Possible realization of entanglement, logical gates, and quantum-information transfer with superconducting-quantum-interference-device qubits in cavity QED
Chui-Ping Yang, Shih-I Chu, Siyuan Han
DOI 10.1103/PhysRevA.67.042311 · Physical Review A
Active bibliographic source — not scientific approval
Bibliographic access preserves source history; it does not approve extracted materials or validate reported claims. Review warnings on each occurrence separately.
Abstract
We present a scheme to achieve maximally entangled states, controlled phase-shift gate, and SWAP gate for two superconducting-quantum-interference-device (SQUID) qubits, by placing SQUIDs in a microwave cavity. We also show how to transfer quantum information from one SQUID qubit to another. In this scheme, no transfer of quantum information between the SQUIDs and the cavity is required, the cavity field is only virtually excited and thus the requirement on the quality factor of the cavity is greatly relaxed.
Similar papers
Quantum Information Transfer and Entanglement with SQUID Qubits in Cavity QED: A Dark-State Scheme with Tolerance for Nonuniform Device Parameter
similarity 0.95Chui-Ping Yang et al.
Source status unknown — claims are unverified
Arbitrary rotation and entanglement of flux SQUID qubits
similarity 0.94Zsolt Kis & Emmanuel Paspalakis
Source status unknown — claims are unverified
Implementing an ancilla-free 1→M economical phase-covariant quantum cloning machine with superconducting quantum-interference devices in cavity QED
similarity 0.92Long-Bao Yu et al.
Source status unknown — claims are unverified
Preparation of Greenberger-Horne-Zeilinger entangled states with multiple superconducting quantum-interference device qubits or atoms in cavity QED
similarity 0.92Chui-Ping Yang & Siyuan Han
Source status unknown — claims are unverified
Generation of N-qubit W states with rf SQUID qubits by adiabatic passage
similarity 0.92Z. J. Deng et al.
Source status unknown — claims are unverified
Arbitrary rotation and entanglement of flux SQUID qubits
similarity 0.91Z. Kis & E. Paspalakis · 2003 · arXiv:quant-ph/0311027
Source status unknown — claims are unverified