Exam 17: CD - Solution Concepts for Linear Programming
Exam 1: Introduction28 Questions
Exam 2: Linear Programming: Basic Concepts83 Questions
Exam 3: Linear Programming: Formulation and Applications58 Questions
Exam 4: The Art of Modeling With Spreadsheets31 Questions
Exam 5: What-If Analysis for Linear Programming63 Questions
Exam 6: Network Optimization Problems48 Questions
Exam 7: Using Binary Integer Programming to Deal With Yes-Or-No Decisions26 Questions
Exam 8: Nonlinear Programming53 Questions
Exam 9: Decision Analysis77 Questions
Exam 10: Cd Supplement - Decision Analysis26 Questions
Exam 11: Forecasting76 Questions
Exam 12: Queueing Models75 Questions
Exam 13: CD Supplement - Additional Queueing Models8 Questions
Exam 14: Computer Simulation: Basic Concepts45 Questions
Exam 15: CD Supplement - the Inverse Transformation Method for Generating Random Observations2 Questions
Exam 16: Computer Simulation With Crystal Ball53 Questions
Exam 17: CD - Solution Concepts for Linear Programming45 Questions
Exam 18: CD - Transportation and Assignment Problems48 Questions
Exam 19: CD - Pertcpm Models for Project Management93 Questions
Exam 20: CD - Goal Programming21 Questions
Exam 21: CD - Inventory Management With Known Demand64 Questions
Exam 22: CD - Inventory Management With Uncertain Demand43 Questions
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The computer time per iteration for an interior-point algorithm is approximately the same as for the simplex method.
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False
If some necessary constraints were not included in a linear programming model,it is possible to have no limit on the best objective function value.
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Correct Answer:
True
It is possible in some cases for a point inside the boundary of the feasible region to be an optimal solution.
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False
It is possible to have more than one corner point of the feasible region as an optimal solution to a linear programming problem.
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The simplex method is a specific type of interior-point algorithm.
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When choosing which corner point to advance to next,the simplex method chooses the one:
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Interior-point algorithms have limited capability for what-if analysis.
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If the feasible region in a linear programming problem is unbounded,then the problem is unbounded.
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There are no feasible solutions to a problem when the constraints are too restrictive.
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The simplex method can only solve problems with up to 100 functional constraints.
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In a linear programming problem,there is always at least one optimal corner point.
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The enumeration-of-corner-points method is limited because it can only solve problems with two decision variables.
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Whenever possible,the initialization step of the simplex method chooses the origin to be the initial corner point.
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If a linear programming problem does not have an optimal solution then it must be infeasible.
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The simplex method includes which of the following components?
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The data given in the Solver's sensitivity report are obtained directly from the output of the simplex method.
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The optimal solution of a feasible linear programming problem includes at least one corner point of the feasible region.
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Management science algorithms are typically iterative algorithms.
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Most linear programming problems have just one optimal solution.
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