Steven Boeynaems

@boeynaemssteven.bsky.social

Assistant Professor at Baylor College of Medicine and Texas Children's Hospital. Houston, TX Science: disorder, condensates, repeats, cell stress, neurodegeneration, drug discovery, synbio Non-science: art, fashion, cooking www.boeynaemslab.org

Very happy to see our work highlighted by @natcellbio.nature.com. A great team effort and a fascinating example of how a simple physical principle can connect mitosis across eukaryotes! @lgudlin.bsky.social, @krunovuk.bsky.social, @kopslab.bsky.social

Nature Cell Biology@natcellbio.nature.com · last wk.

☕ @lgudlin.bsky.social, @krunovuk.bsky.social, Novak et al propose spindle scaling in response to chromosome crowding consistent across eukaryotes; metaphase plate width scales with genome size following a power law with an exponent of ~1/3. @ivatolic.bsky.social www.nature.com/articles/s41...

Ten years ago Tami, Roy, and I released a movie we made of antibiotic resistance evolving in real time. I thought maybe a couple thousand people tops would see it. I couldn't have imagined it would be seen millions of times, and be taught from middle school through the graduate level worldwide

New #RibackLab preprint! The nucleolus's biophysical properties aren't fixed—they're tuned to energy availability. Under nutrient limitation, nucleoli hibernate: stronger interactions, slower rRNA transport, rapid reversal upon refeeding. Led by incredible postdoc @evdokiiap.bsky.social 🧵👇

Evdokiia Potolitsyna@evdokiiap.bsky.social · 2mo ago

1/ Do cells use phase separation to adapt biosynthetic output to changing demands? In our new preprint, we show that under nutrient limitation, the nucleolus enters a reversible ‘hibernation’ state that slows ribosome biogenesis. See doi.org/10.64898/202...

First preprint from the lab spearheaded by our first grad student @sovannytaylor.bsky.social! We discovered "lipoprotein hitchhiking" as a novel cell penetrance mechanism of killer peptides that has convergently arisen across 600 million years of animal and in human disease. 1/n

Sovanny ‘Sophie’ Taylor@sovannytaylor.bsky.social · 2mo ago

I'm so excited to share our preprint! We asked a deceptively simple question: how do cationic cell-penetrating peptides (+CPPs) - found in immunity, venoms, and disease actually enter cells? www.biorxiv.org/content/10.6...

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Got the news today that I've been promoted to Full Professor of Biochemistry & Molecular Biology at The University of Chicago. A tremendous honor, one made possible by an incredible group of trainees who I've had the pleasure of working with over the past twenty years. Best is yet to come! 🤓🔬

My bronze sculpture of a budding yeast cell, cutaway to show all the organelles and internal structures, in my open hand against a white background. My research group studies budding yeast and human cells to understand the molecular basis for how cells sense and respond to sudden changes in their environment. Now back to our regularly scheduled bug and sculpture posting!

@zjmaggiexu.bsky.social's story on suctorian trap structure adaptation is now online in @currentbiology.bsky.social , with new evolutionary analyses and modeling! This fall, Maggie will keep exploring predatory protists as a PD in @nbellono.bsky.social group; keep an eye out for her she's amazing!

sciencedirect.com

Scott Coyle@cellraiser.bsky.social · 11mo ago

How do cells adapt morphology to function? In a 🔥 preprint by @zjmaggiexu.bsky.social , with @dudinlab.bsky.social and @amyweeks.bsky.social , we identify a self-organizing single-cell morphology circuit that optimizes the feeding trap structure of the suctorian P. collini. 🧵 tinyurl.com/4k8nv926

Thrilled to see our Deep-Phase paper now online in @cellcellpress.bsky.social! 🎉 The final version expands Deep-Phase across labeling modalities, adds dual-condensate imaging to dissect pathway specificity, and shows greater robustness to batch effects than classical image-analysis methods.

Deep learning of functional perturbations from condensate morphology

A deep learning method quantitatively decodes nucleolar, nuclear speckle, and viral condensate morphology to reveal underlying biochemical states. Applying this framework reveals a previously unrecogn...

cell.com

Bacterial immune proteins have repeatedly evolved to become parts of eukaryotic immunity. But how? Our new preprint uncovers a recent horizontal transfer event & shows how eukaryotes co-opted a toxic bacterial immune protein 🦠🧪🧵 1/

Microscopy image showing yeast cells expressing a fluorescently tagged version of the amoeba TirC protein. TirC forms filaments that span the yeast cells.