Tyler Murray-Ramcharan
Research Students
My research interests lie at the intersection of conservation biology, astrobiology, and cutting-edge technology. Drawing from a diverse academic background spanning geoscience, astrophysics, and biodiversity conservation, I aim to bring a unique perspective to environmental research. I completed my bachelor’s degree in Petroleum Geoscience, specialising in geophysics and palaeoecology at the University of the West Indies, Trinidad and Tobago. Subsequently, I pursued a master’s degree in Global Biodiversity Conservation at the University of Sussex. Prior to this, I delved in astronomy and astrophysics through online courses from Australia National University, even initiating graduate studies in the field before redirecting my career path.
My previous research encompasses a diverse range of studies. For my bachelor’s thesis, I conducted the first paleoecological assessment of marine gastropods in the Central Range of Trinidad and Tobago, earning the Best Overall Academic Achievement award from the Geological Society of Trinidad and Tobago. Subsequently, my master’s thesis involved an extensive study on ocelots in the northeastern peninsula of Trinidad, utilizing camera trapping techniques to evaluate population density, activity patterns, and prey preference. For two years, I worked as an International Biodiversity Officer where I focused on bolstering disaster resilience across the Caribbean through modelling the impact of nature on flooding.
Currently, my DPhil research builds on my interdisciplinary background, incorporating elements of conservation biology, astrobiology, and advanced technology. The proposed project aims to harness the potential of AI-powered drones alongside frontier remote sensing techniques, including hyperspectral imaging and biosignature detection, to revolutionize our ability to track elusive felids in challenging environments. By applying these techniques, we may be able to improve our understanding of felid populations, behaviour and habitat use to achieve favourable outcomes in human-wildlife conflict and anti-poaching through predictive risk mapping. This research aims to not only advance conservation biology but to contribute valuable insights in astrobiology, which may find applications in the search for life beyond our planet.