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Formulate but Do Not Solve the Following Exercise as a Linear

Question 24

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Formulate but do not solve the following exercise as a linear programming problem. Kane Manufacturing has a division that produces two models of fireplace grates, model A and model B. To produce each model A grate requires 4 lb of cast iron and 5 min of labor. To produce each model B grate requires 5 lb of cast iron and 4 min of labor. The profit for each model A grate is $4.00, and the profit for each model B grate is $1.50. If 1,000 lb of cast iron and 25 hr of labor are available for the production of grates per day, how many grates of each model should the division produce per day in order to maximize Kane's profits?
Because of a backlog of orders on model A grates, the manager of Kane Manufacturing has decided to produce at least 150 of these models a day. Operating under this additional constraint, how many grates of each model should Kane produce to maximize profit?


A) Maximize: Formulate but do not solve the following exercise as a linear programming problem. Kane Manufacturing has a division that produces two models of fireplace grates, model A and model B. To produce each model A grate requires 4 lb of cast iron and 5 min of labor. To produce each model B grate requires 5 lb of cast iron and 4 min of labor. The profit for each model A grate is $4.00, and the profit for each model B grate is $1.50. If 1,000 lb of cast iron and 25 hr of labor are available for the production of grates per day, how many grates of each model should the division produce per day in order to maximize Kane's profits? Because of a backlog of orders on model A grates, the manager of Kane Manufacturing has decided to produce at least 150 of these models a day. Operating under this additional constraint, how many grates of each model should Kane produce to maximize profit? A) Maximize: Subject to: B) Maximize: Subject to: C) Maximize: Subject to: D) Maximize: Subject to: Subject to: Formulate but do not solve the following exercise as a linear programming problem. Kane Manufacturing has a division that produces two models of fireplace grates, model A and model B. To produce each model A grate requires 4 lb of cast iron and 5 min of labor. To produce each model B grate requires 5 lb of cast iron and 4 min of labor. The profit for each model A grate is $4.00, and the profit for each model B grate is $1.50. If 1,000 lb of cast iron and 25 hr of labor are available for the production of grates per day, how many grates of each model should the division produce per day in order to maximize Kane's profits? Because of a backlog of orders on model A grates, the manager of Kane Manufacturing has decided to produce at least 150 of these models a day. Operating under this additional constraint, how many grates of each model should Kane produce to maximize profit? A) Maximize: Subject to: B) Maximize: Subject to: C) Maximize: Subject to: D) Maximize: Subject to:
B) Maximize: Formulate but do not solve the following exercise as a linear programming problem. Kane Manufacturing has a division that produces two models of fireplace grates, model A and model B. To produce each model A grate requires 4 lb of cast iron and 5 min of labor. To produce each model B grate requires 5 lb of cast iron and 4 min of labor. The profit for each model A grate is $4.00, and the profit for each model B grate is $1.50. If 1,000 lb of cast iron and 25 hr of labor are available for the production of grates per day, how many grates of each model should the division produce per day in order to maximize Kane's profits? Because of a backlog of orders on model A grates, the manager of Kane Manufacturing has decided to produce at least 150 of these models a day. Operating under this additional constraint, how many grates of each model should Kane produce to maximize profit? A) Maximize: Subject to: B) Maximize: Subject to: C) Maximize: Subject to: D) Maximize: Subject to: Subject to: Formulate but do not solve the following exercise as a linear programming problem. Kane Manufacturing has a division that produces two models of fireplace grates, model A and model B. To produce each model A grate requires 4 lb of cast iron and 5 min of labor. To produce each model B grate requires 5 lb of cast iron and 4 min of labor. The profit for each model A grate is $4.00, and the profit for each model B grate is $1.50. If 1,000 lb of cast iron and 25 hr of labor are available for the production of grates per day, how many grates of each model should the division produce per day in order to maximize Kane's profits? Because of a backlog of orders on model A grates, the manager of Kane Manufacturing has decided to produce at least 150 of these models a day. Operating under this additional constraint, how many grates of each model should Kane produce to maximize profit? A) Maximize: Subject to: B) Maximize: Subject to: C) Maximize: Subject to: D) Maximize: Subject to:
C) Maximize: Formulate but do not solve the following exercise as a linear programming problem. Kane Manufacturing has a division that produces two models of fireplace grates, model A and model B. To produce each model A grate requires 4 lb of cast iron and 5 min of labor. To produce each model B grate requires 5 lb of cast iron and 4 min of labor. The profit for each model A grate is $4.00, and the profit for each model B grate is $1.50. If 1,000 lb of cast iron and 25 hr of labor are available for the production of grates per day, how many grates of each model should the division produce per day in order to maximize Kane's profits? Because of a backlog of orders on model A grates, the manager of Kane Manufacturing has decided to produce at least 150 of these models a day. Operating under this additional constraint, how many grates of each model should Kane produce to maximize profit? A) Maximize: Subject to: B) Maximize: Subject to: C) Maximize: Subject to: D) Maximize: Subject to: Subject to: Formulate but do not solve the following exercise as a linear programming problem. Kane Manufacturing has a division that produces two models of fireplace grates, model A and model B. To produce each model A grate requires 4 lb of cast iron and 5 min of labor. To produce each model B grate requires 5 lb of cast iron and 4 min of labor. The profit for each model A grate is $4.00, and the profit for each model B grate is $1.50. If 1,000 lb of cast iron and 25 hr of labor are available for the production of grates per day, how many grates of each model should the division produce per day in order to maximize Kane's profits? Because of a backlog of orders on model A grates, the manager of Kane Manufacturing has decided to produce at least 150 of these models a day. Operating under this additional constraint, how many grates of each model should Kane produce to maximize profit? A) Maximize: Subject to: B) Maximize: Subject to: C) Maximize: Subject to: D) Maximize: Subject to:
D) Maximize: Formulate but do not solve the following exercise as a linear programming problem. Kane Manufacturing has a division that produces two models of fireplace grates, model A and model B. To produce each model A grate requires 4 lb of cast iron and 5 min of labor. To produce each model B grate requires 5 lb of cast iron and 4 min of labor. The profit for each model A grate is $4.00, and the profit for each model B grate is $1.50. If 1,000 lb of cast iron and 25 hr of labor are available for the production of grates per day, how many grates of each model should the division produce per day in order to maximize Kane's profits? Because of a backlog of orders on model A grates, the manager of Kane Manufacturing has decided to produce at least 150 of these models a day. Operating under this additional constraint, how many grates of each model should Kane produce to maximize profit? A) Maximize: Subject to: B) Maximize: Subject to: C) Maximize: Subject to: D) Maximize: Subject to: Subject to: Formulate but do not solve the following exercise as a linear programming problem. Kane Manufacturing has a division that produces two models of fireplace grates, model A and model B. To produce each model A grate requires 4 lb of cast iron and 5 min of labor. To produce each model B grate requires 5 lb of cast iron and 4 min of labor. The profit for each model A grate is $4.00, and the profit for each model B grate is $1.50. If 1,000 lb of cast iron and 25 hr of labor are available for the production of grates per day, how many grates of each model should the division produce per day in order to maximize Kane's profits? Because of a backlog of orders on model A grates, the manager of Kane Manufacturing has decided to produce at least 150 of these models a day. Operating under this additional constraint, how many grates of each model should Kane produce to maximize profit? A) Maximize: Subject to: B) Maximize: Subject to: C) Maximize: Subject to: D) Maximize: Subject to:

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