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Example Questions
Example Question #1271 : Calculus
Solve the indefinite integral. If you cannot evaluate directly, use u-substitution.
We rewrite the denominator as a negative exponenet in the numerator to make the u-substitution easier to see:
, which is our final answer.
Example Question #242 : Functions
Solve the indefinite integral. If you cannot evaluate directly, use u-substitution.
, which is our final answer.
Example Question #241 : Differential Functions
Solve the indefinite integral. If you cannot evaluate directly, use u-substitution.
, which is our final answer.
Example Question #1271 : Calculus
Find the derivative of .
The derivative of the difference of two functions is the difference of the derivative of the two functions:
Example Question #1272 : Calculus
Find the derivative of .
We can write the function as
.
Let .
We then have
.
Example Question #1273 : Calculus
Differentiate the function:
Using the chain rule, ,
,
we observe the following:
.
.
, which is our final answer.
Example Question #1274 : Calculus
Differentiate the function:
We evaluate this derivative using the quotient rule:
,
.
Apply the above formula:
, which is our final answer.
Example Question #1275 : Calculus
What is the slope of the line tangent to f(x) = x4 – 3x–4 – 45 at x = 5?
422.125
355.096
400.096
500.00384
355.00384
500.00384
First we must find the first derivative of f(x).
f'(x) = 4x3 + 12x–5
To find the slope of the tangent line of f(x) at 5, we merely have to evaluate f'(x) at 5:
f'(5) = 4*53 + 12* 5–5 = 500 + 12/3125 = 500.00384
Example Question #63 : Other Differential Functions
Solve for when
using the identity:
Example Question #251 : Differential Functions
Differentiate
The Quotient Rule applies when differentiating quotients of functions. Here, equals the quotient of two functions,
and
. Let
and
. (Think:
is the "low" function or denominator and
is the "high" function or numerator.) The Quotient Rule tells us to multiply the "low" function by the derivative of the "high" function, subtract the product of the "high" function and the derivative of the "low" function, and then divide the result by the square of the "low" function. In other words,
Here, so
. Similarly,
so
.
Then
Factoring out from the numerator gives
inverts the order of the numerator, subtracting
from
.
adds the products in the numerator, rather than subtracting them.
fails to square the denominator.
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