基于SDN范式的复杂大规模光传输网络实时仿真框架

A.A. Shah, M. Mussini, F. Nicassio, G. Parladori, F. Triggiani, Gustavo Grieco, G. Iaffaldano, G. Piro
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引用次数: 0

摘要

由于软件定义网络(SDN)和网络功能虚拟化研究领域的最新进展,电信运营商被鼓励将其光传输网络升级为可编程、节能、面向服务和可互操作的架构。由不同的标准化组织支持的大量开源构建块的可用性使得选择和集成这些技术成为一项非常复杂的任务。在这种背景下,INTENTO项目的目标是通过选择最好的技术来创建一个创新的模拟框架,并在真实环境中使用它来测试应用程序、服务和高级优化算法。在初始阶段,项目设计了一个大规模、分布式、分层的传输SDN架构,通过SDN控制器的两级结构对光交换机和网络功能进行监控和动态配置。最重要的是,虚拟网络功能由集中式编排器根据网络条件、用户请求和应用程序需求进行最佳部署和管理。基于此架构,项目组开始开发一个在OpenStack云中和谐集成的复杂仿真环境:由仿真代理和合适的硬件仿真层组成的光节点模拟器;专有的SDN网络控制器设计,实现创新的光节点特性;开放网络操作系统作为第二级控制器,基于标准化接口和通信协议,可集成第三方或标准化模型(多厂商环境)。在描述了已经实现到仿真框架中的主要组件和功能之后,论文最后强调了未来的研究和开发活动。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Real-time Simulation Framework for Complex and Large-scale Optical Transport Networks based on the SDN Paradigm
Thanks to the recent advancements in the Software-Defined Networking (SDN) and Network Function Virtualization research domains, telecom operators are encouraged to upgrade their optical transport networks towards programmable, energy-efficient, service-oriented, and interoperable architectures. The availability of a large set of open-source building blocks, supported by different standardization bodies makes the selection and the integration of such technologies a very complex task. In this context, the INTENTO project has the objective to create an innovative simulation framework by selecting the best technologies and use it to test applications, services, and advanced optimization algorithms in a real environment. In the initial phase, the project designed a large-scale, distributed, and hierarchical Transport SDN architecture, where optical switches and networking functionalities are monitored and dynamically configured through a two-level structure of SDN controllers. On top of that, Virtual Network Functions are optimally deployed and managed by a centralized orchestrator, based on network condition, user requests, and application requirements. Based on this architecture, the project team started to develop a complex simulation environment that harmoniously integrates within the OpenStack cloud: optical node simulators composed by simulation agent and a suitable hardware emulation layer; proprietary SDN network controller designed to enable the innovative optical nodes characteristics; Open Network Operating System as the second level controller, enabling the integration of third-party or standardized models (multivendor environment), based on standardized interfaces and communication protocols. After having described the main components and functionalities already implemented into the simulation framework, the paper concludes by highlighting future research and development activities.
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