Sign in

Romain Strock

@romainstrock.bsky.social
1.8K followers 281 following 22 posts

Senior ML scientist @ Bactobio, searching for novel antimicrobials produced by understudied microbes. PhD focused on conflicts between archaea and bacteria (Imperial / MRC LMS). Cyclist, chess enthusiast, father of 2 fantastic eukaryotes.

PostsRepliesMedia
Romain Strock @romainstrock.bsky.social · 23/09/2026
Fantastic study! Well done Nika & team
010
Reposted by Romain Strock
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...
95218
Reposted by Romain Strock
Milot Mirdita @milot.bsky.social · 16/09/2026
ColabFold 1.6.3 is out! 2.5x faster, pip-installable, ipSAE+pDockQ2 scores. Thanks Choonghwan Lee, Marielle Russo, Gyuri Kim 🐍pip install colabfold[alphafold] CF2 Sneak Peak with AF3/Boltz/Protenix/ESMFold2… 🐍pip install "colabfold[alphafold3]@git+https://github.com/sokrypton/ColabFold@af3-preview"
29835
Reposted by Romain Strock
Tatta Bio @tattabio.bsky.social · 04/09/2026
UniProt is where most researchers start when they want to understand a protein. As of today, prokaryotic entries there will show something new: genomic context, powered by SeqHub, right in the Sequence section of the page.
13811
Reposted by Romain Strock
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...
3231104
Romain Strock @romainstrock.bsky.social · 29/07/2026
Want to know more? Go read it for yourself! Thanks to my fantastic PhD supervisor @tobiaswarnecke.bsky.social for carrying this work across the finish line.
010
Romain Strock @romainstrock.bsky.social · 29/07/2026
Bacteria also perhaps borrow from the arsenal of archaea. We found homologs of Halocin C8, a protein produced by several halophilic archaea, in the genomes of tens of bacteria, including obligate halophilic species. Surprisingly, we also found it in 4 skin-associated Staphylococci.
110
Romain Strock @romainstrock.bsky.social · 29/07/2026
We drilled down on one instance: subtilosin A, a cyclopeptide from Bacillus subtilis, appears in the genome of 2 Thermococcus species: T. celer and T. nautili. The core peptide and two of the most important biosynthetic genes are conserved. It may have been transferred from a thermophilic bacterium.
Subtilosin ASubtilosin A in Thermococcus: phylogenetic tree and gene synteny.
110
Romain Strock @romainstrock.bsky.social · 29/07/2026
Archaea and bacteria live in the same environment. Conflict is bound to happen. How do archaea defend themselves against bacteria? What if HGT played a role, as is common in bacterial warfare? We searched for known bacteriocins in archaea... and found many (85 across 327 archaea).
Heatmap of the prevalence of bacteriocins in the genomes of archaea and bacteria.
110
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...
1237
Reposted by Romain Strock
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...
14821
Reposted by Romain Strock
Nadine Ziemert @nadineziemert.bsky.social · 27/07/2026
Looking for BGCs in large metagenomic datasets? Our new biorxiv preprint introduces metaSMASH, a scalable fork of antiSMASH designed specifically for metagenome-scale BGC detection and analysis : www.biorxiv.org/cgi/content/... Thanks @canerbagci.bsky.social and @kblin.bsky.social ❤️
biorxiv.org
metaSMASH: Scalable Biosynthetic Gene Cluster Detection for Large Metagenomic Assemblies
antiSMASH is widely used for biosynthetic gene cluster (BGC) detection and annotation, but its standard workflow is poorly suited to large metagenomic assemblies, where massive contig counts create severe runtime bottlenecks and complicate downstream result exploration. We present metaSMASH, a re-engineered fork of antiSMASH for metagenome-scale BGC analysis. metaSMASH preserves the original antiSMASH detection and annotation logic while introducing streaming, memory-bounded execution, record-level parallelisation, optional output filtering, and an interactive dashboard for large result sets. Across 25 benchmark metagenome datasets, metaSMASH reproduced identical BGC detection results while dramatically reducing computational cost. Relative to the default antiSMASH configuration, metaSMASH was a geometric-mean 38x faster. It also outperformed an ad hoc chunked antiSMASH workflow: in the default configuration it achieved a geometric-mean 2.9x speed-up and 1.7x lower peak memory, and with extended-analysis modules enabled it was 2.7x faster and used 3.1x less memory while completing all datasets, whereas the ad hoc workflow ran out of memory on the two largest assemblies. By substantially reducing the computational burden of large-scale metagenome analysis without sacrificing result equivalence, metaSMASH makes routine mining of assembled metagenomes more practical and provides a scalable foundation for natural product discovery from complex microbial communities. ### Competing Interest Statement The authors have declared no competing interest. German Center for Infection Research, TTU Novel Antibiotics 09.716 Volkswagen Foundation, 0072511-00
05819
Reposted by Romain Strock
Chung Hyun Cho @chc-evobio.bsky.social · 04/07/2026
Excited to share our new preprint led by Fred and me in collaboration with the archaeal community! We found that the molecular foundation of histone-based chromatin has pre-eukaryotic roots in Asgard archaea. (1/4) #ArchaeaSky www.biorxiv.org/content/10.6...
biorxiv.org
Emergence of histone-based chromatin complexity in Asgard archaea
The emergence of the eukaryotes coincided with the diversification of histone proteins and their post-translational modifications by enzymes that constitute the core of eukaryotic chromatin. Yet the e...
814776
Reposted by Romain Strock
Tobias Warnecke @tobiaswarnecke.bsky.social · 11/06/2026
Archaea the hornets of the microbial world. Discuss. www.biorxiv.org/content/10.6... TLDR: Archaeon kills bacterium with secreted phospholipase. Pretty nifty way to kill bacteria if you are a microbe with a very different lipid make-up, I reckon. No need to worry about accidentally killing yourself.
biorxiv.org
A Bactericidal Phospholipase from Archaea
Archaea kill bacteria, at least on occasion. The molecular underpinnings of these lethal interactions are barely understood. Here, we describe cinquedea, an α/β hydrolase secreted by the halophilic ar...
14416
Reposted by Romain Strock
Tobias Warnecke @tobiaswarnecke.bsky.social · 08/04/2026
I wrote an essay. It’s about gain-of-function mutations. And penguins. Also ion channels, chihuahuas, the film Alien, recycled cardboard, and the Apollonian mind. Oh, and muffins. Thanks to the editors of #GENETICS @genetics-gsa.bsky.social for letting me take some stylistic liberties. 1/2
35726
Reposted by Romain Strock
Nick Polizzi @nickpolizzi.bsky.social · 11/03/2026
Our paper with @sokrypton.org using AlphaFold2 to predict small-molecule binding sites in proteins is now out in Nature Methods! 🧵 rdcu.be/e7SnX www.nature.com/articles/s41...
rdcu.be
AF2BIND: predicting small-molecule binding sites using the pair representation of AlphaFold2
Nature Methods - AF2BIND is a logistic regression model trained on AlphaFold2 pair features to predict small-molecule binding-site residues in proteins, without multiple sequence alignments,...
16921
Reposted by Romain Strock
Theo Sanderson @theo.io · 08/02/2026
I made a map of 3.4 million Bluesky users - see if you can find yourself! bluesky-map.theo.io I've seen some similar projects, but IMO this seems to better capture some of the fine-grained detail
bluesky-map.theo.io
Bluesky Map
Interactive map of 3.4 million Bluesky users, visualised by their follower pattern.
66472482152
Reposted by Romain Strock
Antoine Hocher @ahocher.bsky.social · 05/12/2025
Our study of the evolution of the ParB NTP binding domain across the Tree of Life is now published! An awesome collaboration with @tunglejic.bsky.social led by @jovanakaljevic.bsky.social at the John Ines Center. Thanks to editors and reviewers. www.pnas.org/doi/10.1073/...
pnas.org
0184
Reposted by Romain Strock
Lianet Noda @lianetn.bsky.social · 01/12/2025
Paper alert! We have created a bacterium that eats plastic! We named it PETBuster! Great work by PhD student Dekel Freund @dekel-freund.bsky.social. www.biorxiv.org/content/10.1...
biorxiv.org
A synthetic bacterium that degrades and assimilates poly(ethylene terephthalate)
Polyethylene terephthalate (PET) is the fourth most commonly used plastic worldwide. Like all plastics, post-consumer PET is poorly managed and accumulates in the environment, posing significant ecolo...
13511
Reposted by Romain Strock
César Sánchez @twistedbacteria.bsky.social · 03/11/2025
Early Microbial Evolution "The origin of life on Earth remains one of the greatest and most pervasive mysteries in science. We know the story in broad strokes: Around 4 billion years ago, simple chemical compounds gave rise to living cells, which later formed..." 🦠 asm.org/articles/202...
asm.org
Early Microbial Evolution | ASM.org
How did life begin, and why does it matter? Scientists are tracing early microbial life—from LUCA to multicellularity—to unlock insights for biotech, climate science and even space exploration.
3319
Reposted by Romain Strock
Kevin K. Yang 楊凱筌 @kevinkaichuang.bsky.social · 15/10/2025
Alternate between predicting structure with AF3 and designing sequence with ProteinMPNN to generate proteins, including protein, small molecule and nucleic acid binders @yehlincho.bsky.social @sokrypton.org www.biorxiv.org/content/10.1...
0133
Reposted by Romain Strock
Antoine Hocher @ahocher.bsky.social · 11/10/2025
Thrilled to see this work in its preprint form! A great collaboration with Jovana and Tung to explore the evolution and properties of the surprisingly versatile nucleotide binding domain of ParB.
1192
Reposted by Romain Strock
Michael Brockhurst @brockhurstlab.bsky.social · 06/10/2025
New preprint! Ever wondered why only a fraction of genomes encode CRISPR immunity? 🧬 🦠 Turns out CRISPR is rarely beneficial against virulent phages, being most beneficial against those for which resistance mutations are rare! An epic effort by Rosanna Wright www.biorxiv.org/content/10.1...
biorxiv.org
Resistance mutation supply modulates the benefit of CRISPR immunity against virulent phages
Only a fraction of bacterial genomes encode CRISPR-Cas systems but the selective causes of this variation are unexplained. How naturally virulent bacteriophages (phages) select for CRISPR immunity has...
311056
Reposted by Romain Strock
Nature Microbiology @natmicrobiol.nature.com · 22/09/2025
#NewResearch Structure of a functional archaellum in bacteria of the Chloroflexota phylum #MicroSky @archaellum.bsky.social @sshamphavi.bsky.social @loumollat.bsky.social ‬ @mariejoest.bsky.social @sgribaldo.bsky.social www.nature.com/articles/s41...
nature.com
Structure of a functional archaellum in Bacteria of the Chloroflexota phylum - Nature Microbiology
Bona fide gene clusters for archaella are widespread across a bacterial phylum and encode functional motility machinery.
0178
Reposted by Romain Strock
Sofya Garushyants @garushyants.bsky.social · 15/09/2025
hey bluesky 👋 visa hurdles mean I’m looking for opportunities outside the US. I’m a computational biologist (bacterial + phage genomics, postdoc in Koonin’s group @ NIH). I am interested in teaming up on funding apps. reach out if this resonates!
16988
Reposted by Romain Strock
Zamin Iqbal @zaminiqbal.bsky.social · 10/09/2025
Sometimes you meet absolutely incredible bioinfo-magicians. It was a huge privilege when @shenwei356.bsky.social joined our group for a year on an @embl.org sabbatical. While here, he developed a new way of aligning to millions of bacteria, called LexicMap 1/n www.nature.com/articles/s41...
nature.com
Efficient sequence alignment against millions of prokaryotic genomes with LexicMap - Nature Biotechnology
LexicMap uses a fixed set of probes to efficiently query gene sequences for fast and low-memory alignment.
519099
Reposted by Romain Strock
Tobias Warnecke @tobiaswarnecke.bsky.social · 08/09/2025
Please re-post: Interested in chromatin and its evolution? Good news! There's still time to join us in beautiful Catalonia (9-12 Dec) to discuss eukaryotic, bacterial, archaeal, and viral chromatin and how it all hangs together meetings.embo.org/event/24-evo... Abstract deadline: 30 September
meetings.embo.org
EvoChromo: Evolutionary approaches to research in chromatin
Chromatin is the complex of DNA, RNA and protein that is found making up the chromosomes in eukaryotic cells. Chromatin is essential for proper genome function and is involved in chromosome segregati…
08362
Reposted by Romain Strock
Sorek Lab @soreklab.bsky.social · 02/09/2025
Preprint: De-novo design of proteins that inhibit bacterial defenses Our approach allows silencing defense systems of choice. We show how this approach enables programming of “untransformable” bacteria, and how it can enhance phage therapy applications Congrats Jeremy Garb! tinyurl.com/Syttt 🧵
biorxiv.org
Synthetically designed anti-defense proteins overcome barriers to bacterial transformation and phage infection
Bacterial defense systems present considerable barriers to both phage infection and plasmid transformation. These systems target mobile genetic elements, limiting the efficacy of bacteriophage-based t...
213970
Reposted by Romain Strock
Tobias Warnecke @tobiaswarnecke.bsky.social · 01/09/2025
Please re-post: If you know (or are!) somebody who might fancy doing a PhD (Oct 2026 start) in my group @oxfordbiochemistry.bsky.social, working on chromatin evolution in prokaryotes (or other things we're interested in), please have a look at www.bioch.ox.ac.uk/supervisors-...
bioch.ox.ac.uk
Supervisors and Projects
04350
Reposted by Romain Strock
Jerónimo Rodríguez-Beltrán @jerorb.bsky.social · 22/07/2025
Do plasmids evolve faster 🐇, slower 🐢, or just like chromosomes 🧬? In our new paper, we tackled this question using theory, simulations, bioinformatics, and experiments! 👇 Check out all the details in Paula’s thread! Hint: 🐇 (most of the time)
biorxiv.org
Plasmids promote bacterial evolution through a copy number-driven increase in mutation rate
Plasmids are autonomously replicating DNA molecules that stably coexist with chromosomes in bacterial cells. These genetic elements drive horizontal gene transfer and play a fundamental role in bacter...
27139
Reposted by Romain Strock
Mark O. Martin @markowenmartin.bsky.social · 30/08/2025
I was #TWiMAdjacent about the much missed Elio Schaechter. I tried to discuss an article later, but I was stressed for time. The first part about Elio is so worth your time, as is the paper I discussed, about how archaea make enzymes that break down the bacterial cell wall! asm.org/podcasts/twi...
asm.org
Missing the Company of Elio
Paying tribute to Elio Schaechter, former TWiM host, blogger, and microbiologist extraordinaire, and review of the finding that Archaea produce peptidoglycan hydrolases that kill bacteria - a form of ...
152
Reposted by Romain Strock
Kate Baker @ksbakes.bsky.social · 27/08/2025
Awesome to see the transparent, systematic, and evidence-based approach behind the WHO Bacterial Priority Pathogens List 2024 out in the Lancet Infectious Diseases www.thelancet.com/journals/lan...
thelancet.com
The WHO Bacterial Priority Pathogens List 2024: a prioritisation study to guide research, development, and public health strategies against antimicrobial resistance
The 2024 WHO BPPL is a key tool for prioritising research and development investments and informing global public health policies to combat AMR. Gram-negative bacteria and rifampicin-resistant M tuber...
14516
Reposted by Romain Strock
Thalia, PhD @thalia.bsky.social · 25/08/2025
I cannot fully put into words what publishing this Review has meant to me, so I leave you with how we closed the paper. "The humble bacterium is still a relevant tool for the study of the underlying mechanisms that are conserved throughout life." 🧪🧫🧬📚 doi.org/10.1093/gene...
doi.org
The nature of mutation: a legacy of bacterial genetics
Abstract. A central question in the fields of genetics and evolution was the nature and origin of spontaneous mutation. Bacterial genetic experiments throu
311436
Reposted by Romain Strock
Ákos T Kovács @evolvedbiofilm.bsky.social · 19/08/2025
When we started sampling soil to isolate Bacilli and other bacterial species within @cemist.bsky.social, I did not expect that so many direct and indirect publications and numerous chapters in 6 PhD theses in my group will originate from those efforts 🧵 [1/n]
2284
Reposted by Romain Strock
Zamin Iqbal @zaminiqbal.bsky.social · 17/08/2025
"We show that unrelated proteins have a universal tendency towards convergent evolution of secondary and tertiary motifs, causing an excess of high-scoring FP alignment... previous methods routinely overestimate significance by up to six orders of magnitude." www.biorxiv.org/content/10.1...
biorxiv.org
Protein structure alignment significance is often exaggerated
Machine learning has generated millions of high-quality predicted protein structures, creating a need for computationally efficient structure search algorithms and robust estimates of statistical sign...
05223
Reposted by Romain Strock
Sarah Gurev @sarahgurev.bsky.social · 17/08/2025
🚨New paper 🚨 Can protein language models help us fight viral outbreaks? Not yet. Here’s why 🧵👇 1/12
35523
Reposted by Romain Strock
Nejc Haberman @nejchaberman.bsky.social · 15/08/2025
📣 ABSTRACT DEADLINE EXTENDED UNTIL 18TH AUGUST! Register here: register.oxfordabstracts.com/event/75604?... Abstract submission: app.oxfordabstracts.com/stages/79029...
011
Romain Strock @romainstrock.bsky.social · 15/08/2025
Not something we tested explicitly but the catalytic domains involved have not been shown to cleave pseudomurein. Also, very few pseudomurein producers encode PGHs, ruling out auto-lysis as the main function.
120
Reposted by Romain Strock
PLOS Biology @plosbiology.org · 15/08/2025
Archaea-on-bacteria action! @romainstrock.bsky.social @tobiaswarnecke.bsky.social &co show that many #archaea encode #peptidoglycan hydrolases, which specifically target #bacterial cell walls, experimentally confirming the killing capacity of 2 of these enzymes @plosbiology.org 🧪 plos.io/4lrJBBa
Left: Results of spotting various supernatants onto lawns of Halalkalibacterium halodurans, Phycicoccus endophyticus, and Virgibacillus salexigens. a,b: top fraction (>3 kDa) of supernatant from Haloferax volcanii expressing an intact (a) or catalytic mutant (b) version of Woldo; c,d: bottom fraction (<3 kDa) of supernatant from H. volcanii expressing an intact (c) or catalytic mutant (d) version of Woldo; e: unfiltered supernatant from Halogranum salarium B-1; f,g: top fraction (>3 kDa) of supernatant from H. volcanii expressing (f) Danwoldo or (g) and empty plasmid control; h,i: bottom fraction (<3 kDa) of supernatant from H. volcanii expressing (h) Danwoldo or (i) and empty plasmid control. Top right: Structural overlay of zoocin A from Streptococcus zooepidemicus (UniProt ID: O54308) and Woldo, a candidate PGH from Halogranum salarium B-1 (UniProt ID: J2ZZK6), highlighting homologous M23 domains but divergent cell wall binding domains. TRD: target recognition domain. PG: peptidoglycan. Bottom right: Images of bacterial cells following exposure to H. volcanii supernatants expressing Woldo, Danwoldo or the control (as above). Bacteria are stained using LIVE/DEAD BacLight bacterial viability staining kit with ingress of red dye into bacterial cells indicative of cells with terminally compromised cell wall integrity.
1168
Romain Strock @romainstrock.bsky.social · 15/08/2025
PGHs are unlikely to be the sole kind of weapons deployed by archaea to kill bacteria. We close by discussing a road map to uncover more of the archaeal arsenal deployed against bacteria. Have a read for more details! 6/6
000
Romain Strock @romainstrock.bsky.social · 15/08/2025
We experimentally show that two PGHs encoded by salt-loving archaeon Halogranum salarium B-1 do kill one of the predicted targets, salt-tolerant bacterium Halalkalibacterium halodurans. 5/6
Plate with bacterium Halalkalibacterium halodurans growing on top. Four inhibition zones are visible, caused by peptidoglycan hydrolase proteins secreted by archaeon Halogranum salarium B-1.
100
Romain Strock @romainstrock.bsky.social · 15/08/2025
We developed a structural homology-based pipeline to infer the putative bacterial targets of these proteins and found that most seem to target monoderm bacteria living in the same environment as the producer. 4/6
Pipeline to predict the putative bacterial targets of archaeal epptidoglycan hydrolases.
110
Romain Strock @romainstrock.bsky.social · 15/08/2025
Here, we show that about 5% of archaea encode peptidoglycan hydrolases (PGHs) in their genomes, though most archaea do not use peptidoglycan. They are enriched on plasmids and display a high level of structural conservation with their bacterial counterpart, hinting at their use as weapons. 3/6
Heatmap of the presence of peptidoglycan hydrolases in archaea.
100
Romain Strock @romainstrock.bsky.social · 15/08/2025
Archaea and bacteria live in the same environments across the biosphere, yet only a handful of studies describe antagonistic interactions between the two domains of life (Atanasova et al., 2013 is particularly relevant). 2/6
110
Romain Strock @romainstrock.bsky.social · 15/08/2025
This first-author publication is my… first! Archaea kill bacteria by targeting their Achilles’ heel: peptidoglycan. Big shoutout to @ahocher.bsky.social‬, @valeriesoo.bsky.social‬, Pauline Misson, @tobiaswarnecke.bsky.social‬ and MRC LMS Proteomics. A thread 🔽 journals.plos.org/plosbiology/...
journals.plos.org
Archaea produce peptidoglycan hydrolases that kill bacteria
Archaea regularly interact with bacteria but reports of archaea killing bacteria are very rare. This study shows that many archaea encode peptidoglycan hydrolases, which specifically target bacterial ...
58128
Reposted by Romain Strock
Antoine Hocher @ahocher.bsky.social · 15/08/2025
@romainstrock.bsky.social work is out! Why should you care? Because it helps shift our view of archaea — from rare extremophiles to not-so-passive bystanders. Some archaea can also fend off bacteria. Glad to be part of this cool project from @tobiaswarnecke.bsky.social. Opens lots of Questions.
071
Reposted by Romain Strock
Valerie Soo @valeriesoo.bsky.social · 15/08/2025
Very happy to see this work published + getting the recognition it deserves! Archaea are very cool + understudied organisms and we are only scratching the surface! Since the preprint last year, we (@romainstrock.bsky.social) have included more evidence of bacteria getting killed by archaeal arsenal.
0102
Reposted by Romain Strock
Tobias Warnecke @tobiaswarnecke.bsky.social · 14/08/2025
Archaea are often surrounded by bacteria. But is there ever active conflict between the two? Can archaea kill bacteria? If so, how do they do it? Work by @romainstrock.bsky.social shows that some archaea can kill bacteria by secreting peptidoglycan hydrolases. journals.plos.org/plosbiology/...
journals.plos.org
Archaea produce peptidoglycan hydrolases that kill bacteria
Archaea regularly interact with bacteria but reports of archaea killing bacteria are very rare. This study shows that many archaea encode peptidoglycan hydrolases, which specifically target bacterial ...
515465
Reposted by Romain Strock
ERR_Moody @emoody.bsky.social · 12/08/2025
Very happy to announce our new paper on the evolution of metabolism is out now! royalsocietypublishing.org/doi/10.1098/... With @tweethinking.bsky.social @sabifo4.bsky.social @ssolo.bsky.social Davide Pisani, Tim Lenton and @phil-donoghue.bsky.social (1/2)
royalsocietypublishing.org
The emergence of metabolisms through Earth history and implications for biospheric evolution | Philosophical Transactions of the Royal Society B: Biological Sciences
We investigate the evolution of microbial metabolisms from the last universal common ancestor to the extant biota through comparative phylogenomics, reconciling the evolution of the genes that underpi...
12910
Reposted by Romain Strock
James McDonald @jamesemcdonald.bsky.social · 11/08/2025
Really exciting and important tree microbiome paper published in @nature.com ‘A diverse and distinct microbiome inside living trees’ 👏 www.nature.com/articles/s41...
nature.com
A diverse and distinct microbiome inside living trees - Nature
Microbiome analyses of living trees show that a single tree can host approximately one trillion bacteria, with microbial communities distinctly partitioned between heartwood and sapwood and with minim...
02415