Professor Graham Taylor

Research Interests

As Professor of Mathematical Biology at Oxford, I combine my teaching interests in Quantitative Biology, Sensory Ecology & Physiology, and Vertebrate Evolution with an ambitious and wide-ranging programme of research as Head of the Oxford Flight Group. We are an internationally-leading biomechanics research team specialising in the dynamics, guidance, and control of flight. Our work combines fundamental research on animal flight with a strong and growing emphasis on applications to bio-inspired engineering. We seek to understand the mechanisms underpinning the biological systems that we study with the same depth and rigour as an engineer developing a technical system. More ambitiously, we aim to use this insight to uncover the functional “design” principles that emerge evolutionarily through the interaction of natural selection and physical constraint. Our applied goal is to identify new sensing algorithms, new control architectures, and new hardware solutions to guide the design of new technologies. More fundamentally we aim to understand – and ultimately predict – how these same organizational principles and algorithms emerge from the interaction of physics and physiology that characterizes all life. We achieve this by combining the output of our state-of-the-art experimental facilities, ground-breaking imaging techniques, and technically challenging fieldwork with advanced mathematical theory in a diverse, inter-disciplinary research programme.

To discover more, visit https://flight.zoo.ox.ac.uk

Publications
  • On the morphology and evolution of cicadomorphan tymbal organs.

  • Motor output and control input in flapping flight: a compact model of the deforming wing kinematics of manoeuvring hoverflies.

  • Response to “On the evolution of the tymbalian tymbal organ: Comment on “Planthopper bugs use a fast, cyclic elastic recoil mechanism for effective vibrational communication at small body size” by Davranoglou et al. 2019”

  • On the morphology and possible function of two putative vibroacoustic mechanisms in derbid planthoppers (Hemiptera: Fulgoromorpha: Derbidae).

  • Birds invest wingbeats to keep a steady head and reap the ultimate benefits of flying together.

  • Hawks steer attacks using a guidance system tuned for close pursuit of erratically manoeuvring  targets.

  • Aerodynamic characteristics of hoverflies during hovering flight

  • Planthopper bugs use a fast, cyclic elastic recoil mechanism for effective vibrational communication at small body size.

  • More
Contact Details
E: graham.taylor@zoo.ox.ac.uk 
T: 01865 (2) 71219
  Personal website