Open research position in my group at RIKEN BDR, Kobe, Japan.
We seek candidates with a strong background in theoretical biophysics/modeling to study cell and tissue mechanics through close interaction with experiments.
Details:
https://t.co/m4s1SypRRA
Our paper is now online!
How can we describe active agents—filaments and cells—on curved surfaces? How does curvature affect their collective behavior?
We develop a simple geometric framework and show that flocking depends on curvature heterogeneity. https://t.co/DB3RqxxQAs
Congratulations, Kyogoku-san and Kitajima-san! We are happy to have contributed a theoretical model that helps explain their data on nuclear volume growth.
New preprint: How is multicellular handedness determined? The same cell chirality can produce opposite multicellular handedness. Just as a car move forward or backward from the same engine rotation. By @TomokiIshibashi, et al. https://t.co/Rz3odwfxhT
It was great to host Robin Bölsterli, a PhD student from the Niels Bohr Institute at the University of Copenhagen. He shared his ongoing collaborative work with Hirashima-san (@hirashima0203), and we had a great discussion.
The study by Yan Chen, @LabPhng and collaborators was published in @NatureComms.
Circumferential actomyosin bundles anchored by CCM1 drive endothelial cell contraction and vessel constriction.
https://t.co/4wLAxh5mkA
Tatsuo @TatsuoShibata25 will speak at the upcoming EMBL symposium! Looking forward to great discussions on collective behavior in living systems. 次回のEMBLシンポジウムで講演します。生命システムのcollectivityについて議論できるのを楽しみにしています! #EESCollectivity@EMBLEvents
We hosted Prof. Stephan Grill (@StephanGrill; MPI-CBG Dresden, @mpicbg, @PoLDresden) for a BDR seminar (@BDR_RIKEN) on Feb 12, followed by a full day of discussions. Thank you, Stephan, for a fantastic talk!
#Molecular#Chirality in cytoskeletal proteins drives cellular rotation, offering new insight into how left–right asymmetry emerges in tissues and organs from the molecular to the cellular level. @riken_en@elife https://t.co/Z95lpfHFkR https://t.co/XXAcvAmt58
New arXiv preprint: I develop a geometric framework to describe how cells and proteins move and collectively organize on curved surfaces, linking curvature to the dynamics of active agents. https://t.co/QpRwSUEpGa #ActiveMatter
【bioRxivプレプリント】Kalman-filter Force Inference(KFI):上皮形態形成のタイムラプス・イメージングデータから、細胞の力(細胞間接着の張力と細胞圧)を動的にベイズ/カルマンフィルターの枠組みで推定します。https://t.co/MjGAkgNPdF #Mechanobiology#Morphogenesis
New bioRxiv preprint: Kalman-filter Force Inference (KFI) estimates dynamic cellular forces (junction tensions and cell pressures) from time-lapse data of epithelial morphogenesis using a Bayesian/Kalman framework. https://t.co/MjGAkgNPdF #Mechanobiology#Morphogenesis
New preprint: Chiral multi-armed spirals emerge in migrating cells under continuous supply. Experiments (Dictyostelium KI)+ an open chiral Vicsek model show how weak single-cell chirality + continuous supply generate macroscopic chiral order. https://t.co/G6VRVrgf5z #ActiveMatter
New preprint: Chiral multi-armed spirals emerge in migrating cells under continuous supply. Experiments (Dictyostelium KI)+ an open chiral Vicsek model show how weak single-cell chirality + continuous supply generate macroscopic chiral order. https://t.co/G6VRVrgf5z #ActiveMatter
Tiny molecular spirals in cells can scale up to control the twist and turn of entire tissues, an important step towards understanding left-right symmetry in tissues and organs.
https://t.co/QosfkWNawR
How chirality goes from the molecular scale to the cellular one: our @eLife paper on a dynamic concentric actomyosin pattern driving cell chirality, revealed by imaging, super resolution technique, and a theoretical model. https://t.co/hQcoawdLr0
Tiny molecular spirals in cells can scale up to control the twist and turn of entire tissues – an important step towards understanding left-right symmetry in tissues and organs.
https://t.co/QosfkWNawR