TW201525710A - Cloud based flexible assembly system of service and method suitable for telecommunication applications - Google Patents

Abstract

The present invention provides a cloud based flexible assembly system of service and a method thereof that are suitable for telecommunication applications. The system is connectable through a connection network with an external client side and allows the client side to configure the system. The system is further connectable with an external virtual host device to set up service basic unit according to the feature of a client terminal device to provide cloud service and is also connectable with an external database for data access of the data of the system. The system monitors the connection network in order to set up data structure of hypermedia data transmitted to the client side. The system further inspects events of internal operations and is subjected to training by using already-handled events of the system as a machine learning module and also conducts active correction of the system according to the result of training.

Description

Cloud-based service elastic assembly system and method suitable for telecommunication application

The present invention relates to a cloud service system and method, and more particularly to a cloud service system and method for providing elastic assembly.

As the future digital convergence service, ICT service and cloud application will have a huge impact on the telecom service industry and related products, and with Service Convergence, Network Convergence, and various open system cloud applications The booming development, as well as the deviceization of the Device Convergence network and the transmission network flattening the entire domain of the terminal, will enable the rapid development of digital services.

In this digital torrent, how can traditional telecom service providers respond to this huge change, how to get rid of the existing framework, and develop a new generation of telecom application architecture, in order to adapt to the trend of globalization, leading the development of high added value The software service has driven the transformation of China's new generation software industry revolution, once again changing the way people live and work and energy use, and has a large software development structure that can flexibly respond to the rapid adjustment of resources by the market and users. It is a top priority.

Under the integration of telecom service industry business and network, the vertical development system of the past service industry is closed and dedicated, and it is urgent to transform into an open and cross-industry cross-domain resource integration platform architecture unified control management to provide customers with multi-style selection packages across industries. Emerging industry services for products, replacing the structure of a single system in the past with a single business (such as fixed network business systems, network industry System, data service system, radio and television business system, communication service system and other systems are each developed), while breaking through the traditional network, fixed network, data network, wide-area network, Internet, and communication network, it is in high quality Driven by the stability and quality of the broadband network, driven by the convergence of convergence, the telecom application platform architecture using cloud technology will lead the transformation and transformation of traditional telecom services to create a new blue ocean.

However, the development of the traditional telecom industry system platform architecture is dedicated to the project, and it is impossible to expand the scope of application in response to the integration of digital convergence application services across industries. At the same time, the development of network and services is decentralized and the risk factors are gradually evolving. Huge, how to integrate existing network service platform resources across the field during the transition period, provide integrated services such as telecom applications, cross-industry emerging telecommunications applications, and highly intelligent new services (smart building/digital life and work/independent software transactions/smart integration) Application) is a dilemma faced by the global telecom service providers. In the process of evolution and transformation, it must be considered whether the cost input has an economic scale and undertakes a certain degree of risk mixing of new and old network services, such as PSTN technology. NTT in Japan and BT in the UK have encountered the dilemma of network evolution and service upgrading. In addition to the transformation on the one hand, we must also pay attention to the construction cost to avoid wrong investment. On the other hand, we must also launch innovative integrated applications in time to enhance market competitiveness. Multi-heterogeneous network service evolution faces a phased transition period The related problems, is the mainstream telecom service providers are a major issue of great importance.

In order to solve the technical problem of the prior art, one object of the present invention is to provide a cloud-enabled service system that can be flexibly assembled to solve the technical problems disclosed above.

To achieve the above object, the present invention provides a cloud-based service elastic assembly system suitable for telecommunication applications. The above system includes a visual product design management module, an embedded service management module, a general information model management module, a network topology graphic management module, and device sensing. Management module, machine learning event detection management module, customer self-management module, hypermedia content management module, cloud data management module, and business core coordination management module.

The visual product design management module is connected to the external client via the connection network, and the visual product design management module further includes an operation interface for providing a graphical connection structure for setting the service setting information of the system user. The embedded service management module is connected to the external host virtual machine, and the service basic execution unit is set on the host virtual machine, and the service basic execution unit is dynamically configured according to the service setting information to provide a service function. Its universal information model management module provides a standard connection interface for integrating service infrastructure units. The network topology management module is based on the connection network for topology analysis to generate a topology information. The device awareness management module detects device information or network parameter information of the connection network. The machine learning event detection management module analyzes the events handled by the system, performs machine learning on the events to generate event information, and provides event information to the system to actively adjust the processing program. The customer self-management module provides a user interface to the client, allowing the client to set user service setting information, and the customer self-management module responds to the instant dynamic information according to the user service setting information to provide the client or system for control. . The hypermedia content management module sets hypermedia information according to the topology information, device information, or network parameter information, and transmits the hypermedia information to the client. The cloud data management module connects the above modules and configures an external cloud database to provide system access. The business core coordination management module is also connected to the above modules and configured according to the operational requirements of the system.

To achieve the above purpose, the present invention further provides a cloud-based service elastic assembly method suitable for a telecommunication application, which is applied to a cloud-based service elastic assembly system, and the cloud-based service elastic assembly system includes a visual product design management module. , embedded service management module, Universal information model management module, network topology management module, device awareness management module, machine learning event detection management module, customer self-management module, hypermedia content management module, cloud data management module And the business core coordination management module, and the cloud data management module sets the external virtual host connection, and the virtual host further sets a plurality of virtualized data databases, and the method includes the following steps: First, through external connection The network is connected to external clients. Next, the business core coordination management module is connected to the above modules, and configured according to the requirements of the system. Furthermore, the visual product design management module provides a graphical link structure operation interface for the client to set service setting information through the graphical operation interface. Then, the embedded service management module is connected to the external host virtual machine, and the service basic execution unit is dynamically configured on the host virtual machine according to the service setting information to provide the cloud service specified by the client. Next, the Universal Information Management Module is set up to integrate the standard connection interface of the service infrastructure unit. Then, the network topology management module performs topology analysis according to the connection network to generate topology information, and causes the device awareness management module to detect device information or network parameter information of the connection network. The machine learning event detection management module analyzes the events handled by the cloud service elastic assembly system, and performs machine learning on the event to generate event information, and allows the cloud service elastic assembly system to actively adjust the processing program according to the event. The customer self-management module provides a client-side user interface to set user service setting information, and triggers the customer self-management module to respond to real-time dynamic information. The real-time information is provided by the client or the cloud service elastic assembly system for control. tube. Then, the hypermedia content management module sets the hypermedia information according to the topology information, the device information, or the network information, and transmits the hypermedia information to the client. Finally, the cloud data management module is connected and configured with an external cloud database to provide access to the cloud-based service elastic assembly system.

The adjustable dynamic assembly embedded unit of the invention establishes cloud service and collects The graphically related links of the centralized control are assembled into a system flow, and the application service is analyzed through the three-dimensional space network to realize the adjustable service resource assembly, and overcome the long-standing traditional technology-specific resource-specific system-specific services. The problem of effectively integrating innovation cannot be dynamically scheduled.

Through the above systems and methods, the reliability, integration efficiency, and fault-tolerant execution performance of large-scale software development can be improved, thereby shortening the overall development schedule and solving the problem that traditional conventional technologies cannot effectively integrate distributed development.

1‧‧‧Cloud Service Elastic Assembly System

11‧‧‧Visual Product Design Management Module

12‧‧‧ Embedded Service Management Module

13‧‧‧Common Information Model Management Module

14‧‧‧Network Topology Management Module

15‧‧‧Device Awareness Management Module

16‧‧‧ Machine Learning Event Detection Management Module

17‧‧‧Customer self-management module

18‧‧‧Supermedia content management module

19‧‧‧Business Core Coordination Management Module

1A‧‧‧Cloud Data Management Module

121‧‧‧Service opening components

122‧‧‧Service logout component

123‧‧‧Service Transaction Components

124‧‧‧Service Control Components

125‧‧‧Service test components

126‧‧‧Service Monitoring Components

127‧‧‧Service control components

131‧‧‧Agreement conversion unit

132‧‧‧Input conversion unit

133‧‧‧Output conversion unit

The first figure is a cloud-based service elastic assembly system suitable for telecommunication applications of the present invention.

Figure 2 is a visual product design management module of the present invention.

Figure 3 is an embedded service management module of the present invention.

Figure 4 is a general information module management module of the present invention.

Figure 5 is a flow chart of an application of an embodiment of the present invention.

The specific embodiments are described below to illustrate the embodiments of the invention, but are not intended to limit the scope of the invention.

Please refer to FIG. 1 , which is a cloud-based service elastic assembly system applicable to a telecommunication application according to the present invention, which includes a visual product design management module 11 , an embedded service management module 12 , and a general information model management module 13 . The network topology management module 14, the device awareness management module 15, the machine learning event detection management module 16, the customer self-management module 17, the hypermedia content management module 18, the cloud data management module 1A, And a business core coordination management module 19.

The visual product design management module 11 connects to at least one client through the connection network, and provides a graphical associated operation interface for the client to set a service component setting information to set the required cloud service. The embedded service management module 12 is configured to connect at least one host virtual machine externally, and set at least one service basic unit on the host virtual machine according to the service setting information, and dynamically add or delete the service basic unit, and The configuration is to provide the client's basic service (Atomic Service, AS for short) or Convergence Service (CS), where AS refers to the smallest unit software service that operates independently; CS refers to the software service composed of multiple ASs. (The CS can abstract and virtualize multiple ASs with independent functions, and perform functions of the same nature but different networks or services). The storage software service can be classified to provide business core front-end needs.

The general information model management module 13 is a standard connection interface interface provided for integrating the service basic unit. The network topology management module 14 performs association topology analysis operations according to the connection network to generate a topology information. The device awareness management module 15 detects device information and network parameter information of the connection network to provide the most instantaneous measurement data of the system. The machine learning event detection management module 16 analyzes at least one event processed by the system, and performs machine learning on the associated event set to generate event information, and the event information is provided to the system to actively adjust the processing program.

The customer self-management module 17 provides a user interface to the client, and the client remote connection network sets a user service setting information, and the customer self-management module 17 responds to an instant dynamic information according to the user service setting information. To provide the client or system for subsequent control operations. The hypermedia content management module 18 sets a hypermedia information according to the associated topology information, device information, or network parameter information, and transmits the hypermedia information to the client.

The cloud data management module 1A is connected to the visual product design management module 11, the embedded service management module 12, the general information model management module 13, the network topology management module 14, and the device awareness management module 15. The machine learning event detection management module 16, the customer self-management module 17, and the hypermedia content management module 18 are further connected with a plurality of external databases to provide access to the database by the system. .

The business core coordination management module 19 is also connected to the visual product design management module 11, the embedded service management module 12, the general information model management module 13, the network topology management module 14, and the device awareness management module. 15. The machine learning event detection management module 16, the customer self-management module 17 and the hypermedia content management module 18, and configuring the connected modules according to the operation requirements of the system.

Please refer to FIG. 2 , which is a schematic diagram of the visual product design management module 11 , and the visual product design management module 11 integrates the designated service execution units of each host virtual machine through the graphical operation interface. And configuring the required service basic execution unit through the graphical operation interface graphic, and storing the associated information of one of the configured at least one service basic execution unit. The visual product design management module 11 is a hierarchical two-way chain serial data structure, and the hierarchical tree nodes in the hierarchical two-way chain data structure are linked by two-way indicators. And point to the link node in the two-way index of the link, and simultaneously store one interface information of each service base execution unit.

Referring to FIG. 3, the embedded service management module 12 further includes a service provisioning component 121, a service logout component 122, a service transaction component 123, a service control component 124, a service test component 125, a service monitoring component 126, and a service version. Control element 127. The service opening pipe component 121 is open to the logic program of the designated service base execution unit. Service logout component 122 Logout of the logic program for the specified service base execution unit. The service transaction component 123 continuously changes the service logic program of the specified service base execution unit. The Service Control Element 124 regulates the logic of the specified Service Base Execution Unit. The service test component 125 tests the logic program of the specified service base execution unit. The service monitoring component 126 monitors the operation of the logic program of the designated service base execution unit. Finally, the service control component 127 is connected to the service provisioning component 121, the service logout component 122, the service transaction component 123, the service control component 124, the service test component 125, and the service monitoring component 126 for control.

The service base execution unit of the registered release can be managed through the embedded service management module 12, and the basic execution unit can include an AS or a CS. And through the visual product design management module 1111 to describe one-to-many or many-to-many association of cloud services in a graphical association connection manner, to design AS and CS integration, sequential, parallel, serial, synchronous or asynchronous call use These service base execution units complete their designated cloud services.

The embedded service management module 12 further uses the service catalog information to manage the service base execution unit, and processes the service base execution unit registration operation, deployment job, release job, update version job or call management operation, and provides the business core. The management module performs scheduling coordination operations or call jobs, or provides other service basic execution unit call scheduling operations. The embedded service management module 12 further updates the software version of the registered service execution unit, and updates the record version information to the service catalog information after the version is updated.

The embedded service management module 12 further uses an Active-Active Standby, which includes an On Demand/Fault-tolerant/VM Migration module to configure the host virtual machine for virtualization operations, and the embedded service management module. 12 further evaluates the performance of the system according to a monitoring service performance indicator value, and judges the warning operation according to the judgment, and the embedded service management module 12 Configure another host virtual machine to continue virtualization operations.

The embedded service management module 12 dynamically records one service type information, one service description information, one network location information, one service setting information, and one of each service basic execution unit installed in each host virtual machine. Interface content information, a communication specification information, a service version information, a virtual machine information, and an execution status information, to provide a system for scheduling resources of the host virtual machine. The module can dynamically increase the virtual machine computing power according to the actual requirements (User Session/Max Connection) and run the AAS (Active-Active-Standby) mode mechanism through the central control to establish the AS or CS, which can be operated by a dynamic management. The service catalog records the virtual resource type (ID, energy-consuming resources, network location) of the software service, the monitoring execution version, and the service and function descriptions that can be provided. Therefore, the caller (Caller) knows through the service catalog. The service unit that has been released is available, and the embedded service management module 12 performs the virtual machine status by analyzing and setting the service catalog driver Virtual Machine Monitor to perform the virtual resource status transfer to the virtual machine manager (API Scheduling CPU Memory Disk). The VM Pool resource support service catalogue dynamically implants various services to the corresponding virtual machine and belongs to the corresponding virtual machine. The service catalog can dynamically set up the VM and service unit or quickly copy a VM service unit according to actual needs. Form an On Demand Self Service on another VM, or dynamically reschedule the service unit to the appropriate VM as needed. Service Catalog and Virtual Machine Manager On Demand accurate and more efficient use of physical resources running machine service unit, in order to configure the optimal use of the limited resources of the physical machine.

The service basic execution unit of the embedded service management module 12 supports the function test of the embedded test (Embeded Testing) to quickly identify whether the service unit is normally healthy and usable, and is characterized in that the service unit body is tested within a few minutes. Operational logic program is Whether normal or dysfunctional abnormalities occur, confirm that its key functions are functioning properly, to quickly detect the availability of the service-based execution units of the product, accelerate the identification of a product's abnormal obstacles and remove obstacles. Ensure product quality and quickly detect service-based execution unit locking obstacles by identifying anomalies or obstacles. Compared with the development of traditional software, it is faster to find the location of the obstacles in a large range.

A service base execution unit is composed of service provisioning, service cancellation, service change, service control, service testing, service monitoring, and service control components, and these components are embedded in the service base execution unit. The execution unit satisfies the common standard interface and is managed by the embedded service management module 12 to call the corresponding component in response to the front end requirement to handle various operational requirements of the convergence application product. All service-based execution units of the embedded service management module 12 satisfy the technical features of embedded self-test, self-monitoring, self-revision, self-tolerance, acceptance of change, and acceptance of cancellation.

The conversion of the AS or CS protocol to the singular service-oriented interface specification is achieved through the general information model management module 13 of the case to achieve the conversion of multiple technologies and heterogeneous interfaces, and to integrate various heterogeneous information protocols of different sources or different purposes for AS or CS. The group manages the addition, modification, deletion and conversion of communication protocols, communication specifications, and communication interfaces of all ASs or CSs. When the AS or CS needs to add an interface exchanged with another software service unit, the general purpose can be The information model management module 13 designs a general information model to complete the message exchange and convert into a common standard communication protocol and communication interface specification.

Please refer to FIG. 4 again, through the protocol conversion unit 131, the communication protocol for converting the embedded cloud service base execution unit into the mainstream development technology can support the single service orientation agreement, and the input conversion unit 132 Embedded Cloud Service Foundation Execution Unit The conversion input is a standard input of the general information model, and the output of the embedded cloud service base execution unit is converted into a general information model standard output through the output conversion unit 133, and the software service unit is implemented through the general information model management module 13 The platform is not subject to the limitations of dedicated technology to serve as a software program call. Through the hierarchical split tree structure, the information model required for a product (including one-to-many association between message format and group hierarchy) can be described.

Please refer to FIG. 5 , which is an application flow chart of the present invention. The general information model management module 13 is applied to the standardization of the service basic execution unit interface, and the general information model interface is implemented by using the general information model and the interface specification of the telecommunication service field. Architecture and application service-oriented architecture service unit and service unit communication agreement and interface integration architecture, complete point-to-multipoint or multi-point-to-multipoint communication and message exchange conversion method integration, the software service unit communication agreement conversion To serve the service-oriented architecture, to provide a way to operate the software program's singular interface.

The general information model management module 13 of the present invention is used to describe a general information model used by a product composition service, and the information model is used as a communication agreement information model of a service basic execution unit composed of the product, through the information model. Describe the behavior of the service (behavior), the format of the exchange message, the communication protocol, and the operation mode. Therefore, the general information model management module 13 of the collaborative platform architecture of the present invention can flexibly add, modify, and delete the above-mentioned hierarchy according to the demand of emerging products. Tree node nodes (describe the service message format) and links (describe one or one-to-many association of the message format), which can flexibly expand the change information model and serve as software service units or software service units. Exchanging the message standard with the business core message, the object structure may be structured by the object mapping to dynamically set the general information model, and the general information model may be the full-width tree structure or the tree diagram. One or more branches (branch). Dynamically operate a common information model to consistently standardize the operation of heterogeneous services or heterogeneous network behaviors and actions to improve the efficiency of heterogeneous network service management (translating various types of heterogeneous networks through connector translation) Or service) (Policy-Based Engine Operation).

The network topology management module 14 analyzes and manages through a three-dimensional spatial layer layer, and stores, analyzes or calculates the devices of the connection network and their status data. Or manage through a hierarchical layer space map, and configure a plurality of heterogeneous network devices connected to the network, and the network topology management module 14 analyzes the plurality according to a three-dimensional spatial attribute association database. One device node information of a heterogeneous network, a three-dimensional connection information related to a line or a card board information, and a spatial area analysis operation according to a three-dimensional spatial attribute association database, marking a heterogeneous call condition in a specific area Network device resources. The network topology management module 14 uses the spatial database layer map method to store and manage the analysis. The projection coordinate system scale computer software network device network connection connection data is used to lock the convergence application product SDN through various spatial analysis operations. (Service Delivery Network) related network equipment, lines, connections, network elements, terminals, to obtain the relevant network service data required for the product, and to lock the most suitable network equipment and line card routing range through the three-dimensional space map The method performs the operation and execution of the service, and at the same time, the real-time measurement network traffic flow data feedback update network topology management module 14 can be stored.

Each layer of the network topology management module 14 represents a type of network line, device, annotation, labeling, and manages spatial association information with a spatial database, and manages nodes, lines, devices, annotations, and attributes with an attribute database. Marking, managing the connection information with the associated database, the software core operating program of the business core obtains the LBS/SDN network through the call network topology management module 14. Road service information and traffic, noise status, such as the network service information or traffic flow, noise data or the exchange number of the exchange between the virtual host group of the service and the line node of the user network device Or the digitalization of the three-dimensional rack equipment in the computer room as the application information, as the application service flow control analysis and subsequent processing, to achieve low-energy-saving and streamlined wire card processing, through the three-dimensional network topology information, It is used to provide user LBS, location finding, routing guidance (multiple heterogeneous network) related application services. The three-dimensional space management of related networks and services is provided by a vector diagram with a projection coordinate scale, which is more suitable for providing intuitive and more intimate graphical analysis operations, and the information of the network topology management module 14 is captured. After calculation, analysis and conversion, it is presented in the report to provide management layer strategy analysis and application, and to grasp the important decisions of current network construction and future network expansion, paving planning, accurate marketing, and potential customer development.

The spatial area analysis operation system includes a loop domain analysis operation, a neighborhood analysis operation, a rectangular analysis operation, an irregular responsibility area analysis operation, an administrative area analysis operation, an operation area analysis operation, a rack area analysis operation, A card analysis operation, a geographical analysis operation, or a stereoscopic lifting map analysis operation of a building. The heterogeneous network equipment includes optical copper cable, pipeline, pipe, pipe, machine room, exchange, exchange bureau information, exchange bureau number information, rack storage equipment, manhole, hand hole, light divergence Equipment, imported pipelines, transfer boxes, pallets, user address cabinets, user building headers, road profiles or road centerlines.

The above-mentioned hierarchical XML Model format data file can be connected to the graphic hierarchy hierarchical network node, the machine room rack, the building lifting map, the line connection box, and the measuring station through the network topology management module 14. Jumper, transfer box jumper data, through the automatic program execution equipment line layer according to the coordinate system coordinates sprinkling point layout and space attribute wiring, establish equipment line connection, complete conversion to geographic map office network node or computer room or exchange Bureau, optical copper cable layer and point The SDN (Service Delivery Network) data file generated by the network topology management module 14 can be used as the business core process coordination management module 19 for analysis and analysis, and can be analyzed and judged. The network node, the line, the card board, the connection, the connection, the device information, and the network service information of the cloud service host and the user connected network terminal device can be recalculated multiple times to obtain higher add-on by analyzing the operation. Value business information (eg, based on customer LBS information to complete the application service with minimal rack equipment energy wire consumption). Through the network topology management module 14, the graphic platform hierarchical network node, the machine room rack, the stereo lifting map, the line connection box connection, the measurement station jumper, the handover box jump data, Through the automatic program execution equipment line layer according to the coordinate system coordinate point wiring, establish the equipment line space connection, complete the conversion to the LBS diagram office network node or computer room or exchange, optical copper line layer and point annotation and other space map For the purpose of analysis and calculation, the network topology diagram of the service delivery resource generated by the management module 14 can be used as an application caller processing analysis purpose to analyze and determine the network node, the line that identifies the service delivery resource, Card board 埠 containment, connection, equipment information and multiple re-calculation of these network service information, to analyze and calculate higher value-added business information for utilization, through the least floor space space rack equipment energy wire Consume to complete the application service.

The network topology management module 14 is a three-dimensional scalable scaled vector coordinate image storage operation and presentation, maintenance and management, and hierarchically hierarchically associated in the operation process. Display map (pipe, street, building, administrative area, operating area, area of responsibility, equipment, line, address, manhole, hand hole, fiber optic cable, copper cable, connection, cable, divergence, building total box, vertical Cable, floor chassis, annotation, labeling), through the virtualized database storage, the serialized mapping is converted into a group containing hierarchical association format data files, which are exchanged through the network, at another node on the remote end, and then through the engine Format dynamic restore is caused by the fact The projection coordinate system defined first, automatic re-drawing and deployment.

The device sensing management module 15 detects the instant state and the energy consumption state of the sensing terminal and the network component, obtains the type and related parameters of the network connected terminal device, and the energy consumption and health state of the network component, and drives after the signaling control and the session are established. The hypermedia content management module 18 selects the applicable adjustable hypermedia and service delivery resources according to the above state, dynamically selects according to the real-time traffic status and the channel bandwidth, and completes the transfer of the adjustable hypermedia to the user end, and feeds back to the network. The topology management module 14 is subsequently applied. At the same time of executing the application, the business core process management module 19 automatically activates the device awareness management module 15 of the present invention, and periodically actively collects the device through the network element sensor or the service status monitor (Service Status Monitor). Information about the equipment or service or device site, as a source of information for the business core coordination module aggregation monitoring, and form an event-driven table-based message monitoring and event-driven software program changes, proactive management of key targets or critical networks Or the status of the service, optimize the self-processing of the distributed application, reduce the considerable human intervention cost abnormality or obstacle elimination, and complete the active abnormality or obstacle point through the active monitoring and processing of the business core process coordination management module. Convergence analysis and exclusion. Using the device awareness management module 15, the business core process management module 19 can instantly store the parameters of the network connection device and the network activity, the network communication and energy consumption data, the service delivery resource status, and the network during the execution of the application. In the meta-service state, the business core process management module 19 can utilize the information to optimize and provide the client with the application service quality that is optimally adjusted by the terminal device to obtain the application service (including the mobile device and any network may use) The mobile networkable terminal device can feedback the user's most smooth and optimal service experience quality through the user's operation of the screen size, resolution, and color support data, and complete the user-centered active adjustment. Adjustable application service to improve the fit of applicability and application requirements, and solve Traditional technology can only be transmitted in one direction (the interactive active On Demand cannot be adjusted due to the network environment or device in which the service is located), and it cannot meet the mobility and diverse terminal requirements.

The machine learning event detection management module 16 performs arithmetic processing according to one of the external remote virtualization database to obtain an operation result, and the operation result conforms to a remote virtualization database event pattern table. A preset event start condition, that is, event information is generated. Each event information may correspond to a computer software program, an alarm notification program, a network component activation program, or a collective serial event. The machine learning event detection management module 16 establishes event-driven conditions through a new job or modification operation in an event mode, and the event mode is stored in a remote virtualization database table.

The foregoing event information includes an abnormal event information, a notification event information, an alarm event information, a program execution event information, a network driven event information, a service driven event information, or a platform driven event information. The machine learning event detection management module 16 is further managed by a centralized management dashboard (dash board), and controls the host virtual machine on a control page, and detects the status of each event to drive the corresponding software handler. .

The customer self-management module 17 repeatedly drives the business core management module 19 through the customer's wired or wireless networking operation interface or the handheld mobile device APP software, using the application service that has been previously designed and defined, and is connected through a wired or wireless network connection. Interface, after the identity certification, the function authorization, providing customers with simple and seamless through the square button One Touch mode, operating the business core management module to execute the application service, to directly meet customer needs, accept customers through wired or wireless networks The application service is used to quickly reuse the product service that has been previously defined, and has the advantages of sharing and reusing and reusing the software across organizational units, while saving duplicate investment costs and customer service maintenance costs, and more satisfying customers. The customized requirements are stacked and amplified.

The customer self-management module 17 can provide customer identity authentication and authorization, and record virtual machine resources mapped by different customer group application service data, and properly classify and cut resources to manage various customer data of different customers (virtual machine cross-network mobile or transactional IP) Keeping synchronized changes), providing customers with unlimited or unrestricted ISPs using a wired or wireless broadband network at home through a customer's wired or wireless networking operation interface or handheld mobile device APP software, and generating instant Dynamic information provides managers and customers to track program progress. The customer self-management module 17 stores the various explanations of the corresponding states in the execution process of the application service through the Next Stop Indication database of the user, and assists the client or the client with a more detailed explanation. End User handles the next action.

The cloud data management module 1A sets a plurality of external host virtual machines, and sets a plurality of virtualized databases on the virtual machine host. The cloud data management module 1A is a virtualized database for remotely controlling the host virtual machine in a central centralized control mode. The virtualized database includes a virtualized network topology graphic attribute database, a virtualized network topology attribute database, a virtualized network topology related database, and a service base execution unit. Service database.

The cloud data management module 1A adopts a virtualization technology architecture to generate a highly reliable and high-efficiency database cluster host group, and manages the related data, geographic map space data, geographic map attribute data, and geographic map related data used by the present invention. , product catalogue data, service catalogue data, global system data sharing array structure, through the cloud On Demand, High Availibility, Transfer Migration, remote backup mechanism to virtualize the operational database for fault tolerance, providing proactive Fail-Over capability , using a global distributed architecture to enhance the overall database high availability and expandable operational efficiency It is easy to expand and extend the rapid dynamic resource scheduling and performance level when the number of users of the product application is greatly expanded. It is more suitable for major disaster damage recovery.

The business core coordination management module is configured through a core process (Orchestration) mode, and according to the operation requirements of the system, a visual product design management module 11, an embedded service management module 12, a general information model management module 13, and a network. The road topology management module 14, the device awareness management module 15, the machine learning event detection management module 16, the customer self-management module 17, and the hypermedia content management module 18 are provided. And the business core process coordination management module accepts the client to make a call through a wired interface or a wireless interface.

The business core coordination management module 19 will coordinate and direct a device-aware management module 15 and simultaneously deliver resource data through the service of the network topology management module 14 to utilize multi-network cooperation (network, fixed network, internet, wide grid). ) Hypermedia delivery routing (not limited to only a single network or a single type of routing), the routing uses the real-time traffic analysis of each network domain, and automatically finds the time point by using the automatic answering path. The path, and the routing between the endpoints, the establishment of signaling Signal Control and the establishment of a one-to-one or one-to-many session to process the Media Connection and drive the hypermedia content management module 18 to use the above route to deliver hypermedia information Through multiple network element nodes to one or more mobile terminal devices. Through the sensing of user terminal networking device parameters (device type, processing speed, memory, tablet size, packet loss ratio, display color scale capability), various types of terminals use adjustable multi-standard stream separation codec through heterogeneous network cooperation. Compressed format hypermedia, suitable for various types of terminal support capabilities and different types of user service execution environments (each user has different execution environments) to improve the quality and reliability of the application.

The hypermedia information system includes an image stream information, a sound stream information, and a subtitle stream information. And the hypermedia content management module 18 further sets the video stream information and the sound string. One encoding format information or one decoding format information of the streaming information or the subtitle streaming information. The hypermedia content management module 18 further sets the encoding format information or the decoding format information or the encryption and decryption format information of the hypermedia information according to the network environment condition of one of the connected networks of each user terminal.

The cloud-based service elastic assembly method suitable for telecommunication application is applied to a cloud-based service elastic assembly system, and the cloud-based service elastic assembly system comprises a visual product design management module and an embedded service management module. Group, a general information model management module, a network topology management module, a device sensing management module, a machine learning event detection management module, a customer self-management module, and a hypermedia content management Module, a cloud data management module and a business core coordination management module. The cloud data management module sets a plurality of external virtual host connections, and the virtual host further sets a plurality of virtualized databases. The foregoing method includes the following steps: connecting the network to the outside through at least one external network. A client connects.

The business core coordination management module is configured with a visual product design management module, an embedded service management module, a general information model management module, a network topology management module, a device awareness management module, and a machine learning event detection. Measurement management module, customer self-management module, hypermedia content management module, and cloud data management module.

The visual product design management module provides a graphical operation interface for the client to set a service setting information through the graphical association operation interface.

The embedded service management module is connected to at least one host virtual machine, and dynamically configures at least one service basic execution unit on the host virtual machine according to the service setting information to provide one of the client cloud services.

The universal information management module sets a standard connection interface, and the standard connection interface is used to integrate services. Base unit.

The network topology management module performs topology analysis based on the connection network to generate a topology information.

The device sensing management module detects device information or a network parameter information of the connected network.

The machine learning event detection management module analyzes at least one event handled by the cloud service elastic assembly system, and performs machine learning on the event to generate an event information, and the event information system provides active adjustment processing of the cloud service elastic assembly system. program.

The customer self-management module provides a client-side user interface to set a user service setting information, and triggers the customer self-management module to respond to an instant dynamic information, and the instant information system provides a client or cloud service elastic assembly system. Control.

The hypermedia content management module sets a hypermedia information according to topology information, device information, or network information, and transmits the hypermedia information to the client.

The cloud data management module is connected and configured with a plurality of external cloud databases to provide access to the cloud-based service elastic assembly system.

The foregoing method further includes the steps of: configuring the visual product design management module to configure the designated service base execution unit, and storing the associated information of one of the configured service base units.

The foregoing method further comprises the steps of: causing the embedded service management module to perform a rights registration procedure, a deployment procedure, a release procedure, a update version procedure or a call procedure on the service infrastructure execution unit according to a service catalogue information.

The foregoing method further includes the steps of: configuring the embedded service management module to configure the host virtual machine for virtualization operations.

Enable embedded service management module to evaluate cloud service flexibility based on a monitoring service performance indicator value Assembling the effectiveness of the system and judging the conduct of the police adjustment.

The embedded service management module is configured with another host virtual machine to continue the virtualization operation.

The foregoing method further includes the steps of: causing the embedded service management module to update the software version of the service base execution unit that has been registered and released, and simultaneously update the record version information to the service catalog information after the version is updated.

The foregoing method further comprises the steps of: causing the network topology management module to store one of the traffic information of one of the connection information of the connection network, and analyzing the three-dimensional space of one of the projection coordinate system and the scale of the calculation tool; The image resource, the three-dimensional space map and the attribute association connection data are stored in one of the external cloud geographic graphic spatial database and a cloud geographic graphic attribute related database.

The foregoing method further includes the following steps: causing the machine learning event detection management module to perform arithmetic processing according to one of the external remote virtualization database to obtain an operation result. And, the operation result conforms to a preset event start condition of a remote virtualization database event mode table, that is, event information is generated, and each event information can be corresponding to start a computer software program, an alarm notification program, and a network component. A provisioning process, or a collection of tandem events.

The foregoing method further comprises the steps of: enabling the customer self-management module to set a remote behavioral virtual database through a customer group management rule, and the behavior of the remote virtualization database is one of the clients' preferences. Information or information about a leased service project.

The foregoing method further comprises the steps of: enabling the customer self-management module to provide a client-click button to trigger the business core coordination management module and the visual product design management module to immediately perform a customer application, query operation or a customer. Data transfer work.

The foregoing method further includes the following steps: enabling the client to manage the module on the client After the login is authorized, an operation process guidance interface is provided, so that the client sets the user service setting information according to the operation process guidance interface.

The foregoing method further includes the following steps: the customer self-management module sets the information according to the user service, and analyzes a demand source information, a demand category information or a demand item information to determine execution of a customer data processing operation, a service. Program job or a network transaction job.

Please refer to FIG. 2 , which is an embodiment of the present invention. The present embodiment is a fixed network operation of a Fixed Network Convergence (FMC), and integrates the application as a telecommunication application service. To complete the virtualized FMC door number group short code interworking hypermedia online seminar telecom service convergence application for wearable mobile computers.

The FMC application service is a service-based execution unit that calls a completely independent operation to continuously change the transaction or cancel the service function of the service-based execution unit in response to market or customer requirements, and can also repeatedly load and use the product in different products. Item service base execution unit service function. Compared with the prior art, the present invention is simpler and faster, and the resources can be extended and expanded. The service base execution unit can be provided to other non-telecom service industry emerging products for cross-border assembly and application through registration and release management.

This embodiment is a system platform architecture that integrates scattered resources and completes cross-domain, inter-organizational units, cross-network, cross-service, and technology-neutral application services. For example, if the smart communication or smart home number remote communication, detection, and activation service are developed, the communication service unit of the present invention can be flexibly called to complete, or the basic execution unit can be provided to the manufacturer development department for customized repackaging (A). Virtual Service Unit Pool For Multi New Convergence Application).

This embodiment integrates cross-heterogeneous network group short code mutual dialing and supports hypermedia plus A FMC telecom service convergence application of value applications is emerging products, and the large-scale software R&D in the field is often developed through strategic alliances and development with software vendors and large developers. In the case of decentralized development of professional division of labor, it is often the responsibility of the A department. Designed the network door number service module, the B department is responsible for designing the fixed network PSTN door number service module, the C department is responsible for designing the fixed network MGC service module, the D department is responsible for designing the fixed network SIP service module, and the E department is responsible for designing the door number. Bureau service module, F department is responsible for designing the door number routing service module. Since the above modules are all developed separately, the integration between modules is not easy, and the departments are not located in the same building due to land area restrictions. In the building, inter-departmental collaborative development is even more important. However, the business core management module of the embodiment integrates and re-programs the modules designed in parts A, B, C, D, E, and F, and presents the visual product design management in a graphical connection manner. The module 11 uses a graphical interface for discussion or cooperation between departments to improve affinity and work efficiency, and the information of the graphical interface can be an eXtensible Markup Language model (XML Model). The data file is converted and transmitted to another remote department through the network to provide an efficient communication pipeline during the development and design process.

The cloud-based service elastic assembly system 1 analyzes the area of the service network node of the connection network through the network topology management module, the layout of the exchanged optical copper network of the connection network, and the related line equipment. The resources are illustrated, and the layout, properties and routing information of the optical cable or copper cable of the fixed network door number group of the exchange building of the regional exchange building are calculated and analyzed through the irregular geometric space graphic selection analysis.

Then, find the corresponding service scope and list through the cloud database, and start the Public Switched Telephone Network (PSTN)/Media Gateway Controller (MGC)/meeting. Initialization agreement (Session initialization Protocol, SIP for short) Multi-door group service provisioning technology, mobile number group service provisioning technology (2G/3G/LTE Advanced), and network telephone number group service provisioning technology. Then start the aggregation and access network service provisioning technology and the dynamic sensing of the user device capabilities. The system calculates the corresponding data according to the service status of the connected network, the device status, and the client networking capability, status, and noise ratio. The hypermedia information is set and adjusted, and transmitted to the user end. This setting adjustment is dynamically performed continuously according to the above state.

The cloud-based service elastic assembly system can calculate the network service resources through the network topology management module to calculate the network service resources used by the cloud service, and perform operations in the stereo space selection mode. The operation steps are as follows: firstly, the network and service resources required for executing the cloud service, the most suitable equipment room card board line consumable resources for performing the cloud service, the maximum distance that can be provided for the service, and whether the cloud service can reach the user end ( Including the building density and the available bandwidth and user quantity conversion required bandwidth and supply area, computer room feasibility analysis, construction human resources), and then through the three-dimensional space map application space analysis to find callable resources or neighbors Domain analysis and building ascending map analysis to find suitable resources available, and generate information related to Service Delivery Network (SDN) for subsequent analysis and calculation purposes, and pass to the business core management module for appropriate Related service operations or advanced customization operations of the Location Based Service (LBS).

The client adds a virtual machine (Virtual Machine, VM for short) through the visual product design management module 11, and the VM is used to execute the call answering basic service unit by using the virtual resource, and the service base execution unit (Virtual) Atomic Service Unit (referred to as VSU1) uses the operation of the cloud virtual machine AAS (Active-Active-Standby HA/Fail-Over) when the service component is deployed, and stores the service capability of this VSU1 and the service location of the network. The service catalog information stored in the embedded service management module 12 is controlled by the embedded service management module 12. The embedded service management module 12 manages and calls VSU1 through service catalog information, and combines multiple service base execution units into a composite to support various heterogeneous networks (mobile network/fixed communication network/wireless network/propagation) The Network Convergence Service Unit provides the business core coordination management module 19 to use a single interface call to provide the client's ability to integrate services across heterogeneous networks.

Then, the system uses a service basic execution unit (referred to as VSU2) for detecting the transmission bandwidth information of the connection network, and a service basic execution unit for detecting client network bandwidth and network packet parameter information ( Abbreviation: VSU3) Get the bandwidth and network packet, traffic, and noise information of the end-to-end network. Then, through the signaling control service basic execution unit (referred to as: VSU4) control call signaling and group short code communication basic execution unit (referred to as: VSU5) control short code dial communication and establish a communication link with the client, the cloud service The flexible assembly system sets the data structure of hypermedia information and dynamically adjusts the content of its content (progressive differential transmission) to adapt to different heterogeneous network environments. After receiving the hardware parameters, firmware parameters, software parameters and networking status, traffic data, and noise information of the mobile networked wearable computer device, the business core coordination management module 19 is based on The above SDN data and the VSU2 and VSU3 cross-computing results drive the stream of adjustable network-oriented hypermedia information to the client, and recombine the stream files on the client to achieve low power consumption and low transmission network connection. The user terminal device runs the purpose of the application service.

If there is a VSU2 whose performance is better than the existing cloud service basic execution unit, or in response to market demand or customer demand or planned function enhancement, the cloud service elastic assembly system only needs to register the replacement VSU2 through the service management module 12, and Need to change to VSU2 The interface is associated with a complex link of the Business Core Coordination Management Module 19.

Therefore, when the cloud-based service elastic assembly system of the present embodiment updates a specific unit, it is not necessary to substantially change or re-integrate the system as in the conventional manner, so as to reduce the maintenance cost of the system and improve the cooperative development benefit.

The business core coordination management module further drives the embedded service management module to set the service basic execution unit through the visual product design management module 11, and the service basic execution unit of each industrial field assembles the specified cloud through the above program. service. The cloud-based service elastic assembly system controls the connection of VSU2 and VSU3 through the business core coordination management module 19, and drives the VSU2 and VSU3 in a sequential mode or a parallel mode, and then obtains the operation result through the asynchronous processing flow, and transmits the execution result. To the business core coordination management module 19. The business core coordination management module 19 performs spatial calculation through the network topology management module 14 and analyzes and processes the SDN resources to command the VSU4, and according to the information obtained by the VSU2 and VSU3, calls the VSU5 to establish the transmitting end and the receiving end. The side routing segment (Session) drives the short code dialing communication, and after the network routing is established, respectively starts the fixed network door number group service basic execution unit (referred to as: VSU7) and the mobile network door number group service base execution. Unit (referred to as: VSU9) for integrated group communication, according to the core network, transmission network, access network, client network connection status and packet parameters, noise information on the structure of hypermedia information /Decoding to set up, start the Hyper Atomic Service Unit (VSU11) to deliver the hypermedia data required for the value-added application service (eg, client interactive custom microfilm) to the customer end,.

The device sensing management module 15 can instantly store device parameters and network activity behaviors, network communication services, and energy consumption of the connection network of the client during the execution of the convergence application. Materials, and data exploration of the measured data for subsequent inductive analysis purposes. The business core coordination management module 19 utilizes the aforementioned information, as well as client device parameters (such as network transmission capability parameters, screen size parameters, resolution parameters, and color support data of the mobile communication device) to flexibly serve the cloud service. Optimize the settings of the assembly system to dynamically set the best user experience in real time, and ensure the quality of the user's use, complete the user-centered active adjustment of the adjustable application service, improve the suitability and application The degree of demand is tailored to solve the problems caused by the traditional one-way transmission of traditional technology (inability to interactively and dynamically adjust). Further, the device sensing management module 15 detects and transmits device parameters (eg, device type, processing speed, memory, tablet size, packet loss ratio, and display color gradation capability) of the client connection network. Heterogeneous network collaboration, and use the adjustable multi-standard stream separation codec compression format to set hypermedia information, so that hypermedia information has good transmission efficiency in various types of transmission environments, and accordingly enhance the application of the product. Quality and reliability in different environments.

At the same time, the business core coordination management module 19 automatically drives the customer self-management module 17 and provides the client to repeatedly drive the business core management module 19 through the user interface or the handheld mobile device APP software. The previously designed cloud service, and authorized by the identity authentication, provides the client with a simple and seamless operation through the One Touch operation mode, and operates the business core management module to execute the application service to directly connect client needs.

The customer self-management module 17 can further provide the client with identity authentication and authorization. The client can be set through the user interface or the APP software of the handheld mobile device, and generate real-time dynamic information after being set to be provided to the administrator or client of the system, according to the tracking process. Order processing progress. The customer self-management module 17 further provides a user's Next Stop Indication database, which stores various explanations of the corresponding states in the execution process of the cloud service in different categories, and is automatically and quickly explained in a more detailed and easy-to-understand explanation. Assist the client to handle the next step, so that the client will not be overwhelmed by the abnormal service process or the newcomer does not know what to do next, so as to improve user satisfaction and overall CRM execution efficiency.

The Business Core Coordination Management Module 19 is organized by Orchestration to manage the distributed service resources, external network resources and service resources provided by the external software developers. The visual product design management module 11 uses the Message-Driven architecture to call the embedded service management module and uses the registered and available service resources to integrate and link to various service bases using a standard link interface. unit.

During the execution phase of the convergence application, the business core coordination management module 19 coordinates the driving machine learning event detection management module 16 to actively monitor the operating state of the system. If the states meet the corresponding setting conditions, the machine learning event detection management module 16 Actively launch event-corresponding handlers for status delivery, notification, alerting, or system tuning procedures. The business core coordination management module 19 simultaneously manages the SDN data of the management module through the network, and selects among a plurality of heterogeneous networks (mobile network, fixed network, internet, wide grid) and their routes to transmit Hypermedia information. The routing is based on the real-time traffic of the domain of each connected network, and automatically selects the best path between the receiving and transmitting ends, and forms a route between the receiving and receiving ends to establish signaling. Signal Control and Media Connection, and drive the hypermedia content management module 18 to deliver hypermedia information.

The cloud data management module 1A adopts the HA virtualization technology architecture to establish a highly reliable and high-performance database cluster host group, and adopts a unified management system to manage the association. Database, geographic map resource database, geographic map attribute database, geographic map related database, product catalog data, service catalog data, or global (Global) system data sharing array structure. The cloud data management module 1A uses the cloud On Demand, HA, and Transfer Migration to virtualize the operational database for fault tolerance, and adopts a decentralized architecture to improve the overall database's high availability and expandable operational efficiency, and is more likely to respond to the large number of product application users. During the expansion, the rapid resource dynamic scheduling and the simultaneous expansion and extension of the performance level can also be applied to the recovery operation when the system encounters major disaster damage.

Another embodiment of the present invention determines the gate number attribute, network architecture, geographic area location, and equipment room of the incoming door number through the cloud service elastic assembly system of the telecommunication application (PSTN/MGS/SIP/2G/3G and The network environment and the computer room) and the customer self-management system to identify the contract information, or whether the SLA is a corporate VIP and whether there is a dedicated store, and then use the device awareness management module 15 to determine the connection capability of the client network and transmit the packet information. To actively determine whether it can support the interaction of voice, video or multimedia.

The cloud-based service elastic assembly system of the telecommunication application calculates the three-dimensional spatial position of the door number corresponding to the user address through the spatial operation of the network topology management module, and calls the service base execution unit of the LBS localization, and transmits the super The media content management module 18 delivers hypermedia data suitable for the connection status of the connected network to the client. The foregoing dynamic scheduling media is suitable for the local service (for example, providing the required store service to the nearest branch of the whole chain according to the LBS of the calling terminal number), so as to support the application of the calling terminal (also through the IVR) Or Service Center assists customers in completing the application service or adding customization/value-added services through the embedded service management module 12.

The cloud-based service elastic assembly system suitable for telecommunication applications provided by the present invention System and method, with the following advantages:

(1) The present invention provides a cross-border decentralized collaborative operation of integrating global internal and external resources or collaborating with third-party cooperators, suppliers, and software developers in a global cross-organizational department to provide distributed virtual resources and service capabilities, and provides virtual Decentralized computing with high execution performance, flexible ability to dynamically deploy and expand according to demand, and integrated monitoring of remote virtual machines (with their own virtual machines in various fields) through centralized management dashboard (Dash Board) The complete embedded cloud service basic execution unit makes it easier to assemble and develop the convergence application service. In response to the rapid adjustment of the business operation and market product business dynamics, large-scale software cross-border scheduling and cooperation development. Support the centralized centralized management of cross-domain departments to organize software collaborative research and development, integrate heterogeneous and decentralized resources across industries and cross-sectors, and build up the soft power and industrial upgrading or integration transformation of China's telecom convergence applications.

(2) The present invention is an important new thinking in the era of the emerging products development and the rapid changes of network services in the current convergence application and communication communication. In the past, the traditional development mode of the operation and maintenance system cannot flexibly integrate the network in response to the market and user demand in a short period of time. The road service resources and the value-added platform provide communication products and services, and even need to rewrite the system or re-develop new systems and other high-level funds and re-investment. It is often necessary to invest a large amount of time and cost, and it takes time to complete the commercial operation of emerging products. . However, the present invention adopts a general information model and interface specification, and provides a flexible and reusable and reusable network topology management and embedded cloud service basic unit, and a convertible general information model interface specification for achieving A variety of multi-heterogeneous brand network and service deployment integration, providing a multi-choice integration application of one-stop package products from the customer's point of view, improving the flexible response speed and development efficiency of software development, while saving considerable cooperation and integration. Cost, reinvestment costs.

(3) The creation of the present invention is extremely suitable for the "cloud work" work 3.0 era, the large-scale software collaborative development between the developed and undeveloped countries and the technical exchanges and research and development across the international industry, and the development of a future global borderless software collaboration mechanism, In order to upgrade China's large-scale software R & D technology and international standards, and promote the national key industries to upgrade. The invention develops an agile method for collaborative development speed of cross-sector industrial organization teams, and overcomes the conventional traditional methods. The development of various types of services is limited to the dilemma that the respective technical platforms cannot support the future industrial development, and the telecommunications service value applicable to the rapid rotation change market.

(4) The present invention provides a network node, a line, a device, a card board, a projection coordinate system, a dynamic scaling scale, a warp and a weft data, which are defined by a network topology management module, and a software stereoscopic three-dimensional space map. Type network devices and connections can be fully described, stored, calculated, spatially analyzed, changed, and changed by the module to support the phased hybrid evolution of multi-style networks and new and old cross-border heterogeneous networks. Provides a graphical management module through the network to conduct various regional analysis (administrative area analysis / operational area analysis / building ascending map analysis) to aggregate relevant SDN data, in addition to being applicable to service assembly to save energy costs, It analyzes and analyzes useful and useful information for business operations in order to meet the needs of future business operation investment construction and network precision construction, key development of marketing areas and business strategy analysis of potential customer areas.

(5) Due to the traditional mismatch between customer service personal data and network and platform resources, there are significant shortcomings in the operation mode of the supply process. The present invention distinguishes the source and content of the demand at the head end of the process, correspondingly starts. The automatic processing program analyzes and isolates customer data changes and network resource changes, so as to avoid the loss of network resources caused by network resources caused by customer personal data changes. Compared with the traditional remediation technology, the cost of the service assembly technology will be greatly improved, and the cost and operating cost of the network error recovery will be effectively reduced.

(6) The invention can dynamically expand the architecture of the distributed On Demand service resources through the AAS mode, and can meet the load of the enterprise convergence application to the user overnight, in order to cope with the future cloud rise and application action, and the software market transformation and cooperation. The impact of platform architecture, open source and decentralized resources, better integration and use of internal and external resources and strategic partners, cooperation partners to work more closely, can make the business development changes more flexible and more effective reaction.

The detailed description of the present invention is intended to be illustrative of a preferred embodiment of the invention, and is not intended to limit the scope of the invention. The patent scope of this case.

1‧‧‧Cloud Service Elastic Assembly System

11‧‧‧Visual Product Design Management Module

12‧‧‧ Embedded Service Management Module

13‧‧‧Common Information Model Management Module

14‧‧‧Network Topology Management Module

15‧‧‧Device Awareness Management Module

16‧‧‧ Machine Learning Detection Management Module

17‧‧‧Customer self-management module

18‧‧‧Supermedia content management module

19‧‧‧Business Core Coordination Management Module

1A‧‧‧Cloud Data Management Module

Claims (41)

A cloud-based service elastic assembly system suitable for a telecommunication application, comprising: a visual product design management module, connected to at least one client externally via a connection network, the visual product design management module Further comprising a graphical associated link operation interface for providing the at least one client to set a service setting information; an embedded service management module, connecting at least one host virtual machine externally, and setting on the at least one host virtual machine At least one service basic execution unit, the embedded service management module dynamically configuring the at least one service basic execution unit according to the service setting information to provide one of the at least one client cloud service; and a general information model management module, Providing a standard connection interface for integrating the at least one service base unit; a network topology management module, performing topology analysis according to the connection network to generate a topology information; a device sensing management module for detecting device information or a network parameter information of the connected network; a machine learning event Measuring a management module, analyzing at least one event processed by the system, and performing machine learning on the at least one event to generate an event information, the event information providing a system for actively adjusting the execution process; and a customer self-management module Providing the at least one client-side user interface, the user interface provides the client to set a user service setting information, and the client self-management module further responds to the instant dynamic information according to the user service setting information, the instant dynamic information Providing the client or system for control; a hypermedia content management module, based on the topology information, the device information, or the network parameter The information is used to set a hypermedia information, and the hypermedia information is transmitted to the at least one client; a cloud data management module, the cloud data management module is connected to the visual product design management module, the embedded service a management module, the universal information model management module, the network topology management module, the device awareness management module, the machine learning event detection management module, the customer self-management module, and the super a media content management module, the cloud data management module further connects and configures a plurality of external cloud databases to provide access to the cloud database; and a business core coordination management module that connects the vision Product design management module, the embedded service management module, the universal information model management module, the network topology management module, the device perception management module, and the machine learning event detection management module The customer self-management module, the hypermedia content management module, and the cloud data management module are configured according to the operational requirements of the system. The system of claim 1, wherein the visual product design management module further integrates the service base execution units of each of the host virtual machines through the graphical associated link operation interface, and through the graphical association link The operation interface configures the specified at least one service base execution unit, and stores the associated information of one of the configured at least one service base execution unit. The system of claim 1, wherein the visual product design management module is a hierarchical two-way chain serial data structure, and the hierarchical two-way chain data structure is between each hierarchical tree node The two-way indicator is used to link to each other, and points to the link node in the linked two-way indicator, and the nodes store at least one interface information of each service base execution unit. The system of claim 1, wherein the embedded service management module further comprises: a service provisioning component, opening a logic program of the at least one service base execution unit; a service logout component, canceling a logic program of the specified at least one service base execution unit; and a service transaction component The service category logic program of the at least one service base execution unit performs a transaction; a service control element controls the logic program of the at least one service base execution unit; and a service test component performs the specified at least one service base The function of the unit is tested; a service monitoring component monitors the operation of the logic program of the specified at least one service base execution unit; and a service version control component, the service version control component further connects the service provisioning component, and the service is deregistered The component, the service transaction component, the service control component, the service test component, and the service monitoring component are for control. The system of claim 1, wherein the embedded service management module manages the at least one service base execution unit by using a service catalog information, and processes the registration operation and the deployment operation of the at least one service base execution unit. , publishing a job, updating a version job or a call management job, and providing a scheduling job or a call job of the business core management module, or providing a call operation of the other at least one service base execution unit. The system of claim 1, wherein the embedded service management module configures the at least one host virtual machine for virtualization operation, and the embedded service management module further evaluates system operation according to a monitoring service performance indicator value. Effectiveness, and according to the judgment, the police adjustment operation, The embedded service management module further configures another host virtual machine to continuously perform virtualization operations. The system of claim 5, wherein the embedded service management module further updates the software version of the at least one service base execution unit that has been registered and released, and simultaneously updates the record version information to the service catalog information after the version is updated. . The system of claim 1, wherein the embedded service management module dynamically records service type information, a service description information, and a network of each of the service base execution units of each of the host virtual machines. The road location information, a service setting information, an interface content information, a communication specification information, a service version information, a virtual machine information, and an execution status information, to provide a system for scheduling resources of the at least one host virtual machine. The system of claim 1, wherein the data structure of the general information model management module is a B+ Tree hierarchical split tree structure, and the B+ Tree hierarchical split tree structure stores one of the service execution units of the service. The call interface, and one of the information models required for the call interface, the information module further includes a message specification and a hierarchical association information. The system of claim 9, wherein the message specification further comprises an operation item information, an input format information, an output format information, an interface definition information, a protocol definition information, a behavior action information, and an exchange information. The system of claim 1, wherein the network topology management module performs analysis and management through a stereoscopic three-dimensional spatial layer layer map, and stores, analyzes or calculates the device of the connection network and Status data. The system of claim 1, wherein the network topology management module manages through a hierarchical layer space map and configures a plurality of heterogeneous network devices of the connection network, the network The topology graphic management module analyzes the complex data library according to a stereoscopic three-dimensional spatial attribute Device information of one of the heterogeneous networks, stereoscopic connection information of a line association, or a card board information, and performing a spatial area analysis operation according to the stereoscopic three-dimensional spatial attribute association database, and marking the specific area range The device line resources of the heterogeneous networks that invoke the conditions. The system of claim 12, wherein the spatial area analysis operation system comprises a ring domain analysis operation, a neighborhood analysis operation, a rectangular analysis operation, an irregular responsibility area analysis operation, an administrative area analysis operation, and an operation area analysis. Jobs, a rack area analysis job, a card board analysis job, a geography analysis job, or a building stereo lift map analysis job. The system of claim 13, wherein the heterogeneous network device comprises an optical copper cable, a pipeline, a tube, a machine room, an exchange, an exchange bureau information, an exchange number information, and a rack storage rack. Equipment, manholes, hand holes, light divergence equipment, imported pipelines, core wires, transfer boxes, card trays, user address chassis, user building headers, road street profiles or road centerlines. The system of claim 1, wherein the network topology management module stores a traffic analysis result of one of the communication information of the connection network, and analyzes the projection coordinate system and the scale of the calculation tool. A three-dimensional space map resource, the three-dimensional space map resource and an attribute association connection data are stored in an external cloud geographic graphic space database and a cloud geographic graphic attribute related database. The system of claim 1, wherein the device sensing management module dynamically detects the network parameter information of the connection network through at least one service detecting component, where the network parameter information includes a network frequency Wide information, a network traffic information, a network connection speed information, a network location information, a service energy consumption information, a mobile location information or a network routing node operational status data. The system of claim 1, wherein the device sensing management module dynamically detects the device information of the connected network through at least one service detecting component, where the device information includes a route that is delivered to each client. One of the nodes routes the service status information or one of the terminal device information of the user terminal, and the terminal device information includes a hardware parameter information, an operation status information, a firmware parameter information or a usage period status data. The system of claim 1, wherein the machine learning event detection management module performs arithmetic processing according to one of the external remote virtualization data bases to obtain an operation result, and the operation result conforms to one One of the remote virtualization database event mode tables presets an event initiation condition, and generates the event information, and each event information can be associated with starting a computer software program, an alarm notification program, and a network component activation program. , or a collection of serial events to continuously start the program. The system of claim 18, wherein the machine learning event detection management module establishes the event driving condition by adding or modifying an event mode, the event mode is stored in a remote virtualization data. Library table. The system of claim 1, wherein the at least one event information includes an abnormal event information, a notification event information, an alarm event information, a program execution event information, a network driven event information, and a service driven event information. Or a platform to drive event information. The system of claim 1, wherein the machine learning event detection management module manages through a centralized management instrumentation, and controls the host virtual machines on a control interface, and detects each event. The state is to drive the corresponding software handler. The system of claim 1, wherein the customer self-management module uses a customer group management rule to set an external behavior of the remote virtualization database, the behavior of the remote virtualization resource. The repository stores one of the client's preference information or a leased service item information. The system of claim 1, wherein the client self-management module provides the client with a click button to trigger the business core coordination management module and the visual product design management module to immediately perform a customer application operation. Or a customer inquiry job or a customer service transaction or a customer data transaction. The system of claim 1, wherein the client self-management module provides an operation flow guidance interface when the client logs in, so that the client sets the user service setting information according to the operation flow guidance interface. The system of claim 1, wherein the customer self-management module determines information based on the user service and analyzes a demand source information, a demand category information, or a demand item information to determine execution of a customer data processing operation. , a service program job or a network transaction program. The system of claim 1, wherein the cloud data management module sets the external host virtual machines, and sets a plurality of virtualized databases on the virtual machine hosts, wherein the cloud data management module The central centralized control mode remotely controls the virtualized databases of the host virtual machines. The system of claim 26, wherein the virtualized database comprises a virtualized network topology resource attribute database, a virtualized network topology attribute database, and a virtualized network topology. An associated database and a service base execution unit service database. The system of claim 1, wherein the business core process coordination management module configures the visual product design management module, the embedded service management module, and the system according to a system operation requirement. Universal information model management module, the network topology diagram tube The module, the device sensing management module, the machine learning event detection management module, the customer self-management module and the hypermedia content management module. The system of claim 1, wherein the hypermedia information comprises an image stream information, a stream stream information, and a caption stream information, wherein the hypermedia content management module further sets the image stream information, One piece of encoded format information or one piece of decoding format information of the sound stream information or the caption stream information. The system of claim 29, wherein the hypermedia content management module is configured to set the encoding format information of the hypermedia information according to a network environment condition of the connection network of each user terminal. Decode format information. A cloud-based service elastic assembly method suitable for telecommunication applications is applied to a cloud-based service elastic assembly system, which comprises a visual product design management module, an embedded service management module, and a universal Information model management module, a network topology management module, a device sensing management module, a machine learning event detection management module, a customer self-management module, a hypermedia content management module, and a The cloud data management module and a business core coordination management module, the cloud data management module is configured to set a plurality of external virtual host connections, and the virtual host further sets a plurality of virtualized data databases, and the method includes the following Step: connecting at least one client to the outside through one external connection network; configuring the business core coordination management module to configure the visual product design management module, the embedded service management module, and the general information Model management module, the network topology management module, the device perception management module, and the machine learning event detection management Group, the client self-management module, the hypermedia content management module, and the cloud data management module; The visual product design management module provides a graphical associated connection operation interface for the at least one client to set a service setting information through the graphical operation interface; and the embedded service management module is connected to at least one of the external Hosting a virtual machine, and dynamically configuring at least one service base execution unit on the at least one host virtual machine according to the service setting information, to provide one of the at least one client cloud service; and setting the universal information management module to a standard connection An interface, the standard connection interface is configured to integrate the at least one service base unit; and the network topology management module performs topology analysis according to the connection network to generate a topology information; The group detects device information or a network parameter information of the connection network; and the machine learning event detection management module analyzes at least one event processed by the cloud service elastic assembly system, and the at least one event Performing machine learning to generate an event information, the event information providing the cloud service elastic assembly system active calibration process Having the client self-management module provide the at least one client-side user interface to set a user service setting information and trigger the client self-management module to respond to an instant dynamic message, the instant dynamic information providing the client or The cloud service elastic assembly system is controlled; the hypermedia content management module sets a hypermedia information according to the topology information, the device information, or the network information, and transmits the hypermedia information to the at least a client; and the cloud data management module is linked and configured with a plurality of cloud databases externally to provide access to the cloud service elastic assembly system. The method of claim 31, further comprising the steps of: Having the visual product design management module configure the at least one service base execution unit and store the associated information of the at least one service base unit. The method of claim 31, further comprising the step of: causing the embedded service management module to perform a rights registration procedure, a deployment procedure, a release procedure, and a release procedure for the at least one service base execution unit according to a service catalog information. An updated version of the program or a calling program. The method of claim 31, further comprising the steps of: configuring the embedded service management module to configure the at least one host virtual machine to perform a virtualization operation; and causing the embedded service management module to perform a service performance indicator according to a monitoring The value is used to evaluate the performance of the cloud service elastic assembly system, and it is judged that the alarm adjustment operation is performed; and the embedded service management module is configured to configure another host virtual machine to continue the virtualization operation. The method of claim 31, further comprising the steps of: causing the embedded service management module to update the software version of the at least one service base execution unit that has been registered and released, and simultaneously update the record version information after the version update Service catalog information. The method of claim 31, further comprising the steps of: causing the network topology management module to store a traffic analysis result of one of the communication information of the connection network, and analyzing the projection coordinates of the computing device according to the method The three-dimensional space map of the system and the scale, the three-dimensional space map and the attribute-linked connection data are stored in one of the external cloud geographic graphic spatial database and a cloud geographic graphic attribute related database. The method of claim 31, further comprising the steps of: The machine learning event detection management module performs arithmetic processing according to one of the external remote virtualization database to obtain an operation result; and the operation result conforms to a remote virtualization database event pattern table. a preset event start condition, that is, generating the event information, each event information may be corresponding to starting a computer software program, an alarm notification program, a network component activation program, or a collective serial event continuous startup program . The method of claim 31, further comprising the step of: causing the client self-management module to set a remote behavior virtual database through a customer group management rule, and the behavior of the remote virtualization data The library stores one of the client's preference information or a rented service item information. The method of claim 31, further comprising the step of: enabling the client self-management module to provide the client with a click button to trigger the business core coordination management module and the visual product design management module Conduct a customer application or a customer service transaction. The method of claim 31, further comprising the step of: enabling the client self-management module to provide an operation process guidance interface after the client login authorization, so that the client sets the user according to the operation process guidance interface. Service setting information. The method of claim 31, further comprising the steps of: causing the customer self-management module to set information according to the user service, and analyzing a demand source information, a demand category information, or a demand item information to determine execution. A customer data processing job, a service program job, or a network transaction program.