Type I error rates and power of robust chi-square difference tests in investigations of measurement invariance

A Monte Carlo simulation study was conducted to investigate Type I error rates and power of several corrections for non-normality to the normal theory chi-square difference test in the context of evaluating measurement invariance via Structural Equation Modeling (SEM). Studied statistics include: 1)...

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Main Author: Brace, Jordan
Format: Thesis
Language:English
Published: University of British Columbia 2015
Subjects:
DML
Online Access:http://hdl.handle.net/2429/54538
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spelling ftunivbritcolcir:oai:circle.library.ubc.ca:2429/54538 2023-05-15T16:02:02+02:00 Type I error rates and power of robust chi-square difference tests in investigations of measurement invariance Brace, Jordan 2015 http://hdl.handle.net/2429/54538 eng eng University of British Columbia Attribution-NonCommercial-NoDerivs 2.5 Canada http://creativecommons.org/licenses/by-nc-nd/2.5/ca/ CC-BY-NC-ND Text Thesis/Dissertation 2015 ftunivbritcolcir 2019-10-15T18:18:41Z A Monte Carlo simulation study was conducted to investigate Type I error rates and power of several corrections for non-normality to the normal theory chi-square difference test in the context of evaluating measurement invariance via Structural Equation Modeling (SEM). Studied statistics include: 1) the uncorrected difference test, DML, 2) Satorra’s (2000) original computationally intensive correction, DS0, 3) Satorra and Bentler’s (2001) simplified correction, DSB1, 4) Satorra and Bentler’s (2010) strictly positive correction, DSB10, and 5) a hybrid procedure, DSBH (Asparouhov & Muthén, 2010), which is equal to DSB1 when DSB1 is positive, and DSB10 when DSB1 is negative. Multiple-group data were generated from confirmatory factor analytic models invariant on some but not all parameters. A series of six nested invariance models was fit to each generated dataset. Population parameter values had little influence on the relative performance of the scaled statistics, while level of invariance being tested did. DS0 was found to over-reject in many Type I error conditions, and it is suspected that high observed rejection rates in power conditions are due to a general positive bias. DSB1 generally performed well in Type I error conditions, but severely under-rejected in power conditions. DSB10 performed reasonably well and consistently in both Type I error and power conditions. We recommend that researchers use the strictly positive corrected difference test, DSB10, to evaluate measurement invariance when data are not normally distributed. Arts, Faculty of Psychology, Department of Graduate Thesis DML University of British Columbia: cIRcle - UBC's Information Repository
institution Open Polar
collection University of British Columbia: cIRcle - UBC's Information Repository
op_collection_id ftunivbritcolcir
language English
description A Monte Carlo simulation study was conducted to investigate Type I error rates and power of several corrections for non-normality to the normal theory chi-square difference test in the context of evaluating measurement invariance via Structural Equation Modeling (SEM). Studied statistics include: 1) the uncorrected difference test, DML, 2) Satorra’s (2000) original computationally intensive correction, DS0, 3) Satorra and Bentler’s (2001) simplified correction, DSB1, 4) Satorra and Bentler’s (2010) strictly positive correction, DSB10, and 5) a hybrid procedure, DSBH (Asparouhov & Muthén, 2010), which is equal to DSB1 when DSB1 is positive, and DSB10 when DSB1 is negative. Multiple-group data were generated from confirmatory factor analytic models invariant on some but not all parameters. A series of six nested invariance models was fit to each generated dataset. Population parameter values had little influence on the relative performance of the scaled statistics, while level of invariance being tested did. DS0 was found to over-reject in many Type I error conditions, and it is suspected that high observed rejection rates in power conditions are due to a general positive bias. DSB1 generally performed well in Type I error conditions, but severely under-rejected in power conditions. DSB10 performed reasonably well and consistently in both Type I error and power conditions. We recommend that researchers use the strictly positive corrected difference test, DSB10, to evaluate measurement invariance when data are not normally distributed. Arts, Faculty of Psychology, Department of Graduate
format Thesis
author Brace, Jordan
spellingShingle Brace, Jordan
Type I error rates and power of robust chi-square difference tests in investigations of measurement invariance
author_facet Brace, Jordan
author_sort Brace, Jordan
title Type I error rates and power of robust chi-square difference tests in investigations of measurement invariance
title_short Type I error rates and power of robust chi-square difference tests in investigations of measurement invariance
title_full Type I error rates and power of robust chi-square difference tests in investigations of measurement invariance
title_fullStr Type I error rates and power of robust chi-square difference tests in investigations of measurement invariance
title_full_unstemmed Type I error rates and power of robust chi-square difference tests in investigations of measurement invariance
title_sort type i error rates and power of robust chi-square difference tests in investigations of measurement invariance
publisher University of British Columbia
publishDate 2015
url http://hdl.handle.net/2429/54538
genre DML
genre_facet DML
op_rights Attribution-NonCommercial-NoDerivs 2.5 Canada
http://creativecommons.org/licenses/by-nc-nd/2.5/ca/
op_rightsnorm CC-BY-NC-ND
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