Two new open-system approaches (Lanczos supermode expansion and Markovian master equation) model non-linear quantum soliton dynamics, capturing phase shifts and photon loss beyond linearization.
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5 Pith papers cite this work. Polarity classification is still indexing.
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Pith papers citing it
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quant-ph 5years
2026 5verdicts
UNVERDICTED 5representative citing papers
First multimode quantum model of pure-Kerr PDCS predicts single- and two-mode squeezing plus quantum dispersive waves, with up to 20 dB squeezing limited by losses.
A continuous-mode quantum optics theory unifies standard quantum limits for optical frequency division and dual-comb spectroscopy and outlines routes to engineered quantum enhancement.
A FROG technique employing parametric amplification is proposed and validated via numerical simulations to recover temporal mode shapes and squeezing levels of multimode ultrafast squeezed states.
Squeezing-induced symmetry breaking exponentially amplifies nonreciprocity in cavity-reservoir systems, boosting quantum battery metrics and optical isolation by orders of magnitude.
citing papers explorer
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Quantum Optical Soliton Dynamics Beyond Linearization: An Open-System Approach
Two new open-system approaches (Lanczos supermode expansion and Markovian master equation) model non-linear quantum soliton dynamics, capturing phase shifts and photon loss beyond linearization.
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Quantum Dispersive Waves and Multimode Squeezing in Pure-Kerr Parametrically Driven Cavity Solitons
First multimode quantum model of pure-Kerr PDCS predicts single- and two-mode squeezing plus quantum dispersive waves, with up to 20 dB squeezing limited by losses.
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Continuum-field quantum optics of frequency comb metrology
A continuous-mode quantum optics theory unifies standard quantum limits for optical frequency division and dual-comb spectroscopy and outlines routes to engineered quantum enhancement.
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Frequency resolved optical gating using parametric amplification for characterizing ultrafast temporally multimode squeezed states
A FROG technique employing parametric amplification is proposed and validated via numerical simulations to recover temporal mode shapes and squeezing levels of multimode ultrafast squeezed states.
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Enhancing Nonreciprocity through Squeezing-Induced Symmetry Breaking
Squeezing-induced symmetry breaking exponentially amplifies nonreciprocity in cavity-reservoir systems, boosting quantum battery metrics and optical isolation by orders of magnitude.