高速公路上的QUIC:评估高速链路的性能

Benedikt Jaeger, Johannes Zirngibl, Marcel Kempf, Kevin Ploch, Georg Carle
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引用次数: 4

摘要

QUIC是2021年标准化的新协议,旨在改进广泛使用的TCP/ TLS堆栈。主要目标是通过HTTP加速网络流量,但它也用于其他领域,如隧道。基于UDP,它提供了诸如可靠的按顺序交付、流量和拥塞控制、基于流的多路复用以及使用TLS 1.3的永远在线加密等功能。与TCP不同的是,QUIC在用户空间实现了所有这些特性,只需要与UDP进行内核交互。虽然在用户空间中运行提供了更多的灵活性,但它从内核中的效率和优化中获得的好处较少。存在多种实现,它们在编程语言、体系结构和设计选择上有所不同。本文提出了QUIC互操作运行器的扩展,这是一个测试QUIC实现互操作性的框架。我们的贡献可以在专用硬件上实现可重复的QUIC基准测试。我们提供了10G链路的基线结果,包括多个实现,评估了操作系统特性(如缓冲区大小和NIC卸载)如何影响QUIC性能,并显示了与TCP相比,QUIC可以实现哪些数据速率。我们的结果表明,QUIC性能在客户端和服务器实现之间的差异很大,从90 Mbit/s到4900 Mbit/s。我们表明,操作系统通常将默认缓冲区大小设置得太小,根据我们的发现,至少应该将其增加一个数量级。此外,QUIC从网卡卸载和AES NI硬件加速中获益较少,而这两个特性都将TCP的吞吐量提高到8000mbit /s左右。我们的框架可以用于评估协议或操作系统未来改进的效果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
QUIC on the Highway: Evaluating Performance on High-rate Links
QUIC is a new protocol standardized in 2021 designed to improve on the widely used TCP/ TLS stack. The main goal is to speed up web traffic via HTTP, but it is also used in other areas like tunneling. Based on UDP it offers features like reliable in-order delivery, flow and congestion control, stream-based multiplexing, and always-on encryption using TLS 1.3. Other than with TCP, QUIC implements all these features in user space, only requiring kernel interaction for UDP. While running in user space provides more flexibility, it profits less from efficiency and optimization within the kernel. Multiple implementations exist, differing in programming language, architecture, and design choices. This paper presents an extension to the QUIC Interop Runner, a framework for testing interoperability of QUIC implementations. Our contribution enables reproducible QUIC benchmarks on dedicated hardware. We provide baseline results on 10G links, including multiple implementations, evaluate how OS features like buffer sizes and NIC offloading impact QUIC performance, and show which data rates can be achieved with QUIC compared to TCP. Our results show that QUIC performance varies widely between client and server implementations from 90 Mbit/s to 4900 Mbit/s. We show that the OS generally sets the default buffer size too small, which should be increased by at least an order of magnitude based on our findings. Furthermore, QUIC benefits less from NIC offloading and AES NI hardware acceleration while both features improve the goodput of TCP to around 8000 Mbit/s. Our framework can be applied to evaluate the effects of future improvements to the protocol or the OS.
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