The biophysical interactions between neuronal networks and conductive nanoparticles: building blocks of future neural interfaces.

I will investigate the use of artificially engineered cellular environments and (active) scaffolds, relevant for regrowth, regeneration and electrical signals bridging in brain diseases. I will focus on the use of electrically conductive nanomaterials, such as carbon nanotubes (CNTs), to provide novel growth substrates and interfaces that will constitute the foundation of a new class of regenerative implants and smart electrodics in Deep Brain Stimulation therapies. The quantitative understanding of the electrophysiology of neuronal networks coupled to active nanostructured materials represents a first step towards CNS nanoengineering and future brain repair. Building on the exciting recent discoveries in neurosciences and nanotechnologies, this step is today within reach.

Keywords:NANOMATERIALS, MICRO ELECTRONICS, NEUROPHYSIOLOGY

Disciplines:Biomechanics, Biophysics, Neurosciences, Biological and physiological psychology, Cognitive science and intelligent systems, Developmental psychology and ageing