Krishna Shrinivas @shrinivaslab.bsky.social · 07/07/2026This is now published in PNAS! And double-treat, we also made the cover :) www.pnas.org/doi/10.1073/... 1143
Reposted by Krishna ShrinivasJon Henninger @jhenninger.bsky.social · 08/06/2026Excited to share the first pre-print from our lab!! Check it out here! www.biorxiv.org/content/10.6... We found that many RNA-binding proteins canonically understood to regulate RNA processing can also function like transcription factors and cofactors to directly regulate transcription. 37827
Krishna Shrinivas @shrinivaslab.bsky.social · 08/06/2026Intrinsically disordered proteins (IDPs) flit between diverse shapes and interact in fuzzy ensembles whose collective properties shape function. Q: Can we rationally design emergent properties of IDPs? Our newest preprint takes a stab at this 🧵 biorxiv.org/content/10.6... 151
Reposted by Krishna ShrinivasJon Henninger @jhenninger.bsky.social · 03/06/2026See our handy graphical abstract and article for free here: bit.ly/4vsl845 0188
Krishna Shrinivas @shrinivaslab.bsky.social · 28/05/2026Our work made the cover! (and my very first one!) Congrats to co-authors as well as Ramanna Shrinivas for cover art and @natcomputsci.nature.com for editing/cover design. 091
Reposted by Krishna ShrinivasMinas Karamanis @minaskar.bsky.social · 30/03/2026Hey, I wrote a thing about AI in astrophysics ergosphere.blog/posts/the-ma...ergosphere.blogThe machines are fine. I'm worried about us.On AI agents, grunt work, and the part of science that isn't replaceable. 1101782531
Reposted by Krishna ShrinivasAndriy Goychuk @andriygoychuk.bsky.social · 05/04/2026Do different regions in the cell nucleus find each other by random motion or is there a directed component? In short: likely both. Below, I summarize a few predictions from a recently updated preprint from last June: doi.org/10.48550/arX.... (1/9) #biophysics #theory #active #chromatin #condensatesdoi.orgExternally driven condensates show translation-induced polarization, directed coalescence, and anomalous diffusion in viscoelastic mediaPhase separation into compositionally and physically distinct domains is ubiquitous in (non)living matter ranging from alloys and emulsions to biomolecular condensates in cells. The organization of th... 1165
Reposted by Krishna ShrinivasJoe Greener @jgreener64.bsky.social · 01/04/2026On this 1st April I'm happy to release a technical report from our startup MirageBio, describing a new protein structure model with state-of-the-art performance. jgreener64.github.io/posts/techni...jgreener64.github.ioMirageBio technical report 14618
Reposted by Krishna ShrinivasAlex Holehouse @alexholehouse.bsky.social · 19/02/2026Papers are like buses... You wait for ages, then two come along at once. Huge congrats to @bornanovak.bsky.social and @jefflotthammer.bsky.social for pushing and driving every aspect of this work, preprinted ~1 year ago to the day (Friday before BPS), now published! www.nature.com/articles/s41...nature.comAccurate predictions of disordered protein ensembles with STARLING - NatureThe deep learning model STARLING can generate accurate ensembles of intrinsically disordered regions of proteins using only protein sequence as input. 69036
Reposted by Krishna ShrinivasAlex Holehouse @alexholehouse.bsky.social · 12/02/2026Pleased 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.comSequence and chemical specificity define the functional landscape of intrinsically disordered regions - Nature Cell BiologyLangstein-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... 713958
Reposted by Krishna ShrinivasKyogo Kawaguchi @kyogok.bsky.social · 20/11/2025To probe gene-scale chromatin physics, we built 96-mer (20 kb) arrays with defined histone marks. Combining single-molecule tracking, AFM imaging, and developing in vitro Hi-C, we saw how specific modifications dictate chromatin structure and dynamics. www.science.org/doi/10.1126/...science.orgGene-scale in vitro reconstitution reveals histone acetylation directly controls chromatin architectureReconstituting 20-kb chromatin shows that tuning acetylation alone reshapes its folding, dynamics, and contact domain formation. 56021
Reposted by Krishna ShrinivasBruno Di Stefano @distefanolab.bsky.social · 28/10/20251/ Excited to share our new study with @brumbaugh-lab.bsky.social, out in @natbiotech.nature.com! P-bodies selectively sequester RNAs encoding cell fate regulators, often from the preceding developmental stage. Releasing these RNAs can drive changes in cell identity. 🧵 www.nature.com/articles/s41...nature.comSelective RNA sequestration in biomolecular condensates directs cell fate transitions - Nature BiotechnologyStem cell differentiation is controlled by manipulating RNA condensates. 49437
Reposted by Krishna ShrinivasBen Sabari @bsabari.bsky.social · 22/10/2025In collaboration with Hue Sun Chan and @jonaswessen.bsky.social, we present a polymer theory for sequence-based prediction of selective partitioning of charged IDRs. This method correctly predicted the partitioning of IDRs for which we had no experimental data. www.nature.com/articles/s42...nature.comSequence-based prediction of condensate composition reveals that specificity can emerge from multivalent interactions among disordered regions - Communications ChemistryCondensates composed of the disordered region of the mediator of RNA polymerase II transcription subunit 1 (MED1) are known to partition specific proteins, but whether this specificity arises from ord... 2135
Reposted by Krishna ShrinivasKrishna Shrinivas @shrinivaslab.bsky.social · 10/10/2025Happy to share our latest in @natcomputsci.nature.com led by (amazing) Ryan Krueger + colab w M. Brenner! We introduce a framework to directly design intrinsically disordered proteins (IDPs) from physics-based simulations. 🧬 doi.org/10.1038/s435... 📰 www.mccormick.northwestern.edu/news/article... 2268
Krishna Shrinivas @shrinivaslab.bsky.social · 10/10/2025Happy to share our latest in @natcomputsci.nature.com led by (amazing) Ryan Krueger + colab w M. Brenner! We introduce a framework to directly design intrinsically disordered proteins (IDPs) from physics-based simulations. 🧬 doi.org/10.1038/s435... 📰 www.mccormick.northwestern.edu/news/article... 2268
Reposted by Krishna ShrinivasKalki Kukreja @kkukreja.bsky.social · 09/10/2025Our review on cell cycle – cell fate (de)coupling is out! doi.org/10.1242/dev.... Was a lot of fun writing this with Allon Klein, reading old papers(earliest from 1902), and speculating on why cell cycle progression is not necessary for differentiation across many many tissues and species. (1/3)doi.orgCoupling and decoupling of the cell cycle from cell differentiation in developmentSummary: This Spotlight surveys investigations of the dependence of cellular differentiation on the cell cycle in animals. Strict dependence is uncommon. The decoupling of the cell cycle and different... 1216
Reposted by Krishna ShrinivasNature Computational Science @natcomputsci.nature.com · 07/10/2025📢 @shrinivaslab.bsky.social and colleagues introduce a method for designing unstructured proteins with tunable properties. www.nature.com/articles/s43... 🖥️ 🧬 🔓 rdcu.be/eJSuVnature.comGeneralized design of sequence–ensemble–function relationships for intrinsically disordered proteins - Nature Computational ScienceThe authors introduce a method that combines physics and machine learning to design dynamic unstructured proteins with tunable ensemble properties like size, shape, sensing and binding. 042
Reposted by Krishna ShrinivasKresten Lindorff-Larsen @lindorfflarsen.bsky.social · 07/10/2025A good day to remember John Gurdon’s school report from his biology master at Eton 38019
Reposted by Krishna ShrinivasKrishna Shrinivas @shrinivaslab.bsky.social · 22/09/2025Preprint! Inspired by condensates that form on specific DNA, we ask: can we design multicomponent fluids to form distinct condensates on diff. surfaces? i.e. perform classification by condensation ⚛️ 💻 exploiting phase transitions beyond compartmentalization! arxiv.org/abs/2509.08100 (1/2) 1166
Krishna Shrinivas @shrinivaslab.bsky.social · 22/09/2025Preprint! Inspired by condensates that form on specific DNA, we ask: can we design multicomponent fluids to form distinct condensates on diff. surfaces? i.e. perform classification by condensation ⚛️ 💻 exploiting phase transitions beyond compartmentalization! arxiv.org/abs/2509.08100 (1/2) 1166
Reposted by Krishna Shrinivasbrangwynnelab.bsky.social @brangwynnelab.bsky.social · 20/09/2025A tremendous honor! Thrilled & humbled to receive 2025 Keio Medical Science Prize for launching LLPS #phaseseparation field (= #softmatter + #cellbio) w collaborators esp @HymanLab. & Congrats to Akiko Iwasaki @virusesimmunity.bsky.social. www.princeton.edu/news/2025/09... #KeioMedicalSciencePrizeprinceton.eduBioengineer Clifford Brangwynne wins Keio Medical Science PrizeJapan’s Keio University awards the prize annually to honor contributions in medicine and life sciences. Brangwynne is being recognized for groundbreaking work that has opened up a new field of cell bi... 77812
Krishna Shrinivas @shrinivaslab.bsky.social · 12/09/2025Our work highlighted in @science.org by L. Bryan Ray! www.science.org/doi/10.1126/... 0120
Krishna Shrinivas @shrinivaslab.bsky.social · 04/09/2025New in @pnas.org with @gladfelterlab.bsky.social @sneadlab.bsky.social ! 📢 Cells use condensates (dynamic compartments without membranes) to organize key reactions. Some condensates have core & shell layers… but how do such layers form? 🤔 👉 pnas.org/doi/10.1073/pnas.2504778122 (1/6)pnas.orgPNASProceedings of the National Academy of Sciences (PNAS), a peer reviewed journal of the National Academy of Sciences (NAS) - an authoritative source of high-impact, original research that broadly spans... 1206
Reposted by Krishna ShrinivasGladfelter Lab @gladfelterlab.bsky.social · 07/08/2025Our paper on the spatial organization of nuclear paraspeckles is out in #PNAS! Excited to see what comes next from the teams of @shrinivaslab.bsky.social and @sneadlab.bsky.social at Northwestern! pnas.org/doi/10.1073/pnas.2504778122pnas.orgPNASProceedings of the National Academy of Sciences (PNAS), a peer reviewed journal of the National Academy of Sciences (NAS) - an authoritative source of high-impact, original research that broadly spans... 0207
Reposted by Krishna ShrinivasAlexis Verger 🧬🧫🧪 @alexis-verger.cpesr.fr · 18/07/2025The Baker lab @uwproteindesign.bsky.social apparently had a lot of fun 😂 some examples of sequences used in the paper www.science.org/doi/10.1126/... DAVIDLIKESPEPTIDE DAVIDITISTIME DANIELSILVA HIALIENFRIENDscience.orgDesign of intrinsically disordered region binding proteinsIntrinsically disordered proteins and peptides play key roles in biology, but a lack of defined structures and high variability in sequence and conformational preferences have made targeting such syst... 1356
Reposted by Krishna ShrinivasDave Shechner @shechnerlab.bsky.social · 30/06/2025Hello! Ever wonder what's "talking to" your favorite transcript, but were too scared to ask? In our review in @cp-cellreports.bsky.social, @mardakheh.bsky.social and I highlight new RNA-focused tools for discovering RNA interactions across organizational scales. Checkit! tinyurl.com/ydn6e3ac 311648
Reposted by Krishna ShrinivasDeepa Rajan, PhD @deeparajan.bsky.social · 24/06/2025Our paper on single-cell learning is now published in @currentbiology.bsky.social! @wallaceucsf.bsky.social sciencedirect.com/science/arti...sciencedirect.comA receptor-inactivation model for single-celled habituation in Stentor coeruleusThe single-celled ciliate Stentor coeruleus demonstrates habituation to mechanical stimuli, but the mechanism of learning in this single cell, which l… 13615
Reposted by Krishna ShrinivasKalli Kappel @kallikappel.bsky.social · 17/06/2025In the nucleus, many intrinsically disordered proteins (IDPs) form condensates. What IDP sequence features drive this behavior? We developed CondenSeq, a high-throughput approach to measure nuclear condensate formation, and applied it to ~14,000 IDPs to find out! rdcu.be/eq975rdcu.beCharacterizing protein sequence determinants of nuclear condensates by high-throughput pooled imaging with CondenSeqNature Methods - CondenSeq is an imaging-based, high-throughput platform for characterizing condensate formation within the nuclear environment, uncovering the protein sequence features that... 37232
Reposted by Krishna Shrinivasbrangwynnelab.bsky.social @brangwynnelab.bsky.social · 09/06/2025Start of 2025 @mblscience.bsky.social Physiology course! This is the second year of Amy @gladfelterlab.bsky.social and I co-Directing this absolutely amazing and life-changing course: www.mbl.edu/education/ad... 38414
Reposted by Krishna ShrinivasNSF-Simons NITMB @nitmb.bsky.social · 28/04/2025Join us for this week’s entry in the NITMB Seminar Series! Featuring Krishna Shrinivas (@shrinivaslab.bsky.social), Assistant Professor of Chemical and Biological Engineering at Northwestern University Learn more at www.nitmb.org/nitmb-semina... 022
Reposted by Krishna ShrinivasBen Sabari @bsabari.bsky.social · 25/04/2025I am excited to share the latest paper from my lab where we leverage the selection bias of condensate-promoting oncofusions to uncover molecular rules governing condensate specificity and function. www.cell.com/cell/fulltex.... 56924
Reposted by Krishna ShrinivasKresten Lindorff-Larsen @lindorfflarsen.bsky.social · 17/04/2025AlphaFold is amazing but gives you static structures 🧊 In a fantastic teamwork, @mcagiada.bsky.social and @emilthomasen.bsky.social developed AF2χ to generate conformational ensembles representing side-chain dynamics using AF2 💃 Code: github.com/KULL-Centre/... Colab: github.com/matteo-cagia... 320663
Reposted by Krishna ShrinivasGladfelter Lab @gladfelterlab.bsky.social · 19/03/2025Excited to share our first story on nuclear paraspeckles! Led by @sneadlab.bsky.social, this is the culmination of a ~4 year effort in collab. with @shrinivaslab.bsky.social. Can’t wait to see more paraspeckle stories from the future Snead Lab at Northwestern 🫧 www.biorxiv.org/content/10.1...biorxiv.orgImmiscible proteins compete for RNA binding to order condensate layersBiomolecular condensates mediate diverse and essential cellular functions by compartmentalizing biochemical pathways. Many condensates have internal subdomains with distinct compositional identities. ... 14218
Reposted by Krishna ShrinivasAbby Dernburg @adernburg.bsky.social · 20/02/2025To all people who value science as a source of truth, cures for diseases, and hope for our climate and future, here are 2 hard truths: 1) our current research ecosystem is already strained and very fragile; 2) If it gets broken it will take a generation or longer to repair. Here’s why: 1/n 13216
Reposted by Krishna ShrinivasAlex Holehouse @alexholehouse.bsky.social · 15/02/2025The answer is yes! Come hear about STARLING this afternoon at the Biophysical Society IDP subgroup symposium! Thread to follow later today... www.biorxiv.org/content/10.1...biorxiv.orgAccurate predictions of conformational ensembles of disordered proteins with STARLINGIntrinsically disordered proteins and regions (collectively IDRs) are found across all kingdoms of life and play critical roles in virtually every eukaryotic cellular process. In contrast to folded pr... 02913
Reposted by Krishna ShrinivasBryan Dickinson @chembiobryan.bsky.social · 07/01/2025Super excited to finally share PANCS-Binders: our group's decade-long quest to accelerate protein binder discovery. TLDR: PANCS-binders is fast (2 days), cheap (pennies), has extremely high fidelity (low false positive and negatives), and high-throughput. 1/n 49436
Reposted by Krishna ShrinivasKalki Kukreja @kkukreja.bsky.social · 12/12/2024My first post on bluesky!! Excited to see my PhD work featured on the cover of NCB @naturecellbiology.bsky.social December issue! This image shows a gorgeous #zebrafish embryo undergoing cell division (the green cells with condensed chromatin)—a fundamental process we study in development. 🧵1/2 2306
Reposted by Krishna ShrinivasAlexis Verger 🧬🧫🧪 @alexis-verger.cpesr.fr · 09/12/2024My little side project for 2025. To highlight 1,000 portraits of #womeninSTEM #womeninscience from all eras, all nationalities and all disciplines. ➡️ @1000womeninstem.bsky.social More info here : aninfinityofhypotheses.wordpress.com/2024/12/09/1...aninfinityofhypotheses.wordpress.com1000 Women in STEMWomen in science are no longer invisible. There are many resources available, and all you have to do is spend a little time looking to find fascinating information on hundreds of women scientists f… 29234
Reposted by Krishna ShrinivasFrank Noe @franknoe.bsky.social · 06/12/2024Super excited to preprint our work on developing a Biomolecular Emulator (BioEmu): Scalable emulation of protein equilibrium ensembles with generative deep learning from @msftresearch.bsky.social ch AI for Science. www.biorxiv.org/content/10.1... 21441147
Reposted by Krishna ShrinivasMichaela Müller-McNicoll @mixmue.bsky.social · 30/11/2024#Paraspeckles look surprisingly different when you look at them in 3D and using multiple probes. We would be interested to her your ideas on potential functional implications. 24110
Reposted by Krishna ShrinivasDave Shechner @shechnerlab.bsky.social · 21/11/2024It's my great pleasure to present the next big preprint from SheqLab! An exciting application of our O-MAP platform that I hope will transform the study of nuclear architecture. If you've ever wanted to dissect the subnuclear "neighborhood" around an individual locus, read on! (1/30) 1118576
Reposted by Krishna ShrinivasWallace Marshall @wallaceucsf.bsky.social · 21/11/2024Single cells can learn without a brain, but how? Our new preprint from @deeparajan.bsky.social describes a model for habituation in Stentor coeruleus, based on receptor internalization and recycling, along with new experiments inspired by the model. 1/n www.biorxiv.org/content/10.1... 515646
Reposted by Krishna ShrinivasKevin K. Yang 楊凱筌 @kevinkaichuang.bsky.social · 18/11/2024Two BioML starter packs now: Pack 1: go.bsky.app/2VWBcCd Pack 2: go.bsky.app/Bw84Hmc DM if you want to be included (or nominate people who should be!) 1011956
Reposted by Krishna ShrinivasMark Peifer (He, him) @peiferlabunc.bsky.social · 16/11/2024In September the world lost one of the great biologists of our time: Joe Gall. He bridged the transition from the histology era of cell biology to our molecular present, contributing a remarkable set of insights in his 9 decades 1/n 🧪 rupress.org/jcb/article-... 621976
Reposted by Krishna ShrinivasAlexis Verger 🧬🧫🧪 @alexis-verger.cpesr.fr · 15/11/2024go.bsky.app/FdHEYR3 175
Krishna Shrinivas @shrinivaslab.bsky.social · 15/11/2024A new starter pack for condensates :) i am obviously missing many, pls ping and I'll add go.bsky.app/FdHEYR3 5102
Krishna Shrinivas @shrinivaslab.bsky.social · 15/11/2024Just started this, would love to add more people i missed go.bsky.app/FdHEYR3 010
Reposted by Krishna ShrinivasJon Henninger @jhenninger.bsky.social · 11/11/2024First post! I am a new Assistant Professor at Carnegie Mellon University exploring how RNA molecules regulate transcription and cell fate. Check out our recent review in this space! www.cell.com/molecular-ce...cell.comAn RNA-centric view of transcription and genome organizationRNA molecules are involved in diverse regulatory mechanisms that contribute to gene activation, gene repression, and genome structure. Henninger and Young discuss how the more traditional DNA-protein-... 04412