MATH-348 Advanced Engineering Mathematics - Spring 2009

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Contents

Course Information

MATH348: Advanced Engineering Mathematics - Introduction to partial differential equations, with applications to physical phenomena. Fourier series. Linear algebra, with emphasis on sets of simultaneous equations. Prerequisite: MATH 225 or equivalent.

Instructor Information

Instructor : Scott Strong

Office : Chauvenet Hall 278

Office Phone : 303.384.2446

email : math348.spring2009@gmail.com

Course Calander

Classes Begin : January 7th, 2009

Meeting Days : Monday, Wednesday, Friday

Course Sections :

    Section B,  12:00pm-12:50pm, Alderson Hall 330
    Section C, 1:00pm-1:50pm, Green Center 211
    Section D, 2:00pm-2:50pm, Green Center 211


Class Holidays :

    February 16th, 2009 - Presidents Day
    March 9th-13th, 2009 - Spring Break
    April 2nd-4th, 2009 - E-Days


Classes End : April 30th, 2009

Important Dates :

   January  22nd - Last Day to Withdrawal  (Without a W)
   March 24th - Last Day to Withdrawal 

Office Hours

Fixed Office Hours :

 M : 3-4pm
 W : 11-12pm
 F : 11-12pm 

If you cannot meet during the previous office hours then please contact me to schedule another meeting time.

Textbook Information

    Textbook : Advanced Engineering Mathematics - Erwin Kreyszig, ISBN 978-0-471-48885-9
    9th Edition Amazon : Advanced Engineering Mathematics - Erwin Kreyszig, ISBN 978-0-471-48885-9
    8th Edition Amazon (Used) : Advanced Engineering Mathematics - Erwin Kreyszig, ISBN 978-0-471-48885-9
Pdf.png These downloads require Adobe Acrobat Reader

Course Documents

Handouts

A61.TrigIdentities
Special Angles and the Unit Circle
FS for f(x}=x, x \in (-\pi,\pi)
FS for f(x}=Exp(Abs(x)), x \in (-\pi,\pi)

Wikipedia - Sinc Function

Mathworld - Sinc Function

Wikipedia - Nyquist-Shannon Sampling Theorem

Mathworld - Convolution (Animation)

Convolution and Diffraction (Animations)

Convolution and Diffraction (Animations)

Wikipedia - Convolution (Animation)

Frequency Response Graph for a Harmonic Oscillator m=k=1, Gamma = {1,.5,.25,.125}


Heat Movie 1 - abs(x)

Heat Movie 2 - parabola

Heat Movie 3 - Double V

Heat Movie 4 - Forced Heat Equation with B.C. u(0,t)=u(L,t)=0

Heat Movie 5 - Forced Heat Equation with B.C. u_{x}(0,t)=u_{x}(L,t)=0


Wave on a 1-D Sting with Fixed Endpoints

Wave on a 1-D Sting with Fixed Endpoints - Animated with first 5 Fourier Modes (Fundamental Mode in Red)

Wave on a 1-D Sting with FLAT Endpoints from HW10

Wave on a 1-D Sting with FLAT Endpoints from HW10 - Animated with first 5 Fourier Modes (Fundamental Mode in Red)

Traveling Wave :u0(x) = − tanh(x): Red = Right Traveling, Blue=Left Traveling, Black = Superposition


Rectangular Membrane Movie 1 -Text Example pg577

Rectangular Membrane 2 -Text Example pg577

Applet - Pretty Cool

Rectangular Membrane Modes

Animations of Rectangular Membrane Modes - Pretty Good

Animations done by Dr. Russell - All sorts of stuff!


The Well-Tempered Timpani By Richard K. Jones

Vibrating Membrane1 - 12.9.1 Example

Vibrating Membrane2 - 12.9.1 Example

Vibrating Membrane3 - 12.9.1 Example

Vibrating Membrane4 - 12.9.1 Example



Wikipedia Article on Shock Waves

Animation of Shock Wave Formation in Pressure Field

Shock Wave (Plane) - You Tube 1

Shock Wave (Plane) - You Tube 2

Shock Wave (Explosion) - You Tube 3

Shock Wave (Explosion) - You Tube 4 : Ignore The the cartoon bubble

Shock Wave (Simulation) - You Tube 5 : Notice the distortion of the expanding wave-front

NASA - Shock Wave Simulator

Shockwave :)


Millennium Bridge - Wikipedia

You Tube Video - Millennium Bridge Resonance

Lecture Slides

Lecture 1
Lecture 2
Lecture 3-4
Lecture 5
Lecture 6'ish
Lecture Six
Lecture Seven
Lecture Eight
Lecture Nine
Lecture Ten
Lecture Eleven
Lecture Twelve
Lecture Thirteen
Lecture Fourteen
Lecture Fifteen

Syllabus

MATH348.Spring2009.Syllabus

Exams

Exam I will be held on February 13th in class there will be no class the following Wednesday. There will be no notecards or calculators. The exam will be five questions and contain material outlined in the following review:

Exam 1 - Review Sheet
Exam 1 - Fall2008
Exam 1 - Fall2008 Solutions
    Exam I -  Statistics
    Average = 39.69 = 79.38%
    Median = 41 = 82%
    A's = 27, B's = 31 , C's = 17 , D's = 16, F's =9, Total Number of Exams  = 100
Exam I - Spring2009
Exam I - Spring2009 Solutions


Exam II will be held on April 1st in class there will be no class the following Monday. There will be no notecards or calculators. The exam will be five questions and contain material outlined in the following review:

Exam 2 - Review Sheet
Exam 2 - Spring2009 Q + A
Exam 2 - Fall2008
Exam 2 - Fall2008 Solutions
Exam 2 - Fall2008 Q + A
    Exam II -  Statistics
    Average = 37.14 = 74.29%
    Median = 37 = 74%,
    A's = 9, B's = 25 , C's = 31 , D's = 23, F's =9, Total Number of Exams  = 97
Exam II - Spring2009 See Soln for problem 3 graph.
Exam II - Spring2009 Solutions



The final exam will be held on May 4th from 10:15am-12:15am. The classes will be split across rooms. Please go to the room assigned to the class you are enrolled in. There will be no notecards or calculators. The exam will be cumulative with an emphasis on PDE.

    MATH348B-BE241   Proctor: Ecklund
    MATH348C-BB201   Proctor: Bridgman
    MATH348D-BB204A  Proctor: Strong

Since, it is likely I won't see most of you at the exam -- Have a good summer and it was nice having class with you. :)

I will not be posting a practice exam, since it is policy to not disseminate final exams. I do have an old PDE only exam and I will post it below.

Final Exam - Review Sheet
OLD PDE EXAM - See Soln for the graph in problem 1
OLD PDE EXAM - SOLN

Assignments

MATH348.Spring2009.Homework1
MATH348.Spring2009.Homework1.Solutions
MATH348.Spring2009.Homework2
MATH348.Spring2009.Homework2Solutions

Picture of a Parallelepiped : [1]

MATH348.Spring2009.Homework3
MATH348.Spring2009.Homework3Solutions
MATH348.Spring2009.Homework4
MATH348.Spring2009.Homework4Solutions
MATH348.Spring2009.Homework5
MATH348.Spring2009.Homework5Solutions
MATH348.Spring2009.Homework6

NOTE : For the graphs you may want to consider using the eigenmath program posted below. Eigenmath Script for Example1 Results Feel free to post better scripts. I'm sure that this program could find the coefficients from their integral definitions.

NOTE : A typo has been corrected. You should assume that E=\omega = 1 and L = \pi.

NOTE : Thanks to David Melton for Another Graphing Utility - Graphs Truncated FS

MATH348.Spring2009.Homework6Solutions
MATH348.Spring2009.Homework7
MATH348.Spring2009.Homework7Solutions
MATH348.Spring2009.Homework8
MATH348.Spring2009.Homework8Solutions
MATH348.Spring2009.Homework9
MATH348.Spring2009.Homework9Solutions
MATH348.Spring2009.Homework10
MATH348.Spring2009.Homework10Solutions

Course Links

Graphing Utilities

   Free Mathematica Like Program for Windows and Mac
   Eigenmath Manual
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