All Calculus 2 Resources
Example Questions
Example Question #111 : Polar
Describe the graph of from
.
horizontal line at
circle centered around the origin with a radius of
line passing through the origin and
vertical line at
vertical line at
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
Using the identity , we see the graph of
will have the same shape as the graph
, or a vertical line at
.
Example Question #112 : Polar
Describe the graph of from
.
horizontal line at
vertical line at
circle centered at the origin with a radius of
line passing through the origin and
horizontal line at
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
Using the identity , we see the graph of
will have the same shape as the graph
, or a horizontal line at
.
Example Question #113 : Polar
Describe the graph of from
.
circle centered around with a radius of
circle centered around with a radius of
circle centered around with a radius of
line passing through the origin and
circle centered around with a radius of
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
Substituting values of (in radians) between
and
into our expression, we find values of r. We then plot each ordered pair,
, using the
value as the radius and
as the angle. We get the graph below, a circle centered around
with a radius of
.
Example Question #114 : Polar
Describe the graph of from
.
circle centered around with a radius of
circle centered around with a radius of
circle centered around with a radius of
circle centered around with a radius of
circle centered around with a radius of
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
Substituting values of (in radians) between
and
into our expression, we find values of r. We then plot each ordered pair,
, using the
value as the radius and
as the angle. We get the graph below, a circle centered around
with a radius of
.
Example Question #115 : Polar
Describe the graph of from
.
a cardioid (heart shape) rotated left
a cardioid (heart shape) rotated right
an upright cardioid
an upside-down cardioid
a cardioid (heart shape) rotated left
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
From our equation, we know the shape of our graph will be a cardioid because our equation is in the form where
. Our cardioid is symmetric about the x-axis because our equation includes the
function The point of the cardioid is at the origin. The y-intercepts are at
and
. The x-intercept is at
.
We could also substitute values of (in radians) between
and
into our expression, to find values of r. We then plot each ordered pair,
, using the
value as the radius and
as the angle.
We get the graph below, a cardioid (heart shape) rotated left.
Example Question #116 : Polar
Describe the graph of from
.
a cardioid (heart shape) rotated left
an upright cardioid (heart shape)
an upside down cardioid (heart shape)
a cardioid (heart shape) rotated right
an upright cardioid (heart shape)
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
From our equation, we know the shape of our graph will be a cardioid because our equation is in the form where
. Our cardioid is symmetric about the y-axis because our equation includes the
function. The point of the cardioid is at the origin. The x-intercepts are at
and
. The y-intercept is at
.
We could also substitute values of (in radians) between
and
into our expression, to find values of r. We then plot each ordered pair,
, using the
value as the radius and
as the angle.
We get the graph below, an upright cardioid (heart shape).
Example Question #117 : Polar
Describe the graph of from
.
A limacon without a loop rotated right
A limacon without a loop rotated left
An upside-down limacon without a loop
An upright limacon without a loop
An upside-down limacon without a loop
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
From our equation, we know the shape of our graph will be a limacon because our equation is in the form where
. This limacon will have no loop because
. Our limacon is symmetric about the y-axis because our equation includes the
function. The x-intercepts are at
and
. The y-intercept is at
.
We could also substitute values of (in radians) between
and
into our expression, to find values of r. We then plot each ordered pair,
, using the
value as the radius and
as the angle.
We get the graph below, an upside-down limacon.
Example Question #118 : Polar
Describe the graph of from
.
An upside down limacon without a loop
A limacon without a loop rotated right
An upright limacon without a loop
A limacon without a loop rotated left
A limacon without a loop rotated right
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
From our equation, we know the shape of our graph will be a limacon because our equation is in the form where
. This limacon will have no loop because
. Our limacon is symmetric about the x-axis because our equation includes the
function. The y-intercepts are at
and
. The x-intercept is at
.
We could also substitute values of (in radians) between
and
into our expression, to find values of r. We then plot each ordered pair,
, using the
value as the radius and
as the angle.
We get the graph below, an limacon turned right.
Example Question #119 : Polar
Describe the graph of from
.
a limacon with a loop turned right
an upright limacon with a loop
a limacon with a loop turned left
an upside-down limacon with a loop
a limacon with a loop turned left
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
From our equation, we know the shape of our graph will be a limacon because our equation is in the form where
. This limacon will have a loop because
. The length of the loop is
. Our limacon is symmetric about the x-axis because our equation includes the
function. The y-intercepts are at
and
. The x-intercept is at
.
We could also substitute values of (in radians) between
and
into our expression, to find values of r. We then plot each ordered pair,
, using the
value as the radius and
as the angle.
We get the graph below, a limacon with a loop turned left.
Example Question #120 : Polar
Describe the graph of from
.
a limacon with a loop turned left
an upside-down limacon with a loop
a limacon with a loop turned right
an upright limacon with a loop
an upright limacon with a loop
Graphing polar equations is different that plotting cartesian equations. Instead of plotting an coordinate, polar graphs consist of an
coordinate where
is the radial distance of a point from the origin and
is the angle above the x-axis.
From our equation, we know the shape of our graph will be a limacon because our equation is in the form where
. This limacon will have a loop because
. The length of the loop is
. Our limacon is symmetric about the y-axis because our equation includes the
function. The x-intercepts are at
and
. The y-intercept is at
.
We could also substitute values of (in radians) between
and
into our expression, to find values of r. We then plot each ordered pair,
, using the
value as the radius and
as the angle.
We get the graph below, an upright limacon with a loop.
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