Requirements for comparing the performance of finite element models of biological structures.
about
Why the long face? The mechanics of mandibular symphysis proportions in crocodilesFunctional relationship between skull form and feeding mechanics in Sphenodon, and implications for diapsid skull developmentCommon functional correlates of head-strike behavior in the pachycephalosaur Stegoceras validum (Ornithischia, Dinosauria) and combative artiodactyls3D bite modeling and feeding mechanics of the largest living amphibian, the Chinese giant salamander Andrias davidianus (Amphibia:Urodela)Comparative 3D analyses and palaeoecology of giant early amphibians (Temnospondyli: Stereospondyli).The Effect of Unerupted Permanent Tooth Crowns on the Distribution of Masticatory Stress in ChildrenComparative cephalopod shell strength and the role of septum morphology on stress distributionThe impact of gape on the performance of the skull in chisel-tooth digging and scratch digging mole-rats (Rodentia: Bathyergidae)Human feeding biomechanics: performance, variation, and functional constraintsMechanical evidence that Australopithecus sediba was limited in its ability to eat hard foodsThe Tarsometatarsus of the Ostrich Struthio camelus: Anatomy, Bone Densities, and Structural MechanicsThe sensitivity of biological finite element models to the resolution of surface geometry: a case study of crocodilian craniaThe feeding biomechanics and dietary ecology of Paranthropus boiseiAre cranial biomechanical simulation data linked to known diets in extant taxa? A method for applying diet-biomechanics linkage models to infer feeding capability of extinct speciesFinite Element Analysis of the Cingulata Jaw: An Ecomorphological Approach to Armadillo's DietsIs Beak Morphology in Darwin's Finches Tuned to Loading Demands?Biomechanical implications of intraspecific shape variation in chimpanzee crania: moving toward an integration of geometric morphometrics and finite element analysisCranial biomechanics underpins high sauropod diversity in resource-poor environmentsFunctional anatomy and feeding biomechanics of a giant Upper Jurassic pliosaur (Reptilia: Sauropterygia) from Weymouth Bay, Dorset, UKFeeding biomechanics in Acanthostega and across the fish-tetrapod transitionAnalysis of the functional morphology of mouthparts of the beetle Priacma serrata, and a discussion of possible food sourcesComparative finite-element analysis: a single computational modelling method can estimate the mechanical properties of porcine and human vertebraeMorphological and functional diversity in therizinosaur claws and the implications for theropod claw evolutionVirtual reconstruction and prey size preference in the mid Cenozoic thylacinid, Nimbacinus dicksoni (Thylacinidae, Marsupialia)Beware the black box: investigating the sensitivity of FEA simulations to modelling factors in comparative biomechanicsTesting adaptive hypotheses of convergence with functional landscapes: a case study of bone-cracking hypercarnivoresMega-Bites: extreme jaw forces of living and extinct piranhas (Serrasalmidae)Virtual experiments, physical validation: dental morphology at the intersection of experiment and theoryFunctional evolution of the feeding system in rodentsModel sensitivity and use of the comparative finite element method in mammalian jaw mechanics: mandible performance in the gray wolfFinite element analysis of performance in the skulls of marmosets and tamarinsBiomechanics of the macaque postorbital septum investigated using finite element analysis: implications for anthropoid evolutionThe impact of bone and suture material properties on mandibular function in Alligator mississippiensis: testing theoretical phenotypes with finite element analysisStrain in the ostrich mandible during simulated pecking and validation of specimen-specific finite element modelsCombining geometric morphometrics and functional simulation: an emerging toolkit for virtual functional analysesEvolutionary patterns and processes in the radiation of phyllostomid bats.The Hadropithecus conundrum reconsidered, with implications for interpreting diet in fossil homininsSensitivity and ex vivo validation of finite element models of the domestic pig craniumThe craniomandibular mechanics of being humanJaw biomechanics and the evolution of biting performance in theropod dinosaurs
P2860
Q21089816-C1185411-E01A-47CB-893A-EC5048D75E91Q21134912-959384FF-5ED8-4FC7-BCF0-98B532BE0212Q21135318-C45D92FF-45EE-4D53-B1B2-90838668806DQ27310645-D93E4FAA-6088-4FE5-8062-C7644B071397Q27323195-96297C04-4396-49EE-9ACD-BEA05317922AQ27673002-06EEB936-B172-437C-8FEC-53B251008D62Q28595556-3624FB23-91F7-4127-AEAF-084264AAD31DQ28596259-4DC0EC1C-79D2-4E60-B22C-FEBB065D576FQ28598221-1057D52B-05E9-4E24-8F13-C7712A1D8960Q28601107-4DFB73D6-2215-4FC1-A5F6-5A6C4198E885Q28601898-A3B625BD-2E2C-431D-A5D1-D98CB535F0FAQ28645667-AE4CD3F0-4701-4E1C-AC63-F138A35A29A0Q28648011-8A06A76F-9FC8-4EDD-93B2-5FD1CE2950FAQ28648210-8677D616-5A91-41C4-88B9-F6439C24F143Q28648323-5B6C79A5-BBAC-4618-8037-3720F640D9CAQ28648471-38B955A9-ED20-40FA-AC31-8186BEBDC7F7Q28649403-69C624C6-B164-4CA7-B7AA-883F1E1E2526Q28653166-F294F5B5-A2C2-4D6F-A8E0-5F9F9C25046EQ28655293-D74315ED-0CC1-4220-BE07-F3DE778B6688Q28657768-3937CBB9-17CA-46B2-A095-D6D63A350D31Q28657796-2F0CB858-5E75-46DF-9535-C03A43D11C6FQ28658117-BB003EF7-E99A-4A7F-8F72-38EDF4C85B7DQ28660055-0A589087-7B49-4487-9F22-6B328A45FB7FQ28660304-1174CE90-D1B4-49D7-A6AA-E25DE25CFEA7Q28661591-0E14DE2F-5E9E-4957-A67D-E9256E177D16Q28685585-3FEDDB3A-4E5B-47B5-82E9-7958D1CDF502Q28710259-887A5D94-ABEF-4B7D-B467-4E65B2EFEB05Q28727860-0BA527E4-4438-4A3E-B304-DD8FA2F0DF1EQ28730298-FAA0C507-F957-407A-A630-24DE23657710Q28740585-552E2D9B-A866-443E-B7F9-C08BE7807EB2Q28742711-622453F1-01F2-417B-9562-9B2F8EFD4B61Q28742713-BB00C2A3-67F4-48E8-AE23-0BAC64841DCAQ28742728-EE00770E-8D2E-47C9-9521-76C5D9B8CE2AQ28742731-61410307-8227-49D2-B3B5-46455F2CFB87Q28742736-6DCDAE4E-E420-4C60-BABA-2B13E5878074Q28742879-8A454208-53B4-401D-9F44-8DAF5CF5ABBFQ28743379-E8F11631-E3EB-4485-B0A2-D3260AB07945Q28743768-52DB7B1F-34C5-4A5B-856C-B015DB6A6191Q28748351-6DBEB2EE-B2B8-46FB-AB89-8C8D9FCD6D76Q28748435-3B98D68A-BF8A-4CF3-BB97-7A634013F31E
P2860
Requirements for comparing the performance of finite element models of biological structures.
description
2008 nî lūn-bûn
@nan
2008年の論文
@ja
2008年学术文章
@wuu
2008年学术文章
@zh
2008年学术文章
@zh-cn
2008年学术文章
@zh-hans
2008年学术文章
@zh-my
2008年学术文章
@zh-sg
2008年學術文章
@yue
2008年學術文章
@zh-hant
name
Requirements for comparing the ...... dels of biological structures.
@en
Requirements for comparing the ...... dels of biological structures.
@nl
type
label
Requirements for comparing the ...... dels of biological structures.
@en
Requirements for comparing the ...... dels of biological structures.
@nl
prefLabel
Requirements for comparing the ...... dels of biological structures.
@en
Requirements for comparing the ...... dels of biological structures.
@nl
P2093
P1476
Requirements for comparing the ...... dels of biological structures.
@en
P2093
E R Dumont
G J Slater
I R Grosse
P304
P356
10.1016/J.JTBI.2008.08.017
P407
P577
2008-08-26T00:00:00Z