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Chung Hyun Cho

@chc-evobio.bsky.social
357 followers 456 following 16 posts

Postdoc in the Berger Group at the Gregor Mendel Institute - Vienna BioCenter @gmivienna.bsky.social @viennabiocenter.bsky.social | MSCA Fellow | Interest in evolutionary biology and currently studying chromatin

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Reposted by Chung Hyun Cho
Iñaki Ruiz-Trillo @multicellgenome.bsky.social · 28/09/2026
We have a new branch in the family tree of animals: Atreyea- a previously unrecognized lineage among the closest unicell relatives of animals. Led by @konsmitsi.bsky.social & @freejakoba.bsky.social together with a fantastic team of collaborators. 🔗 papers.ssrn.com/sol3/papers.... #protistsOnSky
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Archaea Biology Vienna @archaea-vienna.bsky.social · 18h
Our paper on the dynamics of Asgard archaea (Promethearchaeota) is now out in Nature! Huge thanks to the reviewers for helping make the manuscript stronger. www.nature.com/articles/s41... Two “Lokis” stained for Lokiactin (FastAct, magenta), reaching toward each other to celebrate 🎉 #archaea
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Philipp Radler @radler92.bsky.social · 18h
The first paper of my PostDoc in Christa Schlepers group (@archaea-vienna.bsky.social) on the dynamics of Asgard archaea is now out in Nature! www.nature.com/articles/s41... This was a great team effort and I am looking forward to uncover the complex behavior of these cells further!
nature.com
Dynamic protrusions mediate crawling motility in Asgard archaea - Nature
Anoxic live-cell imaging shows actin-dependent crawling motility and dynamic protrusions in Asgard archaea, providing insights into cellular innovations that may have contributed to eukaryotic evoluti...
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Archaea Biology Vienna @archaea-vienna.bsky.social · 30/09/2026
Congrats to Dimitri and all co-authors on their new publication! Common Nitrification Inhibitors Exhibit Distinct Mechanisms on the Ammonia-Oxidizing Archaeon Nitrososphaera viennensis A great and in-depth look at SNIs and AOA! @dimdalk.bsky.social #archaea #omics doi.org/10.1021/acs....
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Julia Van Etten @couchmicroscopy.bsky.social · 29/09/2026
Spread the word! I’m looking to recruit a PhD student to grow the Paulinella project. Some details can be found here: www.vanettenlab.org/join
vanettenlab.org
Join! — Van Etten lab at UMD
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Svetlana Dodonova @dodonova-sveta.bsky.social · 30/09/2026
New preprint from Dodonova lab 🔔! Capturing multiple states by cryo-EM❄️, we show for the first time how archaeal RNA Polymerase engages a nucleosome and forms direct contacts with histones! 🧬 Great work by Gabriele & a fantastic collaboration with Dina Grohmann! 🧵 www.biorxiv.org/content/10.6...
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Rasmus Jensen @rasmusjensen.bsky.social · 25/09/2026
🎉 Out today in Cell: the paper I've been looking forward to sharing for a long time 🎉 We used cryo-ET to find a molecular machine nobody knew existed on the surface of a minimal bacterium, and worked out what it does. 🧵(1/7) #TeamTomo #cryoET
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Maya Voichek @mayavoichek.bsky.social · 24/09/2026
Super excited to share my postdoctoral work at @imbavienna.bsky.social @viennabiocenter.bsky.social - We discovered that some retrotransposons, or "jumping genes" 🧬, are able to spread from cell to cell via a new viral infectivity route. A short thread: 🧵👇 (1/7)
AI-generated illustration of the soma-to-germline transmission of retrotransposons described in our work
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Institute of Molecular Biotechnology @imbavienna.bsky.social · 23/09/2026
Can “jumping genes” spread like viruses? New research from the Brennecke lab at IMBA shows that, in fruit flies, certain transposable elements can break out of their own cell and slip into developing eggs—securing their passage to the next generation. Published in Cell: imba.science/4jdMuYQ
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Cell - a Cell Press journal @cp-cell.bsky.social · 23/09/2026
Now online! Direct cell-to-cell transmission of retrotransposons
dlvr.it
Direct cell-to-cell transmission of retrotransposons
Retrotransposons can infect neighboring cells using a mechanism that relies on a small fusogen-like protein rather than on the envelope protein that is typically required for infection.
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Reposted by Chung Hyun Cho
Nika Pende @nikapende.bsky.social · 23/09/2026
So happy to see this paper finally out 🥳 it took only seven years after the first purification of archaeal peptidoglycan 🤣 Congrats to all the people involved 🥂🍾 And here is the story behind the paper: communities.springernature.com/posts/cracki...
communities.springernature.com
Cracking the Archaeal Cell Wall: How a hydrolase overturned a 50-year-old paradigm
Using bioinformatics, biochemistry, NMR, as well as the newly characterized enzyme ArmA from methanogenic archaea, we revised the existing knowledge on archaeal peptidoglycan structure. At the same ti...
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Simonetta Gribaldo @sgribaldo.bsky.social · 23/09/2026
Interested in #archaea, #methane, #cell-envelopes? New paper out @nature.com ! We discovered an enzyme that specifically cleaves the cell wall of methanogens, revealing a new chemical structure of archaeal peptidoglycan, 50 yrs after its first description www.nature.com/articles/s41... #MicroSky 🧵👇
nature.com
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H. B. Beryl Rappaport @hbrappap.bsky.social · 22/09/2026
Our description of fire amoeba, 𝘐𝘯𝘤𝘦𝘯𝘥𝘪𝘢𝘮𝘰𝘦𝘣𝘢 𝘤𝘢𝘴𝘤𝘢𝘥𝘦𝘯𝘴𝘪𝘴, is now online at Cell! Thanks @oliverio.bsky.social and amazing team for questioning the limits of eukaryotes! 🔥 www.cell.com/cell/fulltex...
cell.com
A geothermal amoeba sets a new upper temperature limit for eukaryotes
The amoeba Incendiamoeba cascadensis demonstrates that eukaryotic life can withstand temperatures beyond what was thought possible and sheds light on molecular strategies for survival in extreme heat.
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Kazuhiro Maeshima @kazu-maeshima.bsky.social · 18/09/2026
🧬 Our “Behind the Paper” is now online at Nature Communities: “Active chromatin is not simply open—it forms compact domains that cohesin keeps from mixing.” 📖 A short story behind our recent @natgenet.nature.com paper. communities.springernature.com/posts/active... www.nature.com/articles/s41...
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Reposted by Chung Hyun Cho
Hiro Imachi @hiro-imachi.bsky.social · 17/09/2026
An interview article has been published in Nature. It focuses on the cultivation of Asgard archaea (formally, the phylum Promethearchaeota). www.nature.com/articles/d41...
nature.com
These bizarre, much-coveted microbes are revealing the origins of complex life
Researchers are racing to culture a menagerie of exotic organisms and finding lots of surprises along the way.
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bioRxiv Molecular Biology @biorxiv-molbio.bsky.social · 13/09/2026
Single-residue variation in the nucleosome core reveals a regulatory hub for phenotypic innovation www.biorxiv.org/content/10.64898/20…
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Buzz Baum @buzzbaum.bsky.social · 11/09/2026
The brilliant Kris Kuo, with help from Fabian and the Werner lab, has identified a key driver of cyclic gene expression in Sulfolobus, which has a cell cycle but no CDK/cyclins. Amazingly, TFB2 has a cyclin box that regulates its degradation as cells exit division. Another reason to love archaea!
biorxiv.org
A TFIIB paralog drives cyclic transcription to orchestrate the archaeal cell cycle
Cyclic transcription is a hallmark of the cell cycle. While transcriptional waves in eukaryotes are driven by oscillations in cyclin-dependent kinase (CDK) activity, many archaea have an ordered cell ...
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Florian Mayer @florianmayer.bsky.social · 11/09/2026
Excited to share our preprint on Ignicoccus cell divison: only the inner membrane divides, progeny cells accumulate in cell clusters and pop-out! www.biorxiv.org/content/10.6... Great work with the labs: @buzzbaum.bsky.social @curiousdina.bsky.social @anja1.bsky.social @tbharat-lab.bsky.social
biorxiv.org
The life cycle of an archaeon with multiple membranes
Many prokaryotes are diderms. They divide using an FtsZ division ring to simultaneously constrict physically coupled inner and outer membranes to form daughter cells with two membranes. Currently, onl...
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Anton Goloborodko @golobor.bsky.social · 03/09/2026
1/ out in @science.org! We found a new asymmetry in large-scale chromosome structure: sister chromatids are shifted by hundreds of kb in the 5′→3′ direction of their inherited strands! A close collaboration w/ @gerlichlab.bsky.social , led by @flaviacorsi.bsky.social www.science.org/doi/10.1126/...
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Thibaut Brunet @thibautbrunet.bsky.social · 02/09/2026
🚨 New preprint alert! 🚨 Choanoflagellates reorganize their global cytoskeletal architecture within seconds to explore confined microspaces. This is the main PhD work of the amazing @maitefreired.bsky.social www.biorxiv.org/content/10.6... A tread 🧵⬇️
biorxiv.org
Rapid repurposing of microvillar content drives a flagellate-to-amoeboid switch in the closest relative of animals
Animal cells extensively remodel their cytoskeleton during differentiation and can notably switch between two major motility modes: flagellum-based swimming and actin-based crawling. We previously sho...
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MRC Laboratory of Molecular Biology @mrclmb.ac.uk · 01/09/2026
Using advanced microscopy @piotrkolata.bsky.social @a-dsantos.bsky.social @tomdendooven.bsky.social @matteoall.bsky.social have identified the molecular anatomy & organisation of proteasomes in the sperm nucleus. Read more about the study here: mrclmb.ac.uk/news-events/... #LMBResearch 🧪
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Katharina Hoff @katharinahoff.bsky.social · 31/08/2026
A revolution in annotating protein coding genes in eukaryotes: Richard Krieg, Joscha Diehl & @masta.bsky.social developed Vipsania, a genome foundation model with integrated HMM-layer: www.biorxiv.org/content/10.6... 🎉💐 So impressive work! Congratulations!
biorxiv.org
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Mart Krupovic @mkrupovic.bsky.social · 26/08/2026
Check out our paper on ESCRTs in large DNA viruses. Most enveloped viruses use the host #ESCRT for envelopment, but only mirusviruses and nucleocytoviricots encode it! Congrats @sonaida.bsky.social, @tomdelmont.bsky.social, Ulysse Guyet & Eugene Koonin. @pasteur.fr www.nature.com/articles/s41...
nature.com
Large eukaryotic DNA viruses encode ESCRT machinery for membrane remodelling - Nature Microbiology
A genomic screen reveals homologues of ESCRT components in mirusviruses that infect unicellular aquatic eukaryotes.
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Irma Querques @irmaquerques.bsky.social · 25/08/2026
🎉 Our first paper from the Querques lab is out! We uncover the molecular checkpoints controlling cut-and-paste transposition by CRISPR-associated transposons. Congrats to Mateusz & the whole team! 🧬 www.nature.com/articles/s41... @univie.ac.at @meduniwien.ac.at
nature.com
Transposon end recognition and excision mechanisms of type I-F CRISPR-associated transposases - Nature Communications
CRISPR-associated transposons mediate RNA-guided DNA integration, but the molecular basis of transposase function remains poorly understood. Here, the authors uncover the mechanism of a highly active ...
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IMP @impvienna.bsky.social · 25/08/2026
The IMP lab of Alexander Stark used AI to design enhancers—DNA switches controlling gene activity—for specific mouse tissues: the first from-scratch design in a mammal. News: imp.ac.at/news/article/ai-learns-to-write-code-that-activates-genes-in-mammals Paper: nature.com/articles/s41588-026-02729-1
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Franzi Lorbeer @florbeer.bsky.social · 21/08/2026
0/ New preprint from the Stark and Grün labs! @reyna-rosales.bsky.social @dominicgrun.bsky.social @alex-stark.bsky.social We developed BARe-seq to ask what in the DNA controls transcriptional bursting - key findings for anyone working on transcription, gene regulation, or cis-regulatory elements 🧵
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Paul Villain @paul-villain.bsky.social · 24/08/2026
Delighted to finally share the preprint on this crazy project! Deleting all the major NAPs of E. coli is viable. The strain, while fragile, grows surprisingly well. But, what happens with transcription, genome compaction, genome organisation...? Find out here: www.biorxiv.org/content/10.6...
biorxiv.org
Chromatin is dispensable for bacterial life
Inside cells, DNA is intimately associated with proteins, forming chromatin. The protein constituents of chromatin vary across the tree of life: histones are the principal building blocks of chromatin...
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Tobias Warnecke @tobiaswarnecke.bsky.social · 22/08/2026
Who needs chromatin anyway...? NOT THIS GUY! www.biorxiv.org/content/10.6... 1/n
biorxiv.org
Chromatin is dispensable for bacterial life
Inside cells, DNA is intimately associated with proteins, forming chromatin. The protein constituents of chromatin vary across the tree of life: histones are the principal building blocks of chromatin...
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Robert Arkowitz @robertarkowitz.bsky.social · 21/08/2026
RAD51 stabilizes neutrophil extracellular traps to compartmentalize inflammation | Science www.science.org/doi/10.1126/...
science.org
RAD51 stabilizes neutrophil extracellular traps to compartmentalize inflammation
Neutrophil extracellular traps (NETs) feature a branched chromatin architecture whose origin and function remain unknown. We found that NET branching is mediated by RAD51, a protein generating DNA jun...
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Trends in Microbiology @cp-trendsmicrobiol.bsky.social · 22/08/2026
The narrowing prokaryote–eukaryote divide reveals a complexity spectrum
dlvr.it
The narrowing prokaryote–eukaryote divide reveals a complexity spectrum
Cellular organisms can be divided into two basic types of cells: the prokaryotic cells of Bacteria and Archaea and the eukaryotic cells. The rapidly expanding knowledge of the diversity and ultrastructure of prokaryotic cells has revealed cellular intricacies that warrant a critical reappraisal of the profundity of the prokaryote–eukaryote divide.
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Darrin T. Schultz @dts.bsky.social · 19/08/2026
I'm thrilled to share that I've started as an Assistant Professor in Biological Sciences and the Oceans Research Center at Lehigh University! I'm building a group in evolutionary genomics to study the origin of animals, and to use those concepts to better understand human disease. More: evogeno.me
Darrin Schultz, a man with curly dark hair and tortoiseshell glasses, smiling at the camera in a brown blazer over a blue patterned shirt with sunglasses hooked on the collar, standing in front of a stone wall.
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Darrin T. Schultz @dts.bsky.social · 19/08/2026
Our new paper in Science Advances asks how animals' genomes have changed since their origin from a common ancestor over 600 million years ago, and what patterns in their DNA have arisen in the churn of speciation and extinction. www.science.org/doi/10.1126/...
Five-panel diagram explaining fusion-with-mixing in chromosome evolution. Red and blue represent two different ancestral chromosomes throughout.

A, Fusion-with-mixing: a red chromosome and a blue chromosome fuse into one half-red, half-blue bar. Down the page, successive rows show inversions, drawn as X-shaped crossings between rows, progressively interleaving the two colors until the bottom bar is finely striped. A widening gray wedge labeled Entropy runs alongside an arrow marked Time plus evolution, pointing down.

B, Independent regulation: two separate chromosomes, one red and one blue. In each, a regulatory element, drawn as an oval, acts by an arrow on a gene within its own chromosome only.

C, FWM and novel regulation: on a fused, mixed chromosome, a red gene and a blue gene now sit next to each other across an inversion breakpoint. Red and blue arrows show regulatory elements reaching across it to act on the other chromosome's gene.

D, Regulatory entanglement: an extensively mixed chromosome, finely striped. Below it, a row of alternating red and blue genes is linked by a dense web of crossing curved arrows, so many overlapping regulatory connections that unmixing the chromosome would break them.

E, Emergence of entangled loci: a five-species phylogeny. A red and a blue chromosome fuse at an ancestral node, and helical icons on later branches mark continued mixing. Colored boxes mark four new red-blue regulatory interactions arising after inversions. Species A keeps its two chromosomes separate. In species B through E, the two earliest interactions, cyan boxes 1 and 2, are present in every descendant lineage, while later ones, yellow 3 and magenta 4, appear in fewer.
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Silvia Ramundo @sramundo.bsky.social · 19/08/2026
A stress response can be a great starting point for discovering new biology! By following genes regulated during the chloroplast unfolded protein response, we’re discovering novel factors involved in chloroplast homeostasis. Here’s the first one we characterized: www.pnas.org/doi/10.1073/...
pnas.org
VIA1 is a conserved regulator of thylakoid membrane integrity that acts through VIPP1 | PNAS
Thylakoid membranes are indispensable for oxygenic photosynthesis, yet the mechanisms that protect these membranes from photooxidative damage remai...
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Sergio Muñoz-Gómez @sergiophyceae.bsky.social · 18/08/2026
A new preprint from the lab! "Green algal symbionts are stably retained and provisioned in the dark despite a clear physiological cost" www.biorxiv.org/content/10.6...
biorxiv.org
Green algal symbionts are stably retained and provisioned in the dark despite a clear physiological cost
Photosymbioses, or associations between heterotrophs and photoautotrophs, are widespread and indispensable in today's ecosystems. The chloroplasts of algae and land plants, which are at the heart of m...
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Evgenii Protasov @evgenii-protasov.bsky.social · 16/08/2026
Bottom-up reconstruction of synthetic pyrenoids provides insights into the mechanisms and evolution of carbon concentration by EPYC1 proteins #photosynthesis #evolution #plants www.nature.com/articles/s41...
nature.com
Bottom-up reconstruction of synthetic pyrenoids provides insights into the mechanisms and evolution of carbon concentration by EPYC1 proteins - Nature Plants
This study shows that the structural protein essential pyrenoid component 1 (EPYC1) and the enzyme Rubisco are sufficient to assemble into pyrenoid-like structures that are functionally active and sho...
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Teresa Rayon @trayon.bsky.social · 15/08/2026
Our work on the role of the proteasome in developmental tempo is out!!!! 🐭⌛️👤⏳ Six years after identifying an association between protein stability and developmental tempo, we now demonstrate a causal link between protein turnover and developmental tempo through proteasomal degradation
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Julia Meltzer @juliameltzer.bsky.social · 13/08/2026
Excited to share what I've been working on with an incredible team! Visualisation of Asgard viruses on cell surfaces and vesicles, and a story of complex viral interactions. Preprint: www.biorxiv.org/content/10.6... @brendanburns999.bsky.social @belindaferrari.bsky.social @xabivc.bsky.social
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Archaea Biology Vienna @archaea-vienna.bsky.social · 15/08/2026
Excited to share the final version of this great project! Oxygen production as an electron overflow pathway in ammonia-oxidizing archaea www.science.org/doi/10.1126/... #archaea #oxygen #AOA #nitrification #physiology
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Cell - a Cell Press journal @cp-cell.bsky.social · 13/08/2026
Now online! Functional atlas of vertebrate viral RNA elements that stabilize RNA and enhance translation
dlvr.it
Functional atlas of vertebrate viral RNA elements that stabilize RNA and enhance translation
Functional profiling of ∼200,000 genomic segments from vertebrate-infecting viruses uncovers RNA elements that boost gene expression by stabilizing mRNAs and enhancing translation, revealing the diversity of TENT4-dependent mixed tailing and identifying canonical poly(A) polymerase-mediated cytoplasmic polyadenylation, together expanding our understanding of post-transcriptional regulation and RNA therapeutic design.
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Sean Montgomery @seanamontgomery.bsky.social · 03/08/2026
Glad to see this out at last! Check out Arnau's summary below for all the highlights
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Arnau Sebé-Pedrós @arnausebe.bsky.social · 03/08/2026
Happy to share the final version of our study on the evolution of chromatin states across eukaryotes, out today in @natgenet.nature.com Led by @crisnava.bsky.social and @seanamontgomery.bsky.social www.nature.com/articles/s41... Some highlights below
nature.com
Diversity and evolution of chromatin regulatory states across eukaryotes - Nature Genetics
This study introduces iChIP2, a low-input chromatin immunoprecipitation followed by sequencing method that profiles histone post-translational modifications (hPTMs) simultaneously across diverse eukar...
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Thomas Mock @thomasmock.bsky.social · 01/08/2026
Fascinating seaweeds of the UK www.bbc.co.uk/news/article...
bbc.co.uk
How scientists finally confirmed rare pink seaweed as new species
An ancient algae first spotted four decades ago will now join the collection of the Natural History Museum.
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jpgerdt.bsky.social @jpgerdt.bsky.social · 24/07/2026
Ruibao's first paper from the lab is out in @nature.com . www.nature.com/articles/s41.... Collab with @multicellgenome.bsky.social & @jennahed.bsky.social. How did cells stick together and form the first animals? The protist Ministeria suggests cellular aggregation had a role. @iuqcb.bsky.social
nature.com
A unicellular relative links aggregative multicellularity to animal origins - Nature
Aggregative multicellularity was key to the evolution of the multicellular animal genetic toolkit.
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sbulgheresi.bsky.social @sbulgheresi.bsky.social · 22/07/2026
Our new preprint is out! We investigate chromosome organization in obligate mammalian symbionts and show that these bacteria maintain stable chromosome orientations while displaying conserved lifestyle-associated chromosome architectures across species. www.biorxiv.org/cgi/content/...
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Tobias Warnecke @tobiaswarnecke.bsky.social · 29/07/2026
Bacteriocins in archaea and archaeocins in bacteria. @romainstrock.bsky.social surveys the the exchange of molecular weaponry between archaea and bacteria. www.biorxiv.org/content/10.6...
biorxiv.org
Bacteriocins in archaea and archaeocins in bacteria
Archaea and bacteria routinely live side by side in microbial communities and must interact at least on occasion. Whether such cross-Domain interactions are dominated by mutual disregard, co-operation...
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Romain Strock @romainstrock.bsky.social · 29/07/2026
Preprint alert: the final two chapters of my thesis are out! www.biorxiv.org/content/10.6... Bacteriocins in archaea and archaeocins in bacteria: a computational journey into the search for weaponry borrowed from another domain of life. A short 🧵
biorxiv.org
Bacteriocins in archaea and archaeocins in bacteria
Archaea and bacteria routinely live side by side in microbial communities and must interact at least on occasion. Whether such cross-Domain interactions are dominated by mutual disregard, co-operation...
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Varsha Mathur @varshamathur.bsky.social · 21/07/2026
So happy to share our new paper out now in @natmicrobiol.nature.com! We establish Pirsonia-Coscinodiscus as a model pathosystem and uncover how this tiny parasite infects and kills bloom-forming marine diatoms 🌊🦠 rdcu.be/fuQyF
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Aude Bernheim @audeber.bsky.social · 21/07/2026
Out @cp-cellhostmicrobe.bsky.social, natural products meet bacterial immunity! We used genomics to identify lanthivirins: a family of >2,000 lanthipeptide BGCs that protect Actinobacteria against phages. Led by @hshomar.bsky.social & @mariegllm.bsky.social www.sciencedirect.com/science/arti...
sciencedirect.com
A family of lanthipeptides with anti-phage function
Bacteria produce natural products to adapt to their environments, with phage interactions as major ecological and evolutionary drivers. While some nat…
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Jakob Schnabl-Baumgartner @jakobschnabl.bsky.social · 07/07/2026
www.cell.com/molecular-ce... I'm happy to see our work published! If you are interested in transposons, transcriptional regulation and Pol III come and check it out 👀 🧫 🧬
cell.com
ChAHP silences SINE retrotransposons by inhibiting TFIIIB recruitment
SINEs are short transposable elements that make up large fractions of mammalian genomes. Known to be transcribed by RNA polymerase III, their regulation has remained largely unexplored. Schnabl-Baumga...
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Michael Borg @borglab.bsky.social · 07/07/2026
Our group is moving from @mpi-bio-fml.bsky.social to the maritime city of Kiel! ⛵️🩵 I will lead the Department of Marine Plant Development and Physiology @uni-kiel.de 🌱🪸🌊 Look out for opportunities to join us in this exciting & growing hub for Plant, Marine & Evolutionary Biology in North Germany 🇩🇪
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