Answer:
Step-by-step explanation:
A linear equation in two variables doesn't involve any power higher than one for either variable. It has the general form Ax + By + C = 0, where A, B and C are constants. ... A quadratic equation, on the other hand, involves one of the variables raised to the second power. It has the general form y = ax2 + bx + c
2
1 Each for each side
[Horizontal Side]
[Vertical Side]
Answer:
Fourth option
Step-by-step 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.
<em><u>Remember that the boundaries of the region are not included.
</u></em>
We can prove the point <em>x = 0</em> and <em>y = 39</em> because (0,4) is not included in the region.
Now we test the point <em>x = 33</em> and <em>y = 16
</em>
Now we test the point <em>x = 44</em> and <em>y = 0</em>
Finally the optimal value is:
<em>x = 33 oz</em>
<em>y = 16 oz
</em>
With a gain of $106
Answer: 8 root 2 or 11.3
Step-by-step explanation:
square 16 and divide by two to find square of other sides. Then root it to find answer