All Calculus 2 Resources
Example Questions
Example Question #771 : Integrals
To integrate this expression, remember to add one to the exponent and then put that result on the denominator:
Simplify and add C because it is an indefinite integral:
Example Question #144 : 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 #145 : 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 #146 : 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 #772 : Integrals
Remember, that when integrating, raise the exponent by 1 and then also put that result on the denominator:
Now, remember to add C because it is an indefinite integral:
Example Question #771 : Integrals
Integrate
Example Question #777 : Integrals
Rewrite the integral in terms of the three basic trigonometric ratios
Step 1: Rewrite secant and cosecant in terms of cosine and sine:
Step 2: Rewrite and cancel out any common terms:
Step 3: Make an equivalence relation between the answer and the original function.
Example Question #778 : Integrals
Evaluate the integral:
There are no substitutions that would work in this instance. Therefore, you must integrate by parts. The formula for integrating by parts is:
TO begin, you must assign values of u and dv based from the two different functions in the original integral. Specifically, .
From here, you can find values for du and v:
was found by using the following formula:
V was found by using a u-substitution where and the fact that:
Following the formula, the integral can be rewritten as:
Once again, there is another integral that cannot be evaluated by using a substitution. Therefore, integration by parts must be used again.
The integral can be rewritten again as:
The integral that is left is easily solvable by using a u-substitution where and the fact that . This leaves you with:
Now, the final answer can be written as:
Example Question #779 : Integrals
Evaluate the integral:
Despite the intimidating look of the problem, simplifications can be made. Since, the integrand can be rewritten as:
Because of the properties of logarithms where , the integrand can be rewritten as:
There are no substitutions that can be done here. Therefore, you must integrate by parts. The formula for integrating by parts is:
To begin, you must assign values of u and dv based from the two different functions in the original integral. Specifically, .
From here, you can find values for du and v:
was found by using the following formula:
V was found by using the following formula:
Following the formula, the integral can be rewritten as:
The integral can be taken by using the following formula:
The final answer is:
Example Question #431 : Finding Integrals
Evaluate the integral:
No substitution would work here, but rewriting the integrand via long division is easiest way to solve this problem.
After long division, the quotient should be with a remainder of 3. Whenever there is a remainder, it must be placed over the divisor as a numerator. This makes the original integral expressed as:
Each term of the integrand can be integrated by using the following formula:
For the last term, however, a u-substitution is needed where . The integrand can be rewritten as:
The final answer is:
Certified Tutor
Certified Tutor