Gareth Purvis
Oxford BHF CRE Basic Science Intermediate Transition Fellow
- Start Date: 23/09/2024
- End Date: 22/09/2026
Research project title: Mechanisms behind residual risk in cardiovascular disease
Project summary
My project is to understand the genetic and molecular mechanism behind residual risk in cardiovascular disease. Inflammation (hs-CRP) is now seen as a better indicator for disease risk in CVD than LDL in patients on optimal lipid lowering interventions. To achieve these outcomes I will use two complimentary models: Firstly using complex in vivo models of hypercholesterolemia to mimic human pathology and secondly using human iPSC organoid models to attribute genome wide associations to transcription regulators and epigenetic modifications in a cell type specific manner, to understand if there is a heritable component to residual risk.
The project brings together my experience of in vivo models of cardiometabolic disease and innate immunity; with the desire to learn new skills (human iPSC organoid models and large genetic data set integration). Having the continued mentorship of Prof Keith Channon along with other colleagues in the Centre for Human Genetics (Prof Chris O’Callaghan) and the MRC WIMM (Prof Adam Mead and Prof Beth Psaila) will bring together expertise on human pathology in cardiovascular disease, stem cell biology, iPSC organoids and epigenetic regulation of gene transcription. This will allow us to create genome wide maps of chromatin accessibility and gene expression in heterogeneous cell types in human iPSC organoids.
Recent publications
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Drug repurposing screen identifies novel anti-inflammatory activity of sunitinib in macrophages.
Journal article
Chaffey LE. et al, (2024), Eur J Pharmacol
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OxPhos in adipose tissue macrophages regulated by BTK enhances their M2-like phenotype and confers a systemic immunometabolic benefit in obesity.
Journal article
Purvis GSD. et al, (2024), Diabetes
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Multityrosine kinase inhibitor sunitinib has anti-inflammatory activity in macrophages mediated via inhibition of NF-κB
Conference paper
Chaffey L. et al, (2023), BRITISH JOURNAL OF PHARMACOLOGY, 180, 536 - 537
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Bruton’s tyrosine kinase (BTK) regulates myeloid cell recruitment during acute inflammation
Journal article
Purvis G. et al, (2021), Authorea Preprints