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Decoherence, control, and encoding of coupled solid-state quantum bits
Decoherence, control, and encoding of coupled solid-state quantum bits
In this thesis the decoherence properties, gate performance, control of solid-state quantum bits (qubits), and novel design proposals for solid-state qubits analogous to quantum optics are investigated. The qubits are realized as superconducting nanocircuits or quantum dot systems. The thesis elucidates both very appealing basic questions, like the generation and detection of deeply nonclassical states of the electromagnetic field, i.e., single photon Fock states, in the solid-state, but also presents a broad range of different strategies to improve the scalability and decoherence properties of solid-state qubit setups.
superconductivity, superconducting qubit, solid-state qubit, flux qubit, charge qubit, decoherence, optimal control, coupled qubits
Storcz, Markus J.
2005
English
Universitätsbibliothek der Ludwig-Maximilians-Universität München
Storcz, Markus J. (2005): Decoherence, control, and encoding of coupled solid-state quantum bits. Dissertation, LMU München: Faculty of Physics
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Abstract

In this thesis the decoherence properties, gate performance, control of solid-state quantum bits (qubits), and novel design proposals for solid-state qubits analogous to quantum optics are investigated. The qubits are realized as superconducting nanocircuits or quantum dot systems. The thesis elucidates both very appealing basic questions, like the generation and detection of deeply nonclassical states of the electromagnetic field, i.e., single photon Fock states, in the solid-state, but also presents a broad range of different strategies to improve the scalability and decoherence properties of solid-state qubit setups.