Datacenter networks should support high network utilization. Yet today's routing is typically
load agnostic, so large flows can starve other flows if routed through overutilized links. Even …

Datacenter networks provide high path diversity for traffic between machines. Load
balancing traffic across these paths is important for both, latency-and throughput-sensitive …

Emerging data-center network designs seek to provide physical topologies with high
bandwidth, large bisection capacities, and many alternative data paths. Yet, existing …

Datacenter networks deal with a variety of workloads, ranging from latency-sensitive small
flows to bandwidth-hungry large flows. Load balancing schemes based on flow hashing, eg …

Today's data centers offer tremendous aggregate bandwidth to clusters of tens of thousands
of machines. However, because of limited port densities in even the highest-end switches …

Recently new data center topologies have been proposed that offer higher aggregate
bandwidth and location independence by creating multiple paths in the core of the network …

In this paper we present pFabric, a minimalistic datacenter transport design that provides
near theoretically optimal flow completion times even at the 99th percentile for short flows …

Data center networks leverage multiple parallel paths connecting end host pairs to offer high
bisection bandwidth for cluster computing applications. However, state of the art routing …

We present, pFabric, a minimalistic datacenter fabric design that provides near-optimal
performance in terms of completion time for high-priority flows and overall network …

Data center networks demand high-performance, robust, and practical data plane load
balancing protocols. Despite progress, existing work falls short of meeting these …