Plant cells and development, Plant-microbe research, Phytophthora, oomycetes & symbiotic fungi, TAL effectors (TAL DNA binding code codiscoverer) and Coleoptera

Cambridge, UK
Joined July 2009
How do "friendly" rhizobia build a legume nodule? @AlbinTeulet found that Type III effectors of symbiotic Rhizobia include diverse predicted transcriptional and post-transcriptional modulators. journals.plos.org/plosbiolog… Now @PLOSBiology
How do "friendly" rhizobia build a legume nodule? @AlbinTeulet found that some may carry hidden transcription factors - proteins that mimic DNA-binding folds to enter the plant nucleus and rewrite its developmental program. biorxiv.org/content/10.64898… (1/6)
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Sebastian Schornack retweeted
Plant Microbe Enthusiasts! Don't forget to register for FREE to hear ISMPMI Legend Eva Kondorosi talk about the power of symbiosis. see below for the link.
Plant Microbe Enthusiasts! Register for our next FREE Road to Jeju Legends in IS-MPMI Webinar featuring Eva Kondorosi, happening October 28, 2026: uchicago.zoom.us/webinar/reg…
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New research. Conveniently, Marchantia has relatively few transcription factors. Yet, we need to leverage on that at the family scale to have a more comprehensive picture. In this paper, we focused on ERFs, the second largest TF family. #PlantScience biorxiv.org/content/10.64898…
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Sebastian Schornack retweeted
This is a DUNG BEETLE! 🤯🪲 The Amazon is full of so many incredible insects, but this giant dinosaur Dung Beetle is one of my favourites! 🥰💚
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How do plants read chitin length? The receptor CHIP13 works like a molecular measuring tape. What began 13 years ago with a recalcitrant protein is now in @ScienceMagazine Thanks to all co-authors and colleagues! @MolBiolAU doi.org/10.1126/science.adz4…
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畑に芽生え始めたカラスノエンドウ。 根では根粒菌と菌根菌がコラボ。
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I just published: Rhizobial Treasure Hunts From the Swiss Alps to the Sahara, new twists in an old symbiosis - and new opportunities to discover them. kamounlab.medium.com/rhizobi…
🤖 Made with AI
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Great talk by @dromius on the #cellbiology of #MPMI @michiganstateu and some very very cool imaging data
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FREは内生菌糸が自由奔放な感じ。 そして細く濃く染まる。
根の皮層細胞に形成されたアーバスキュラー菌根菌の樹枝状体。 菌糸は細いけどこれはFREではなくAMF
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We're at #NewScientistLive in London this weekend - use a scanning electron microscope, see like a bee, dive into computational modelling and chat to our scientists. #NSL2026 #PlantScience
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Symbiotic Bacteria Carry a Hidden Arsenal of Gene-Controlling Weapons, Structural Study Reveals bioengineer.org/symbiotic-ba…
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Sebastian Schornack retweeted
Our new preprint is out: how effector manipulation of a host enzyme is indirectly detected by plant NLR immune receptors. Great work led by @EnochYuen with @nickeilmann and Yijun Wang.
🚨 How do plants detect when pathogens hijack their enzymes? 🦠 📄 Our new preprint shows effectors exploit TOPGAP, a Rab GAP regulating membrane trafficking 🚚 🌱 Plants sense its deregulation via the helper NLR NRC4 and execute cell death 💀 🔗 doi.org/10.64898/2026.10.06.…
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Sebastian Schornack retweeted
🧩 Our summary model: Phytophthora effectors bind TOPGAP and deregulate its GAP activity. 💀 PiE355 and TIKI trigger cell death involving NRC4 and TOPGAP's GAP activity. 🦠 PiE354 evades detection and promotes susceptibility. ❓ How the outcomes diverge remains a mystery.
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New Episode: How to Design Flowers @NickDesnoyer uses genetic engineering, breeding, and pathogens to design and then create flowers that don't exist anywhere else on Earth. We talked about how he does it, in a room surrounded by many of his creations. At the start of the episode, Nick reveals his next project, called Paintunia, which is an engineered line of petunia that acts as a living canvas. He has engineered these petunias to include an inducible gene; when he lightly touches their buds with a molecule called dexamethasone, the molecules seep into cells, switch on the gene, and cause them to make a pigment. The result is a paintable flower, where molecules literally control which colors show up in particular places. Nick’s plan is ultimately to engineer these petunias to express three separate colors, for cyan, magenta, and yellow. Nick's ultimate dream is to build a botanical garden full of weird and wonderful flowers that exist nowhere else. We filmed this episode surrounded by flowers, and he patiently explained to me how each one gets its shape and pigmentation; how he combines breeding and genetic engineering to make new flowers; and how he searches scientific papers for mutations to figure out which plant crosses to make next. I think he convinced me that designing new kinds of flowers makes us look more closely at nature, and appreciate it more deeply. After all, all the genes and variations he uses in the laboratory are based on designs that have evolved elsewhere. Hope you enjoy!
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The miPEP408-miR408 module regulates plant susceptibility to Rhizoctonia solani through LAC3-mediated lignin deposition in Arabidopsis #research #PlantCommunications cell.com/plant-communication…
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High Genetic Diversity of Phytophthora palmivora in Colombian Cacao: Evidence Against Geographic Barriers | Phytopathology® apsjournals.apsnet.org/doi/1…
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