A conceptual framework for mapping quantitative trait Loci regulating ontogenetic allometry.

Although ontogenetic changes in body shape and its associated allometry has been studied for over a century, essentially nothing is known about their underlying genetic and developmental mechanisms. One of the reasons for this ignorance is the unavailability of a conceptual framework to formulate th...

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Main Authors: Hongying Li, Zhongwen Huang, Junyi Gai, Song Wu, Yanru Zeng, Qin Li, Rongling Wu
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2007-11-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC2080758?pdf=render
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spelling doaj-cd4732c137774e6f9e1d848d9585f02d2020-11-25T00:48:32ZengPublic Library of Science (PLoS)PLoS ONE1932-62032007-11-01211e124510.1371/journal.pone.0001245A conceptual framework for mapping quantitative trait Loci regulating ontogenetic allometry.Hongying LiZhongwen HuangJunyi GaiSong WuYanru ZengQin LiRongling WuAlthough ontogenetic changes in body shape and its associated allometry has been studied for over a century, essentially nothing is known about their underlying genetic and developmental mechanisms. One of the reasons for this ignorance is the unavailability of a conceptual framework to formulate the experimental design for data collection and statistical models for data analyses. We developed a framework model for unraveling the genetic machinery for ontogenetic changes of allometry. The model incorporates the mathematical aspects of ontogenetic growth and allometry into a maximum likelihood framework for quantitative trait locus (QTL) mapping. As a quantitative platform, the model allows for the testing of a number of biologically meaningful hypotheses to explore the pleiotropic basis of the QTL that regulate ontogeny and allometry. Simulation studies and real data analysis of a live example in soybean have been performed to investigate the statistical behavior of the model and validate its practical utilization. The statistical model proposed will help to study the genetic architecture of complex phenotypes and, therefore, gain better insights into the mechanistic regulation for developmental patterns and processes in organisms.http://europepmc.org/articles/PMC2080758?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Hongying Li
Zhongwen Huang
Junyi Gai
Song Wu
Yanru Zeng
Qin Li
Rongling Wu
spellingShingle Hongying Li
Zhongwen Huang
Junyi Gai
Song Wu
Yanru Zeng
Qin Li
Rongling Wu
A conceptual framework for mapping quantitative trait Loci regulating ontogenetic allometry.
PLoS ONE
author_facet Hongying Li
Zhongwen Huang
Junyi Gai
Song Wu
Yanru Zeng
Qin Li
Rongling Wu
author_sort Hongying Li
title A conceptual framework for mapping quantitative trait Loci regulating ontogenetic allometry.
title_short A conceptual framework for mapping quantitative trait Loci regulating ontogenetic allometry.
title_full A conceptual framework for mapping quantitative trait Loci regulating ontogenetic allometry.
title_fullStr A conceptual framework for mapping quantitative trait Loci regulating ontogenetic allometry.
title_full_unstemmed A conceptual framework for mapping quantitative trait Loci regulating ontogenetic allometry.
title_sort conceptual framework for mapping quantitative trait loci regulating ontogenetic allometry.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2007-11-01
description Although ontogenetic changes in body shape and its associated allometry has been studied for over a century, essentially nothing is known about their underlying genetic and developmental mechanisms. One of the reasons for this ignorance is the unavailability of a conceptual framework to formulate the experimental design for data collection and statistical models for data analyses. We developed a framework model for unraveling the genetic machinery for ontogenetic changes of allometry. The model incorporates the mathematical aspects of ontogenetic growth and allometry into a maximum likelihood framework for quantitative trait locus (QTL) mapping. As a quantitative platform, the model allows for the testing of a number of biologically meaningful hypotheses to explore the pleiotropic basis of the QTL that regulate ontogeny and allometry. Simulation studies and real data analysis of a live example in soybean have been performed to investigate the statistical behavior of the model and validate its practical utilization. The statistical model proposed will help to study the genetic architecture of complex phenotypes and, therefore, gain better insights into the mechanistic regulation for developmental patterns and processes in organisms.
url http://europepmc.org/articles/PMC2080758?pdf=render
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