UNIVERSITY OF ROME TOR VERGATA
Medical Physics,
AI and Neurotechnology
Experimental and computational methods for measuring, modelling and understanding biological and neural systems.
TOR VERGATA UNIVERSITY OF ROME
Department of Biomedicine and Prevention
ABOUT THE GROUP
Quantitative methods across scales.
Our group brings together physicists, mathematicians, engineers and life scientists to investigate biological systems through quantitative measurement and modelling. We develop experimental techniques, mathematical models and learning algorithms that connect molecular interactions and cellular processes with tissue properties, neural networks and whole-system physiology. Across these scales, our work links measurable signals to underlying mechanisms, with attention to uncertainty, reproducibility and the limits of inference.
Our laboratories provide complementary experimental and computational capabilities, while research teams form around shared scientific questions and projects. Imaging physics, neural interfaces, artificial intelligence, neuromorphic computing, signal analysis and molecular measurement connect through common methods and collaborative work. Academic staff, research fellows, postdoctoral researchers and doctoral students contribute distinct expertise to the development and validation of these approaches.
Based in the Department of Biomedicine and Prevention at the University of Rome Tor Vergata, the group combines research with university teaching and research training. Our projects are supported by competitive European and national programmes, charitable research funding and advanced computing allocations, alongside scientific collaborations with academic and industrial partners.
02 / RESEARCH
Research themes
Quantitative MRI, PET and multimodal imaging
MR acquisition physics, diffusion and microstructural modelling, PET kinetics and multimodal integration. Quantitative methods for measuring tissue properties, molecular processes and physiological function.
Focused ultrasound and targeted delivery
Acoustic modelling, cavitation monitoring and ultrasound–tissue interactions. Experimental and preclinical in vivo studies of blood–brain barrier modulation, targeted delivery and cellular responses, supported by stereotaxis, imaging, microscopy and histology.
Neural stimulation and bioelectronic interfaces
Electrical, magnetic and acoustic approaches to neural modulation. Development and experimental testing of wireless devices, implantable interfaces and technologies for neural recording and stimulation.
NeuroAI and neural decoding
Learning representations of images, signals, sound and brain activity. Generative models, foundation models, contrastive learning and multimodal alignment for reconstructing sensory information and modelling neural representations.
Neuromorphic and bioinspired computing
Spiking neural networks, reservoir computing and biologically inspired learning. Computational architectures and adaptive controllers informed by neuronal dynamics and physiological organisation.
Brain networks and physiological dynamics
Functional and effective connectivity, causal inference, graph methods and dynamical systems. Analysis of electrophysiological, imaging and autonomic signals to characterise interactions across neural and physiological systems.
Brain structure, development and behaviour
Morphometry, longitudinal modelling and structure–function relationships. Quantitative investigation of brain development, ageing, plasticity, cognition, emotion and behavioural variation.
Radiation physics, radiomics and optimisation
Radiation transport, dose estimation and computational treatment planning. Image-feature analysis, computer vision and optimisation methods for modelling spatial distributions, tissue responses and measurement uncertainty.
Nanomaterials, molecular systems and predictive toxicology
Design and characterisation of functional nanomaterials, molecular and pharmacokinetic modelling, and analysis of biological responses. Computational approaches to exposure assessment, toxicity prediction and safer material design.
Funded projects and collaborations
Research grants, computing allocations and scientific collaborations.
Recent publications
R&B – rhythm and brain: Cross-subject decoding of music from human brain activity
Music is a universal phenomenon that influences human experiences across cultures. We investigate whether music can be decoded from human brain activity measured with fMRI, by modeling mappings between neural data and latent representations of musical stimuli. Our approach integrates functional and anatomical alignment techniques to facilitate cross-subject…Collapse abstract
An Italian cartography of VEXAS-related thrombosis
Thrombotic events (TEs) occur in up to 40% of patients with vacuoles, E1 enzyme, X-linked, autoinflammatory, and somatic (VEXAS) syndrome, but data on its clinical-genomics features and anticoagulation strategies are limited. To gain more insight into this, we conducted a two-step study evaluating the prevalence and outcome of TE in VEXAS. First, among 1086…Collapse abstract
Shared and Distinct Alterations in Brain Structure of Youth With Internalizing or Externalizing Disorders: Findings From the ENIGMA Antisocial Behavior, ADHD, Major Depressive Disorder, and Anxiety Working Groups
BACKGROUND: Externalizing and internalizing disorders are common in youth but are often studied separately, preventing researchers from identifying shared (i.e., transdiagnostic) alterations in brain structure. Using data from the ENIGMA (Enhancing Neuro Imaging Genetics through Meta Analysis) Consortium, we conducted a mega-analysis to identify shared and d…Collapse abstract
METHODS: 3D T1-weighted magnetic resonance imaging data from youths (age range 4-21 years) with anxiety disorders (n = 1044), depression (n = 504), ADHD (n = 1317), and CD (n = 1172) along with healthy control participants (n = 4743) were analyzed. We assessed group differences in regional cortical thickness, surface area (SA), and subcortical volume using linear models, adjusted for site, age, and sex, as well as total intracranial volume in the SA and subcortical volume models.
RESULTS: We observed transdiagnostic associations, with both internalizing and externalizing disorders characterized by lower SA in the insula, entorhinal cortex, and middle temporal gyrus and lower amygdala volume (Cohen's ds = -0.07 to -0.24) as well as total SA and intracranial volume (ds = -0.11 to -0.25). Externalizing-specific reductions in SA were observed in frontoparietal regions (ds = -0.08 to -0.13), but no internalizing-specific associations were identified. Disorder-specific alterations were identified for ADHD, CD, and anxiety disorders but not depression.
CONCLUSIONS: Both common and disorder-specific alterations were identified, with regions involved in salience attribution and emotion processing implicated across internalizing and externalizing disorders. These novel findings can guide future research targeting common biological processes across youth psychiatric disorders as well as features unique to individual disorders.