Active Psychology & Behaviour Computing & AI

Human understanding: behaviour, brain and neural computation

In plain English

AI plain-English summary

Every time a person suddenly “gets” a new concept—grasping how a bicycle works or why a tree is a plant—their brain rewires its internal representations, and this project will track exactly how that rewiring happens. Understanding is not just accumulating facts. It requires building structured mental models that can be flexibly recombined. Current AI systems can memorise vast datasets but fail at this kind of compositional reasoning, and neuroscience lacks a clear account of how neural representations reorganise during genuine comprehension. This project fills that gap by combining deep learning theory, brain imaging, and large-scale behavioural experiments to watch understanding emerge in real time. The research is fundamental science. It will not produce a new drug or device. But a precise computational theory of how humans compose new knowledge from existing building blocks could transform how we design educational curricula, build more robust AI systems that learn like people do, and diagnose conditions where this compositional ability breaks down—such as certain forms of dementia or developmental disorders. The team will also collect data from thousands of people worldwide solving concept-learning tasks, creating a resource for modelling human learning trajectories with modern machine learning tools.

View original technical description
What does it mean for an agent to understand the world? This problem is central to diverse fields, from philosophy to AI research. Here, we study human understanding from the standpoint of behaviour and neural computation. We combine deep learning theory, large-scale behavioural testing, and neuroimaging techniques that examine how behaviour and neural coding adapt as learners transition from naivety to understanding on complex tasks. We start from the premise that understanding requires knowledge to be appropriately structured and composed into new mental models. We focus on the ways that neural representations change as new knowledge structures (e.g. semantic hierarchies) are acquired. We will study the discrete stages (and moments of insight) through which learning passes as humans gradually master a task. We will ask why temporal structuring of information (curriculum learning) benefits human learning, and explore changes in representational format in human brain signals that occur as humans compose new knowledge from existing building blocks. In each of these projects, we test predictions motivated by simulations involving deep neural networks. Finally, we will collect large- scale data from people all over the world solving concept learning tasks, and model their learning trajectory with modern machine learning tools.

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Researchers

Christopher Summerfield (EPMC Awardee)

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Original classification

Discovery Award

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