Enrico Sandro Colizzi

@escolizzi.bsky.social

Tenured scientist @INRIA, Lyon. Studying how microbes evolve new stuff with computer simulations.

New preprint: "A branching cell-fate decision in biofilm dispersal enables long-term surface persistence." When V. cholerae biofilms disperse, it isn’t a uniform exit, rather, an opportunity to bet-hedge. A subpopulation of cells stay behind, primed for biofilm regrowth. doi.org/10.64898/202...

Now out in AEM @asm.org! 🎉🧪 *High school student-isolated mutants 👉🏻 novel genetic causes of biofilm-associated adaptations *We learn how diversity arises quickly and is maintained *EvolvingSTEM enables scalable research in classrooms & promotes scientific literacy journals.asm.org/eprint/FBU9M...

Genetic diversification of Pseudomonas fluorescens maintained by multi-niche selection within biofilms | Applied and Environmental Microbiology

Bacterial biofilms dominate microbial life; however, their evolutionary genetics remain incompletely understood. Extensive replication of biofilm selection experiments by secondary school students can...

journals.asm.org

Vaughn Cooper@vscooper.micropopbio.org · last yr.

Sharing the most significant work from my group, led by the @evolvingstem.bsky.social team. Come for the discoveries of how Pseudomonas adapts in biofilms, stay for the story of how they were discovered by thousands of young scientists in grades 9-12. 🧪🧫🧬🧵 www.biorxiv.org/content/10.1...

What started out as a student project has grown over the last 2 years into a full-fledged review! So many thanks to @escolizzi.bsky.social for leading this multicellular effort and sharing your evolutionary wisdom with us 🫶🏻🦠

Enrico Sandro Colizzi@escolizzi.bsky.social · 4mo ago

How common is multicellularity in bacteria? And archaea? And how does it evolve? We wrote a short review "On the architecture and evolution of prokaryotic multicellularity". Preprint link: bit.ly/4ta06Gq Sharing and comments are much appreciated. 1/4

An overview of bacterial multicellular formations: biofilms, filaments, free-floating aggregates, motile collectives and fruiting bodies. For each form, we mention an analogous eukaryotic multicellular form (respectively animal epitelia, filaments in fungi, Volvox, Dictyostelium/social animals, Dictyostelium and other slime moulds)

Do you know a paper describing evolution of (enhanced) biofilm formation upon phage exposure? Thus not an experiment where biofilm is used for EE, but EE of a bacterial population leading to protection against phage via biofilm matrix/aggregation/etc Asking for a friend's teaching lecture

Phd Position alert 🚨 Join our project ASTRAfun (Adaptation and Starship Traffic in Root-Associated fungi), in which we will use computational models to unveil the hidden dynamics of fungal evolution. It’s not going to be just regular fun. It’s going to ASTRAfun. 🤓 www.uu.nl/en/organisat...

PhD Position in Computational Modelling of Fungal Evolution

How do giant mobile elements called ‘Starships’ reshape fungal plant pathogens? Help us computationally model their spread and impact in nature and agriculture!

uu.nl

How could a simple self-replicating system emerge at the origins of life? RNA polymerase ribozymes can replicate RNA, but existing ones are so large that their self-replication seems impossible. Could they be smaller? Excited to share our latest work in @science.org on a new small polymerase. 1/n

A small polymerase ribozyme that can synthesize itself and its complementary strand

The emergence of a chemical system capable of self-replication and evolution is a critical event in the origin of life. RNA polymerase ribozymes can replicate RNA, but their large size and structural ...

science.org