All Calculus 2 Resources
Example Questions
Example Question #171 : Indefinite 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 #172 : Indefinite Integrals
Evaluate.
Answer not listed.
In order to evaluate this integral, first find the antiderivative of
In this case, .
The antiderivative is .
Using the Fundamental Theorem of Calculus, evaluate the integral using the antiderivative:
Example Question #173 : Indefinite Integrals
Evaluate.
Answer not listed
Answer not listed
In order to evaluate this integral, first find the antiderivative of
In this case, .
The antiderivative is .
Using the Fundamental Theorem of Calculus, evaluate the integral using the antiderivative:
Example Question #174 : Indefinite 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 #801 : Integrals
Evaluate
None of the other answers
This integral can be evaluated using -substitution.
Then we can proceed as follows
(Start)
(Factor out a , leaving a in the numerator)
(Substitute the equations for )
(Integrate, recall that )
(Substitute back in)
Example Question #176 : Indefinite Integrals
The anti-derivative of is simply . This is the perfect function that no matter if you take the derivative or the anti-derivative, it always returns back the original function. The integral of the constant returns the constant multiplied by the integration variable. Then, since this is an indefinite integral, we must include the integration constant,
Example Question #177 : Indefinite Integrals
The indefinite integral is a reverse chain rule. Remember, anti-derivatives are the exact opposite of the derivative of this function. So, let's start there:
Therefore, to undo this answer, we would have to get rid of the negative sign and divide by the chain rule part. We also add our integration constant. You would get the same result (but longer time) if you used u-substitution.
.
Example Question #178 : Indefinite Integrals
Evaluate the following indefinite integral:
This integral requires use of the power rule for antiderivatives, which simplifies as follows:
Example Question #179 : Indefinite Integrals
Evaluate the following indefinite integral:
Make the substitution:
where
Substituting this into the original expression:
Example Question #171 : Indefinite Integrals
Evaluate the following indefinite integral:
To solve this with integration by parts, we rewrite the expression in the form
where
and
To integrate, apply the formula for integration by parts: