Instructor: Spyros Reveliotis homepage: IE6650: Probabilistic Models Fall 2007.

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Instructor: Spyros Reveliotis homepage: IE6650: Probabilistic Models Fall 2007

“Course Logistics” My Office Hours: TuTh 9-10am or by appointment Course TAs: Judy Lee, Ralph Yuan and Yu-Heng Chang (for Shanghai students) Grading policy: –Homework: 25% –Midterm I: 20% –Midterm II: 20% –Final: 35% –Exams closed-book, with 2 pages of notes per midterm exam and 6 pages for the final. Reading Materials: –Course Textbook: S. Ross, Introduction to Probability Models, 9th ed. Academic Press. –Course slides and any other material posted at my homepage or the library electronic reserves.

Course Objectives (What this course is all about?) This course will introduce the student to a basic set of mathematical tools which are appropriate for dealing with the randomness / stochasticity that underlies the operation of many technological, economic and social systems. The overall development will seek a balance between –the systematic exposition of the considered models and their properties, and –the applicability of these models in the aforementioned contexts.

Course Outline Introduction: –Course Objectives, Context, and Outline –Probability review: sample spaces and events, probabilities, conditional probabilities, independence, Baye’s formula, random variables, expectation, moment generating functions, jointly distributed random variables and stochastic processes. Conditional Probability and Conditional Expectation and Applications –The basic methodology –Computing expectations and variances by conditioning –Application to Compound random variables and other examples

Course Outline Discrete Time Markov Chains –Basic concepts –Chapman-Kolmogorov equations –State classification –Limiting probabilities –Examples –Mean Time Spent in Transient States –Time Reversibility –Introduction to Markov Decision Processes

Course Outline Exponential Distribution and Poisson Processes –The exponential distribution and its properties –Convolution of exponential random variables –The Poisson process and its properties –Generalization of the Poisson process: Non-homogeneous and compound Poisson processes Continuous Time Markov Chains –Basic definitions –Birth-Death processes –Time-dependent probability distribution –Limiting probability distribution –Semi-Markov processes –Approximation of non-Markovian behavior through CTMC’s

Course Outline Queueing Theory –Exponential models: M/M/1, M/M/c and M/M/1/m queues –M/G/1 and G/M/1 queues –Queueing networks: open and closed QN’s Introduction to Renewal theory

Reading Assignment Chapters 1 and 2 from your textbook