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Dr Max Garagnani

Staff details

Dr Max Garagnani

Position

Senior Lecturer in Computer Science

Department

Computing

Email

M.Garagnani (@gold.ac.uk)

Max uses computer modelling and simulations to explore how we learn to speak and how the mind works.

Max is a Senior Lecturer in Computer Science and co-director of the programme. He holds a PhD in Computational Cognitive Neuroscience from the University of Cambridge, UK (2009) and a PhD in Artificial Intelligence from the University of Durham (1999).

Max's research focuses on building and applying biologically realistic, deep neural networks (mimicking structural and functional features of the cortex) to study the spontaneous emergence of cognitive functions, with a particular focus on natural language processing and acquisition, and spontaneous decisions.

His previous posts include Postdoctoral Researcher at the Centre for Robotics & Neural Systems (University of Plymouth), Investigator Scientist at MRC Cognition & Brain Sciences Unit (Cambridge, UK), and Visiting Scholar at the International Computer Science Institute (Berkeley, CA). He is also visiting researcher at the of the Free University of Berlin (Germany).

Academic qualifications

  • PhD in Computational Cognitive Neuroscience 2009
  • PhD in Artificial Intelligence 1999
  • PG Certificate in Teaching and Learning in Higher Education 2023
  • Laurea (BSc + MSc) in Computer Science 1994

Teaching and supervision

I supervise projects in my areas of interest (see "Research Interests" below).
I teach on the following programmes:

Research interests

My research centres on building and applying biologically realistic neural networks. Specifically, I model the neural mechanisms underlying the emergence of cognitive functions (in particular, language acquisition and processing, spontaneous decision making) in the brain. I simulate the emergence of such higher-level functions starting from an initially randomly connected uniform neural substrate, and by means of unsupervised learning mechanisms closely mimicking synaptic plasticity processes known to exist in the cortex. In parallel to the computational modelling, I also collaborate with experimentalists to apply brain imaging and behavioural methods to test and validate the predictions emerging from the computational models.

Unlike most of the modelling work in this area, the neural architecture I have developed over the past two decades adopts a "first principles" approach, i.e., it is not designed to explain a specific dataset or cognitive function. In fact, while it was originally applied mainly to simulate spoken language acquisition processes, its generality later allowed its successful application to explain the emergence of (and the mechanisms underlying) a range of other cognitive phenomena. These include, prediction error and automatic change-detection responses, attention, the emergence of memory cells and working memory processes, the recruitment of visual cortex in blind individuals, and the emergence of spontaneous (or "free") decisions to act (see list of publications below).

I have worked closely and for several years with the at the Freie Universität Berlin (Germany), directed by Prof. Friedemann Pulvermüller, and was co-PI and staff member of the jointly EPSRC/BBSRC-funded interdisciplinary project BABEL, which investigated the neural mechanisms underlying embodied word learning by joint use of neuroimaging, brain-inspired modelling, neuromorphic engineering and real-time implementation on the humanoid robot .

Publications and research outputs

Book Section

  • ; Kirilina, E. and Pulvermüller, F.. 2020. Perception-action circuits for word learning and semantic grounding: a neurocomputational model and neuroimaging study. In: Maria Raposo; Paulo Ribeiro; Susanna Sério; Antonino Staiano and Angelo Ciaramella, eds. Computational Intelligence Methods for Bioinformatics and Biostatistics: 15th International Meeting, CIBB 2018, Caparica, Portugal, September 6–8, 2018, Revised Selected Papers. Cham, Switzerland: Springer International Publishing. ISBN 9783030345846
  • . 2005. A Diagrammatic Inter-Lingua for Planning Domain Descriptions. In: Luis Castillo; Daniel Borrajo; Miguel A. Salido and Angelo Oddi, eds. Planning, Scheduling and Constraint Satisfaction: From Theory to Practice. 117 Amsterdam: IOS Press, pp. 129-138. ISBN 9781586034849
  • . 2005. A Framework for Hybrid and Analogical Planning. In: Ioannis Vlahavas and Dimitris Vrakas, eds. Intelligent Techniques for Planning. Hershey, Pennsylvania: Idea Group Publishing, pp. 35-89. ISBN 9781591404507

Article

  • . 2024. On the ability of standard and brain-constrained deep neural networks to support cognitive superposition: a position paper. Cognitive Neurodynamics, 18, pp. 3383-3400. ISSN 1871-4080
  • Gelens, Frank; Aijala, Julio; Roberts, Louis; Komatsu, Misako; Uran, Cem; Jensen, Michael A.; Miller, Kai J.; Ince, Robin A.A.; ; Vinck, Martin and Canales-Johnson, Andres. 2024. Distributed representations of prediction error signals across the cortical hierarchy are synergistic. Nature Communications, 15, 3941. ISSN 2041-1723
  • Shtyrov, Y.; Efremov, A.; Kuptsova, A.; Wennekers, T.; Gutkin, B. and . 2023. Breakdown of category-specific word representations in a brain-constrained neurocomputational model of semantic dementia. Scientific Reports, 13, 19572. ISSN 2045-2322

Conference or Workshop Item

  • ; and . 2025. 'Simulating the point of no return in human volitional action in a brain-constrained model of sensory and motor areas.'. In: 34th Annual Computational Neuroscience Meeting (CNS*2025). Florence, Italy 5-9 July 2025.
  • ; Schurger, Aaron and . 2025. 'Spontaneous emergence of slow ramping prior to decision states in a brain-constrained model of fronto-temporal cortical areas'. In: 34th Annual Computational Neuroscience Meeting (CNS*2025). Florence, Italy 5-9 July 2025.
  • . 2025. 'Concept superposition and learning in standard and brain-constrained deep neural networks'. In: 34th Annual Computational Neuroscience Meeting (CNS 2025), Workshop on "Brains and AI". Florence, Italy 9 July 2025.