Statistics for Scientists and Engineers. için kapak resmi
Statistics for Scientists and Engineers.
Başlık:
Statistics for Scientists and Engineers.
Yazar:
Shanmugam, Ramalingam.
ISBN:
9781119047186
Yazar Ek Girişi:
Basım Bilgisi:
1st ed.
Fiziksel Tanımlama:
1 online resource (600 pages)
İçerik:
Cover -- Title Page -- Copyright -- Contents -- Preface -- About The Companion Website -- Chapter 1 Descriptive Statistics -- 1.1 Introduction -- 1.2 Statistics as A Scientific Discipline -- 1.2.1 Scales of Measurement -- 1.3 The NOIR Scale -- 1.3.1 The Nominal Scale -- 1.3.2 The Ordinal Scale -- 1.3.3 The Interval Scale -- 1.3.4 The Ratio Scale -- 1.4 Population Versus Sample -- 1.4.1 Parameter Versus Statistic -- 1.5 Combination Notation -- 1.6 Summation Notation -- 1.6.1 Nested Sums -- 1.6.2 Increment Step Sizes -- 1.7 Product Notation -- 1.7.1 Evaluating Large Powers -- 1.8 Rising and Falling Factorials -- 1.9 Moments and Cumulants -- 1.10 Data Transformations -- 1.10.1 Change of Origin -- 1.10.2 Change of Scale -- 1.10.3 Change of Origin and Scale -- 1.10.4 Min-Max Transformation -- 1.10.5 Nonlinear Transformations -- 1.10.6 Standard Normalization -- 1.11 Data Discretization -- 1.12 Categorization of Data Discretization -- 1.12.1 Equal Interval Binning (EIB) -- 1.12.2 Equal Frequency Binning (EFB) -- 1.12.3 Entropy-Based Discretization (EBD) -- 1.12.4 Error in Discretization -- 1.13 Testing for Normality -- 1.13.1 Graphical Methods for Normality Checking -- 1.13.2 Ogive Plots -- 1.13.3 P-P and Q-Q Plots -- 1.13.4 Stem-and-Leaf Plots -- 1.13.5 Numerical Methods for Normality Testing -- 1.14 Summary -- Chapter 2 Measures of Location -- 2.1 Meaning of Location Measure -- 2.1.1 Categorization of Location Measures -- 2.2 Measures of Central Tendency -- 2.3 Arithmetic Mean -- 2.3.1 Updating Formula For Sample Mean -- 2.3.2 Sample Mean Using Change of Origin and Scale -- 2.3.3 Trimmed Mean -- 2.3.4 Weighted Mean -- 2.3.5 Mean of Grouped Data -- 2.3.6 Updating Formula for Weighted Sample Mean -- 2.3.7 Advantages of Mean -- 2.3.8 Properties of The Mean -- 2.4 Median -- 2.4.1 Median of Grouped Data.

2.5 Quartiles and Percentiles -- 2.6 MODE -- 2.6.1 Advantages of Mode -- 2.7 Geometric Mean -- 2.7.1 Updating Formula For Geometric Mean -- 2.8 Harmonic Mean -- 2.8.1 Updating Formula For Harmonic Mean -- 2.9 Which Measure to Use? -- 2.10 Summary -- Chapter 3 Measures of Spread -- 3.1 Need For a Spread Measure -- 3.1.1 Categorization of Dispersion Measures -- 3.2 RANGE -- 3.2.1 Advantages of Range -- 3.2.2 Disadvantage of Range -- 3.2.3 Applications of Range -- 3.3 Inter-Quartile Range (IQR) -- 3.3.1 Change of Origin and Scale Transformation for Range -- 3.4 The Concept of Degrees of Freedom -- 3.5 Averaged Absolute Deviation (AAD) -- 3.5.1 Advantages of Averaged Absolute Deviation -- 3.5.2 Disadvantages of Averaged Absolute Deviation -- 3.5.3 Change of Origin and Scale Transformation for AAD -- 3.6 Variance and Standard Deviation -- 3.6.1 Advantages of Variance -- 3.6.2 Change of Origin and Scale Transformation for Variance -- 3.6.3 Disadvantages of Variance -- 3.6.4 A Bound for Sample Standard Deviation -- 3.7 Coefficient of Variation -- 3.7.1 Advantages of Coefficient of Variation -- 3.7.2 Disadvantages of Coefficient of Variation -- 3.7.3 An Interpretation of Coefficient of Variation -- 3.7.4 Change of Origin and Scale for CV -- 3.8 Gini Coefficient -- 3.9 Summary -- Chapter 4 Skewness and Kurtosis -- 4.1 Meaning of Skewness -- 4.1.1 Absolute Versus Relative Measures of Skewness -- 4.2 Categorization of Skewness Measures -- 4.3 Measures of Skewness -- 4.3.1 Bowley's Skewness Measure -- 4.3.2 Pearson's Skewness Measure -- 4.3.3 Coefficient of Quartile Deviation -- 4.3.4 Other Skewness Measures -- 4.4 Concept of Kurtosis -- 4.4.1 An Interpretation of Kurtosis -- 4.4.2 Categorization of Kurtosis Measures -- 4.5 Measures of Kurtosis -- 4.5.1 Pearson's Kurtosis Measure -- 4.5.2 Skewness-Kurtosis Bounds -- 4.5.3 L-kurtosis.

4.5.4 Spectral Kurtosis (SK) -- 4.5.5 Detecting Faults Using SK -- 4.5.6 Multivariate Kurtosis -- 4.6 Summary -- Chapter 5 Probability -- 5.1 Introduction -- 5.2 Probability -- 5.3 Different Ways to Express Probability -- 5.3.1 Converting Nonrepeating Decimals to Fractions -- 5.3.2 Converting Repeating Decimals to Fractions -- 5.3.3 Converting Tail-Repeating Decimals to Fractions -- 5.4 Sample Space -- 5.5 Mathematical Background -- 5.5.1 Sets and Mappings -- 5.5.2 Venn Diagrams -- 5.5.3 Tree Diagrams -- 5.5.4 Bipartite Graphs -- 5.5.5 Bipartite Forests -- 5.6 Events -- 5.6.1 Deterministic and Probabilistic Events -- 5.6.2 Discrete Versus Continuous Events -- 5.6.3 Event Categories -- 5.6.4 Do-Little Principle for Events -- 5.7 Event Algebra -- 5.7.1 Laws of Events -- 5.7.2 De'Morgan's Laws -- 5.8 Basic Counting Principles -- 5.8.1 Rule of Sums (ROS) -- 5.8.2 Principle of Counting (POC) -- 5.8.3 Complete Enumeration -- 5.9 Permutations and Combinations -- 5.9.1 Permutations with Restrictions -- 5.9.2 Permutation of Alike Objects -- 5.9.3 Cyclic Permutations -- 5.9.4 Cyclic Permutations of Subsets -- 5.9.5 Combinations -- 5.10 Principle of Inclusion and Exclusion (PIE) -- 5.11 Recurrence Relations -- 5.11.1 Derangements and Matching Problems -- 5.12 Urn Models -- 5.13 Partitions -- 5.14 Axiomatic Approach -- 5.14.1 Probability Measure -- 5.14.2 Probability Space -- 5.15 The Classical Approach -- 5.15.1 Counting Techniques in Classical Probability -- 5.15.2 Assigning Probabilities to Events -- 5.15.3 Rules of Probability -- 5.15.4 Do-Little Principle of Probability -- 5.15.5 Permutation and Combination in Classical Approach -- 5.15.6 Sequentially Dependent Events -- 5.15.7 Independence of Events -- 5.15.8 Independent Random Variables -- 5.16 Frequency Approach -- 5.16.1 Entropy Versus Probability -- 5.17 Bayes Theorem.

5.17.1 Bayes Theorem for Conditional Probability -- 5.17.2 Bayes Classification Rule -- 5.18 Summary -- Chapter 6 Discrete Distributions -- 6.1 Discrete Random Variables -- 6.2 Binomial Theorem -- 6.2.1 Recurrence Relation for Binomial Coefficients -- 6.2.2 Distributions Obtainable from Binomial Theorem -- 6.3 Mean Deviation of Discrete Distributions -- 6.3.1 Recurrence Relation for Mean Deviation -- 6.4 Bernoulli Distribution -- 6.5 Binomial Distribution -- 6.5.1 Properties of Binomial Distribution -- 6.5.2 Moment Recurrences -- 6.5.3 Additivity Property -- 6.5.4 Distribution of the Difference of Successes and Failures -- 6.5.5 Algorithm for Binomial Distribution -- 6.5.6 Tail Probabilities -- 6.5.7 Approximations -- 6.5.8 Limiting Form of Binomial Distribution -- 6.6 Discrete Uniform Distribution -- 6.6.1 Properties of Discrete Uniform Distribution -- 6.6.2 An Application -- 6.7 Geometric Distribution -- 6.7.1 Properties of Geometric Distribution -- 6.7.2 Memory-less Property -- 6.7.3 Tail Probabilities -- 6.7.4 Random Samples -- 6.8 Negative Binomial Distribution -- 6.8.1 Properties of Negative Binomial Distribution -- 6.8.2 Moment Recurrence -- 6.8.3 Tail Probabilities -- 6.9 Poisson Distribution -- 6.9.1 Properties of Poisson Distribution -- 6.9.2 Algorithms for Poisson Distribution -- 6.9.3 Truncated Poisson Distribution -- 6.10 Hypergeometric Distribution -- 6.10.1 Properties of Hypergeometric Distribution -- 6.10.2 Moments of Hypergeometric Distribution -- 6.10.3 Approximations for Hypergeometric Distribution -- 6.11 Negative Hypergeometric Distribution -- 6.12 Beta Binomial Distribution -- 6.13 Logarithmic Series Distribution -- 6.13.1 Properties of Logarithmic Distribution -- 6.14 Multinomial Distribution -- 6.14.1 Properties of Multinomial Distribution -- 6.15 Summary.

Chapter 7 Continuous Distributions -- 7.1 Introduction -- 7.2 Mean Deviation of Continuous Distributions -- 7.2.1 Notion of Infinity -- 7.3 Continuous Uniform Distribution -- 7.3.1 Properties of Continuous Uniform Distribution -- 7.3.2 Relationships with Other Distributions -- 7.3.3 Applications -- 7.4 Exponential Distribution -- 7.4.1 Properties of Exponential Distribution -- 7.4.2 Additivity Property -- 7.5 Beta Distribution -- 7.5.1 Type-I Beta Distribution -- 7.5.2 Properties of Type-I Beta Distribution -- 7.5.3 Type-II Beta Distribution -- 7.5.4 Properties of Type-II Beta Distribution -- 7.5.5 Relationship with Other Distributions -- 7.6 The Incomplete Beta Function -- 7.6.1 Tail Areas Using IBF -- 7.6.2 Tables -- 7.7 General Beta Distribution -- 7.8 Arc-Sine Distribution -- 7.8.1 Properties of Arc-Sine Distribution -- 7.9 Gamma Distribution -- 7.9.1 Properties of Gamma Distribution -- 7.9.2 Relationships with Other Distributions -- 7.9.3 Incomplete Gamma Function (IGF) -- 7.10 Cosine Distribution -- 7.11 The Normal Distribution -- 7.11.1 Properties of Normal Distribution -- 7.11.2 Transformations to Normality -- 7.11.3 Functions of Normal Variates -- 7.11.4 Relation to Other Distributions -- 7.11.5 Algorithms -- 7.12 Cauchy Distribution -- 7.12.1 Properties of Cauchy Distribution -- 7.12.2 Functions of Cauchy Variate -- 7.12.3 Relation to Other Distributions -- 7.13 Inverse Gaussian Distribution -- 7.13.1 Relation to Other Distributions -- 7.14 Lognormal Distribution -- 7.14.1 Properties of Lognormal Distribution -- 7.14.2 Moments -- 7.14.3 Fitting Lognormal Distribution -- 7.15 Pareto Distribution -- 7.15.1 Properties of Pareto Distribution -- 7.15.2 Relation to Other Distributions -- 7.15.3 Algorithms -- 7.16 Double Exponential Distribution -- 7.16.1 Relation to Other Distributions.

7.17 Central X2 Distribution.
Özet:
This book provides the theoretical framework needed to build, analyze and interpret various statistical models. It helps readers choose the correct model, distinguish among various choices that best captures the data, or solve the problem at hand. This is an introductory textbook on probability and statistics. The authors explain theoretical concepts in a step-by-step manner and provide practical examples. The introductory chapter in this book presents the basic concepts. Next, the authors discuss the measures of location, popular measures of spread, and measures of skewness and kurtosis. Probability theory, discrete distributions, and important continuous distributions that are often encountered in practical applications are analyzed. Mathematical Expectation is covered, along with Generating Functions and Functions of Random Variables. It discusses joint distributions, and novel methods to find the mean deviation of discrete and continuous statistical distributions. Provides insight on coding complex algorithms using the 'loop unrolling technique' Covers illuminating discussions on Poisson limit theorem, central limit theorem, mean deviation generating functions, CDF generating function and extensive summary tables Contains extensive exercises at the end of each chapter and examples from interdisciplinary fields Statistics for Scientists and Engineers is a great resource for students in engineering, physical sciences, and management, and also practicing engineers who require skill sets to model practical problems in a statistical setting.
Notlar:
Electronic reproduction. Ann Arbor, Michigan : ProQuest Ebook Central, 2017. Available via World Wide Web. Access may be limited to ProQuest Ebook Central affiliated libraries.
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