Multi-service APP authentication and data sharing system and method

Abstract

The invention relates to the technical field of APP authentication and data sharing, and discloses a multi-service APP authentication and data sharing system and method, and the system comprises a security enhancement module which carries out the encryption storage and transmission of sensitive data through employing an encryption algorithm, guarantees the security of the data in the storage and transmission process, carries out a fine-grained access control strategy, and carries out the encryption storage and transmission of the sensitive data. The data access authority is dynamically adjusted according to the identity, role and authority of the user, unauthorized users are prevented from accessing sensitive data, and multi-factor authentication is introduced. The sensitive data is encrypted, stored and transmitted through an encryption algorithm, data leakage is effectively prevented, a fine-grained access control strategy is implemented, it is ensured that only an authorized user can access the sensitive data, multi-factor authentication is introduced, and the safety of an authentication system is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of APP authentication and data sharing, and in particular to a multi-service APP authentication and data sharing system and method. Background Art

[0002] The multi-business APP authentication and data sharing system is a comprehensive system framework that involves multiple aspects, including APP authentication, secure data sharing, and cross-business application integration.

[0003] The existing multi-service APP authentication and data sharing system has many deficiencies, which may affect the security, efficiency, usability and data quality of the system, including at least the following:

[0004] 1. The existing system may lack effective data encryption and access control mechanisms, which may make data vulnerable to illegal access or leakage during transmission and storage;

[0005] 2. The authentication mechanism may not be strong enough and can be easily hacked or bypassed, allowing unauthorized users to access sensitive data;

[0006] 3. Due to technical or policy limitations, the existing system may not be able to achieve cross-organizational and cross-system data sharing, resulting in serious data silos.

[0007] Therefore, it is necessary to design a multi-service APP authentication and data sharing system and method to solve the above problems. Summary of the invention

[0008] The purpose of the present invention is to solve the shortcomings of the prior art and to propose a multi-service APP authentication and data sharing system and method.

[0009] In order to achieve the above object, the present invention adopts the following technical solutions:

[0010] A multi-service APP authentication and data sharing system and method, including the following modules:

[0011] Security Enhancement Module: Use encryption algorithms to encrypt the storage and transmission of sensitive data to ensure the security of data during storage and transmission. Implement fine-grained access control strategies to dynamically adjust data access rights based on user identities, roles, and permissions to prevent unauthorized users from accessing sensitive data. Introduce multi-factor authentication to improve the security of the authentication system, prevent hacker attacks or bypassing the authentication mechanism, and regularly conduct security audits and vulnerability scans on the authentication system.

[0012] Data sharing and interoperability module: Use blockchain technology to establish a decentralized data sharing platform to achieve data interconnection and interoperability between different organizations and systems, formulate unified data standards and transmission protocols, ensure the compatibility and interoperability of data between different systems, provide data exchange interfaces and data quality inspection tools, support seamless exchange and real-time update of data between different systems, introduce data quality monitoring and evaluation mechanisms, regularly inspect and evaluate data quality, and ensure the accuracy and integrity of data;

[0013] Efficiency improvement module: adopts distributed database and cloud computing technologies to improve the efficiency of data processing and transmission, introduces data caching and asynchronous processing technologies to reduce data access delays, and uses AI technology to achieve automation and intelligence in data governance, including data cleaning, data classification, and data labeling. It provides intelligent recommendations and decision support functions to help users quickly find the data they need;

[0014] Usability optimization module: Design user interface and operation process to reduce users' learning cost and usage difficulty, provide online help and document support to help users solve problems encountered during use, provide flexible permission management and role allocation functions, support personalized configuration according to the needs and responsibilities of different users, allow users to dynamically adjust permissions and role allocation according to business needs, and improve the flexibility and scalability of the system.

[0015] As a preferred technical solution of the present invention, in the security enhancement module, the security enhancement module implements fine-grained access control strategies. These strategies are not only based on the user's identity and role, but also combined with the user's specific permissions, to achieve dynamic adjustment of data access. Through this mechanism, the system can accurately control which users can access which data and what operations they can perform on the data, thereby effectively preventing unauthorized users from accessing sensitive data and reducing the risk of data leakage. The security enhancement module introduces a multi-factor authentication mechanism, which requires users to provide multiple forms of identity authentication information when logging in, including passwords, biometric features, and mobile phone verification codes, increasing the difficulty of hacker attacks or bypassing the authentication mechanism. At the same time, this multi-factor authentication method also improves the security of user accounts. Even if one of the verification methods is compromised, it is still difficult for hackers to obtain complete access rights.

[0016] As a preferred technical solution of the present invention, in the data sharing and interoperability module, the module utilizes the decentralized, tamper-proof and transparent characteristics of blockchain technology to build a data sharing platform. On this platform, all participants can participate in data exchange and sharing on their own without relying on a centralized management agency to formulate unified data standards and transmission protocols. These standards and protocols cover the format, encoding, naming rules and transmission methods of the data, ensuring that data can be seamlessly connected and exchanged between different systems. At the same time, the module also provides a data exchange interface, supports various data formats and transmission methods, and introduces a data quality monitoring and evaluation mechanism. This mechanism regularly checks and evaluates data quality to promptly detect and correct errors and anomalies in the data.

[0017] As a preferred technical solution of the present invention, in the efficiency improvement module, distributed database and cloud computing technology are used as the cornerstones, and the parallel processing and elastic expansion capabilities of these technologies are fully utilized to improve the system's processing speed and transmission efficiency for large-scale data. The deployment of distributed databases allows data to be stored in multiple nodes in a distributed manner, and data caching and asynchronous processing technologies are introduced. The data caching mechanism stores frequently accessed data in a fast-access storage medium in advance. The asynchronous processing technology allows the system to continue to perform other operations when processing complex or time-consuming tasks without having to wait for the task to be completed.

[0018] As a preferred technical solution of the present invention, in the usability optimization module, the system supports personalized configuration according to the needs and responsibilities of different users, allowing users to dynamically adjust permissions and role allocations according to business needs. Users can assign different permissions and roles to different users or user groups according to their actual conditions, and provide rich permission management functions, including permission inheritance and permission grouping, to further simplify the complexity of permission management.

[0019] A multi-service APP authentication and data sharing method, comprising the following steps:

[0020] Step 1: User authentication and authorization

[0021] a. Multi-factor authentication: When a user logs in for the first time, multi-factor authentication is required, including password, biometrics or mobile phone verification code. The system verifies the authentication information provided by the user to ensure the authenticity of the user's identity.

[0022] b. Fine-grained access control: Based on the user's identity, role, and permissions, the system dynamically adjusts data access permissions so that users can only access authorized data resources, preventing unauthorized users from accessing sensitive data.

[0023] c. Security audit and vulnerability scanning: Regularly conduct security audits on the authentication system to check whether there are potential security risks in the system, perform vulnerability scanning, and promptly discover and repair security vulnerabilities in the system.

[0024] Step 2: Data Sharing and Interoperability

[0025] a. Data upload and encryption: Users upload sensitive data to the decentralized blockchain data sharing platform. The system uses encryption algorithms to encrypt and store sensitive data to ensure the security of the data during storage.

[0026] b. Data standards and transmission protocols: The system formulates unified data standards and transmission protocols to ensure the compatibility and interoperability of data between different systems. Encryption technology is used during data transmission to ensure the security of data during transmission.

[0027] c. Data exchange and real-time update: Provide data exchange interface, support seamless data exchange between different systems, introduce data quality monitoring and evaluation mechanism, regularly check and evaluate data quality to ensure data accuracy and completeness. The system supports real-time update of data to ensure that users can obtain the latest data.

[0028] Step 3: Data processing and efficiency improvement

[0029] a. Distributed database and cloud computing: Distributed database and cloud computing technologies are used to improve the efficiency of data processing and transmission. Data is stored in a distributed database to ensure high availability and scalability of data.

[0030] b. Data caching and asynchronous processing: Introduce data caching technology to reduce data access delays and improve system response speed. Use asynchronous processing technology to achieve asynchronous data processing and improve the system's concurrent processing capabilities. Provide intelligent recommendation and decision support functions to help users quickly find the data they need and improve data utilization efficiency.

[0031] Step 4: Usability optimization

[0032] a. User interface and operation process: Design a simple and intuitive user interface and operation process to reduce the user's learning cost and usage difficulty, provide online help and document support, and help users solve problems encountered during use.

[0033] b. Permission management and role assignment: Provide flexible permission management and role assignment functions, support personalized configuration according to the needs and responsibilities of different users, allow users to dynamically adjust permissions and role assignments according to business needs, and improve the flexibility and scalability of the system.

[0034] The present invention has the following beneficial effects:

[0035] 1. Encrypted storage and transmission of sensitive data through encryption algorithms to effectively prevent data leakage, implement fine-grained access control strategies to ensure that only authorized users can access sensitive data, introduce multi-factor authentication to improve the security of the authentication system, prevent unauthorized access, and regularly conduct security audits and vulnerability scans on the authentication system to promptly discover and fix potential security issues;

[0036] 2. Use blockchain technology to establish a decentralized data sharing platform to achieve cross-organizational and cross-system data interconnection and interoperability, formulate unified data standards and transmission protocols, ensure the compatibility and interoperability of data between different systems, provide data exchange interfaces and data quality inspection tools, support seamless data exchange and real-time update, introduce data quality monitoring and evaluation mechanisms, ensure data accuracy and integrity, and improve data value;

[0037] 3. Adopt distributed database and cloud computing technologies to significantly improve the efficiency of data processing and transmission, introduce data caching and asynchronous processing technologies, reduce data access delays, and improve user experience. Use AI technology to automate and intelligentize data governance, reduce manual burdens, improve work efficiency, and provide intelligent recommendations and decision support functions to help users quickly find the data they need and make smarter decisions. BRIEF DESCRIPTION OF THE DRAWINGS

[0038] Figure 1 This is a structural diagram of a multi-service APP authentication and data sharing system proposed by the present invention;

[0039] Figure 2 A schematic diagram of the steps of a multi-service APP authentication and data sharing method proposed by the present invention. DETAILED DESCRIPTION

[0040] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0041] Reference Figure 1-2 , a multi-service APP authentication and data sharing system, including the following modules:

[0042] Security Enhancement Module: Use encryption algorithms to encrypt the storage and transmission of sensitive data to ensure the security of data during storage and transmission. Implement fine-grained access control strategies, dynamically adjust data access permissions based on user identities, roles, and permissions, and prevent unauthorized users from accessing sensitive data. Introduce multi-factor authentication to improve the security of the authentication system, prevent hacker attacks or bypassing the authentication mechanism, and regularly conduct security audits and vulnerability scans on the authentication system. In the security enhancement module, the security enhancement module implements fine-grained access control strategies. These strategies are not only based on the identity and role of the user, but also combined with the specific permissions of the user to achieve dynamic adjustment of data access. Through this mechanism, the system can accurately control which users can access which data and what operations they can perform on the data, thereby effectively preventing unauthorized users from accessing sensitive data and reducing the risk of data leakage. The security enhancement module introduces a multi-factor authentication mechanism, which requires users to provide multiple forms of identity authentication information when logging in, including passwords, biometric features, and mobile phone verification codes, which increases the difficulty of hacker attacks or bypassing the authentication mechanism. At the same time, this multi-factor authentication method also improves the security of user accounts. Even if one of the verification methods is breached, it is still difficult for hackers to obtain complete access rights.

[0043] Data sharing and interoperability module: Use blockchain technology to establish a decentralized data sharing platform to achieve data interconnection and interoperability between different organizations and systems, formulate unified data standards and transmission protocols, ensure data compatibility and interoperability between different systems, provide data exchange interfaces and data quality inspection tools, support seamless exchange and real-time update of data between different systems, introduce data quality monitoring and evaluation mechanisms, regularly inspect and evaluate data quality, and ensure data accuracy and integrity. In the data sharing and interoperability module, this module uses the decentralized, tamper-proof and transparent characteristics of blockchain technology to build a data sharing platform. On this platform, all participants can participate in data exchange and sharing on the same platform without relying on centralized management agencies. Unified data standards and transmission protocols are formulated. These standards and protocols cover the format, encoding, naming rules and transmission methods of data, ensuring that data can be seamlessly connected and exchanged between different systems. At the same time, this module also provides data exchange interfaces, supports various data formats and transmission methods, and introduces data quality monitoring and evaluation mechanisms. This mechanism regularly inspects and evaluates data quality to promptly discover and correct errors and anomalies in the data.

[0044] Efficiency improvement module: Distributed database and cloud computing technologies are used to improve the efficiency of data processing and transmission. Data caching and asynchronous processing technologies are introduced to reduce data access delays. AI technology is used to achieve automation and intelligence in data governance, including data cleaning, data classification, and data labeling. Intelligent recommendation and decision support functions are provided to help users quickly find the data they need. In the efficiency improvement module, distributed database and cloud computing technologies are used as the cornerstone to make full use of the parallel processing and elastic expansion capabilities of these technologies to improve the system's processing speed and transmission efficiency for large-scale data. The deployment of distributed databases allows data to be stored in multiple nodes in a dispersed manner. Data caching and asynchronous processing technologies are introduced. The data caching mechanism stores frequently accessed data in fast-access storage media in advance. Asynchronous processing technology allows the system to continue to perform other operations when processing complex or time-consuming tasks without having to wait for the task to be completed.

[0045] Usability optimization module: Design user interface and operation process to reduce the user's learning cost and usage difficulty, provide online help and document support to help users solve problems encountered during use, provide flexible permission management and role allocation functions, support personalized configuration according to the needs and responsibilities of different users, allow users to dynamically adjust permissions and role allocation according to business needs, and improve the flexibility and scalability of the system. In the usability optimization module, the system supports personalized configuration according to the needs and responsibilities of different users, allowing users to dynamically adjust permissions and role allocation according to business needs. Users can assign different permissions and roles to different users or user groups according to their actual situation, and provide rich permission management functions, including permission inheritance and permission grouping, to further simplify the complexity of permission management.

[0046] A multi-service APP authentication and data sharing method, comprising the following steps:

[0047] Step 1: User authentication and authorization

[0048] a. Multi-factor authentication: When a user logs in for the first time, multi-factor authentication is required, including password, biometrics or mobile phone verification code. The system verifies the authentication information provided by the user to ensure the authenticity of the user's identity.

[0049] b. Fine-grained access control: Based on the user's identity, role, and permissions, the system dynamically adjusts data access permissions so that users can only access authorized data resources, preventing unauthorized users from accessing sensitive data.

[0050] c. Security audit and vulnerability scanning: Regularly conduct security audits on the authentication system to check whether there are potential security risks in the system, perform vulnerability scanning, and promptly discover and repair security vulnerabilities in the system.

[0051] Step 2: Data Sharing and Interoperability

[0052] a. Data upload and encryption: Users upload sensitive data to the decentralized blockchain data sharing platform. The system uses encryption algorithms to encrypt and store sensitive data to ensure the security of the data during storage.

[0053] b. Data standards and transmission protocols: The system formulates unified data standards and transmission protocols to ensure the compatibility and interoperability of data between different systems. Encryption technology is used during data transmission to ensure the security of data during transmission.

[0054] c. Data exchange and real-time update: Provide data exchange interface, support seamless data exchange between different systems, introduce data quality monitoring and evaluation mechanism, regularly check and evaluate data quality to ensure data accuracy and completeness. The system supports real-time update of data to ensure that users can obtain the latest data.

[0055] Step 3: Data processing and efficiency improvement

[0056] a. Distributed database and cloud computing: Distributed database and cloud computing technologies are used to improve the efficiency of data processing and transmission. Data is stored in a distributed database to ensure high availability and scalability of data.

[0057] b. Data caching and asynchronous processing: Introduce data caching technology to reduce data access delays and improve system response speed. Use asynchronous processing technology to achieve asynchronous data processing and improve the system's concurrent processing capabilities. Provide intelligent recommendation and decision support functions to help users quickly find the data they need and improve data utilization efficiency.

[0058] Step 4: Usability optimization

[0059] a. User interface and operation process: Design a simple and intuitive user interface and operation process to reduce the user's learning cost and usage difficulty, provide online help and document support, and help users solve problems encountered during use.

[0060] b. Permission management and role assignment: Provide flexible permission management and role assignment functions, support personalized configuration according to the needs and responsibilities of different users, allow users to dynamically adjust permissions and role assignments according to business needs, and improve the flexibility and scalability of the system.

[0061] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can replace or change the technical solution and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A multi-service APP authentication and data sharing system, characterized in that: Includes the following modules: Security Enhancement Module: Use encryption algorithms to encrypt the storage and transmission of sensitive data to ensure the security of data during storage and transmission. Implement fine-grained access control strategies to dynamically adjust data access rights based on user identities, roles, and permissions to prevent unauthorized users from accessing sensitive data. Introduce multi-factor authentication to improve the security of the authentication system, prevent hacker attacks or bypassing the authentication mechanism, and regularly conduct security audits and vulnerability scans on the authentication system. Data sharing and interoperability module: Use blockchain technology to establish a decentralized data sharing platform to achieve data interconnection and interoperability between different organizations and systems, formulate unified data standards and transmission protocols, ensure the compatibility and interoperability of data between different systems, provide data exchange interfaces and data quality inspection tools, support seamless exchange and real-time update of data between different systems, introduce data quality monitoring and evaluation mechanisms, regularly inspect and evaluate data quality, and ensure the accuracy and integrity of data; Efficiency improvement module: adopts distributed database and cloud computing technologies to improve the efficiency of data processing and transmission, introduces data caching and asynchronous processing technologies to reduce data access delays, and uses AI technology to achieve automation and intelligence in data governance, including data cleaning, data classification, and data labeling. It provides intelligent recommendations and decision support functions to help users quickly find the data they need; Usability optimization module: Design user interface and operation process to reduce users' learning cost and usage difficulty, provide online help and document support to help users solve problems encountered during use, provide flexible permission management and role allocation functions, support personalized configuration according to the needs and responsibilities of different users, allow users to dynamically adjust permissions and role allocation according to business needs, and improve the flexibility and scalability of the system.

2. A multi-service APP authentication and data sharing system according to claim 1, characterized in that: In the security enhancement module, the security enhancement module implements fine-grained access control strategies. These strategies are not only based on the user's identity and role, but also combined with the user's specific permissions to achieve dynamic adjustment of data access. Through this mechanism, the system can accurately control which users can access which data and what operations they can perform on the data, thereby effectively preventing unauthorized users from accessing sensitive data and reducing the risk of data leakage. The security enhancement module introduces a multi-factor authentication mechanism, which requires users to provide multiple forms of identity authentication information when logging in, including passwords, biometric features, and mobile phone verification codes, increasing the difficulty of hacker attacks or bypassing the authentication mechanism. At the same time, this multi-factor authentication method also improves the security of user accounts. Even if one of the verification methods is compromised, it is still difficult for hackers to obtain complete access rights.

3. A multi-service APP authentication and data sharing system according to claim 1, characterized in that: In the data sharing and interoperability module, the module utilizes the decentralized, tamper-proof and transparent characteristics of blockchain technology to build a data sharing platform. On this platform, all participants can participate in data exchange and sharing on their own without relying on a centralized management agency to formulate unified data standards and transmission protocols. These standards and protocols cover the format, encoding, naming rules and transmission methods of the data, ensuring that data can be seamlessly connected and exchanged between different systems. At the same time, the module also provides a data exchange interface, supports various data formats and transmission methods, and introduces a data quality monitoring and evaluation mechanism. This mechanism regularly checks and evaluates data quality to promptly detect and correct errors and anomalies in the data.

4. A multi-service APP authentication and data sharing system according to claim 1, characterized in that: In the efficiency improvement module, distributed database and cloud computing technologies are used as the cornerstones, and the parallel processing and elastic expansion capabilities of these technologies are fully utilized to improve the system's processing speed and transmission efficiency for large-scale data. The deployment of distributed databases allows data to be stored in multiple nodes in a distributed manner, and data caching and asynchronous processing technologies are introduced. The data caching mechanism stores frequently accessed data in a fast-access storage medium in advance. The asynchronous processing technology allows the system to continue to perform other operations when processing complex or time-consuming tasks without having to wait for the task to be completed.

5. A multi-service APP authentication and data sharing system according to claim 1, characterized in that: In the usability optimization module, the system supports personalized configuration based on the needs and responsibilities of different users, allowing users to dynamically adjust permissions and role allocations based on business needs. Users can assign different permissions and roles to different users or user groups based on their actual conditions, and provide rich permission management functions, including permission inheritance and permission grouping, to further simplify the complexity of permission management.

6. A multi-service APP authentication and data sharing method, based on the multi-service APP authentication and data sharing system according to any one of claims 1 to 5, characterized in that: The following steps are involved: Step 1: User authentication and authorization a. Multi-factor authentication: When a user logs in for the first time, multi-factor authentication is required, including password, biometrics or mobile phone verification code. The system verifies the authentication information provided by the user to ensure the authenticity of the user's identity. b. Fine-grained access control: Based on the user's identity, role, and permissions, the system dynamically adjusts data access permissions so that users can only access authorized data resources, preventing unauthorized users from accessing sensitive data. c. Security audit and vulnerability scanning: Regularly conduct security audits on the authentication system to check whether there are potential security risks in the system, perform vulnerability scanning, and promptly discover and repair security vulnerabilities in the system. Step 2: Data Sharing and Interoperability a. Data upload and encryption: Users upload sensitive data to the decentralized blockchain data sharing platform. The system uses encryption algorithms to encrypt and store sensitive data to ensure the security of the data during storage. b. Data standards and transmission protocols: The system formulates unified data standards and transmission protocols to ensure the compatibility and interoperability of data between different systems. Encryption technology is used during data transmission to ensure the security of data during transmission. c. Data exchange and real-time update: Provide data exchange interface, support seamless data exchange between different systems, introduce data quality monitoring and evaluation mechanism, regularly check and evaluate data quality to ensure data accuracy and completeness. The system supports real-time update of data to ensure that users can obtain the latest data. Step 3: Data processing and efficiency improvement a. Distributed database and cloud computing: Distributed database and cloud computing technologies are used to improve the efficiency of data processing and transmission. Data is stored in a distributed database to ensure high availability and scalability of data. b. Data caching and asynchronous processing: Introduce data caching technology to reduce data access delays and improve system response speed. Use asynchronous processing technology to achieve asynchronous data processing and improve the system's concurrent processing capabilities. Provide intelligent recommendation and decision support functions to help users quickly find the data they need and improve data utilization efficiency. Step 4: Usability optimization a. User interface and operation process: Design a simple and intuitive user interface and operation process to reduce the user's learning cost and usage difficulty, provide online help and document support, and help users solve problems encountered during use. b. Permission management and role assignment: Provide flexible permission management and role assignment functions, support personalized configuration according to the needs and responsibilities of different users, allow users to dynamically adjust permissions and role assignments according to business needs, and improve the flexibility and scalability of the system.

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