Dr. Daisy Pooler

@daisypooler.bsky.social

#MSCA postdoc making biomolecular machines 🔗🧬 with @fschaufelberger.bsky.social at KTH Stockholm 🇸🇪 | @feringalab.bsky.social alumnus 🇳🇱💡 | #CASFutureLeaders '24 ⚛️ | she/her #brexshit 🇪🇺

honoured to receive this award from Chemistry Europe! 🤩 big thanks to the Swedish Chemical Society for the nomination 🇸🇪 this will help me start up some exciting research with @jakeylg.bsky.social at the University of St. Andrews in the near future 💡

Chemistry Europe@chemistryeurope.bsky.social · 6mo ago

🎉 Congratulations to the CE Travel Grant 2025 (Round 2) awardees! Six early‑career researchers have been selected for a €2,000 grant. More info about the program: chemistryviews.org/chemistry-eu... #ChemistryEurope

had to walk past/through FIVE (not an exaggeration) separate dance troupes this morning at 8:30 on my way to the lab. the students are well and truly back... and there are some rather odd fresher's celebrations happening at KTH

This week in Science, researchers report an artificial molecular motor that can twist a molecular thread to form a mechanically interlocked molecule. The approach creates opportunities to fabricate mechanically interlocked molecules with precise structural control. Learn more: scim.ag/40FboGP

This illustration shows consecutive stages during operation of a molecular catenating machine.

Transition-path times of individual molecular shuttles under mechanical equilibrium show symmetry: Chem www.cell.com/chem/fulltex... Molecular machines operate out of thermodynamic equilibrium, but as molecules in solution (low Reynold's number) are always in mechanical equilibrium.

Transition-path times of individual molecular shuttles under mechanical equilibrium show symmetry

This study explores microscopic reversibility to understand the operation of molecular devices.

cell.com