Math 311-200 Final Exam Review
Date and time The final exam will be on Wednesday,
5/10/06, from 10:30 a.m. to 12:30 p.m. in our regular classroom (BLOC
164). Please bring an 8½×11 bluebook.
Extra office hours I will have extra office hours on
Friday, from 9 am to 10:30 am, and on Tuesday, from 9 am to 10 am and
from 2 pm to 3:30 pm.
Material not directly covered
- There will be no direct questions on matrix operations, row
reduction, determinants, etc. However, you will need to know these
topics well enough to use them in answering questions from the
material below.
Material directly covered
-
Chapter 2, sections 2.1-2.4
-
Chapter 3, sections 3.1, 3.2, 3.3, 3.5 (skip Theorem 3.6)
-
Chapter 4, sections 4.1, 4.2, 4.3, 4.5, and 4.6. You should also know
the structure of the characteristic polynomial; that is, that
pA(λ) = λn -
(trace(A))λn-1 + ... + (-1)n det(A)
-
Chapter 5, section 5.3
-
Chapter 6
- Inner products and inner product spaces
- Orthogonal and orthonormal sets
- Gram-Schmidt process
- Least-squares
- Fourier series
- Discrete Fourier transform
Calculators Calculators will be allowed.
Structure There will be 7 to 9 questions, some with
multiple parts. Material from chapters 2-5 will count for 65-70
points, and material from and related to chapter 6 will count for
30-35 points. The questions will be similar to ones done for homework
or as examples done in class or in the text. There will be one
``theory'' question taken from the following list.
- Be able to prove this representation theorem: If a vector
space V has a basis B = {v1, ...,
vn}, then every v in V can be represented in
one and only one way as
v = c1 v1 + ... + cn
vn, where the cj's are scalars.
- Be able to show that if a vector space V has a basis B =
{v1, ..., vn}, then every set
with n+1 or more vectors is linearly dependent.
- Be able to state and prove Schwarz's inequality.
- Be able to show that if a subspace of an inner product space has
an orthogonal basis B = {v1, ...,
vn}, then for any v in that subspace the
coefficients in the expansion
v = c1 v1 + ... + cn
vn are given by
cj = <
vj | v >/< vj |
vj >.
Updated 5/2/06