Sebastian Schade

@sebastian-dts.bsky.social

PhD student of Stegmann Lab at Ulm University Interested in receptor signaling and plant immunity Formerly: TU Munich and ZMBP Tübingen 🌱 🇩🇪 🇨🇭 🏳️‍🌈 (he/him)

Latest work from our group on powdery mildew susceptibility is finally out! We show that host RALF signalling, cell wall organization, and apoplastic pH regulation are required for successful fungal colonization. Surprisingly, the function of RALFs is only partly dependent on FERONIA. #TRR356

New Phytologist@newphyt.bsky.social · 2mo ago

RALFs, likely combining cell wall and signalling functions, support powdery mildew infection of #Arabidopsis 📖 nph.onlinelibrary.wiley.com/doi/10.1111/... by Leicher et al. @WileyPlantSci #PlantScience

Model of RALF-FER-dependent effects on powdery mildew sporulation.

This is of course all just a glimpse into what these groups have been working on together for the past years. If you want to check out the rest of the publications from our consortium, have a look here : www.bio.lmu.de/en/research/... And, of course, there is a lot more to come! Stay tuned :)

Publications

The LMU is one of the most prestigious and traditional universities in Europe. It combines outstanding research with a challenging range of courses.

bio.lmu.de

Its preprint season for #TRRPlantMicrobe and in the last weeks a flurry of great plant microbe papers were posted. It's been wonderful seeing these stories take shape over the last years amid a supportive community of young researchers, so I wanted to collect them all in one place. Take a look👇

Can’t describe it better than @sebastian-dts.bsky.social did, with whom collaborating on this #TRR356 project has been a treat! Special thanks also to Martin Stegmann and @carogutj.bsky.social , and to all other co-authors! Find our manuscript at: www.biorxiv.org/content/10.6...

biorxiv.org

Sebastian Schade@sebastian-dts.bsky.social · 3mo ago

Born from the collaborative spirit of #TRR356, I’m excited to share my first first-author project! 🪴🦠 What started as a side project with @kbuhrman.bsky.social led us to discover that KAR/KL and SL signalling fine-tune the strength and timing of plant defense responses in a conserved manner!

Born from the collaborative spirit of #TRR356, I’m excited to share my first first-author project! 🪴🦠 What started as a side project with @kbuhrman.bsky.social led us to discover that KAR/KL and SL signalling fine-tune the strength and timing of plant defense responses in a conserved manner!

bioRxiv Plant Bio@biorxiv-plants.bsky.social · 3mo ago

Karrikin and strigolactone signalling affect pattern-triggered immunity and resistance to specific pathogens https://www.biorxiv.org/content/10.64898/2026.05.05.722863v1

📢How do supervisory behaviours impact early-career researchers? Our preprint explores how scientific supervisors shape the wellbeing of ECRs. We analysed 2604 anonymous responses from ECRs across 65 countries🌍 to understand the impact of mentorship. This is what we found👇

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And that’s a wrap for the #TRR356 “Plant-Microbe” PhD & PostDoc retreat at beautiful Frauenchiemsee 🌿 We enjoyed talks from within the TRR and from our fantastic invited speakers, along with an engaging poster session, workshop, and career development discussions. A truly great event!

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New Preprint: Plasma membrane nanoscale dynamics of Arabidopsis leucine-rich repeat receptor kinase complexes (2026) https://www.tsl.ac.uk/publications/164874

bioRxiv: Plasma membrane nanoscale dynamics of Arabidopsis leucine-rich repeat receptor kinase complexes (2026)

Plasma membrane-localized receptors operate as dynamic signaling complexes and integrative networks, yet the spatial and temporal regulation of these interactions remain largely unknown. Here, by analyzing the components of a minimal Arabidopsis leucine-rich repeat receptor kinase network, we describe the differential diffusion and organization of receptor complex components and unveil the nanoscale spatial and temporal logic underlying the formation of receptor kinase complexes. The ligand-binding receptors FLS2 and BRI1, and the accessory receptor BIR3, are organized in plasma membrane nanodomains, within which the co-receptor BAK1 diffuses and is spatially arrested upon ligand perception. BAK1 spatial arrest relies on extracellular domain (ECD)-ECD interactions but does not require receptor complex activation. Mathematical modelling, single molecule imaging and bio-assays infer that accessory receptors maintain a dynamic pool of co-receptors in the vicinity of ligand-binding receptors to promote ligand-induced complex formation and signaling. We propose that ligand-induced receptor kinase complex formation is a deterministic process defined by the relative nanoscale spatial positioning of individual signaling and regulatory components.

doi.org

Plants use cell-surface and intracellular receptors that collaborate to detect pathogens🦠. We discovered that a key #ubiquitin recognition event recruits both receptor types into an unexpected dual receptor complex that boost the translation of defence proteins and establishes robust #PlantImmunity👇🏾

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bioRxiv Plant Bio@biorxiv-plants.bsky.social · 6mo ago

Ubiquitin recognition integrates plant immune signaling by cell-surface and intracellular receptors https://www.biorxiv.org/content/10.64898/2026.02.06.703835v1