-
elucidating the molecular and cellular mechanisms of the late phase of long-term potentiation (LTP), a key process in learning and memory. The project is based on the development and use of an innovative
-
to profound physiological changes. Despite several decades of study, the molecular signalling between the two partners and, the symbiosis competence properties of the animal cell remain unclear due to the lack
-
the effects of microplastics (MPs) on early development and thyroid physiology in a model aquatic vertebrate, the amphibian Xenopus laevis. The main missions will be: To conduct and analyze exposure experiments
-
"Physiology of Neural Networks" team and will be in charge of a research project aimed at understanding the mechanisms of integration of cerebellar information in pyramidal cells and interneurons of the motor
-
outlined below, contributing to the design and execution of experiments aimed at identifying the behavioural and physiological mechanisms that facilitate nematode adaptation to arsenic-rich environments
-
during development, in compositions and dosages pertinent to environmental contamination, results in neuro- and cardio-vascular defects. The person recruited will use zebrafish as a model for studying