Spintronics, the storage and transport of electronic spins in semiconductor devices may revolutionize the electronic device industry, with spin based transistors, memories, and opto-electronic devices replacing their charge-based counterparts. For instance, giant and tunnel magnetoresistance effects are already used in modern hard drives, and non-volatile spin-logic devices are being studied for inclusion in future computers. Ultimately, spintronics could bring practical logic and memory down to the single electron spin level.
Spin Coherence in Semiconductors
- Electron Spin Coherence
- GaN
- GaAs
- II-VI Materials
- Macroscopic Transport of Spin Coherence
- Room Temperature Spin Coherence in ZnO
Spins and Spin Coherence in Semiconductor Nanostructures
- Nondestructive Optical Measurement of a Single Electron Spin
- Coherent Dynamics of a Single Electron Spin
- Ultrafast Single Spin Manipulation
- Ultrafast Manipulation of Electron Spin Coherence
- Spin Coherence in Microcavities
Spin Injection and Transport
- Electrical Spin Injection from a Ferromagnet
- Spontaneous Spin Transfer
- Biased Spin Transfer
- Local Electrical and Optical Control of Spins During Transport
Electrical Control of Spins
- Electrical Control of Spin Coherence
- g-Tensor Modulation Resonance
- Spin Manipulation without Magnetic Fields in Strained Semiconductors
- Current-Induced Spin Polarization
- Spin Hall Effect in Semiconductors
- Spin Hall Effect in Two-dimensional Electron Gases
- Electrical Control of Spin Coherence in ZnO
Quantum Dots and Molecular Spintronics
- Chemically Synthesized Nanostructures
- Molecular Bridges Between Quantum Dots
- Electrochemically Charged Quantum Dots
- InAs Self Assembled Quantum Dots