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Intel

Industry researchnorthamerica · us
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Representative Papers

Joint Time Series Chain: Detecting Unusual Evolving Trend across Time Series

Feb 14, 2026SDM

Existing time series chain methods are confined to individual sequences and struggle to capture anomalous evolution patterns across interruptions or related sequences. This work proposes a novel formulation—Joint Time Series Chain—that extends the concept of time series chains to cross-sequence scenarios for the first time. By leveraging subsequence similarity modeling, a cross-sequence alignment strategy, and a new chain-ranking criterion, the method efficiently uncovers robust anomalous evolution trends. Empirical evaluations demonstrate that the proposed approach significantly outperforms current state-of-the-art techniques across multiple datasets. Furthermore, it has been successfully deployed in an Intel manufacturing setting, where it effectively identifies complex anomalous patterns, showcasing its practical utility in real-world industrial applications.

6 citationsRead paper

Towards an efficient combination of adaptive routing and queuing schemes in Fat-Tree topologies

Jan 01, 2021J. Parallel Distributed Comput.

To address congestion and high tail latency caused by insufficient coordination between multipath routing and queue scheduling in Fat-Tree data center networks, this paper proposes a lightweight joint feedback framework that enables, for the first time, real-time co-adaptation of routing decisions and queue state. The method integrates a distributed adaptive routing algorithm—leveraging local link load and per-queue length—with ECN-enhanced Active Queue Management (AQM). This coupling supports buffer-aware dynamic path selection and fine-grained traffic steering. NS-3 evaluations demonstrate that, compared to ECMP+PIFO, the approach improves average throughput by 23%, reduces the 99.9th-percentile flow completion time by 41%, and incurs control overhead below 1.5%. The framework thus significantly enhances the trade-off between throughput and tail latency.

4 citationsRead paper

Towards Million-Server Network Simulations on Just a Laptop

May 26, 2021arXiv.org

To address the challenges of assessing non-shortest-path diversity in large-scale interconnection networks and the poor scalability of conventional packet-level simulators, this paper proposes a lightweight simulation framework tailored for extreme-scale networks. By identifying memory and event-scheduling bottlenecks in mainstream simulators, we introduce three core techniques: compact data structures, lazily bound event queues, and lock-free memory pools—significantly reducing both memory footprint and synchronization overhead. Our framework enables fine-grained, packet-level simulation of data center and HPC networks with over one million endpoints on a single commodity laptop, achieving a throughput of 10 million packets per second—three orders of magnitude higher than state-of-the-art shared-memory simulators. The open-source framework supports rapid prototyping and validation of novel interconnect protocols, providing a reproducible, high-fidelity foundation for path diversity analysis and performance optimization in ultra-large-scale networks.

3 citationsRead paper

Tensor Algebra Processing Primitives (TAPP): Towards a Standard for Tensor Operations

Jan 12, 2026

The absence of a unified tensor operation interface leads to tight coupling between applications and hardware, hindering performance portability and dependency management. This work proposes TAPP—a C-based Tensor Algebra Processing Primitives interface—that decouples applications from underlying implementations through formal modeling of tensor contraction operations. TAPP represents the first community-driven standard for general-purpose tensor operations, jointly endorsed by academia and industry. It provides a reference implementation and has been successfully integrated into widely used libraries and quantum chemistry software such as TBLIS, cuTENSOR, and DIRAC, demonstrating its feasibility, cross-platform portability, and effectiveness in simplifying software ecosystems.

1 citationsRead paper
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