The fundamental quantum-mechanical nature of spin makes it an ideal candidate for use as a quantum bit, the basic unit of information in a quantum computing architecture. Individual spins may be initialized, coherently controlled, and read out using a variety of optical and electronic techniques. In particular, point defects in crystals have many analogous properties to atoms trapped in vacuum, including localized electronic states and sharp optical and spin transitions. In certain defects, electronic spin states are insulated from lattice dynamics, leading to long quantum coherence times that persist even up to room temperature.
NV-Magnon Systems
Nanoscale Sensing with Spins
- Mapping Photocurrents in 2D Materials
- Vector Magnetometry Using Spins in DiamondVector Magnetometry Using Spins in Diamond
- Magnetic Sensing with Optically Trapped Nanodiamonds
- Measurement and Control of Single Spins in Diamond Above 600 K
- Fluorescence Thermometry Enhanced by the Quantum Coherence of Single Spins in Diamond
Growing and Spin Engineering Diamond
- Delta-Doping of NV Centers
- 3D Localization of NV Centers
- Engineered Nanodiamonds for Sensing Applications
- Strain Relaxation in Nanodiamonds using Bragg Coherent Diffraction Imaging
Creating and Controlling Single Spins
- The Nitrogen Vacancy Center in Diamond
- Single Spin Spectroscopy
- Polarization of Coupled Single Spins
- Excited-State Spectroscopy Using Single Spin Manipulation
- Storing Charge in Single-Crystal Diamond
- Chip-Scale Nanofabrication of Single Spins and Spin Arrays in Diamond
- Gigahertz Dynamics of a Strongly Driven Single Quantum Spin
- Calibration of Spin Rotation Using Adiabatic Passage
Quantum Optical Systems
- Spin-light Coupling for Coherent Measurement and Optical Control of Individual Spins
- Electrical Tuning of Nitrogen-Vacancy Center Optical Transitions
- All-Optical Control of a Single Spin Employing Coherent Dark States
- Ultrafast Control of Spin and Orbital Dynamics
- Lambda Systems for Geometric and Superadiabatic Control
- All-Optical Holonomic Single-Qubit Gates