Probability

Probability
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Discover the latest edition of a practical introduction to the theory of probability, complete with R code samples In the newly revised Second Edition of Probability: With Applications and R, distinguished researchers Drs. Robert Dobrow and Amy Wagaman deliver a thorough introduction to the foundations of probability theory. The book includes a host of chapter exercises, examples in R with included code, and well-explained solutions. With new and improved discussions on reproducibility for random numbers and how to set seeds in R, and organizational changes, the new edition will be of use to anyone taking their first probability course within a mathematics, statistics, engineering, or data science program. New exercises and supplemental materials support more engagement with R, and include new code samples to accompany examples in a variety of chapters and sections that didn’t include them in the first edition. The new edition also includes for the first time:  A thorough discussion of reproducibility in the context of generating random numbers Revised sections and exercises on conditioning, and a renewed description of specifying PMFs and PDFs Substantial organizational changes to improve the flow of the material Additional descriptions and supplemental examples to the bivariate sections to assist students with a limited understanding of calculus Perfect for upper-level undergraduate students in a first course on probability theory, Probability : With Applications and R is also ideal for researchers seeking to learn probability from the ground up or those self-studying probability for the purpose of taking advanced coursework or preparing for actuarial exams.

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Robert P. Dobrow. Probability

Table of Contents

List of Tables

List of Illustrations

Guide

Pages

PROBABILITY. With Applications and R

PREFACE

ACKNOWLEDGMENTS

ABOUT THE COMPANION WEBSITE

INTRODUCTION

I.1 Walking the Web

I.2 Benford's Law

I.3 Searching the Genome

I.4 Big Data

I.5 From Application to Theory

1 FIRST PRINCIPLES

Learning Outcomes

1.1 RANDOM EXPERIMENT, SAMPLE SPACE, EVENT

1.2 WHAT IS A PROBABILITY?

1.3 PROBABILITY FUNCTION

PROBABILITY FUNCTION

1.4 PROPERTIES OF PROBABILITIES

ADDITION RULE FOR MUTUALLY EXCLUSIVE EVENTS

EXTENSION OF ADDITION RULE FOR MUTUALLY EXCLUSIVE EVENTS

PROPERTIES OF PROBABILITIES

1.5 EQUALLY LIKELY OUTCOMES

1.6 COUNTING I

Multiplication principle

1.6.1 Permutations

COUNTING PERMUTATIONS

Sampling with and without replacement

1.7 COUNTING II

1.7.1 Combinations and Binomial Coefficients

COUNTING k-ELEMENT SUBSETS AND LISTS WITH k ONES

Perfect Bridge Hands

Binomial Theorem

1.8 PROBLEM-SOLVING STRATEGIES: COMPLEMENTS AND INCLUSION–EXCLUSION

INCLUSION–EXCLUSION

1.9 A FIRST LOOK AT SIMULATION

MONTE CARLO SIMULATION

R: SIMULATING THE PROBABILITY OF THREE HEADS IN THREE COIN TOSSES

R: SIMULATING THE DIVISIBILITY PROBABILITY

1.10 SUMMARY

EXERCISES. Understanding Sample Spaces and Events

Probability Functions

Equally Likely Outcomes and Counting

Properties of Probabilities

Simulation and R

Chapter Review

2 CONDITIONAL PROBABILITY AND INDEPENDENCE

Learning Outcomes

2.1 CONDITIONAL PROBABILITY

CONDITIONAL PROBABILITY

R: SIMULATING A CONDITIONAL PROBABILITY

2.2 NEW INFORMATION CHANGES THE SAMPLE SPACE

2.3 FINDING P(A AND B)

GENERAL FORMULA FOR P (A AND B)

R: SIMULATING BLACKJACK

2.3.1 Birthday Problem

2.4 CONDITIONING AND THE LAW OF TOTAL PROBABILITY

LAW OF TOTAL PROBABILITY

R: FINDING THE LARGEST NUMBER

R: SIMULATING RANDOM PERMUTATIONS

2.5 BAYES FORMULA AND INVERTING A CONDITIONAL PROBABILITY

Bayes formula

2.6 INDEPENDENCE AND DEPENDENCE

INDEPENDENT EVENTS

COIN TOSSING IN THE REAL WORLD

INDEPENDENCE FOR A COLLECTION OF EVENTS

A BEFORE B

2.7 PRODUCT SPACES*

2.8 SUMMARY

EXERCISES. Basics of Conditional Probability

Conditioning, Law of Total Probability, and Bayes Formula

Independence

Simulation and R

Chapter Review

3 INTRODUCTION TO DISCRETE RANDOM VARIABLES

Learning Outcomes

3.1 RANDOM VARIABLES

RANDOM VARIABLE

UNIFORM RANDOM VARIABLE

3.2 INDEPENDENT RANDOM VARIABLES

INDEPENDENCE OF RANDOM VARIABLES

INDEPENDENT RANDOM VARIABLES

3.3 BERNOULLI SEQUENCES

BERNOULLI DISTRIBUTION

INDEPENDENT AND IDENTICALLY DISTRIBUTED (i.i.d.) SEQUENCES OF RANDOM VARIABLES

3.4 BINOMIAL DISTRIBUTION

BINOMIAL DISTRIBUTION

VISUALIZING THE BINOMIAL DISTRIBUTION

R: WORKING WITH PROBABILITY DISTRIBUTIONS

R: SIMULATING THE OVERBOOKING PROBABILITY

3.5 POISSON DISTRIBUTION

POISSON DISTRIBUTION

R: Poisson distribution

R: SIMULATING ANNUAL ACCIDENT COST

3.5.1 Poisson Approximation of Binomial Distribution

ON THE EDGE

3.5.2 Poisson as Limit of Binomial Probabilities*

3.6 SUMMARY

EXERCISES. Random Variables and Independence

Binomial Distribution

Poisson Distribution

Simulation and R

Chapter Review

4 EXPECTATION AND MORE WITH DISCRETE RANDOM VARIABLES

Learning Outcomes

PROBABILITY MASS FUNCTION

A Note on Notation

4.1 EXPECTATION

EXPECTATION

R: PLAYING ROULETTE

4.2 FUNCTIONS OF RANDOM VARIABLES

R: LEMONADE PROFITS

EXPECTATION OF FUNCTION OF A RANDOM VARIABLE

EXPECTATION OF A LINEAR FUNCTION OF X

4.3 JOINT DISTRIBUTIONS

MARGINAL DISTRIBUTIONS

EXPECTATION OF FUNCTION OF TWO RANDOM VARIABLES

4.4 INDEPENDENT RANDOM VARIABLES

R: DICE AND COINS

FUNCTIONS OF INDEPENDENT RANDOM VARIABLES ARE INDEPENDENT

EXPECTATION OF A PRODUCT OF INDEPENDENT RANDOM VARIABLES

R: EXPECTED VOLUME

4.4.1 Sums of Independent Random Variables

THE SUM OF INDEPENDENT POISSON RANDOM VARIABLES IS POISSON

4.5 LINEARITY OF EXPECTATION

LINEARITY OF EXPECTATION

R: SIMULATING THE MATCHING PROBLEM

4.6 VARIANCE AND STANDARD DEVIATION

VARIANCE AND STANDARD DEVIATION

EXPECTATION AND VARIANCE OF INDICATOR VARIABLE

PROPERTIES OF EXPECTATION, VARIANCE, AND STANDARD DEVIATION

R: SIMULATION OF POISSON DISTRIBUTION

VARIANCE OF THE SUM OF INDEPENDENT VARIABLES

R: A MILLION RED BETS

4.7 COVARIANCE AND CORRELATION

COVARIANCE

CORRELATION

UNCORRELATED RANDOM VARIABLES

GENERAL FORMULA FOR VARIANCE OF A SUM

VARIANCE OF SUM OF N RANDOM VARIABLES

4.8 CONDITIONAL DISTRIBUTION

CONDITIONAL PROBABILITY MASS FUNCTION

4.8.1 Introduction to Conditional Expectation

CONDITIONAL EXPECTATION OF Y GIVEN X = x

R: SIMULATING A CONDITIONAL EXPECTATION

4.9 PROPERTIES OF COVARIANCE AND CORRELATION*

COVARIANCE PROPERTY: LINEARITY

CORRELATION RESULTS

4.10 EXPECTATION OF A FUNCTION OF A RANDOM VARIABLE*

4.11 SUMMARY

EXERCISES. Expectation

Joint Distribution

Variance, Standard Deviation, Covariance, Correlation

Conditional Distribution, Expectation, Functions of Random Variables

Simulation and R

Chapter Review

5 MORE DISCRETE DISTRIBUTIONS AND THEIR RELATIONSHIPS

Learning Outcomes

5.1 GEOMETRIC DISTRIBUTION

GEOMETRIC DISTRIBUTION

TAIL PROBABILITY OF GEOMETRIC DISTRIBUTION

5.1.1 Memorylessness

MEMORYLESS PROPERTY

5.1.2 Coupon Collecting and Tiger Counting

R: NUMERICAL SOLUTION TO TIGER PROBLEM

R: GEOMETRIC DISTRIBUTION

5.2 MOMENT-GENERATING FUNCTIONS

MOMENT-GENERATING FUNCTION

Remarks:

PROPERTIES OF MOMENT GENERATING FUNCTIONS

5.3 NEGATIVE BINOMIAL—UP FROM THE GEOMETRIC

NEGATIVE BINOMIAL DISTRIBUTION

R: NEGATIVE BINOMIAL DISTRIBUTION

5.4 HYPERGEOMETRIC—SAMPLING WITHOUT REPLACEMENT

HYPERGEOMETRIC DISTRIBUTION

R: HYPERGEOMETRIC DISTRIBUTION

R: SIMULATING ACES IN A BRIDGE HAND

5.5 FROM BINOMIAL TO MULTINOMIAL

MULTINOMIAL DISTRIBUTION

MULTINOMIAL THEOREM

R: MULTINOMIAL CALCULATION

5.6 BENFORD'S LAW*

5.7 SUMMARY

EXERCISES. Geometric Distribution

MGFS

Negative Binomial Distribution

Hypergeometric Distribution

Multinomial Distribution

Benford's Law

Other

Simulation and R

Chapter Review

6 CONTINUOUS PROBABILITY

Learning Outcomes

6.1 PROBABILITY DENSITY FUNCTION

PROBABILITY DENSITY FUNCTION

Note: And 0, Otherwise

6.2 CUMULATIVE DISTRIBUTION FUNCTION

CUMULATIVE DISTRIBUTION FUNCTION

CUMULATIVE DISTRIBUTION FUNCTION

6.3 EXPECTATION AND VARIANCE

EXPECTATION AND VARIANCE FOR CONTINUOUS RANDOM VARIABLES

PROPERTIES OF EXPECTATION AND VARIANCE

EXPECTATION OF FUNCTION OF CONTINUOUS RANDOM VARIABLE

6.4 UNIFORM DISTRIBUTION

UNIFORM DISTRIBUTION

R: UNIFORM DISTRIBUTION

R: SIMULATING BALLOON VOLUME

6.5 EXPONENTIAL DISTRIBUTION

EXPONENTIAL DISTRIBUTION

R: EXPONENTIAL DISTRIBUTION

6.5.1 Memorylessness

MEMORYLESSNESS FOR EXPONENTIAL DISTRIBUTION

R: BUS WAITING TIME

6.6 JOINT DISTRIBUTIONS

JOINT DENSITY FUNCTION

JOINT CUMULATIVE DISTRIBUTION FUNCTION

UNIFORM DISTRIBUTION IN TWO DIMENSIONS

MARGINAL DISTRIBUTIONS FROM JOINT DENSITIES

EXPECTATION OF FUNCTION OF JOINTLY DISTRIBUTED RANDOM VARIABLES

6.7 INDEPENDENCE

INDEPENDENCE AND DENSITY FUNCTIONS

6.7.1 Accept–Reject Method

6.8 COVARIANCE, CORRELATION

COVARIANCE

R: SIMULATION OF COVARIANCE, CORRELATION

6.9 SUMMARY

EXERCISES. Density, cdf, Expectation, Variance

Exponential Distribution

Joint Distributions, Independence, Covariance

Simulation and R

Chapter Review

7 CONTINUOUS DISTRIBUTIONS

Learning Outcomes

7.1 NORMAL DISTRIBUTION

NORMAL DISTRIBUTION

R: NORMAL DISTRIBUTION

7.1.1 Standard Normal Distribution

LINEAR FUNCTION OF NORMAL RANDOM VARIABLE

7.1.2 Normal Approximation of Binomial Distribution

7.1.3 Quantiles

QUANTILE

10,000 COIN FLIPS

7.1.4 Sums of Independent Normals

SUM OF INDEPENDENT NORMAL RANDOM VARIABLES IS NORMAL

AVERAGES OF i.i.d. RANDOM VARIABLES

7.2 GAMMA DISTRIBUTION

GAMMA DISTRIBUTION

SUM OF EXPONENTIALS HAS GAMMA DISTRIBUTION

R: SIMULATING THE GAMMA DISTRIBUTION FROM A SUM OF EXPONENTIALS

7.2.1 Probability as a Technique of Integration

7.3 POISSON PROCESS

DISTRIBUTION OF FOR POISSON PROCESS WITH PARAMETER

PROPERTIES OF POISSON PROCESS

R: SIMULATING A POISSON PROCESS

7.4 BETA DISTRIBUTION

7.5 PARETO DISTRIBUTION*

PARETO DISTRIBUTION

SCALE-INVARIANCE

7.6 SUMMARY

EXERCISES. Normal Distribution

Gamma Distribution, Poisson Process

Beta Distribution

Pareto, Scale-invariant Distribution

Simulation and R

Chapter Review

8 DENSITIES OF FUNCTIONS OF RANDOM VARIABLES

Learning Outcomes

8.1 DENSITIES VIA CDFs

R: COMPARING THE EXACT DISTRIBUTION WITH A SIMULATION

HOW TO FIND THE DENSITY OF Y = g(X)

8.1.1 Simulating a Continuous Random Variable

INVERSE TRANSFORM METHOD

R: IMPLEMENTING THE INVERSE TRANSFORM METHOD

8.1.2 Method of Transformations

8.2 MAXIMUMS, MINIMUMS, AND ORDER STATISTICS

INEQUALITIES FOR MAXIMUMS AND MINIMUMS

MINIMUM OF INDEPENDENT EXPONENTIAL DISTRIBUTIONS

8.3 CONVOLUTION

8.4 GEOMETRIC PROBABILITY

Ants, Fish, and Noodles

8.5 TRANSFORMATIONS OF TWO RANDOM VARIABLES*

JOINT DENSITY OF and

8.6 SUMMARY

EXERCISES. Practice with Finding Densities

Maxs, Mins, and Convolution

Geometric Probability

Bivariate Transformations

Simulation and R

Chapter Review

9 CONDITIONAL DISTRIBUTION, EXPECTATION, AND VARIANCE

Learning Outcomes

INTRODUCTION

9.1 CONDITIONAL DISTRIBUTIONS

CONDITIONAL DENSITY FUNCTION

BAYES FORMULA

9.2 DISCRETE AND CONTINUOUS: MIXING IT UP

R: SIMULATING EXPONENTIAL-POISSON TRAFFIC FLOW MODEL

9.3 CONDITIONAL EXPECTATION

CONDITIONAL EXPECTATION OF GIVEN

9.3.1 From Function to Random Variable

CONDITIONAL EXPECTATION E[ Y|X]

LAW OF TOTAL EXPECTATION

PROPERTIES OF CONDITIONAL EXPECTATION

9.3.2 Random Sum of Random Variables

9.4 COMPUTING PROBABILITIES BY CONDITIONING

9.5 CONDITIONAL VARIANCE

CONDITIONAL VARIANCE OF GIVEN

PROPERTIES OF CONDITIONAL VARIANCE

LAW OF TOTAL VARIANCE

R: TOTAL SPENDING AT ALICE'S RESTAURANT

9.6 BIVARIATE NORMAL DISTRIBUTION*

BIVARIATE STANDARD NORMAL DISTRIBUTION

BIVARIATE NORMAL DENSITY

PROPERTIES OF BIVARIATE STANDARD NORMAL DISTRIBUTION

R: SIMULATING BIVARIATE NORMAL RANDOM VARIABLES

CONDITIONAL DISTRIBUTION OF GIVEN

9.7 SUMMARY

EXERCISES. Conditional Distributions

Conditional Expectation

Computing Probabilities with Conditioning

Conditional Variance

Bivariate Normal Distribution

Simulation and R

Chapter Review

10 LIMITS

Learning Outcomes

THE “LAW OF AVERAGES” AND A RUN OF BLACK AT THE CASINO

10.1 WEAK LAW OF LARGE NUMBERS

R: WEAK LAW OF LARGE NUMBERS

10.1.1 Markov and Chebyshev Inequalities

WEAK LAW OF LARGE NUMBERS

Remarks

10.2 STRONG LAW OF LARGE NUMBERS

STRONG LAW OF LARGE NUMBERS

Remarks

10.3 METHOD OF MOMENTS*

10.4 MONTE CARLO INTEGRATION

MONTE CARLO INTEGRATION ON

10.5 CENTRAL LIMIT THEOREM

CENTRAL LIMIT THEOREM (CLT)

R: SIMULATION EXPERIMENT

Remarks

R: RANDOM WALK DISTANCE FROM ORIGIN

10.5.1 Central Limit Theorem and Monte Carlo

10.6 A PROOF OF THE CENTRAL LIMIT THEOREM

CONTINUITY THEOREM

10.7 SUMMARY

EXERCISES. Law of Large Numbers

Applications: Method of Moments and Monte Carlo Integration

Central Limit Theorem

Simulation and R

Chapter Review

11 BEYOND RANDOM WALKS AND MARKOV CHAINS

Learning Outcomes

11.1 RANDOM WALKS ON GRAPHS

11.1.1 Long-Term Behavior

LIMITING DISTRIBUTION

LIMITING DISTRIBUTION FOR A SIMPLE RANDOM WALK ON A GRAPH

R: RANDOM WALK ON A GRAPH

Remarks

11.2 RANDOM WALKS ON WEIGHTED GRAPHS AND MARKOV CHAINS

11.2.1 Stationary Distribution

STATIONARY DISTRIBUTION

STATIONARY, LIMITING DISTRIBUTION FOR RANDOM WALK ON WEIGHTED GRAPHS

DETAILED BALANCE CONDITION

11.3 FROM MARKOV CHAIN TO MARKOV CHAIN MONTE CARLO

MCMC: METROPOLIS–HASTINGS ALGORITHM

R: MCMC—A TOY EXAMPLE

Remarks

R: SIMULATION OF BIVARIATE STANDARD NORMAL DISTRIBUTION

11.4 SUMMARY

EXERCISES. Random Walk on Graphs and Markov Chains

Markov Chain Monte Carlo

Chapter Review

APPENDIX A PROBABILITY DISTRIBUTIONS IN R

APPENDIX B SUMMARY OF PROBABILITY DISTRIBUTIONS

APPENDIX C MATHEMATICAL REMINDERS. Exponents

Logarithms

Calculus

Series

APPENDIX D WORKING WITH JOINT DISTRIBUTIONS

SOLUTIONS TO EXERCISES. SOLUTIONS FOR CHAPTER 1

SOLUTIONS FOR CHAPTER 2

SOLUTIONS FOR CHAPTER 3

SOLUTIONS FOR CHAPTER 4

SOLUTIONS FOR CHAPTER 5

SOLUTIONS FOR CHAPTER 6

SOLUTIONS FOR CHAPTER 7

SOLUTIONS FOR CHAPTER 8

SOLUTIONS FOR CHAPTER 9

SOLUTIONS FOR CHAPTER 10

SOLUTIONS FOR CHAPTER 11

REFERENCES

INDEX

WILEY END USER LICENSE AGREEMENT

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Second Edition

.....

A one-to-one correspondence between two finite sets means that both sets have the same number of elements. Our one-to-one correspondence shows that the number of subsets of an -element set is equal to the number of binary lists of length . The number of binary lists of length is easily counted by the multiplication principle. As there are two choices for each element of the list, there are binary lists. The number of subsets of an -element set immediately follows as .

TABLE 1.3. Correspondence between subsets and binary lists.

.....

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