Syllabus for MATH 622, Differential Geometry I,
Spring 14
Instructor: Igor Zelenko
Office: Blocker 620B
Office hours (subject to change): TR 10.00-11:30 a.m. or by
appointment.
e-mail: zelenko"at"math.tamu.edu
Home-page: /~zelenko
Home-page of the course: /~zelenko/S14M622.html
Class hours: TR 5:30-6:45
p.m. BLOC 160
Texts:
1. John M. Lee, Introduction to smooth manifolds,
Edition: 1st Publisher:
Springer, Graduate Texts in Mathematics, Graduate Text in Mathematics,
218
ISBN: 0-387-95495-3 (hardcover) ISBN: 0-387-95448-1 (softcover)
2. Michael Spivak, A Comprehensive Introduction to
Differential Geometry: Volume II, Chapter 6 and 7 there.
Prerequisite: Some basic concepts from Linear algebra and
Topology. See, for example, the appendices of Lee's text.
The course does not have any graduate course as a prerequisite. The
undergraduate prerequisites are standard Calculus courses (MATH 151,
152, 251 or equivalent), Differential Equations (MATH 308), and Linear
algebra (MATH 304 or 323). I will give all mathematical background
beyond the above courses in the class.
Additional references that you may like
to consult include:
- Michael Spivak , Calculus
on Manifolds, [good reference for the Inverse and Implicit
Function Theorems and Exterior Differential Calculus];
- Michael Spivak , A
Comprehensive Introduction to Differential Geometry, v.1 and v. 3,
(in general, there are five volumes of this book, vol. 1 is very
similar to J. Lee book, vol.3 contains some material that we will
also discuss, like surface in R^3, hypersurfaces and Gauss-Bonnet
Theorem).
- Manfredo P. do Carmo, Differential Forms and Applications (good reference for Exterior
differential Calculus, basics of the method of moving frames and
Gauss-Bonnet theorem)
Material. This is the first semester of a year-long graduate
course in differential geometry. We will cover material from the
following chapters of Lee's text: 1 - 8, 11 - 14, 17-19. We will also
go over the classical surface theory (both from a classical and a
modern perspectives). Hopefully we will also cover some theory of
affine connections, including covariant derivatives, parallel
transport, the torsion and curvature tensor, Levi-Civita connection etc
and
the same from the point of view of the method of moving frames
(corresponds to Spivak, volume 2, chapters 6 and 7).
Grading. Your grade will be determined by biweekly home
assignments (40%) and two midterm exams and final exam (20%
each). The grade will be given according to the following
percentage:
85%-100%=A,
75%-84%=B , 65%-74%=C, 55%-64%=D, less than 55%=F
Grade complaints: If
you think a homework or exam was graded incorrectly you have one week
from the time the graded assignment was returned to you to bring the
issue to the instructor's attention. No complaints after that time will
be considered.
Exams: The midterm
exams will take place in evenings,
out of regular class. The first midterm will be around the end of February and the second one
around the beginning of April. The exact dates/time/location of them
will be announce well in advance.
Tentative course schedule:
Jan 14-16-21 Lee Chap.
1-2, Topological and smooth manifolds, smooth
functions and maps, partition of unity, Lee groups (basic)
Jan 23-28 Lee Chap. 3-4, Tangent
Vectors, Pushforwards, Computations in Coordinates, Tangent Vectors to
Curves. Tangent Bundle, Vector Fields on Manifolds, Lie Brackets, Lie
Algebra of a Lie Group.
Jan 30-Feb 4 Lee Chap. 5-6, Vector
Bundles (briefly). Covectors, Tangent Covectors on Manifolds, Cotangent
Bundle, Differential of a Function, Pullbacks, Line Integrals.
Feb 4-6-11
Lee Chap. 11-12, Tensors,
Differential forms, Exterior Differential Calculus.
Feb
13-18 Lee Chap. 7-8 Submersions,
Immersions, Embeddings, Submanifolds.
Feb 20-25-27 Lee Chap 17-18-19 Integral curves
and flow (briefly), Lie derivatives, Distributions, Involutivity,
Frobenious Theorem.
March 4-6-18 (notes will be
posted) Extrinsic Geometry of surface in R^3
March 20* (notes will be posted) Generalization to
hypersurfaces and submanifolds of R^n (brief)
March 25-27 (notes will be posted) Riemannian
Geometry of surfaces.
April 1-3-8-10**( related to Spivak,
v. 3, Chap 6-7) Affine connections, covariant
derivatives, parallel
transport, the torsion and curvature tensor, Levi-Civita connection,
the torsion and curvature forms, Bianchi identity.
April 15-17 Lee Chap 13-14, Orientations,
integration obn manifolds, Stokes theorem.
April 22-24 (notes will be posted) Gauss-Bonnet
Theorem
* Might be ommitted if we will be short in time)
** Might be swapped with the
subsequent material (which is important for the qualifying exam)
Policy regarding absences related
to injury or illness:
All such
absences will be excused if sufficient documentation is provided as per
University policy and
the instructor will help the student make up any missed material.
Scholastic dishonesty: Copying work done by others, either in-class
or out of class, is an act of scholastic dishonesty and will be
prosecuted to the full extent allowed by University policy.
Collaboration on assignments, either in-class or out-of-class, is
forbidden unless permission to do so is granted by your instructor. For
more information on university policies regarding scholastic
dishonesty, see University Student Rules .
Copyright policy: All printed materials disseminated in class
or
on the web are protected by Copyright laws. One xerox copy (or download
from the web) is allowed for personal use. Multiple copies or sale of
any of these materials is strictly prohibited.
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