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This study demonstrates a novel method for engineering sublinear optical responses in hydrogen atoms using tracking control, effectively bypassing conventional perturbative limits in nonlinear optics. By self-consistently determining the driving field from the evolving quantum state, researchers can enforce specific scaling relations between emitted and applied fields without prescribing fixed waveforms. This advancement expands the toolkit for strong-field quantum control, offering new pathways to manipulate atomic systems beyond standard polynomial nonlinearities.
Nonlinear Response via Sublinear Optics
arXiv:2607.19154v1 Announce Type: new Abstract: Sublinear optical response, in which the emitted field scales as a fractional power of the driving field, lies beyond the conventional perturbative hierarchy of nonlinear optics. Here, we show that such a response can be engineered in a hydrogen atom using tracking control. Rather than prescribing the driving waveform, the field is determined self-consistently from the evolving quantum state to enforce a chosen relation between the optical response and the applied field. We demonstrate accurate tracking for multiple exponents and scaling strengths, establishing that a single atomic system can be driven to realize a family of distinct sublinear responses. The calculations are enabled by a compact wave-packet continuum discretization that treats bound and continuum states on equal footing and is applied here, to the best of our knowledge, for the first time to strong-field optics and quantum control. These results establish tracking control as a general route to engineering optical responses beyond conventional polynomial nonlinearities.
Abstract:Sublinear optical response, in which the emitted field scales as a fractional power of the driving field, lies beyond the conventional perturbative hierarchy of nonlinear optics. Here, we show that such a response can be engineered in a hydrogen atom using tracking control. Rather than prescribing the driving waveform, the field is determined self-consistently from the evolving quantum state to enforce a chosen relation between the optical response and the applied field. We demonstrate accurate tracking for multiple exponents and scaling strengths, establishing that a single atomic system can be driven to realize a family of distinct sublinear responses. The calculations are enabled by a compact wave-packet continuum discretization that treats bound and continuum states on equal footing and is applied here, to the best of our knowledge, for the first time to strong-field optics and quantum control. These results establish tracking control as a general route to engineering optical responses beyond conventional polynomial nonlinearities.
arXiv:2607.19154 [quant-ph]
(or arXiv:2607.19154v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2607.19154 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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