Question
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Answer
The integral converges if
and diverges if
.
Solution
The integral
is an improper integral due to the upper limit being infinity. To evaluate it, we can analyze the behavior of the integrand as
approaches infinity and determine if the integral converges or diverges.
Step 1: Simplify the integrand
First, let’s rewrite the integrand:
Step 2: Analyze the behavior as
As
approaches infinity, we can approximate the integrand:
Step 3: Determine convergence
The convergence of the integral depends on the exponent
:
- If
(i.e., ), the integral converges. - If
(i.e., ), the integral diverges.
Conclusion
The integral converges if
and diverges if
.
If you need to evaluate the integral for a specific value of
that satisfies the convergence condition, please provide that value.
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Extra Insights
To evaluate the integral
, we begin by simplifying the expression in the integrand. Note that
.
As
, the dominant term in the denominator,
, behaves like
. This allows us to rewrite the integrand for large
:
To determine convergence of the integral, we analyze the behavior based on the value of
:
- If
, then implies the integral diverges because the integrand behaves like . - If
, the integrand behaves like , leading the integral to diverge as well. - If
, we have , and thus, the integral converges since the integrand behaves like which goes to 0.
Now, we can write:
We conclude the assessment by evaluating at
which leads to divergence and finding the points of convergence at
. For
, the result diverges indicating that special care must be taken while analyzing the integral behavior based on
's value.