Framework 2024
k-agents: knowledge-based agents for quantum laboratory experiments
k-agents uses LLM-based agents to organize laboratory knowledge and automate multi-step experimental procedures, demonstrated by the authors on a superconducting quantum processor.
Workflow level n/a Source: Peer-reviewed source
Research applicability
A concrete design pattern for organizing experimental knowledge and turning LLM-agent procedures into bounded closed-loop laboratory workflows.
Getting started
Editorial, untested: read the arXiv record and complete methods, identify available laboratory operations and analysis functions, and assess safety and access controls before any experimental integration.
Maintenance
Accessed 2026-10-17; operational maintenance, hosting and compatibility not tested.
License
Permissions for article, code and data reuse must be checked separately; no general open-licence or redistribution claim.
Workflow & human oversight
Workflow level intentionally unspecified for a reusable component or conceptual reference; researcher oversight and task-specific validation remain necessary.
Workflow level is not an evidence score; higher is not better evidence.
Approach
Agents encapsulate available operations and analysis methods. Execution agents turn procedures into agent-based state machines, execute steps with other agents, and use analyzed experimental results to drive state transitions and closed-loop feedback.
Limitations
ArXiv v2 abstract reviewed for the promoted framework description; independent AI audit additionally checked official Patterns publication metadata and selected excerpts, not the complete article. Agent prompts, integration setup, model access, runtime costs and safety controls were not inspected as an executable recipe. Calibration and entangled-state results are author-reported, not reproduced.
Reproducibility
No installation, code execution or outcome reproduction. Source reading and quote verification are not experimental replication.
Adoption requirements
The described application involves laboratory-operation interfaces, analysis methods and a superconducting quantum processor. Exact integration dependencies and model costs were not established from the abstract.
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