Multi-video channel provider docking system
By designing a multi-video channel dealer docking system, the problems of frequent updates of video channel dealer interfaces and inflexible switching in the existing technology are solved, and the system is efficient, flexible and easy to expand, improving user experience and data utilization efficiency.
Patent Information
- Application Number
- CN202510027376.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-08
- Publication Date
- 2025-04-22
AI Technical Summary
In the prior art, the interface of video channel providers is frequently updated, resulting in the system being continuously adjusted and updated, which increases maintenance difficulty and cost, and cannot flexibly switch between different video channel providers, limiting user choice.
A multi-video channel dealer docking system is designed, including a unified video service interface module, an adapter management module, a configuration management module, a dynamic switching module and a data integration and analysis module. Through these modules, unified access and management of multiple video channel dealers are achieved.
It significantly reduces system complexity and maintenance costs, improves system flexibility and expansion capabilities, realizes flexible switching and data integration of multi-video channel providers, and improves user experience and data utilization efficiency.
Smart Images
Figure CN119865568A_ABST
Abstract
Description
Technical Field
[0001] The present application relates to the field of computer software design, and in particular to a multi-video channel provider docking system. Background Art
[0002] With the popularization of video technology, a large number of software manufacturers need to integrate video functions into their own systems. However, the existing docking methods have many technical difficulties, which are mainly manifested in the following aspects. The existing system needs to dock with each video channel provider separately and develop multiple interface adapters, resulting in a complex architecture. The video channel provider interface is frequently updated, resulting in the need for constant adjustment and updating of the system, which increases the difficulty and cost of maintenance. The existing system is usually unable to flexibly switch between different video channel providers, limiting user choices. Adding new video channel providers requires additional development of adapters and code modifications, resulting in high expansion costs. The interfaces and views of multiple channel providers are not unified, and the user operation experience is inconsistent. The many-to-many docking method has led to a surge in development and maintenance costs. The data between different channel providers cannot be effectively integrated, limiting the value of data utilization.
[0003] In view of the above problems, the present invention proposes an innovative software system architecture to provide an efficient, flexible and easily expandable solution for video channel providers to access. Summary of the invention
[0004] The embodiment of the present application provides a multi-video channel provider docking system. The technical solution is as follows:
[0005] The present application provides a multi-video channel provider docking system, the system comprising:
[0006] A unified video service interface module, used to provide a unified interface standard for the user system, wherein the interface standard is used to enable the user system to access multiple video channel providers through the unified video service interface module;
[0007] The adapter management module is used to manage the interface adapters of multiple video channel providers. It is responsible for converting the user system's request into a data format that meets the interface requirements of the video channel provider according to the interface protocol and data format of the video channel provider, and converting the video channel provider's response into a unified format and returning it to the user system.
[0008] Configuration management module, used to manage the access configuration of video channel providers, including the channel provider's identity information, interface address, access credentials, call parameters and service type;
[0009] Dynamic switching module, used to switch between multiple video channel providers according to user needs and system operation status, and select the video service provider with the best performance;
[0010] The data integration and analysis module is used to integrate data from multiple video channel providers, and to clean, classify, store and analyze the integrated data, and generate statistical reports or visual charts for users.
[0011] Optionally, the unified video service interface module supports communication with the user system via RESTful API and WebSocket protocol.
[0012] Optionally, the adapter management module has an automatic interface generation function for automatically generating adapter codes based on an API description document provided by a video conferencing channel provider.
[0013] Optionally, the API description document includes an OpenAPI specification or a Swagger document.
[0014] Optionally, the dynamic switching module selects a video conferencing service provider based on a service quality monitoring algorithm, where the service quality includes network delay, data packet loss rate, response time and service stability.
[0015] Optionally, the data integration and analysis module is used to store the integrated data by category according to time, region and user behavior, and supports generating charts through a data visualization engine.
[0016] Optionally, the configuration management module supports real-time updating of configuration parameters through a graphical management interface.
[0017] Optionally, the system also includes a log management module for recording the operating status and error information of each module and sending an early warning notification when an abnormality occurs.
[0018] In an embodiment of the present application, a multi-video channel provider docking system is provided, which aims to solve the problems of high system complexity, difficult maintenance, insufficient flexibility, poor scalability, poor user experience, high cost and difficulty in data integration in the prior art. The system includes a unified video service interface module, an adapter management module, a configuration management module, a dynamic switching module and a data integration and analysis module. Through the present invention, the user system only needs to access the unified video service interface module to complete the docking work of multiple video channel providers, avoiding the tedious operation of docking with multiple video channel providers one by one, significantly reducing the system complexity and maintenance costs, and improving the system flexibility and expansion capabilities. The data resources of multiple video channel providers are centrally managed and processed through the data integration and analysis module, improving data utilization efficiency and optimizing user experience. The present invention has the characteristics of high efficiency, stability, easy expansion and low cost, and can meet the needs of modern video service access. BRIEF DESCRIPTION OF THE DRAWINGS
[0019] Figure 1It is a structural diagram of a multi-video channel provider docking system provided by an exemplary embodiment of the present application. DETAILED DESCRIPTION
[0020] In order to make the objectives, technical solutions and advantages of the present application clearer, the implementation methods of the present application will be further described in detail below with reference to the accompanying drawings.
[0021] The term "multiple" as used herein refers to two or more than two. "And / or" describes the relationship between related objects, indicating that three relationships can exist. For example, A and / or B can mean: A exists alone, A and B exist at the same time, and B exists alone. The character " / " generally indicates that the related objects are in an "or" relationship.
[0022] like Figure 1 , which shows a structural diagram of a multi-video channel provider docking system, the system includes a unified video service interface module, an adapter management module, a configuration management module, a dynamic switching module and a data integration and analysis module.
[0023] The unified video service interface module is used to provide a unified interface standard for the user system, and the interface standard is used to enable the user system to access multiple video channel providers through the unified video service interface module. The unified video service interface module supports communication with the user system through RESTful API and WebSocket protocol.
[0024] Further explanation: The unified video service interface module is based on standardized API design (such as RESTful API and WebSocket protocol) to provide a single entry point for the user system. The module uses standard protocols for communication, receives requests from the user system, and routes the requests to the corresponding video channel provider through the adapter management module.
[0025] In the implementation process, the module shields the protocol differences between different video channel providers through the interface abstraction layer. By dynamically parsing the target video channel provider parameters in the user request, the specific adapter in the adapter management module is called.
[0026] To ensure the security and stability of the interface, the module integrates authentication mechanisms (such as OAuth 2.0 or JWT authentication) and flow control mechanisms (such as token bucket algorithm) to prevent malicious calls and interface abuse.
[0027] For scenarios that require real-time message transmission (such as video conferencing), this module implements low-latency asynchronous communication through WebSocket to meet users' needs for real-time and stability.
[0028] Therefore, through the unified video service interface module, the user system only needs to connect to the unified standard interface, without having to worry about the interface differences and implementation details of different video channel providers; through the authentication and flow control mechanism, interface abuse is prevented and the reliability of the system is improved; it supports multiple communication protocols (RESTful API and WebSocket) to adapt to the needs of different scenarios.
[0029] The adapter management module is used to manage the interface adapters of multiple video channel providers. It is responsible for converting the user system's request into a data format that meets the interface requirements of the video channel provider according to the interface protocol and data format of the video channel provider, and converting the video channel provider's response into a unified format and returning it to the user system.
[0030] The adapter management module has an interface automatic generation function, which is used to automatically generate adapter code based on the API description document provided by the video channel provider. The API description document includes an OpenAPI specification or a Swagger document.
[0031] To further explain, this module is responsible for automatically generating interface adapter code based on the API description document (such as OpenAPI or Swagger document) provided by the video channel provider. The automatic generation process is based on a code template engine (such as Mustache or Jinja2) and a document parsing tool (such as Swagger Parser).
[0032] The module has a built-in data conversion engine that can convert the user system's standard request data format (such as JSON or XML) into a format that meets the requirements of video channel providers, and convert it back to a unified format when responding.
[0033] The adapter management module maintains multiple versions of interface adapters and automatically switches to a compatible version when the video channel provider interface changes to avoid service interruption.
[0034] Use memory cache (such as Redis) to speed up adapter calls and matching and improve system performance.
[0035] Therefore, the adapter management module automatically generates interface adapters, eliminating the need for manual development by users, greatly shortening the docking time; even if the video channel provider's interface is upgraded, the user system can maintain normal operation; and the adapter call is optimized through the caching mechanism to reduce response delays.
[0036] The configuration management module is used to manage the access configuration of video conferencing channel providers, including the channel provider's identity information, interface address, access credentials, call parameters and service type.
[0037] To further explain, the configuration data is stored in a distributed database (such as MySQL or PostgreSQL) and updated in real time through the configuration management interface (front end). The module uses a two-layer cache structure (memory cache + database) to accelerate configuration reading and supports real-time updating of configuration parameters through a graphical management interface.
[0038] After the configuration is updated, the module notifies related modules through the configuration monitoring mechanism (such as event push based on message queue) to load the updated data in real time without the need to restart the system.
[0039] When the configuration is updated, the module has a built-in verification rule engine to verify the legitimacy of the input configuration data to avoid system abnormalities caused by incorrect configuration.
[0040] Therefore, for the configuration management module, configuration parameters can be updated in real time without restarting the system, which improves system flexibility. The security and high availability of configuration data are guaranteed through distributed storage and cache mechanisms. A graphical management interface is provided to facilitate users to quickly update configuration data.
[0041] The dynamic switching module is used to switch between multiple video channel providers according to user needs and system operating conditions, and select the video service provider with the best performance.
[0042] Furthermore, the dynamic switching module selects a video service provider based on a service quality monitoring algorithm, wherein the service quality includes network delay, data packet loss rate, response time and service stability.
[0043] The dynamic switching module monitors the service quality indicators (such as network delay, packet loss rate, response time, and stability) of multiple video channel providers to evaluate the performance of each channel provider in real time.
[0044] Use a multi-factor decision-making algorithm (such as a weighted round-robin algorithm or a dynamic weighted shortest path algorithm) to calculate the best video channel provider. The module will automatically select the best service provider based on the weight value.
[0045] When a video channel provider's service is abnormal (such as network failure or interface unavailable), the module automatically switches to an alternative channel provider to ensure service continuity. The module saves the user's service selection history data and optimizes the switching strategy through machine learning algorithms.
[0046] Therefore, through the dynamic switching module, the video channel provider with the best performance can be dynamically selected to ensure user experience; through the failover mechanism, service interruption caused by abnormality of a certain channel provider can be avoided; based on user behavior history and performance monitoring, video resources can be intelligently allocated.
[0047] The data integration and analysis module is used to integrate data from multiple video channel providers, and to clean, classify, store and analyze the integrated data, and generate statistical reports or visual charts for users.
[0048] Furthermore, the data integration and analysis module is used to store the integrated data by categories of time, region and user behavior, and supports the generation of charts through a data visualization engine.
[0049] To further explain, the module integrates the usage data of multiple video channel providers through data collection tools (such as ETL tools) and stores it in a distributed data storage platform (such as Hadoop or ClickHouse).
[0050] The data cleaning process includes operations such as deduplication, null value processing, and format standardization. The classification basis includes dimensions such as time, region, and user behavior.
[0051] The analysis function is based on a big data computing framework (such as Spark or Flink) to perform real-time statistics and analysis on the integrated data. Visualization tools (such as D3.js or ECharts) generate intuitive charts or reports. In addition, the module desensitizes the integrated data to avoid user privacy leakage.
[0052] Therefore, through the data integration and analysis module, the data of multiple video channel providers are integrated to break the problem of data silos; through analysis reports and visual charts, support is provided for enterprises to optimize resource allocation; through desensitizing technology, user privacy is protected to avoid data leakage.
[0053] like Figure 1 As shown, Figure 1 The structure of the multi-video channel provider docking system is shown. The system consists of a user system, a unified video service interface module, an adapter management module, a configuration management module, a dynamic switching module, a data integration and analysis module, and multiple external video channel providers. The user system initiates a request through the unified video service interface module. After receiving and parsing the request, the interface module distributes the request to the adapter management module and the configuration management module. The adapter management module is responsible for converting the user request into a format that meets the interface requirements of the target video channel provider. At the same time, the dynamic switching module selects the video channel provider with the best service quality based on the configuration information provided by the configuration management module and the service quality monitoring algorithm. The request after adaptation and dynamic switching is routed to the selected video channel provider. The response data returned by the channel provider is collected, cleaned, classified and analyzed by the data integration and analysis module, and the final result is generated and fed back to the user system, thereby realizing efficient docking and unified management of multiple video channel providers.
[0054] In addition, the system also includes a log management module, which is used to record the operating status and error information of each module and send early warning notifications when an abnormality occurs.
[0055] In an embodiment of the present application, a multi-video channel provider docking system is provided, which aims to solve the problems of high system complexity, difficult maintenance, insufficient flexibility, poor scalability, poor user experience, high cost and difficulty in data integration in the prior art. The system includes a unified video service interface module, an adapter management module, a configuration management module, a dynamic switching module and a data integration and analysis module. Through the present invention, the user system only needs to access the unified video service interface module to complete the docking work of multiple video channel providers, avoiding the tedious operation of docking with multiple video channel providers one by one, significantly reducing the system complexity and maintenance costs, and improving the system flexibility and expansion capabilities. The data resources of multiple video channel providers are centrally managed and processed through the data integration and analysis module, improving data utilization efficiency and optimizing user experience. The present invention has the characteristics of high efficiency, stability, easy expansion and low cost, and can meet the needs of modern video service access.
[0056] The above description is only an optional embodiment of the present application and is not intended to limit the present application. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present application shall be included in the protection scope of the present application.
Claims
1. A multi-video channel provider docking system, characterized in that: The system comprises: A unified video service interface module, used to provide a unified interface standard for the user system, wherein the interface standard is used to enable the user system to access multiple video channel providers through the unified video service interface module; The adapter management module is used to manage the interface adapters of multiple video channel providers. It is responsible for converting the user system's request into a data format that meets the interface requirements of the video channel provider according to the interface protocol and data format of the video channel provider, and converting the video channel provider's response into a unified format and returning it to the user system. Configuration management module, used to manage the access configuration of video channel providers, including the channel provider's identity information, interface address, access credentials, call parameters and service type; Dynamic switching module, used to switch between multiple video channel providers according to user needs and system operation status, and select the video service provider with the best performance; The data integration and analysis module is used to integrate data from multiple video channel providers, and to clean, classify, store and analyze the integrated data, and generate statistical reports or visual charts for users.
2. The system according to claim 1, characterized in that The unified video service interface module supports communication with the user system via RESTful API and WebSocket protocol.
3. The system according to claim 1, characterized in that The adapter management module has an interface automatic generation function, which is used to automatically generate adapter codes based on the API description document provided by the video channel provider.
4. The system according to claim 3, characterized in that The API description document includes an OpenAPI specification or a Swagger document.
5. The system according to claim 1, characterized in that The dynamic switching module selects a video service provider based on a service quality monitoring algorithm, where the service quality includes network delay, data packet loss rate, response time, and service stability.
6. The system according to claim 1, characterized in that The data integration and analysis module is used to store the integrated data according to time, region and user behavior classification, and supports the generation of charts through a data visualization engine.
7. The system according to claim 1, characterized in that The configuration management module supports real-time updating of configuration parameters through a graphical management interface.
8. The system according to claim 1, characterized in that The system also includes a log management module for recording the operating status and error information of each module and sending an early warning notification when an abnormality occurs.