All Calculus 2 Resources
Example Questions
Example Question #13 : Other Derivative Review
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, and .
The antiderivative is .
Example Question #14 : Other Derivative Review
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, and .
The antiderivative is .
Example Question #15 : Other Derivative Review
Suppose and are related implicitly by the equation . Find in terms of and .
To take the second derivative of this implicit function, we must take the first derivative. To do so, we take the derivative of our implicit function with respect to :
Here, we invoked the chain rule to take the derivatives of the terms, imagining as the inner function. This gives us an equation in which we can then solve for by algebraic means:
Now we have the value of . Now to find , we take the derivative of the above function with respect to :
In the above, we used the quotient rule to take the derivative of the fraction, and then again using the chain rule on expressions involving . Now since our derivative must be in terms of and , we need to get rid of the in the above equation. Thus we substitute the first derivative expression which we found at the start of the problem into the fraction above:
Now it is a matter of simplifying these equations. To do so, we multiply top and bottom by :
Finally, we arrive at the desired result.
Example Question #1612 : Calculus Ii
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 #12 : Other Derivative Review
What is the derivative of ?
The trigonometric functions have specific derivatives that one needs to memorize.
The basic trigonometric derivatives are as follows.
This particular question asks for the derivative for tangent and thus the correct solution is,
Example Question #1621 : Calculus Ii
What is when ?
To find the value of the velocity at 3, find the derivative of the position function. Remember, when taking the derivative, multiply the exponent by the coefficient in front of the x term and then subtract one from the exponent.
Therefore,
.
Then, plug in 0 for t.
Therefore,
.
Example Question #1621 : Calculus Ii
Find by implicit differentiation
Example Question #1621 : Calculus Ii
What is a possible function for if
Let
Step 1: Take the derivative of four times by using the power rule. The results are below:
Example Question #1621 : Calculus Ii
. Find .
Since both the numerator and denominator contain a variable, we must use the quotient rule.
Remember that the derivative of a constant raised to a variable power follows the pattern, , where a is a constant and u is a function of x.
Applying this we get,
Now we simplify by factoring the greatest common factor out of the numerator.
Then we can cancel a single from the numerator and denominator.
This is the correct answer.
Example Question #1621 : Calculus Ii
Differentiate .
Undefined
Using the Quotient rule for derivatives, we know that the derivative will equal .
When you simplify this, you get .
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