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Rubin Lab

@therubinlab.bsky.social
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News from the Rubin Lab 🧬🧫 We conduct DNA-level editing of microbial communities for understanding and control. Managed by lab members. @innovativegenomics.bsky.social @ucberkeleyofficial.bsky.social 🔬🌁 🔗 therubinlab.org

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bioRxiv Microbiology @biorxiv-microbiol.bsky.social · 11h
Competition among viral elements for VIPR RNA-directed genome silencing www.biorxiv.org/content/10.64898/20…
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James Gurney @jamesgurney.bsky.social · 21h
New preprint from the Gurney Lab, on bioRxiv: The Phage Time Continuum: Genome Organization Constrains Anti-CRISPR Success. www.biorxiv.org/content/10.6... I think this is one of the cooler things I'll ever do. Work lead by @sczerwinski.bsky.social he coined the term Phage Time Continuum. 1/10
biorxiv.org
The Phage Time Continuum: Genome Organization Constrains Anti-CRISPR Success
Bacteria and lytic phages experience antagonistic co-evolution, with bacterial defenses (e.g., CRISPR-Cas) battling phage anti-defenses (e.g., anti-CRISPR (Acr) systems). We investigate whether CRISPR...
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Sorek Lab @soreklab.bsky.social · 16/10/2026
Very nice discovery from the Jackson, Bravo and Basel labs. Cleaved tRNA ends, loaded with an amino acid, activate a form of bacterial immunity
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Cell Host & Microbe @cp-cellhostmicrobe.bsky.social · 15/10/2026
Dual sensing activates antiviral reverse transcriptase for membrane targeting Phage DNA binding proteins or dGTP activate DRT2 to synthesize repetitive neo gene by rolling-circle reverse transcription. Neo depolarizes bacterial membranes & induces death www.cell.com/cell-host-mi...
cell.com
Dual sensing activates antiviral reverse transcriptase for membrane targeting
Xia et al. discovered that phage SSB/SSAP or NrdAB-mediated dGTP elevation activates DRT2 to synthesize a repetitive neo gene by rolling-circle reverse transcription. The resulting Neo protein depolar...
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Panos Spatharas @pspatharas.bsky.social · 14/10/2026
1/1 How does a single methyl group activate bacterial defence? In my PhD work with @matthiaswilmanns.bsky.social and @typaslab.bsky.social, we reveal how this tiny DNA modification triggers retron disassembly and toxin activation. Now on bioRxiv: www.biorxiv.org/content/10.6...
biorxiv.org
Single-site DNA methylation activates retron defence by enabling effector tetramerisation
Retrons are unique among bacterial defence systems in using DNA to sense phage infection. They achieve this by producing multicopy single-stranded DNA (msDNA) that monitors the activity of DNA-targeti...
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Jennifer Tsang @jtsangwrites.bsky.social · 14/10/2026
Can a 1,000 year old remedy teach us something about modern antimicrobials? I thoroughly enjoyed speaking with @friendlymicrobe.bsky.social and @tosinorababa.bsky.social to learn about their work on Bald's eyesalve. Details on my blog: microbialmenagerie.com/balds-eyesal... #AMR #MicroSky
microbialmenagerie.com
A closer look at Bald’s eyesalve, an ancient remedy with antimicrobial properties
When you think of ancient medicine, what comes to mind? Potions? A concoction of herbal ingredients bubbling away? Old books full of recipes? Before modern medicine, people have been creating ways …
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Molecular Cell @cp-molcell.bsky.social · 13/10/2026
Online Now: Reverse transcribed ssDNA derepresses translation of a retron antiviral protein Online now:
dlvr.it
Reverse transcribed ssDNA derepresses translation of a retron antiviral protein
Retrons help bacteria defend against phage by initiating a toxic response to restrict viral propagation. Here, Zhang et al. describe the non-canonical mechanism of Retron-Vpa2, which accumulates msDNA in response to phage triggers and regulates its toxic response on a translational level through a highly structured hybrid RNA.
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Sternberg Lab @sternberglab.bsky.social · 13/10/2026
1/5 Telomerase has long been linked to chromosome maintenance in eukaryotes. Now, we show that telomerase-like activity is also present in bacteria, shedding new light on its ancient origins. Excited to share that our work on DRT10 is now out in @nature.com! www.nature.com/articles/s41...
nature.com
Antiviral immunity via telomerase-like reverse transcription in bacteria - Nature
Nature - Antiviral immunity via telomerase-like reverse transcription in bacteria
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Flavien Maucourt @fmaucourt.bsky.social · 12/10/2026
What does it take for a mycobacteriophage to infect M. smegmatis mc² 155? 🦠🗺️ We mapped it for 70 phages using genome-wide CRISPRi. Our new preprint from the Phage Foundry is out! (phagefoundry.org) 🥳🧵 Read the preprint here: www.biorxiv.org/content/10.6...
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Gina Lewin @ginalewin.bsky.social · 12/10/2026
Excited to share a new minireview from my lab led by @anyawoj.bsky.social and Melissa Shinfuku. We highlight how multiple variants of a single bacterial species can coexist in the human body and how this impacts human health. journals.asm.org/doi/10.1128/... #Microsky #Microbiome #Microdiversity
journals.asm.org
No strain, no gain: within-host bacterial microdiversity and human health | Infection and Immunity
The bacterial world is teeming with diversity, from cyanobacteria to episymbiotic Saccharibacteria to the well-studied Escherichia coli. However, even within a single species, organisms vary in their gene content and gene sequences, leading to significant functional differences across very closely related bacteria. For instance, two isolates of E. coli may share only 40% of the same gene content, allowing different strains to function as human pathogens, gut mutualists, or environmental specialists (1–4). Although this population-level diversity in bacteria has been long-recognized, recent studies have increasingly emphasized that a single person can harbor multiple genotypes of a species at the same time within a single body site. High within-host intra-species diversity can occur in the human microbiota, including in the gut, skin, oral cavity, and vagina. Furthermore, although acute infections are primarily monoclonal, chronic infections can often be polyclonal. Both in the microbiota and in chronic infections, this high intra-species diversity can occur when multiple strains colonize a site over time and when bacteria diversify through evolutionary processes.
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Luis E. Valentin-Alvarado @luisvalentin.bsky.social · 09/10/2026
Excited to share our work on bacterial immune signaling! Our preprint reveals how RNA-guided Cas13 cleaves host tRNAs to generate small-molecule messengers that activate 2TMβ, linking RNA recognition to membrane damage and phage defense. 1/11
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Doudna Lab @doudna-lab.bsky.social · 10/10/2026
New preprint! We are excited to share a novel paradigm for generating antiviral second messengers via a CRISPR-associated nuclease. Congrats to first authors @luisvalentin.bsky.social, Peter, and Santiago.
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Antoine Molaro @antoinemolaro.bsky.social · 08/10/2026
Hello World ! Its pre-print time ! Awesome collaboration led by Michel Cohen-Tannoudji (not on Bsky) and the one and only @deborahbourchis.bsky.social. #BFF We solved the molecular mechanism underlying a mysterious hybrid incompatibility in mice: the DDK syndrome. 🧵🍿 www.biorxiv.org/content/10.6...
biorxiv.org
Transposable Element insertions Repurpose Immune Endonucleases as Drivers of Reproductive Isolation in Mice
The emergence of reproductive barriers between closely related populations is a fundamental step in speciation, yet the underlying genetic mechanisms remain poorly understood in mammals. Here we resol...
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Eric Topol @erictopol.bsky.social · 08/10/2026
New @science.org A breakthrough in understanding why do we get fever and an inflammation response to vaccines. The gut microbiome chronic production of flagellin Paves the way to potentially prevent these acute phase side-effects in the future www.science.org/doi/10.1126/...
science.org
The human gut microbiome primes fever after vaccination
Fever is a common adverse reaction to vaccination, contributing to vaccine hesitancy and reduced uptake. To understand variation in fever risk, we longitudinally profiled fecal microbiota, oral temper...
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Tomas Hessler @tomas-hessler.bsky.social · 08/10/2026
I’m happy to share our study out in Microbiome! link.springer.com/article/10.1... Knowing that coculture interactions often disappear in larger communities, we used cocktails of phages to study vitamin exchange interactions within enrichment cultures.
link.springer.com
Phage-based depletion of Variovorax reveals interactions within intact microbiomes - Microbiome
Background Testing microbial interaction hypotheses, including metabolite cross-feeding, remains a major challenge in microbiome research. Phages have the potential to probe organism-organism interact...
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Pavel Payne @pavelpayne.bsky.social · 07/10/2026
Finally, my paper is out! It shows how bacteria can utilize their CRISPR immunity against transducing phages to turn them into "pollinators". This way bacteria can speed up their own adaptation through recombination by two orders of magnitude compared to mutations, and they do so when starving!
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Matt Olm @mattolm.bsky.social · 07/10/2026
My final postdoc project is out today in Nature! We show microbes co-migrated with humans out of Africa; three independent methods agree, and timing matches archaeological / genetic evidence (Fig. 4c). Seeing Fig. 4c for 1st time was one of my most memorable "eureka" moments! doi.org/10.1038/s415...
doi.org
Prehistoric global migration of vanishing gut microbes with humans - Nature
Microbial species disappearing from industrialized populations have evolved with humans over millennia and migrated worldwide with them—this may have consequences for human health.
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Vincent Burrus 🇨🇦💙💛 @vincentburrus.bsky.social · 05/10/2026
#plasmidbiology #plasmid Just out! 🚀 Thrilled by our discovery: the function of the C-terminal domain of MOBH1 relaxases! We uncovered this thanks to a fertility inhibitor encoded by a parasitic mobile genetic element. Congrats to Florence on a great piece of work! 👏 academic.oup.com/nar/article/...
academic.oup.com
Conjugative transfer inhibition of IncA and IncC plasmids by SGI1-like elements via relaxosome assembly interference
Abstract. Broad-host-range IncA and IncC (A/C) conjugative plasmids propagate multidrug resistance in bacteria and mobilize chromosomal resistance islands,
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bioRxiv Microbiology @biorxiv-microbiol.bsky.social · 06/10/2026
Uncovering novel phage defense systems through genomic island analysis in Streptococcus thermophilus www.biorxiv.org/content/10.64898/20…
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Saria McKeithen-Mead, PhD @sciria.bsky.social · 05/10/2026
Pleased to share my first preprint from my postdoc, where I ask what drives mobile DNA movement between bacterial cells in complex communities like the gut microbiome. To answer this, we built a way to capture mobile DNA in the act of moving between cells, using short-read metagenomics. 🧵
doi.org
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Science Magazine @science.org · 05/10/2026
Exclusive: A new analysis refutes James Watson’s claim that he was the first to recognize the significance of the famed photograph 51. scim.ag/4rTKck8
scim.ag
How did Rosalind Franklin miss the helix in her iconic DNA image? She didn’t
New analysis refutes James Watson’s claim he was first to recognize significance of famed photograph 51
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Sternberg Lab @sternberglab.bsky.social · 05/10/2026
1/2 Here we report the activity of Arc, a 50-aa DNA-binding protein encoded within IS605-family transposons. www.biorxiv.org/content/10.6...
biorxiv.org
Arc represses gene expression in IS605-family transposons
Bacterial insertion sequences (IS) are compact transposable elements that encode proteins required for their mobility and maintenance, yet many also encode accessory proteins with poorly understood fu...
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Hoong Chuin Lim @hclim.bsky.social · 02/10/2026
www.biorxiv.org/content/10.6... New preprint from my lab revealing molecular conflicts between host replication and antiviral defense. RecBCD prevents this conflict by clearing immunogenic DNA ends produced during normal replication termination. #MicroSky #PhageSky
biorxiv.org
RecBCD Prevents Bacterial Autoimmunity by Clearing Self-DNA Ends Produced During Replication Termination
Viral-induced DNA damage triggers both eukaryotic and prokaryotic innate immunity. Here, we report that self-DNA ends generated routinely during normal termination of bacterial replication suffice to ...
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Nature Reviews Microbiology @natrevmicro.nature.com · 02/10/2026
New online! How bacterial immune systems sense phage infection
dlvr.it
How bacterial immune systems sense phage infection
Nature Reviews Microbiology, Published online: 02 October 2026; doi:10.1038/s41579-026-01376-xBacteria deploy diverse immune systems to counter phage infection, yet how these systems sense invasion remains incompletely understood. This Review categorizes phage-derived triggers and outlines emerging principles that govern immune recognition of phage infection.
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Andrew Santiago-Frangos @asantiagofrangos.bsky.social · 01/10/2026
Our lab's first preprint! The antiphage protein Tiamat is an ATPase and DNase with homologs across the tree of life. What started as undergrad Shirley Yuan's summer project grew into a paper and a collaboration with @jpkbravo.bsky.social's group. Link: www.biorxiv.org/content/10.6...
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Kranzusch Lab @kranzuschlab.bsky.social · 01/10/2026
Our story with @hobbslabutah.bsky.social discovering CBASS sensing of phage proteases out now in @science.org New data include CBASS recognition of diverse proteases beyond T4, and verifying CD-NTase activation loop cleavage as the trigger for defense in vivo www.science.org/doi/10.1126/...
science.org
Phage proteases activate CBASS antiphage immunity
Cyclic oligonucleotide–based antiphage signaling systems (CBASS) are bacterial immune pathways evolutionarily related to cGAS-STING (cyclic GMP-AMP synthase–stimulator of interferon genes) in humans. ...
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Chris Simms @chrisnsimms.bsky.social · 30/09/2026
The original research is published in @nature.com, here: www.nature.com/articles/s41...
nature.com
Sugar-rich foods exacerbate antibiotic-induced microbiome disruption - Nature
Avoiding a diet rich in simple sugars during treatment with antibiotics may mitigate microbiota disruption.
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Samuele Laudani @samuelelaud.bsky.social · 29/09/2026
Very excited to share that our paper from the Benakis Lab is now published in Cell! 🎉🧠 Huge thanks to @benakis-lab.bsky.social for the opportunity to be part of this project! 🚀 www.cell.com/cell/fulltex...
cell.com
Gut microbiota primes stroke severity via the AHR in intestinal dendritic cells
Indole-producing Escherichia coli worsens ischemic stroke through the activation of aryl hydrocarbon receptor signaling in dendritic cells. Limiting AHR signaling in DCs promotes gut-derived DC migrat...
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Vivek Mutalik @vivekmutalik.bsky.social · 29/09/2026
In our brand new 🥳 review, @hemaa-selvakumar.bsky.social & team pull a scattered literature in phage biology into a coherent framework for scaling up to engineering complex communities. We poured our hearts into this to share challenges & future opportunities for the nextGen!
Next generation application space with systematic characterization of phage-host interaction landscapes.
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Avery Noonan @averynoonan.bsky.social · 16/11/2025
We built GenoPHI: a machine learning workflow that predicts phage-host interactions at strain level. This could help rapidly select phages to treat drug-resistant bacterial infections or for microbiome engineering without exhaustive lab testing. www.biorxiv.org/content/10.1...
biorxiv.org
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Sternberg Lab @sternberglab.bsky.social · 28/09/2026
1/13 — New pre-print from the Sternberg Lab in collaboration with Leifu Chang's Lab! TnpB nucleases have repeatedly given rise to TldRs, nuclease-dead RNA-guided transcription factors. Here we define the biological role of one TldR clade in its native host. Story: www.biorxiv.org/content/10.6...
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Nature @nature.com · 28/09/2026
Gene-editing techniques could soon allow researchers to replace entire genes and engineer complex cellular circuits — if the systems can be delivered safely into cells go.nature.com/4z4UP5W
go.nature.com
Bigger than CRISPR? A guide to the latest genome editors
Gene-editing techniques could soon allow researchers to replace entire genes and engineer complex cellular circuits — if the systems can be delivered safely into cells.
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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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Jörg Stülke @joergstuelke.bsky.social · 26/09/2026
Identification of a novel RNA-modifying enzyme! RlmS! #SubtiWiki www.pnas.org/doi/10.1073/...
pnas.org
Activity-based profiling of bacterial RNA-modifying enzymes reveals species-specific 5-methyluridine modification in Bacillus subtilis 23S rRNA | PNAS
RNA modifications play an important role in biological processes. Mapping the diversity of RNA chemistry and studying the biological function of in...
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Dorentina Humolli @humollidorentina.bsky.social · 25/09/2026
Very happy to share that HIDEN-SEQ is now out in @natmicrobiol.nature.com! Using this technique, we recapitulated decades of established phage genetics and uncovered new gene functions, including previously unknown anti-defense factors against several defense systems. www.nature.com/articles/s41...
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Tominaga K. (tomiken) @pacyc184.bsky.social · 25/09/2026
Defining the essential genome of diverse phages with phage Tn-seq | Nature Microbiology
nature.com
Defining the essential genome of diverse phages with phage Tn-seq - Nature Microbiology
Phage Tn-seq uses Tn5 transposon mutagenesis with anti-CRISPR-based selection and deep sequencing as a method to generate unbiased, genome-wide mutations across diverse phages
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Innovative Genomics Institute @innovativegenomics.bsky.social · 24/09/2026
Predicting how #RNA folds would be a valuable tool for scientists, but #AI has not been able to crack the problem. A team at the IGI made significant progress on two key hurdles: limited structural data, and the fact that RNA can take on multiple shapes. Read more: ow.ly/Yjgo50ZJcU3
Coauthors Roma Nagle and Conner Langeberg
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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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Tominaga K. (tomiken) @pacyc184.bsky.social · 24/09/2026
Structural diversification of phage tail fibers enables recognition of diverse type IV pili | PNAS
pnas.org
Structural diversification of phage tail fibers enables recognition of diverse type IV pili | PNAS
Viruses must recognize receptors on host surfaces to initiate infection, but these receptors can evolve rapidly, posing a fundamental challenge to ...
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Arc Institute @arcinstitute.org · 23/09/2026
Many important bacterial non-coding RNAs and structural elements remain undiscovered. To help, David Li, Garyk Brixi, Michael Fischbach, @brianhie.bsky.social & team introduce Minerva, which uses a genome language model to predict RNA base pairing, repeats, & other interactions from sequence alone.
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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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Christophe Zimmer @chzimmer.bsky.social · 10/09/2026
Can you tell how an antibiotic kills bacteria just by watching them under a regular microscope — without any dyes ? Yes, it turns out, at least if you are a deep neural net.
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Eduardo Rocha @epcrocha.bsky.social · 22/09/2026
Fun collaboration with the Van Melderen lab, led by Ludovic Belot on the acquisition and erosion of toxin-antitoxin systems in bacterial chromosomes. academic.oup.com/mbe/article/...
academic.oup.com
Acquisition and erosion of toxin-antitoxin systems in bacterial chromosomes
Abstract. Toxin-antitoxin systems (TAs) are widespread in bacterial genomes. Yet, their integration, persistence, and impact in chromosome dynamics remain
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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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Jorge Moura de Sousa @jmouradesousa.bsky.social · 20/09/2026
Happy to see our work on the evolution of antiviral repertoires in P4-like satellites and their P2-like helper phages (check out the 🧵 👇) out in @narjournal.bsky.social 🔗 doi.org/10.1093/nar/... #phagesky #MicroSky #evosky
doi.org
Shuttling, swapping, and mixing: the rapid modular evolution of antiviral repertoires in temperate phages and their satellites
Abstract. Interactions between bacteria, bacteriophages, and their satellites are shaped by a myriad of defence and counter-defence mechanisms. Here, we id
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Ben Parker @ben-parker.bsky.social · 21/09/2026
Excited that our new paper with @henrylabsymbio.bsky.social and Kerry Oliver is out @pnas.org! We show that mobile genetic elements can spread adaptive host-benefiting traits across heritable insect symbionts on eco-evolutionary timescales.🧵 www.pnas.org/doi/10.1073/...
pnas.org
Phenotypic divergence is driven by mobile genetic elements in a heritable insect symbiont | PNAS
Heritable microbes profoundly influence insect biology, yet the traits they confer often evolve rapidly and differ among closely related symbiont s...
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Malcolm White @mfwhite2.bsky.social · 21/09/2026
New preprint from PhD student Yu Sun. TSR1 is a TIR effector specialised for CRISPR defence. It is an obligate dimer activated by cA3 and degrades its own activator using a ring nuclease domain. Perhaps the first confirmed dimeric TIR effector? www.biorxiv.org/content/10.6...
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David Bikard @dbikard.bsky.social · 21/09/2026
New paper from the lab, out in Nature Microbiology. We ran CRISPRi screens to ask what genes E. coli needs in order to live in a gut and what this can tell us about the gut environment itself. doi.org/10.1038/s41564-026-02471-8
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Akos Nyerges @akosnyerges.bsky.social · 19/09/2026
Proud and excited to share our first preprint 🚀 in which we • create a high-fitness firewalled organism, • that stably colonizes the mouse gut for >100 days, • resists all tested phages in the gut, • and blocks horizontal gene transfer. + A new method: Chimera genomes to tailor existing synthetic
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Snorre Sulheim @sulheim.bsky.social · 18/09/2026
Finally online! Cross-feeding enables robust coexistence between four bacterial species | PNAS www.pnas.org/doi/10.1073/... #microsky
pnas.org
Cross-feeding enables robust coexistence between four bacterial species | PNAS
Resource supply is generally considered a dominant driver of microbial diversity. Here, using a four-species bacterial consortium, we asked whether...
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