Some of the most impressive biological phenomena emerge out of interactions among members of animal groups. Bird flocks, fish schools and insect swarms perform highly coordinated collective movements that can encompass thousands of individuals, producing complex group-level patterns that are difficult to predict from the behaviour of only isolated individuals. Functions of moving in groups can be energetic savings and improved navigation during collective locomotion. These energetic savings can be accrued through, for example, positive aero- or hydro-dynamic interactions: crustaceans, fish, marine mammals, and V-formation in birds have been shown to benefit energetically from moving together with conspecifics. However, it has been demonstrated that in clusters-flocking pigeons, some birds are at an energetic disadvantage if flying at the back of the flock.
This project aims to look at the implications of social structure, positioning within flock, morphology, and metabolism during group flights, using Homing Pigeons as a model system. Using a combination of tri-axial accelerometry, GPS loggers and techniques for measuring energy expenditure, this project aims to investigate work rate during flights (via flap frequency, flight speeds and wing amplitude), position within flock (GPS) post-flight recovery (respirometry), personality and social structure (behavioural trials), during homing flights in pigeons.
This project will involve working closely with birds, including animal husbandry, and a driving license will be required for experiments