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Example Questions
Example Question #91 : Vector Form
What is the vector form of ?
In order to derive the vector form, we must map the , , -coordinates to their corresponding , , and coefficients.
That is, given, the vector form is .
So for , we can derive the vector form .
Example Question #113 : Linear Algebra
Given points and , what is the vector form of the distance between the points?
In order to derive the vector form of the distance between two points, we must find the difference between the , , and elements of the points.
That is, for any point and , the distance is the vector .
Subbing in our original points and , we get:
Example Question #91 : Vector Form
Given points and , what is the vector form of the distance between the points?
In order to derive the vector form of the distance between two points, we must find the difference between the , , and elements of the points.
That is, for any point and , the distance is the vector .
Subbing in our original points and , we get:
Example Question #91 : Vectors
What is the vector form of ?
In order to derive the vector form, we must map the , , -coordinates to their corresponding , , and coefficients.
That is, given, the vector form is .
So for , we can derive the vector form .
Example Question #92 : Vector Form
What is the vector form of ?
In order to derive the vector form, we must map the , , -coordinates to their corresponding , , and coefficients.
That is, given , the vector form is .
So for , we can derive the vector form .
Example Question #11 : Vectors & Spaces
What is the vector form of ?
None of the above
Given , we need to map the , , and coefficients back to their corresponding , , and -coordinates.
Thus the vector form of is .
Example Question #11 : Vectors
Express in vector form.
In order to express in vector form, we must use the coefficients of and to represent the -, -, and -coordinates of the vector.
Therefore, its vector form is
.
Example Question #441 : Parametric, Polar, And Vector
What is the arclength, from to , of the curve:
Hint:
Arclength is given by the formula:
We should find dy/dx first, which we find to be:
Now let's proceed with the integral:
(here we apply the integration described in the hint)
which is obtained by evaluating at both boundaries.
Example Question #2 : Graphing Vectors
Find the area of the polar equation:
When you plot the graph of , the bounds are between and .
Use the area formula for polar equations:
And so we find the area to be:
Example Question #3 : Graphing Vectors
The graph of the vector valued function
looks most like which of the following scalar functions graphed on a Cartesian coordinate system?
To determine this, we must convert our parametric form back into Cartesian form
To do this, we will solve for and reverse substitute.
Since we know the parameterization for y, we substitute in for
Our answer therefore is
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