This is a sample, and is meant to represent the material usually covered in Math 9A for the final. An actual test may or may not be similar.
Click on the boxed problem numbers to go to a solution.
Find each of the following limits if it exists. If you think the limit does not exist provide a reason.
(a)
(b)
given that
(c)
Find the derivative of the following functions:
(a)
(b)
Find the derivative of the following function using the limit definition of the derivative:

Discuss, without graphing, if the following function is continuous at

If you think
is not continuous at
what kind of discontinuity is it?
Calculate the equation of the tangent line to the curve defined by
at the point,
Let

(a) Over what
-intervals is
increasing/decreasing?
(b) Find all critical points of
and test each for local maximum and local minimum.
(c) Over what
-intervals is
concave up/down?
(d) Sketch the shape of the graph of
Compute
(a)
(b)
(c)
Boyle's Law states that when a sample of gas is compressed at a constant temperature, the pressure
and volume
satisfy the equation
where
is a constant. Suppose that at a certain instant, the volume is
the pressure is
and the pressure is increasing at a rate of
At what rate is the volume decreasing at this instant?
Let

(a) Find all critical points of
over the
-interval
(b) Find absolute maximum and absolute minimum of
over
Let
(a) Find the differential
of
at
(b) Use differentials to find an approximate value for
Hint: