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A farmer is going to divide her 50 acre farm between two crops. Seed for crop A costs 
$50 per acre. Seed for crop B costs 
$25 per acre. The farmer can spend at most 
$2,250 on seed. If crop B brings in a profit of 
$90 per acre, and crop A brings in a profit of 
$220 per acre, how many acres of each crop should the farmer plant to maximize her profit? Write the objective function then use the feasible region shown in the graph below to maximize it.
Let 
x= the number of acres of crop 
A
Let 
y= the number of acres of crop 
B
Objective Function: 
P=
Constraints:

{:[x >= 0","y >= 0],[x+y <= 50],[50 x+25 y <= 2250]:}
The Farmer should Plant 
◻ acres of crop A and 
◻ acres of crop B.

A farmer is going to divide her 5050 acre farm between two crops. Seed for crop A costs $50 \$ 50 per acre. Seed for crop B costs $25 \$ 25 per acre. The farmer can spend at most $2,250 \$ 2,250 on seed. If crop B brings in a profit of $90 \$ 90 per acre, and crop A brings in a profit of $220 \$ 220 per acre, how many acres of each crop should the farmer plant to maximize her profit? Write the objective function then use the feasible region shown in the graph below to maximize it.\newlineLet x= x= the number of acres of crop A A \newlineLet y= y= the number of acres of crop B B \newlineObjective Function: P= P= \newlineConstraints:\newlinex0,y0x+y5050x+25y2250 \begin{array}{l} x \geq 0, y \geq 0 \\ x+y \leq 50 \\ 50 x+25 y \leq 2250 \end{array} \newlineThe Farmer should Plant $25 \$ 25 00 acres of crop A and $25 \$ 25 00 acres of crop B.

Full solution

Q. A farmer is going to divide her 5050 acre farm between two crops. Seed for crop A costs $50 \$ 50 per acre. Seed for crop B costs $25 \$ 25 per acre. The farmer can spend at most $2,250 \$ 2,250 on seed. If crop B brings in a profit of $90 \$ 90 per acre, and crop A brings in a profit of $220 \$ 220 per acre, how many acres of each crop should the farmer plant to maximize her profit? Write the objective function then use the feasible region shown in the graph below to maximize it.\newlineLet x= x= the number of acres of crop A A \newlineLet y= y= the number of acres of crop B B \newlineObjective Function: P= P= \newlineConstraints:\newlinex0,y0x+y5050x+25y2250 \begin{array}{l} x \geq 0, y \geq 0 \\ x+y \leq 50 \\ 50 x+25 y \leq 2250 \end{array} \newlineThe Farmer should Plant $25 \$ 25 00 acres of crop A and $25 \$ 25 00 acres of crop B.
  1. Define variables: Define variables:\newlineLet xx = number of acres of crop AA.\newlineLet yy = number of acres of crop BB.
  2. Write objective function: Write the objective function:\newlineObjective Function: P=220x+90yP = 220x + 90y\newlineThis function represents the total profit from xx acres of crop A and yy acres of crop B.
  3. Write constraints: Write the constraints:\newline11. x0x \geq 0 (Non-negativity constraint for crop A)\newline22. y0y \geq 0 (Non-negativity constraint for crop B)\newline33. x+y50x + y \leq 50 (Total acres cannot exceed 5050)\newline44. 50x+25y225050x + 25y \leq 2250 (Total cost of seeds cannot exceed $2250\$2250\))
  4. Solve inequalities: Solve the system of inequalities to find feasible region:\newlineUsing the constraints, plot or calculate the intersection points:\newline- From x+y=50x + y = 50 and 50x+25y=225050x + 25y = 2250, substitute y=50xy = 50 - x into the second equation:\newline 50x+25(50x)=225050x + 25(50 - x) = 2250\newline 50x+125025x=225050x + 1250 - 25x = 2250\newline 25x=100025x = 1000\newline x=40x = 40\newline- Substitute x=40x = 40 into y=50xy = 50 - x:\newline y=5040y = 50 - 40\newline 50x+25y=225050x + 25y = 225000
  5. Check profit maximization: Check if this point (x=40,y=10)(x=40, y=10) maximizes the profit:\newlineSubstitute x=40x = 40 and y=10y = 10 into the objective function:\newlineP=220(40)+90(10)P = 220(40) + 90(10)\newlineP=8800+900P = 8800 + 900\newlineP=9700P = 9700\newlineThis is the maximum profit since other vertices of the feasible region will yield lower profits.

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