Theoretical biophysics group @mpids. We study how soft and fluid-like materials are organized in biological organisms and cells. @zwickergroup.bsky.social
Our analysis of crossover interference in meiosis is now online: https://t.co/k4Yv72kpcS 🎉 We introduce the interference distance L_int as a new scalar quantification (Online tool at https://t.co/aIHI1AoAmD). L_int allows us to compare data across species, mutants, and sexes!
RT appreciated:
My lab is recruiting several Ph.D.s and Postdocs excited to build synthetic cells that undergo Darwinian evolution.
The backgrounds that we need for include biochemistry, synthetic biology, and systems chemistry.
Details: https://t.co/wnL58oCjol
4-year PhD and post-doctoral positions @goehring_lab@TheCrick combining advanced cell biological, biophysical, and theoretical approaches to uncover the design principles of cell polarity and fate specification in C. elegans. https://t.co/N04dUcHuMS https://t.co/3wyvnK5OHR
Filipe Thewes 🇧🇷 joined our group this week! After a successful PhD with @psollich at @uniGoettingen, he moved up the hill to help us understand multicomponent phase separation. Welcome aboard! 🥳
@ShuLab2010@WallaceUcsf Our generic reply to this question is that it’s not the right question to ask. Certainly, biology does not care whether we call a cluster a „condensate“. Instead we find it helpful to ask whether describing a cluster as a condensate makes useful predictions!
⏰Do you have a minute?⏰
Chengjie Lou is a postdoctoral researcher in the @ZwickerGroup at MPI-DS. Let's spend a minute with him and join his work on patterns created by phase separation!
https://t.co/zDIQ6VXFi3
@luochengjie58#DYHAM
The full article at https://t.co/n3ROQHjAht has many more details and we will explorer the role of charges further.
This work started from a short discussion after a Zoom talk by @jerelleaj and was driven by @luochengjie58, Nate Hess, Dilimulati Aierken, and Yicheng Qiang!
Happy to announce a preprint by @jerellea’s and our group. 🎉 https://t.co/n3ROQHjAht shows that #droplet growth is arrested at finite sizes when the phase separating material evokes a net #charge of the droplet. The attached molecular dynamics simulation visualizes this effect
Interestingly, the strength of phase separation has only a weak effect on droplet size, which we confirmed with more simulations. Our work shows how charge can control droplet size, e.g., to regulate #condensates inside biological cells.
We welcome 🇳🇱 Guido Kusters as a new postdoc in our group! Guido did his PhD in Eindhoven and will work on various topics involving phase separation with us. Welcome aboard! 🎊🎉
Calling all emerging scientists - it’s time to send us an application! 😉😎 Lead your own #MaxPlanck Research Group w/ €2.7M in funding over 6 yrs, full independence & resources to hire staff. State-of-the-art infrastructure awaits you!🌟 Apply today➡️https://t.co/cHxPLyRj9x
@carlacolloids@snsf_ch@eth_mat@Complex_Mat Congratulations! This will start an exciting chapter in your career! Looking forward to more phenomenal science out of Zurich.
We are accepting applications again to our fantastic fully funded program with excellent faculty and interdisciplinary research opportunities! APPLY NOW!!! https://t.co/bC6lOvgHFJ #maxplanckschools#passionforscience 👌💪🏻🧠🍀
It’s amazing to see experimental evidence for a mechanism we conceived about a decade ago! Congratulations to @BoekhovenLab and @WebersGroup – this is surely just the beginning of an exciting scientific journey! 🎉
Frank Jülicher, @ZwickerGroup, Rabea Seyboldt, @HymanLab, @WebersGroup predicted such a size control in a theoretical framework.
We have now verified that mechanism for the first time in an experimental system!
https://t.co/sCldZUoO0p