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This Osaka team demonstrates how LLM-driven agentic systems can autonomously generate variational quantum circuits that outperform classical kernels and rival established feature maps across seven molecules. The framework validates a scalable path for automated optimization in both quantum chemistry and machine learning, reducing reliance on manual human intuition for circuit architecture. By integrating knowledge gathering with code execution, this approach marks a significant step toward fully autonomous scientific workflows in the quantum domain.

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The University of Osaka Team Designs Autonomous Framework for Variational Quantum Circuit Design

Quantum Zeitgeist15 iunie 20266 min de cititArticolul și perspectiva sunt în engleză.

Previously, quantum circuit design relied entirely on human intuition and expertise. Now, an agentic system driven by large language models generates circuits that outperform existing quantum feature maps and, scaled up, exceed the performance of classical radial basis function kernels. Across seven molecules, the resulting designs achieve competitive accuracy with established methods, signalling a new approach to quantum optimisation.

Kenya Sakka and colleagues at The University of Osaka present an autonomous framework using large language models to iteratively design quantum circuits subject to specific constraints. The system, comprising seven integrated components for exploration, generation, and evaluation, combines online knowledge gathering with code execution and experimental results. It offers a viable pathway towards automated quantum circuit design, achieving competitive performance in both quantum machine learning and quantum chemistry applications. The framework outperforms existing quantum feature maps and rivals established ansatz constructions, highlighting the potential for AI to contribute to iterative scientific optimisation. A learned ansatz outperforms representative quantum feature maps and surpasses the classical…

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