This course will enable the students to -
Course Outcomes (COs):
Course |
Learning outcomes (at course level) |
Learning and teaching strategies |
Assessment Strategies |
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Course Code |
Course Title |
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MAT 423A |
Advanced Operations Research-II (Theory)
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The students will be able to –
CO152: Solve simple problems of replacement and implement practical cases of decision making under different business environments like staff recruitment problems. CO153: To derive the necessary conditions (KT conditions) for constrained nonlinear optimization problems and able to solve quadratic programming problems. CO154: Apply knowledge to solve separable, geometric programming problems. CO155: Discuss various methods to solve linear fractional programming problems and dynamic programming problems. CO156: Define the dynamic programming technique concepts and demonstrate its applicability in decision making situations, which require to make a sequence of interrelated decisions. CO157: Determining the optimal allocation of jobs to machines by minimizing total elapsed time in sequencing and to find solutions to network scheduling problems using s PERT-CPM. |
Approach in teaching: Interactive Lectures, Discussion, Power Point Presentations, Informative videos Learning activities for the students: Self learning assignments, Effective questions, presentations, Field trips |
Quiz, Poster Presentations, Power Point Presentations, Individual and group projects, Open Book Test, Semester End Examination
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Replacement models: Gradual failure, Sudden failure, Replacement due to efficiency deteriorate with time, Staffing problems, Equipment renewal problems.
Nonlinear Programming: Formulation and graphical method for unconstrained problem of maxima and minima, Constrained problem of maxima and minima Lagrangian method, Khun-Tucker condition. Quadratic programming: Wolf and Beals method.
Separable programming: Definition, Reduction to separable programming problem to LPP, Separable programming algorithm. Geometric programming: Formulation and solution of GPP (Unconstraint type and with quality constraint).
Linear fractional programming: Definition, Linear fractional algorithm, Computational procedure of fractional algorithm. Dynamic programming: Introduction, Bellman principle of optimality model –I, II and III, Solution of LPP by dynamic programming.
Network Scheduling by PERT-CPM, Network logical sequencing, Concurrent activities, Critical path analysis, Probability consideration in PERT, Distinction between PERT and CPM.