Book contents
- Frontmatter
- Contents
- List of contributors
- Preface
- Section 1 Theory
- Section 2 Applications
- 6 Modeling intraindividual variability and change in bio-behavioral developmental processes
- 7 Examining the relationship between environmental variables and ordination axes using latent variables and structural equation modeling
- 8 From biological hypotheses to structural equation models: the imperfection of causal translation
- 9 Analyzing dynamic systems: a comparison of structural equation modeling and system dynamics modeling
- 10 Estimating analysis of variance models as structural equation models
- 11 Comparing groups using structural equations
- 12 Modeling means in latent variable models of natural selection
- 13 Modeling manifest variables in longitudinal designs – a two-stage approach
- Section 3 Computing
- Index
8 - From biological hypotheses to structural equation models: the imperfection of causal translation
Published online by Cambridge University Press: 14 October 2009
- Frontmatter
- Contents
- List of contributors
- Preface
- Section 1 Theory
- Section 2 Applications
- 6 Modeling intraindividual variability and change in bio-behavioral developmental processes
- 7 Examining the relationship between environmental variables and ordination axes using latent variables and structural equation modeling
- 8 From biological hypotheses to structural equation models: the imperfection of causal translation
- 9 Analyzing dynamic systems: a comparison of structural equation modeling and system dynamics modeling
- 10 Estimating analysis of variance models as structural equation models
- 11 Comparing groups using structural equations
- 12 Modeling means in latent variable models of natural selection
- 13 Modeling manifest variables in longitudinal designs – a two-stage approach
- Section 3 Computing
- Index
Summary
Abstract
It is possible to test a multivariate biological hypothesis concerning cause–effect relationships using structural equation modeling (SEM) applied to observational data. However, to do this we must translate from the language of causality to the language of probability distributions and this process of translation is almost always imperfect. One consequence of this imperfection of causal translation is the existence of equivalent SEM models; that is, different causal models that produce exactly equivalent statistical structural equation models. In this chapter I describe how such equivalent models arise, how to find equivalent models based on path diagrams, and why their existence complicates our interpretation of standard statistical tests in SEM. I illustrate these concepts using two actual path models taken from plant ecology.
- Type
- Chapter
- Information
- Structural Equation ModelingApplications in Ecological and Evolutionary Biology, pp. 194 - 211Publisher: Cambridge University PressPrint publication year: 2003
- 5
- Cited by