Angélique Perret

@angieprrt.bsky.social

Tuberculosis🔬 - Postdoc at the Crick 🇬🇧 - SoldatiLab Unige alumni 🇨🇭

💡New Preprint! How does a cell control which way a membrane bends? ESCRT-III has the remarkable ability to reshape membranes and drive reverse-topology fission, yet a fundamental question has remained: what determines the direction of membrane remodeling? www.biorxiv.org/content/10.6...

Direction of ESCRT-III-dependent membrane bending emerges from bilayer asymmetry

In cells, ESCRT-III is unique in mediating fission of membrane necks from inside, a process called reverse-topology fission. Yet, in vitro, the complex primarily assembles outside membrane necks and m...

biorxiv.org

How does the mycobacterial vacuole go from damage that can still be repaired to full rupture? 👀 Our new preprint shows that EsxA and PDIM act sequentially: EsxA initiates repairable lesions, and PDIM helps push them past host repair capacity toward cytosolic escape. doi.org/10.64898/202...

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Very excited to share our recently published work on NTM and their response to acid stress! As my first paper, I’m especially grateful for the support and guidance from @luizcarvalholab.bsky.social , Rachel and @maxgg.bsky.social . More to come!

Max Gutierrez@maxgg.bsky.social · 5mo ago

Very happy to see this out! Great work by @lockwop.bsky.social @crick.ac.uk and first paper on NTMs from the lab! Parise made a set of 12 fluorescently labelled NTMs covering environmental and opportunistic mycobacteria... onlinelibrary.wiley.com/doi/10.1111/...

🚨 Want to know how we demonstrated the importance of sterol-rich membrane microdomains for M. marinum infection? Check out our latest paper published in Science Advances 👇 www.science.org/doi/10.1126/... ✨ Big thanks to everyone, especially Cristina Boehm-Bosmani, @soldatilab.bsky.social ! ✨

Membrane microdomains are crucial for Mycobacterium marinum EsxA-dependent membrane damage, escape to the cytosol, and infection

Sterol-rich microdomain accumulation at the MCV is crucial for Mm-induced damage and infection in D. discoideum and BV-2 cells.

science.org

Really honoured and grateful to have received the Laemmli Prize ✨ A wonderful recognition of my PhD work @sciencesunige.bsky.social in the @soldatilab.bsky.social

Soldati Lab@soldatilab.bsky.social · 8mo ago

🏆 It's a double win for the Soldati Lab! Last Friday, our former PhD students @angieprrt.bsky.social and Jahn Nitschke each received an award for their doctoral work: the Laemmli Prize for Angélique and Best Thesis in Life Sciences for Jahn. So proud of both for these well-deserved honors! 🤩

🏆 It's a double win for the Soldati Lab! Last Friday, our former PhD students @angieprrt.bsky.social and Jahn Nitschke each received an award for their doctoral work: the Laemmli Prize for Angélique and Best Thesis in Life Sciences for Jahn. So proud of both for these well-deserved honors! 🤩

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New preprint from the lab!!🎉 We show that Asgard archaea ESCRT-III proteins can trigger membrane fission and reveal its molecular mechanism, offering clues to how these cells may have built internal compartments. But do these organisms even have these compartments? www.biorxiv.org/content/10.1...

Molecular basis for cellular compartmentalization by an ancient membrane fission mechanism

The emergence of cell compartmentalization depends on membrane fission to create the endomembrane compartments. In eukaryotes, membrane fission is commonly executed by ESCRT-III, a protein complex con...

biorxiv.org

Excited to share Wendy Le Mouëllic’s PhD work, now published in @pnas.org! It reveals that M. tuberculosis depends on inorganic sulfate import to survive inside host cells—fueling essential processes such as redox balance and stress resistance. Huge congrats to Wendy & colleagues! shorturl.at/WbFQC

Inorganic sulfate is critical for Mycobacterium tuberculosis lung tissue colonization and redox balance | PNAS

Tuberculosis remains the deadliest infectious disease caused by a single pathogen, highlighting the urgent need for novel therapies. A deeper under...

pnas.org