WO2012097582A1 - 一种模拟仿真增值业务的方法及系统 - Google Patents

一种模拟仿真增值业务的方法及系统 Download PDF

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Publication number
WO2012097582A1
WO2012097582A1 PCT/CN2011/077347 CN2011077347W WO2012097582A1 WO 2012097582 A1 WO2012097582 A1 WO 2012097582A1 CN 2011077347 W CN2011077347 W CN 2011077347W WO 2012097582 A1 WO2012097582 A1 WO 2012097582A1
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Prior art keywords
service
sce
simulation
simulation engine
debugger
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PCT/CN2011/077347
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English (en)
French (fr)
Inventor
马玉伟
张南骏
舒畅
周雅夫
钮满春
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中兴通讯股份有限公司
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Publication of WO2012097582A1 publication Critical patent/WO2012097582A1/zh

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    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L41/00—Arrangements for maintenance, administration or management of data switching networks, e.g. of packet switching networks
    • H04L41/50—Network service management, e.g. ensuring proper service fulfilment according to agreements
    • H04L41/5041—Network service management, e.g. ensuring proper service fulfilment according to agreements characterised by the time relationship between creation and deployment of a service
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L41/00—Arrangements for maintenance, administration or management of data switching networks, e.g. of packet switching networks
    • H04L41/14—Network analysis or design
    • H04L41/145—Network analysis or design involving simulating, designing, planning or modelling of a network

Definitions

  • Embodiments of the present invention relate to analog simulation technologies in the field of telecommunication communications, and in particular, to a method and system for simulating simulation value-added services. Background technique
  • the Service Creation Environment does not have the simulation debugging function of the online value-added service.
  • the developer can only print the log and log service business independent module. (SIB, Service Independent Block), tracking tool Mtrace, etc. to debug value-added services, it is very inconvenient to use; and debugging must be carried out in a real environment, and the real environment is complex to build, resources are limited, and it is not convenient for multiple people to simultaneously debugging.
  • the system includes a client and a server, and the two communicate by using a TCP/IP protocol;
  • the client includes a human-machine command module, a data synchronization module, a read/write process module, And the server communication module;
  • the server includes a mobile station data management module, a process processing module, a codec module, a sending and receiving PDSH message module, and a server communication module;
  • the packet data protocol can be constructed according to the server save process and configuration
  • the message and the complex negotiation process of implementing the packet data signaling process realize the called data statistics and abnormal test and automatic test in the process of large traffic test.
  • the disadvantage of this method is that only the packet data of the underlying exchange in the communication system can be solved. Simulation of the business. Summary of the invention
  • the main purpose of the embodiments of the present invention is to provide a method and a system for simulating and simulating a value-added service, and performing a simple and intuitive simulation operation on a value-added service and implementing a simulation of the service. Try.
  • An embodiment of the present invention provides a system for simulating a value-added service, where the system includes: a service generation environment (SCE), a simulation engine; wherein, the SCE includes an emulator and a debugger;
  • SCE service generation environment
  • the SCE includes an emulator and a debugger
  • the emulator is set to trigger the simulation engine; the service is debugged according to the service independent module (SIB) path;
  • SIB service independent module
  • the simulation engine is set to perform the official operation of the service when triggered, and the SIB path is sent to the SCE simulator through the SCE debugger.
  • the SCE further includes: a service generation module, configured to generate a service file according to the value-added service, and send the data to the simulation engine through a debugger of the SCE;
  • the simulation engine is further configured to perform pre-operation of the service according to the service file; and the debugger is further configured to perform initial management of the service to the simulation engine.
  • the invention also provides a method for simulating a simulated value-added service, the method comprising:
  • the SCE simulator triggers the simulation engine to run the business.
  • the simulation engine sends the SIB path to the SCE simulator through the SCE debugger.
  • the SCE simulator is based on
  • the SIB path simulates debugging the service.
  • the method before the simulator of the SCE triggers the simulation engine to perform the formal operation of the service, the method further includes:
  • the service generation module of the SCE generates the service file according to the value-added service, and sends it to the simulation engine through the debugger of the SCE.
  • the simulation engine performs pre-operation of the service according to the service file; the debugger of the SCE initializes the service of the simulation engine. management.
  • the service generation module of the SCE generates a service file according to the value-added service, and sends the simulation file to the simulation engine through the SCE debugger:
  • the service generation module of the SCE generates a corresponding service file according to the value-added service, and the service file
  • the triggering method for triggering the running of the service and the basic information of the service wherein, the basic information of the service includes the service type, the function of the service, and the service logic; the service generation module of the SCE is generated through the interface between the SCE debugger and the simulation engine.
  • the business file is sent to the simulation engine.
  • the simulation engine performs pre-operation of the service according to the service file: the simulation simulation engine receives the service file, and performs pre-operation of the simulation of the service according to the business logic therein; if the business logic runs normally, the simulation simulation The engine feeds back the normal running state of the business logic to the display module of the SCE debugger through the message; if the business logic runs abnormally, the simulation engine alerts the display module of the SCE debugger.
  • the SCE debugger performs initial management of the service of the simulation engine as:
  • the user input module in the debugger of the SCE receives the modification of the data in the business logic, and sends the data to the simulation engine through the interface of the SCE debugger and the simulation engine, and the simulation is performed.
  • the engine loads the data into the running business logic; and/or, the SCE debugger performs a breakpoint setting on the simulation engine, and when the business runs to the breakpoint, the simulation engine suspends the service and the breakpoint is
  • the data information is sent to the display module of the debugger of the SCE.
  • the simulator of the SCE triggers the simulation engine to perform the formal operation of the service:
  • the simulation logic definition module of the SCE simulator writes the simulation message and the trigger timing.
  • the simulation of the SCE uses the simulation message to trigger the simulation engine to simulate the simulation of the pre-running business.
  • the SCE simulator is based on the trigger.
  • the timing is triggered by the simulation engine, and the triggered simulation engine performs the formal operation of the simulation service.
  • the simulation engine sends the SIB path to the SCE simulator through the debugger of the SCE, and the simulator of the SCE simulates and debugs the service according to the SIB path:
  • the simulation engine converts the running process of the officially running business into multiple SIBs, and the SIB
  • the simulation logic execution module of the SCE simulator defines a pre-configured trigger condition of the module according to the SIB path and the simulation logic to determine whether the SIB is a trigger point. If it is a trigger point, the simulation logic execution module will associate multiple presets with the trigger point. The message is sent to the simulation engine to perform analog debugging on the running service; if it is not the trigger point, the simulation logic execution module indicates through the display module of the SCE simulator that the SIB is not a trigger point.
  • the method further includes:
  • the SCE simulator has a tracking message area for displaying messages sent by all service control points (SCPs) and messages sent by the SCE emulator to the SCP, including senders, receivers, and message events. Name, message sending time; When viewing the message content by tracking the message area, according to the message type, select the appropriate display mode to view the message content.
  • SCPs service control points
  • the simulator of the SCE triggers the simulation engine to perform the formal operation of the service, and the simulation engine sends the SIB path to the simulator of the SCE through the debugger of the SCE, and the simulation of the SCE
  • the device performs simulation debugging according to the SIB path, and provides a simple and intuitive simulation operation of the business logic for the business developer, thereby realizing the verification of the business logic and realizing the simulation debugging of the service; for the simulation running operation, it can be performed
  • the tracking of the business and the limited modification make the business developers understand the running process and running status of the business more intuitively.
  • FIG. 1 is a schematic structural diagram of a system for implementing a simulation simulation value-added service according to an embodiment of the present invention
  • 2 is a schematic flowchart of a method for implementing a simulation simulation value-added service according to an embodiment of the present invention
  • FIG. 3 is a schematic diagram of a definition window of a preset message according to an embodiment of the present invention.
  • the simulator of the SCE triggers the simulation engine to perform the formal operation of the service, and the simulation engine sends the SIB path through the debugger of the SCE.
  • the SCE simulator performs simulation debugging on the service according to the SIB path.
  • FIG. 1 is a schematic structural diagram of a system for implementing a simulation and value-added service according to an embodiment of the present invention.
  • the system includes: an SCE11 and a simulation engine 12; Wherein, the SCE 11 includes an emulator 111 and a debugger 112;
  • the emulator 111 is configured to trigger the simulation engine 12; simulate and debug the service according to the SIB path;
  • the simulation engine 12 is set to perform a formal operation of the service when triggered, and sends the SIB path to the simulator 111 through the debugger 112.
  • the SCE 11 further includes: a service generation module 113, configured to generate a service file according to the value-added service, and send the debug file to the simulation engine 12 through the debugger 112 of the SCE;
  • the simulation engine 12 is further configured to perform pre-operation of the service according to the service file; the debugger 112 is further configured to perform initial management of the service on the simulation engine 12.
  • the service generation module 113 of the SCE generates a service file according to the value-added service, and sends it to the simulation engine 12 through the debugger 112 of the SCE:
  • the service generation module 113 of the SCE generates a corresponding service file according to the value-added service, where the service file includes a triggering method for triggering the running of the service and basic information of the service; wherein the basic information of the service includes the service type, the function of the service, and the service logic;
  • the service generation module 113 of the SCE sends the generated service file through the interface between the debugger 112 of the SCE and the simulation engine 12 Give simulation engine 12.
  • the simulation engine 12 pre-runs the service according to the business file as:
  • the simulation engine 12 receives the business file and performs pre-running of the simulation of the service according to the business logic therein. If the business logic runs normally, the simulation engine feeds back the normal running state of the business logic to the debugger 112 of the SCE through the message.
  • the simulation engine reports to the display module of the SCE debugger 112 that the debugger 112 of the SCE performs initialization management of the simulation engine 12 as:
  • the user input module in the debugger 112 of the SCE receives the modification of the data in the business logic, and sends the data to the simulation engine 12 through the interface of the debugger 112 of the SCE and the simulation engine 12, and the simulation engine 12 Loading the data into the running business logic; and/or, the debugger 112 of the SCE performs a breakpoint setting on the simulation engine 12, and when the service runs to the breakpoint, the simulation engine 12 suspends the service and will break the service.
  • the data information of the point is sent to the display module of the debugger 112 of the SCE.
  • the simulator 111 of the SCE triggers the simulation engine 12 to perform the formal operation of the service as follows:
  • the simulation logic definition module of the simulator 111 of the SCE writes the simulation message and the trigger timing, and the simulator 111 of the SCE uses the simulation message to trigger the simulation.
  • the engine 12 performs a simulated operation of the simulated pre-running service.
  • the simulator 111 of the SCE performs the triggering of the simulation engine 12 according to the trigger timing, and the triggered simulation engine 12 performs the formal operation of the simulation service.
  • the simulation engine 12 sends the SIB path to the emulator 111 of the SCE through the debugger 112 of the SCE, and the emulator 111 of the SCE simulates the service according to the SIB path to: the simulation engine 12 converts the running process of the officially running service For a plurality of SIBs, and sending the SIB path to the display module and the debug status module of the debugger 112 of the SCE, the display module of the debugger 112 of the SCE prompts by means of highlighting, and the debug status module turns the SIB path An emulation logic execution module of the emulator 111 sent to the SCE;
  • the simulation logic execution module of the simulator 111 of the SCE determines whether the SIB is a trigger point according to a pre-configured trigger condition of the SIB path and the simulation logic. If it is a trigger point, the simulation logic execution module associates multiple pre-associated with the trigger point. The message is sent to the simulation engine 12 to perform analog debugging on the running service; if it is not the trigger point, the simulation logic execution module indicates through the display module of the SCE simulator 111 that the SIB is not a trigger point.
  • FIG. 2 is a schematic flowchart of a method for implementing a simulated and simulated value-added service according to an embodiment of the present invention. As shown in FIG. 2, the method includes the following steps:
  • Step 201 The service generation module of the SCE generates a service file according to the value-added service, and sends the service file to the simulation engine through the debugger of the SCE.
  • the service generation module of the SCE generates a corresponding service file according to the value-added service, where the service file includes a trigger mode for triggering the service operation and basic information of the service, where the basic information of the service includes the service type, the service function, the service logic, and the like.
  • the SCE service generation module sends the generated business file to the simulation engine through the interface between the SCE debugger and the simulation engine.
  • Step 202 The simulation engine performs pre-operation of the service according to the service file.
  • the simulation engine receives the business file, performs pre-running of the simulation of the service according to the business logic therein, and the other content in the business file can be used as the support information for the business operation; if the business logic can run normally, the simulation engine The message running the normal running state of the business logic to the display module of the SCE debugger, the display module is further provided to the developer; if the business logic runs abnormally, the simulation engine can alert the display module of the SCE debugger.
  • Step 203 The debugger of the SCE performs initial management of the service of the simulation engine. Specifically, when the simulation engine performs pre-running of the service, the debugger of the SCE may The simulation engine performs initial management of the business, for example, when the business logic runs abnormally,
  • the user input module in the SCE debugger can receive the developer's modification of the data in the business logic, and send the data to the simulation engine through the interface of the SCE debugger and the simulation engine. After the simulation engine receives the data, the simulation engine receives the data. , you only need to load the data into the running business logic;
  • the SCE debugger can also perform breakpoint setting on the simulation engine. That is, the debug status module of the SCE debugger sends a preset breakpoint message to the simulation engine through the message. The simulation engine runs according to the preset endpoint. When the breakpoint is reached, the service is suspended, and the data information of the breakpoint is sent to the display module of the debugger of the SCE; when the service is running, the debugger of the SCE can also send the message carrying the set breakpoint to the simulation. engine.
  • Step 204 The simulator of the SCE triggers the simulation engine to perform the formal operation of the service; specifically, the simulation logic definition module of the simulator of the SCE writes the simulation message and the trigger timing, and the simulator of the SCE uses the simulation message to trigger the simulation engine. Simulate the official operation of the simulated pre-running service; the SCE simulator triggers the simulation engine according to the trigger timing.
  • the trigger timing can be the trigger period or the specific trigger time. If it is the trigger period, the SCE The trigger of the simulator to the simulation engine is a loop trigger, which has a certain rule. If it is a specific trigger time, the simulator of the SCE triggers the simulation engine according to the specific trigger time, and the trigger does not have a certain rule;
  • the triggered simulation engine performs the formal operation of the simulation service.
  • the simulation engine can communicate with external entities, for example, SIU (Signal Interface Unit), interface machine or service data function (SDF, Service). Database Function) and other external entities send dll dynamic link libraries to the simulation engine through encapsulated external messages, making
  • SIU Signal Interface Unit
  • SDF service data function
  • Database Function other external entities send dll dynamic link libraries to the simulation engine through encapsulated external messages, making
  • the simulation engine can redirect external messages to the SCE debugger during the running of the service, and the SCE debugger can simulate the process of sending external messages to the simulation engine by external entities such as SIU, interface machine, and SDF.
  • the simulation engine sends a message, and the simulation engine can identify the message by the sender's thread number.
  • Step 205 The simulation engine sends the SIB path to the SCE simulator through the SCE debugger, and the SCE simulator performs simulation debugging according to the SIB path.
  • the simulation engine converts the running process of the official running service into multiple SIBs, and the simulation engine that officially runs the service sends the SIB path to the display module of the debugger of the SCE for each SIB in the running process of the service.
  • the debug status module, the display module of the debugger of the SCE prompts the developer by means of highlighting, and the debug status module forwards the SIB path to the emulation logic execution module of the emulator of the SCE;
  • the simulation logic execution module of the SCE simulator knows the SIB to which the service runs according to the SIB path, and determines whether the SIB is a trigger point according to the trigger condition pre-configured by the simulation logic definition module. If it is a trigger point, the simulation logic execution module will trigger The plurality of preset messages associated with the point are sent to the simulation engine for analog debugging of the running service; if it is not the trigger point, the simulation logic execution module prompts the developer through the display module of the SCE simulator that the SIB is not a trigger point;
  • the trigger point includes the SIB number trigger, the event number trigger, the start simulation immediate trigger, the timer trigger, the operation number trigger, etc., which are set in advance in the simulation logic definition module of the SCE simulator; the SIB number trigger refers to a predefined A specific SIB in the service logic is a trigger point.
  • the event number trigger refers to a predefined sending event number.
  • the SCP sends the event number
  • the trigger is triggered.
  • the point is triggered; the starting simulation immediately starts to simulate the simulation of starting the value-added service
  • the trigger is triggered immediately.
  • the timer triggering refers to the time interval of the predefined timer. After the simulation of the value-added service is started, the timer starts. After the timer expires, the trigger point is triggered.
  • the trigger point supports the time. Triggering for an interval loop; the operation number trigger refers to a predefined operational event number, when the state machine is When the SIU sends the signaling of the operation, the trigger point is triggered.
  • the running service can implement the function corresponding to the trigger point, such as a communication function, a load data function, and the like;
  • the definition window of the preset message can be as shown in FIG. 3, and the message type of the preset message can select G network SIU, fixed network SIU, C network SIU, SDF, interface management platform (IM, Interface Manager Platform), preset message as The message sent by the corresponding peripheral device to the SCP; the message name of the preset message is a non-repeatable message name; for the event number of the preset message, if it is a message of the SIU type, it is not necessary to fill in; if it is a message of the SDF class, You can select SDF_ResponseEvent or SDFProcAck_EventIMP as the event number.
  • the sender and receiver of the preset message refer to the originator and receiver of the preset message. , here only the default message of the IMP type needs to fill in the sender, the sender is the thread PNO number;
  • the display mode of the preset message refers to the display mode used when filling in the content of the preset message. If it is a preset message message of the SIU class and the SDF class, there is a fixed display mode, and the preset message of the IMP class can select the text mode and the message. SIB mode or hexadecimal mode;
  • the SCE emulator may also have a tracking message area for displaying all the messages sent by the SCP and the message sent by the SCE emulator to the SCP, the message including the sender, the receiver, and the message event name (if The signaling class operation also includes the operation name), the message sending time; when the message content is viewed by tracking the message area, according to the message type, selecting an appropriate display mode to view the message content, for example, the signaling class operation uses a tree display mode, SDF
  • the message uses text display mode, and the interface machine message uses hexadecimal display mode (because the message body of the interface machine message cannot get the structure definition of the message); here, if it is a signaling class operation, when the receiver is an SCP state machine
  • the signaling type operation can be changed into a preset message. At this time, only the name of the filled message needs to be added. After the addition, the content of the modified message can be edited.

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Abstract

本发明公开一种模拟仿真增值业务的方法，应用于电信通讯领域的模拟仿真技术，该方法包括：业务生成环境（SCE）的仿真器触发模拟仿真引擎进行业务的正式运行，模拟仿真引擎将业务独立模块（SIB）路径通过SCE的调试器发送给SCE的仿真器，SCE的仿真器根据SIB路径对业务进行模拟调试；本发明还提供一种模拟仿真增值业务的系统。根据本发明的技术方案，简单直观的对增值业务进行仿真运行并实现业务的仿真调试。

Description

一种模拟仿真增值业务的方法及系统 技术领域
本发明实施例涉及电信通讯领域的模拟仿真技术， 尤其涉及一种模拟 仿真增值业务的方法及系统。 背景技术
现有技术中， 业务生成环境 ( SCE, Service Creation Environment )不具 备在线的增值业务的模拟仿真调试功能， 为了获取网络设备运行状况和性 能， 开发人员只能通过打印日志、 日志服务的业务独立模块（SIB, Service Independence Block )、 跟踪工具 Mtrace等方式进行增值业务的调试， 使用 起来非常不便； 而且调试时必须在真实环境中进行， 而真实环境的搭建复 杂， 资源有限， 不便于多人同时进行调试。
现有技术中提出一种技术方案： 所述系统包括客户端和服务端， 两者 釆用 TCP/IP协议进行通讯；所述客户端包括人机命令模块、数据同步模块、 读写流程模块、 与服务端通讯模块； 所述服务端包括移动台数据管理模块、 流程处理模块、 编解码模块、 发送和接受 PDSH消息模块、 与服务端通讯 模块； 可以根据服务端保存流程和配置构造分组数据协议报文及实现分组 数据信令流程的复杂协商过程， 实现大话务量测试过程中的被叫数据统计 和异常测试、 自动化测试， 该方法的缺点是仅能够解决通信系统中底层交 换的分组数据业务的仿真。 发明内容
有鉴于此， 本发明实施例的主要目的在于提供一种模拟仿真增值业务 的方法及系统， 简单直观的对增值业务进行仿真运行并实现业务的仿真调 试。
为达到上述目的， 本发明实施例的技术方案是这样实现的：
本发明实施例提供一种模拟仿真增值业务的系统， 该系统包括： 业务 生成环境（SCE )、 模拟仿真引擎； 其中， SCE包括仿真器和调试器；
仿真器， 设置为触发模拟仿真引擎； 根据业务独立模块（SIB )路径对 业务进行模拟调试；
模拟仿真引擎， 设置为受到触发时进行业务的正式运行， 并将 SIB路 径通过 SCE的调试器发送给 SCE的仿真器。
上述系统中，
所述 SCE还包括： 业务生成模块，设置为根据增值业务生成业务文件， 并通过 SCE的调试器发送给模拟仿真引擎；
所述模拟仿真引擎还设置为， 根据所述业务文件进行业务的预运行； 所述调试器还设置为， 对模拟仿真引擎进行业务的初始化管理。
本发明还提供一种模拟仿真增值业务的方法， 该方法包括：
SCE 的仿真器触发模拟仿真引擎进行业务的正式运行， 模拟仿真引擎 将 SIB路径通过 SCE的调试器发送给 SCE的仿真器， SCE的仿真器根据
SIB路径对业务进行模拟调试。
上述方法中， 所述 SCE的仿真器触发模拟仿真引擎进行业务的正式运 行之前， 该方法还包括：
SCE的业务生成模块才艮据增值业务生成业务文件， 并通过 SCE的调试 器发送给模拟仿真引擎， 模拟仿真引擎根据业务文件进行业务的预运行； SCE的调试器对模拟仿真引擎进行业务的初始化管理。
上述方法中， 所述 SCE的业务生成模块才艮据增值业务生成业务文件， 并通过 SCE的调试器发送给模拟仿真引擎为：
SCE 的业务生成模块才艮据增值业务生成对应的业务文件， 该业务文件 包括触发业务运行的触发方式以及业务的基本信息； 其中， 业务的基本信 息包括业务类型、 业务的功能、 业务逻辑； SCE的业务生成模块通过 SCE 的调试器与模拟仿真引擎的接口， 将生成的业务文件发送给模拟仿真引擎。
上述方法中， 所述模拟仿真引擎根据业务文件进行业务的预运行为： 模拟仿真引擎接收业务文件， 根据其中的业务逻辑， 进行业务的模拟 仿真的预运行； 如果该业务逻辑正常运行， 模拟仿真引擎通过消息将业务 逻辑运行正常的运行状态反馈给 SCE的调试器的显示模块； 如果该业务逻 辑运行出现异常， 模拟仿真引擎向 SCE的调试器的显示模块告警。
上述方法中， 所述 SCE的调试器对模拟仿真引擎进行业务的初始化管 理为：
当业务逻辑运行出现异常时， SCE 的调试器中的用户输入模块接收开 对业务逻辑中的数据的修改， 并通过 SCE的调试器与模拟仿真引擎的接口 将数据发送给模拟仿真引擎， 模拟仿真引擎将该数据加载到运行的业务逻 辑中； 和 /或， SCE的调试器对模拟仿真引擎进行断点设置， 当业务运行到 断点时， 模拟仿真引擎将业务暂停， 并将该断点的数据信息发送给 SCE的 调试器的显示模块。
上述方法中， 所述 SCE的仿真器触发模拟仿真引擎进行业务的正式运 行为：
在 SCE 的仿真器的仿真逻辑定义模块编写仿真消息和触发器时序， SCE 的仿真器利用该仿真消息触发模拟仿真引擎对模拟的预运行的业务进 行模拟的正式运行， SCE 的仿真器依据触发器时序进行模拟仿真引擎的触 发， 受到触发的模拟仿真引擎进行模拟仿真业务的正式运行。
上述方法中， 所述模拟仿真引擎将 SIB路径通过 SCE的调试器发送给 SCE的仿真器， SCE的仿真器根据 SIB路径对业务进行模拟调试为：
模拟仿真引擎将正式运行业务的运行进程转化为多个 SIB , 并将 SIB 路径发送给 SCE的调试器的显示模块和调试状态模块， SCE的调试器的显 示模块利用高亮显示的方式进行提示，调试状态模块将 SIB路径转发给 SCE 的仿真器的仿真逻辑执行模块；
SCE的仿真器的仿真逻辑执行模块根据 SIB路径和仿真逻辑定义模块 预先配置的触发条件， 判断该 SIB是否是触发点， 如果是触发点， 仿真逻 辑执行模块将与触发点关联的多条预置消息发送给模拟仿真引擎 , 对正在 运行的业务进行模拟调试； 如果不是触发点， 仿真逻辑执行模块通过 SCE 的仿真器的显示模块提示该 SIB不是触发点。
上述方法中， 该方法还包括：
SCE 的仿真器设有跟踪消息区， 该跟踪消息区用于显示所有业务控制 点 （SCP )对外发送的消息以及 SCE的仿真器向 SCP发送的消息， 该消息 包含发送方、 接收方、 消息事件名称、 消息发送时间； 通过跟踪消息区查 看消息内容时， 根据消息类型， 选择合适的显示方式查看消息内容
本发明实施例提供的模拟仿真增值业务的方法及系统， SCE 的仿真器 触发模拟仿真引擎进行业务的正式运行,模拟仿真引擎将 SIB路径通过 SCE 的调试器发送给 SCE的仿真器， SCE的仿真器根据 SIB路径对业务进行模 拟调试， 为业务的开发人员提供简单、 直观的业务逻辑的仿真运行， 从而 实现业务逻辑的验证， 并可以实现业务的仿真调试； 对于模拟仿真的运行 业务， 可以进行业务的跟踪和有限度的修改， 使得业务的开发人员更加直 观的了解业务的运行流程和运行状态； 区别于实际环境的调试仿真系统的 外部消息， 本系统无需外部核心网、 SIU、 接口机等实际环境， 所有的外部 消息均由 SCE提供的仿真器模拟实现， 因此系统结构更加简单， 有效地降 低开发成本。 附图说明
图 1是本发明实施例中实现模拟仿真增值业务的系统的结构示意图； 图 2是本发明实施例中实现模拟仿真增值业务的方法的流程示意图； 图 3是本发明实施例中预设消息的定义窗口的示意图。 具体实施方式
基于智能网平台业务控制点 （SCP, Service Control Point ), 本发明实 施例的基本思想是： SCE的仿真器触发模拟仿真引擎进行业务的正式运行， 模拟仿真引擎将 SIB路径通过 SCE的调试器发送给 SCE的仿真器， SCE的 仿真器根据 SIB路径对业务进行模拟调试。
下面通过附图及具体实施例对本发明再做进一步的详细说明。
本发明实施例提供一种模拟仿真增值业务的系统， 图 1 是本发明实施 例中实现模拟仿真增值业务的系统的结构示意图， 如图 1 所示， 该系统包 括： SCE11、模拟仿真引擎 12; 其中， SCE11包括仿真器 111和调试器 112;
仿真器 111 , 设置为触发模拟仿真引擎 12; 根据 SIB路径对业务进行 模拟调试；
模拟仿真引擎 12, 设置为受到触发时进行业务的正式运行， 并将 SIB 路径通过调试器 112发送给仿真器 111。
所述 SCE11还包括： 业务生成模块 113 , 设置为根据增值业务生成业 务文件， 并通过 SCE的调试器 112发送给模拟仿真引擎 12;
所述模拟仿真引擎 12还设置为，根据所述业务文件进行业务的预运行； 所述调试器 112还设置为，对模拟仿真引擎 12进行业务的初始化管理。 所述 SCE的业务生成模块 113根据增值业务生成业务文件，并通过 SCE 的调试器 112发送给模拟仿真引擎 12为：
SCE的业务生成模块 113才艮据增值业务生成对应的业务文件， 该业务 文件包括触发业务运行的触发方式以及业务的基本信息； 其中， 业务的基 本信息包括业务类型、 业务的功能、 业务逻辑； SCE 的业务生成模块 113 通过 SCE的调试器 112与模拟仿真引擎 12的接口 ,将生成的业务文件发送 给模拟仿真引擎 12。
所述模拟仿真引擎 12根据业务文件进行业务的预运行为：
模拟仿真引擎 12接收业务文件， 根据其中的业务逻辑， 进行业务的模 拟仿真的预运行； 如果该业务逻辑正常运行， 模拟仿真引擎通过消息将业 务逻辑运行正常的运行状态反馈给 SCE的调试器 112的显示模块； 如果该 业务逻辑运行出现异常， 模拟仿真引擎向 SCE的调试器 112的显示模块告 所述 SCE的调试器 112对模拟仿真引擎 12进行业务的初始化管理为： 当业务逻辑运行出现异常时， SCE的调试器 112中的用户输入模块接 收开对业务逻辑中的数据的修改， 并通过 SCE的调试器 112与模拟仿真引 擎 12的接口将数据发送给模拟仿真引擎 12, 模拟仿真引擎 12将该数据加 载到运行的业务逻辑中； 和 /或， SCE的调试器 112对模拟仿真引擎 12进行 断点设置， 当业务运行到断点时， 模拟仿真引擎 12将业务暂停， 并将该断 点的数据信息发送给 SCE的调试器 112的显示模块。
所述 SCE的仿真器 111触发模拟仿真引擎 12进行业务的正式运行为： 在 SCE的仿真器 111的仿真逻辑定义模块编写仿真消息和触发器时序， SCE的仿真器 111利用该仿真消息触发模拟仿真引擎 12对模拟的预运行的 业务进行模拟的正式运行， SCE的仿真器 111依据触发器时序进行模拟仿 真引擎 12的触发， 受到触发的模拟仿真引擎 12进行模拟仿真业务的正式 运行。
所述模拟仿真引擎 12将 SIB路径通过 SCE的调试器 112发送给 SCE 的仿真器 111 , SCE的仿真器 111根据 SIB路径对业务进行模拟调试为： 模拟仿真引擎 12将正式运行业务的运行进程转化为多个 SIB ,并将 SIB 路径发送给 SCE的调试器 112的显示模块和调试状态模块， SCE的调试器 112的显示模块利用高亮显示的方式进行提示，调试状态模块将 SIB路径转 发给 SCE的仿真器 111的仿真逻辑执行模块；
SCE的仿真器 111的仿真逻辑执行模块根据 SIB路径和仿真逻辑定义 模块预先配置的触发条件， 判断该 SIB是否是触发点， 如果是触发点， 仿 真逻辑执行模块将与触发点关联的多条预置消息发送给模拟仿真引擎 12, 对正在运行的业务进行模拟调试； 如果不是触发点， 仿真逻辑执行模块通 过 SCE的仿真器 111的显示模块提示该 SIB不是触发点。
基于上述系统， 本发明实施例还提供一种模拟仿真增值业务的方法， 图 2是本发明实施例中实现模拟仿真增值业务的方法的流程示意图，如图 2 所示， 该方法包括以下步骤：
步骤 201 , SCE 的业务生成模块根据增值业务生成业务文件， 并通过 SCE的调试器发送给模拟仿真引擎；
具体的， SCE 的业务生成模块根据增值业务生成对应的业务文件， 该 业务文件包括触发业务运行的触发方式以及业务的基本信息； 其中， 业务 的基本信息包括业务类型、 业务的功能、 业务逻辑等； SCE 的业务生成模 块通过 SCE的调试器与模拟仿真引擎的接口 , 将生成的业务文件发送给模 拟仿真引擎。
步骤 202, 模拟仿真引擎根据业务文件进行业务的预运行；
具体的， 模拟仿真引擎接收业务文件， 根据其中的业务逻辑， 进行业 务的模拟仿真的预运行， 业务文件中的其他内容可以作为业务运行的支持 信息； 如果该业务逻辑能够正常运行， 模拟仿真引擎通过消息将业务逻辑 运行正常的运行状态反馈给 SCE的调试器的显示模块， 显示模块进一步提 供给开发人员； 如果该业务逻辑运行出现异常， 模拟仿真引擎可以向 SCE 的调试器的显示模块告警。
步骤 203 , SCE的调试器对模拟仿真引擎进行业务的初始化管理； 具体的， 在模拟仿真引擎进行业务的预运行时， SCE 的调试器可以对 模拟仿真引擎进行业务的初始化管理， 例如， 当业务逻辑运行出现异常时，
SCE 的调试器中的用户输入模块可以接收开发人员对业务逻辑中的数据的 修改， 并通过 SCE的调试器与模拟仿真引擎的接口将数据发送给模拟仿真 引擎， 模拟仿真引擎收到该数据后， 只需要将该数据加载到运行的业务逻 辑中即可；
SCE的调试器还可以对模拟仿真引擎进行断点设置， 即 SCE的调试器 的调试状态模块将预设的断点通过消息发送给模拟仿真引擎， 模拟仿真引 擎根据预设的端点， 当业务运行到断点时， 将业务暂停， 并将该断点的数 据信息发送给 SCE的调试器的显示模块； 当业务运行时， SCE的调试器也 可以将携带设置的断点的消息发送给模拟仿真引擎。
通过设置断点， 业务开发人员可以在 SCE的调试器上得到业务的实时 数据， 可以快速准确的发现问题， 从而及时解决问题， 提升了业务开发人 员对业务逻辑的整体掌控性。
步骤 204, SCE的仿真器触发模拟仿真引擎进行业务的正式运行； 具体的， 在 SCE的仿真器的仿真逻辑定义模块编写仿真消息和触发器 时序， SCE 的仿真器利用该仿真消息触发模拟仿真引擎对模拟的预运行的 业务进行模拟的正式运行； SCE 的仿真器依据触发器时序进行模拟仿真引 擎的触发， 该触发器时序可以是触发周期或具体的触发时间， 如果是触发 周期， 则 SCE的仿真器对模拟仿真引擎的触发是循环的触发， 具有一定规 律， 如果是具体的触发时间， 则 SCE的仿真器依据具体的触发时间对模拟 仿真引擎进行触发， 该触发是不具有一定规律的；
受到触发的模拟仿真引擎， 进行模拟仿真业务的正式运行， 模拟仿真 引擎可以与外部实体进行正常通信， 例如， 信令接口单元 （SIU , Signal Interface Unit )、 接口机或业务数据功能 （ SDF, Service Database Function ) 等外部实体通过封装的外部消息发送 dll动态链接库给模拟仿真引擎， 使得 模拟仿真引擎在运行业务的过程中对外部消息能够重新定向到 SCE的调试 器， 而 SCE的调试器可以模拟 SIU、 接口机、 SDF等外部实体将外部消息 发送给模拟仿真引擎的过程， 向模拟仿真引擎发送消息， 模拟仿真引擎可 以通过发送者的线程号进行消息的识别。
步骤 205 , 模拟仿真引擎将 SIB路径通过 SCE的调试器发送给 SCE的 仿真器， SCE的仿真器根据 SIB路径对业务进行模拟调试；
具体的，模拟仿真引擎将正式运行业务的运行进程转化为多个 SIB,正 式运行业务的模拟仿真引擎针对业务运行进程中的每个 SIB,都将 SIB路径 发送给 SCE的调试器的显示模块和调试状态模块， SCE的调试器的显示模 块利用高亮显示的方式提示给开发人员， 调试状态模块将 SIB路径转发给 SCE的仿真器的仿真逻辑执行模块；
SCE 的仿真器的仿真逻辑执行模块根据 SIB 路径知道业务运行到的 SIB ,并根据仿真逻辑定义模块预先配置的触发条件判断该 SIB是否是触发 点， 如果是触发点， 仿真逻辑执行模块将与触发点关联的多条预置消息发 送给模拟仿真引擎， 对正在运行的业务进行模拟调试； 如果不是触发点， 仿真逻辑执行模块通过 SCE的仿真器的显示模块提示开发人员该 SIB不是 触发点； 其中， 触发点包括 SIB号触发、 事件号触发、 启动仿真立即触发、 定时器触发、 操作号触发等， 是预先在 SCE的仿真器的仿真逻辑定义模块 设置的； 所述 SIB号触发是指预先定义业务逻辑中某个具体的 SIB为触发 点， 当业务运行到该 SIB 时， 该触发点被触发； 所述事件号触发是指预先 定义发送事件号， 当 SCP对外发送该事件号时， 该触发点被触发； 所述启 动仿真立即出发是指启动增值业务的模拟仿真时立即触发业务； 所述定时 器触发是指预先定义定时器的时间间隔， 启动增值业务的模拟仿真后开始 计时， 定时器到时后触发点被触发， 此外， 该触发点同时支持以此时间为 间隔的循环触发； 所述操作号触发是指预先定义操作事件号， 当状态机向 SIU发送该操作的信令时， 该触发点被触发； 触发点被触发后， 正在运行的 业务可以实现该触发点对应的功能， 例如通信功能、 加载数据功能等； 与触发点关联的多条预置消息的定义窗口可以如图 3 所示， 预设消息 的消息类型可以选择 G网 SIU、 固网 SIU、 C网 SIU、 SDF、 接口管理平台 ( IMP, Interface Manager Platform ), 预设消息作为模拟的相应外围设备向 SCP发的消息； 预设消息的消息名称是不可重复的消息名； 对于预设消息 的事件号， 如果是 SIU类的消息， 则无需填写； 如果是 SDF类的消息， 则 可以选择 SDF_ResponseEvent或 SDFProcAck_EventIMP作为事件号， 如果 是 IMP类的消息， 则可以选择 START_SERVICE作为事件号或直接填写事 件号； 预设消息的发送者和接收者是指预设消息的发生方和接收方， 这里 只有 IMP类型的预设消息需要填写发送者， 该发送者是线程 PNO号； 预设 消息的显示方式是指填写预设消息的内容时使用的显示方式， 如果是 SIU 类和 SDF类的预设消息消息， 则都有固定的显示方式， IMP类的预设消息 可以选择文本方式、 消息 SIB方式或十六进制方式；
SCE的仿真器中还可以有跟踪消息区，该跟踪消息区用于显示所有 SCP 对外发送的消息以及 SCE的仿真器向 SCP发送的消息，该消息包含发送方、 接收方、 消息事件名称（如果是信令类操作还包括操作名称）、 消息发送时 间； 通过跟踪消息区查看消息内容时， 根据消息类型， 选择合适的显示方 式查看消息内容， 例如， 信令类操作使用树形显示方式， SDF 消息使用文 本显示方式， 接口机消息使用十六进制显示方式（因为该接口机消息的消 息体无法得到消息的结构定义）；这里，如果是信令类操作，当接收方是 SCP 状态机时， 可以将该信令类操作变为预置消息， 此时只需要增加填写消息 名称， 增加后可以再编辑修改消息内容。
以上所述， 仅为本发明的较佳实施例而已， 并非用于限定本发明的保 护范围， 凡在本发明的精神和原则之内所作的任何修改、 等同替换和改进 等， 均应包含在本发明的保护范围之内。

Claims

权利要求书
1、一种模拟仿真增值业务的系统，该系统包括：业务生成环境（SCE )、 模拟仿真引擎； 其中， SCE包括仿真器和调试器；
仿真器， 设置为触发模拟仿真引擎； 根据业务独立模块（SIB )路径对 业务进行模拟调试；
模拟仿真引擎， 设置为受到触发时进行业务的正式运行， 并将 SIB路 径通过 SCE的调试器发送给 SCE的仿真器。
2、 根据权利要求 1所述的模拟仿真增值业务的系统， 其中，
所述 SCE还包括： 业务生成模块，设置为根据增值业务生成业务文件， 并通过 SCE的调试器发送给模拟仿真引擎；
所述模拟仿真引擎还设置为， 根据所述业务文件进行业务的预运行； 所述调试器还设置为， 对模拟仿真引擎进行业务的初始化管理。
3、 一种模拟仿真增值业务的方法， 该方法包括：
SCE 的仿真器触发模拟仿真引擎进行业务的正式运行， 模拟仿真引擎 将 SIB路径通过 SCE的调试器发送给 SCE的仿真器， SCE的仿真器根据 SIB路径对业务进行模拟调试。
4、 根据权利要求 3所述的模拟仿真增值业务的方法， 其中， 所述 SCE 的仿真器触发模拟仿真引擎进行业务的正式运行之前， 该方法还包括：
SCE的业务生成模块才艮据增值业务生成业务文件， 并通过 SCE的调试 器发送给模拟仿真引擎， 模拟仿真引擎根据业务文件进行业务的预运行； SCE的调试器对模拟仿真引擎进行业务的初始化管理。
5、 根据权利要求 3或 4所述的模拟仿真增值业务的方法， 其中， 所述 SCE的业务生成模块根据增值业务生成业务文件， 并通过 SCE的调试器发 送给模拟仿真引擎为：
SCE 的业务生成模块才艮据增值业务生成对应的业务文件， 该业务文件 包括触发业务运行的触发方式以及业务的基本信息； 其中， 业务的基本信 息包括业务类型、 业务的功能、 业务逻辑； SCE的业务生成模块通过 SCE 的调试器与模拟仿真引擎的接口， 将生成的业务文件发送给模拟仿真引擎。
6、 根据权利要求 3或 4所述的模拟仿真增值业务的方法， 其中， 所述 模拟仿真引擎根据业务文件进行业务的预运行为：
模拟仿真引擎接收业务文件， 根据其中的业务逻辑， 进行业务的模拟 仿真的预运行； 如果该业务逻辑正常运行， 模拟仿真引擎通过消息将业务 逻辑运行正常的运行状态反馈给 SCE的调试器的显示模块； 如果该业务逻 辑运行出现异常， 模拟仿真引擎向 SCE的调试器的显示模块告警。
7、 根据权利要求 3或 4所述的模拟仿真增值业务的方法， 其中， 所述 SCE的调试器对模拟仿真引擎进行业务的初始化管理为：
当业务逻辑运行出现异常时， SCE 的调试器中的用户输入模块接收开 对业务逻辑中的数据的修改， 并通过 SCE的调试器与模拟仿真引擎的接口 将数据发送给模拟仿真引擎， 模拟仿真引擎将该数据加载到运行的业务逻 辑中； 和 /或， SCE的调试器对模拟仿真引擎进行断点设置， 当业务运行到 断点时， 模拟仿真引擎将业务暂停， 并将该断点的数据信息发送给 SCE的 调试器的显示模块。
8、 根据权利要求 3所述的模拟仿真增值业务的方法， 其中， 所述 SCE 的仿真器触发模拟仿真引擎进行业务的正式运行为：
在 SCE 的仿真器的仿真逻辑定义模块编写仿真消息和触发器时序， SCE 的仿真器利用该仿真消息触发模拟仿真引擎对模拟的预运行的业务进 行模拟的正式运行， SCE 的仿真器依据触发器时序进行模拟仿真引擎的触 发， 受到触发的模拟仿真引擎进行模拟仿真业务的正式运行。
9、 根据权利要求 3所述的模拟仿真增值业务的方法， 其中， 所述模拟 仿真引擎将 SIB路径通过 SCE的调试器发送给 SCE的仿真器， SCE的仿真 器根据 SIB路径对业务进行模拟调试为：
模拟仿真引擎将正式运行业务的运行进程转化为多个 SIB , 并将 SIB 路径发送给 SCE的调试器的显示模块和调试状态模块， SCE的调试器的显 示模块利用高亮显示的方式进行提示，调试状态模块将 SIB路径转发给 SCE 的仿真器的仿真逻辑执行模块；
SCE的仿真器的仿真逻辑执行模块根据 SIB路径和仿真逻辑定义模块 预先配置的触发条件， 判断该 SIB是否是触发点， 如果是触发点， 仿真逻 辑执行模块将与触发点关联的多条预置消息发送给模拟仿真引擎 , 对正在 运行的业务进行模拟调试； 如果不是触发点， 仿真逻辑执行模块通过 SCE 的仿真器的显示模块提示该 SIB不是触发点。
10、 根据权利要求 9所述的模拟仿真增值业务的方法， 其中， 该方法 还包括：
SCE 的仿真器设有跟踪消息区， 该跟踪消息区用于显示所有业务控制 点 （SCP )对外发送的消息以及 SCE的仿真器向 SCP发送的消息， 该消息 包含发送方、 接收方、 消息事件名称、 消息发送时间； 通过跟踪消息区查 看消息内容时， 根据消息类型， 选择合适的显示方式查看消息内容。
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