Description
Book SynopsisBy exploiting the novel properties of quantum dots and nanoscale Aharonov–Bohm rings together with the electronic and magnetic properties of various semiconductor materials and graphene, researchers have conducted numerous theoretical and computational modeling studies and experimental tests that show promising behavior for spintronics applications. The book provides researchers investigating this cutting-edge field with detailed background descriptions of spin-based effects and devices and their theoretical analysis in nanoelectronic circuits.
Table of ContentsSpin-Polarized Transport in Quantum Dots System with Rashba Spin-Orbit Interaction. Optical Properties of Spins in Coupled Semiconductor Quantum Dots. Triangular Triple Quantum Dots Driven by AC Magnetic Fields. Spin Polarized Transmission through Single and Double Aharanov-Bohm Rings with Embedded Quantum Dots. Atomistic Tight-Binding Simulation of Spin-Orbit Coupled Semiconductor Devices. Hybrid Spintronic/Straintronics: A Super Energy-Efficient Computing Paradigm Based on Interacting Multiferroic Nanomagnets. The magnetic Properties of Nanostructures Synthesized on Vicinal Surface. Magnetism and Spintronics in Graphene.
