A data structure, construction method and system of a global host-guest isomorphic root carrier of all things

Abstract

This invention discloses a data structure, construction method, and system for a root carrier of isomorphic entities across the entire domain, belonging to the fields of computer data modeling, distributed object governance, and coding collaboration. The data structure includes a root carrier bound to intelligent credit codes of all subjects and objects across the entire domain, and sets associated coding fields and five core field modules: existing asset ownership confirmation, behavior control, value accounting, full lifecycle operation, and compliant evidence storage. The construction method includes a five-step closed-loop process: existing asset ownership confirmation, semantic mapping, distributed transaction encapsulation, blockchain compliant evidence storage, and root carrier instantiation and network access. The system adopts a five-layer bidirectional interactive architecture: subject control layer, object root carrier layer, contract execution layer, value accounting layer, and risk control evidence storage layer. This invention utilizes intelligent credit code classification bits to achieve sharding mapping and scheduling linkage, integrates hybrid consensus, distributed transactions, and rollback / reset mechanisms, and realizes unified ownership confirmation, trusted flow, compliant value accounting closed-loop, and full-link collaboration for heterogeneous subjects and objects across the entire domain. It is applicable to the governance of assets and data across multiple industries such as government affairs, rural revitalization, and enterprise operations.

Description

[0001] This invention belongs to the fields of computer data modeling, distributed object governance, trusted data space, and underlying coding collaboration technology. Specifically, it relates to a data structure, construction method, and system for a global subject-object isomorphic root carrier. Background Technology

[0002] With the deepening of market-oriented allocation reforms of data elements, standardized management and control of the entire lifecycle of heterogeneous subjects and objects across the entire domain, represented by assets, personnel, facilities, operational data, and personal information, has become a core requirement in the fields of data governance and asset ownership confirmation. Existing traditional object management, blockchain ownership confirmation, distributed transactions, and coded sharding technologies have the following technical shortcomings:

[0003] 1. Fragmented ownership standards and lack of unified support. Existing ownership confirmation schemes are mostly designed for single types of objects and lack a unified intermediate control carrier that can adapt to heterogeneous subjects and objects across the entire domain. The data structures of various subjects and objects are independent of each other, and the identification of ownership subjects and life cycle status cannot be standardized, resulting in fragmented cross-domain ownership confirmation and broken ownership traceability chains. At the same time, traditional control carriers cannot be bound and adapted to the underlying unified coding and identification system, making it difficult to support a large-scale parallel segmented control architecture.

[0004] 2. Weak cross-domain transaction control and insufficient compliance and evidence preservation capabilities. Existing cross-domain transactions between subjects and objects mostly rely on centralized business systems, lacking distributed transaction closed-loop control, on-chain full evidence preservation, and cross-shard consensus verification mechanisms. The traceability and tamper-proof of transaction behavior are difficult to guarantee. Traditional sharding mechanisms lack mapping rules corresponding to unified underlying identifier codes, which easily leads to problems such as shard load imbalance and uneven resource allocation, and cannot adapt to the high-concurrency transaction requirements of cross-domain multi-subject collaboration scenarios.

[0005] 3. The value accounting system is disconnected, and the subject mapping cannot be implemented. The multi-dimensional soft evaluation indicators in the existing management evaluation system lack a standardized automatic mapping mechanism with statutory financial accounting subjects, making it difficult to achieve quantitative accounting and closed-loop settlement of heterogeneous subjects and objects across the entire domain; the accounting business is disconnected from the underlying unified coding and the upper-level segmented operation status, resulting in low efficiency and inconsistent accounting standards for the batch accounting of massive subjects and objects.

[0006] 4. Lack of subject-object hierarchy, resulting in poor adaptability to large-scale management and control. Existing technologies do not clearly define the hierarchical relationship between the root object and its sub-objects, and lack a standardized layered architecture design centered on a unified root carrier. This makes them unsuitable for large-scale, hierarchical management and control scenarios with multiple subjects coexisting. Furthermore, they are not well-suited to parallel sharding scheduling mechanisms, making it difficult to meet the needs of large-scale management and control with high concurrency and load balancing.

[0007] 5. Fragmented end-to-end technologies prevent multi-layered systems from collaborating. Existing technical solutions operate independently, lacking standardized interfaces for linkage between underlying unified encoding and identification, intermediate root carriers, upper-layer parallel sharding scheduling and hybrid consensus, distributed transactions, and multi-dimensional value accounting. This hinders end-to-end collaborative scheduling for encoding parsing, consensus verification, cross-sharding cross-verification, transaction rollback, and accounting reset, resulting in insufficient overall systemic governance capabilities.

[0008] In summary, there is an urgent need to build a unified management and control technology system for subjects and objects that is fully adaptable, logically closed-loop, and fully collaborative, with unified coding as the underlying unique identifier, unified root carrier as the intermediate core hub, upper-layer linkage and segmented scheduling and hybrid consensus, distributed transactions, rights confirmation contracts, ownership storage, cross-system interoperability, trust infrastructure, multi-dimensional value accounting and value circulation. Summary of the Invention

[0009] This invention aims to address the technical problems existing in the governance of heterogeneous subject-object data across the entire domain, such as fragmented rights management, weak credibility of cross-domain transfers, incompatibility between the value accounting system and legal financial accounts, and the lack of a hierarchical unified control mechanism. It provides a data structure, construction method, and system for a homogeneous root carrier of all subjects and objects across the entire domain. The core objective of this invention is to construct a unified root carrier control system adaptable to all scenarios and the entire lifecycle. Based on an underlying unified coding system, combined with parallel sharding scheduling, hybrid consensus technology, distributed transaction control, and a multi-dimensional value accounting mechanism, it achieves unified rights confirmation, reliable transfer, compliant accounting, and end-to-end collaborative control of all subjects and objects across the entire domain.

[0010] To achieve the above objectives, this invention provides a data structure, construction method, and system for a global subject-object isomorphic root carrier, the specific technical solution of which is as follows:

[0011] This invention constructs a root carrier adapted to heterogeneous subjects and objects across the entire domain. As an intermediate core carrier for unified management and control of data across the entire domain, it can cover various upper-level sub-objects. The carrier internally sets up association coding fields to represent hierarchical relationships, realizing hierarchical association management between root objects and sub-objects. This root carrier binds a global subject-object intelligent information code as a globally unique underlying identifier. This intelligent information code adopts a fixed-length hierarchical coding structure, for example, composed of 64 bits of binary data, including a 4-bit classification bit (corresponding to 16 shard number intervals from 0 to 15), a 40-bit body bit, a 16-bit same-value distinction bit, and a 4-bit check bit, forming a 16-bit hexadecimal unique identifier after base conversion. The classification bit is directly associated with shard numbers, scheduling strategies, consensus node identities, and transaction states through a preset mapping relationship, providing standardized underlying support for unified management and control across the entire domain.

[0012] The root carrier is configured with five types of core field modules that adapt to full lifecycle management, and these modules work together to form a closed-loop management system:

[0013] 1) Existing Rights Confirmation Field Module: Used to store and represent basic information on the ownership of subjects and objects, realize the confirmation of ownership, traceability and hierarchical association management, adapt to batch confirmation and segmented control scenarios, link the confirmation-driven and contract control logic, and ensure the standardization and normalization of the confirmation process.

[0014] 2) Behavior control field module: used to record and constrain the full-cycle operation behavior, permission scope and scheduling rules of subjects and objects. It relies on the intelligent information coding classification bit mapping relationship to realize the balanced allocation and isolation control of sharded resources, link parallel sharding and hybrid consensus technology to ensure that business operations are compliant and controllable, and connect the ownership evidence storage collaboration logic.

[0015] 3) Value Accounting Field Module: Equipped with a multi-dimensional value assessment system and dynamic accounting rules, it can adapt to the statutory accounting standards of different industries and different types of entities, realize the automatic matching and closed-loop connection of multi-dimensional assessment indicators and statutory financial subjects, and support the reset of accounting status after transaction anomalies, linking the value circulation logic to form an accounting-circulation closed loop.

[0016] 4) Full lifecycle operation field module: Unified management of business parameters, transaction running status and exception interception rules for the entire process of confirmation, transfer and cancellation, realizes standardized control of cross-segment and cross-scenario business flow, links cross-system interoperability functions, and improves cross-domain collaboration capabilities.

[0017] 5) Compliance Evidence Field Module: Used to complete on-chain evidence storage, timestamp recording, compliance verification and cross-shard cross-verification of operation data throughout the entire process. Relying on the hybrid consensus mechanism and on-chain evidence storage method, it achieves full traceability and auditability, while linking with the full-domain trust infrastructure to enhance the credibility of compliance control.

[0018] The root vector construction method corresponding to this invention includes the following steps:

[0019] Step 1, Confirmation of Existing Ownership: Complete the verification of ownership of all subjects and objects, the verification of hierarchical relationships and the collection of original data, generate compliant ownership certificates and complete on-chain storage, establish a unique binding relationship between the smart credit code and the subject and object, and ensure the compliance of the ownership confirmation process by relying on the axiom of ownership confirmation (including basic rules such as the conservation of the total value of the object and the uniqueness of ownership) and contract control logic.

[0020] Step 2, Semantic Mapping: Standardize and map the original business data to the various field modules of the root carrier, match the corresponding entity's accounting system and system configuration parameters, complete the batch configuration of accounting rules, scheduling attributes and consensus attributes, link accounting standards and scheduling rules, and ensure data standardization.

[0021] Step 3, Distributed Transaction Encapsulation: Build a full-process transaction management system based on the distributed transaction mechanism, configure business flow rules and exception interception strategies, automatically trigger rollback mechanisms for abnormal transactions, synchronously complete the resetting of accounting data and release of shard resources, link shard collaborative scheduling capabilities, and ensure data consistency across layers and shards.

[0022] Step 4, Blockchain Compliance Evidence Preservation: Write all business credentials into the blockchain, rely on the hybrid consensus mechanism to complete cross-shard verification and compliance verification, form an immutable evidence preservation record, link on-chain evidence preservation methods, and strengthen the compliance of evidence preservation.

[0023] Step 5, Root Carrier Instantiation and Network Deployment: Generate a standardized root carrier and connect it to the trusted data space. Link the cross-system access connector to achieve seamless integration with various external business systems and complete the closed-loop management of the entire lifecycle of the subject and object in the entire domain.

[0024] This invention also provides a construction system adapted to the above method. The system adopts a five-layer bidirectional interactive architecture, with each layer achieving end-to-end collaboration, specifically including:

[0025] 1) Main body control layer: used to uniformly configure main body permissions, control policies and scheduling rules, connect with various external business systems, link the whole domain trust infrastructure, and strengthen the credibility and standardization of main body control.

[0026] 2) Object Root Carrier Layer: As the core of the system, it is responsible for intelligent information coding and binding, hierarchical parsing, semantic mapping and data storage, realizing standardized modeling and unified management of the entire domain's subjects and objects.

[0027] 3) Contract Execution Layer: Responsible for distributed transaction scheduling, sharded resource management, business contract execution and exception handling, supporting cross-shard and cross-domain business flow.

[0028] 4) Value Accounting Layer: Used to realize multi-dimensional value accounting, automatic mapping of accounting subjects, accounting rule adaptation and state reset after transaction rollback, linking the value circulation logic to realize the accounting-circulation closed loop.

[0029] 5) Risk Control and Evidence Storage Layer: Responsible for blockchain evidence storage, consensus verification, cross-shard verification and compliance auditing. Relying on hybrid consensus technology and evidence storage collaboration methods, it ensures compliance and controllability throughout the entire process, while linking with the entire trust infrastructure to improve the credibility of risk control.

[0030] Compared with the prior art, the present invention has the following beneficial effects:

[0031] 1. This invention constructs a unified root carrier and standardized intelligent information coding system across the entire domain, realizing unified modeling, unified rights confirmation and hierarchical management of heterogeneous subjects and objects. It solves the problems of fragmentation and insufficient standardization in traditional rights confirmation methods, and greatly improves the batch control capability and governance efficiency of data across the entire domain.

[0032] 2. This invention integrates a parallel sharding and isolation scheduling mechanism, a distributed transaction mechanism, and a hybrid consensus technology to build a multi-level trusted transfer system. This system enables full-process traceability, auditability, and full-domain business operations, meeting the compliance requirements of data security-related regulations and effectively improving the security and trustworthiness of cross-domain transfers.

[0033] 3. This invention is equipped with a multi-dimensional value accounting system, which realizes the automatic mapping of multi-dimensional evaluation indicators and statutory financial items, solves the problem of the disconnect between the traditional evaluation system and the financial system, realizes the closed-loop management of value accounting and circulation, and is compatible with the accounting standards of various entities.

[0034] 4. This invention adopts a layered architecture design, with an open and compatible system. It can seamlessly connect with existing trusted data spaces and various industry business systems through the trusted data space access connector, adapting to large-scale deployment in multiple scenarios, and has strong versatility and scalability.

[0035] 5. This invention forms a complete technical system from bottom-level unified coding, intermediate root carrier, upper-level segmented scheduling and consensus, rights confirmation contract, ownership storage, cross-system interoperability, trust infrastructure, multi-dimensional value accounting to value circulation. The architecture is complete and the logic is closed-loop, effectively filling the technical gap in the unified compliance governance of the whole domain subject and object isomorphism. Attached Figure Description

[0036] Figure 1 This is a schematic diagram of the overall system architecture interaction of the present invention;

[0037] Figure 2 This is a schematic diagram of the root carrier data structure and underlying encoding mapping of the present invention;

[0038] Figure 3 This is a flowchart illustrating the hierarchical linkage of the root carrier construction method of the present invention. Detailed Implementation

[0039] The following is in conjunction with the appendix Figure 1-3 The present invention will be further described in detail with reference to specific embodiments.

[0040] Example

[0041] This embodiment addresses the scenario of comprehensive asset governance in rural revitalization. It takes the entire rural land resource as the root object and collective funds, public facilities, labor resources, and specialty agricultural products as sub-objects for unified management and control. The specific implementation process is as follows:

[0042] 1. Confirmation of Existing Ownership: Through the verification of ownership of the subject, the information of various rural assets is sorted out and the registration of ownership is confirmed. Based on the axiom of ownership confirmation and the logic of contract control, compliant ownership confirmation certificates are generated and the certificates are stored on the blockchain. The unique binding relationship between the intelligent credit code and various rural assets is established, and a hierarchical object management system is built.

[0043] 2. Semantic mapping: Standardize and map the original business data of rural assets to the field modules of the root carrier, match the rural asset accounting specifications and multi-dimensional value accounting rules, complete the batch configuration of accounting rules, scheduling attributes and consensus attributes, and link the sharding scheduling strategy.

[0044] 3. Distributed Transaction Encapsulation: A rural asset transfer transaction management system is built based on a distributed transaction mechanism. Asset transfer rules and anomaly interception strategies are configured. An automatic rollback mechanism is triggered for abnormal transactions, and the accounting data is reset and the sharded resources are released simultaneously to ensure data consistency in cross-shard asset transfer.

[0045] 4. Blockchain-compliant evidence storage: The entire process of rural asset ownership confirmation, transfer, and accounting is recorded on the blockchain. Cross-shard verification and compliance verification are completed through a hybrid consensus mechanism, forming an immutable evidence storage record and strengthening the compliance of evidence storage.

[0046] 5. Root Carrier Instantiation and Network Deployment: Generate standardized root carriers and connect them to the rural revitalization trusted data space. Through cross-system access connectors, connect to systems such as rural government services and collective asset management, link the entire domain trust infrastructure, and realize closed-loop management of the entire life cycle of rural assets.

Claims

1. A data structure, construction method, and system for a global subject-object isomorphic root carrier, characterized in that, The root carrier is a unified and standardized management and control carrier for heterogeneous subjects and objects across the entire domain, and it is equipped with an association coding field to represent the hierarchical relationship between parent and child subjects and objects; the root carrier is bound to the intelligent information code of the subjects and objects across the entire domain as a globally unique bottom-level identifier; The intelligent information encoding is a fixed-length hierarchical binary structure, including at least a classification bit, a body bit, a same-value distinguishing bit, and a check bit, and is converted into a hexadecimal globally unique identifier; The value range of the classification bit has a one-to-one mapping relationship with the parallel fragment number, which is used to realize fragment routing addressing; The root carrier configuration adapts to the five core field modules of full-domain subject-object full lifecycle management: 1) Existing rights confirmation field module: includes fields such as object type, ownership subject, existing attributes, rights confirmation certificate hash value, rights confirmation timestamp, parent-child object association code, and smart credit code binding field, which are used to support the logical execution of the rights confirmation contract; 2) Behavior control field module: includes object lifecycle stage, operation subject, behavior type, operation permission threshold, permission validity period, and sharding scheduling strategy flag field; the sharding scheduling strategy flag field is used to read the predefined scheduling configuration bit in the intelligent information coding classification bit and link the parallel sharding scheduling mechanism. 3) Value accounting field module: includes multi-dimensional value accounting indicators, dynamic rules for accounting weight, auxiliary accounting identifiers, consensus network attribute fields, and records the accounting reset status identifier triggered by distributed transaction rollback when the status of the subject and object business changes, in order to support multi-dimensional value accounting; 4) Full lifecycle operation field module: includes configuration parameters for the rights confirmation process, transfer process, and cancellation process, distributed transaction running status, transaction rollback trigger conditions, exception interception judgment rules, and parallel sharding scheduling linkage identifier fields, used to support sharding collaborative scheduling; 5) Compliance Evidence Preservation Field Module: Includes on-chain storage address of the blockchain for rights confirmation certificate, demand certificate, and linkage accounting certificate, consensus network node identifier, evidence preservation timestamp, compliance verification result, and cross-shard data cross-verification result fields, used to support on-chain evidence preservation.

2. The data structure according to claim 1, characterized in that, The classification bits of the intelligent information encoding are defined by bit partitioning, and are used for: mapping parallel fragment numbering, marking fragment isolation scheduling configuration attributes, identifying consensus network node affiliation, and synchronizing distributed transaction status. The same-value distinguishing bit is used to uniquely distinguish different subjects and objects with the same ontological attribute, which is suitable for scenarios of batch accounting and parallel management of massive subjects and objects. The dynamic rules for the accounting weights configured in the value accounting field module are adaptively adjusted according to the stages of the subject's life cycle. During the confirmation of rights stage, the accounting weights of the ownership dimension and the environmental dimension are increased, and during the circulation stage, the accounting weights of the financial dimension and the rights and responsibilities dimension are increased. The mapping relationship of statutory accounting subjects is divided according to the type of subject: government entities and rural governance entities are aligned with the asset subject system of the government accounting system; corporate entities are aligned with the statutory accounting subject system of the enterprise accounting standards; and individual entities, family entities, and social organization entities are aligned with the corresponding non-profit and livelihood accounting subject standards.

3. A method for constructing a global subject-object isomorphic root carrier, based on the data structure described in claim 1 or 2, characterized in that, Includes the following steps: Step 1, Confirmation of Existing Ownership: Complete the verification of ownership of all subjects and objects and the verification of the hierarchical relationship between parent and child subjects and objects, collect the original basic data of the objects, generate standardized confirmation certificates and store the certificate summary hash on the blockchain, uniquely bind the Zhixin code to the subject and object, complete the data filling of the existing ownership confirmation field module, and ensure the compliance of ownership confirmation by relying on the axiom of ownership confirmation and contract control logic. Step 2, Semantic Mapping: Standardize and map the original object data to each field module, automatically bind the corresponding statutory accounting subject system, configure auxiliary accounting parameters and dynamic rules for accounting weights; read the scheduling configuration bit in the intelligent credit coding classification bit and write it into the behavior control field module; read the consensus node affiliation identifier and write it into the value accounting field module. Step 3, Distributed Transaction Encapsulation: Configure the full lifecycle business process parameters of the subject and object, connect to the distributed transaction engine and parallel sharding scheduling module, configure the interception and judgment rules for ownership mismatch, permission expiration, and data anomaly, and complete the configuration of the full lifecycle operation field module; Step 4, Blockchain Compliance Evidence Preservation: Write the confirmation certificate, circulation certificate, and cancellation certificate into the blockchain, complete cross-shard data cross-verification based on the hybrid consensus mechanism, return the on-chain evidence preservation address and compliance verification result, and fill the compliance evidence preservation field module; Step 5: Root carrier instantiation and network access: Call the encoding generation component to output a unique intelligent information code, instantiate and generate a standardized root carrier, access the trusted data space through the standard adaptation protocol, and realize closed-loop management and control of the entire life cycle of the whole domain subject and object through the linkage parallel sharding mechanism.

4. The construction method according to claim 3, characterized in that, When the exception interception rule in step 3 triggers the distributed transaction rollback, the reverse linkage control process is executed: a transaction rollback instruction is generated, and the auxiliary accounting result is rolled back to the initial state of the transaction by calling the accounting layer through the standard interface; Synchronously send resource release instructions to the parallel sharding scheduling module to reclaim occupied shard resources; and synchronously write the transaction rollback and accounting reset completion status to the corresponding flag bit of the value accounting field module.

5. A system for constructing a global subject-object isomorphic root carrier, used to execute the construction method described in claim 3 or 4, characterized in that, The architecture adopts a five-layer bidirectional interaction structure, consisting of a subject control layer, an object root carrier layer, a contract execution layer, an accounting layer, and a risk control and evidence storage layer. The logic and calling relationships of each layer are as follows: 1) Main control layer: Configure operation permissions and permission thresholds for various entities, connect with external business systems of government, enterprises, individuals and social organizations, issue ownership verification instructions and segmented scheduling strategy configurations to the root carrier layer of objects, and link the trust infrastructure of the whole domain; 2) Object Root Carrier Layer: This is the core layer of the system, which includes a built-in intelligent information coding binding engine, a parent-child subject-object association parsing engine, a semantic mapping engine, and a coding parsing engine. It centrally stores the full-field structured data of the root carrier, completes field configuration, process adaptation, parallel sharding linkage adaptation, receives upper-layer management instructions and synchronizes the running status with the lower layer; 3) Contract Execution Layer: Interacts with the distributed transaction engine, parallel sharding scheduling module, and sharding isolation scheduling engine; achieves sharding resource round-robin allocation and logical isolation by parsing the intelligent information coding classification bit configuration information; It carries smart contracts for cross-domain subject-object transfer and cross-shard transaction scheduling, and sends the transaction status and shard running status to the object root carrier layer, triggering anomaly interception and accounting reset linkage process; 4) Accounting Layer: Links the auxiliary accounting system and the coding accounting parsing module to complete multi-dimensional indicator weighted accounting and automatic mapping of statutory accounting subjects; synchronizes accounting result data upwards, receives rollback instructions from the contract execution layer and executes accounting status reset; 5) Risk control and evidence storage layer: It connects to the blockchain, hybrid consensus module, and cross-shard cross-verification module; it persistently stores compliant evidence storage related field data, performs full-domain compliance verification, returns the evidence storage results and consensus operation status to the object root carrier layer, and links the full-domain trust infrastructure.

6. The construction system according to claim 5, characterized in that, The object root carrier layer supports batch generation of root carrier instances; the batch generation and sharding matching rules are based on the intelligent information coding classification bit partitioning matching logic, combined with the joint constraints of the ontology bit and the distinguishing bit, which is suitable for the parallel sharding batch registration and unified management and control scenarios of full-domain asset inventory and massive operational subject and object data.

Images