What you will learn:
- Essential physics of transistors, including modern nanoscale transistors.
- How to design high-performance nanoelectronics.
- Technology considerations and circuit applications.
- How to model modern photonic nanostructures and fiber optics.
- How to account for quantum transport phenomena in nanoscale devices and spintronics.
This course introduces the non-equilibrium Green’s function (NEGF) method widely used to describe quantum effects in nanoscale devices, along with its applications to spintronic devices. This course introduces the Schrödinger equation, using the tight-binding method to discuss the concept of bandstructure and E(k) relations, followed by an introduction to [...]
Gain a new perspective on electron flow in solids with this insightful introduction. Very different from what is taught in standard courses, "Fundamentals of Current Flow" provides a unified conceptual framework for ballistic and diffusive transport of both electrons and phonons - essential information for understanding nanoelectronic [...]
This course develops a simple framework for understanding the essential physics of transistors, including modern nanoscale transistors. Important technology considerations and circuit applications are also discussed. The transistor has been called the greatest invention of the 20th century - it enabled the electronics systems that have shaped the world [...]
From smartphones to satellites, semiconductors are everywhere. Tying together physics, chemistry, and electrical engineering, this easy-to-follow introduction provides the background needed to understand devices such as transistors and solar cells. This course provides the essential foundations required to understand the operation of semiconductor devices such as transistors, diodes, solar [...]