- Jones, T. T., R. Reina, C-A. Darveau, P. L. Lutz 2007. Ontogeny of Entergetics in Leatherback (Dermochelys coriacea) and Olive Ridley (Lepidochelys olivacea) Sea Turtle Hatchlings. Comparative Biochemistry and Physiology: Part A 147(2):313-322
- Seminoff, J.A., T.T. Jones, T. Eguchi, D. R. Jones, P.H. Dutton 2006. Stable isotope discrimination (δ13C and δ15N) between soft tissues of green sea turtles Chelonia mydas and their diet. Marine Ecology Progress Series 308:271-278
- Salmon, M., T. T. Jones, K. W. Horch 2004. Ontogeny of diving and feeding behavior in juvenile sea turtles: a comparative study of green turtles (Chelonia mydas L) and leatherbacks (Dermochelys coriacea L) in the Florida current. Journal of Herpetology 38:36–43
- Reina, R. D., T. T. Jones, J. R. Spotila 2002. Salt and water regulation by the leatherback sea turtle Dermochelys coriacea. Journal of Experimental Biology 205: 1853–1860
- Jones, T. T., M. Salmon, J. Wyneken, C. Johnson 2000. Rearing Leatherback Hatchlings: Protocols, Growth and Survival. Marine Turtle Newsletter 90: 3-6
T. Todd Jones
Office phone: 604-822-5043
Web page: Home page, Media page
Research area: Comparative Physiology, Ecology
History: BSc in Biology, Florida Atlantic University: Ecology and Oganismal Behavior. MSc in Biology, Florida Atlantic University: Comparative Animal Physiology. PhD candidate in Zoology at UBC: Comparative Animal Physiology.
I currently work in the area of bioenergetics, in the field of study now being coined as conservation physiology. My goals are to understand the bioenergetics (energy use/allocation) of sea turtles and how resource availability, abundance and human perturbations such as climate change affect their reproductive output and growth. All of this in the context of population decline. My research is based on the fundamental principal that growth rate and metabolic rate are the 2 most important factors for understanding a species and for managing a species on the brink of extinction.
Recently I have been looking at energy partitioning in leatherbacks, determining total daily metabolism as well as total energy to build a sexually mature female. How much energy during the life of a leatherback goes to: growth, osmoregulation, digestion, locomotion, thermoregulation and other processes. I then look at how resource availability and abundance affects partitioning and thus allocation of energy to somatic growth and reproductive growth. Somatic growth gets you to sexually mature size and is then replaced by reproductive growth at maturity. Anything that pulls resources away from Somatic and Reproductive growth will in turn slow down time to sexual maturity and increase remigration intervals and thus decrease Reproductive Output. This is what is leading to the decline of the Pacific Leatherback.
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Dean Fisher Memorial Scholarship in Marine Biology