aiqbench analysis
NetBurst addresses a critical gap in time-series forecasting by shifting focus from dense, periodic benchmarks to the "wild" regime of network telemetry characterized by rare events and heavy-tailed bursts. By collapsing inactive periods and learning a unified representation for forecasting, anomaly detection, and historical retrieval, the model significantly outperforms strong baselines like Amazon's Chronos-2 and Datadog's Toto in production environments. This approach offers network operators a more interpretable and efficient tool for managing infrastructure under realistic, intermittent load conditions.
NetBurst: Event-Centric Forecasting of Bursty, Intermittent Time Series
arXiv:2510.22397v2 Announce Type: replace-cross Abstract: Network operators monitor their infrastructure by collecting telemetry data such as packet counts, byte rates, or flow volumes, yet answering the questions that effective operations demand -- forecasting future load, diagnosing and characterizing anomalies, and searching for and retrieving historical precedents -- requires more than raw measurements. Bridging this gap calls for learned representations: compact per-entity summaries that capture temporal dynamics from each entity's univariate time series. Time-series foundation models are the natural starting point, but they are designed for dense, periodic benchmark datasets -- the \emph{mild} statistical regime. However, network telemetry data inhabits the \emph{wild} regime: operationally relevant events are rare, separated by variable-length stretches of low or no activity (``ebbs''), with intermittent bursts of heavy-tailed extremes (``tides''). We present NetBurst, an event-centric pipeline that collapses ebbs, separates each time series into a stream of burst timings and a stream of burst magnitudes, and learns a single representation serving all three operational tasks. Compared to the strongest competitors among eight baselines -- including Amazon's Chronos-2 and Datadog's Toto -- and across nine production telemetry configurations, NetBurst reduces median forecasting error by $1.3$--$116\times$ on wild-regime data with a $1.0$--$7.5\times$ better match to the true burst distribution, and matches baselines on mild-regime benchmarks. For characterizing anomalies, NetBurst produces balanced, well-spread clusters that are $16\times$ more describable in operator-familiar terms under a novel interpretability score, and cluster-filtered search delivers $7.5\times$ faster end-to-end retrieval.
Abstract:Network operators monitor their infrastructure by collecting telemetry data such as packet counts, byte rates, or flow volumes, yet answering the questions that effective operations demand -- forecasting future load, diagnosing and characterizing anomalies, and searching for and retrieving historical precedents -- requires more than raw measurements. Bridging this gap calls for learned representations: compact per-entity summaries that capture temporal dynamics from each entity's univariate time series. Time-series foundation models are the natural starting point, but they are designed for dense, periodic benchmark datasets -- the \emph{mild} statistical regime. However, network telemetry data inhabits the \emph{wild} regime: operationally relevant events are rare, separated by variable-length stretches of low or no activity (``ebbs''), with intermittent bursts of heavy-tailed extremes (``tides''). We present NetBurst, an event-centric pipeline that collapses ebbs, separates each time series into a stream of burst timings and a stream of burst magnitudes, and learns a single representation serving all three operational tasks. Compared to the strongest competitors among eight baselines -- including Amazon's Chronos-2 and Datadog's Toto -- and across nine production telemetry configurations, NetBurst reduces median forecasting error by $1.3$--$116\times$ on wild-regime data with a $1.0$--$7.5\times$ better match to the true burst distribution, and matches baselines on mild-regime benchmarks. For characterizing anomalies, NetBurst produces balanced, well-spread clusters that are $16\times$ more describable in operator-familiar terms under a novel interpretability score, and cluster-filtered search delivers $7.5\times$ faster end-to-end retrieval.
Networking and Internet Architecture (cs.NI); Machine Learning (cs.LG)
arXiv:2510.22397 [cs.NI]
(or arXiv:2510.22397v2 [cs.NI] for this version)
https://doi.org/10.48550/arXiv.2510.22397 Focus to learn more arXiv-issued DOI via DataCite
arXivLabs is a framework that allows collaborators to develop and share new arXiv features directly on our website.
Both individuals and organizations that work with arXivLabs have embraced and accepted our values of openness, community, excellence, and user data privacy. arXiv is committed to these values and only works with partners that adhere to them.
Have an idea for a project that will add value for arXiv's community? Learn more about arXivLabs.
Full text under the publisher's open licence · 328 words
Related coverage

Vertical Advantage: Transforming Industries with Lakebase and Agentic AI
Databricks · Aug 27, 2026
Beyond Numerical Time Series: A Unified Benchmark for Multimodal Forecasting with Heterogeneous Context
arXiv · Sep 16, 2026
DI Series: Serving Kimi-K3 MXFP4 Wide-EP Disaggregated on AMD Instinct MI300X and MI325X
AMD · Oct 8, 2026
MissHyper: Restoring Clinical Synchronicity in Missingness-Guided Hypergraph Forecasting
arXiv · Jul 27, 2026