Math/Stat 394, Probability I (3 credits), Winter 2019
Instructor : (Christopher Hoffman) Fritz Scholz
- Office : Padelford C-310
- E-mail : fscholz (at) u (dot) washington (dot) edu
- Office hours : Monday 1:30-3:30, or by appointment MWF.
Course Information
- Description : (from the course catalog): Sample spaces; basic axioms of probability; combinatorial probability; conditional probability and independence; binomial, Poisson, and normal distributions. Prerequisite: either 2.0 in MATH 126 or 2.0 in MATH 136; recommended: MATH 324 or MATH 327. Offered: jointly with STAT 394; AWS.
- Lecture : LOW 201, MWF 8:30-9:20
- Textbook : Anderson, Seppäläinen and Valkó, Introduction to Probability
- Grades :
The grade for this class will be based on homework, one midterm and a final exam. The homework will be due in class on Wednesdays.
- Homework and Exams
- Homework (20% of grade) There will be one homework assignment per week except the week of the midterm.
- Midterm (30% of grade) In class on Wednesday February 13.
- Final Exam (50% of grade) Tuesday, March 19, 8:30-10:20, LOW 201
Syllabus
Course Syllabus
Schedule
Course Schedule Subject to modification as we go along.
Homework Assignments
Lecture Notes
Wednesday Jan 9
Friday Jan 11
Monday Jan 14
Wednesday Jan 16
Friday Jan 18
Wednesday Jan 23
Friday Jan 25
Monday Jan 28
Wednesday Jan 30
Friday Feb 1
Wednesday Feb 6
Friday Feb 8
Wednesday Feb 20
Friday Feb 22
Monday Feb 25
Wednesday Feb 27
Friday Mar 1
Monday Mar 4
Wednesday Mar 6
Friday Mar 8
Monday Mar 11
Wednesday Mar 13
Graphical Display of HW, Midterm, Final Scores
Scores and Grades, sorted by student ID in increasing order.
Boeing's Final Report on Space Station Integrated Wall Design and Penetration Damage Control
my part is on pp 217-231
Early Article on the ISS Risks
ISS Penetration Risk Map
Central Limit Theorem
Proof of the central limit theorem
The proof is complete and only uses a 2-term Taylor expansion
from calculus. No moment generating or characteristic function
methods are used. As special cases we get the Lindeberg-Levy
CLT for i.i.d. random variables with finite variance and the
Liapunove CLT for independent (not necessarily identically
distributed) random variables with finite absolute third moments
satisfying the Liapunov condition.
The Law of Rare Events
Error bound
for the Poisson approximation to the Poisson-Binomial
distribution.
Home page of Fritz Scholz