Small Animal Magnetic Resonance Imaging of Lifecourse: From Developmental Diseases to Dementia
Award Number
212924/Z/18/ZProgramme
Multi-user Equipment GrantsStatus / Stage
ActiveDates
1 July 2019 -1 July 2024
Duration (calculated)
05 years 00 monthsFunder(s)
Wellcome TrustFunding Amount
£1,000,000.00Funder/Grant study page
Wellcome TrustContracted Centre
University of EdinburghPrincipal Investigator
Prof Megan HolmesPI Contact
Megan.Holmes@ed.ac.ukWHO Catergories
Tools and methodologies for interventionsDisease Type
Dementia (Unspecified)CPEC Review Info
Reference ID | 297 |
---|---|
Researcher | Reside Team |
Published | 12/06/2023 |
Data
Award Number | 212924/Z/18/Z |
---|---|
Status / Stage | Active |
Start Date | 20190701 |
End Date | 20240701 |
Duration (calculated) | 05 years 00 months |
Funder/Grant study page | Wellcome Trust |
Contracted Centre | University of Edinburgh |
Funding Amount | £1,000,000.00 |
Abstract
We seek part funding for an advanced, 9.4T MRI scanner and ancillary equipment central to the work of Edinburgh Neuroscience, incorporating newly emerging technology to remain at the international forefront of neuroimaging research that is informing our understanding of brain development, midlife risk factors and ageing in animal models.
The 9.4T MRI scanner will be equipped with high performance gradients, multinuclear capability and a range of head and body coils. Brain coils will increase resolution for high-resolution structural imaging (e.g. T1, T2, T2*, FLAIR) and wide-ranging specialist imaging techniques (diffusion tensor, perfusion, permeability and magnetisation transfer imaging, functional MRI, multinuclear spectroscopy, angiographic and flow quantification).
The 9.4T scanner will replace a 7T MRI scanner, which is outdated technology unsupported by the company. It no longer meets the high specifications needed to be internationally-leading in high resolution structural/functional imaging and spectroscopy. The new 9.4T scanner is essential to provide a comprehensive range of high resolution in vivo imaging for our large programmes of work determining disease progression and novel therapeutic targets/efficacy in animal models relevant to brain disorders: developmental disorders (autism, preterm birth), mid-life risk factors (cardiovascular and metabolic disease, brain tumours) and diseases of the elderly (dementia, small vessel disease).