All Calculus 2 Resources
Example Questions
Example Question #4 : Derivative At A Point
What is the equation of the line tangent to the graph of the function
at the point ?
The slope of the line tangent to the graph of at the point is , which can be evaluated as follows:
The line with slope 28 through has equation:
Example Question #1195 : Calculus Ii
Let the initial approximation of the ninth root of 100 be
.
Use one iteration of Newton's method to find approximation . Give your answer to the nearest thousandth.
This is equivalent to finding a solution of the equation
,
or the zero of the polynomial
.
Using Newton's method, we can find from the formula
.
, so
Example Question #4 : Chain Rule And Implicit Differentiation
Evaluate .
To find , substitute and use the chain rule:
Plug in 3:
Example Question #5 : Chain Rule And Implicit Differentiation
Evaluate .
Undefined
To find , substitute and use the chain rule:
So
and
Example Question #6 : Chain Rule And Implicit Differentiation
Evaluate .
Undefined
To find , substitute and use the chain rule:
Example Question #7 : Chain Rule And Implicit Differentiation
Evaluate .
To find , substitute and use the chain rule:
So
and
Example Question #8 : Chain Rule And Implicit Differentiation
Evaluate .
To find , substitute and use the chain rule:
So
and
Example Question #71 : Derivative Review
What is the equation of the line tangent to the graph of the function
at ?
The slope of the line tangent to the graph of at is
, which can be evaluated as follows:
Then , which is the slope of the line.
The equation of the line with slope 12 through is:
Example Question #71 : Derivatives
Let the initial approximation of the seventh root of 1,000 be
.
Use one iteration of Newton's method to find approximation . Give your answer to the nearest thousandth.
This is equivalent to finding a solution of the equation
,
or the zero of the polynomial
.
Using Newton's method, we can find from the formula
.
, so
Example Question #1203 : Calculus Ii
Let the initial approximation of a solution of the equation
be .
Use one iteration of Newton's method to find an approximation of . Give your answer to the nearest thousandth.
Rewrite the equation to be solved for as
.
Let .
Then,
.
The problem amounts to finding a zero of . By Newton's method, the second approximation can be derived from the first using the equation
.
, so
and