We demonstrate a Josephson parametric amplifier design with a band-pass impedance-
matching network based on a third-order Chebyshev prototype. We measured eight …

Parametric amplifiers have become a workhorse in superconducting quantum computing;
however, research and development of these devices has been hampered by inconsistent …

High-fidelity quantum non-demolition qubit measurement is critical to error correction and
rapid qubit feedback in large-scale quantum computing. High-fidelity readout requires …

We develop and demonstrate a trainable temporal postprocessor (TPP) harnessing a simple
but versatile machine learning algorithm to provide optimal processing of quantum …

Low-noise microwave amplifiers are crucial for detecting weak signals in quantum
technologies and radio astronomy. Building an ideal device is challenging as it must amplify …

Quantum computing with superconducting circuits relies on high-fidelity driven nonlinear
processes. An ideal quantum nonlinearity would selectively activate desired coherent …

Superconducting traveling wave parametric amplifiers (TWPAs) are broadband near-
quantum limited microwave amplifiers commonly used for qubit readout and a wide range of …

This paper is devoted to the use of quantum integrated circuits based on superconducting
artificial atoms to solve quantum machine learning problems. The process of designing such …

Obstacles to the two-line Josephson traveling wave parametric amplifier (JTWPA) designs,
aimed at increasing the allowed pump wave energy and, hence, the gain growth through the …

By utilizing the quantum-mechanical nature of information, quantum computers can execute
algorithms that have no equivalent in classical computing. Most known quantum algorithms …