#1-4 Complete each statement. 1. The Integral Test: Suppose f is a, and function on [1, c0) and let an = f(n). The series E=1ax is convergent if and only if the improper integral %3D is convergent. 2. The p-Series Test: A p-series is a series of the form where p is a number greater than zero. If series converges. If, then the then the series diverges. 3. The Comparison Test: Suppose that Ean and Eb, are series with terms. If E bn is convergent, and a, s bn for all n, then If E bn is divergent, and an 2 bn for all n, then 4. The Limit Comparison Test: Suppose that an and E b, are series with terms. an If lim = c wherec is a and c > then either both series or both series
#1-4 Complete each statement. 1. The Integral Test: Suppose f is a, and function on [1, c0) and let an = f(n). The series E=1ax is convergent if and only if the improper integral %3D is convergent. 2. The p-Series Test: A p-series is a series of the form where p is a number greater than zero. If series converges. If, then the then the series diverges. 3. The Comparison Test: Suppose that Ean and Eb, are series with terms. If E bn is convergent, and a, s bn for all n, then If E bn is divergent, and an 2 bn for all n, then 4. The Limit Comparison Test: Suppose that an and E b, are series with terms. an If lim = c wherec is a and c > then either both series or both series
Algebra & Trigonometry with Analytic Geometry
13th Edition
ISBN:9781133382119
Author:Swokowski
Publisher:Swokowski
Chapter10: Sequences, Series, And Probability
Section10.2: Arithmetic Sequences
Problem 68E
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I need help with these questions 1-4 please
![#1-4 Complete each statement.
1. The Integral Test: Suppose f is a,
and
function on [1, co) and let an =f(n).
The series E=1 ax is convergent if and only if the improper integral
is convergent.
2. The p-Series Test: A p-series is a series of the form
where p is a number greater than zero. If.
series converges. If
then the
then the series diverges.
3. The Comparison Test: Suppose that E an and Eb, are series with
terms.
If E bn is convergent, and a, s bn for all n, then
If E bn is divergent, and an 2 bn for all n, then
4. The Limit Comparison Test: Suppose that E a, and E b, are series with
terms.
an
If lim
nm bn
then either both series
=c where c is a
and c >
or both series
5.
Use the Limit Comparison Test to show that Ek=1
converges.
1+k2](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F00585539-79e1-42a7-8a75-95bc6de8d9d5%2F72f9a7d9-d49b-4c4f-b3e2-090ef219cf9e%2Fg21g93_processed.jpeg&w=3840&q=75)
Transcribed Image Text:#1-4 Complete each statement.
1. The Integral Test: Suppose f is a,
and
function on [1, co) and let an =f(n).
The series E=1 ax is convergent if and only if the improper integral
is convergent.
2. The p-Series Test: A p-series is a series of the form
where p is a number greater than zero. If.
series converges. If
then the
then the series diverges.
3. The Comparison Test: Suppose that E an and Eb, are series with
terms.
If E bn is convergent, and a, s bn for all n, then
If E bn is divergent, and an 2 bn for all n, then
4. The Limit Comparison Test: Suppose that E a, and E b, are series with
terms.
an
If lim
nm bn
then either both series
=c where c is a
and c >
or both series
5.
Use the Limit Comparison Test to show that Ek=1
converges.
1+k2
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