Completed Brain & Nervous System

Oxford Centre for Neural Circuits and Behaviour.

In plain English

AI plain-English summary

A team of neuroscientists is building a centre to decode the biological circuits that turn sensory information into purposeful behaviour. The problem is fundamental: we do not understand how the brain’s neural networks compute decisions and actions. Current tools cannot easily trace the flow of information through living circuits or test what happens when those circuits are pushed beyond normal limits. The researchers will focus on the fruit fly *Drosophila melanogaster*, an organism that allows precise genetic control over individual neurons, and will develop new genetic technologies to map and manipulate those circuits. Parallel work in vertebrates will test whether the same principles hold in more complex brains. This is curiosity-driven fundamental science. There is no immediate clinical or commercial application. But understanding how neural circuits encode adaptive behaviour could eventually reshape treatments for brain disorders where those circuits go awry—such as addiction, Parkinson’s disease, or autism—and could inspire new architectures for artificial intelligence systems that learn and decide like biological brains. Past work on simple model organisms has repeatedly yielded unexpected insights into human biology.

View original technical description
We aim to establish a centre for basic neuroscience research, consisting of an interactive and complementary group of leading neuroscientists and students, all focussed on a key problem in neurobiology: the biological mechanisms of adaptive behaviour. In order to address this goal we will develop new genetic technologies for dissecting neural circuits. We realize that the key to understanding information processing in the brain will likely be found in experimental systems that preserve core principles, yet allow a high degree of experimental control, including the capacity to probe inside and outside of normal physiological limits. Our proposed centre brings together researchers using Drosophila melanogaster, a model organism that leverages the power of genetically encoded reagents for monitoring and manipulating neuronal function, with groups pioneering analogous and complementary approaches in vertebrates.

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Researchers

Gero Miesenböck (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

Sainsbury Wellcome Centre for Neural Circuits and Behaviour; Core Grant Award Part 1.
Comparative Connectomics: Revealing change and conservation in whole brain circuits across evolution
International Brain Laboratory
Molecular mechanisms underlying the evolution of central neural circuits and behaviour
Cellular and genetic bases of neural circuits evolution

Original classification

Strategic Award - Science

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