Physics for engineers II covers the basics of electromagnetic including electrostaticis (such as Coulomnb's law and Gauss' law), electric and magnetic fields, electromagnetic force and brief introduction to Maxwell's equations.
In this course, we will discuss about various mathematics techniques generally used in engineering problems and applications, for example, Fourier Series, Fourier integral & transform, Laplace transform, and Z-transform. We will also demonstrate example of applying such techniques in practical engineering applications. In addition, some basic numerical methods will be introduced such as numerical integration, interpolation, and root-finding.
General hints and guidelines for formal technical writing.
The course focuses on introducing students to research topics and methodology, including critical thinking, scientific responsibilities, academic ethics, scientific writing, and publication. They will be trained on oral and written technical presentations on individual research, journal articles, or design projects.
The course focuses on the basic numerical modeling techniques commonly used in modeling most of the micro/nano optical systems. The course will cover the following topics: - Introduction to guidance and the concept of modes. - Rectangular and circular waveguides. - Finite-difference mode solving - Semi-analytical methods: Scattering matrix - Finite-difference beam propagation. - Monte Carlo Simulations
Introduction to some basics concepts of light, light propagation and
light matter interaction. The course is mostly based on Feynmann lecture
on physics, volume I. We focused on the materials related to optics and
electromagnetics.
Tutorial for LTspice software for circuits simulation