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slides
Rethinking the nature of fibrolamellar bone : An integrative biological revision of sauropod plexiform bone formation
Authors
Alexander
Amprino
+139 more
Anderson
Ascenzi
Ascenzi
Ascenzi
Ascenzi
Beniash
Bennett
Berglundh
Biewener
Bishop
Botha-Brink
Boyde
Boyde
Bromage
Bromage
Bromage
Buffrénil
Cadena
Castanet
Castanet
Chinsamy-Turan
Company
Cubo
Cubo
Cubo
Currey
Currey
Currey
Currey
Curry Rogers
De Margerie
De Margerie
De Margerie
De Margerie
De Ricqlès
De Ricqlès
De Ricqlès
De Ricqlès
De Ricqlès
De Ricqlès
De Ricqlès
Enlow
Enlow
Enlow
Erickson
Erickson
Erickson
Ferretti
Foote
Francillon-Vieillot
Franz-Odendaal
Frost
Gebhardt
Giraud-Guille
Gross
Hall
Ham
Hokkanen
Horner
Horner
Horner
Hubert
Karaplis
Kerschnitzki
Klein
Klein
Klein
Klein
Klevezal
Kolodny
Kolokotrones
Lehman
Marotti
Marotti
Marotti
Marotti
Marotti
Marotti
Marotti
Martin
Martin
Martin
Martin
Mishra
Montanari
Montes
Montes
Mori
Mukherjee
Organ
Organ
Organ
Osborn
Ottani
Owerkowicz
Padian
Padian
Palumbo
Palumbo
Paul
Pazzaglia
Pazzaglia
Pritchard
Ray
Ray
Rensberger
Riggs
Sander
Sander
Sander
Sander
Sander
Seymour
Seymour
Shapiro
Sire
Skedros
Skedros
Skedros
Skedros
Skedros
Skedros
Smith
Smith
Speakman
Starck
Stein
Stein
Steyer
Su
Sugawara
Trueman
Tumarkin-Deratzian
Viguet-Carrin
Wagner
West
White
Woodward
Woodward
Publication date
6 May 2013
Publisher
'Wiley'
Doi
Abstract
We present novel findings on sauropod bone histology that cast doubt on general palaeohistological concepts concerning the true nature of woven bone in primary cortical bone and its role in the rapid growth and giant body sizes of sauropod dinosaurs. By preparing and investigating longitudinal thin sections of sauropod long bones, of which transverse thin sections were published previously, we found that the amount of woven bone in the primary complex has been largely overestimated. Using comparative cellular and light-extinction characteristics in the two section planes, we revealed that the majority of the bony lamina consists of longitudinally organized primary bone, whereas woven bone is usually represented only by a layer a few cells thin in the laminae. Previous arguments on sauropod biology, which have been based on the overestimated amount, misinterpreted formation process and misjudged role of woven bone in the plexiform bone formation of sauropod dinosaurs, are thereby rejected. To explain the observed pattern in fossil bones, we review the most recent advances in bone biology concerning bone formation processes at the cellular and tissue levels. Differentiation between static and dynamic osteogenesis (SO and DO) and the revealed characteristics of SO- versus DO-derived bone tissues shed light on several questions raised by our palaeohistological results and permit identification of these bone tissues in fossils with high confidence. By presenting the methods generally used for investigating fossil bones, we show that the major cause of overestimation of the amount of woven bone in previous palaeohistological studies is the almost exclusive usage of transverse sections. In these sections, cells and crystallites of the longitudinally organized primary bone are cut transversely, thus cells appear rounded and crystallites remain dark under crossed plane polarizers, thereby giving the false impression of woven bone. In order to avoid further confusion in palaeohistological studies, we introduce new osteohistological terms as well as revise widely used but incorrect terminology. To infer the role of woven bone in the bone formation of fast-growing tetrapods, we review some aspects of the interrelationships between the vascularity of bone tissues, basal metabolic rate, body size and growth rate. By putting our findings into the context of osteogenesis, we provide a new model for the diametrical limb bone growth of sauropods and present new implications for the evolution of fast growth in vertebrates. Since biomechanical studies of bone tissues suggest that predominant collagen fibre orientation (CFO) is controlled by endogenous, functional and perhaps phylogenetic factors, the relationship between CFO and bone growth rate as defined by Amprino's rule, which has been the basis for the biological interpretation of several osteohistological features, must be revised. Our findings draw attention to the urgent need for revising widely accepted basic concepts of palaeohistological studies, and for a more integrative approach to bone formation, biomechanics and bone microstructural features of extant and extinct vertebrates to infer life history traits of long extinct, iconic animals like dinosaurs. © 2013 Cambridge Philosophical Society
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info:doi/10.1111%2Fbrv.12041
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