Midterm Exam Practice Problems - SI Calculus II | MATH 1220, Exams of Mathematics

Material Type: Exam; Professor: Wills; Class: SI Calculus II; Subject: Math; University: Weber State University; Term: Unknown 1989;

Typology: Exams

Pre 2010

Uploaded on 07/23/2009

koofers-user-v0c
koofers-user-v0c 🇺🇸

9 documents

1 / 2

Toggle sidebar

This page cannot be seen from the preview

Don't miss anything!

bg1
MATH 1220 PRACTICE MIDTERM 3 PLUS
ADDITIONAL QUESTIONS
MIKE WILLS
Practice Midterm
This is a practice midterm. Try to time yourself on it. Be aware
that the questions on the actual midterm may be different in content
from the questions here, but the level of difficulty will be similar. I will
type up solutions at a later date.
Problem 1. Find the area of the region in the xy-plane bounded by
θ= 0, θ=π
2, and r=e2θwhere rand θare the usual polar coordinates.
Problem 2. Define the following terms:
(i) bounded sequence
(ii) monotonic sequence
State the monotonic sequence theorem.
Problem 3. Consider the series
X
n=1
(1)n3n2
4n+ 5. Is it divergent, con-
ditionally convergent, or absolutely convergent?
Problem 4. Give two examples to illustrate why the ratio test is in-
conclusive when R= 1.
Problem 5. What is the interval of convergence of the power series
X
n=1
xn
n?
Problem 6. Compute R1
0ex3dx. You may assume that eu=
X
n=0
un
n!
for all uR.
Additional Problems
I will not type up solutions for these problems. I include them so
that you can get a better feel for the type of questions that I am likely
to ask.
1
pf2

Partial preview of the text

Download Midterm Exam Practice Problems - SI Calculus II | MATH 1220 and more Exams Mathematics in PDF only on Docsity!

MATH 1220 PRACTICE MIDTERM 3 PLUS

ADDITIONAL QUESTIONS

MIKE WILLS

Practice Midterm This is a practice midterm. Try to time yourself on it. Be aware that the questions on the actual midterm may be different in content from the questions here, but the level of difficulty will be similar. I will type up solutions at a later date.

Problem 1. Find the area of the region in the xy-plane bounded by θ = 0, θ = π 2 , and r = e^2 θ^ where r and θ are the usual polar coordinates.

Problem 2. Define the following terms: (i) bounded sequence (ii) monotonic sequence State the monotonic sequence theorem.

Problem 3. Consider the series

∑^ ∞

n=

(−1)n^

3 n − 2 4 n + 5

. Is it divergent, con-

ditionally convergent, or absolutely convergent?

Problem 4. Give two examples to illustrate why the ratio test is in- conclusive when R = 1.

Problem 5. What is the interval of convergence of the power series ∑^ ∞

n=

xn n

Problem 6. Compute

0 e

x^3 dx. You may assume that eu (^) =

∑^ ∞

n=

un n!

for all u ∈ R.

Additional Problems I will not type up solutions for these problems. I include them so that you can get a better feel for the type of questions that I am likely to ask. 1

Problem 7. Show that

∑^ ∞

n=

9 + n^2

converges.

Problem 8. Show that

∑^ ∞

n=

cos^2 n n^3

converges.

Problem 9. Find the length of the arc given by r = cos θ for 0 ≤ θ ≤ π

Problem 10. Does

∑^ ∞

n=

n ln n

converge or diverge?

Problem 11. What is the radius of convergence, R, for the series ∑^ ∞

n=

3 n+1x^2 n? For x ∈ (−R, R), find a closed form for

∑^ ∞

n=

3 n+1x^2 n.

Problem 12. Let f (x) = (^) (x−^1 2) 2. Find a power series representation of f and state the radius of convergence for your series.

2