All Calculus 1 Resources
Example Questions
Example Question #1002 : Differential Functions
Find the first derivative of
We must use the product rule here, which says
Here,
So,
Now, as we differentiate each term, we see that we will need the chain rule for the derivative in the first term, which says
Applying the rule, as we continue to differentiate
Simplifying, we get
Example Question #1003 : Differential Functions
Find the first derivative of
Here, we will need the chain rule, which says
Here,
Differentiating, we get
Example Question #1001 : Differential Functions
Find the first derivative of
We need to use the chain rule TWICE, which says
Here,
Differentiating, gives us
Simplifying,
Example Question #1004 : Differential Functions
Find the first derivative of
We need to use the product rule, which says
Differentiating gives us
Factoring, gives us
Example Question #1005 : Differential Functions
Find the first derivative of
We need the product rule, which says
Differentiating gives
To differentiate the second term, we need the chain rule, which says
Continuing to differentiate,
Simplifying,
Example Question #1002 : Differential Functions
Find the first derivative of
We need to use the quotient rule here to differentiate, which says
Applying the quotient rule to differentiate,
Simplifying,
Example Question #821 : How To Find Differential Functions
Find the first derivative of
We need to use the chain rule TWICE, which says
Here,
Applying the rule to differentiate,
Simplifying,
Example Question #1002 : Differential Functions
Find the first derivative of
We will need to use the product rule to differentiate the second term, which says
Applying to differentiate y,
Factoring to simplify, gives
Example Question #2032 : Calculus
Find the derivative of y using implicit differentiation for the following function:
To solve for y' - the derivative of y - we must use implicit differentiation. All of the normal differentiation rules apply, but when we take the derivative of y with respect to x we must always include .
For the function given, when we take the derivative of both sides of the equation with respect to x, we get
using the following rules:
,
Finally, solve for :
.
Example Question #821 : How To Find Differential Functions
Determine if the piecewise function is differentiable:
It is differentiable and continuous
It is continuous but not differentiable
It is neither continuous nor differentiable
It is differentiable but not continuous
It is differentiable and continuous
Remember, for a function to be differentiable, it must be continuous and differentiable at all points.
Since both functions are smooth and continuous, we look at their behavior at their intersection at
For the first function,
For its derivative, we use the power rule:
,
For the second function:
For the second function's derivative, we use the power rule:
Since both the derivatives and the function values agree, this function is differentiable at all points.
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