Math 303, Fall 2010
Topics Covered in Each Lecture
Class No |
Date |
Content |
Corresponding Reading material |
1 | Sep. 27 | Construction of complex numbers, Euler’s formula, polar representation, complex-conjugation, reflections and rotations in complex plane | 82-95 |
2 | Sep. 29 | Integer powers and roots of complex numbers, complex sequences and series, complex power series and their convergence, trigonometric and hyperbolic functions, logarithm of a complex variable | 95-100 |
3 |
Oct. 04 | Complex powers of a complex number, inverse trigonometric and inverse hyperbolic functions of a complex variable; Relation between inverse hyperbolic functions and the logarithm; Review of calculus of several variable: Differential of a function, Directional and partial derivatives. | 102-108, 151- 153, |
4 | Oct. 06 | Taylor series expansion for functions of one or two real variables, Exact differentials, Chain rule. | 153-162 |
5 | Oct. 11 | Taylor series expansion and the linear and quadratic approximation. The stationary, minimum, maximum, and saddle points; the second derivative test for a real-valued function of several variables. Examples. | 162-167 |
6 | Oct. 13 | Finding stationary points of a real-valued function of several variables in the presence of constraints: The method of Lagrange multipliers; examples; Global minimum and maximum points. | 167-173 |
Quiz 1 | |||
7 | Oct. 20 | Vector algebra, dot and cross products, Kronecker delta and Levi Civita epsilon symbols and their properties. | 212-226 |
8 | Oct. 22 | Vector fields and their partial derivatives, the gradient of a scalar field revisited, divergence, curl, and the Laplacian; Various identities for the divergence and curl of vector fields. | 347-357 |
9 | Oct. 25 | Particle dynamics in Newtonian mechanics, work done by a force, Conservative forces and path independence of their work, Green's Theorem. | 377-382, 384 |
Quiz 2 | Oct. 27 | ||
10 | Nov. 01 | Sketh of a proof of Green’s theorem in plane, Proof of the equaivalence of the exactness of the differential 1-form for the infinitesimal work done by a force and the condition that the force is conservative in plane (R^2). Statement of the generalization of this theorem for R^n, Divergence theorem in plane with proof. | 384-389 |
11 | Nov. 03 | Divergence theorem R^3 with a sketch of proof, continuity equation, and conservation laws | 389-405 |
Midterm Exam 1 | Nov. 08 | ||
12 | Nov. 10 | Continuity equation implies a conservation law; Stokes theorem with a sketch of proof, application | 405-409 |
Kurban Bayramý |
Nov.
15-19 |
||
13 | Nov. 22 | Dirac Delta function: Generalized functions as equivalence classes of certain sequences of functions | 439-442, and the handout: Dirac Delta Function |
14 | Nov. 24 | Test functions, sequences of functions defining generalized functions, definition of the Dirac Delta function using a simple representative sequence, Delta function defined on R^n, Derivation of the Laplacian of 1/r in three dimension | Pages 100-108 of the handout: Dirac Delta Function |
15 | Nov. 29 | Delta function is even, scaling property of the delta function, derivative of a generalized function, derivative of the step function as a generalized function, properties of the derivative of the delta function | Dirac Delta Function |
16 | Dec. 01 | A series representation of the delta function, complex and real Fourier series, Dirichlet’s theorem on the existence of Fourier series expansion of periodic functions (without proof) |
415-419 |
Quiz 3 | Dec. 03 | ||
17 | Dec. 06 | Graphical demonstration of the convergence of Fourier series for a step function, differentation of Fourier series, Fourier series for arbitrary intervals, Parseval’s identity for Fourier series |
419-432 |
18 | Dec. 08 | Fourier transform and inverse Fourier transform, intregral transforms and their linearity, Fourier transform of the derivatives of a function, application of Fourier transform in solving linear ODEs | 433-437, 442-444 |
19 | Dec. 13 | Derivation of the Green's function for a general constant coefficient 2nd order linear ODE using Fourier transform; Functions of a complex variable: Continuity and differentiability, analytic and entire functions. | 824-827 |
20 | Dec. 15 | Cauchy-Riemann conditions (proof of necessity and sufficiency for analyticity of the function, examples of analytic functions (z^2, sin z, ln z), implication for solving the Laplace eqn in 2-dim, Cauchy-Riemann conditions for the derivative of an analytic function. | 827-835 |
21 | Dec. 20 | Review and PS | - |
Midterm Exam 2 | Dec. 22 | ||
22 | Dec. 27 | Contour integrals, Cauchy’s theorem (proof using Green’s thm in plane), Cauchy’s integral formula, | 845-853 |
23 | Dec. 29 | Laurent Series, Poles and essential singularities, Residue theorem, determination of the order and the residue of a function at a pole, examples | 853-860 |
24 | Jan. 03 | Application of the residue theorem in evaluating angular and improper real integrals | 861-862 |
25 | Jan. 05 | Application of the residue theorem in evaluating various improper real integrals | 862-867 |
Quiz 4 | Jan. 07 |
Note: The pages from the textbook listed above may not include some of the subjects covered in the lectures.