Superradiant Decay of Cyclotron Resonance of Two-Dimensional Electron Gases.
Abstract not provided.
Reno, John Louis↗
Engineering topics
Reno, John Louis
Publications and source records attributed to Reno, John Louis.
Magnetic Field Induced Direct-to-indirect Band Gap Energy Crossover in AlxGa1-xAs.
Abstract not provided.
Reno, John Louis↗
Transmission of THz pulses through 3um apertures: applications for near-field microscopy.
Abstract not provided.
Brener, Igal↗
Broadband all-electronically tunable terahertz quantum cascade lasers.
Abstract not provided.
Reno, John Louis↗
Terahertz near-field probe incorporating a lambda/100 aperture for time-domain spectroscopy and imaging.
Abstract not provided.
Brener, Igal↗
An Electrically Driven Terahertz Modulator with over 20 dB of Dynamic Range.
Abstract not provided.
Brener, Igal↗
3?m aperture probes for near-field terahertz transmission microscopy.
Abstract not provided.
Brener, Igal↗
Few-Hole Double Quantum Dot in an Undoped GaAs/AlGaAs Heterostructure.
Abstract not provided.
Tracy, Lisa A↗
Heterodyne mixers monolithically integrated with quantum cascade laser local oscillators.
Abstract not provided.
Wanke, Michael Clement↗
Electronic Control of Coupled Defect and Surface States in 2D Plasmonic Crystals.
Abstract not provided.
Dyer, Gregory Conrad↗
Design and MBE Growth Considerations for THz Quantum Cascade Lasers.
Abstract not provided.
Reno, John Louis↗
Tunable Plasmonic Crystals Induced from a Two Dimensional Electron Gas.
Abstract not provided.
Dyer, Gregory Conrad↗
Electronic Control of Coupled Defect and Surface States in 2D Plasmonic Crystals.
Abstract not provided.
Dyer, Gregory Conrad↗
Epsilon-Near-Zero (ENZ) Subwavelength Optoelectronics: Electrically Tunable ENZ Strong Coupling.
Abstract not provided.
Jun, Young Chul↗
Copy of Tunable Plasmonic Crystals Engineered from a Two Dimensional Electron Gas.
Abstract not provided.
Dyer, Gregory Conrad↗
High-mobility 2D hole systems for quantum computing applications
One of the leading candidates for a solid-state quantum bit is the spin of a single electron confined in a semiconductor. Coherent control of individual electron spins has already been demonstrated in quantum dots in high-mobility 2D electron systems in GaAs/AlGaAs heterostructures. The major source of decoherence in such experiments is coupling between electron spins and nuclear spins in the host GaAs semiconductor. It has been proposed that hole spins in GaAs would be better suited for such experiments due to a lesser coupling between hole and nuclear spins. Building on recent successes in the growth of high-mobility 2D hole systems (2DHS) via carbon doping of (100) oriented GaAs/AlGaAs heterostructures, we have developed 2DHS at Sandia to enable experiments investigating the physics of hole spins in GaAs, looking towards eventual applications in the area of quantum computing.
Tracy, Lisa A.↗