All AP Calculus AB Resources
Example Questions
Example Question #5 : Understanding The Limiting Process.
Differentiate:
Use the product rule to find the derivative of the function.
Example Question #6 : Understanding The Limiting Process.
Differentiate:
The derivative of any function of e to any exponent is equal to the function multiplied by the derivative of the exponent.
Example Question #7 : Understanding The Limiting Process.
Find the second derivative of .
Factoring out an x gives you .
Example Question #181 : Functions, Graphs, And Limits
What is the derivative of ?
Need to use the power rule which states:
In our problem
Example Question #11 : Understanding The Limiting Process.
Consider:
The 99th derivative of is:
For , the nth derivative is . As an example, consider . The first derivative is , the second derivative is , and the third derivative is . For the question being asked, the 99th derivative of would be . The 66th derivative of would be , and any higher derivative would be zero, since the derivative of any constant is zero. Thus, for the given function, the 99th derivative is .
Example Question #11 : Understanding The Limiting Process.
Consider the function .
Which of the following is true when ?
and is increasing and concave up.
and is increasing and concave down.
and is increasing and concave up.
and is increasing and concave down.
and is decreasing and concave up.
and is increasing and concave up.
, meaning is increasing when .
, meaning is concave up when .
Example Question #11 : Understanding The Limiting Process.
Find the derivative of .
To find the derivative of this expression, you must use the chain rule. This means you take the exponent of the binomial and multiply it by the coefficient in front of the binomial (1, in this case). Then, decrease the exponent of the binomial by 1. Lastly, find the derivative of the binomial.
Thus, your answer is:
.
Example Question #51 : Limits Of Functions (Including One Sided Limits)
Find the derivative of:
This problem involves the chain rule for derivatives. However, you must first rewrite the function as:
or .
Then, apply the chain rule (first multiply the exponent by the coefficient in front of the binomial [1], then decrease the exponent of the binomial by 1, and finally take the derivative of the binomial):
When simplifiying, change negative exponents to positive ones. Therefore, the answer is:
.
Example Question #15 : Understanding The Limiting Process.
If , then
The correct answer is .
We must use the product rule to solve. Remember that the derivative of is .
Example Question #52 : Limits Of Functions (Including One Sided Limits)
Differentiate .
The derivative of is equal to therefore the first part of the equation remains the same.
The second part requires regular differential rules.
Therefore when differentiating you get .
Combining the first and second part we get the final derivative:
.