Evolutionary Biomechanics: Selection, Phylogeny, and ConstraintOxford University Press, 2014 - 152 Recent research in biomechanics is increasingly revealing a set of special cases where universal physical laws constrain the trajectories and, more controversially, even the endpoints of the evolutionary process. For the first time this book brings together a broad range of examples from the latest research in evolutionary biomechanics to examine this phenomenon. Each chapter follows a similar theme, dealing first with the underlying physics and then examining the biological responses to selection. Examples of convergent evolution are used to analyse the nature of the trajectories of adaptation during the progressive approach towards a physically defined optimum. This advanced textbook is suitable for graduate level students as well as professional researchers in the fields of biomechanics, physiology, evolutionary biology and palaeontology. It will also be of relevance and use to researchers in the physical sciences and engineering. |
Spis treści
1
Themes | 1 |
2
Selection | 13 |
3
Constraint | 31 |
4
Scaling | 53 |
5
Phylogeny | 73 |
6
Form and function in flight | 91 |
7
Adaptation in avian wing design | 105 |
selection phylogeny and constraint | 123 |
137 | |
147 | |
Inne wydania - Wyświetl wszystko
Evolutionary Biomechanics: Selection, Phylogeny, and Constraint Graham K. Taylor,Adrian L. R. Thomas Ograniczony podgląd - 2014 |
Kluczowe wyrazy i wyrażenia
Accipitriformes Adrian Thomas aerodynamic aspect ratio aspect ratio wings assumed behaviour best glide speed biomechanics body mass kg brachiation Chapter conflicting performance objectives data points dataset defined dimensional analysis dimensionless dimensionless variables dimensionless vault speed drag coefficient dynamics ecological characters effects equation error model error covariance structure estimate Evolutionary Biomechanics example expected Figure Fisher flight morphology flight performance flux frequency Froude number function Fundamental Theorem genotype Grafen Graham Taylor increase induced drag intrinsic selective advantage inverted pendulum ith allele lift coefficient limiting turn radius linear log body mass log relative stride mathematical matrix metabolic rate minimum sink rate natural selection number and relative parameters Pareto optimality Pareto set pendulum length phenotype phylogenetic error covariance phylogeny physical constraints plotted population mean fitness Procellariiformes relative fitness relative stride length result sally hunting scaling relationships score soaring over land species Taylor & Adrian trade-offs variation vector walking wing loading wingspan