0000000000512135

AUTHOR

Jordi Marcé-nogué

0000-0001-9852-7027

showing 5 related works from this author

Why ruminating ungulates chew sloppily: Biomechanics discern a phylogenetic pattern.

2019

Altres ajuts: "Beatriu de Pinos" 2014 - BP-A 00048 There is considerable debate regarding whether mandibular morphology in ungulates primarily reflects phylogenetic affinities or adaptation to specific diet. In an effort to help resolve this debate, we use three-dimensional finite element analysis (FEA) to assess the biomechanical performance of mandibles in eleven ungulate taxa with well-established but distinct dietary preferences. We found notable differences in the magnitude and the distribution of von Mises stress between Artiodactyla and Perissodactyla, with the latter displaying lower overall stress values. Additionally, within the order Artiodactyla the suborders Ruminantia and Tylo…

0106 biological sciencesMaleModels AnatomicUngulateScienceFinite Element AnalysisZoologyRhinocerosMandible010603 evolutionary biology01 natural sciencesbiomechanicsRuminantiaBite ForceEvolution Molecular03 medical and health sciencesImaging Three-DimensionalSpecies SpecificityAnimalsCluster AnalysisRuminatingFEAPerissodactylaPhylogeny030304 developmental biologyArtiodactylafunctional morphology0303 health sciencesMultidisciplinarybiologyQRReproducibility of ResultsRuminantsbiology.organism_classificationTylopodaBiomechanical PhenomenaDietBite force quotientPhylogenetic PatternMedicineMasticationFemaleAdaptationPloS one
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Cranial suture biomechanics inMetoposaurus krasiejowensis(Temnospondyli, Stereospondyli) from the upper Triassic of Poland

2019

Cranial sutures connect adjacent bones of the skull and play an important role in the absorption of stresses that may occur during different activities. The Late Triassic temnospondyl amphibian Metoposaurus krasiejowensis has been extensively studied over the years in terms of skull biomechanics, but without a detailed description of the function of cranial sutures. In the present study, 34 thin sections of cranial sutures were examined in order to determine their histovariability and interpret their biomechanical role in the skull. The histological model was compared with three-dimensional-finite element analysis (FEA) simulations of the skull under bilateral and lateral biting as well as …

0106 biological sciences0301 basic medicineStereospondylifinite element analysisBiologyMetoposaurus010603 evolutionary biology01 natural sciencesdermal bonesAmphibianshistology03 medical and health sciencesmedicineAnimalsCompression (geology)Fibrous jointSkull roofFossilsSkullTemnospondyliCranial SuturesAnatomypalaeoecologybiology.organism_classificationBiomechanical PhenomenaSkull030104 developmental biologymedicine.anatomical_structureBitingAnimal Science and ZoologyPolandDevelopmental BiologyJournal of Morphology
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Design characteristics, primary stability and risk of fracture of orthodontic mini-implants: Pilot scan electron microscope and mechanical studies

2013

Objectives: Orthodontic mini-implants (OMIs) are increasingly used in orthodontics but can fail for various reasons. This study investigates the effects of OMI design characteristics on the mechanical properties in artificial bone. Material and Methods: Twelve self-drilling OMIs (2 small, 6 medium, 4 large) from 8 manufacturers were tested for their primary stability in simulated medium-high cancellous bone and the risk to fracture in high-density methacrylate blocks. For the assessments of the maximum insertion torque (IT) and torsional fracture (TF) 5 of each OMI were used and for the pull-out strength (POS) 10. The OMIs were inserted with a torque screwdriver (12 sec/360°) until the bott…

Insertion torqueDental Stress Analysisprimary stabilityArtificial boneMaterials scienceorthodontic mini-implantsTorsion MechanicalOdontologíatorsional fractureProsthesis Designpullout strengthDesign characteristicslaw.inventionMecànica de fracturalawRisk FactorsMaterials TestingBiomaterials and Bioengineering in DentistrymedicineOrthodontic Anchorage ProceduresFracture mechanicsGeneral Dentistry:Enginyeria dels materials::Desgast de materials [Àrees temàtiques de la UPC]Implants artificialsTorsion (mechanics)Implants ArtificialPullout strength:CIENCIAS MÉDICAS [UNESCO]Ciencias de la saludProsthesis Failuremedicine.anatomical_structureOtorhinolaryngologyMini implantsUNESCO::CIENCIAS MÉDICASMicroscopy Electron ScanningSurgeryResearch-ArticleElectron microscopeCancellous boneinsertion torqueBiomedical engineering
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Merging cranial histology and 3D-computational biomechanics : A review of the feeding ecology of a Late Triassic temnospondyl amphibian

2021

Finite Element Analysis (FEA) is a useful method for understanding form and function. However, modelling of fossil taxa invariably involves assumptions as a result of preservation-induced loss of information in the fossil record. To test the validity of predictions from FEA, given such assumptions, these results could be compared to independent lines of evidence for cranial mechanics. In the present study a new concept of using bone microstructure to predict stress distribution in the skull during feeding is put forward and a correlation between bone microstructure and results of computational biomechanics (FEA) is carried out. The bony framework is a product of biological optimisation; bon…

0106 biological sciencesAmphibianskull010506 paleontologyHistologyForaginglcsh:MedicineBioengineeringMetoposaurus010603 evolutionary biology01 natural sciencesGeneral Biochemistry Genetics and Molecular BiologyPaleontologyTemnospondylibiology.animalDermal boneMetoposaurusmedicinefeeding strategyFEA0105 earth and related environmental sciencesDermal bonebiologyGeneral Neurosciencelcsh:RSkullMode (statistics)PaleontologyTemnospondyliGeneral Medicinedermal bonebiology.organism_classificationBone histologySkullbone histologymedicine.anatomical_structureBitingGeneral Agricultural and Biological SciencesFeeding strategyGeology
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Feeding biomechanics of Late Triassic metoposaurids (Amphibia: Temnospondyli): a 3D finite element analysis approach

2017

The Late Triassic freshwater ecosystems were occupied by different tetrapod groups including large-sized anamniotes, such as metoposaurids. Most members of this group of temnospondyls acquired gigantic sizes (up to 5 m long) with a nearly worldwide distribution. The paleoecology of metoposaurids is controversial; they have been historically considered passive, bottom-dwelling animals, waiting for prey on the bottom of rivers and lakes, or they have been suggested to be active mid-water feeders. The present study aims to expand upon the paleoecological interpretations of these animals using 3D finite element analyses (FEA). Skulls from two taxa, Metoposaurus krasiejowensis, a gigantic taxon …

0106 biological sciences010506 paleontologyHistologyFinite Element AnalysisMetoposaurus010603 evolutionary biology01 natural sciencesFreshwater ecosystemBite ForcePredationAmphibiansTetrapod (structure)AnimalsMolecular BiologyEcology Evolution Behavior and Systematics0105 earth and related environmental sciencesApex predatorbiologyFossilsEcologySkullTemnospondyliOriginal ArticlesFeeding BehaviorCell Biologybiology.organism_classificationBiological EvolutionBiomechanical PhenomenaTaxonApachesaurus; ecomorphology; Late Triassic; Metoposaurus; paleoecologyPaleoecologyAnatomyDevelopmental BiologyJournal of Anatomy
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