Wei Shi

@wshisky.bsky.social

postdoc university of cologne

So proud to see this story finally out!🎉 We added new data since our previous preprint—transgenic barley plants with an engineered immune receptor that fights off two fungal pathogens at once. Short 🧵 and link to the original preprint thread on X👇 www.science.org/doi/10.1126/...

Molecular mimicry of a pathogen virulence target by a plant immune receptor

Plants and animals respond to pathogen attack by mounting innate immune responses that require intracellular nucleotide-binding leucine-rich repeat (NLR) proteins. These immune receptors detect pathog...

science.org

I am very grateful to Franz Hagn, his team and colleagues for making this possible. Atomic resolution of the inactive, active and downstream effector ICR/RIP-bound active ROP GTPase RACB. The complex may form a positively charged interface for plasma membrane interaction. doi.org/10.1038/s420...

Nucleotide-dependent switching and RIPb effector recognition of the barley susceptibility factor RACB - Communications Biology

High-resolution structures of the plant small GTPase RACB show how switching between inactive and active states enables RIPb effector binding, providing a physical link between the cell membrane and m...

doi.org

Delighted to see this work out in #ScienceAdvancesResearch @science.org where we uncover a surprising evolutionary origin of fungal effector proteins as ancient antimicrobials. Led by the super-star @mesny.bsky.social in the frame of @ceplas.bsky.social @mibinet.bsky.social & @madfungi.bsky.social

Universität zu Köln@unicologne.bsky.social · 4mo ago

🍂🌱 An international research team led by @teamthomma.bsky.social has discovered the surprising evolutionary origin of fungal effector proteins: molecules that pathogens use today to infect their hosts appear to have evolved from ancient antimicrobial proteins. More: ➡️ uni.koeln/UCMWQ #UniCologne

Huge thanks to my amazing co-authors, to AG Saur and AG Döhlemann, and to all our collaborators for their fantastic contributions @Merle Bilstein-Schloemer@izzysaurlab.bsky.social @grandpahiro.bsky.social @sara-stolze.bsky.social@Gunther Döhlemann@Matthieu Pierre Platre ! 🙏

Isabel saur@izzysaurlab.bsky.social · 7mo ago

Wei Shi @wshisky.bsky.social & Merle‘s work is online. Wei really pushed this work from scratch and Merle linked it to MLA diversification…3rd (co-)first author paper in her PhD. Very proud PI! And only possible through collaboration with G. Döhlemann, @grandpahiro.bsky.social &, Matt Platre. (1/x)

🎊 We made it!! @dfg.de has just announced that we have been successful with our CEPLAS III proposal in the current funding round of the Excellence Strategy! Many thanks to all our supporters! @hhu.de @unicologne.bsky.social @mpipz.bsky.social @fz-juelich.de @leibnizipk.bsky.social

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Deutsche Forschungsgemeinschaft@dfg.de · last yr.

Die #Exzellenzcluster stehen fest: Heute hat die Exzellenzkommission 70 Projekte zur Förderung ausgewählt. 45 Cluster werden fortgesetzt, 25 neu eingerichtet. Die Förderung beginnt ab 1. Jan. 2026 für 7 Jahre, die Fördersumme beträgt insg. 539 Mio. €/Jahr. Die Liste: www.dfg.de/resource/blo... 1/3

Deutschlandkarte der Verteilung der Exzellenzcluster auf Bundesländer und Universitäten.

Obligate biotrophic fungi cause some of the most devastating diseases on cereals. They are also highly difficult to study…. It is truely remarkable how well described the barley and what powdery mildews are. Here you find an overview on the current knowledge and summary of great resources. Enjoy!

Molecular Plant-Microbe Interactions® (MPMI)@mpmijournal.bsky.social · 2y ago

Get a First Look! 👇 🌱🌾Technical Advances Drive the Molecular Understanding of Effectors from Wheat and Barley Powdery Mildew Fungi doi.org/10.1094/MPMI... @izzysaurlab.bsky.social

📣New year, new preprint @biorxiv-microbiol.bsky.social 🎉! A study led by the brilliant @yukiyosato.bsky.social showing that Starship giant transposons dominate plastic genomic regions in the fungal plant pathogen Verticillium dahliae and drive virulence evolution. 🧵[1/12] doi.org/10.1101/2025...

Starship giant transposons dominate plastic genomic regions in a fungal plant pathogen and drive virulence evolution

Starships form a recently discovered superfamily of giant transposons in Pezizomycotina fungi, implicated in mediating horizontal transfer of diverse cargo genes between fungal genomes. Their elusive nature has long obscured their significance, and their impact on genome evolution remains poorly understood. Here, we reveal a surprising abundance and diversity of Starships in the phytopathogenic fungus Verticillium dahliae. Remarkably, Starships dominate the plastic genomic compartments involved in host colonization, are enriched in virulence-associated genes, and exhibit genetic and epigenetic characteristics associated with adaptive genome evolution. We further uncover extensive horizontal transfer of Starships between Verticillium species and, strikingly, from distantly related Fusarium fungi. Finally, we demonstrate how Starship activity facilitated the de novo formation of a novel virulence gene. Our findings illuminate the profound influence of Starship dynamics on fungal genome evolution and the development of virulence. ### Competing Interest Statement The authors have declared no competing interest.

doi.org