Advancing autonomous, trustworthy, and reproducible AI agents across the edge–cloud–HPC continuum for scientific discovery at scale.
Agentic AI is rapidly moving from "chat with tools" prototypes to autonomous systems that can reason, plan, coordinate, and act across complex digital research ecosystems. For the eScience community, this shift represents the emergence of a new control plane for computational and data-driven research.
Agents can request allocations, launch ensembles, steer workflows, move PB-scale datasets, trigger experiment/compute co-scheduling, and generate decisions that impact scientific validity — spanning the computing continuum from instruments and autonomous laboratories to simulations, data centers, cloud systems, and leadership-class HPC.
Recent closed-loop campaigns have revealed gaps in hallucination detection and mitigation, scheduling visibility, energy accounting, and reproducibility guarantees. At scale, even minor errors or blind spots can escalate into megawatt-hour waste, irreproducibility, and compromised scientific validity.
AGENT4SC provides a dedicated forum to advance scalable architectures, cross-continuum coordination, evaluation frameworks, verification and mitigation strategies, provenance, and observability mechanisms before agentic systems become embedded in production research workflows.
Agents reshaping how researchers generate, validate, share, and reuse data and knowledge across distributed infrastructures.
How to bound agent actions, ensure auditability, define safety controls, and support human-in-the-loop oversight for long autonomous campaigns.
Scalable databases, vector stores, caching layers, provenance services, and knowledge graphs — performant and auditable under high concurrency.
AGENT4SC is intended to evolve into a recurring forum aligned with eScience's mission and the rapidly growing agentic AI community.
Data and execution models and design principles for agentic AI beyond LLMs at scale.
Agentic AI for cross-facility science spanning instruments, simulations, and learning across distributed infrastructure.
Planning and reasoning under extreme compute and data constraints for sustained scientific campaigns.
Databases, vector stores, caching layers, and knowledge graphs designed for agentic systems at scale.
Approval policies and escalation paths for long agentic workflow runs requiring steering and oversight.
Auditability, reproducibility, monitoring, tracking, debugging, and observability of agentic systems at scale.
Reliability and accountability mechanisms for agentic workflows operating in production scientific environments.
Verification, failure detection, mitigation, and recovery techniques for large-scale agent-driven systems.
Performance analysis and modeling for agentic systems under realistic scientific workloads.
Interfaces, schemas, protocols, frameworks, and execution models for cross-platform agent coordination.
Allocation and resource awareness under agent-driven control across heterogeneous systems.
Lessons from large-scale scientific deployments of agentic systems in production environments.
AGENT4SC invites original research papers, position papers, and experience reports on the systems foundations required to operationalize agentic AI in large-scale scientific environments. We encourage submissions from academia, national laboratories, industry, and operational HPC centers.
We welcome contributions on any of the key topics listed above, including but not limited to:
Papers must be submitted through EasyChair. When submitting the paper, make sure you select the track 1st Workshop on Agentic AI for Large-scale Science.
| Time | Activity |
|---|---|
| 9:00 – 9:10 |
Opening
Opening & Welcome Remarks
|
| 9:10 – 9:30 |
Full Paper
SPECTRA: Detecting Silent Failures in LLM Multi-Agent Systems via Dual-Layer Observability
|
| 9:30 – 9:50 |
Full Paper
Beyond the Session Boundary: Three Traces of Provenance in an Agent-Mediated Science Deployment
|
| 9:50 – 10:10 |
Full Paper
Multi-Agent Discovery and Resource-Aware Autonomous Exploration of Scientific Datasets
|
| 10:10 – 10:30 |
Full Paper
Beyond Tool Execution: Evaluating Scientific MCP Interfaces with UXarray
|
| 10:30 – 11:00 |
Break
☕ Coffee Break
|
| 11:00 – 11:05 |
Lightning
System Software Patterns for Agentic Scientific Codes in 2025
|
| 11:05 – 11:10 |
Lightning
Keeping the Agent Out of the Hot Loop: A Deterministic Control Plane for DFT Workflows Across HPC Centers
|
| 11:10 – 11:15 |
Lightning
A Reliable Closed-Loop Agent for Autonomous Center-of-Rotation Selection in Synchrotron Computed Tomography
|
| 11:15 – 11:20 |
Lightning
QUANTA: Quantum Network AgenTic Arena
|
| 11:20 – 12:20 |
Panel
Panel Discussion
|
| 12:20 – 12:30 |
Closing
Closing Remarks
|

Research Scientist in the Workflow Systems Group at Los Alamos National Laboratory, bridging traditional HPC with emerging data-driven disciplines through data and workflow management, performance optimization, resiliency, and runtime systems design. She co-led the Data Understanding thrust in the RAPIDS SciDAC project and led the Self-improving AI Models thrust in the Genesis project. Previously at Oak Ridge National Laboratory and Research Assistant Professor at Vanderbilt University; Ph.D. from the University of Illinois at Urbana-Champaign.

Arthur Holly Compton Distinguished Service Professor of Computer Science at UChicago, and Senior Scientist and Distinguished Fellow at Argonne National Laboratory, where he directs the Data Science and Learning Division. His research focuses on distributed, parallel, and data-intensive computing technologies, with applications spanning materials science, climate change, and biomedicine. Fellow of the AAAS, ACM, BCS, and IEEE, and an Office of Science Distinguished Scientists Fellow.

Research scientist at UC San Diego, Chief Data Science Officer of the San Diego Supercomputer Center, and Founding Director of the Societal Computing and Innovation Lab (SCIL). Her research focuses on making computational data science and AI more reusable, programmable, scalable, accessible, and reproducible through scientific workflows and scalable computing systems. Founder of the WIFIRE Program for wildland fire innovations and PI of the NSF National Data Platform; Ph.D. from the University of Amsterdam.

AT&T Eminent Scholar and Professor of Electrical and Computer Engineering at the University of Florida, where he founded and directs the Advanced Computing and Information Systems (ACIS) Laboratory. He has authored or coauthored over 250 technical papers and is the principal investigator and Steering Committee Chair of the CENTRA collaborative. Fellow of both the IEEE and the AAAS, and UF's 2019–2020 Teacher/Scholar of the Year.

Assistant Computer Scientist at ANL (MCS), focusing on data management for HPC+AI workflows and agentic AI systems, with emphasis on vector databases, provenance-aware architectures, and trustworthy, scalable data infrastructures across heterogeneous environments. Ph.D. from Université Grenoble Alpes.

Computer Scientist at ANL (MCS) specializing in large-scale distributed storage, fault tolerance, and data-intensive computing. Expert in checkpointing, metadata decentralization, and storage virtualization for HPC and cloud systems. Ph.D. from University of Rennes 1 (France); prior research roles at Huawei Research Germany and IBM Research Ireland.

Tech lead, senior software engineer and research scientist of intelligent data and AI platforms to accelerate scientific discovery. 15+ years of experience at IBM Research, ORNL, SLAC, and UFRJ. Focus on scalable, low-latency, observable, provenance- and metadata-first architectures. Author of 50+ papers and holder of 10+ USPTO patents.