© 2009 – Chapman and Hall/CRC
468 pages | 96 B/W Illus.
Emphasizing causation as a functional relationship between variables that describe objects, Linear Causal Modeling with Structural Equations integrates a general philosophical theory of causation with structural equation modeling (SEM) that concerns the special case of linear causal relations. In addition to describing how the functional relation concept may be generalized to treat probabilistic causation, the book reviews historical treatments of causation and explores recent developments in experimental psychology on studies of the perception of causation. It looks at how to perceive causal relations directly by perceiving quantities in magnitudes and motions of causes that are conserved in the effects of causal exchanges.
The author surveys the basic concepts of graph theory useful in the formulation of structural models. Focusing on SEM, he shows how to write a set of structural equations corresponding to the path diagram, describes two ways of computing variances and covariances of variables in a structural equation model, and introduces matrix equations for the general structural equation model. The text then discusses the problem of identifying a model, parameter estimation, issues involved in designing structural equation models, the application of confirmatory factor analysis, equivalent models, the use of instrumental variables to resolve issues of causal direction and mediated causation, longitudinal modeling, and nonrecursive models with loops. It also evaluates models on several dimensions and examines the polychoric and polyserial correlation coefficients and their derivation.
Covering the fundamentals of algebra and the history of causality, this book provides a solid understanding of causation, linear causal modeling, and SEM. It takes readers through the process of identifying, estimating, analyzing, and evaluating a range of models.
"…an accessible yet rigorous treatment of the subject and is likely to be appealing to a wide statistical audience. … I enjoyed reading this book and suspect others will too. I would recommend this book for students and researchers [who] are familiar with standard applied statistics and causal inference but are looking for an introduction to structural equation modeling."
—Eric Laber, Journal of the American Statistical Association, September 2013
"The book is written by one of the most prominent researchers in the field of structural equation models (SEM). … It is primarily a useful textbook for graduate students but could also be very useful for researchers in quantitative methods. … the book presents the standard methods of SEM in a form that makes them interesting to students and researchers with interests in the philosophical treatment of causality using SEM. … a very useful textbook for graduate students. It stands out for its rigorous treatment of SEM as a whole and for a particularly useful philosophical treatment of causality. … Stanley Mulaik’s book is one of the most useful ones with which to start a journey in this field."
—Spiridon Penev, Australian & New Zealand Journal of Statistics, 2011
"The book benefits very substantially from the author’s mixed background in multivariate analysis, psychometrics, and philosophy of science—a background which is ideally suited to the eclectic issues raised by considerations of causality. I am sure the volume will prove to be a very useful contribution to the literature, an excellent text for someone intending to research in this area, and a useful reference source for those already doing so."
—David J. Hand, International Statistical Review (2011), 79
The Rise of Structural Equation Modeling
An Example of Structural Equation Modeling
Mathematical Foundations for Structural Equation Modeling
Treatment of Variables as Vectors
Maxima and Minima of Functions
Perception of Causation
Conditions for Causal Inference
Science as Knowledge of Objects Demands Testing of Causal Hypotheses
Summary and Conclusion
Graph Theory for Causal Modeling
Directed Acyclic Graphs
Structural Equation Models
Basics of Structural Equation Models
From Path Diagrams to Structural Equations
Formulas for Variances and Covariances in Structural Equation Models
Incompletely Specified Models
Estimation of Parameters
Derivatives of Elements of Matrices
Parameter Estimation Algorithms
Designing SEM Studies
The Four-Step Procedure
Testing Invariance across Groups of Subjects
Modeling Mean Structures
Confirmatory Factor Analysis
Early Attempts at Confirmatory Factor Analysis
An Example of Confirmatory Factor Analysis
Faceted Classification Designs
Multitrait-Multimethod Covariance Matrices
Definition of Equivalent Models
Equivalent Models That Do Not Fit Every Covariance Matrix
A Conjecture about Avoiding Equivalent Models by Specifying Nonzero Parameters
Instrumental Variables and Mediated Causation
Multilevel Factor Analysis on Two Levels
Multilevel Path Analysis
Latent Curve Models
Reality or Just Saving Appearances?
Flow Graph Analysis
Mason’s Direct Rule
Covariances and Correlations with Nonrecursive-Related Variables
Errors of Fit
Chi-Square Test of Fit
Properties of Chi-Square and Noncentral Chi-Square
Goodness-of-Fit Indices, CFI, and Others
The Meaning of Degrees of Freedom
"Badness-of-Fit" Indices, RMSEA, and ER
Information Theoretic Measures of Model Discrepancy
AIC Does Not Correct for Parsimony
Is the Noncentral Chi-Square Distribution Appropriate?
Confusion of "Likelihoods" in the AIC
Other Information Theoretic Indices, ICOMP
LM, WALD, and LR Tests
Modifying Models Post hoc
Criticisms of Indices of Approximation
Polychoric Correlation and Polyserial Correlation