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Autori principali: Arora, Harsh, Deshmukh, Jay, Das, Ansh, Vijay, R., Suri, Baladitya
Natura: Preprint
Pubblicazione: 2025
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Accesso online:https://arxiv.org/abs/2505.09322
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author Arora, Harsh
Deshmukh, Jay
Das, Ansh
Vijay, R.
Suri, Baladitya
author_facet Arora, Harsh
Deshmukh, Jay
Das, Ansh
Vijay, R.
Suri, Baladitya
contents It is well known that superconducting waveguides strongly attenuate the propagation of electromagnetic waves with frequencies beyond the superconducting gap. In circuit QED, the interaction between non-linear charge qubits and superconducting resonators invariably involves the qubit coupling to a large set of resonator modes. So far, strong dispersion effects near and beyond the superconducting-gap have been ignored in quantization models. Rather, it is assumed that the superconducting resonator behaves ideally across the large frequency intervals. We present a quantization approach which includes the superconducting frequency-dependent surface impedance and demonstrate that superconducting dispersion plays a role in determining the effective light-matter interaction cut-off.
format Preprint
id arxiv_https___arxiv_org_abs_2505_09322
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Light-Matter Interaction in dispersive Superconducting Circuit QED
Arora, Harsh
Deshmukh, Jay
Das, Ansh
Vijay, R.
Suri, Baladitya
Quantum Physics
It is well known that superconducting waveguides strongly attenuate the propagation of electromagnetic waves with frequencies beyond the superconducting gap. In circuit QED, the interaction between non-linear charge qubits and superconducting resonators invariably involves the qubit coupling to a large set of resonator modes. So far, strong dispersion effects near and beyond the superconducting-gap have been ignored in quantization models. Rather, it is assumed that the superconducting resonator behaves ideally across the large frequency intervals. We present a quantization approach which includes the superconducting frequency-dependent surface impedance and demonstrate that superconducting dispersion plays a role in determining the effective light-matter interaction cut-off.
title Light-Matter Interaction in dispersive Superconducting Circuit QED
topic Quantum Physics
url https://arxiv.org/abs/2505.09322