TW201824170A - Converged service provisioning data exchange system that allows an user end to quickly complete the topological construction of network service facility lines corresponding to a desired delivery flow path - Google Patents

Abstract

The present invention provides a converged service provisioning data exchange system. The system provides the arrangement of modeling and model formation of software modeling, allowing an user end of operation to establish a delivery flow path for the designated services in order to allocate the basic service execution unit that provides services, and to provide dynamic dispatching and assignment of virtual and physical servers, and to allow for the generation of basic service execution unit for application program interfaces, and then to carry out the topological construction of network service facility lines that correspond to the delivery flow path. With the above operations, after completion of the arrangement of the delivery flow path for the designated services, the user end may quickly complete the topological construction of network service facility lines corresponding to the delivery flow path.

Description

   Convergence service for data exchange system   

The invention relates to an installation system, in particular to an installation system capable of providing a confluence service.

With the explosive growth of telecommunication converging services and cloud traffic of image messaging cloud applications, in order to provide various services, various vendors need to design a number of application software interfaces (APIs) for end-user operations and commission telecommunication service providers to build Corresponding telecommunication service network.

However, the traditional application programming interface is extremely costly in the development and subsequent construction of telecommunication equipment, and the telecommunication configuration established in response to various specialized services cannot be called flexibly. Therefore, when the service content or telecommunications equipment needs to be adjusted, It takes a considerable amount of time and money to set up, which reduces the willingness of various operators to use it.

In summary, if a technical means to quickly configure the service installation process is a technical problem that needs to be solved in this field.

In order to solve the problem of the previous disclosure, an object of the present invention is to provide a technical solution capable of quickly setting a service installation process.

In order to achieve the above-mentioned object, the present invention proposes a convergent service installation data exchange system. The aforementioned system includes a software logic definition management module, a software mold module, a visualized product service analysis management module, a virtual-real integrated resource management module, an application program interface self-learning production module, and a topology setting module. The aforementioned software logic definition management module performs dynamic process configuration on the connected modules. The aforementioned software mold module is connected to the software logic definition management module, and provides the mold and modeling settings of the software model. The aforementioned visualized product service analysis management module is connected to the software logic definition management module, and provides the operation end to establish a specified service delivery flow path to configure the service basic execution unit that provides the service. The aforementioned virtual-real integrated resource management module is connected to the software logic definition management module to provide dynamic scheduling and assignment of virtual and physical servers. The aforementioned application program interface self-learning production module is connected to the software logic definition management module, and provides the production of the service basic execution unit of the application program interface. The aforementioned topology setting module is connected to the software logic definition management module, and provides network service equipment circuit topology construction corresponding to the delivery process path.

In summary, by using the convergent service provided by the present invention to install a data exchange system, users in various fields can quickly complete the network service equipment line corresponding to the delivery process path after the delivery path of the designated service is configured. Topology building.

VASU1 ~ VASU8‧‧‧Service Station

VM1 ~ VM3‧‧‧Virtual Machine

1‧‧‧Convergence service for data exchange system

10‧‧‧Software logic definition management module

101‧‧‧Business Core Software Module

11‧‧‧soft mould module

12‧‧‧Visual product service analysis management module

13‧‧‧Virtual Reality Integrated Resource Management Module

14‧‧‧ self-learning production module by application interface

15‧‧‧Topology Setting Module

16‧‧‧Service Behavior Analysis and Forecasting Module

17‧‧‧Learning Management Module

18‧‧‧ Geometric Vector Encryption and Compression Module

2‧‧‧ Cloud Database

FIG. 1 is a schematic diagram of a data exchange system for assembling and collecting services of an embodiment of the present invention.

FIG. 2 is a schematic diagram of a product service process path according to an embodiment of the present invention.

FIG. 3 is a tree-level multi-level analysis diagram generated by analysis according to an example of the present invention.

The following describes specific embodiments to illustrate the implementation of the present invention, but it is not intended to limit the scope of the present invention.

Please refer to FIG. 1, which is a schematic diagram of a data exchange system 1 for collecting services provided by an embodiment of the present invention. The aforementioned system includes a software logic definition management module 10, a software molding module 11, a visualized product service analysis management module 12, a virtual-real integrated resource management module 13, an application program interface self-learning production module 14, and topology settings. Module 15. The aforementioned software logic definition management module 10 performs dynamic process configuration on the connected modules. The aforementioned software mold module 11 is connected to the software logic definition management module 10 and provides the mold and modeling settings of the software model. The aforementioned visualized product service analysis management module 12 is connected to the software logic definition management module 10 and provides a user-side of operation to establish a delivery service path of a specified service to configure a service basic execution unit that provides the service. The aforementioned virtual-real integrated resource management module 13 is connected to the software logic definition management module 10 to provide dynamic scheduling and assignment of virtual and physical servers. The aforementioned application program interface self-learning production module 14 is connected to the software logic definition management module 10 and provides the production of the service basic execution unit of the application program interface. The aforementioned topology setting module 15 is connected to the software logic definition management module 10 to provide a network service equipment circuit topology construction corresponding to the delivery process path.

In another embodiment, the aforementioned system further includes a service behavior analysis and prediction module 16 connected to the software logic definition management module 10, and the service behavior analysis and prediction module 16 provides prediction and estimation of a specified service.

In another embodiment, the aforementioned system further includes a learning management module 17 connected to the software logic definition management module 10, wherein the learning management module 17 stores context information, service track information, or service history information corresponding to a specified service. At least one.

In another embodiment, the software logic definition management module 10 of the aforementioned system performs machine learning on the information in the learning management module 17 to optimize the configuration of the specified service.

In another embodiment, the aforementioned system further includes a geometric vector encryption and compression module 18 connected to the software logic definition management module 10. The geometric vector encryption and compression module 18 provides the software logic definition management module 10 to perform geometric vector encryption on the transmitted data. Compression processing and delivery.

In another embodiment, in the aforementioned system, the software logic definition management module 10 monitors the packet transmission status on the request connection path of the delivery process path to generate the required signaling, data, or audio and video streams, and configures virtual and integrated resources The management module 13 specifies at least one in-situ virtual server resource and a physical resource.

In another embodiment, the topology setting module 15 in the foregoing system dynamically schedules the device connection configuration in the telecommunication network through scheduling rules. In another embodiment, in the aforementioned system, the topology setting module 15 provides a software-defined network operation. In another embodiment, the aforementioned system further includes a media sensing module connected to the software logic definition management module 10 to provide the software logic definition management module 10 for analyzing and judging the underlying media of the network. In another embodiment, the designated service of the aforementioned system is a telecommunications installation service.

The aforementioned software logic definition management module 10, software mold module 11, visual product service analysis management module 12, virtual reality integrated resource management module 13, application program interface self-learning production module 14, topology setting module 15. Service behavior analysis and prediction module 16, learning management module 17, geometric vector encryption and compression module 18 is a software module, and can be implemented through programming languages such as C / C ++, Java, JavaScript, Python ... Module data can be stored in the cloud database 2 to ensure data consistency.

In the following, the present invention is described in the field of use of telecommunications installation services, but the operation field is not limited to this. In order to effectively promote the development of large-bandwidth convergence services and related services. The converging service installation data exchange system 1 of the present invention provides an application programming interface (API) assembly service platform with adjustment flexibility, so that the user can grasp the exchange transmission center, core network, access network, The deployment of the user terminal environment, and the client can dynamically analyze and schedule the cluster service host group through various real-time operation actions, and according to the issued real-time information and parameter set, to provide basic service unit provision, assembly, switching, and centralization Manage the status of each customer service to ensure service quality, and then develop various types of multi-intelligent services to benefit the target user group experience at different levels and in different fields. It can also dynamically assign the appropriate bandwidth according to the user environment to ensure the best service experience for users. Software logic defines the deployment of cloud on-demand integration technology elastic On Demand.

The present invention is based on API self-learning production modules (for example, using various machine learning modules), which are based on the user ’s location, behavior, and situation-driven / data-driven product services and terminals. Functional modules use collaboration, which is used to quickly complete multi-level heterogeneous modules and multi-level related collaborations. Learning to produce modules through APIs to build increasingly powerful and complete sub-service units with knowledge in the telecommunications field. Through standard, shared, and reusable software Define specifications to overcome obstacles, accelerate time-to-market, and further apply to emerging areas of ICT / IOT, such as banking and auto driving, to accelerate the provision of end-to-end integration services.

In operation, the software logic definition management module 10 can improve, evolve, and recursively improve the software-defined logic flow, and connect other related modules to complete product service analysis and assembly through link calls. The results of multi-dimensional analysis are saved to a dimensional database to facilitate the retrieval and analysis of various heterogeneous topics and further apply them to improve the effectiveness of business behavior, and accurately set resources for subsequent business, network, and service development. The software logic definition management module 10 further optimizes and improves the model library through software-defined modeling, modeling, and saving associations. The first production system cooperates with and interoperates with complex telecommunications communication specifications, and smoothly converts them into standard SOA / EAI / Restful / Jason format. Improve the efficiency of multi-heterogeneous system operation and interoperability, speed up the market development of products, greatly improve the old communication specifications that were previously inefficient and difficult to communicate with each other, and reduce the handshake time of inter-system communication.

Please refer to FIG. 2, which is a schematic diagram of a product service flow path according to an example of the present invention. After a number of customers in different fields request product services, the user end establishes a service delivery process path diagram through the visual product service analysis management module 12 and its operation interface, and the path diagram contains one or Multiple logical process paths. Each service station VASU1 ~ VASU8 on one or more virtual machines VM1 ~ VM3 on the path can automatically generate a combined service from the software service library, software rule library, and software learning library. Each service station VASU will Through the product catalog and service catalog group, and use the cloud service API catalog to select standard specifications APIs for serial connection to complete the design of the product service flow path.

The above operations are executed by the business core software module 101 running on the software logic definition management module 10. The business core software module 101 calls the visual product service analysis management module 12 to define, mold, and model the service base execution units required to use the service capabilities of the service base execution units in various industrial fields, and connects in parallel through active control connections. Parallel and sequential driving, the results are obtained through asynchronous processing and comprehensive induction, and the execution results are passed to the business core software module 101. After the business core software module 101 performs analysis and processing, it controls various types of sub-service units through signaling and establishes The sending end and the receiving end route Session (connection dedicated channel), handle business logic in the product field, and complete a one-stop product service path process for assembly and installation.

Please refer to FIG. 3, which is a tree-like multi-level analysis diagram generated by the foregoing example analysis. After multi-dimensional analysis of customer demand, the demand is disassembled and centralized data analysis is performed to determine the service host form of the corresponding sub-service and basic service unit required by the specified service , Location and quantity, function, and IP location and geographic location. Then, by calculating the location and network path of various heterogeneous service host, the software logic defines the management module 10 to control the call connection behavior and analyze the user environment location and request. Packet content header and protocol detailed action behavior, monitor the packet transmission status on the request connection path, filter the protocol analysis header content, parse and execute the request service, and generate the required signaling, data, and audio and video streams. Associate analysis and attribution, and use the virtual-integrated integrated resource management module 13 to designate at least one localized virtual server resource and a physical resource to operate in a hybrid manner, which is responsible for continuously correspondingly tracking the virtual private network. Then, the dynamic On Demand service provides the service to a Tanet (tenant user) customer, initiates network element factor detection, and adjusts network quality capabilities.

In addition, the media environment module can be used to sense the user's environment and network quality, while monitoring network bandwidth capacity, instantaneous traffic, and peak traffic, and real-time monitoring interactive dynamic management of connection behavior and geometric vector encryption and compression mode. Group 18 controls the bit rate of information and uses API to adjust the locality dynamically.

Please refer to FIG. 4, when the data exchange system 1 provided by the convergent service according to the present invention runs in a remote cloud IDC (data center) computer room. When multiple heterogeneous service units are located in different cloud IDC computer rooms, and the source demand is an online video and audio integrated streaming service, the converging service is used to install the data exchange system 1 through the cloud product catalog, service catalog, and API catalog. The sub-service unit functional elements required for content, streaming, interaction, broadband, transmission, and exchange services can be dynamically expanded after the customer has placed an order. Through the analysis of the business logic of the product, the service can be dynamically augmented with data for installation. 、 Dynamic tags correlate group information to produce the specification blocks of product supply specifications, and dynamically recursively increase the order, and assemble the blocks to complete the specification specifications. The learning management module 17 stores the context, trajectory, and history. The next time it encounters the same conditions, it automatically calls out the applicable block model mold. And through full software definition to strengthen flexibility and scalability and reuse, dynamic hierarchical integration module to assemble product services and value-added services.

The converging service for installing the data exchange system 1 can switch between various devices and smoothly connect heterogeneous streams according to the detection results of the operating environment and network status, and can be accessed through different types of terminals. Convergence service for the installation of data exchange system 1 through automatic recursive monitoring and detection of user terminal devices to dynamically calculate the port number, connection and route of the measurement path from the measuring station to the end of the user network, using Software Defined Analysis, through deployment related A collection group of API pools for subsequent assembly and connection. Through heterogeneous API calls, the functions of each other are connected and assembled in series. The Atomic (single) service is stacked to form a Composite service, and then assembled into More complex aggregates, which continuously use assembly links. These Atomic services are deployed and executed on software-defined design (content-aware content-aware) virtualized cluster servers, and expand and superimpose at least one virtual resource server based on real-time demand expansion to improve operational computing burst ( Very short burst of time) performance.

In this case, product service requests from heterogeneous Internet access environments of different user terminals in different directions are classified by tags and attributes based on their classification and subsequent analysis. The homogeneous requests are collectively provided by the virtual server group with specific functions. The product service analysis management module is translated into services and content , Network, quality, agreement, customer, obstacle, connection address, connection device, connection level, connection level, and other types of parameter rule sets, which are calculated in real time through the dynamic scheduling of virtualized resources and analysis of operating data. The online request connection and the real-time status of the environment can further deduct and estimate the expected use conditions, behavioral actions, and use requirements, continue to direct this request to the request assignment unit, and further establish and refine the learning library and rule base.

The operation results are synchronously output to the software logic definition management module 10, and the topology setting module 15 dynamically schedules the exchange and transmission office computer room through the scheduling rules → measuring station → transmission equipment → transfer box → user building → main box → host The construction areas of each endpoint are sequentially located with port numbers, connections, and lines, and are driven by software to achieve the effect of load distribution through the formation of multiple routes, ensuring the use of software-defined modeling to improve overall service quality and user-dependent virtual resources. Separation of efficiency, using the most streamlined and supported virtual resources to provide the required service portfolio and incremental service pressure during the subsequent service request life cycle, ensuring that the customer's multiple user experience and real-time QOS (quality assurance) are seamless and seamless. Switch services to achieve smooth device service conversion within the expected tolerance time range according to the client environment and device.

Convergence service installation data exchange system 1 further takes the problems of sub-services and basic services in execution, and automatically designs and establishes problem processing patterns based on the content. Through iterative machine learning, proactive self-finish problem solving is achieved. Reduce human intervention judgment, improve the real-time monitoring capability and intelligent judgment of the confluence application execution phase, reduce the OPEX (operation cost) of maintenance and operation manpower required for this product line, and provide convergent fusion applications of artificial intelligence. As the establishment of the problem-processing model becomes more complete and accurate, the scope of automatic processing is also getting larger and larger, and the accuracy will also be greatly improved. It is preferred to refer to this model for intelligent automation to complete problem-solving. As the model becomes more complete, the benefits of this intelligent operation are obvious. The present invention manages events by driving events and controlling events. In order to achieve all process problems, software-defined mold modeling is used for judgment and analysis to automatically solve the goal of self-discovery and immediate solution, which greatly reduces the personnel cost required for personnel intervention and problem analysis and diagnosis.

And when there is a more suitable API production system and updated sub-service basic execution unit is established, or the value-added service basic execution unit is modified, or in response to market needs or customer needs or planned function enhancements, the user end only The sub-service basic execution unit needs to be registered, and there is no need to change to the collaboration interface and the visual product service analysis management module 12 to link and correspond.

The above detailed description is a specific description of a feasible embodiment of the present invention, but this embodiment is not intended to limit the patent scope of the present invention. Any equivalent implementation or change that does not depart from the technical spirit of the present invention should be included in Within the scope of the patent in this case.

Claims (10)

    A data exchange system for assembling services is provided, which includes: a software logic definition management module that performs dynamic process configuration on connected modules; a software mold module that connects to the software logic definition management module and provides software modelling Model and modeling settings; visualized product service analysis management module, connected to the software logic definition management module, and provided the user of the operation to establish the specified service delivery process path to configure the service base execution unit that provides the service; virtual-real integration Resource management module, connected to the software logic definition management module, to provide dynamic scheduling and assignment of virtual and physical servers; application program interface self-learning production module, connected to the software logic definition management module, to provide the application program interface The production system of the service basic execution unit; and the topology setting module, which is connected to the software logic definition management module, and provides the network service equipment line topology construction corresponding to the delivery process path.         The convergent service for the data exchange system described in claim 1, further includes a service behavior analysis and prediction module connected to the software logic definition management module, and the service behavior analysis and prediction module provides prediction and estimation of the specified service. .         The data exchange system provided by the convergent service as described in claim 2 further includes a learning management module connected to the software logic definition management module, wherein the learning management module stores situation information and service track information corresponding to the specified service , Or at least one of the service history information.         The convergent service for the data exchange system as described in claim 1 or 3, wherein the software logic definition management module performs machine learning on the information in the learning management module to optimize the configuration of the specified service.         The confluence service for the data exchange system described in claim 4, further comprising a geometric vector encryption and compression module connected to the software logic definition management module. The geometric vector encryption and compression module provides the software logic definition management module for transmission. The data is processed and transmitted by geometric vector encryption and compression.         The convergent service for the data exchange system described in claim 1, wherein the software logic definition management module monitors the packet transmission status on the requested connection path of the delivery process path to generate the required signaling, data, or audio and video strings Stream, and configure the virtual-integrated integrated resource management module to specify at least one geo-virtual server resource and physical resource.         The convergent service described in claim 1 is used to install a data exchange system, wherein the topology setting module dynamically schedules device connection configurations in a telecommunications network through scheduling rules.         The convergence service described in claim 7 is used to install a data exchange system, wherein the topology setting module provides a software-defined network operation.         The confluence service for data exchange system described in claim 1, further includes a media awareness module connected to the software logic definition management module, so as to provide the software logic definition management module to perform analysis and judgment of the underlying media of the network.         The convergent service installation data exchange system according to claim 1, wherein the designated service is a telecommunications installation service.