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Differential Geometry
1. Basic Information
2. Preliminary course plan
References
Part 1 Curves
Lecture 1 - parametrized curves, vector, inner product
Lecture 2 - regular curves, arclength, reparametrization
Lecture 3 - curvature of curve, Frenet formula
Lecture 4 - plane curves, chain rule
Lecture 5 - regid motion, fundamental theorem of space curves
Part 2 Surfaces
Lecture 6 - topology, derivatives, regular surfaces
Lecture 7 - regualr surfaces, tangent plane
Lecture 8 - surface orientation, surface area
Lecture 9 - the first fundamental form, isometry, equiareal map
Lecture 10 - conformal map, stereographic/Mercator projection, Homework 1
Part 3 Curvature of a surface
Lecture 11 - Gauss map
Lecture 12 - self-adjoint linear transformation, normal curvature
Lecture 13 - normal curvature, geometric characterization of Gaussian curvature
Lecture 14 - the second fundamental form, SageMath demo
Lecture 15 - linear algebra on forms and tensor, the first and second fundamental forms revisited
Part 4 Geodesics
Lecture 16 - geodesics, Clairaut's relation
Lecture 17 - exercise session, Homework 2
Lecture 18 - exponential map, normal polar coordinates
Lecture 19 - Gauss's Theorema Egregium, constant Gaussian curvature surfaces, complete surfaces
Lecture 20 - parallel transport, holonomy, covariant derivative
Lecture 21 - geodesics in local coordinates, proof of Gauss's Theorema Egregium
Lecture 22 - Gaussian curvature measures infinitesimal holonomy
Part 5 Gauss-Bonnet theorem
Lecture 23 - the local Gauss-Bonnet theorem
Lecture 24 - exercise session, Homework 3 and 4
Lecture 25 - the global Gauss-Bonnet theorem
Roadmap, where to go, References
Homework 1
Homework 2
Homework 2 - remark
Homework 3
Homework 4
Oral Exam Facts
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