EXST 4002 - Principles and Theory of Statistics

Spring 2000

Course Description: EXST 4002, Probability distributions as models for real-world processes; sampling distributions and the central limit theorem; estimation and confidence region methods; principles of hypothesis testing; and modeling; links between theory, methodology, and application emphasized.

Course Prerequisites: EXST 4001 or equivalent and MATH 1020/1021 or equivalent.

Course Objectives: General objectives include the following:

Instructor: Dr. E. Barry Moser, 149A Ag. Administration, 388-8376, bmoser@lsu.edu, http://www.stat.lsu.edu/faculty/moser/

Office Hours: TBA and by appointment

Text: Devore, J.L. 2000. Probability and Statistics for Engineering and the Sciences, 5th edition. Duxbury, Pacific Grove, CA, 775pp.

Assignments and Grading: There will generally be weekly graded assignments and short quizzes, and a final examination. The assignments and quizzes will cover material from both the lecture and lab portions of the course. The final examination will be worth 25% of the grade and the graded assignments and quizzes will be equally weighted and compose the remainder of the grade.

Grading Scale: Letter grade assignments will be made according to the scale below.
 
 

Score
Minimum
Grade
90-100
A
80-89.9
B
70-79.9
C
60-69.9
D
0-59.9
F





EXST 4002 - Principles and Theory of Statistics

CONTENT OUTLINE

Chapter1
Topic
2 Basics of probability; sample spaces, events, permutations, combinations, counting rules, conditional probability
3 Discrete random variables: Bernoulli, binomial, Poisson, hypergeometric, geometric, negative binomial; distributions and expectation of random variables
4 Continuous random variables: normal, gamma, beta, uniform, exponential, chi-squared, Weibull, lognormal; exponential family; probability plots
5 Joint probability distributions and sampling; marginal and conditional distributions; independence; covariance and correlation; sampling distributions of statistics; linear combinations of random variables
6 Point estimation; properties of estimators; methods of estimation
7 Interval estimation; large-sample methods, bootstrap and Monte Carlo methods
8 Hypothesis testing principles; Type I and II errors, p-values, power; likelihood ratio principle
14,15 Applications with generalized linear models; parametric survival analysis; operating characteristic curves

1Devore, J.L. 2000. Probability and Statistics for Engineering and the Sciences, 5th edition. Duxbury, Pacific Grove, CA, 775pp.


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