网络操作系统:多域、多层网络的运营商级SDN控制

Q1 Engineering
Marina Thottan;Catello Di Martino;Young-Jin Kim;Gary Atkinson;Nakjung Choi;Nishok Mohanasamy;Lalita Jagadeesan;Veena Mendiratta;Jesse E. Simsarian;Bartek Kozicki
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引用次数: 5

摘要

在云和虚拟化技术发展的推动下,电信业务面临着越来越动态的压力。云服务可以在几分钟内在计算平台上实例化,这可以快速调度和分配虚拟物理资源。适应动态服务请求的类似灵活性仍然是网络资源的一个挑战。最近,集中式控制器被部署在数据中心网络中,以使网络连接适应计算需求。然而,由于运营商组网技术的复杂性和多样性,运营商网络向集中控制方向发展缓慢。最近,运营商正在通过推动网络元素分解和引入具有更大控制灵活性的设备来解决网络复杂性问题。运营商需要一种新的控制模式来受益于这种新的灵活性,这种灵活性远远超出了今天的OpenFlow网络控制器。缺乏具有一致网络视图的全局网络控制器,会减慢广泛的云技术所需的更动态的网络服务的开发和部署。为了解决运营商环境的可扩展性需求,设想的网络控制器将作为分布式系统实现。在本文中,我们描述了一个全局网络控制器,它被设计成一个具有多域、多层功能的网络操作系统,将改变运营商级的电信服务。定义了电信级网络操作系统(OS)的需求,描述了一个能够大规模控制异构网络并保证高业务可靠性的原型系统(NetUNIX)。我们强调了NetUNIX平台在其他开源平台背景下的优势,并通过两个用例说明了NetUNIX平台的使用:城域分布式数据中心和5G下一代前传。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The network OS: Carrier-grade SDN control of multi-domain, multi-layer networks
Driven by the growth of cloud and virtualization technologies, telecom services are under pressure to become increasingly dynamic. Cloud services can be instantiated in a matter of minutes on computing platforms, which can rapidly schedule and allocate virtualized physical resources. A similar flexibility to adapt to dynamic service requests remains a challenge with network resources. Recently, centralized controllers have been deployed in data center networks to adapt network connectivity to computational needs. However, due to the complexity and variety of carrier networking technologies, carrier networks have been slow to move towards centralized control. More recently, carriers are evolving to address network complexity by pushing for the disaggregation of network elements and the introduction of equipment with more control flexibility. Carriers require a new control paradigm to benefit from this new flexibility, which extends far beyond today's OpenFlow network controllers.

The lack of a global network controller with a consistent network view slows down the development and deployment of the more dynamic network services required by extensive cloud technologies. To address the scaling requirements of the carrier environment, the envisioned network controller would be implemented as a distributed system. In this article, we describe a global network controller designed to function as a network operating system with multi-domain, multi-layer capabilities that will transform carrier-grade telecom services. We define the requirements for a carrier-grade network operating system (OS) and describe a prototype system (NetUNIX) that can control heterogeneous networks at large scale and ensure high service reliability. We highlight the advantages of the NetUNIX platform in the context of other open source platforms and illustrate the use of the NetUNIX platform with two use cases: a metro-distributed data center and 5G next-generation fronthaul.

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来源期刊
Bell Labs Technical Journal
Bell Labs Technical Journal 工程技术-电信学
自引率
0.00%
发文量
0
审稿时长
6-12 weeks
期刊介绍: The Bell Labs Technical Journal (BLTJ) highlights key research and development activities across Alcatel-Lucent — within Bell Labs, within the company’s CTO organizations, and in cross-functional projects and initiatives. It publishes papers and letters by Alcatel-Lucent researchers, scientists, and engineers and co-authors affiliated with universities, government and corporate research labs, and customer companies. Its aim is to promote progress in communications fields worldwide; Bell Labs innovations enable Alcatel-Lucent to deliver leading products, solutions, and services that meet customers’ mission critical needs.
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