Exploring Nanoscale Josephson Junctions in the Limits of High and Low Charging Energy.
Abstract not provided.
Skinner Ramos, Sueli↗
Engineering topics
Harris, Charles
Publications and source records attributed to Harris, Charles.
Graphene Heterostructure Field Effect Transistors Encapsulated by Isotopically Pure Hexagonal Boron Nitride.
Abstract not provided.
Behera, Aroop↗
The Influence of Atomic-Scale Defects on Thermal Transport in MoS2.
Abstract not provided.
Chen, Pingping↗
Losses in superconducting circuits fabricated on thin silicon membranes for hybrid quantum systems integration.
Abstract not provided.
Kindel, William↗
Charge Inhomogeneity Mediated Low-Frequency Noise in Encapsulated Graphene Field Effect Transistors.
Abstract not provided.
Behera, Aroop↗
Investigating Bi2Se3 Plasmons using Terahertz Near Field Spectroscopy .
Abstract not provided.
Hale, Lucy↗
Using Superconductive Resonators to Characterize Charge Noise in Oxides.
Abstract not provided.
Skinner Ramos, Sueli↗
In-Situ Ion Counting for Deterministic Placement of Single Photon Emitters.
Abstract not provided.
Titze, Michael↗
Nanoscience Research at the Center for Integrated Nanotechnologies .
Abstract not provided.
Harris, Charles↗
A Fast-Cycle Charge Noise Measurement for Better Qubits
Defects in materials are an ongoing challenge for quantum bits, so called qubits. Solid state qubits—both spins in semiconductors and superconducting qubits—suffer from losses and noise caused by two-level-system (TLS) defects thought to reside on surfaces and in amorphous materials. Understanding and reducing the number of such defects is an ongoing challenge to the field. Superconducting resonators couple to TLS defects and provide a handle that can be used to better understand TLS. We develop noise measurements of superconducting resonators at very low temperatures (20 mK) compared to the resonant frequency, and low powers, down to single photon occupation.
36 MATERIALS SCIENCE↗