Biophysics Graduate Club (UC Merced)
@BiophysM
Graduate Biophysics Club at the University of California, Merced (@ucmerced). Account currently managed by: @Ankush_gk11
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Revascularization of coronary endothelial cells during #zebrafish heart regeneration. Credit to @lab_harrison. #ZebrafishZunday
Development of a transgenic zebrafish embryo. Credit to @MarioMendieta_S. #ZebrafishZunday
MAKING THE CENTRIFUGE Two German brothers made a centrifuge in the late 1800s to separate butterfat. Over the next 70 years, their simple idea evolved into a tool powerful enough to separate DNA, viruses, and even uranium isotopes. This is that story. 🔻
Skin T cells form stable blebs to move Read this Research Highlight showcasing work from Tanner Robertson, Anna Huttenlocher and colleagues: journals.biologists.com/dev/article/15… 🎥T cells migrate with F-actin-poor leading edges in the epidermis of scale explants
Green fluorescent protein (GFP) is one of the most ubiquitous tools used in biology research. It was discovered by Osamu Shimomura, a Japanese marine biologist, in 1961. While editing an article about GFP's history, we learned a lot about this man. Like how...🧵
Handmade time-lapse of zebrafish-like development. Credit to @andro_pantru. #ZebrafishZunday
Great article, “How a Biofilm’s Strange Shape Emerges From Cellular Geometry” in @QuantaMagazine. Here are biofilms grown by researcher Lars Dietrich, all from the same bacterium, fed different nutrients. [Link in reply because of dumb new policy restricting tweets with links.]
Micro decisions can have macro consequences. A soft matter physicist reveals how interactions within simple cellular collectives can lead to emergent physical traits. @edbites reports: quantamagazine.org/how-a-biofilms…
How to "program" living cells.🧫 In 2000, physicists ( @ElowitzLab) made bacteria blink on-and-off every 150 minutes. Their experiment, which blended mathematics and wet-lab methods, launched the field of synthetic biology. Learn how they did it in my first interactive story.
底生有孔虫🌀Spirillina vivipara Ehrenberg, 1843 原形質流動を1分を0.5秒に圧縮して観察🔍️ 細胞内の様子がよくみえる👀 緑は餌の藻類 直径約200μm 他の有孔虫と違い、部屋が分かれていない管状です 単位面積あたりの結晶成長速度が有孔虫の中で最速の一種です🚀
Happy #SmallWorldInMotionMonday! HeLa cells, shown here, have been used in over 110,000 research publications and have been used in research on cancer, infectious diseases, and the human genome. 🧪 bit.ly/40eibGg Credit: Jennifer Silverman
#nsffunded Research Experiences for Undergraduates program at University of California, Merced (@ucmerced) for summer 2025. Applications open! etap.nsf.gov/award/6832/opp…
I am putting some effort in keeping track of the conferences on Theoretical Biology and Quantitative Life Science. If you like to add some, please check this page. Help the community! sites.google.com/view/theoretic…
Join us today for a SLAAM seminar, to be given by Dr. Helen Ansell (Emory University) at 10 am Pacific/1 pm Eastern time US. Title: Tunable rheology in models of dense cellular tissue
Superb video of the mitochondrial community in a single cell—hundreds of squiggly microorganisms sensing, processing, and signaling energy and information By @chillinwithpfn1 x.com/chillinwithpfn…
It's about time we bring back #SmallWorldInMotionMonday, don't you think? Let's sparkle and shine this week ⚡️ bit.ly/3YX8Xhf Credit: Wenting Zhu
All excited about this invited talk.
Even though Newton's laws are deterministic, the behavior of many interacting bodies is so chaotic that it looks essentially "random." Statistical mechanics effectively says: why bother with all those complex trajectories? Just go ahead and replace them with truly random motion.
We often think of an "equilibrium" as something standing still, like a scale in perfect balance. But many equilibria are dynamic, like a flowing river which is never changing—yet never standing still. These dynamic equilibria are nicely described by so-called "detailed balance"
Today's SLAAM seminar will feature Dr. Ferdinand Greiss from the Weizmann Institute of Science at 10:00 am PT / 1:00 pm ET (US time). Title: Living matter from the bottom up with single DNA molecules
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