Volume 70, Issue 3

Case‐parent Triads: Estimating Single‐ and Double‐dose Effects of Fetal and Maternal Disease Gene Haplotypes

H. K. GJESSING

Corresponding Author

Division of Epidemiology, Norwegian Institute of Public Health, Norway

Section for Epidermiology and Medical Statistics, Department of Public Health and Primary Health Care, University of Bergen, Norway

Address for correspondence: Dr. Håkon K. Gjessing, Norwegian Institute of Public Health, P.O. Box 4404 Nydalen, N‐0403 Oslo, Norway. Phone: +47 23408241, Fax: +47 23408260. E‐mail: hakon.gjessing@fhi.noSearch for more papers by this author
R. T. LIE

Section for Epidermiology and Medical Statistics, Department of Public Health and Primary Health Care, University of Bergen, Norway

Division of Epidemiology, Norwegian Institute of Public Health, Norway

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First published: 28 June 2008
Citations: 43

Summary

Case‐parent triad data are considered a robust basis for studying association between variants of a gene and a disease. Methods evaluating statistical significance of association, like the TDT‐test and its extensions, are frequently used. When there are prior hypotheses of a causal effect of the gene under study, however, methods measuring penetrance of alleles or haplotypes as relative risks will be more informative. Log‐linear models have been proposed as a flexible tool for such relative risk estimation. We demonstrate an extension of the log‐linear model to a natural framework for also estimating effects of multiple alleles or haplotypes, incorporating both single‐ and double‐dose effects. The model also incorporates effects of single‐ and double‐dose maternal haplotypes on a fetus during pregnancy. Unknown phase of haplotypes as well as missing parents are accounted for by the EM algorithm. A number of numerical improvements to maximum likelihood estimation are also implemented to facilitate a larger number of haplotypes. Software for these analyses, HAPLIN, is publicly available through our web site. As an illustration we have re‐analyzed data on the MSX1 homeobox‐gene on chromosome 4 to show how haplotypes may influence the risk of oral clefts.

Number of times cited according to CrossRef: 43

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