In this volume, researchers and engineers showcase experimental, analytical, and numerical methods to tackle barrier-overcoming difficulties with the application of nanoscale device technology. The ongoing reduction in the size of devices, components, and systems necessitates advanced theoretical analysis that is backed by simulated results prior to actual production. The volume presents research that will be helpful for creating interdisciplinary, all-encompassing technical products that addresses underlying physics, material aspects, and structures in the nano-regime.

The chapters cover a range of issues in nanodevice design and applications, taking into account correct computation for complicated band structure, composition of the heterostructure system, and, more specifically, the technique of computation in the manufacturing of low-dimensional structures. The book provides clear treatment of several intricate theoretical and analytical models for resolving issues and presenting important aspects of the performance of various low-dimensional devices.

Numerous numerical techniques have been employed in the past to solve quantum well systems, with the Finite Element Method (FEM) and Finite Domain Time Difference (FDTD) approaches being the most optimal solution to date. The book provides clear treatment of several intricate theoretical and analytical models for resolving issues with diverse nanodevices .

Presenting cutting-edge topics on nanoelectronic device technology from several perspectives, the volume will be valuable for the computing and telecommunication industries as well as for faculty and students in these areas.