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Example Questions
Example Question #711 : Functions
As per the mean value theorem, there exists at least one value within the interval
such that
. For the function, interval, and derivative value
,
,
, find a value of
that validates the mean value theorem.
The mean value theorem states that for a planar arc passing through a starting and endpoint , there exists at a minimum one point,
, within the interval
for which a line tangent to the curve at this point is parallel to the secant passing through the starting and end points.
In other words, if one were to draw a straight line through these start and end points, one could find a point on the curve where the tangent would have the same slope as this line.
Using our function, interval, and derivative definitions, ,
,
, we'll in turn wish to solve for
to validate the mean value theorem:
Solving for using a calculator gives the solution:
Although there are two solutions, keep in mind that to satisfy the mean value theorem, we find a value to define the interval , and as such b should be greater than 1.5
Example Question #712 : Functions
Consider a line tangent to the function at point
. If this line also passes through point
, then the following must be true:
The slope of the tangent line, , is equal to the slope of the function where it is defined. Furtheremore, the derivative of the function at this point is equal to the value of this slope:
We can find the slope of the tangent line in this problem using rise over run:
Therefore:
Example Question #711 : Differential Functions
Consider a line tangent to the function at point
. If this line also passes through point
, then the following must be true:
The slope of the tangent line, , is equal to the slope of the function where it is defined. Furtheremore, the derivative of the function at this point is equal to the value of this slope:
We can find the slope of the tangent line in this problem using rise over run:
Therefore:
Example Question #711 : Functions
Consider a line tangent to the function at point
. If this line also passes through point
, then the following must be true:
The slope of the tangent line, , is equal to the slope of the function where it is defined. Furtheremore, the derivative of the function at this point is equal to the value of this slope:
We can find the slope of the tangent line in this problem using rise over run:
Therefore:
Example Question #525 : Other Differential Functions
Consider a line tangent to the function at point
. If this line also passes through point
, then the following must be true:
The slope of the tangent line, , is equal to the slope of the function where it is defined. Furtheremore, the derivative of the function at this point is equal to the value of this slope:
We can find the slope of the tangent line in this problem using rise over run:
Therefore:
Example Question #526 : Other Differential Functions
Consider a line tangent to the function at point
. If this line also passes through point
, then the following must be true:
The slope of the tangent line, , is equal to the slope of the function where it is defined. Furtheremore, the derivative of the function at this point is equal to the value of this slope:
We can find the slope of the tangent line in this problem using rise over run:
Therefore:
Example Question #527 : Other Differential Functions
Consider a line tangent to the function at point
. If this line also passes through point
, then the following must be true:
The slope of the tangent line, , is equal to the slope of the function where it is defined. Furtheremore, the derivative of the function at this point is equal to the value of this slope:
We can find the slope of the tangent line in this problem using rise over run:
Therefore:
Example Question #711 : Differential Functions
Given that and
, use Euler's method to approximate
using three steps.
When using Euler's method, the first step is to calculate step size:
Now, to approximate function values using Euler's method, utilize the following formula:
After that, it's merely a matter of taking the steps:
Example Question #531 : Other Differential Functions
Given that and
, use Euler's method to approximate
using three steps.
When using Euler's method, the first step is to calculate step size:
Now, to approximate function values using Euler's method, utilize the following formula:
After that, it's merely a matter of taking the steps:
Example Question #713 : Differential Functions
Given that and
, use Euler's method to approximate
using three steps.
When using Euler's method, the first step is to calculate step size:
Now, to approximate function values using Euler's method, utilize the following formula:
After that, it's merely a matter of taking the steps:
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