Answer:
Fourth option
Explanation:
When graphing the given inequalities you will get a region like the one shown in the attached image. This region is delimited by 4 straight

The points indicated at the ends of the region are the maximum possible values of x and y.
We must test these points in the objective function
and see which point maximizes the value of P.
Remember that the boundaries of the region are not included.
We can prove the point x = 0 and y = 39 because (0,4) is not included in the region.

Now we test the point x = 33 and y = 16

Now we test the point x = 44 and y = 0

Finally the optimal value is:
x = 33 oz
y = 16 oz
With a gain of $106