Faraz Mardakheh

@mardakheh.bsky.social

Associate Professor at the Department of Biochemistry, University of Oxford. Fellow of Brasenose College. Studying RNA binding proteins in cancer. https://mardakhehlab.info https://www.bioch.ox.ac.uk/research/mardakheh

Amazing news for the The Vaccine Identity Evaluation Consortium, which includes researchers from the Department of Biochemistry and partner institutions: a £3.7 million MRC DPFS grant to advance innovative technologies for detecting substandard and falsified vaccines. Congratulations 🙌 ⬇️

£3.7 million grant to advance devices for detecting substandard and falsified vaccines

The three-year project builds on research that began during the early months of the COVID-19 pandemic

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Transformative work from the @mbarnalab.bsky.social Ribo-Tweezer enables direct interrogation of ribosomal protein (RP) function in mature ribosomes, revealing that distinct RPs control unique translatomes and that RACK1 removal rewires translation and stem cell identity. Congrats to all!

Maria Barna@mbarnalab.bsky.social · 3mo ago

’m thrilled to share that our paper is out in Molecular Cell! We developed Ribo-Tweezer, a new technology that lets us rapidly and reversibly remove specific proteins from mature ribosomes to ask what they actually do in translation.

Thrilled that our new preprint is on bioRxiv! It’s been incredibly fun and rewarding working on this project throughout my PhD and PostDoc. I’m so grateful to our co-authors and funders for making this research possible, with the biggest thanks to @mardakheh.bsky.social for being the best mentor ✨

Faraz Mardakheh@mardakheh.bsky.social · last mo.

🚨🚨NEW PREPRINT ALERT!🚨🚨Proud to present our recent study, out now on bioRxiv, in which we reveal an RNA-dependent positive feedback loop that drives malignant ribosome biogenesis and tumour growth (1/15). 🔗 www.biorxiv.org/content/10.6...

New paper! How do RNAs "know" where to go inside a cell? We dug into the sequence elements that route RNAs to the right place. It turns out that, in mammals, they're surprisingly massive (>200 nt), multipartite, and wonderfully complicated. 🧵