Natalia M. Dushkina

Assistant Professor of Physics, Ph.D.

Millersville University                                                      Spring 2007


COURSE SYLLABUS

                   
PHYS 395: Techniques in Mathematical Physics

 

Instructor:                  Dr. Natalia Dushkina
Office:                        CAPUTO Hall, Room 237    
Phone:                        872-3424        
Email:                         Natalia.Dushkina@millersville.edu
Office hours: Mon/Wed/Fri 9:00 – 11:00 a.m.

I. COURSE ORIENTATION

Course:

Physics 395 – Techniques in Mathematical Physics

Credit:           

3 credits

Lectures:       

Mon., Wed., Fri. 8:00 – 8:50 a.m., RODDY 256

Required Text:

Mathematical Methods in the Physical Sciences, 3rd ed., by Mary L. Boas, John Wiley & Sons, Inc., 2006,
(ISBN 0-471-19826-9)

Prerequisite:

PHYS 233 and MATH 365

Course Description:

This course is aimed at physics students. It deals with treatment of advanced mathematical techniques such as complex analysis, matrices, Fourier series, calculus of variations, special functions and integral transforms applied to selected areas of physics.

Course Goal:

  • To review and reinforce material learned in undergraduate mathematics classes.
  • To make you familiar and secure with basic advanced mathematical techniques and their application to selected areas and problems of physics.
  • To prepare you for graduate classes in mechanics, quantum mechanics, electricity and magnetism.

 

Course Objectives:

After finishing this course, you will

  • Become more comfortable, confident, and accurate in using mathematical tools in physics;
  • Perform and apply correctly calculations with vectors, matrices, series and special functions to physics problems in classical Mechanics, Optics, Electricity and Magnetism.
  • Pushed to more depth and breadth in understanding mathematical tools already learned in undergraduate mathematics courses.
  • Understand and explore in details special functions and Fourier Transforms;
  • Be able to solve physical problems using series solutions of differential equations, Fourier Transforms using delta functions, partial differential equations.
  • Be more competent in using computer methods for graphics or numerical solutions when solving matrix equations, in series and integral transforms calculations.

Testing & Grades:

5 Exams of Equal Weight (75% of final grade)
Problem Sets (25% of final grade)

  1. Assigned problem sets will be collected and all the problems will be graded.
  2. The student will be allowed access to his/her lecture notes during exams.
  3. Make-up exams will be granted only of the student has a legitimate reason.

 

II. COURSE CONTENT

Introduction: Matrices, and Determinants. Solving linear equations by using matrices. Matrices in Optics.

Topic 1: Infinite series. Geometric progression. Convergent and divergent series. Power series
(Ch. 1).

Topic 2: Complex Variables; Complex algebra; Powers and roots of complex numbers; Logarithms (Ch. 2).

Topic 3: Fourier Series; Complex form of Fourier series (Ch. 7)

Topic 4: Ordinary Differential equations: The Laplace Transform; The Dirac Delta Function (Ch. 8)

Topic 5: Special Functions; Gamma and beta functions (Ch. 11).

Topic 6: Legendre Polynomials; Legendre Series; Bessel’s Functions (Ch. 12).

Topic 7: Some Partial Differential Equations in Physics; Poisson’s Equation (Ch. 13).

Topic 8: Matrices in Classical and Quantum Mechanics; Tensors (Ch. 10 – Sec. 1-5).

Topic 9: Calculus of Variation; The Euler Equation; Lagranges’s Equations (Ch. 9).

Topic 10: Complex Variables (Ch. 14).

No classes On:
            March 12, 14, 16:        Spring Break
            April 11:                      Possible Weather Make-up day
            May 4:                         Reading Day

III. EXAM SCHEDULE

EXAM I:                    February 5, Monday, Topics 1, 2.
EXAM II:                  February 26, Monday, Topics 3, 4.
EXAM III:                 March 26, Monday, Topics 5, 6.
EXAM IV:                 April 16, Monday, Topics 7, 8.
FINAL EXAM:         May 10, Thursday, 2:45 – 4:45 p.m., Roddy 256, Topics 9, 10.

IV. ADDITIONAL REFERENCES

  1. Abramowitz, M. and Stegun, I.: “Handbook of Mathematical Functions”, (9th ed., 1970, Dover Publications, Inc.).
  2. Arfken, G.: “Mathematical Methods for Physicists”, (4th ed., 1995 and 2nd ed., 1970, Academic Press).
  3. Lea, S. M.: “Mathematics for Physicists”, (2004, Thomson Brooks/Cole)
  4. Lea, S. M.: Student solutions Manual for “Mathematics for Physicists”, (2004, Thomson Brooks/Cole)
  5. Mathews, J. and Walker, R. L.: “Mathematical Methods for Physics”, (2nd ed., 1970, W. A. Benjamin, Inc.).