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This study presents a novel shooting-based optimization framework for generating smooth, experimentally viable control pulses in high-dimensional quantum systems, specifically targeting single-molecule magnet architectures. The authors demonstrate that their approach outperforms the standard GRAPE algorithm by efficiently decomposing complex quantum operations into practical electric pulse sequences. This advancement addresses critical challenges in scaling quantum technologies by improving gate fidelity and control precision in discrete quantum systems.
Fast and Smooth Quantum Unitary Control of High-Dimensional Spin-Qudits via a Shooting Technique
arXiv:2603.21689v4 Announce Type: replace Abstract: High-fidelity quantum control is a cornerstone of scalable quantum technologies. We introduce a shooting-based optimization framework that generates smooth, experimentally realistic control pulses for implementing quantum gates in discrete quantum systems. Through numerical simulations on realistic architectures inspired by single-molecule magnets, we demonstrate that our method efficiently decomposes target quantum operations into electric pulse sequences while outperforming the widely used GRAPE algorithm.
Abstract:High-fidelity quantum control is a cornerstone of scalable quantum technologies. We introduce a shooting-based optimization framework that generates smooth, experimentally realistic control pulses for implementing quantum gates in discrete quantum systems. Through numerical simulations on realistic architectures inspired by single-molecule magnets, we demonstrate that our method efficiently decomposes target quantum operations into electric pulse sequences while outperforming the widely used GRAPE algorithm.
arXiv:2603.21689 [quant-ph]
(or arXiv:2603.21689v4 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2603.21689 Focus to learn more arXiv-issued DOI via DataCite
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