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Bulletin of the American Physical Society

Theoretical and Experimental Studies of Circuit QED Systems (Part II)

Frank Deppe, M. Mariantoni, Shiro Saito, Takayoshi Meno, Kouichi Semba, Hideaki Takayanagi, Rudolf Groß

Published Mar 6, 2007• 0 citations
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This dissertation deals with the electron-photon interplay in hybrid circuit QED structures. The aim is to provide a framework in which this interplay can be understood and to predict experimentally measurable transport effects. In addition an application of this interplay is proposed. The thesis is based on four paper listed below: Article I comprises an investigation of the transport-induced photon state in a system with a metallic dot coupled to a transmission line cavity. Article II is an investigation of the non-local transport properties of a DQD-cavity system. Article III is a proposal for a DQD-cavity heat engine. Article IV is a proposal for a pump-probe scheme for investigating the electron-photon dynamics in a DQD-cavity system.
We theoretically propose a circuit QED system implemented with a triple-leg stripline resonator (TSR). Unlike from a linear stripline resonator, the fundamental intracavity microwave modes of the TSR are twofold degenerate. When a superconducting qubit is placed near one of the TSR legs, one fundamental mode is directly coupled to the qubit, while the other one remains uncoupled. Using our circuit QED system, we have theoretically studied a two-qubit quantum gate operation in a hybrid qubit composed of a flying microwave qubit and a superconducting qubit. We have demonstrated that, for the hybrid qubit, the quantum controlled phase flip gate can be reliably implemented for the experimentally available set of parameters.