption records, revenue sharing rights, bound merchant relationships, AR visualization scene configuration, and device control permissions can be synchronized with one click, achieving seamless migration of ecological rights across brands, models, and system terminals. Preferably, the system sets up a lifetime retention mechanism for rights and interests, which is achieved through a data permanent archiving subroutine. Before a user actively leaves the ecosystem, all rights, data, and qualifications remain valid indefinitely. Even in a dormant retention state, users can still enjoy basic ecosystem rights and guaranteed revenue sharing benefits, maximizing the ecosystem stickiness between users and merchants. Moreover, the rights and interests migration and retention mechanisms can be intuitively displayed through AR visualization and dynamic animation. 9. Terminal remote security management unit (including hardware risk control principles and software instruction logic) Furthermore, without increasing hardware costs, affecting terminal performance, or changing the device's appearance and structure, this unit relies on the terminal's native network hardware and underlying management program to achieve fully compatible remote security risk control for all terminals, effectively preventing risks such as device loss, privacy leaks, and unauthorized use. All risk control operations are accompanied by AR visual operation and maintenance guidance, making the operation convenient and the process intuitive. Specifically, after all smart terminals adapted to this system are powered on, they can automatically connect to the cloud via any native network hardware such as 4G, 5G, WIFI, or Bluetooth, and synchronize device location, operating status, and online status data to the cloud risk control module in real time. All risk control data can be linked with the AR visualization module to dynamically display the device's real-time operating status and risk control parameters. Furthermore, the cloud-based system has a built-in dedicated encrypted risk control command generation program that strictly distinguishes between ordinary upgrade commands and risk control-specific encrypted commands. When a device malfunctions or is lost, authorized users can issue encrypted risk control commands through the cloud management port. The cloud transmits these commands to the terminal via a dedicated private encryption protocol. The terminal's underlying command parsing subroutine automatically executes actions such as locking the device, resetting the power-on password, forcing a system upgrade, locking privacy permissions, and locating and tracking the device, thoroughly restricting unauthorized users' access to the device and comprehensively protecting the security of users' private data. Simultaneously, the system can issue AR visual maintenance guides, which assist users in quickly completing risk control operations and device maintenance by overlaying virtual and real operation steps. Preferably, the system adopts a dual instruction differentiation mechanism. The regular software upgrade instruction is a general public protocol, while the risk control instruction is a dedicated encrypted private protocol. This ensures the security control level of the equipment while taking into account the user's daily experience, with no additional hardware costs or equipment performance loss throughout the process. 10. Local offline lightweight AR visualization virtual-real fusion interaction unit (core new technology module, zero hardware incremental cost) Furthermore, this unit is deeply developed based on the existing four-layer hardware and software architecture of the system, fully reusing the terminal's native camera, IMU six-axis sensing module, GPU / NPU graphics computing power, main control chip, memory, communication, and NFC hardware. No new hardware devices are required, and there are no incremental costs. Through lightweight customized software algorithms, it achieves local offline fully closed-loop AR visualization and virtual-real fusion interaction, completely differentiating itself from traditional cloud-based AR solutions. This unit deeply integrates AR visualization and virtual-real interaction with the full-domain data link of trusted traceability, commercial settlement, public services, security risk control, and rights migration, achieving multi-scenario, fully offline, highly adaptable, and visualized virtual-real interaction capabilities. Specifically, the core hardware of this unit completely reuses the original standard equipment of the terminal, without any modification or addition: a native high-definition RGB camera (3.3V rated operating voltage, 1080P high-definition viewfinder) is responsible for real-scene image acquisition and anchor point recognition; the IMU six-axis inertial sensing module integrates gyroscope and acceleration data to achieve high-precision pose calculation of six degrees of freedom; the native main control chip is responsible for global scheduling and business data linkage; the GPU / NPU graphics acceleration unit is responsible for real-time visualization rendering of the local 3D model; the native NFC chip serves as the AR visualization trigger anchor point in camera-less scenarios; local high-speed Flash storage pre-stores a lightweight AR visualization 3D model resource package; the wireless communication module is only used for the initial model package synchronization, and can fully run the full AR visualization function in daily offline scenarios; Furthermore, the core software algorithms of this unit are a self-developed, lightweight, and customized algorithm suite, including a lightweight SLAM spatial positioning algorithm, a precise matching algorithm for virtual and real coordinates, a real-time texture visualization rendering algorithm, a scene business data linkage algorithm, and an offline resource scheduling algorithm. All algorithms have undergone deep trimming and optimization, with a total memory usage of ≤50MB, without consuming the terminal's core business computing power or affecting the device's smooth operation. It can be perfectly adapted to mid-to-low-end general-purpose smart terminals, ultimately achieving a stable rendering frame rate of ≥30 frames and an interaction latency of ≤20ms for high-performance AR visualization virtual-real interaction effects. Specifically, the core offline operation mechanism of this unit is as follows: the standardized 3D model package is pre-compressed in the cloud using ONNX quantization compression technology, reducing the model size by more than 70%. It is then first downloaded and stored locally in the terminal's Flash partition. All subsequent AR visualization recognition, positioning, rendering, interaction, and data linkage processes are completed locally in a closed loop on the terminal, without relying on cloud graphics computing power. The full range of AR visualization virtual-real interaction functions can be used even in scenarios with weak network, network outages, or no signal. Furthermore, this unit includes four core AR visualization functions, fully covering all scenarios in commerce, operations and maintenance, public services, and risk control. The specific implementation principles are as follows: 1. AR Visualized Trusted Traceability: Users scan product traceability labels with their terminal camera or trigger the AR function via NFC sensing. The local SLAM algorithm quickly completes millimeter-level spatial positioning and virtual-real coordinate matching, and retrieves locally cached four-level production and sales trusted traceability data in real time. Virtual layers such as product origin, batch, distribution chain, quality inspection report, certificate number, and after-sales information are overlaid on the real-world image, dynamically and visually displaying the entire trusted traceability process of the product, replacing the traditional static text query mode. The traceability results are authentic, verifiable, and the data cannot be tampered with. 2. AR Visualized Digital Store Business Interaction: After merchants activate the corresponding level of AR store permissions, the terminal pre-stores virtual store scenes, 3D product models, discount benefits, and revenue sharing rules. When users arrive at the store, the terminal automatically identifies the store's exclusive anchor points, triggering adaptive AR visualization scene adaptation. Virtual shopping guides, 3D product breakdown displays, dynamic pop-up offers, and service guidance are overlaid on the real-world scene, achieving an immersive offline shopping visualization experience. User AR visualization interaction data is retained locally in real time and synchronized to the cloud, linking with merchant performance statistics and tiered revenue sharing accounting. 3. AR Visualized Full-Scenario Operation and Maintenance: This unit supports five major operation and maintenance scenarios: hardware equipment operation and maintenance, software architecture teaching, transaction process demonstration, rights migration display, and after-sales risk control guidance. Users can trigger AR 3D disassembly animation by scanning the device's SN code or the store's exclusive QR code. The virtual and real images are overlaid to visualize the terminal hardware structure, the four-layer software architecture data flow, the entire discount calculation process, the cross-platform rights migration logic, and the remote locking operation steps. No paper manuals are required, significantly reducing equipment training and after-sales operation and maintenance costs. 4. AR Visualization Empowers Public Service Scenarios: For public service scenarios such as childcare, elderly care, home decoration, travel, and home security, AR visualization integrates virtual and real elements to provide scenario-based intelligent guidance. This includes AR demonstrations of standardized infant care steps, AR real-scene inspections of home safety hazards for the elderly, AR simulation and adaptation of home decoration layouts, and virtual-real navigation for travel scenarios. All public service data is interconnected with the system's public service units and the user's lifelong rights system, constructing a reliable service closed loop that combines virtual and real elements, provides visualization, and covers the entire lifecycle. Furthermore, this unit features a complete local closed-loop operation process, with no reliance on cloud-based graphics computing power and full-process AR visualization: S1. The terminal's native hardware collects real-world images, marker anchor points, and spatial pose data. S2. The local lightweight SLAM algorithm completes millimeter-level spatial positioning and precise calibration of virtual and real coordinates; S3, the local offline resource scheduling module retrieves pre-stored lightweight 3D models and corresponding scene business data; S4 and GPU / NPU complete real-time texture visualization rendering and precise virtual layer overlay; S5, the local intermediate scheduling layer links various business modules and overlays core business parameters such as discounts, revenue sharing, benefits, and traceability; S6 responds to local interactive commands such as touch and QR code scanning to complete scene switching, process breakdown, and step jump; S7 features local encrypted caching of interactive data, on-demand synchronization and cloud archiving, and linkage between ecosystem benefits and merchant performance accounting; Specifically, the core differentiating technical feature of this unit is as follows: Conventional AR solutions on the market all rely on cloud graphics server computing power, which suffers from high latency, failure when the network is out of service, large data consumption, poor adaptability, and lack of systematic visualization implementation; This invention deeply integrates the AR visualization scheduling engine into the terminal's local intermediate scheduling layer, sharing a single terminal hardware computing power with multimodal trusted traceability, local pre-discount calculation, and remote security management, enabling a single hardware to support the collaborative operation of multiple services without the need for a separate dedicated AR chip, ultimately achieving the core technical advantages of zero incremental cost, offline availability in all scenarios, multi-module data linkage, and full-process visualization empowerment; 11. Full Lifecycle Scenario Empowerment Unit Furthermore, this unit constructs a comprehensive and trustworthy ecosystem loop integrating commerce, people's livelihood, public welfare, industry, and AR visualization and virtual-real interaction, fully covering users' life-cycle needs and merchants' operational needs across all scenarios. The scope of scenarios covered far exceeds that of traditional single commercial platforms, and all scenarios can realize AR visualization empowerment and virtual-real interaction implementation. Specifically, the public service scenarios comprehensively cover the entire chain of services, including dating and matchmaking, premarital counseling, pregnancy and health, prenatal care, childbirth and postpartum care, postpartum recovery, infant care, children's education, interest cultivation, physical fitness management, ideological and moral education, academic advancement, youth employment, skills training, entrepreneurship support, middle-aged home care, elderly care, home security, housekeeping services, local transportation, business travel and accommodation, foreign language learning, and convenient living services. It connects with public hospitals, certified service agencies, and legitimate service providers throughout the process to ensure compliant and reliable services, and is equipped with AR-based visual scenario-based interactive auxiliary services and visual operation and maintenance guidance. Furthermore, the commercial industry scenarios comprehensively cover the entire chain of enterprise design, procurement, production, shipment, sales, investment attraction, recruitment, and business consulting. Relying on full-domain traffic empowerment, a unified supply chain system, free digital tools, AR-visualized store digital empowerment, and AR-visualized operation and maintenance guidance, it comprehensively helps SMEs and physical merchants reduce costs, increase efficiency, and achieve long-term stable operation. Furthermore, the public welfare empowerment scenarios include core modules such as hardship relief, interest-free support for entrepreneurship, traditional cultural education, popularization of patriotic thought, and incentives for ecological co-construction, building a mutually beneficial and win-win ecological operation system. All public welfare service results can be visualized through AR, effectively enhancing ecological credibility and social value. 12. System-level product adaptation system Furthermore, to adapt to the needs of different user groups, industry scenarios, and market price points, this system establishes a three-tiered function selection system (high, medium, and low). While ensuring full coverage of core basic functions, it achieves differentiated scenario adaptation, enabling rapid and scalable coverage of the entire market. Each version is equipped with tiered AR visualization functions, with no incremental hardware costs throughout the process. Specifically, the low-end basic version retains core terminal adaptation, basic multimodal trusted traceability, general local discounts, general compliant settlement, basic public services, and simple AR visual traceability display functions, making it suitable for general users and micro-merchants, and enabling low-cost and rapid completion of basic ecosystem coverage; Furthermore, the mid-range advanced version, building upon the basic version's features, adds adaptive tiered revenue sharing, precise and reliable end-to-end traceability, merchant supply chain empowerment, exclusive value-added services for people's livelihoods, security risk control for conventional equipment, AR visualization of 3D products, and basic interactive functions for stores, making it suitable for individual business owners, mid-range consumers, and regional chain merchants; Furthermore, the high-end flagship version integrates all core functions of the system, including multimodal high-end trusted traceability, refined dynamic revenue sharing, full-domain traffic empowerment, customized tiered discounts, comprehensive device security risk control, high-end public and commercial customized services, AR visualization full-scene offline virtual and real interaction, AR visualization operation and maintenance teaching, and government and enterprise collaboration empowerment functions, which are suitable for brand merchants, high-value users, and leading industry partners.

[0005] Complete system implementation steps (including AR visualization function debugging and implementation, and a complete implementation case study) 1. Terminal Ecosystem Adaptation and Deployment: Match the corresponding adaptation mode according to the terminal type. For proprietary terminals, the system base, core ecosystem functions, lightweight offline AR visualization plugin, and SLAM positioning algorithm are pre-installed at the factory to complete the underlying computing power adaptation and debugging. For third-party terminals, the system and AR visualization function are adapted through OTA upgrades, lightweight plugin installation, and brand customization. The performance of the terminal's native hardware collaboration is debugged to ensure stable collaboration between the camera, IMU, GPU, and NFC modules. AR visualization rendering is smooth without lag, virtual-real offset, or device overheating, ensuring the stable and compatible operation of all services and AR visualization functions. 2. Multimodal Identification Pre-fabrication and Trusted Traceability Construction: Adapt corresponding traceability identifiers according to product application scenarios. High-value products are equipped with NFC hardware trusted identifiers, lightweight products are equipped with encrypted QR codes, and bulk goods are adapted with RFID identifiers. Complete the solidification of factory information and cloud-based encrypted filing, build a four-level production and sales trusted traceability database, and link with the AR visualization traceability module to complete data docking and debugging, ensuring accurate identification of traceability information, synchronous virtual and real display, and verifiable data; 3. Merchant Ecosystem Onboarding Authentication: Small and micro merchants can quickly onboard through the hardware express mode, connect to LED advertising terminal equipment, and complete the system network automatic filing; Brand merchants can complete compliance authentication through the qualification review mode, independently configure store-specific discount parameters, user lifetime binding rules, and tiered revenue sharing rights parameters, generate exclusive promotion traceability QR codes, and open corresponding AR visual store interaction, AR visual operation and maintenance, and AR visual merchant recruitment display permissions according to the onboarding level. 4. User Real-Name Ecosystem Binding: Users complete full-domain real-name registration using a unique mobile phone number and ID card number, and complete hardware-level trusted identity verification based on NFC hardware or dynamic QR code, realizing multi-terminal account synchronization, rights interoperability, lifelong binding, and enabling access to all-in-one card consumption, discount redemption, revenue sharing benefits, AR visualization full-scene interaction, and full life-cycle public and commercial services. 5. Local Discounts and Compliant Settlement Implementation: The terminal caches the merchant's preset tiered discount parameters locally, and debugs the local pre-discount calculation algorithm to ensure that price deduction and rights verification are completed in real time during consumption verification. It strictly implements the standardized model of online display and reservation and offline fulfillment and collection. Data storage and performance statistics are completed in the cloud simultaneously. At the same time, the AR visualization discount calculation and display function is debugged to ensure that the settlement logic is intuitive, transparent, compliant and risk-free. 6. Multi-entity hierarchical revenue sharing execution: Debug the cloud-based automated revenue sharing and accounting subroutine, configure differentiated revenue sharing weights and disbursement cycles, and the system captures real-time data from all dimensions, including credible traceability, merchant operations, user consumption, and AR visualization scene interaction, to automatically complete multi-entity hierarchical revenue sharing, batch compliant disbursement, and encrypted archiving of accounts, ensuring accurate revenue sharing, full traceability, and verifiability. 7. Terminal remote security risk control takes effect: Debug the terminal network synchronization mechanism and exclusive encrypted risk control commands, simulate risk scenarios such as device loss and abnormal theft, verify the effectiveness of remote locking, password reset, location tracking and privacy lock functions, strictly distinguish between regular upgrade commands and risk control encrypted commands, and debug the AR visual risk control operation and maintenance guidance function to balance device security protection capabilities and user experience; 8. Full-scale debugging of local offline AR visualization virtual-real interaction function: Debug lightweight SLAM spatial positioning, virtual-real coordinate matching, offline rendering algorithm, verify the stability of AR visualization reliable traceability display, AR visualization digital store interaction, AR visualization operation and maintenance teaching, AR visualization public service scenario function one by one, adaptively adapt to high and low terminal hardware, automatically adjust rendering accuracy, ensure no lag, no virtual-real offset, and usability when offline, and realize real-time synchronization and logical closed loop of AR visualization data and ecosystem; 9. Full lifecycle closed-loop ecosystem operation: The system continuously provides merchants with free traffic, unified supply chain, and full-domain digital and AR visualization empowerment, and provides users with full-scenario public and commercial services, lifelong trusted rights protection, and offline virtual and real visualization interactive experience. Ultimately, it forms a long-term trusted ecosystem closed loop with terminal compatibility and adaptation, hardware-level trusted traceability and rights confirmation, local price control, decoupled compliant settlement, adaptive hierarchical revenue sharing, AR visualization virtual and real empowerment, full-domain scenario coverage, and remote security risk control. Specific Implementation

[0006] Full-domain digital trusted application of physical supermarkets A regional chain supermarket chain completed its digital upgrade using the mid-to-advanced version of this system. The supermarket's terminal devices quickly adapted to the system and AR visualization function via OTA upgrades, requiring no hardware modifications and incurring zero incremental implementation costs. The supermarket adopted a qualification verification model for onboarding, completing compliant filing of business licenses and operating qualifications. The system is configured with region-specific access permissions, effectively avoiding malicious competition from neighboring businesses. All products sold in the supermarket are pre-loaded with dual-modal trusted traceability labels using NFC and encrypted QR codes. Production, sales, quality inspection, and distribution data are all entered into a cloud-based four-level trusted traceability database. Upon entering the store, consumers can trigger the local offline AR visualization traceability function by scanning the product label with their mobile devices, overlaying the product onto a real-world scene. The system provides reliable information across the entire supply chain, including production, sales, quality inspection, and distribution. Simultaneously, a local adaptive gradient discount algorithm on the terminal completes price verification in real time, ensuring full functionality even without a network connection. Users scan a QR code to bind their exclusive promotional code to the supermarket, establishing a lifelong binding relationship. Data from all-domain consumption and AR-visualized store interactions are accumulated and included in the supermarket's performance, with the system periodically performing tiered dynamic revenue sharing. The system also provides supermarkets with unified supply chain empowerment and comprehensive traffic generation, relying on remote security management to ensure data security for terminal devices. After implementation, this solution completely resolves the problem of customer diversion in supermarkets, improves revenue sharing efficiency by 90%, and increases user retention rate by 65%, helping supermarkets achieve a low-cost, reliable, visualized, and digital transformation and upgrade.

[0007] Lightweight Ecosystem Application for Small and Micro Merchants Community fruit and vegetable stores, convenience stores, and other small and micro-sized merchants can join the ecosystem using the basic version of this system. They can quickly join by purchasing dedicated LED advertising terminals, with no entry fees or security deposits, achieving low-cost and rapid ecosystem registration. The terminals automatically generate exclusive promotional QR codes, with built-in merchant-defined discount parameters and lifelong user binding rules. After registering ecosystem accounts with their real names, nearby residents can scan the code to bind their accounts to the merchants. Daily purchases are discounted locally by the terminals, enabling online reservations and in-store fulfillment, completely eliminating online-offline price conflicts. The system provides small and micro-sized merchants with free digital empowerment and basic revenue sharing benefits. Dormant users can still contribute basic revenue to merchants. Simultaneously, a simple AR visual traceability function helps users intuitively verify product authenticity and view circulation information, significantly improving consumer trust. After implementing this solution, small and micro-sized merchants reduce customer acquisition costs by 70% and steadily increase operating profits, completely solving the industry pain points of high barriers to digital transformation, difficulty in customer acquisition, and low operational credibility for small and medium-sized businesses.

[0008] AR visualization for public services enables real-world application. This system connects to regional public service platforms, leveraging full-lifecycle scenario empowerment units and local offline AR visualization virtual-real fusion units to implement three core public service scenarios: childcare, elderly care, and home security. For infant care, user terminals can trigger offline AR visualization childcare guidance, overlaying standardized operating steps for infant care, feeding, and early education onto a real-world scene for intuitive and easy learning. For elderly users, the AR visualization home security function automatically inspects home safety hazards in real-world scenarios, displaying risk warnings and rectification plans in real time. All public service data is linked to users' lifelong trustworthy rights and interests, and simultaneously incorporated into the ecosystem revenue sharing system. Service partners can obtain corresponding ecosystem benefits, ultimately forming a trustworthy service closed loop that links commerce, public welfare, and virtual-real visualization, significantly improving the convenience, effectiveness, and public acceptance of public services. Key technical challenges and solutions (including a detailed breakdown of the technical challenges in full-scale AR visualization)

[0009] Poor compatibility with multiple brands of devices can easily lead to issues such as missing features, performance lag, and system conflicts. Solution: Adopting a multi-path differentiated adaptation architecture, three adaptation solutions are matched for proprietary terminals, mature third-party terminals, and old low-end terminals respectively: pre-installed, OTA upgrade, and lightweight plugin. This fully covers mainstream smart terminals on the market. The layered adaptation strategy avoids system permission conflicts and hardware computing power mismatch issues. At the same time, AR visualization rendering parameters are optimized and background processes are streamlined for low-end terminals, ensuring that all core functions can run stably on terminals of different levels. This completely solves the technical problems of poor cross-brand terminal adaptation and compatibility, missing functions, and running lag.

[0010] Traditional AR visualization and virtual-real fusion rely on cloud computing power, which leads to failure when the network is down, high latency, and high adaptation costs. Solution: Build a lightweight, offline AR visualization architecture for the terminal, relying on the terminal's native hardware computing power to complete the entire process of SLAM spatial positioning, virtual-real coordinate matching, and 3D model rendering. The ONNX quantization compression technology simplifies model resources, and the locally pre-stored resource package enables full functionality even when offline. No dedicated hardware or cloud computing power is required. It is compatible with high-end and low-end terminals and achieves high-performance virtual-real visualization interaction with zero incremental cost.

[0011] Data is isolated in business traceability, settlement, and operation and maintenance scenarios, and AR visualization is disconnected from business logic. Solution: Connect the AR visualization virtual-real fusion module with the data links of trusted traceability, price calculation, revenue sharing and settlement, public services, and security risk control across all business operations; unify the data interaction protocol and virtual-real display standards; enable real-time driving of AR visualization virtual-real fusion scene rendering by business data; eliminate the problems of data isolation and display disconnect; and achieve integrated linkage between business logic and virtual-real visualization interaction.

[0012] Traditional ecological rights are rigid and cannot achieve lifelong cross-regional migration. Solution: Build a hardware-level lifetime trusted identity binding mechanism, relying on passive NFC hardware identifiers to bind user ecosystem rights, breaking away from the hardware binding restrictions of terminal devices, configuring cross-terminal data synchronization algorithms and permanent data archiving mechanisms, supporting lossless rights migration across multiple brands and system terminals, and combining AR visualization with a dynamic demonstration process that blends the virtual and real worlds to ensure that the rights migration process is traceable and verifiable throughout;

[0013] Commercial settlements involve compliance risks and lack accuracy in revenue sharing. Solution: Adopting a decoupled architecture for business logic and fund clearing, we can independently control the entire business process and only connect with licensed financial institutions to complete fund transfers, thus eliminating the compliance risks of fund pooling; We build an adaptive hierarchical accounting algorithm and incorporate the contribution weight of AR visualization virtual and real scene interaction to achieve differentiated and accurate accounting for multiple entities, with full accounting traceability and compliance disclosure. Beneficial effects

[0014] Compared to existing technologies, this invention comprehensively addresses various technical deficiencies and operational pain points in the traditional full-domain business ecosystem through architectural innovation, software and hardware co-optimization, and localized implementation of AR visualization and virtual-real fusion technology. It possesses six core beneficial effects across six dimensions: technology, cost, compliance, scenario, experience, and security, as detailed below: 1. Cross-terminal and full-domain compatibility, with extremely strong ecosystem universality and scalability; This invention builds a dual-mode adaptation architecture for both self-owned terminal pre-installation and third-party terminal after-installation. Through OTA upgrades, lightweight plugins, and brand customization, it adapts to the vast majority of mainstream smart terminals on the market, requiring no hardware modification and incurring no incremental deployment costs. It completely breaks down the barriers of traditional ecosystem device binding, system closure, and fragmented rights, enabling seamless cross-device migration of user identity, business data, ecosystem rights, and AR visualization virtual-real fusion configuration, significantly reducing ecosystem deployment and iteration costs and improving the universality of full-domain ecosystem adaptation; 2. Hardware-level trusted traceability ensures data security, reliability, and immutability. Leveraging a passive NFC hardware-based lifetime unique identifier, coupled with a seven-modal traceability system and a four-level production and sales encryption and evidence storage mechanism, a hardware-level lifetime trusted ownership confirmation system is constructed. This differs from the shortcomings of traditional pure software traceability, which is prone to tampering and has low reliability. Combined with local AR visualization and virtual-real fusion technology, the complex traceability data is transformed into a three-dimensional, dynamic, and interactive virtual-real scenario, enabling intuitive display, full verification, and full traceability of product production and sales information throughout the entire chain, significantly enhancing the credibility of commercial traceability. 3. Eliminates channel price conflicts, significantly improving business operation stability; Innovatively adopts a terminal-based pre-discount calculation model, eliminating reliance on cloud computing power and third-party platform control, and achieves flexible price control through an adaptive gradient discount algorithm; Strictly implements an online display and reservation, offline fulfillment and payment operation model, completely solving the industry pain points of online and offline price conflicts and customer diversion in traditional platforms, coupled with AR visualization of virtual and real process displays, making price calculation and discount redemption processes transparent and visible, enhancing trust between merchants and users; 4. Precise and compliant revenue sharing, with a more comprehensive and equitable rights distribution system; It innovatively constructs a two-tiered revenue sharing system consisting of basic rights without consumption plus tiered value-added rights based on consumption. This system incorporates user consumption behavior, merchant operational behavior, and contributions from AR-visualized virtual-real fusion scene interactions into the revenue sharing weight. Relying on automated algorithms, it completes differentiated and precise revenue sharing for multiple stakeholders, avoiding the problems of traditional fixed revenue sharing, large errors in manual calculation, and poor adaptability. The entire accounting process is encrypted and traceable, with compliant public disclosure and no human intervention, fully complying with market regulatory compliance requirements and ensuring a fair and just distribution of rights among multiple stakeholders in the ecosystem. 5. The settlement architecture is compliant and controllable, completely avoiding financial risks; it adopts a compliant architecture that completely decouples business logic from fund clearing. The system autonomously controls all core business processes, including order generation, discount calculation, revenue sharing statistics, and performance archiving, without touching transaction funds or engaging in fund pooling risks; fund transfers are fully integrated with compliant entities such as UnionPay and licensed payment institutions, balancing business operation autonomy with financial compliance. The dual-mode settlement system adapts to different merchant business models, offering wider adaptability and stronger fault tolerance. 6. Zero-cost deployment of local AR visualization and virtual-real fusion, significantly upgrading the user interaction experience; fully reusing the terminal's native hardware computing power and device modules, requiring no dedicated AR hardware support, and achieving local AR visualization and virtual-real fusion interaction capabilities with low latency and high frame rate through lightweight customized algorithms; covering all scenarios including traceability display, store business interaction, equipment operation and maintenance training, and public service empowerment, completely solving the shortcomings of traditional AR solutions such as reliance on the cloud, high cost, poor adaptability, and failure when the network is down, achieving full-domain virtual-real visualization service empowerment with zero incremental cost; 7. Full lifecycle scenario coverage and extremely robust ecosystem closed loop; it connects all scenarios including commercial production and sales, physical operations, user consumption, marriage and parenting, elderly care and employment, public welfare and convenience, and government-enterprise collaboration, breaking through the limitations of traditional fragmented scenarios and single services; all livelihood, commercial, and public welfare scenarios can be linked with AR visualization and virtual-real fusion functions to build a digital ecosystem closed loop that combines virtual and real elements, covers the entire domain, and provides lifelong services, significantly improving user retention and merchant ecosystem stickiness; 8. Robust terminal security risk control provides comprehensive protection for device and data security; a remote encrypted security management system for terminals is established, using public and private dual protocols to distinguish between routine upgrades and risk control commands. This allows for remote implementation of risk control operations such as device locking, password reset, location tracking, and privacy locking, effectively preventing risks of device loss, unauthorized use, and privacy data leakage; coupled with AR-visualized virtual-real fusion operation and maintenance guidance, the system simplifies device risk control and operation and maintenance processes, improving the convenience and reliability of terminal security management. 9. High flexibility in tiered adaptation and extremely low cost of large-scale deployment; A three-tiered differentiated function adaptation system (high, medium, and low) is established, matching tiered functions and AR visualization virtual-real fusion service capabilities to ordinary users, micro-merchants, brand merchants, and leading industry players. It can adapt to different market levels and different application scenarios, enabling rapid and low-cost large-scale deployment across the entire ecosystem, with a deployment threshold far lower than traditional digital ecosystem solutions; 10. The ecosystem is long-lasting and iterative, with outstanding scalability and social value; the system adopts a microservice modular architecture and a decoupled hardware and software design, supporting function iteration, scenario expansion, and algorithm upgrades, and can complete ecosystem updates without modifying the underlying hardware architecture; it balances commercial profitability, public services, and public welfare empowerment, and relies on AR visualization and virtual-real fusion technology to achieve the popularization of digital services, combining commercial value and social welfare value, and can operate and iterate stably for a long time; Attached Figure Description The following figures are schematic diagrams related to this invention patent.

[0015] Figure 1 This is a schematic diagram of the overall four-layer progressive software and hardware base architecture of the present invention;

[0016] Figure 2 This is a block diagram illustrating the overall module linkage and data interaction logic of the system of the present invention;

[0017] Figure 3 This is a schematic diagram of the four-level production, sales, and storage process for multimodal identification and trusted traceability of the present invention.

[0018] Figure 4 This is a schematic diagram of the landing path for the dual-mode terminal adaptation of the present invention;

[0019] Figure 5 This is a flowchart illustrating the execution process of the local pre-discount calculation algorithm of this invention.

[0020] Figure 6 This is a schematic diagram of the dual-track merchant access certification process of the present invention;

[0021] Figure 7 This is a logic block diagram of the adaptive hierarchical accounting rights allocation of the present invention;

[0022] Figure 8 This is a schematic diagram of the decoupled compliant settlement dual-mode operation process of the present invention;

[0023] Figure 9 This is a flowchart illustrating the offline operation closed-loop process of the local offline AR visualization virtual-real fusion interaction unit of this invention.

[0024] Figure 10 This is a block diagram of the execution logic of risk control instructions for remote security management of the terminal in this invention.

Claims

1. A cross-terminal compatible AR visualization, trusted, traceable, full-domain business ecosystem software and hardware foundation system, characterized in that, The system comprises a four-layer progressive hardware and software architecture, consisting of, from top to bottom, a universal business application layer for all scenarios, a local terminal scheduling layer, a smart terminal hardware adaptation layer, and a cloud-based full-domain ecosystem service layer. The smart terminal hardware adaptation layer reuses the smart terminal's native passive NFC RF chip, IMU six-axis inertial sensing module, high-definition RGB camera, GPU / NPU graphics acceleration unit, and local Flash storage hardware device, providing underlying hardware support for the system's AR visualization virtual-real fusion interaction and hardware-level trusted traceability and rights confirmation. The local terminal scheduling layer integrates local business computation and offline graphics rendering core subroutines, enabling it to independently complete local terminal business logic processing and AR visualization virtual-real fusion offline rendering work without relying on real-time cloud computing power. The system integrates multimodal identification trust... The system comprises ten functional units: a traceability unit, a dual-mode terminal adaptation unit, a local pre-discount calculation unit, a dual-track merchant access authentication unit, an adaptive tiered revenue sharing unit, a decoupled compliant settlement unit, a lifetime rights cross-platform migration unit, a terminal remote security management unit, a full lifecycle scenario empowerment unit, and a local offline lightweight AR visualization virtual-real fusion interaction unit. Each functional unit shares data and operates collaboratively, relying on native hardware of general-purpose smart terminals to achieve multi-brand terminal full-domain compatibility and adaptation, hardware-level end-to-end trusted traceability and rights confirmation, conflict-free localized price control, multi-entity compliant tiered revenue sharing, lifetime cross-platform migration of user ecosystem rights, terminal remote security risk control, full lifecycle scenario empowerment, and zero-hardware incremental cost offline AR visualization virtual-real fusion full-domain interaction capabilities, thus constructing a complete closed-loop, fully trusted commercial digital ecosystem.

2. The cross-terminal compatible AR visualization, trusted, traceable, full-domain business ecosystem software and hardware foundation system according to claim 1, characterized in that, The passive NFC RF chip uses the MF1S50 passive RF chip, with a rated operating frequency of 13.56MHz. It is compatible with the ISO14443A general RF protocol specification and has zero static power consumption. The chip has a permanent, unalterable, read-only partition and a dynamic, readable, and writable partition inside, which are used to build a hardware-level, lifelong trusted user identity system and a product traceability and rights confirmation system. The IMU six-axis inertial sensing module is used to collect terminal spatial attitude data, and the high-definition RGB camera is used to collect real-scene images and marker anchor point data. The two work together to complete the terminal's millimeter-level spatial positioning. Combined with the local lightweight rendering computing power of the GPU / NPU graphics acceleration unit, it provides accurate pose support and graphics rendering support for the system's local offline AR visualization virtual-real fusion interaction.

3. The cross-terminal compatible AR visualization, trusted, traceable, full-domain business ecosystem software and hardware foundation system according to claim 1, characterized in that, The terminal-local intermediate scheduling layer serves as the core computing and AR visualization scheduling carrier of the system. It operates based on the native main control chip, RAM, flash memory, and GPU / NPU hardware resources of the smart terminal. It includes a built-in device identity verification subroutine, a local pre-discount calculation subroutine, a lightweight AR visualization rendering scheduling subroutine, a SLAM spatial positioning subroutine, a virtual-real coordinate matching subroutine, and an offline function support subroutine. The terminal-local intermediate scheduling layer can independently complete all local business calculations, precise virtual-real coordinate calibration, AR visualization offline rendering, and business data encryption caching without calling real-time computing power from the cloud, effectively ensuring the stable operation of the system's full functions in scenarios with weak networks or no network access.

4. The cross-terminal compatible AR visualization, trusted, traceable, full-domain business ecosystem software and hardware foundation system according to claim 1, characterized in that, The multimodal identification trusted traceability unit is compatible with seven mainstream traceability identifiers: encrypted dynamic QR code, national standard one-dimensional barcode, general RFID radio frequency, invisible nano-optical coding, PUF physical non-clonable hardware fingerprint, compliant encrypted security code, and thermal transfer integrated coding. The multimodal identification trusted traceability unit is equipped with a four-level production and sales traceability encryption and evidence storage algorithm, sequentially completing the entire process of product factory information solidification, multi-level distribution and circulation data evidence storage, terminal retail trusted verification, and cloud-based end-to-end data encryption archiving. The multimodal identification trusted traceability unit is linked and adapted with a local offline AR visualization virtual-real fusion interactive unit, transforming static traceability text data into dynamic three-dimensional virtual-real display images, realizing visualized, verifiable, and tamper-proof product end-to-end traceability information.

5. The cross-terminal compatible AR visualization, trusted, traceable, full-domain business ecosystem software and hardware foundation system according to claim 1, characterized in that, The dual-mode terminal adaptation unit includes a pre-installed mode for proprietary terminals and a post-installed adaptation mode for third-party terminals. The pre-installed mode for proprietary terminals involves pre-installing the system base, AR visualization offline rendering plugin, and SLAM spatial positioning algorithm at the factory stage, enabling full ecosystem functionality compatibility upon delivery. The post-installed mode for third-party terminals includes three implementation paths: brand customization adaptation, system OTA upgrade adaptation, and lightweight plugin adaptation, fully covering mainstream smart terminal devices on the market. The dual-mode terminal adaptation unit can achieve lossless migration of user identity information, business data, ecosystem rights, and AR visualization scene configuration parameters across brands and operating system terminals, completely solving the technical drawbacks of traditional smart terminal ecosystem device binding, fragmented multi-terminal rights, and inability to interoperate data.

6. The cross-terminal compatible AR visualization, trusted and traceable full-domain business ecosystem software and hardware foundation system according to claim 1, characterized in that, The local pre-discount calculation unit is equipped with an adaptive gradient discount algorithm. The algorithm weight calculation formula is W=A×B×C×D, where W is the final discount weight, A is the user level coefficient, B is the merchant qualification coefficient, C is the category added value coefficient, and D is the operating period coefficient. Each coefficient is a dynamic parameter that can be flexibly configured in the backend. The local pre-discount calculation unit independently completes the discount calculation based entirely on the local computing power of the terminal, without relying on cloud servers or third-party platform management. It synchronously links with the AR visualization virtual-real fusion module to dynamically display the entire process of discount calculation and rights redemption. The system adopts a standardized operation model of online display and reservation and offline fulfillment and payment collection, fundamentally eliminating industry problems such as price conflicts and customer diversion between online and offline channels.

7. The cross-terminal compatible AR visualization, trusted, traceable, full-domain business ecosystem software and hardware foundation system according to claim 1, characterized in that, The dual-track merchant access certification unit sets up two differentiated access mechanisms: hardware-based rapid onboarding and qualification verification, adapting to physical businesses of different sizes and qualifications. The hardware-based rapid onboarding mode relies on an ecosystem-exclusive LED advertising terminal to enable micro and small businesses to quickly register and onboard online, with basic AR visualization and virtual-real fusion traceability display and simple store interaction functions enabled by default. The qualification verification mode adopts a dual review mechanism of cloud-based intelligent verification combined with manual review to complete the compliant onboarding of brand merchants and chain merchants, and opens up high-end AR visualization digital store interaction, equipment operation and maintenance training, and supply chain empowerment permissions. The dual-track merchant access certification unit is configured with a regional access control subroutine, which limits the authorization of only one similar merchant to onboarding within a preset service radius, effectively avoiding vicious competition among peers.

8. The cross-terminal compatible AR visualization, trusted and traceable full-domain business ecosystem software and hardware foundation system according to claim 1, characterized in that, The adaptive tiered revenue-sharing unit innovatively constructs a two-tiered rights distribution system consisting of basic non-consumption rights and tiered consumption-based value-added rights. It incorporates merchant operating data, user consumption retention data, and AR-visualized virtual-real fusion scene interaction data into the revenue-sharing weight calculation dimension. The adaptive tiered revenue-sharing unit is equipped with a cloud-based automated batch calculation subroutine that collects incremental operating revenue of the ecosystem according to a preset cycle. It automatically completes differentiated and accurate revenue sharing, compliant batch distribution, and encrypted archiving of accounts for multiple entities including merchants, users, platforms, and public welfare. The entire revenue-sharing process is free from human intervention, fully traceable, and verifiable, ensuring fair, compliant, accurate, and efficient distribution of rights among multiple entities in the ecosystem.

9. The cross-terminal compatible AR visualization, trusted and traceable full-domain business ecosystem software and hardware foundation system according to claim 1, characterized in that, The decoupled compliant settlement unit adopts a compliant architecture that completely separates business logic from fund clearing. The system independently controls all core business processes, including order generation, identity verification, local discount calculation, revenue sharing statistics, and business performance archiving, without touching transaction funds and eliminating the compliance risk of fund pooling. The fund transfer and clearing process only connects with compliant financial entities such as UnionPay and licensed payment institutions to complete the operation. The decoupled compliant settlement unit supports the parallel operation of online closed-loop performance settlement and offline self-settlement, adapting to different merchant operating scenarios. Moreover, the entire settlement process can be dynamically demonstrated and displayed through an AR visualization virtual-real fusion module, making the settlement process transparent, traceable, and verifiable.

10. The cross-terminal compatible AR visualization, trusted, traceable, full-domain business ecosystem software and hardware foundation system according to claim 1, characterized in that, The local offline lightweight AR visualization virtual-real fusion interaction unit fully reuses the terminal's native hardware resources, and is equipped with lightweight SLAM spatial positioning, precise matching of virtual and real coordinates, and offline texture rendering core algorithms. It simplifies 3D model resources through ONNX quantization compression technology, with a total memory usage of ≤50MB, a stable rendering frame rate of ≥30 frames, and an interaction latency of ≤20ms. After the interaction unit completes the solidification and storage of the lightweight 3D model package upon first network connection, it can independently complete the closed-loop virtual-real interaction of AR visualization trusted traceability, digital store interaction, full-scenario operation and maintenance teaching, and virtual-real guidance for public services in offline scenarios. The system-integrated lifetime rights cross-terminal migration unit relies on passive NFC hardware to bind the user's lifetime ecosystem identity, realizing lossless migration of cross-terminal rights and dormant rights protection. The terminal remote security management unit uses public and private dual protocols to distinguish between regular upgrade commands and encrypted risk control commands. Combined with AR visual operation and maintenance guidance, it realizes visualized security management of remote terminal locking, location tracking, and privacy protection. The system builds a three-level differentiated function adaptation system of high, medium and low, fully covering the entire life cycle of commercial, people's livelihood and public welfare application scenarios, realizing graded AR visualization virtual and real empowerment, and building a full-domain closed-loop trusted digital ecosystem service system.

Images