The overall research strategy of FBP is driven primarily by the need to translate strong basic science into clinically relevant advances and promoting transfer of technology, based on the integration of high quality multi-disciplinary academic, researcher and clinical activity with a strong focus on translational research.
We conduct research on ethology and welfare of aquatic animals. Other activities include developing an open-access database on the welfare of farmed fish, providing consultancy services for fish farms and organizing training actions at scientific and industry levels.
The Marine Biotechnology research group is currently ongoing active research in different fields of microalgal biotechnology, as well as in the exploitation of different marine organisms as sources of novel bioactive compounds.
OC2 objective is to provide well-anchored basic and integrated knowledge of the present-day oceanic processes at the regional scale, as well as to investigate their response to past global warm climate conditions.
Molecular determinants and regulatory mechanisms (transcription and post transcription regulation, alternative and trans-splicing events, RNA editing, epigenetics) affecting gene expression during onset of skeletogenesis and maintenance of bone and cartilage integrity throughout life.
The ECCOWEBS group investigates how marine food webs “echo” environmental change. We study the effects of environmental change on marine organisms, populations and food webs, from the sub-cellular to the whole-animal level, and complex trophic networks. Our investigation focuses mostly on the effects of warming on coastal organisms and their vulnerability status. Our target species are varied, including corals, mollusks, crustaceans, fish and cetaceans.
The main aim of the group is study the role of hormones and their metabolites on physiology and the evolution of the endocrine system, using fish as the principal model together with other key invertebrate and vertebrate models.
Development of heterocyclic compounds applicable in medicine, environmental remediation or aquaculture. Investigation of structure, reactivity and activity of compounds obtained from synthesis or natural sources.
R2C2 studies the impacts of habitat loss and fragmentation as threats to biodiversity enhanced by climate change and bridging the gap between genetics and sustainable fisheries management with studies of population genetic structure or stock delineation of commercially and/or recreationally important fisheries.