All Calculus 2 Resources
Example Questions
Example Question #313 : Finding Integrals
Calculate the following integral:
At first glance, it may look like we need to use partial fraction decomposition to solve this integral. However, this integral is much simpler than that. recall that
. The integral we need to solve, is just the derivative of , scaled by a factor of four. So, the solution to our integral is:
Example Question #41 : Indefinite Integrals
We can solve this integral with u substitution. let , so,
Making this substitution, our integral looks like this:
So,
Example Question #42 : Indefinite Integrals
Calculate the following integral:
We can solve this integral via u substitution:
let and Thus, our integral becomes:
which equals:
Re-substituting our value for u back in, we get our answer:
Example Question #42 : Indefinite Integrals
Evaluate the following indefinite integral:
The antiderivative of a sum is the sum of the antiderivatives. The first term in the integrand can be solved by u-substitution, as follows:
The second term in the integrand is a straightforward integration of a trigonometric function:
Hence, the antiderivative of the original function is
Example Question #42 : Indefinite Integrals
Evaluate.
Answer not listed
In order to evaluate an integral, first find the antiderivative of
- If then
- If then
- If then
- If then
- If then
- If then
- If then
- Substitution rule where
In this case, .
The antiderivative is .
Example Question #43 : Indefinite Integrals
Evaluate.
Answer not listed
In order to evaluate an integral, first find the antiderivative of
- If then
- If then
- If then
- If then
- If then
- If then
- If then
- Substitution rule where
In this case, where .
The antiderivative is .
Example Question #41 : Indefinite Integrals
This is a u-substitution problem. First, let us rewrite our trigonometric function:
We want to replace our variables to make the integral easier to solve.
Now, we have replaced everything in our integral in terms of our new variable However, we have an extra that was not part of our original function. Therefore, we must divide by so that we match everything exactly. Rewriting, we get:
Now, all we have to is substitute our original variable back in.
Example Question #322 : Finding Integrals
Evaluate.
Answer not listed
In order to evaluate this integral, first find the antiderivative of
If then
If then
If then
If then
If then
If then
If then
In this case, .
The antiderivative is .
Example Question #675 : Integrals
Evaluate.
Answer not listed
In order to evaluate this integral, first find the antiderivative of
If then
If then
If then
If then
If then
If then
If then
In this case, where .
The antiderivative is .
Example Question #676 : Integrals
Answer not listed
In order to evaluate this integral, first find the antiderivative of
If then
If then
If then
If then
If then
If then
If then
In this case, and .
The antiderivative is .