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Mathematical Tools for Applied Multivariate Analysis provides information pertinent to the aspects of transformational geometry, matrix algebra, and the calculus that are most relevant for the study of multivariate analysis. This book discusses the mathematical foundations of applied multivariate analysis. Organized into six chapters, this book begins with an overview of the three problems in multiple regression, principal components analysis, and multiple discriminant analysis. This text then presents a standard treatment of the mechanics of matrix algebra, including definitions and operations on matrices, vectors, and determinants. Other chapters consider the topics of eigenstructures and linear transformations that are important to the understanding of multivariate techniques. This book discusses as well the eigenstructures and quadratic forms. The final chapter deals with the geometric aspects of linear transformations. This book is a valuable resource for students.
Language
Place of publication
Publishing group
Elsevier Science & Techn.
ISBN-13
978-1-4832-1404-7 (9781483214047)
Schweitzer Classification
¿PrefaceAcknowledgmentsChapter 1 The Nature of Multivariate Data Analysis 1.1 Introduction 1.2 Multivariate Methods in Research 1.3 A Classification of Techniques for Analyzing Associative Data 1.4 Organizing the Techniques 1.5 Illustrative Applications 1.6 Some Numerical Examples 1.7 Format of Succeeding Chapters 1.8 Summary Review QuestionsChapter 2 Vector and Matrix Operations for Multivariate Analysis 2.1 Introduction 2.2 Vector Representation 2.3 Basic Definitions and Operations on Vectors 2.4 Matrix Representation 2.5 Basic Definitions and Operations on Matrices 2.6 Some Special Matrices 2.7 Determinants of Matrices 2.8 Applying Matrix Operations to Statistical Data 2.9 Summary Review QuestionsChapter 3 Vector and Matrix Concepts from a Geometric Viewpoint 3.1 Introduction 3.2 Euclidean Space and Rectangular Cartesian Coordinates 3.3 Geometric Representation of Vectors 3.4 Linear Dependence of Vectors 3.5 Orthogonal Transformations 3.6 Geometric Aspects of Cross-Product Matrices and Determinants 3.7 Summary Review QuestionsChapter 4 Linear Transformations from a Geometric Viewpoint 4.1 Introduction 4.2 Simultaneous Equations and Matrix Transformations 4.3 Matrix Inversion 4.4 Geometric Relationships Involving Matrix Transformations 4.5 Composite Transformations 4.6 Invertible Transformations and Matrix Rank 4.7 Methods for Rank Determination and Matrix Inversion 4.8 Summary Review QuestionsChapter 5 Decomposition of Matrix Transformations: Eigenstructures and Quadratic Forms 5.1 Introduction 5.2 An Overview of Matrix Eigenstructures 5.3 Transformations of Covariance Matrices 5.4 Eigenstructure of a Symmetric Matrix 5.5 Properties of Matrix Eigenstructures 5.6 Eigenstructures and Matrix Rank 5.7 The Basic Structure of a Matrix 5.8 Quadratic Forms 5.9 Eigenstructures of Nonsymmetric Matrices in Multivariate Analysis 5.10 Summary Review QuestionsChapter 6 Applying the Tools to Multivariate Data 6.1 Introduction 6.2 The Multiple Regression Problem 6.3 Other Forms of the General Linear Model 6.4 The Factor Analysis Problem 6.5 The Multiple Discriminant Analysis Problem 6.6 A Parting Look at Multivariate Technique Classification 6.7 Summary Review QuestionsAppendix A Symbolic Differentiation and Optimization of Multivariable Functions A.1 Introduction A.2 Differentiation of Functions of One Argument A.3 Differentiation of Functions of Two Arguments A.4 Symbolic Differentiation A.5 Application of the Calculus to Multivariate Analysis A.6 Summary Review QuestionsAppendix B Linear Equations and Generalized Inverses B.1 Introduction B.2 Simultaneous Linear Equations B.3 Introductory Aspects of Generalized Inverses B.4 The g Inverse B.5 Summary Review QuestionsAnswers to Numerical ProblemsReferencesIndex