Life has diversified on Earth in many stunning ways. Understanding how this diversity arose and has been maintained is a common interest for many evolutionary biologists. One approach to studying morphological evolution is the inherently interdisciplinary field to evolutionary biomechanics, investigating how organisms physically operate, combining biology and engineering to consider morphology in an engineering context. Biomechanical research often focuses on the force, torque, stress, thrust, drag, or pressure generated by or within organisms, (i.e., how birds fly or how trees pump fluids against gravity). Evolutionary biomechanics, or if considering multiple species, comparative biomechanics, consider biomechanical concepts in an evolutionary context, asking how morphological and performance-related traits and abilities may have evolved. Evolutionary biomechanics combines aspects of anatomy, engineering, evolution, and even ecology. Approaches include manipulative experiments, simulations, and correlated observations to connect organisms’ morphology and performance to some aspect of evolution, often connecting biomechanical results with organisms’ environments to investigate the adaptive evolution or origin of a trait. Evolutionary biomechanical studies can focus on extant and extinct organisms (including humans), relying on live animals, preserved specimens, and fossils for morphological information. As a result, evolutionary biomechanical studies are, by definition, interdisciplinary and can be highly variable, asking a wide range of questions, focusing on many different taxa, and using a variety of approaches. As a result, the publications mentioned in this article can include aspects of other headings. In addition, concepts in evolutionary biomechanics also overlap with other Oxford Bibliographies topics including “Functional Morphology of Animals” and multiple human centered design articles. Biomechanical constraints are a form of evolutionary constraint that limit an organisms’ morphology or performance due to physical principles. For more information on constrains see the “Evolutionary Constraints” article. Biomechanics is also featured as a heading in the “Tetrapod Evolution” article providing information on the mechanics of tetrapod movement.
Overviews and Books
The field of evolutionary biomechanics is diverse, encompassing a variety of biological and engineering concepts. We list several publications that provide introductions to many of these important concepts. These publications can be useful as textbooks for comparative or evolutionary biomechanics courses as well as to assist researchers interested in biomechanics. General introductory texts include Wainwright 1982, Vogel 1988, Biewener 1992, Pennycuick 1993, Vogel 2000, and Vogel 2013. Any of these texts would be great introductory textbooks. Many of the concepts outlined in older publications represent the foundation of modern biomechanics, while newer texts may provide up-to-date concepts and examples. More specalized texts inlcude Vogel 2012, which focuses on plant biomechanics, Alexander 2003 and Dickinson, et al. 2000 cover animal locomotion, and Higham, et al. 2016 considers a more evolutionary interpretation of biomechanics.
Alexander, R. M. 2003. Principles of animal locomotion. Princeton, NJ: Princeton Univ. Press.
Alexander is one of the pioneers of comparative biomechanics, with many of his earlier books and publications building the foundation for the field. This more recent book is a great modern introduction to locomotion, covering terresterial as well as flight and swimming.
Biewener, A. A. 1992. Biomechanics—structures and systems: A practical approach. New York: Oxford Univ. Press.
Provides a foundational introduction to common biomechanical concepts while also connecting that information with how to measure and gather relevant data. While this is a great introduction to experimental methods relevant for biomechanics, the techniques described have likely been improved since this book came out.
Dickinson, M. H., C. T. Farley, R. J. Full, M. A. R. Koehl, R. Kram, and S. Lehman. 2000. How animals move: An integrative view. Science 288.5463: 100–106.
This covers recent advances in our understanding of locomotion, highlighting the broadened roles muscles and non-propulsive lateral forces at play. This paper would complement many of the articles in the Neuro-Muscular-Skeletal section below.
Higham, T. E., S. M. Rogers, R. B. Langerhans, et al. 2016. “Speciation through the lens of biomechanics: locomotion, prey capture and reproductive isolation. Proceedings of the Royal Society B-Biological Sciences 283.1838.
This paper walks readers through the process of reproductive isolation and speciation with an emphasis on how divergent behaviors driven by divergent morphologies may allow populations to move to different adaptive optima, with biomechanical tools linking behavior and morphology. The authors describe predator-prey interactions in fish to highlight their points. This paper would be a great introduction to the Functional/Ecological Morphology section below.
Pennycuick, C. J. 1993. Newton Rules biology: A physical approach to biological problems, CJ Pennycuick. New York: Oxford Univ. Press.
This short book is another great introduction to foundational concepts in evolutionary biomechanics and includes a chapter on the rarely considered concept of fractal objects. This book also has two chapters that are also rare among biomechanics texts, considering ecological and anthropocentric concepts and how they relate to biomechanical concepts.
Vogel, S. 1988. Life’s devices: The physical world of animals and plants. Princeton, NJ: Princeton Univ. Press.
Provides an easily accessible introduction to the many engineering concepts relevant for the study of biomechanics, making it a great introductory text to the field of biomechanics.
Vogel, S. 2013. Comparative biomechanics: Life’s physical world. Princeton, NJ: Princeton Univ. Press.
This book is written in a typical textbook fashion, covering only fluid and solid dynamics, with fluids appearing first. Differences from the first to second editions appear to be the rearrangement and movement of some topics to the appendices.
Vogel, S. 2000. Cats’ paws and catapults: Mechanical worlds of nature and people. New York: W. W Norton.
This enjoyable read puts animal mechanics into the context of human engineering. Relating basic concepts of everyday items to animals provides a helpful perspective to start thinking about animals as machines. Vogel writes eloquently and accessibly.
Vogel, S. 2012. The life of a leaf. Chicago: Univ. of Chicago Press.
This fun and accessible book focuses on biomechanical concepts relevant for plants. Unlike much of vertebrate biomechanics, the biomechanical concepts relevant for botany tend to focus on internal phenomena, asking how plants move liquids and gasses.
Wainwright, S. A. 1982. Mechanical design in organisms. Princeton, NJ: Princeton Univ. Press.
This book represents another great biomechanics text. Unlike other introductory texts, this book goes into detail explaining biological and mechanical phenomena (i.e., molecular organization) responsible for the biomechanical relationships we observe.
Users without a subscription are not able to see the full content on this page. Please subscribe or login.
- Adaptive Radiation
- Ancient DNA
- Behavioral Ecology
- Canalization and Robustness
- Character Displacement
- Cognition, Evolution of
- Constraints, Evolutionary
- Convergent Evolution
- Cooperation and Conflict: Microbes to Humans
- Cooperative Breeding in Insects and Vertebrates
- Cryptic Female Choice
- Darwin, Charles
- Disease Virulence, Evolution of
- Ecological Speciation
- Epigenetics and Behavior
- Evidence of Evolution, The
- Evolution and Development: Genes and Mutations Underlying ...
- Evolution, Cultural
- Evolution of Antibiotic Resistance
- Evolution of New Genes
- Evolution of Plant Mating Systems
- Evolution of Specialization
- Evolutionary Biology of Aging
- Evolutionary Biomechanics
- Evolutionary Computation
- Evolutionary Ecology of Communities
- Experimental Evolution
- Field Studies of Natural Selection
- Founder Effect Speciation
- Frequency-Dependent Selection
- Fungi, Evolution of
- Gene Duplication
- Gene Expression, Evolution of
- Gene Flow
- Genetics, Ecological
- Genome Evolution
- Geographic Variation
- Group Selection
- History of Evolutionary Thought, 1860–1925
- History of Evolutionary Thought before Darwin
- History of Evolutionary Thought Since 1930
- Human Behavioral Ecology
- Human Evolution
- Hybrid Speciation
- Hybrid Zones
- Identifying the Genomic Basis Underlying Phenotypic Variat...
- Inbreeding and Inbreeding Depression
- Inclusive Fitness
- Innovation, Evolutionary
- Kin Selection
- Land Plants, Evolution of
- Landscape Genetics
- Landscapes, Adaptive
- Language, Evolution of
- Macroevolutionary Rates
- Male-Male Competition
- Mass Extinction
- Mate Choice
- Maternal Effects
- Medicine, Evolutionary
- Meiotic Drive
- Modern Synthesis, The
- Molecular Clocks
- Molecular Phylogenetics
- Natural Selection in Human Populations
- Natural Selection in the Genome, Detecting
- Neutral Theory
- Niche Construction
- Niche Evolution
- Origin and Early Evolution of Animals
- Origin of Eukaryotes
- Origin of Life, The
- Paradox of Sex
- Parental Care, Evolution of
- Personality Differences, Evolution of
- Phenotypic Plasticity
- Phylogenetic Comparative Methods and Tests of Macroevoluti...
- Phylogenetic Trees, Interpretation of
- Polyploid Speciation
- Population Genetics
- Population Structure
- Psychology, Evolutionary
- Punctuated Equilibria
- Quantitative Genetic Variation and Heritability
- Reproductive Proteins, Evolution of
- Selection, Directional
- Selection, Disruptive
- Selection Gradients
- Selection, Natural
- Selection, Sexual
- Selfish Genes
- Sexual Conflict
- Sexual Selection and Speciation
- Sexual Size Dimorphism
- Speciation Genetics and Genomics
- Speciation, Sympatric
- Species Concepts
- Sperm Competition
- Systems Biology
- Taxonomy and Classification
- Tetrapod Evolution
- Trends, Evolutionary
- Wallace, Alfred Russel