Here's a region
plotted in the
-plane.
![[Graphics:Images/index_gr_3.gif]](Images/index_gr_3.gif)
![[Graphics:Images/index_gr_4.gif]](Images/index_gr_4.gif)
Go with
and calculate
![]()
by the method of least labor on your part.
Here's another region
plotted in the
-plane.
![[Graphics:Images/index_gr_9.gif]](Images/index_gr_9.gif)
![[Graphics:Images/index_gr_10.gif]](Images/index_gr_10.gif)
Fancy dudes say that this is the cardiod described in polar coordinates
by the polar equation
.
Go with
![]()
and calculate
![]()
by the method of least labor on your part.
Next, go with
and calculate
![]()
by the method of least labor on your part.
Compare the values of
and
.
Discuss how you think that the shape and position of
account for the relationship between these two numbers.
Here is another region
plotted in the
-plane.
![[Graphics:Images/index_gr_21.gif]](Images/index_gr_21.gif)
![[Graphics:Images/index_gr_22.gif]](Images/index_gr_22.gif)
Go with
![]()
and
and calculate
,
, and
![]()
by the method of least labor on your part.
Look at the formulas for
and
and then look at the shape and position of
and explain why it was no surprise that
and
came out the way they did.
Here is another region
plotted in the
-plane.
![[Graphics:Images/index_gr_36.gif]](Images/index_gr_36.gif)
![[Graphics:Images/index_gr_37.gif]](Images/index_gr_37.gif)
Go with
and calculate
![]()
by the method of least labor on your part.
Given that the region
consists of everything inside the ellipse
,
go with
and calculate
![]()
by the method of least labor on your part.