Course Number |
Name |
Description |
Fall |
Winter |
Sp |
Su |
Transmission Lines and Introductory Fields |
Properties and application of transmission lines. Introduction to electric an magnetic field theory and devvelopment of Maxwell's equations. |
X |
X |
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|
Transmission Lines and Introductory Fields Laboratory |
Experiments and measurement techniques in static and time-varying fields. Transmission line design and measurements. Microwave generation, propagation, detection, and hardware components. |
X |
X |
||
Applied Electromagnetic Theory |
Application of Maxwell's equations to propagating and radiating components and systems. |
X |
||||
|
Electromagnetics Laboratory |
Design and evaluation of microwave devices,systems, and materials. |
X |
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|
Optical communication Components and Systems |
Fiber optic communication system components and their operating and performance characteristics. |
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Intermediate Electromagnetic Theory |
Application of electromagnetic theory to nonlinear and anisotropic materials and devices. Current mathematical techniques in field theory. |
X |
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|
High-Frequency Comminication Circuits |
Circuits and RF techniques used in comminication systems. |
Even | |||
Computational Electromagnetics |
Numerical methods for electromagnetics. Method of moments, finite difference method, finite element methods. |
Odd |
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|
Radar Systems Performance |
Performance an evaluation of various radar systems. Range equation, signal detection, ambiguity function, system configuration, and components. |
Odd | |||
|
Microwave remote Sensing |
Emphasis on space-borne remote sensing of the earth's atmosphere, land, and oceans. Primary methods and applications for both active (radar) and passive (radiometry). |
Even |
Developed by Randy St.John
randys@caedm.et.byu.edu