Jinghui Liu
@liujinghui.bsky.social
ELBE & Marie Curie postdoc CSBD/MPI-CBG/MPI-PKS | MIT physics PhD 22’ | Peking Univ physics undergrad 16’
Now #published @cp-cellsystems.bsky.social: "Impossible ecologies: Interaction networks and stability of coexistence in ecological communities" doi.org/10.1016/j.cels.2025.101297! With @yumeng0806.bsky.social, @szhorvat.bsky.social, Carl Modes @mpipks.bsky.social @mpi-cbg.de @csbdresden.bsky.social.
REPOSTING a recent work to announce a start on Bluesky :) 🌐 If you are looking for Friday readings— www.nature.com/articles/s41... an article I and Tom Burkart (@physicsoflifelmu.bsky.social) wrote, featured as a @natphys.nature.com research briefing! From my PhD in @fakhrilab.bsky.social at MIT!
Very excited about the new avenue!! The physics of bioelectrical signalling in tissues, and the molecular mechanism it employs to ensure correct organ regeneration. Check here: www.biorxiv.org/content/10.1... Stay tuned for more from us in the coming future!!
Injury-induced electrochemical coupling triggers regenerative cell proliferation
Organ injury triggers non-neuronal electric currents essential for regeneration. Yet, the mechanisms by which electrical signals are generated, sensed and transmitted upon damage to promote organ grow...
biorxiv.org
Elisa Nerli@nerlielisa.bsky.social · last yr.How can organs regenerate fast? Bioelectricity helps -- by coupling sub-second electrical injury signals to regenerative proliferation. First preprint from my potsdoc :D with @liujinghui.bsky.social @ritamateus.bsky.social @mpi-cbg.de and collaborators @mpipks.bsky.social @csbdresden.bsky.social
Super proud of our collab!!
Rita Mateus@ritamateus.bsky.social · last yr.Super proud of superstar postdocs @nerlielisa.bsky.social and @liujinghui.bsky.social for our lab's most recent preprint! We uncover how wound-induced electrical currents are generated and transmitted in tissues, triggering proliferation, essential for organ #regeneration #bioelectricity #QBio 👇
Looking for a reading snack? Our work is featured as a @NaturePhysics research briefing: www.nature.com/articles/s41...
Optical control of an excitable enzyme circuit for engineering dynamic cell shapes - Nature Physics
Light-switchable enzymes hold great promise for mediating molecular activations in living cells, yet their full potential in realizing versatile controls in nonlinear networks remains unexplored. Now,...
nature.com
Researchers led by Erwin Frey (LMU Munich) and Nikta Fakhri (MIT) discovered how to reshape living cells with light, revealing key mechanisms behind cell morphogenesis. read article: www.synbiobeta.com/read/lighten... #SyntheticBiology #Optogenetics #ScienceNews
Lighten Up: How Scientists Are Twisting Cells at Will - SynBioBeta
synbiobeta.com
We may not have really squared the circle — but we came close! 😉 In our @NaturePhysics paper w/ @fakhrilab.bsky.social, light-triggered membrane excitability enables programmable shapes — a step toward engineering living matter. 🔗 www.nature.com/articles/s41... #biophysics #syntheticcell #softmatter
🚀 The Frey Group is now on Bluesky! 🌐 We explore statistical physics, biophysics, and nonequilibrium systems. From active matter to self-organization in biology, we uncover fundamental principles of complex systems. #Physics #Biophysics #ActiveMatter #ComplexSystems #TheoreticalPhysics
We strongly suggest that academic publishers and other platforms that host research rapidly implement a Share to Bluesky button for their articles. Here's how: docs.bsky.app/docs/advance... #AcademicSky #HigherEd #Altmetrics
Action Intent Links | Bluesky
Authors, websites, and apps can use action intent links to implement "Share on Bluesky" buttons, or similar in-app actions. Logged-in users will be directed to the corresponding action view in the Blu...
docs.bsky.app
