Floquet Engineering of Two Weakly Coupled Superconducting Flux Qubits
Wan-Lu Song (宋婉露), Jia-Bin You (游佳斌), J.K. Xu (徐家坤), W.L. Yang (杨万里), Jun-Hong An (安钧鸿)
DOI 10.1103/PhysRevApplied.14.054049 · Physical Review Applied
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Abstract
We explore the periodically driven dynamics of two weakly coupled flux qubits and propose a scheme to generate a maximally entangled state based on Floquet engineering. The periodic driving modifies the quasienergy spectrum of the system and induces crossing of quasienergies, and the weak coupling between them lifts the degeneracy of quasienergies. It is found that the phenomena of entanglement resonance of Floquet state appear at certain values of the driving parameters, which could be demonstrated by virtue of the Rabi-frequency spectrum and average concurrence during one driving period. Our scheme relaxes the experimental difficulty in adjusting the static parameters of the system to establish entanglement, and may open interesting perspectives for devising active decoherence-immune quantum-information devices.
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