Model-based functional spectroscopy of brain metabolites associated with cognition
Lead Research Organisation:
University of Nottingham
Department Name: Sch of Physics & Astronomy
Abstract
How can we better understand cognitive impairments in mental health disorders? If we do, we may be able to better target future therapies. This challenge requires the development of new brain imaging techniques.
In particular, differences in neurochemicals (such as glutamate or GABA) in the brain may explain the differences we observe in cognitive function. In this project, we will develop new tools using functional MR spectroscopy (fMRS) to non-invasively detect neurochemical changes while participants engage in a cognitive task. This offers a promising technique to investigate cognition. However, sensitivity to detect changes is limited by measurement noise. In addition, neurochemical data is collected separately to the concomitant blood response which occurs during brain activation (fMRI). We will research new data-driven computational approaches to model neurochemical changes. We will also combine fMRS with fMRI scans allowing us to obtain more information simultaneously. The developed techniques will be applied to study neurochemical changes in healthy volunteers during performance monitoring, which is often impaired in individuals with psychosis.
The student will engage with interdisciplinary teams of physicists, neuroscientists and engineers. They will gain computational skills (Python, C++) coding their own pipelines and MR sequences to run on the 7 T MR scanner.
In particular, differences in neurochemicals (such as glutamate or GABA) in the brain may explain the differences we observe in cognitive function. In this project, we will develop new tools using functional MR spectroscopy (fMRS) to non-invasively detect neurochemical changes while participants engage in a cognitive task. This offers a promising technique to investigate cognition. However, sensitivity to detect changes is limited by measurement noise. In addition, neurochemical data is collected separately to the concomitant blood response which occurs during brain activation (fMRI). We will research new data-driven computational approaches to model neurochemical changes. We will also combine fMRS with fMRI scans allowing us to obtain more information simultaneously. The developed techniques will be applied to study neurochemical changes in healthy volunteers during performance monitoring, which is often impaired in individuals with psychosis.
The student will engage with interdisciplinary teams of physicists, neuroscientists and engineers. They will gain computational skills (Python, C++) coding their own pipelines and MR sequences to run on the 7 T MR scanner.
Organisations
People |
ORCID iD |
Adam Berrington (Primary Supervisor) | |
Claire Lucas (Student) |
Studentship Projects
Project Reference | Relationship | Related To | Start | End | Student Name |
---|---|---|---|---|---|
MR/W007002/1 | 01/10/2022 | 30/09/2028 | |||
2883390 | Studentship | MR/W007002/1 | 01/10/2023 | 30/09/2027 | Claire Lucas |