MTH396 Final Exam Study Guide

The final examination will be held Tuesday, May 10th at 1:30PM in Duffy 207.

The exam will consist of two sections:

All problems in the second section will be constructed so that they can be solved fairly quickly by a person with sufficient underestanding of the course material.

The terms will be taken from the following list:

TermText Reference
estimatorDefinition 8.1
point estimatorSection 8.1
confidence intervalSection 8.5
unbiased estimatorDefinition 8.2
biased estimatorDefinition 8.2
mean square error of a point estimatorDefinition 8.1
pivotal method of constructing confidence intervalsSection 8.5
large sample confidence intervalsSection 8.6
small sample confidence intervalsSection 8.8
confidence intervals for sigma2Section 8.9
relative efficiencySection 9.2
consistent estimatorDefinition 9.2
convergence in probabilityclass notes
convergence in distributionclass notes
convergence in the rth meanclass notes
almost sure convergenceclass notes
sufficient statisticDefinition 9.3
likelihood of a sampleDefinition 9.4
method of moments estimatorSection 9.6
maximum likelihood estimateSection 9.7
efficient estimatorProblem 9.8
null hypothesisSection 10.2
alternative hypothesisSection 10.2
test statisticSection 10.2
rejection regionSection 10.2
Type I errorSection 10.2
Type II errorSection 10.2
power of a testShaded box on page 541
p-valueDefinition 10.2
likelihood ratio testSection 10.11
linear statistical modelDefinition 11.1
column space of a matrixclass notes
left null space of a matrixclass notes
simple regressionclass notes
multiple regressionclass notes
analysis of varianceclass notes
analysis of covarianceclass notes

The theorems (on the matching section) will be taken from the following list:

TermText Reference
Central Limit TheoremTheorem 7.4
Cramer-Rao inqualityProblem 9.8
consistency theoremTheorem 9.1
convergence in probability theoremsTheorem 9.2, class notes, Theorem 9.3
Neyman factorization theoremTheorem 9.4
Rao-Blackwell theoremTheorem 9.5
Neyman-Pearson LemmaTheorem 10.1
Asymptotic distribution of likelihood ratioTheorem 10.2

The following formulas will be provided. In general, you do not have to memorize formulas, but you should know how to use them.