Paleohistological estimation of bone growth rate in extinct archosaurs

The clade Archosauria contains two very different sister groups in terms of diversity (number of species) and disparity (phenotypic variation): Crurotarsi (taxa more closely related to crocodiles than to birds) and Ornithodira (pterosaurs and dinosaurs including birds). The extant species of Crurota...

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Veröffentlicht in:Paleobiology 2012-03, Vol.38 (2), p.335-349
Hauptverfasser: Cubo, Jorge, Le Roy, Nathalie, Martinez-Maza, Cayetana, Montes, Laetitia
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creator Cubo, Jorge
Le Roy, Nathalie
Martinez-Maza, Cayetana
Montes, Laetitia
description The clade Archosauria contains two very different sister groups in terms of diversity (number of species) and disparity (phenotypic variation): Crurotarsi (taxa more closely related to crocodiles than to birds) and Ornithodira (pterosaurs and dinosaurs including birds). The extant species of Crurotarsi may constitute a biased sample of past biodiversity regarding growth patterns and metabolic rates. Bone histological characters can be conserved over hundreds of millions of years in the fossil record and potentially contain information about individual age at death, age at sexual maturity, bone growth rates, and basal metabolic rates of extinct vertebrates. Using a sample of extant amniotes, we have constructed a paleobiological model to estimate bone growth rate from bone histological traits. Cross-validation tests show that this model is reliable. We then used it to estimate bone growth rates in a sample of extinct archosaurs including Crurotarsi and Ornithodira. After testing for phylogenetic signal, optimization of femoral growth rates through squared change parsimony onto a time-calibrated tree of amniotes shows two divergent evolutionary trends: whereas bone growth rates increase from the last common ancestor of Ornithodira to extant birds, they decrease from the last common ancestor of Crurotarsi to extant crocodiles. However, we conclude, on the basis of recent evidence for unidirectional airflow in the lungs of alligators, that crocodiles may have retained the capacity of growing at high rates.
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After testing for phylogenetic signal, optimization of femoral growth rates through squared change parsimony onto a time-calibrated tree of amniotes shows two divergent evolutionary trends: whereas bone growth rates increase from the last common ancestor of Ornithodira to extant birds, they decrease from the last common ancestor of Crurotarsi to extant crocodiles. However, we conclude, on the basis of recent evidence for unidirectional airflow in the lungs of alligators, that crocodiles may have retained the capacity of growing at high rates.</abstract><cop>New York, USA</cop><pub>The Paleontological Society</pub><doi>10.1666/08093.1</doi><tpages>15</tpages></addata></record>
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source Jstor Complete Legacy
subjects Air flow
Amniota
Aquatic animals
Aquatic reptiles
Archosauria
Aves
biologic evolution
Birds
Bones
Canals
Chordata
Crocodilia
Diapsida
Dinosaurs
Endangered & extinct species
Evolution
extinct taxa
Fossils
Growth rate
growth rates
Histology
living taxa
Paleobiology
Paleontology
Phenotypic variations
Phylogenetics
phylogeny
physiology
Reptilia
Respiratory system
s
Sexual maturity
Species diversity
Studies
Taxa
Tetrapoda
Vertebrata
vertebrate
title Paleohistological estimation of bone growth rate in extinct archosaurs
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