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Practical TDMA for Datacenter Ethernet

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by Bhanu C. Vattikonda , George Porter , Amin Vahdat , Alex C. Snoeren
Citations:13 - 6 self
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BibTeX

@MISC{Vattikonda_practicaltdma,
    author = {Bhanu C. Vattikonda and George Porter and Amin Vahdat and Alex C. Snoeren},
    title = {Practical TDMA for Datacenter Ethernet},
    year = {}
}

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Abstract

Cloud computing is placing increasingly stringent demands on datacenter networks. Applications like MapReduce and Hadoop demand high bisection bandwidth to support their all-to-all shuffle communication phases. Conversely, Web services often rely on deep chains of relatively lightweight RPCs. While HPC vendors market niche hardware solutions, current approaches to providing high-bandwidth and lowlatency communication in the datacenter exhibit significant inefficiencies on commodity Ethernet hardware. We propose addressing these challenges by leveraging the tightly coupled nature of the datacenter environment to apply time-division multiple access (TDMA). We design and implement a TDMA MAC layer for commodity Ethernet hardware that allows end hosts to dispense with TCP’s reliability and congestion control. We evaluate the practicality of our approach and find that TDMA slots as short as 100s of microseconds are possible. We show that partitioning link bandwidth and switch buffer space to flows in a TDMA fashion can result in higher bandwidth for MapReduce shuffle workloads, lower latency for RPC workloads in the presence of background traffic, and more efficient operation in highly dynamic and hybrid optical/electrical networks.

Keyphrases

practical tdma    datacenter ethernet    commodity ethernet hardware    mapreduce shuffle workload    web service    time-division multiple access    tdma slot    lightweight rpcs    efficient operation    high bisection bandwidth    hybrid optical electrical network    tdma mac layer    datacenter environment    rpc workload    datacenter exhibit significant inefficiency    deep chain    congestion control    background traffic    link bandwidth    lowlatency communication    stringent demand    buffer space    cloud computing    tdma fashion    all-to-all shuffle communication phase    datacenter network    current approach   

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