The theoretical and experimental aspects of the microwave, terahertz, and infrared
properties of superconductors are discussed. Electrodynamics can provide information …

Spin-based silicon quantum dots are an attractive qubit technology for quantum information
processing with respect to coherence time, control, and engineering. Here we present an …

The concept of mass generation by means of the Higgs mechanism was strongly inspired by
earlier works on the Meissner–Ochsenfeld effect in superconductors. In quantum field …

Superconducting thin films with high intrinsic kinetic inductance are of great importance for
photon detectors, achieving strong coupling in hybrid systems, and protected qubits. We …

Recent experiments with metallic nanowires devices seem to indicate that superconductivity
can be controlled by the application of electric fields. In such experiments, critical currents …

One major challenge to scaling quantum dot qubits is the dense wiring requirements,
making it difficult to envision fabricating large 2D arrays of nearest-neighbor-coupled qubits …

Closed-loop optimization of epitaxial titanium nitride (TiN) thin-film growth was
accomplished using metal-organic molecular beam epitaxy (MO-MBE) combined with a …

Recently, the THz spectroscopy has been efficiently used to investigate varieties of quantum
materials, including superconductors, novel magnetic, and topological materials. These …

Time reversal symmetry (TRS) breaking often generates exotic quantum phases in
condensed matter. In superconductors, TRS breaking by an external magnetic field not only …

Hybridizing a microwave mode with a quantum state requires precise frequency matching of
a superconducting microwave resonator and the corresponding quantum object. However …