Yolanda Schaerli

@[email protected]
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6 Posts
Associate Professor, Bacterial Synthetic Biology, Department of Fundamental Microbiology, University of Lausanne
Yolanda SchaerliOct 28, 2024

Congratulations to our UNIL iGEM team !
🏅 Gold medal
🏆 Nominated for conservation project
🏆 Nominated for best wiki
🏆 Nominated for best presentation

We are very proud of you!
Learn more about their cool project about invasive Asian hornets: https://2024.igem.wiki/unilausanne/

| UNILausanne - iGEM 2024

Yolanda SchaerliSep 6, 2024
Very happy to share our latest preprint: Amazing @astri engineered inducible phagemid transfer for CRISPR-based gene regulation and computation in multicellular E. coli consortia.
Yolanda SchaerliSep 6, 2024
bioRxiv Synthetic BiologyAug 29, 2024
Engineering Intercellular Communication using M13 Phagemid and CRISPR-based Gene Regulation for Multicellular Computing in Escherichia coli https://www.biorxiv.org/content/10.1101/2024.08.28.610043v1?med=mas
Yolanda SchaerliAug 26, 2024

Interested in applying for a fellowship to do a PhD @unil with my lab (bacterial synthetic biology) as a host? Send me a CV and a motivation letter till September 6th!

https://www.unil.ch/ecoledoctoralefbm/en/home/menuinst/doctorate/phd-in-life-sciences/fellowships.html

Fellowships

Page Fellowships of site Doctoral School of the Faculty of Biology and Medicine hosted by the University of Lausanne

Yolanda SchaerliAug 26, 2024

Very happy to see the “optoscillator” - a synthetic optogenetic oscillator - published! By applying light pulses on growing E. coli colonies and analysing the ring patterns, we observed synchronisation, (subharmonic) resonance, period doubling and chaos!

https://www.nature.com/articles/s41467-024-51626-w

From resonance to chaos by modulating spatiotemporal patterns through a synthetic optogenetic oscillator - Nature Communications

Oscillations are a recurrent phenomenon in biological systems across scales, but deciphering their fundamental principles is very challenging. Here the authors construct a synthetic oscillator in bacteria that can be controlled by light and show that different light conditions can generate complex dynamics that are transformed into distinct spatial ring patterns in bacterial colonies.

Nature