A single autoregressive neural model now learns molecular ground states from sparse anchor geometries, achieving chemical accuracy at untrained configurations with 25.8× GPU-cost reduction compared to independent optimization.

A single autoregressive neural model now learns molecular ground states from sparse anchor geometries, achieving chemical accuracy at untrained configurations with 25.8× GPU-cost reduction compared to independent optimization.
Bridging quantum computing and AI: Neural embeddings boost quantum ML accuracy on real hardware; margin theory explains generalization; Mamba decoder scales QEC decoding from O(d⁴) to O(d²) complexity for fault-tolerant quantum computers.
Identifies geometric inflation of QGT null-space rotation as root cause of NQS accuracy failures in quantum dynamics. Proposes mean null-space rotation angle as diagnostic tool to predict and prevent inaccuracy in time evolution algorithms.
Interpolation sampling method enables neural quantum states to accurately propagate quantum dynamics from extremely sparse initial states, overcoming fundamental limitations that previously made such simulations intractable.