Chun Yeow Yeoh, M. Mokhtar, A. Rahman, A. Samingan
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引用次数: 36
摘要
下一代5G无线接入将支持广泛的新应用和用例,其功能包括非常高的可实现数据速率、非常低的延迟、超高的可靠性以及处理极端设备密度的可能性。为了避免未来移动网络高昂的部署、运营和维护成本,无线接入网(RAN)虚拟化或云RAN是解决这一问题的答案。其想法是将基带处理转移到数据中心,并使用商用硬件(如高性能通用处理器)运行RAN L1、L2和L3协议层。基于开源软件的LTE实现,如OpenAirInterface (OAI),无疑加速了RAN的云化,也实现了未来低成本LTE网络部署的可能性。本文以用户平面数据流为重点,描述了OAI LTE的实现。我们成功地模拟了支持FDD Band 5和TDD Band 38的1 UE和1 eNB LTE网络的空中传输。我们还在用户平面数据流上就执行时间对OAI进行了全面的分析。我们的结果可以作为开源社区未来优化的参考。
Performance study of LTE experimental testbed using OpenAirInterface
The next generation, 5G wireless access, is going to support a wide range of new applications and use cases, with the capabilities including very high achievable data rate, very low latency, ultra-high reliability and the possibility to handle extreme device densities. To avoid the costly deployment, operation and maintenance of future mobile network, Radio Access Network (RAN) virtualization or Cloud RAN is the answer to the problem. The idea is to move the baseband processing to the data center and run the RAN L1, L2 and L3 protocol layers using the commodity hardware, such as high-performance general purpose processors. An open source software-based LTE implementation, such as OpenAirInterface (OAI), is definitely accelerating the RAN cloudization and also realizing the possibility of low cost LTE network deployment in the future. In this paper, we describe the OAI LTE implementation emphasizing on the user plane data flow. We have successfully emulated over-the-air transmission for 1 UE and 1 eNB LTE network supporting both FDD Band 5 and TDD Band 38. We have also performed a thorough profiling of OAI, in terms of execution time, on the user plane data flow. Our results could be served as the reference for future optimization by open source community.