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Andrea Bernardini

@bernardini-andrea.bsky.social
321 followers 156 following 72 posts

Tenure track Researcher Studying transcription factors & promoters University of Milan 🇮🇹 previously in Tora's lab, IGBMC 🇫🇷

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Reposted by Andrea Bernardini
László Tora @tlaszlo.bsky.social · 17/09/2026
Pierre Chambon was one of the driving architects of modern molecular biology, whose scientific vision transformed the understanding of gene regulation in eukaryotic cells. His passing in May 2026 represents the loss of an extraordinary scientist. www.nature.com/articles/s41...
nature.com
Pierre Chambon (1931–2026) - Nature Genetics
Nature Genetics - Pierre Chambon (1931–2026)
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Mihaly Badonyi @mbadonyi.bsky.social · 10/09/2026
AlphaFold can now predict protein complexes at unprecedented scale. But once we have a predicted complex, the core question of how much we should trust the interface remains. Existing confidence scores are useful, but their meaning is not always obvious. #alphafold
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Andrea Bernardini @bernardini-andrea.bsky.social · 10/09/2026
Very clear overview on the structural basis of transcription initiation in mammals by the Xu's lab!
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The EMBO Journal @embojournal.org · 14/08/2026
New review by @tlaszlo.bsky.social and colleagues: Step-brothers in arms, SAGA and ATAC co-activator complexes, use different strategies link.springer.com/article/10.1...
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Alex de Mendoza @alexdemendoza.bsky.social · 03/08/2026
Sailing in @biorxivpreprint.bsky.social ready for summer, our study on the iconic Portuguese man o' war 🪼 is out: www.biorxiv.org/content/10.6.... We use (epi)genomics to understand a critter that fascinates me since childhood. Massive team effort with @obog.bsky.social, Cummins and Neely groups. 🧵
the indo-pacific bluebottle (Physalia utriculus)
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Magnus Kjærgaard @proteinmagnus.bsky.social · 03/08/2026
Why do intrinsically disordered proteins behave so weirdly during SDS-PAGE? This is the question we aim to answer in our recent paper: onlinelibrary.wiley.com/doi/10.1002/...
onlinelibrary.wiley.com
Sequence determinants of the hypomobility of intrinsically disordered proteins in <fc>SDS</fc>‐<fc>PAGE</fc>
Proteins with intrinsically disordered regions (IDRs) migrate at a higher apparent molecular weight in sodium dodecyl sulfate (SDS)-polyacrylamide gel electrophoresis, complicating their analysis and...
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Maxim Greenberg @maxvcg.bsky.social · 06/07/2026
I had an (honestly) really fun time writing up an "In Preprints" piece on the two fantastic studies from @grandlab.bsky.social and @schubelerlab.bsky.social. Check it out here. I have also put the original threads from the authors below. journals.biologists.com/dev/article/...
journals.biologists.com
In preprints – housekeeping the housekeeping genes
The term ‘housekeeping gene’ evokes a sense of banality. These are the boring genes that hum in the background, impervious to cell state or stress. For a developmental biologist captivated by the impa...
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Andrea Bernardini @bernardini-andrea.bsky.social · 01/07/2026
Great study, congratz @yjtan.bsky.social May this be linked to structural studies (Xu lab) where presence of multiple core promoter elements adds an "inactive/park" step in PIC assembly, possibly making the promoter "responsive"? We tried to summarize that here: www.cell.com/trends/biote...
cell.com
Transcription factor IID parks and drives preinitiation complexes at sharp or broad promoters
Core promoters are sites where transcriptional regulatory inputs of a gene are integrated to direct the assembly of the preinitiation complex (PIC) and RNA polymerase II (Pol II) transcription output....
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Christine Mayr @christinemayr.bsky.social · 08/06/2026
Finally out in @Cellcellpress! Proteins with long IDRs are prone to misfolding during protein synthesis. This is prevented by mRNA 3′UTRs that act as mRNA-based IDR chaperones. www.cell.com/cell/fulltex...
cell.com
mRNA 3′ UTRs chaperone intrinsically disordered regions to control protein activity
Highly conserved mRNA 3′ UTRs act as co-translational chaperones for intrinsically disordered regions (IDRs), preventing inter-domain misfolding and enabling biogenesis of fully active proteins.
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Tjian + Darzacq Lab, UC Berkeley @tjiandarzacq.bsky.social · 02/06/2026
Out now in Science! Our study challenges long-standing assumptions about transcription factor specificity in eukaryotes. Novel single-molecule measurements of TF behavior in living cells reveal an independence of locus-specific binding from DNA sequence recognition.🧵 www.science.org/doi/10.1126/...
science.org
Unstructured transcription factor interactions enable emergent specificity
How intrinsically disordered regions (IDRs) shape chromatin binding and nuclear organization of transcription factors (TFs) remains unclear. We used proximity-assisted photoactivation (PAPA), a single...
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Karolin Luger @nucleosomepolice.bsky.social · 18/05/2026
Out today - structure of the human HIRA histone chaperone complex bound to nucleosomes. Ever wondered how nucleosomes are assembled in the wake of transcription? It takes a 'hulk of a protein complex'. Work by the amazing Wei Tian weetian558.bsky.social. www.biorxiv.org/content/10.6... 🧵
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Christine Mayr @christinemayr.bsky.social · 08/05/2026
If you want to know what 3′UTRs with long conserved sequence stretches do, check out our BioRxiv preprint doi.org/10.64898/202.... They form functional intermolecular 3′UTR-3′UTR interactions that enable co-folding of proteins to rapidly induce transcriptional programs.
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Schubeler Lab @schubelerlab.bsky.social · 07/05/2026
Excited to share our new study on CpG islands (CGIs) regulation by transcription factors (TFs)! CGIs drive most transcription initiation with unclear regulation. We find that chromatin-opening TFs are key players—following a surprisingly simple rule. 🧵 www.biorxiv.org/content/10.6... 1/9
biorxiv.org
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Martina Capriati @martinacapriati.bsky.social · 07/05/2026
Exciting news 📣 The first preprint from @grandlab.bsky.social is out 🧬 How are essential genes controlled? By rapid degradation and recovery of TFs alone or in combination, we show that essential genes rely on a single dominant TF, despite dense co-binding. www.biorxiv.org/content/10.6...
biorxiv.org
Essential genes are dominantly activated by single transcription factors
Cell viability depends on the precise expression of essential genes, which are controlled by CpG-island (CGI) promoters densely bound by transcription factors (TFs). This has led to the prevailing model that TFs cooperate to ensure ubiquitous expression. Here, using rapid and reversible single and combinatorial degradation in murine stem cells, we systematically dissect the regulatory interactions between five key TFs. We uncover an unexpectedly specific architecture in which regulatory dominance, rather than cooperation, is the prevailing mode, where individual TFs autonomously drive chromatin opening and gene activation at largely distinct promoters. Cooperative regulation occurs at a minority of sites with antagonistic or synergistic outcomes modulated by the interplay between nucleosome positioning and TF sensitivity to chromatin. This logic is recapitulated at synthetic sequences and reflected in human genetic variation. These findings reveal that single TFs dominantly activate distinct sets of CGI-linked genes, including essential genes, across development, homeostasis, and disease. ### Competing Interest Statement The authors have declared no competing interest. DFG, GR 6341/2-1, 556634773
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Grand Lab @grandlab.bsky.social · 07/05/2026
Excited to share our first story led by @martinacapriati.bsky.social! How do cells control the expression of viability genes? We find that single transcription factors can drive both chromatin opening and gene activation from densely co-bound CpG island promoters, including at essential genes
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Davide Seruggia @dseruggia.bsky.social · 21/04/2026
Peer-reviewed version: www.nature.com/articles/s41...
nature.com
Disruption of the SAGA CORE triggers collateral degradation of KAT2A - Nature Communications
SAGA regulates gene expression through KAT2A‑mediated acetylation, but how KAT2A stability is controlled was unclear. Here, the authors show that SAGA CORE subunits stabilise KAT2A, and that unassembl...
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Reposted by Andrea Bernardini
Manuel Irimia @mirimiam.bsky.social · 20/04/2026
Thrilled to present our comparative study on the evolution of zygotic genome activation (ZGA)!! 🥚🧬 Amazing PhD work of @campobes.bsky.social together with @fedemantica.bsky.social and many collaborators! @melisupf.bsky.social @crg.eu. Thread below 1/15 www.biorxiv.org/content/10.6...
biorxiv.org
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Alexis Verger 🧬🧫🧪 @alexis-verger.cpesr.fr · 17/04/2026
With all the cuts to research funding in European countries, everyone is turning to the ERC... The ERC should be a source of supplementary funding, not a substitute. Every country in Europe must invest in basic research and increase its budgets!!!!
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Max Planck Institute of Immunobiology and Epigenetics @mpi-ie.bsky.social · 09/04/2026
New in @natgenet.nature.com by @asifa-akhtar.bsky.social lab. BRD2 & BRD4 control different steps of transcription, yet most BET inhibitors target their shared bromodomain – hitting both at once & producing effects that are hard to predict. Why it matters for cancer www.nature.com/articles/s41...
White-gloved hands pulling back a red curtain to reveal a blue molecular structure interacting with red and purple strands against a dark blue background

The curtain rises on gene activation: a molecular illustration of transcription, the process by which cells “read” their genes. New research findings show that a protein called BRD2 acts as a previously overlooked “stage manager” — it coordinates the preparations before RNA polymerase II (blue) can finally begin making the RNA copy (red) of the DNA (purple).

© Juan Gaertner & Pixel-Shot / Shutterstock.com; Montage: MPI-IE
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Michela Palamin @mpalamin.bsky.social · 24/03/2026
ChromSMF preprint is out!🚀 tinyurl.com/ChromSMF We often piece together chromatin regulation layer by layer from separate assays. But this can be limiting! In @arnaudkr.bsky.social's lab, we developed a method to directly study multiple layers on the same DNA molecule! 🧬 What does this unlock? ⬇️
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Andrea Bernardini @bernardini-andrea.bsky.social · 21/03/2026
Here is the published version of our story on the TALE/NF-Y/Sp2 TF complex, where we study how Sp2 can associate to chromatin independently of its Zinc-finger DBD, forming cooperative interactions with PBX/PREP and NF-Y with two short linear motifs. doi.org/10.1016/j.ij...
doi.org
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László Tora @tlaszlo.bsky.social · 19/03/2026
See the new paper by Mylène Damilot et al in Science Advances, where the authors use a novel affinity purification method to obtain the SAGA complex for cryo-EM, and reveal the splicing like module of SAGA at high resolution. DOI: 10.1126/sciadv.aec8104,
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Martin Steinegger 🇺🇦 @martinsteinegger.bsky.social · 17/03/2026
AlphaFold database has entered the era of complexes. Together with NVIDIA, DeepMind and EBI, we use ColabFold, OpenFold and MMseqs2-GPU to predict ~31 million complexes (homo & hetro-dimers) resulting in 1.8 million high-quality predictions 📄 research.nvidia.com/labs/dbr/ass... 🌐 alphafold.ebi.ac.uk
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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,...
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Jordy F. Botello @jbotello.bsky.social · 10/03/2026
Some molecular machines, like ribosomes, can persist for long periods of time in cells. Could molecular aging of ribosomes shape how proteins are made? In our new preprint we track ribosomes as they age in cells and uncover unexpected effects on translation (1/10) www.biorxiv.org/content/10.6...
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Jeff Vierstra @jeffvierstra.bsky.social · 10/03/2026
Exciting results! We developed a single, generalizable ML model that can predict chromatin accessibility across any arbitrary cell type using a sample intrinsic and portable embedding. Notably works on samples generated over a 15 yr time interval with different technologies & methodologies.
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Sdelci Lab @sdelcilab.bsky.social · 06/03/2026
New paper out in Nature Communications: www.nature.com/articles/s41... We found >250 metabolic enzymes on chromatin. Only ~20 had been reported before. This means hundreds of metabolic enzymes may have unexplored nuclear roles.
nature.com
Native chromatome profiling reveals hundreds of metabolic enzymes in the nucleus across tissues - Nature Communications
Here proteomic chromatome analysis shows metabolic enzymes widely localize to chromatin in cancer in a tissue-specific manner. Nuclear enzymes affect DNA damage/repair and transcription, revealing non...
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Teif lab @teiflab.bsky.social · 05/03/2026
Nucleosome aficionados! Our new review "Nucleosome spacing across cell types, diseases, and ages" is out in NAR: academic.oup.com/nar/article/... A huge effort to pull together what we’ve learned about nucleosome spacing in many systems. Enjoy! @milena-bikova.bsky.social @chrsclrksn.bsky.social
Figure 1.(A) Classical gel electrophoresis experiments showing mono-, di-, tri-, tetra-, and further multinucleosome bands upon chromatin digestion. (B) The nucleosome repeat length (NRL) is defined as the genomic distance between the centres of two neighbouring nucleosomes.Figure 2.Nucleosome mapping using MNase-seq versus ATAC-seq. (A) In MNase-seq, nucleosomes in both open and tightly packed genomic regions are accessible to digestion. MNase preferentially cleaves DNA between nucleosomes and digests DNA until it encounters a histone octamer, which provides a footprint of nucleosome-protected DNA regions. (B) Bulk MNase-seq results in averaged maps across millions of cells, effectively capturing all possible nucleosome positioning configurations. (C) Single-cell MNase-seq (scMNase-seq) results in a noisier and sparser signal. The resulting footprints still represent nucleosome-protected regions, but not all nucleosomes are represented. (D) In ATAC-seq, open regions can be accessed by the enzyme Tn5 transposase, which can insert primers in regions free from the binding of nucleosomes and transcription factors (TFs). (E) For open chromatin regions, nucleosome maps can be obtained from ATAC-seq similar to MNase-seq. (F) Closed, tightly packed chromatin regions may be less represented in ATAC-seq nucleosome maps.
Figure 5.Molecular mechanisms affecting nucleosome spacing. (A) Linker histones H1 and nonhistone chromatin proteins which compete with H1s and modulate nucleosome spacing through structural and electrostatic mechanisms. (B) Chromatin remodellers actively reposition nucleosomes following context-dependent rules. (C) Cell state-dependent chromatin boundaries formed by CTCF and other structural proteins, as well as associated recruitment of chromatin remodellers which space nucleosomes. (D) Gene activity associated with remodeller action and RNA polymerases transcribing through the nucleosomes, leading to smaller distances between nucleosomes in regulatory regions and gene bodies. (E) DNA sequence repeats of different types.Figure 6. Examples of NRL changes in biological systems. (A) Cell differentiation leads to NRL changes between different cell types, e.g. mouse dorsal root ganglia neurons (NRL ∼165 bp) versus cortical astrocytes (NRL ∼183 bp) [175]. Schematic cell shapes are adapted from an image created in BioRender (https://BioRender.com/89trj2t). (B) Paired normal versus tumour breast tissues show NRL shortening in cancer (figure adapted from [36] under the CC BY 4.0 licence (https://creativecommons.org/licenses/by/4.0/)). (C) Nucleosome positioning derived from cfDNA of human volunteers shows NRL increase with age (figure reprinted from [79] under the CC BY 4.0 licence (https://creativecommons.org/licenses/by/4.0/)).
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Andre Cornman @ancornman1.bsky.social · 03/03/2026
Predicting protein-protein interactions (PPIs) at proteome scale can take months with co-folding models due to the massive all-vs-all comparisons required. We are excited to announce FlashPPI, a contrastive learning framework that predicts proteome wide physical interfaces in minutes. 1/🧵
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David Ho @davidho.bsky.social · 03/03/2026
My first paper had to be mailed to Stockholm, Sweden, and then mailed to reviewers around the world. Everything by mail! It was submitted, reviewed, revised, typeset, and published in 3 months. I feel bad for early-career scientists who can't find a single reviewer after 5 months. It's gotta change.
A two-column status table titled "Stage" and "Start Date" tracks the timeline of a manuscript submission from its preliminary data submission on October 8, 2025, to its eventual withdrawal on March 2, 2026. The log reveals a lengthy and repetitive administrative process, particularly between October 26, 2025, and February 19, 2026, where the status cycled more than ten times between "Contacting Potential Reviewers" and "Waiting for Reviewer Assignment," suggesting significant difficulty in securing peer reviewers. Following these numerous failed attempts to move into the active review phase, the final entry shows the manuscript was officially withdrawn on March 2, 2026, at 09:08:18.
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Tugce Aktas @aktast.bsky.social · 25/02/2026
Our most recent work on the “function and evolution” of #nuclear-speckles is now online at Cell @cp-cell.bsky.social doi.org/10.1016/j.ce... Read the thread👇 for the highlights of our findings.
doi.org
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Oded Rechavi @odedrechavi.bsky.social · 26/02/2026
It’s finally out! Together with @embopress.org and @reviewcommons.org, we conducted a structured side-by-side comparison of human peer review and our AI scientific review (see thread 👇👇👇🔥).
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Andrea Bernardini @bernardini-andrea.bsky.social · 17/02/2026
Here's our preprint on a curious "three-way" DNA-binding cooperativity mechanism. We combined previous (and new) experimental data with AF modelling. Feedback is welcome! "Cooperative reading of DECA-CCAAT composite element by the TALE/NF-Y/Sp2 transcription factors" www.biorxiv.org/content/10.6...
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Craig Kaplan @triggerloop.bsky.social · 16/02/2026
This is a fascinating paper that reveals defined and clear mechanism for a phenomenon that for some seemed unbelievable- the up regulation of genes paralogous to those with specific types of inactivating mutations. This is called transcriptional adaptation 1/ www.science.org/doi/10.1126/...
science.org
Mechanisms linking cytoplasmic decay of translation-defective mRNA to transcriptional adaptation
Transcriptional adaptation (TA) is a genetic robustness mechanism through which mutant messenger RNA (mRNA) decay induces sequence-dependent up-regulation of so-called adapting genes. How cytoplasmica...
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Alex Holehouse @alexholehouse.bsky.social · 12/02/2026
Pleased to share the final version of this behemoth of a paper, now finally published. I guess I can retire now? www.nature.com/articles/s41... More functional data, many thousands of words removed, and a few other updates from last year's preprint.
nature.com
Sequence and chemical specificity define the functional landscape of intrinsically disordered regions - Nature Cell Biology
Langstein-Skora, Schmid, Huth et al. propose that intrinsically disordered region functionality can be driven by the interplay between linear binding motifs and contextual chemical characteristics suc...
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eltsovmikhail.bsky.social @eltsovmikhail.bsky.social · 10/02/2026
We are in EMBO J. See DNA and non-octameric nucleosome-like particles in situ link.springer.com/article/10.1...
link.springer.com
Direct visualization and tracing of chromatin folding in the Drosophila embryo - The EMBO Journal
Chromatin organization, through the assembly of DNA with histones and the folding of nucleosome chains, regulates DNA accessibility for transcription, DNA replication and repair. Although models deriv...
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Hiroshi Ochiai @hiroshiochiai.bsky.social · 11/02/2026
1/3 New bioRxiv preprint from the lab: “Minute-scale coupling of chromatin marks and transcriptional bursts”. Led by Xiohui Gao & Chaebeen Ko. bioRxiv : www.biorxiv.org/cgi/content/...
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Patrick Bryant @patrickbryant1.bsky.social · 07/02/2026
Introducing The Structural History of Eukarya (SHE): The first proteome-scale phylogeny constructed entirely from 3D structure. We computed 300 trillion alignments across 1,542 species to map the tree of life. 🧵👇 (1/5)
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Kresten Lindorff-Larsen @lindorfflarsen.bsky.social · 07/02/2026
A near-complete map of human cytosolic degrons and their relevance for disease We measured degron potency of >200,000 30-residue tiles from >5,000 human proteins, and trained a model to predict degrons from sequence Led by @vvouts.bsky.social in @rhp-lab.bsky.social doi.org/10.1126/scia...
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Surfin' NuRD @surfinnurd.bsky.social · 04/02/2026
Final version of our paper now published. elifesciences.org/articles/109... Take homes: CHD4/NuRD directly limits transcription factor residence times. At active enhancers this keeps them working efficiently. At inactive enhancers it prevents TFs from getting a foothold and causing activation. 1/n
elifesciences.org
The chromatin remodeller CHD4 regulates transcription factor binding to both prevent activation of silent enhancers and maintain active regulatory elements
CHD4 directly limits transcription factor binding to chromatin, which prevents activation of silent or cryptic enhancers but facilitates activity of active enhancers.
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charliebell.bsky.social @charliebell.bsky.social · 03/02/2026
www.nature.com/articles/s41... happy i could be a part of this paper from the Gilan lab out now. Along with many other things, it provides strong evidence of chromatin memory for gene activation, and suggests that DOT1L is the missing link balancing the fast and slow arms of the MLL/Polycomb axis
nature.com
DOT1L provides transcriptional memory through PRC1.1 antagonism - Nature Cell Biology
Neville, Ferguson et al. show that non-canonical Polycomb repressive complex 1.1-mediated gene silencing is antagonized by DOT1L and is required for the therapeutic efficacy of Menin and DOT1L inhibit...
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Xuebing Wu @xuebingwu.bsky.social · 31/01/2026
Does the noncoding genome actually carry more genetic information than coding seqs? Motivated by this question we mutated every bp in the 10kb MYC locus. Results are even more exciting: Decoding the MYC locus reveals a druggable ultraconserved RNA element www.biorxiv.org/content/10.6...
biorxiv.org
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Michael Guertin @guertin.bsky.social · 28/01/2026
this mini-review was fueled by frustration with others who use "context-specific" to describe transcription factors that supposedly can function as repressors or activators: www.tandfonline.com/doi/full/10....
tandfonline.com
Molecular Mechanisms of Transcription Factors with Dual Activator and Repressor Functions
Transcription factors (TFs) are traditionally classified as activators or repressors, yet some can perform both roles. We highlight well-supported examples of dual activator/repressor functions and...
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Andrea Bernardini @bernardini-andrea.bsky.social · 20/01/2026
Check out our preprint where we describe, characterize and trace the origin of a novel human-specific isoform of TAF8, a scaffold subunit in TFIID. We were surprised to discover that TAF8 recently underwent genetic changes generating a truncated isoform with altered properties in humans!
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Julia Zeitlinger @juliazeitlinger.bsky.social · 09/01/2026
Our work on TFIID is finally out as preprint!
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Arnau Sebé-Pedrós @arnausebe.bsky.social · 22/12/2025
Excited to share the final version of our study on Nematostella cell type regulatory programs. Part of our @erc.europa.eu StG project, this was a challenging 5-year effort extraodinarily led by @aelek.bsky.social and @martaig.bsky.social. www.nature.com/articles/s41...
nature.com
Decoding cnidarian cell type gene regulation - Nature Ecology & Evolution
This study reconstructs the gene regulatory networks that define cell types in the sea anemone Nematostella vectensis, providing a valuable resource for comparative regulatory genomics and the evoluti...
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imaeso.bsky.social @imaeso.bsky.social · 07/01/2026
Our work on the evolution of the regulatory genome of echinoderms is now out in @natecoevo.nature.com. Led by my former PhD Marta Magri, Danila Voronov & Saoirse Foley. Great collaboration of Arnone, Hinman & Maeso labs, started long time ago with our missed José Luis Gomez-Skarmeta: rdcu.be/eXX8l
rdcu.be
Deep conservation of cis-regulatory elements and chromatin organization in echinoderms uncover ancestral regulatory features of animal genomes
Nature Ecology & Evolution - Analysis of the 3D chromatin architecture and cis-regulatory elements in a sea urchin and a sea star reveals mechanisms of 3D chromatin organization in echinoderms...
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Jill Moore @moorejille.bsky.social · 07/01/2026
Our paper on the newest version of the Registry of candidate cis-Regulatory Elements (cCREs) is out 🧬 Huge thanks to the many collaborators, experimentalists, analysts and software developers who made this work possible — truly a team effort! A "meme-torial" of the science is coming soon 👀
nature.com
An expanded registry of candidate cis-regulatory elements - Nature
The existing ENCODE registry of candidate human and mouse cis-regulatory elements is expanded with the addition of new ENCODE data, integrating new functional data as well as new cell and tissue types...
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Di Jiang @dijiang319.bsky.social · 01/01/2026
🧬 @science.org A SWI/SNF-specific Ig-like domain, SWIFT, is a transcription factor binding platform | Science www.science.org/doi/10.1126/... @ckadoch.bsky.social @danafarber.bsky.social @harvardmed.bsky.social @broadinstitute.org @hhmi-science.bsky.social 🔬 #chromatin #transcription #cancer 🧫
science.org
A SWI/SNF-specific Ig-like domain, SWIFT, is a transcription factor binding platform
Mammalian SWI/SNF chromatin remodeling complexes modulate DNA accessibility and gene expression; however, their genomic targeting mechanisms remain incompletely understood. Here, we identify SWIFT (SW...
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Andrea Bernardini @bernardini-andrea.bsky.social · 30/12/2025
Looks very interesting, can't wait to read it!
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