Contact information
Background
Matthew studied Medicine, Neuroscience and Philosophy at the University of Oxford. He subsequently combined postgraduate medical training with clinical neuroscience research, first as an Academic Foundation Doctor (Oxford), and later as an MRC Clinical Research Fellow (MRC London Institute of Medical Sciences & Imperial College London) and an NIHR Academic Clinical Fellow in Psychiatry (Institute Psychiatry Psychology and Neuroscience, King's College London).
In 2018 Matthew was awarded a Wellcome Trust Fellowship to complete a PhD in Cognitive and Computational Neuroscience at UCL under the supervision of Professor Ray Dolan FRS (UCL) and Professor Zeb Kurth-Nelson (ex. Google DeepMind).
Matthew returned to Oxford in 2022, as an NIHR Clinical Lecturer in Psychiatry, and, in 2025, was appointed a Senior Clinical Researcher and Honorary Consultant Psychiatrist. He currently leads the Computational Cognitive Neuroscience in Psychiatry (CCNP) group at the department, and holds an honorary academic appointment at UCL.
In 2025 Matthew joined the Health AI team at Microsoft AI, where he holds the position of Principal Applied Scientist and Behavioral Health Lead. Prior to this, he was also an external member of the Google DeepMind NeuroLab.
Matthew M Nour
BM BCh MA(Oxon) PhD MRCPsych CCT
Senior Clinical Researcher
Computational psychiatry, cognitive neuroscience and AI in mental health
Research
Cognitive Computational Neuroscience in Psychiatry
I'm fascinated by how brain activity relates to cognition, affect, and behaviour, and believe a deeper understanding of this relationship will help us develop better clinical tools and treatments in psychiatry.
To investigate these questions, I use functional and molecular brain imaging (fMRI, MEG, PET), machine learning for neural data analysis, computational modelling of behaviour, natural language processing (NLP), and pharmacological interventions.
In my pre-doctoral work (at KCL and Imperial) I investigated the role of dopamine in the pathophysiology of psychotic disorders using functional neuroimaging (fMRI, PET) and computationally-informed behavioural tasks. During my PhD (at UCL) I used MEG and multivariate neural decoding to measure spontaneous memory reactivations (replay) in schizophrenia.
My current work uses functional neuroimaging (MEG, fMRI), naturalistic tasks, and AI models (inc. large language models, LLMs) to investigate neuro-cognitive processes in psychiatric populations, particularly psychosis.
---
AI and Mental Health
Recent years have seen exponential advances in AI that have profound implications for delivery of mental health care. Millions of people now engage with LLM- based AI chatbots to discuss personal health and wellbeing queries, and frontier AI models are being evaluated for deployment in healthcare settings.
My current research investigates the behavior of LLMs in mental health contexts, using simulation-based approaches, real world conversational data analysis, and development of AI evaluation frameworks.
I maintain active collaborations with the UK AI Security Institute (AISI) and Microsoft AI.
---
Selected Funding
Wellcome Neuroscience in Mental Health Grant; UK AI Security Institute Challenge Award; BMA Foundation Margaret Temple Award; MRF Launchpad Grant; AMS Starter Grant; NIHR Clinical Lectureship; Wellcome Clinical Doctoral Fellowship
Key publications
Trajectories through semantic spaces in schizophrenia and the relationship to ripple bursts.
Journal article
Nour MM. et al, (2023), Proc Natl Acad Sci U S A, 120
Natural Language Processing in Psychiatry: A Field at an Inflection Point.
Journal article
Nour MM. and Huys QJM., (2023), Biol Psychiatry Cogn Neurosci Neuroimaging, 8, 979 - 981
Functional neuroimaging in psychiatry and the case for failing better.
Journal article
Nour MM. et al, (2022), Neuron, 110, 2524 - 2544
Decoding cognition from spontaneous neural activity.
Journal article
Liu Y. et al, (2022), Nat Rev Neurosci, 23, 204 - 214
Impaired neural replay of inferred relationships in schizophrenia.
Journal article
Nour MM. et al, (2021), Cell, 184, 4315 - 4328.e17
Dopaminergic organization of striatum is linked to cortical activity and brain expression of genes associated with psychiatric illness.
Journal article
McCutcheon RA. et al, (2021), Sci Adv, 7
Variability in Action Selection Relates to Striatal Dopamine 2/3 Receptor Availability in Humans: A PET Neuroimaging Study Using Reinforcement Learning and Active Inference Models.
Journal article
Adams RA. et al, (2020), Cereb Cortex, 30, 3573 - 3589
Task-induced functional brain connectivity mediates the relationship between striatal D2/3 receptors and working memory.
Journal article
Nour MM. et al, (2019), Elife, 8
Mesolimbic Dopamine Function Is Related to Salience Network Connectivity: An Integrative Positron Emission Tomography and Magnetic Resonance Study.
Journal article
McCutcheon RA. et al, (2019), Biol Psychiatry, 85, 368 - 378
Dopaminergic basis for signaling belief updates, but not surprise, and the link to paranoia.
Journal article
Nour MM. et al, (2018), Proc Natl Acad Sci U S A, 115, E10167 - E10176
The dopamine hypothesis of bipolar affective disorder: the state of the art and implications for treatment.
Journal article
Ashok AH. et al, (2017), Mol Psychiatry, 22, 666 - 679
