All Calculus 2 Resources
Example Questions
Example Question #16 : Limits And Continuity
Given the above graph of , over which of the following intervals is continuous?
For a function to be continuous at a given point , it must meet the following two conditions:
1.) The point must exist, and
2.) .
Examining the above graph, is continuous at every possible value of except for , . Thus, is continuous on the interval .
Example Question #511 : Limits
Given the above graph of , over which of the following intervals is continuous?
For a function to be continuous at a given point , it must meet the following two conditions:
1.) The point must exist, and
2.) .
Examining the above graph, is continuous at every possible value of except for , . Thus, is continuous on the interval .
Example Question #511 : Calculus Ii
Given the above graph of , over which of the following intervals is continuous?
For a function to be continuous at a given point , it must meet the following two conditions:
1.) The point must exist, and
2.) .
Examining the above graph, is continuous at every possible value of except for . Thus, is continuous on the interval .
Example Question #1 : Parametric, Polar, And Vector Functions
Rewrite as a Cartesian equation:
So
or
We are restricting to values on , so is nonnegative; we choose
.
Also,
So
or
We are restricting to values on , so is nonpositive; we choose
or equivalently,
to make nonpositive.
Then,
and
Example Question #1 : Parametric
Write in Cartesian form:
Rewrite using the double-angle formula:
Then
which is the correct choice.
Example Question #2 : Parametric
Write in Cartesian form:
, so
.
, so
Example Question #511 : Calculus Ii
Write in Cartesian form:
,
so the Cartesian equation is
.
Example Question #4 : Parametric
Write in Cartesian form:
so
Therefore the Cartesian equation is .
Example Question #2 : Parametric, Polar, And Vector Functions
Rewrite as a Cartesian equation:
, so
This makes the Cartesian equation
.
Example Question #7 : Parametric
and . What is in terms of (rectangular form)?
In order to solve this, we must isolate in both equations.
and
.
Now we can set the right side of those two equations equal to each other since they both equal .
.
By multiplying both sides by , we get , which is our equation in rectangular form.
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