Young-Heon Kim’s  Teaching              Home           Research

(Term 2, 2012/2013: Jan 2, 2013 -- Apr 5, 2013)
MATH 267: 202 Mathematical Methods for Electrical and Computer Engineering  UBC course page here.
Instructor:
Young-Heon Kim
Email: yhkim "at" math "dot" ubc "dot" ca
Phone
  604-822-6324
Fax
      604-822-6074
Office
   MATH 216

Class: Mon & Wed  14:00 -- 15:30 at Mathematics 100
Office hours
: Mon & Wed 11:00 - 12:30 at my office MATH 216.
First class: Wednesday, Jan 02, 2013
Last class: Wednesday,  Apr 03, 2013 

Course Outline

How to succeed in this course: 

Announcements:

HW assignments:

Main Text/Reference:

We will use much of the material from  Joel Feldman's lecture notes: see the OLD link UBC Math 267 Lecture notes and other resources.  (Note that our HW assignments are different from this link, and posted elsewhere in OUR course webpage.) We will follow the notation in these lecture notes.

Supplimentary Text (OPTIONAL): 
Other useful references:
Material: The core of this course is the study of Fourier series, the Fourier transform, and their discrete analogues. Applications to the wave equation, telegraph equation, circuits, and signal processing will be emphasized. See TENTATIVE SCHEDULE at the end of this page. Topics to be covered (subject to change) are roughly:
  1. Complex Numbers. (l lecture):  Complex Numbers and Exponentials ]
  2. Review of ordinary differential equations. (Self-Reading material):  Review of Ordinary Differential Equations , The RLC Circuit 
  3. Introduction to partial differential equations - wave and diffusion equations.(1 lecture): Derivation of the Wave Equation Derivation of the Telegraph Equation,   Derivation of the Heat Equation 1D    
  4. Method of separation of variables. ( 3 lectures):  Solution of the Wave Equation by Separation of VariablesSolution of the Heat Equation by Separation of Variables
  5. Introduction to Fourier Series. (3 lectures): Fourier Series (version of Feb 4, 2007)],  Periodic Extensions
  6. Applications of Fourier Series to circuits. (1  lecture)
  7. The Fourier transform with applications. (3 lectures):  The Fourier Transform(version of Feb 25, 2007),  Using the Fourier Transform to Solve PDE's ]
  8. The Dirac delta function and convolutions. (3 lecture)
  9. Discrete Fourier transform. (4 lectues):  Discrete-Time Fourier Series and Transforms ] (version of Mar 21, 2007)
  10. The z-transform.  (3 lectures):   Discrete-Time Linear Time Invariant Systems and z-Transforms (version of Apr 4, 2007)
Exams:

Past Midterm 1 Exams

2012, February exam solutions
2011, October exam solutions
2011, February
solutions
2010, October
solutions
2010, February exam solutions
2009, February exam solutions

Past Midterm 2 Exams

2011, November exam solutions
2011, March
solutions
2010, November
solutions
2010, March exam solutions
2009, March exam solutions

Past Final Exams (solutions are not available)

2011, December exam
2010, April exam
2009, December exam
2009, April exam
2007, April exam

Homework Assignments Policy: Careful work on the assignments is the best way to prepare for the midterms and the final exam.

Grading

Your grade for the course will be computed roughly as follows:
Homework: 10%
Midterms: 40% (20% + 20%)
Final Exam: 50%
Important Notes:

Some resources Schedule / Plan / Progress / Summary   

Week Date Suggested reading of course material.
(For optional reading, the sections in [BoyceDiPrima] are from the 9th edition.)



1
Wed. Jan. 2. (First Class)
Lecture 1   Reading:  Complex Numbers and Exponentials
* Self-study material: Review of Ordinary Differential Equations , The RLC Circuit  
(Optional: [BoyceDiPrima, Sections 3.3, 3.4, 3.5])


2 Mon. Jan. 7.
Lecture 2. Reading: Solution of the Wave Equation by Separation of Variables : especially, pages 1--3.
See also  Solution of the Heat Equation by Separation of Variables
Optional:  Derivation of the Wave EquationDerivation of the heat equation in 1D
(Optional: [BoyceDiPrima, Section 10.1, 10.5, 10.7])


Wed, Jan. 9  Lecture 3.   Reading: Solution of the Wave Equation by Separation of Variables : especially, pages 1--5.
See also  Solution of the Heat Equation by Separation of Variables
Optional:  Derivation of the Wave EquationDerivation of the heat equation in 1D
(Optional: [BoyceDiPrima, Section 10.1, 10.5, 10.7])


3 Mon. Jan. 14 (HW 1 DUE)
Last day to withdraw without a W standing
Lecture 4. Reading: Solution of the Wave Equation by Separation of Variables : especially, pages 1--5 (also 6--7).
AND  Solution of the Heat Equation by Separation of Variables (1--3).
(Optional: [BoyceDiPrima, Section 10.1, 10.5, 10.7])


Wed. Jan.16  Lecture 5.  Reading: Solution of the Heat Equation by Separation of Variables; especially, pages 3--4

4 Mon, Jan.21 (HW 2 DUE)
Lecture 6.   Reading:  Fourier Series : pages 1--5.
(Optional: [BoyceDiPrima, Section 10.2, 10.3])


Wed. Jan. 23
Lecture 7. Reading:  Fourier Series : pages 1--10. 12--13
(Optional: [BoyceDiPrima, Section 10.2, 10.3, 10.4])


5 Mon. Jan.28 (HW 3 DUE)  Lecture 8. Reading: Fourier Series: pages 4--10. Periodic Extensions

Wed. Jan. 30   Lecture 9. Reading:  The Fourier Transform   pages   1--3.    



Thur. Jan 31 Midterm I at 7pm
 


6 Mon. Feb. 4   Lecture 10. Reading:  The Fourier Transform  pages 3--5. Properties of Fourier transform: linearity, time-shifting, time reversal, Scaling.
(Optional: [Hsu 2nd edition, Chapter 5."Fourier Analysis of Continuous-Time".
 You can find a lot of worked out examples in pages 210--260 in [Hsu, 2nd edition] for Fourier series and Fourier transform. But, it is not a good idea at all, if you just try to see the worked out solutions without your own enough effort to understand the material and to solve the problems. As I said, it will be much more effective if you focus on understanding the material and doing some key examples in the class and in the HW thoroughly. After these, you can practice more, trying to solve additional problems.)


Wed. Feb. 6  Lecture  11. Reading: The Fourier Transform  pages 4--6. Properties of Fourier transform: Scaling, scailing + time-shift, differentiation.
(Optional: [Hsu 2nd edition, Chapter 5."Fourier Analysis of Continuous-Time". You can find a lot of ADDITIONAL examples/exercises to work on in this book: E.g. For Fourier transform exercises for which  we have covered so far, see page 223 and on, problems 5.16 -- 5.19, 5.21, 5.40, 5.42, 5.43 (hard), 5.67, 5.71. . )


Last day to withdraw with a W standing
(course cannot be dropped after this date) :
Friday, February 8, 2013



7
Mon. Feb. 11 (Family day)
No class


Wed. Feb. 13.
Lecture 12.     Reading:  The Fourier Transform  pages  5--8.   

8
Mon. Feb 18 (NO Class)
Midterm Break

Wed. Feb. 20 (NO Class)
Midterm Break

9
Mon. Feb. 25
Lecture 13. Parseval's relations and Delta functions (Impulse).  Reading: The Fourier Transform  pages  7, 11--13.
(Optional: [Hsu 2nd edition], pages 6--8. Some additional exercises for delta function: problems 1.24 --31 (see page 33 and on).)


Wed. Feb. 27  Lecture 14. Convolutions.   Reading:  The Fourier Transform  pages  8--12.   
(Optional:  [Hsu 2nd edition, Chapter 5."Fourier Analysis of Continuous-Time"]. problems 5.20 -- 23, 5.26, 5.28, 5.32,  5.45.)


10
Mon. Mar. 4
Lecture 15. Some review/examples about F.T.


Wed. Mar. 6  Lecture 16. Discrete time signal. Discrete Fourier Series.  Discrete-Time Fourier Series and Transforms pages 1--3.




Thurs. Mar. 7 Midterm II at 7pm



11 Mon. Mar. 11
Lecture 17. Properties of Discrete Fourier Series.  Discrete-Time Fourier Series and Transforms  pages 4 and 12. 

Wed. Mar. 13   Lecture 18.  Infinite length discrete time signals: important examples. convolution.   Discrete-Time Fourier Series and Transforms 

12 Mon. Mar. 18
Lecture 19. Discrete time Fourier transform (DTFT). Definition, basic examples and properties.   Discrete-Time Fourier Series and Transforms

Wed. Mar. 20  Lecture 20. z-transform.  Discrete-Time Linear Time Invariant Systems and z-Transforms    

13 Mon. Mar. 25
Lecture 21. z-transform.   Discrete-Time Linear Time Invariant Systems and z-Transforms    


Wed. Mar. 27  Lecture 22. z-transform.  Discrete-Time Linear Time Invariant Systems and z-Transforms      

14 Mon. Apr. 1 (Easter Monday)
No class


Wed. Apr. 3  (Last Class) Lecture 23. z-transform. practice with LTI and z-transform.


MATH267:202 Final Exam:
Exam schedules have been released.
The final exam will be Monday 15-Apr at 8:30am