The integration combines DAGonStar’s orchestration capabilities with CAPIO’s efficient data handling to better support workflows operating on continuous or large-scale datasets and improves the responsiveness and flexibility of scientific workflows.
Artificial intelligence (AI) is increasingly embedded within scientific computing workflows that combine simulation, data processing, optimisation, visualisation and experimental or observational components. Learned models may serve as explicit workflow components, retain persistent state and, in adaptive settings, inf...
A two-week trace of 11.7 million requests from a large-scale production platform for general-purpose agents, backed by inference infrastructure comprising over 10k GPUs is analyzed to characterize the platform at three connected levels: task-level initiation semantics, workflow-level execution patterns, and infrastruct...
Yi-Hao Zheng, Jing-Zhe Jiang, De-Jiang Zhu et al.· 0 citations
This work validated dozens of production agent configurations across five orchestration patterns: single-inference RAG, iterative ReAct, compositional PreAct, conditional routing, and multi-agent deep research, and found no detectable difference in output quality.
T. Gopinath, Atul Kulkarni, V. Rajakumar et al.· 0 citations
High-energy physics analyses increasingly rely on complex software workflows whose scientific lifetime often exceeds that of the underlying software ecosystem. Maintaining reproducibility while accommodating evolving analysis software, data formats, and execution environments therefore remains a significant challenge....
L. Kreczko· 0 citations
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