Aug 2026· Conference on Applications, Technologies, Architectures, and Protocols for Computer Communication· pp. 1170-1184· 0 citations· 86 references
Computer Science
TL;DR
This paper presents Flow.zip, a backward-compatible header compression mechanism designed for existing data center networks that leverages a combination of last-hop network offload and MPLS support, both of which are ubiquitous in modern data center deployments.
Abstract
Packet header overhead is a persistent source of inefficiency in packet-switched networks, reducing goodput and increasing network load. Trends like tunneling further increase this overhead, significantly impacting flow completion times. While, in principle, it is possible to compress these headers, existing methods require specialized hardware on every hop to compress/decompress the packet to/from custom header formats. In this paper, we present Flow.zip, a backward-compatible header compression mechanism designed for existing data center networks. Our solution leverages a combination of last-hop network offload and MPLS support, both of which are ubiquitous in modern data center deployments. Flow.zip overcomes scalability limitations in these components by selectively and intelligently coordinating compression for a subset of flows. Doing so, Flow.zip achieves up to 58% reduction in average flow completion time on real-world data center workloads.
ParaFlowO is proposed, an architecture that Parallelizes processing elephant Flows across multiple CPU cores while preserving in-Order delivery and integrates a lightweight reordering mechanism to preserve packet order and controls parallelism to mitigate contention on shared state.
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The design and functionality of a novel tool that enables in depth observation and monitoring of the Linux kernel’s networking stack in real-time, through eBPF instrumentation of its main RX and TX entry-points are described.
The design and functionality of a novel tool that enables in depth observation and monitoring of the Linux kernel’s networking stack in real-time, through eBPF instrumentation of its main RX and TX entry-points are described.
The design and functionality of a novel tool that enables in depth observation and monitoring of the Linux kernel’s networking stack in real-time, through eBPF instrumentation of its main RX and TX entry-points are described.
Unknown authors· 0 citations
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