All High School Math Resources
Example Questions
Example Question #1 : Finding Definite Integrals
Remember the fundamental theorem of calculus!
Since our , we can't use the power rule. We have to break up the quotient into separate parts:
.
The integral of 1 should be no problem, but the other half is a bit more tricky:
is really the same as . Since , .
Therefore:
Remember to include the for any anti-derivative or integral taken!
Now we can plug that equation into our FToC equation:
Notice that the c's cancel out. Plug in the given values for a and b and solve:
Example Question #5 : Integrals
Remember the fundamental theorem of calculus!
Since our , we can use the power rule, if we turn it into an exponent:
This means that:
Remember to include the for any anti-derivative or integral taken!
Now we can plug that equation into our FToC equation:
Notice that the c's cancel out. Plug in the given values for a and b and solve:
Example Question #6 : Integrals
Remember the fundamental theorem of calculus!
Since our , we can't use the power rule, as it has a special antiderivative:
Remember to include the for any anti-derivative or integral taken!
Now we can plug that equation into our FToC equation:
Notice that the c's cancel out. Plug in the given values for a and b and solve:
Example Question #11 : Finding Integrals
Remember the fundamental theorem of calculus!
Since our , we can't use the power rule, as it has a special antiderivative:
Remember to include the for any anti-derivative or integral taken!
Now we can plug that equation into our FToC equation:
Notice that the c's cancel out. Plug in the given values for a and b and solve:
Example Question #11 : Finding Integrals
Remember the fundamental theorem of calculus!
Since our , we can't use the power rule, as it has a special antiderivative:
Remember to include the for any anti-derivative or integral taken!
Now we can plug that equation into our FToC equation:
Notice that the c's cancel out. Plug in the given values for a and b and solve:
Example Question #12 : Finding Integrals
Remember the fundamental theorem of calculus!
Since our , we can't use the power rule. Instead we must use u-substituion. If .
Remember to include the for any anti-derivative or integral taken!
Now we can plug that equation into our FToC equation:
Notice that the c's cancel out. Plug in the given values for a and b and solve:
Example Question #13 : Finding Integrals
Remember the fundamental theorem of calculus!
Since our , we can use the reverse power rule to find that the antiderivative is:
Remember to include a for any integral or antiderivative taken!
Now we can plug that equation into our FToC equation:
Notice that the c's cancel out. Plug in the given values for a and b and solve:
Example Question #14 : Finding Integrals
If n is a positive integer, find .
0
We can find the integral using integration by parts, which is written as follows:
Let and . We can get the box below:
Now we can write:
Example Question #15 : Finding Integrals
?
Remember the fundamental theorem of calculus! If , then .
Since we're given , we need to find the indefinite integral of the equation to get .
To solve for the indefinite integral, we can use the reverse power rule. We raise the power of the exponents by one and divide by that new exponent. For this problem, that would look like:
Remember, when taking an integral, definite or indefinite, we always add , as there could be a constant involved.
Now we can plug that back in:
Notice that the 's cancel out.
Plug in our given numbers.
Example Question #91 : Asymptotic And Unbounded Behavior
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Remember the fundamental theorem of calculus! If , then .
Since we're given , we need to find the indefinite integral of the equation to get .
To solve for the indefinite integral, we can use the reverse power rule. We raise the power of the exponents by one and divide by that new exponent.
We're going to treat as , as anything to the zero power is one.
For this problem, that would look like:
Remember, when taking an integral, definite or indefinite, we always add , as there could be a constant involved.
Plug that back into the FTOC:
Notice that the 's cancel out.
Plug in our given values from the problem.