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My materials are generally available in
view mode, indicated by ,
(one page per side, for viewing) and in print mode, indicated by
,
(two pages per side, for more efficient printing).
Supplementary readings in Vaughn pages xx are indicated Vxx, and in Arfken and Weber (6th Ed) as AWxx. These are often review of material I assume you know, or more exposition than I can cover.
Date | Topic | Reading | ||
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L1 | 9/7 | Math preliminaries | Lect. A
![]() ![]() Lect. B ![]() ![]() | |
L2 | 9/9 | Fields, vector spaces, $\nabla \lambda, \nabla\cdot\vec D, \vec \nabla\times\vec B, \nabla^2 \lambda$ | Lect. B pp. 4-14; AW32-53; V37-42 | |
L3 | 9/14 | Integration, Helmholtz' theorem | Lect. B pp. 14-18; AW54-61,64-65,95-100 | |
HW1 | 9/19 | Homework Assignment # 1:
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L4 | 9/16 | Vector space, matrices, dual space,norm | Lect. C
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L5 | 9/21 | Manifolds, metric, geodesic, 1-forms | Lect. D
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HW2 | 9/26 | Homework Assignment # 2:
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L6 | 9/23 | vector fields, n-forms. exact and closed | Lect. D, pp. 9-14. | |
L7 | 9/28 | Integration, Stokes' theorem, Hodge dual, Laplacian; Orthogonal coordinates |
Lect. E ![]() ![]() | |
L8 | 9/30 | E&M in 4-D $F^{\mu\nu}, {\bf d*F=*J}$, Separation of variables | Lect. E pp 8-9
Lect. F
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HW3 | 10/3 | Homework Assignment # 3:
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L9 | 10/5 | Some special functions; Infinite series; | Lect F pp 3-6;
Lect. G
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L10 | 10/7 | Elliptic integral, Generating functions, $B_n$, extended trapezoid rule and Euler-McClaurin formula. $\zeta(s)$ | Lect. G, pp. 3-10. | |
L11 | 10/12 | Infinite products, $\Gamma(a,x), \Gamma(x), E_1(x)$ Asymptotic expansion. Complex Variables. | Lect. G, pp. 11-15;
Lect. H
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Pr 1 | 10/13 | Project 1:
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L12 | 10/14 | Contour integrals, analytic continuation, poles, | Lect. H
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Midterm Exam |
10/19 | Midterm exam | ||
L13 | 10/21 | poles, Branch points and cuts. | Lect. H, pp 8-13; AW447-470 | |
HW5 | 10/24 | Homework Assignment # 5:
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L14 | 10/26 | $B(x,y)$; Mittag-Leffler,Steepest Descents; | Lect. H, pp 13-18. AW489-495; | |
L15 | 10/28 | Differential Equations of Physics, singular (regular and essential) and ordinary points; Frobenius' method. Fuchs' theorem, Wronskian. | Lect H p18.
Lect. I
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HW6 | 10/31 | Homework Assignment # 6:
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L16 | 11/2 | Solutions of Bessel's equation. Self-adjointness | Lect. I pp 7-12, AW565-587 | |
L17 | 11/4 | measures, completeness, orthogonal polynomials | Lect. I pp 12-14, AW622-651 Lect. J ![]() ![]() | |
HW7 | 11/7 | Homework Assignment # 7:
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L18 | 11/9 | Important functions: $\Gamma(z), B(u,v)$. $\Gamma(2z), \psi^{(n)}(z)$. | Lect. K
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L19 | 11/11 | erfc, Bessel, $J_\nu$, Hankel, Neumann. | Lect. K pp7-12 | |
HW8 | 11/14 | Homework Assignment # 8:
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HW9 | 11/21 | Homework Assignment # 9:
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Pr 2 | 11/23 | Project 2:
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L20 | 11/16 | spherical Bessel, Legendre Polynomials, multipole moments $P_\nu$. | Lect. K pp13-21 | |
L21 | 11/18 | Associated Legendre Polynomials $P^m_\ell$, Spherical Harmonics. Hermite, Laguerre, other orthogonal polynomials. | Lect. K pp 21-27. | |
L22 |
11/23 at 1:40 |
Fourier Analysis. Integral transforms: Fourier, Laplace, Hankel, Mellon. Convolution. | Lect. L
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- - - | 11/25 | No class. Happy Thanksgiving | ||
HW10 | 12/5 | Homework Assignment # 10:
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What follows is very provisional, may change greatly, especially the timing | ||||
L23 | 11/30 | Green's functions. Special Relativity | Lect. M pp 4-9. Lect. O
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L24 | 12/2 | Special Relativity | Lect. O
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L25 | 12/7 | Equivalence Principle, Vierbein and Metric | Lect. P
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L26 | 12/9 | Parallel Transport | Lect. Q
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HW11 | 12/12 | Homework Assignment # 11:
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L27 | 12/14 | Geodesic Deviation, Curvature, and the Field Equation | Lect. R
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Exam | 12/20 8-11AM |
Final exam, Hill 009 |
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