Chapter 5: Problem 12
Sketch the graph of the inequality. $$y \leq 3$$
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Chapter 5: Problem 12
Sketch the graph of the inequality. $$y \leq 3$$
These are the key concepts you need to understand to accurately answer the question.
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The given linear programming problem has an unusual characteristic. Sketch a graph of the solution region for the problem and describe the unusual characteristic. Find the maximum value of the objective function and where it occurs. Objective function: \(z=x+y\) Constraints: \(x \geq 0\) \(y \geq 0\) \(-x+y \leq 1\) \(-x+2 y \leq 4\)
Find the consumer surplus and producer surplus for the pair of demand and supply equations. Supply \(p=22+0.00001 x\) Demand $$p=56-0.0001 x$$
Graph the solution set of the system of inequalities. $$\left\\{\begin{array}{l}x-y^{2}>0 \\ y>(x-3)^{2}-4\end{array}\right.$$
The given linear programming problem has an unusual characteristic. Sketch a graph of the solution region for the problem and describe the unusual characteristic. Find the maximum value of the objective function and where it occurs. Objective function. \(z=3 x+4 y\) Constraints. \(\begin{aligned} x & \geq 0 \\ y & \geq 0 \\ x+y & \leq 1 \\ 2 x+y & \leq 4 \end{aligned}\)
Optimal Profit A fruit grower raises crops \(\mathrm{A}\) and \(\mathrm{B}\). The profit is $$\$ 185$$ per acre for crop \(\mathrm{A}\) and $$\$ 245$$ per acre for crop \(\mathrm{B}\). Research and available resources indicate the following constraints. \- The fruit grower has 150 acres of land for raising the crops. \(-\) It takes 1 day to trim an acre of crop \(A\) and 2 days to trim an acre of crop \(\mathrm{B}\), and there are 240 days per year available for trimming. \- It takes \(0.3\) day to pick an acre of crop \(\mathrm{A}\) and \(0.1\) day to pick an acre of crop \(\mathrm{B}\), and there are 30 days per year available for picking. What is the optimal acreage for each fruit? What is the optimal profit?
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