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Mar 13, 2025
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IND 3820 - Stochastic Processes3 lecture hours 0 lab hours 3 credits Course Description This course will provide an introduction to the design and analysis of stochastic systems. Upon completing this course, each student will be able to: develop an understanding of the applications of probability and statistics to engineering problems, develop systems models and recommend improvements based on the stochastic analysis of the system, develop an understanding of how the stochastic nature of systems impact business and industry, and use computer applications in the solutions of engineering problems. In addition, this class should also assist students in improving their problem-solving skills and their ability to communicate effectively. (prereq: MTH 2680 , IND 3810 ) (quarter system prereq: MA 262, IE 381) Course Learning Outcomes Upon successful completion of this course, the student will be able to:
- Application of probability and statistics to engineering problems
- Make difficult decisions using systematic decision-making processes
- Develop and use queueing theory single server Markovian systems
- Use queueing theory for multi-server systems with complex distributions
- Develop systems models and recommend improvements based on the stochastic analysis of the system
- Develop an understanding of how the stochastic nature of systems impact business and industry
Prerequisites by Topic
- Process modelling
- Probability theory
- Conditional probabilities
- Probability distribution functions for discrete random variables
- Cumulative probability distributions
- Probability density functions
- Joint probability functions
- Conditional probability and Bayesian analysis
- Binomial, normal, Poisson, and chi-squared distributions and expectations
- Inverse cumulative distribution functions
Course Topics
- Decision analysis
- Decision process
- Decision-making under certainty
- Decision-making under uncertainty
- Decision-making under risk
- Bayesian probability analysis
- Bernoulli processes
- Poisson processes
- Queueing theory
- Little’s law
- Markovian analysis
- Dynamic network optimization
- Game theory
Coordinator Dr. Aaron Armstrong
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