RIFL: a reliable link layer network protocol for data center communication

More and more latency-sensitive services and applications are being deployed into the data center. Performance can be limited by the high latency of the network interconnect. Because the conventional network stack is designed not only for a local area network, but also for a wide area network, it ca...

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Veröffentlicht in:Journal of optical communications and networking 2022-03, Vol.14 (3), p.111-126
Hauptverfasser: Shen, Qianfeng, Zheng, Jun, Chow, Paul
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container_title Journal of optical communications and networking
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creator Shen, Qianfeng
Zheng, Jun
Chow, Paul
description More and more latency-sensitive services and applications are being deployed into the data center. Performance can be limited by the high latency of the network interconnect. Because the conventional network stack is designed not only for a local area network, but also for a wide area network, it carries a great amount of redundancy that is not required in a data center network. This paper introduces the concept of a three-layer protocol stack that can fulfill the exact demands of data center network communications. The detailed design and implementation of the first layer of the stack, which we call RIFL, is presented. A novel low latency in-band hop-by-hop re-transmission protocol is proposed and adopted in RIFL, which guarantees lossless transmission in a data center environment. Experimental results show that RIFL achieves 110 ns point-to-point latency on 10 m active optical cables, at a line rate of 112 Gbps. RIFL is a multi-lane protocol with scalable throughput up to multi-hundred gigabits per second. It can be the enabler of low latency, high throughput, flexible, scalable, and lossless data center networks.
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subjects Bandwidth
Cables
Computer centers
Data centers
Forward error correction
Hardware
Local area networks
Network latency
Propagation losses
Protocols
Redundancy
Reliability
Wide area networks
title RIFL: a reliable link layer network protocol for data center communication
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