- Auditory Neuroscience
- Neural Plasticity
- Tinnitus
- +۳ مورد دیگر
Fernando Nodal serves as a Departmental Lecturer and Senior Postdoctoral Research Scientist at the University of Oxford's Department of Physiology, Anatomy and Genetics (DPAG), where he is embedded within the King Group of the Wellcome Trust-supported Auditory Neuroscience research group. He maintains college affiliation with St Hilda's College and utilizes integrated behavioral, electrophysiological, and anatomical methodologies to investigate auditory perception mechanisms. His academic credentials include a BSc and MSc in Biological Sciences followed by a PhD in Neuroscience, all completed at the University of Salamanca, Spain. His doctoral work examined neural circuits of auditory reflexes, establishing the foundation for his current research trajectory. Nodal's research centers on experience-dependent neural plasticity within the auditory system, particularly investigating maladaptive processes that generate phantom perceptions like tinnitus. He employs unilateral conductive hearing loss models in ferrets to dissect how the brain maintains perceptual stability during sensory disruption. A parallel research stream explores how behavioral relevance modulates neural representations of sensory stimuli, revealing fundamental principles of attention and perception. His experimental approach consistently bridges molecular, systems, and behavioral levels of analysis. Recent publications demonstrate growing emphasis on tinnitus mechanisms across sleep-wake cycles, cholinergic modulation of cortical processing, and long-term behavioral adaptations to hearing impairment. These studies increasingly integrate cross-species validation (ferrets and humans) while maintaining rigorous electrophysiological and anatomical foundations. His scientific recognition includes: Marie Curie Fellowship (2000) Nodal actively mentors graduate researchers including Ana Isabel Sánchez Jiménez (auditory localization plasticity) and Linus Milinski (tinnitus-sleep interactions), supported by sustained Wellcome Trust funding for the Auditory Neuroscience group. His collaborative framework extends through the King Group's investigations of multisensory integration and spatial hearing. Within DPAG, he contributes to the Auditory Neuroscience group's mission of decoding fundamental auditory processing principles using innovative ferret models, with ongoing projects examining cortical feedback mechanisms and cross-modal plasticity following sensory deprivation.



