A method for global collaboration and anomaly control based on hybrid blockchain
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2026-05-23
- Publication Date
- 2026-08-14
AI Technical Summary
本发明旨在构建混合区块链支撑、分布式事务保障、异常智能拦截、统一价值单位跨链结算、多维价值联动、全链路可追溯的全域协同与异常管控体系,解决现有协同体系效率低、数据不一致、异常处理滞后、价值流通受阻等技术问题,实现跨主体可信协同、跨链价值流通、异常实时处理,为生态安全稳定运行提供核心保障
协同架构混合化:构建联盟链、私有链、公共链跨链融合架构,兼顾主体协同、数据隐私与价值流通,解决了现有协同架构单一、无法适配多场景需求的问题;
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Figure CN122570587A_ABST
Abstract
Description
Technical Field
[0001] This invention belongs to the field of hybrid blockchain architecture, distributed transaction management and exception handling technology, and specifically relates to a method for global collaboration and exception management based on hybrid blockchain. Background Technology With the large-scale development of the entire ecosystem, the need for cross-entity, cross-scenario, and cross-chain collaboration is becoming increasingly urgent. Existing distributed collaboration systems have the following technical shortcomings: 1. Lacking the support of a hybrid blockchain architecture, consortium blockchains, private blockchains, and public blockchains operate independently without a cross-chain integration mechanism, making it impossible to achieve a balance between cross-entity collaboration, data privacy protection, and value circulation, resulting in low collaboration efficiency. 2. Without atomicity guarantees for distributed transactions, issues such as data inconsistency and resource conflicts are prone to occur during the execution of distributed transactions, making it impossible to ensure the integrity and reliability of collaborative operations; 3. The anomaly interception rules are fragmented and a unified anomaly interception rule library has not been formed. It cannot fully cover multiple types of anomalies such as data, behavior, permissions, value, and consensus. The anomaly identification is inaccurate and the processing is delayed, which poses security risks. 4. Cross-chain value circulation is difficult, and there is a lack of unified value accounting and settlement tools, which makes it impossible to realize value conversion and atomic settlement between different chains and different entities, thus hindering the coordinated development of the ecosystem; 5. It is disconnected from multi-dimensional value accounting, and cannot link multi-dimensional value data such as environment, affairs, personnel, finance, and rights and responsibilities in real time. The collaboration process lacks value orientation and it is difficult to maximize the ecological value. 6. There is insufficient coordination between trust governance and value accounting, unreasonable allocation of collaborative permissions, and problems such as abuse of permissions and non-standard operation. 7. The end-to-end traceability capability is weak. It is not deeply bound to the unique intelligent credit code of the entire domain. The collaborative data, transaction records and anomaly handling process cannot be traced and audited, making it difficult to meet compliance and regulatory requirements. Based on underlying technical capabilities, this invention embeds core elements such as hybrid blockchain architecture, distributed transaction management, anomaly interception rule base, and cross-chain settlement with unified value units to build a comprehensive collaboration and anomaly control system. It addresses the core pain points of existing technologies and achieves hybrid collaborative architecture, atomic transaction management, intelligent anomaly handling, and cross-chain value settlement.
[0002] Terminology Definition 1. Basic Root Carrier: The basic root carrier of all things isomorphic, serving as the basic encapsulation carrier for the entire domain's subjects and objects, and achieving standardization; 2. Smart Credit Code: A globally unique code used for unique identification of subjects and objects and for full-chain traceability; 3. Hybrid Blockchain Architecture: It consists of three layers: consortium blockchain, private blockchain, and public blockchain, to achieve cross-chain integration. The consortium blockchain is used for collaborative interaction between entities, the private blockchain is used to store sensitive data and protect data privacy, and the public blockchain is used to realize cross-entity value circulation. 4. Distributed Transactions: A multi-stage transaction management mechanism ensures the atomicity and consistency of distributed transactions through stages such as resource reservation, transaction confirmation, and exception rollback. 5. Anomaly Interception Rule Base: Covers multiple categories of rules, including data anomalies, behavior anomalies, permission anomalies, value anomalies, and consensus anomalies, and is used to monitor and identify various anomalies in the collaboration process in real time, providing a basis for anomaly handling; 6. Unified value unit: A unified value accounting auxiliary unit across the entire domain supports cross-chain and cross-entity value conversion and atomic settlement, solving the problem of inconsistent value measurement standards across different dimensions and chains; 7. Standardized Role-Relationship-Rights and Responsibilities System: A unified configuration system across the entire domain, clearly defining the roles, interactions, and responsibilities of each entity in the collaboration process to ensure a standardized and orderly collaboration process; 8. Rule base: A unified rule base covering all scenarios of collaborative access, transaction verification, anomaly interception, and cross-chain settlement, enabling automated verification and hierarchical control of the collaborative process; 9. Multi-dimensional value accounting linkage: Real-time connection with the multi-dimensional value accounting system to obtain value data from environmental, transaction, human resources, financial, and rights and responsibilities dimensions, providing support for collaborative decision-making and settlement; 10. Dynamic adjustment of ecological health: Based on data such as anomaly handling results, collaboration efficiency, and value circulation, automatically adjust the collaboration permissions and trust levels of the main entities to ensure the stable operation of the ecological security. Summary of the Invention
[0003] I. Purpose of the Invention This invention aims to construct a comprehensive collaborative and anomaly control system that features hybrid blockchain support, distributed transaction protection, intelligent anomaly interception, cross-chain settlement with unified value units, multi-dimensional value linkage, and end-to-end traceability. It addresses the technical problems of existing collaborative systems, such as low efficiency, inconsistent data, delayed anomaly handling, and obstructed value circulation. The system enables trusted cross-entity collaboration, cross-chain value circulation, and real-time anomaly handling, providing core guarantees for the safe and stable operation of the ecosystem.
[0004] II. Technical Solution The overall technical solution of this invention is as follows: binding of basic objects and intelligent credit coding subjects and objects → cross-chain data access to trusted data space → semantic rights confirmation and ownership certificate verification → standardized role-relationship-rights and responsibilities matching → rule base verification → hybrid blockchain architecture deployment → distributed transaction initialization → multi-dimensional value accounting linkage → unified value unit cross-chain settlement → real-time monitoring of anomaly interception rule base → anomaly graded processing → on-chain evidence storage audit → intelligent credit coding full-link traceability → dynamic adjustment of ecosystem health: 1. Unique binding and identity confirmation of subjects and objects across the entire domain. Based on the isomorphic basic object, all subjects and objects within the ecosystem are standardized and encapsulated, and a unique intelligent information code is assigned to each subject and object. This achieves a rigid correspondence between the identity and code of the subject and object, laying the foundation for subsequent cross-chain collaboration and full-chain traceability. 2. Compliant cross-chain data access and multi-source data fusion in trusted data spaces By using the trusted data space access connector, multi-source data from different chains can be compliantly accessed, and the authenticity, compliance and integrity of the data can be double-verified to achieve multi-source data fusion and provide data support for collaborative operations. 3. Semantic confirmation of rights and verification of the legality of ownership certificates Based on a unified transaction semantic framework, the system completes the confirmation of rights and value for collaborative claims between subjects and objects; combined with the atomic ownership certificate storage system, it verifies the legality of the subject's collaborative authority and the object's ownership, ensuring that collaborative operations are based on compliance. 4. Standardized role-relationship-responsibility matching and access control Based on the type of entity and the collaborative scenario, the system automatically matches the corresponding roles, relationships, and responsibilities, clarifying the boundaries of responsibilities at each stage of the collaboration; combined with comprehensive trust governance capabilities, it enables refined control of collaborative permissions to prevent abuse of permissions. 5. Automatic validation and hierarchical approval of the entire rule base The rule base is invoked to automatically verify collaboration access conditions, data integrity, transaction logic, cross-chain settlement rules, etc. After the verification is passed, hierarchical approval is completed, covering all collaboration scenarios and ensuring compliance of the collaboration process. 6. Hybrid Blockchain Architecture Deployment The architecture integrates three layers: consortium blockchain, private blockchain, and public blockchain. The consortium blockchain is responsible for collaborative interaction and transaction consensus among entities, the private blockchain is responsible for storing sensitive data and ensuring data privacy, and the public blockchain is responsible for value circulation and notarization across entities and chains, thus achieving a balance between collaboration, privacy, and circulation. 7. Distributed Transaction Management The distributed transaction mechanism is initiated. In the resource reservation phase, the resources required for collaboration are reserved and the feasibility of the operation is verified. In the transaction confirmation phase, the collaborative operation is confirmed to be executed, and data synchronization and resource release are completed. In the exception rollback phase, when an exception occurs, all executed operations are rolled back to achieve transaction rollback and ensure the atomicity and consistency of the distributed transaction. 8. Multi-dimensional value accounting linkage It connects in real time to a multi-dimensional value accounting system to obtain multi-dimensional value data such as environment, affairs, personnel, finance, rights and responsibilities, and integrates the value data into the collaborative decision-making and cross-chain settlement process to achieve deep linkage between collaborative operation and value accounting. 9. Unified value unit for cross-chain settlement By using a unified value accounting auxiliary unit, value conversion between different chains and different entities is realized. The atomicity of settlement is guaranteed through distributed transactions, ensuring that cross-chain settlement is secure, efficient, and accurate. 10. Real-time monitoring of the anomaly interception rule base Based on the anomaly interception rule base, it monitors various anomalies in the collaboration process in real time, such as data anomalies, behavior anomalies, permission anomalies, value anomalies, and consensus anomalies, to achieve intelligent anomaly identification; 11. Anomaly Classification and Handling Mechanism For identified anomalies, a multi-level response mechanism is adopted: minor anomalies issue warnings and remind rectification; moderate anomalies immediately block operations to prevent risk spread; severe anomalies trigger a full state rollback, undoing all related operations and recording anomaly information. 12. Hybrid Blockchain Evidence Storage Audit Upload all data across the entire chain, including collaborative data, transaction records, anomaly handling processes, and cross-chain settlement information, to a hybrid blockchain for evidence storage, ensuring that the data is tamper-proof and auditable, and meeting compliance and regulatory requirements. 13. Intelligent Credit Coding for Full-Chain Traceability All collaborative operations, data flow, anomaly handling, and evidence storage information are bound to the Zhixin code. Relying on constant-level traceability capabilities, the entire process of collaboration and anomaly handling can be traced, supporting audit verification and accountability. 14. Dynamic adjustment of ecological health Based on data such as anomaly handling results, collaboration efficiency, and value circulation, the ecosystem health level is automatically calculated. The collaboration permissions and trust levels of the main entities are adjusted according to the health level to optimize the allocation of collaborative resources and ensure the safe and stable operation of the ecosystem.
[0005] III. Beneficial Effects Compared with the prior art, the present invention has the following beneficial effects: Hybrid collaborative architecture: Construct a cross-chain integrated architecture that combines consortium blockchains, private blockchains, and public blockchains, taking into account entity collaboration, data privacy, and value circulation, and solving the problem that the existing collaborative architecture is too singular and cannot adapt to the needs of multiple scenarios. Atomicity of transaction management: Through distributed transaction management, the atomicity and consistency of collaborative operations are guaranteed, avoiding problems such as data inconsistency and resource conflicts during the collaboration process; Intelligent anomaly handling: A unified anomaly interception rule base is established, covering multiple types of anomalies, enabling real-time anomaly identification and hierarchical processing, solving the problems of fragmented anomaly interception and delayed processing; Cross-chain value settlement: Using a unified value accounting auxiliary unit, cross-chain and cross-entity value conversion and atomic settlement are realized, breaking down barriers to value circulation; Multi-dimensional value linkage: Real-time connection with multi-dimensional value accounting system, integrating value data into the collaborative process, and realizing deep linkage between collaborative operation and value accounting; Trustworthy Evidence Storage and Auditing: Hybrid blockchain end-to-end evidence storage ensures that collaborative data, transaction records, and anomaly handling are tamper-proof and auditable, meeting the needs of compliance supervision and audit verification. End-to-end traceability and transparency: Relying on intelligent coding, constant-level end-to-end traceability is achieved, and collaborative processes are traceable and accountable; Dynamic ecological regulation: Based on the ecological health status, the system automatically adjusts collaborative permissions and trust levels to optimize resource allocation and ensure the long-term safe and stable operation of the ecosystem. Attached Figure Description Figure 1 Diagram of a hybrid blockchain global collaborative architecture; Figure 2 A flowchart for distributed transaction management and exception handling; Explanation of reference numerals in the attached figures: 900 - Subject and Object Binding Layer; 901 - Trusted Data Space Cross-Chain Data Access Layer; 902 - Semantic and Evidence Verification Layer; 903 - Standardized Role-Relationship-Rights and Responsibilities Layer; 904 - Rule Base Verification Layer; 905 - Hybrid Blockchain Architecture Layer; 906 - Distributed Transaction Management Layer; 907 - Multi-Dimensional Value Accounting and Linkage Layer; 908 - Unified Value Unit Cross-Chain Settlement Layer; 909 - Anomaly Interception Rule Base Layer; 910 - Anomaly Hierarchical Processing Layer; 911 - Hybrid Blockchain Evidence Storage and Auditing Layer; 912 - Intelligent Trust Coding Full-Link Traceability Layer; 913 - Dynamic Adjustment Layer for Ecosystem Health. Detailed Implementation The present invention will be further described in detail below with reference to specific embodiments:
[0006] All participating entities and project objects are standardized and encapsulated through the isomorphic basic object, and assigned a unique intelligent information code across the entire domain to achieve a rigid binding between the entity and the object and the code, thus completing identity registration; By using the trusted data space access connector, multi-source data from different chains belonging to various entities can be accessed to complete the verification of data compliance and authenticity, and achieve multi-source data fusion. Based on a unified transaction semantic framework, the system completes the confirmation of rights to collaborative claims of various entities and the confirmation of project value; combined with the atomic ownership certificate storage system, it verifies the legality of project ownership and the qualifications and authority of various entities; and combined with the full-domain trust governance capabilities, it completes the trust verification of various entities. Based on the types of entities and the collaborative scenarios of projects, standardized role-relationship-rights and responsibilities are automatically matched to clarify the boundaries of rights and responsibilities of all parties and achieve refined management of collaborative permissions. The rule base is invoked to automatically verify the collaborative access conditions, data integrity, transaction logic, and cross-chain settlement rules. After the verification is passed, the hierarchical approval is completed. Deploy a hybrid blockchain architecture: consortium blockchains are used for collaborative interaction and transaction consensus among various entities, private blockchains are used to store sensitive data, and public blockchains are used for value settlement and end-to-end evidence storage. Initiate distributed transaction management: In the resource reservation phase, reserve resources for all parties and verify the feasibility of collaborative operations; in the transaction confirmation phase, confirm the project start-up, resource transfer, and complete data synchronization; if an abnormal problem occurs, trigger the rollback phase to undo all operations and roll back resources; Multi-dimensional value accounting linkage: Real-time connection to the multi-dimensional value accounting system to obtain value data from various dimensions of the project; Unified value unit cross-chain settlement: Using a unified value accounting auxiliary unit, cross-chain value conversion of resources from all parties is completed. Distributed transactions ensure the atomicity of settlement and ensure accurate transfer of resources. Real-time monitoring of anomaly interception rule base: Real-time monitoring of various anomalies during the collaboration process; Anomaly classification and handling: Minor anomalies issue a warning to remind relevant parties to rectify; moderate anomalies immediately block operations and suspend project execution; severe anomalies trigger a full rollback, cancel project operations, record anomaly information, and investigate and hold those responsible accountable. Hybrid Blockchain Evidence Storage and Auditing: Upload collaborative data, transaction records, anomaly handling processes, cross-chain settlement information, etc. to the hybrid blockchain for evidence storage, so as to achieve auditability and immutability of the entire project process; Relying on intelligent coding, it enables constant-level traceability of the entire process of project collaboration and anomaly handling, and can quickly locate the data source and operation link to meet the needs of special audits; Based on anomaly handling results, project collaboration efficiency, and multi-dimensional value data, the system automatically calculates the ecosystem health level, adjusts the collaboration permissions and trust levels of each entity, and optimizes the project collaboration configuration.
[0007] Virtual entities are standardized and encapsulated using isomorphic basic objects, assigned intelligent credit codes, and bound to physical guarantors to complete identity registration and filing; physical entities have completed code binding and identity confirmation. Through the trusted data space, data from virtual entities and physical entities located in different chains can be accessed to complete cross-chain data compliance access and multi-source data fusion, and verify data authenticity; Based on a unified transaction semantic framework, the system completes the confirmation of rights between the service requests of virtual entities and the needs of physical entities. Combined with the atomic ownership certificate storage system, it verifies the service qualifications of virtual entities and the legality of the needs of physical entities. Combined with the full-domain trust governance capabilities, it completes the trust verification between virtual entities and physical entities. Match a standardized role-relationship-rights-responsibility system, clarify the roles and responsibilities of virtual entities, physical entities, and guarantor entities, and achieve collaborative access control; The rule base is invoked to automatically verify the virtual entity admission conditions, service logic, cross-chain settlement rules, guarantee responsibilities, etc., to ensure compliance of collaborative operations; Deploy a hybrid blockchain architecture: the consortium blockchain is used for collaborative interaction between virtual entities and physical entities, the private blockchain is used to store service data of virtual entities and sensitive information of physical entities, and the public blockchain is used for service fee settlement and full-process evidence storage. Distributed transaction management of virtual entity permission boundaries: In the resource reservation phase, service resources for virtual entities and payment funds for entity entities are reserved, and service feasibility is verified; in the transaction confirmation phase, service execution and fee settlement are confirmed; if an abnormality occurs, such as virtual entity providing illegal services or entity entities defaulting on fees, the rollback phase is triggered to cancel service operations and roll back funds. Multi-dimensional value accounting linkage: Real-time connection to the multi-dimensional value accounting system to obtain value data from various dimensions of virtual entity services and physical entity needs; Unified value unit cross-chain settlement: Using a unified value accounting auxiliary unit, cross-chain settlement of service fees from physical entities to virtual entities is completed, and the atomicity of settlement is guaranteed through distributed transactions; Real-time monitoring of anomaly interception rule base: Real-time monitoring of various anomalies such as virtual entity behavior, data, permissions, and value; Anomaly Handling: Upon detection of an anomaly, immediately suspend the virtual entity's service access and freeze related funds; for minor anomalies, issue a reminder for rectification; for moderate anomalies, suspend services; for severe anomalies, cancel the virtual entity's smart credit code and pursue the guarantor's liability. Once the virtual entity's credit recovery meets the standards, service control is lifted and collaborative permissions are restored; all operations are bound to the Smart Credit Code to achieve full-process traceability and ensure that the collaboration between the virtual entity and the physical entity is compliant and controllable.
Claims
1. A method for global collaboration and anomaly control based on hybrid blockchain, characterized by: a fundamental root carrier, intelligent coding, semantic mapping, trusted data space, atomic ownership certificates, global trust governance, and multi-dimensional value accounting. Includes the following steps: The first step is to uniquely bind the subject and object across the entire domain: to achieve a rigid correspondence between identity and code based on the basic root carrier and intelligent information coding; The second step is to complete the compliant access to cross-chain data and the fusion of multi-source data through the trusted data space; The third step is semantic confirmation of rights and verification of the legality of ownership certificates; The fourth step is to match standardized roles, entity relationships, and rules for the division of rights and responsibilities; The fifth step involves completing collaborative access control, transaction verification, and tiered approval through a unified rule base across the entire domain. Step 6: Deploy a hybrid blockchain architecture, including cross-chain integration of consortium blockchains, private blockchains, and public blockchains. Step 7, Distributed Transaction Management: Ensure transaction atomicity through resource reservation, transaction confirmation, and exception rollback phases; Step 8, Multi-dimensional Value Accounting and Linkage: Real-time acquisition of multi-dimensional value data; Step 9: Unify value units for cross-chain settlement: Support cross-entity and cross-chain value conversion and atomic settlement; Step 10: Real-time monitoring of the anomaly interception rule base: identifying multiple types of anomalies, including data, behavior, permissions, value, and consensus. Step 11, Anomaly Classification and Handling: A multi-level response mechanism is used for differentiated handling; Step 12, Hybrid Blockchain Evidence Storage and Auditing: Evidence storage across the entire chain of collaborative data, transaction records, and anomaly handling; Step 13, Intelligent Credit Coding Full-Link Traceability: Supports full-process auditing of constant-level collaboration and anomaly handling; Step 14, Dynamic Adjustment of Ecological Health: Automatically adjust collaborative permissions and trust levels based on anomaly handling results.
2. The method according to claim 1, characterized in that, The hybrid blockchain architecture includes: a consortium blockchain for collaborative interaction and transaction consensus among stakeholders; a private blockchain for sensitive data storage and privacy protection; and a public blockchain for value circulation and end-to-end notarization. These three layers are integrated across blockchains and each performs a different function.
3. The method according to claim 1, characterized in that, The distributed transaction management includes: a resource reservation phase, which reserves the resources required for collaboration and verifies the feasibility of the operation; a transaction confirmation phase, which confirms the execution of the collaborative operation and completes data synchronization and resource release; and an exception rollback phase, which rolls back all executed operations when an exception occurs, ensuring the atomicity and consistency of the distributed transaction.
4. The method according to claim 1, characterized in that, It has a built-in standardized configuration system for roles, relationships, rights and responsibilities across the entire domain, which clarifies the role positioning, interaction relationships and rights and responsibilities of each link in the collaboration, and achieves refined control of permissions by combining the whole domain trust governance.
5. The method according to claim 1, characterized in that, It includes a unified rule base covering the entire domain, encompassing collaborative access, transaction verification, anomaly interception, and cross-chain settlement scenarios, enabling automated verification and hierarchical control of the collaborative process.
6. The method according to claim 1, characterized in that, The anomaly interception rule base includes: data anomaly rules, behavior anomaly rules, permission anomaly rules, value anomaly rules, and consensus anomaly rules, which can monitor and intelligently identify various anomalies in the collaboration process in real time.
7. The method according to claim 1, characterized in that, The unified value unit is a unified value accounting auxiliary unit across the entire domain, supporting cross-entity and cross-chain value conversion and atomic settlement, and solving the problem of inconsistent value measurement standards across different dimensions and chains.
8. The method according to claim 1, characterized in that, All collaborative data, transaction records, and anomaly handling processes are bound to the Smart Credit Code, supporting constant-level full-process traceability and meeting the needs of audit verification and accountability.
9. A global collaboration and anomaly control system based on hybrid blockchain, characterized in that, include: The module includes a subject-object binding module, a trusted data space cross-chain entry module, a semantic and credential verification module, a standardized role relationship and responsibility module, a rule verification module, a hybrid blockchain deployment module, a distributed transaction management module, a multi-dimensional value linkage module, a unified value unit cross-chain settlement module, an anomaly interception module, an anomaly hierarchical processing module, an evidence storage and auditing module, a traceability module, and a health adjustment module. Each module executes the method described in any one of claims 1-8.
10. A computer-readable storage medium having a computer program stored thereon, characterized in that, When the computer program is executed by a processor, it implements the method described in any one of claims 1-8.
11. An electronic device comprising a processor and a memory, the memory storing a computer program, characterized in that, When the processor executes the computer program, it implements the method according to any one of claims 1-8.