Graph all constraints, using Excel line shapes
Determine the feasible region, shade
Complete the objective function table
Determine the objective function max or min solution
Solve the optimization problem, using the graphical method as demonstrated in class. Graph the following constraints on the digital graph paper worksheet. Show all algebra work, to determine constraint intercepts. Show all algebra work to determine solution, or “intersection” of each constraint pair.
6.5A + 10B = Min Cost
2A + 4B ≤ 40
1A + 1B ≤ 15
1A + 0B ≥ 8
Graph all constraints, using Excel line shapes Determine the feasible region, shade Complete the objective function...
Graph all constraints, using Excel line shapes Determine the feasible region, shade Complete the objective function table Determine the objective function max or min solution Solve the optimization problem, using the graphical method as demonstrated in class. Graph the following constraints on the digital graph paper worksheet. Show all algebra work, to determine constraint intercepts. Show all algebra work to determine solution, or “intersection” of each constraint pair. 5A + 1B = Min Cost 3A + 4B ≤ 24 1A...
Graph the following linear inequalities on the digital graph paper worksheet Problem 10. Show ALL your algebra steps that are required to determine the X and Y intercepts for both equations in the text box. From the MS Excel ribbon > Insert> Shapes> Lines. Y coefficient 4 Line # X coefficient "RHS" 36 48 0 Use the text box for you answer. Solve algebraically, showing ALL steps, for the solution, or "intersection" of 1. Equation 1 and equation 2. 2....
Graph the following linear inequalities on the digital graph paper worksheet Problem 10. Show ALL your algebra steps that are required to determine the X and Y intercepts for both equations in the text box. From the MS Excel ribbon > Insert> Shapes> Lines. Y coefficient 4 Line # X coefficient "RHS" 36 48 0 Use the text box for you answer. Solve algebraically, showing ALL steps, for the solution, or "intersection" of 1. Equation 1 and equation 2. 2....
Solve using the graphical method. Choose your variables, identify the objective function and the constraints, graph the constraints, shade the feasibility region, identify all corner points, and determine the solution that optimizes the objective function. Use this information to answer the following 8-part question: A small company manufactures two types of radios- regular and short-wave. The manufacturing of each radio requires two operations: Assembly and Finishing. The regular radios require 1 hour of Assembly and 3 hours of Finishing. The...
(45 Points) Consider the constrained optimization problem: min f(x1, x2) = 2x} + 9x2 + 9x2 - 6x1x2 – 18x1 X1 X2 Subject to 4x1 – 3x2 s 20 X1 + 2x2 < 10 -X1 < 0, - x2 < 0 a) Is this problem convex? Justify your answer. (5 Points) b) Form the Lagrange function. (5 Points) c) Formulate KKT conditions. (10 Points) d) Recall that one technique for finding roots of KKT condition is to check all permutations...
Your problem will have exactly two variables (an X1 and an X2) and will incorporate a maximization (either profit or revenue) objective. You will include at least four constraints (not including the X1 ≥ 0 and X2 ≥ 0 [i.e., the “Non-negativity” or “Duh!”] constraints). At least one of these four must be a “≤” constraint, and at least one other must be a “≥” constraint; do not include any “= only” constraints. You must have a unique Optimal Solution...
You must SHOW ALL WORK ON NEXT PAGE to get credit and MUST ROUND to 2 decimal points (you can use back of page or below for calculations)! If you use a graphing calculator and simply write answers you will get ZERO CREDIT A company wants to maximize profits for two products: Green (earning $10 profit per unit) and Blue (earning $14 profit per unit). Machine Machine A B Green 3 3 Blue Total Available 2 120 1 90 To...
1. Consider the following LP: Max z 5x1 X2 st. 2x1 xS6 6x1X2S 12 Plot the constraints on the graph and identify the feasible region and determine the optimal value of the objective function and the values of the decision variables. 2. Priceler manufactures sedans and wagons. The number of vehides that can be sold each of the next three months are listed to Table 1. Each sedan sells for $10000 and each wagon sells for $11000. It cost $7000...
2. Consider the following four consumers (C1,C2,C3,C4) with the following utility functions: Consumer Utility Function C1 u(x,y) = 2x+2y C2 u(x,y) = x^3/4y^1/4 C3 u(x,y) = min(x,y) C4 u(x,y) = min(4x,3y) On the appropriate graph, draw each consumer’s indifference curves through the following points: (2,2), (4,4), (6,6) and (8,8), AND label the utility level of each curve. Hint: Each grid should have 4 curves on it representing the same preferences but with different utility levels. 3. In the following parts,...