All Calculus 2 Resources
Example Questions
Example Question #7 : Definite Integrals
Calculate the value of the definite integral.
In order to calculate the definite integral, we apply the inverse power rule which states
Applying this to the problem in this question we get
And by the corollary of the Fundamental Theorem of Calculus the definite integral becomes
And so
Example Question #8 : Definite Integrals
Evaluate:
The integral can be rewritten as:
The integration of a constant is simply the constant times the variable it is integrating with respect to. Plug in the upper bound and subtract after substituting the lower bound.
There is no need to add a term at the end when we are dealing with definite integrals.
The answer is:
Example Question #9 : Definite Integrals
Evaluate:
Integrate each term.
Substitute the upper bound and subtract the quantity after substituting of the lower bound.
The right hand side of the equation becomes:
Convert all fraction to the least common denominator.
Simplify the terms.
The answer is:
Example Question #10 : Definite Integrals
Solve the integral:
None of the chocies.
Must choose what which term is or .
, take the derivative to get
, integrate to get
Plug into parts into the equation:
Integrating again, while including the bounds gives:
Example Question #11 : Definite Integrals
Find the integral of this equation:
Distribute the polynomial first:
Then integrate:
And plug and solve:
Example Question #21 : Finding Integrals
Evaluate the integral:
Factor the polynomial:
Then integrate (To integrate, add 1 power of each term. So . Then divide the term by the value of the exponent. .
Then evaulate the integral:
=
Example Question #22 : Finding Integrals
Simplify:
Integrate:
Evaluate:
Example Question #23 : Finding Integrals
Find the integral:
Integrate new equation:
Use natural log rules:
Example Question #15 : Definite Integrals
Evaulate the integral:
Simplify:
Seperate the terms:
Now integrate the simplified form:
Example Question #24 : Finding Integrals
Evaluate the definite integral
Because integration is a linear operation, we are able to anti-differentiate the function term by term.
We use the properties that
- The anti-derivative of is
- The anti-derivative of is
to solve the definite integral
And by the corollary of the Fundamental Theorem of Calculus