面向NFV自动化服务设计的准确和可扩展的性能预测

Florian Beye, Y. Shinohara, H. Shimonishi
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引用次数: 1

摘要

在网络功能虚拟化(NFV)中实现通信服务设计过程的自动化非常重要,因为它可以减少供应时间并提高设计效率。设计过程涉及解决服务水平协议(sla)强加的性能约束,这反过来又需要准确和快速的性能预测。然而,当考虑到大量可能的软件和硬件组合时,资源争用等影响会使虚拟化环境中的性能预测变得困难。可伸缩性的关键在于找到一种组件化的方法,减少模型自由度的数量,同时仍然允许高精度。在这项工作中,我们提出了一种基于前馈网络的组件化方法,该网络由软件和硬件模型组成。模型参数数据通过机器学习技术获得,该技术使用自动化离线性能测量生成的数据进行馈送。评估表明,该技术的预测精度接近95%,预测评估时间仅为几毫秒。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Towards Accurate and Scalable Performance Prediction for Automated Service Design in NFV
Automatizing the process of designing communication services in network function virtualization (NFV) is important because it may reduce provisioning time and lead to more efficient designs. The design process involves solving performance constraints imposed by service level agreements (SLAs), which in turn requires accurate and fast performance prediction. However, effects such as resource contention make performance prediction in virtualized environments challenging when large numbers of possible combinations of software and hardware are considered. The key to scalability lies in finding a componentized approach that reduces the number of model degrees of freedom while still allowing high accuracy. In this work, we propose a componentized approach based on feed-forward networks that are composited from software and hardware models. Model parameter data is obtained from a machine learning technique which is fed using data generated from automatized offline performance measurements. An evaluation showed that our technology achieves a prediction accuracy close to 95% and prediction evaluation times of a few milliseconds.
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