Medical Physics, AI and Neurotechnology · University of Rome Tor Vergata

fismed@uniroma2.it

FISMED / PROJECTS

BRAINSTORM

An EIC Pathfinder project developing wireless deep-brain stimulation with engineered magnetic nanomaterials. Thermal, mechanical and electrical effects are combined to excite or inhibit selected neurons, with experimental evaluation in models of Fragile X syndrome.

Active01/04/2023–31/03/2027research grant

European Commission

BRAINSTORM / Wireless deep BRAIN STimulation thrOugh engineeRed Multifunctinal nanomaterials

BRAINSTORM will introduce an innovative, scalable, wireless, multimodal nanoinvasive neuromodulation technology suitable for independent and switchable excitation and inhibition of deep brain neurons. BRAINSTORM breakthrough relies on novel smart anisotropic magnetic nanomaterials (SMNs) acting both as nanoscale ‘heaters’ and as ‘torquers’ by leveraging either hysteretic losses under kHz frequencies or transitions from vortex to in-plane magnetization under Hz frequencies. Intrinsic bimodal functionality that permits direct control of thermosensitive or mechanosenitive neurons, will be boosted by advanced polymer functionalization to transfer torques to electrical signals trough piezoelectric coating, and to enable transport and delivery of viral vectors to targeted neurons for genetic targeting with sensory channels. SMNs will also be steered to endogenous sensory channels relying on antibody targeting. Selected actuation of ion channels that respond to thermal or mechanical stimulus will permit selective activation or inhibition of targeted neuronal populations identifiable by magnetic resonance imaging. Advanced driving electronics will include to metamaterial solenoid coils for rapid frequency switch for control of ‘mechanical’ or ‘thermal’ functionality while focused ultrasound will facilitate non invasive delivery of SMNs in the targeted brain area. The ability of the BRAINSTORM platform to shape behaviour and demonstrate therapeutic potential by modulating the excitation/inhibition balance through thermal/mechanical/electrical modalities will be demonstrated in mouse models of Fragile X syndrome.

Co-Principal Investigator

Project details
Research partners
FAU Erlangen-Nürnberg · University of Rome Tor Vergata · CIC biomaGUNE
Programme
Horizon Europe · European Innovation Council (EIC) · HORIZON-EIC-2022-PATHFINDEROPEN-01
Grant / award ID
101099355
Total project award€3,083,850
Tor Vergata award€604,750
Explore related research

Connections indicate shared research topics, not authorship or project participation.

Deep brain stimulation · Anisotropic magnetic nanomaterials · Smart anisotropic magnetic · Magnetic resonance imaging · Focused ultrasound