To implement quantum information processing, microwave fields are often used to manipulate superconuducting qubits. We study how the coupling between superconducting charge qubits can be controlled by variable-frequency magnetic fields. We also study the effects of the microwave fields on the readout of the charge-qubit states. The measurement of the charge-qubit states can be used to demonstrate the statistical properties of photons
Experiments with superconducting circuits require careful calibration of the applied pulses and fiel...
Coupling double-quantum-dot circuits to microwave cavities provides a powerful means to control, cou...
Generating high-fidelity, tunable entanglement between qubits is crucial for realizing gate-based qu...
Superconducting circuits and devices have unique properties that make them interesting from both the...
We study a superconducting charge qubit coupled to an intensive electromagnetic field and probe chan...
PhD Thesis: Superconducting circuit quantum electrodynamics (QED) has developed into a powerful pla...
We analyze the dynamics of a continuously observed, damped, microwave-driven solid state charge qubi...
A theoretical spectroscopic analysis of a microwave driven superconducting charge qubit (Cooper-pair...
We have studied the quantum dynamics of a superconducting circuit based on a dc-SQUID coupled to a h...
We theoretically investigate selective coupling of superconducting charge qubits mediated by a super...
We have fabricated a Josephson charge qubit by capacitively coupling a single-Cooper-pair box (SCB) ...
In this thesis, we will present the theoretical and experimental work that led to the realization of...
We use a superconducting microresonator as a cavity to sense absorption of microwaves by a supercond...
Circuit quantum electrodynamics (cQED) is a prominent platform for quantum information processing, i...
Real-time monitoring of a quantum state provides powerful tools for studying the backaction of quant...
Experiments with superconducting circuits require careful calibration of the applied pulses and fiel...
Coupling double-quantum-dot circuits to microwave cavities provides a powerful means to control, cou...
Generating high-fidelity, tunable entanglement between qubits is crucial for realizing gate-based qu...
Superconducting circuits and devices have unique properties that make them interesting from both the...
We study a superconducting charge qubit coupled to an intensive electromagnetic field and probe chan...
PhD Thesis: Superconducting circuit quantum electrodynamics (QED) has developed into a powerful pla...
We analyze the dynamics of a continuously observed, damped, microwave-driven solid state charge qubi...
A theoretical spectroscopic analysis of a microwave driven superconducting charge qubit (Cooper-pair...
We have studied the quantum dynamics of a superconducting circuit based on a dc-SQUID coupled to a h...
We theoretically investigate selective coupling of superconducting charge qubits mediated by a super...
We have fabricated a Josephson charge qubit by capacitively coupling a single-Cooper-pair box (SCB) ...
In this thesis, we will present the theoretical and experimental work that led to the realization of...
We use a superconducting microresonator as a cavity to sense absorption of microwaves by a supercond...
Circuit quantum electrodynamics (cQED) is a prominent platform for quantum information processing, i...
Real-time monitoring of a quantum state provides powerful tools for studying the backaction of quant...
Experiments with superconducting circuits require careful calibration of the applied pulses and fiel...
Coupling double-quantum-dot circuits to microwave cavities provides a powerful means to control, cou...
Generating high-fidelity, tunable entanglement between qubits is crucial for realizing gate-based qu...