All Calculus 2 Resources
Example Questions
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 .
Example Question #1621 : Calculus Ii
Differentiate .
Using the Quotient rule for derivatives, we know that the derivative will equal :.
If you simplify this, you will get:
Example Question #1621 : Calculus Ii
Differentiate .
Rewriting the original equation gives us .
Then, one can just use the power rule to get: .
Simplifying this gives us: .
Example Question #1621 : Calculus Ii
Express the derivative of in simplest terms.
Example Question #502 : Derivative Review
Find the derivative of in simplest form.
Example Question #1622 : Calculus Ii
What is the first derivative of ?
Example Question #21 : Other Derivative Review
Which of the following IS NOT a rule used when finding derivatives of any function?
Chain Rule
Exponential Rule of Logarithms
Power Rule
Product Rule
Exponential Rule of Logarithms
Step 1: Recall any rules that are used in derivatives...
- Power Rule
- Quotient Rule
- Product Rule
- Chain Rule
Step 2: Look at the choices in the question and compare the ones listed in Step 1.
We see Power Rule, Chain Rule, and Product Rule.
There is no such rule called the Addition rule, so this is the incorrect answer.
Example Question #502 : Derivatives
Suppose , , and any composite function between them are defined and differentiable everywhere. Given the derivatives for and :
Find the derivative of where,
This is a conceptual problem. First notice that the function is the sum of two functions and . We must differentiate each term.
To differentiate the first term, notice that is a function of the function , so we must use the chain rule to differentiate with respect to . We cannot conclude that .
We were given . What this equation is telling us is that the function will have a derivative that is 2 times whatever is inside the parenthesis, with respect to the whatever is inside the parenthesis. If we wish to use to differentiate the composite we can start with the derivative with respect to , which will be .
Now if we want to differentiate with respect to , we take the derivative with respect to and multiply by the derivative of with respect to (the chain rule).
We were given
Now we can write the derivative of ,
Example Question #501 : Derivative Review
Find the equation of the tangent line to the curve,
at
Find the equation of the tangent line to the curve,
at
Find the equation of the tangent line to the curve corresponding to
The first step is to compute the derivative for the function and then evaluate the derivative at
Therefore will be the slope of the tangent line at . Write an equation for the line,
Now we need to find the y-intercept. Use the original function to find when .
This gives us the point at which the tangent line meets the curve,
Now use this point to find the y-intercept,
.
The equation of the line is therefore,