Docsity
Docsity

Prepare for your exams
Prepare for your exams

Study with the several resources on Docsity


Earn points to download
Earn points to download

Earn points by helping other students or get them with a premium plan


Guidelines and tips
Guidelines and tips

Electromagnetic Fields & Waves: Assignment 6 for EE 30348 at Notre Dame, Fall 2008, Assignments of Electrical and Electronics Engineering

The assignment 6 for the electromagnetic fields and waves course, electrical engineering department, university of notre dame, fall 2008. The assignment covers topics such as electromagnetic waves, atomic polarizability, torque on an electric dipole, and fields inside a dielectric. Students are required to sketch figures, find currents, calculate dipole moments, torques, and electric fields, and explain energy transfer and power generation.

Typology: Assignments

2009/2010

Uploaded on 02/24/2010

koofers-user-qu8
koofers-user-qu8 🇺🇸

10 documents

1 / 2

Toggle sidebar

Related documents


Partial preview of the text

Download Electromagnetic Fields & Waves: Assignment 6 for EE 30348 at Notre Dame, Fall 2008 and more Assignments Electrical and Electronics Engineering in PDF only on Docsity! Fundamentals of Electromagnetic Fields and Waves: I Fall 2008, EE 30348, Electrical Engineering, University of Notre Dame Assignment 6 Due date: Friday, Oct 31. Please attach this sheet on top of your solutions. Sketch figures wherever necessary. 1) Electromagnetic Waves (Review question): Here is a question from the 2007 EMag 1st Midterm exam (slightly modified)- The electric field vector of an electromagnetic plane wave propagating in free space is given by E(r, t) = E0 cos(ωt − β0z)ax a) Identify the wavelength, frequency, polarization, and the direction of propagation of the plane wave. b) Write down the expression for the corresponding magnetic field B(r, t). c) Refer to Figure 1. A square conductive loop of side L and total resistance R0 is now placed in the path of the electromagnetic wave as shown. Explain qualitatively why the electromagnetic wave will cause a current to flow in the loop. L x y z Figure 1: A square loop interacts with an electromagnetic wave. d) Find the magnitude of the induced current flowing in the loop. (You may or may not need the following relations: ∫ sin(az)dz = − cos(az) a +C, ∫ cos(az)dz = sin(az) a +C, sin(a) − sin(b) = 2 cos(a+b2 ) sin( a−b 2 ), 1
Docsity logo



Copyright © 2024 Ladybird Srl - Via Leonardo da Vinci 16, 10126, Torino, Italy - VAT 10816460017 - All rights reserved