Nimesh Chahare

@onenimesa.bsky.social

Doing #EpithelialMechanics! with neural tube🐣 Convenor @epimechfc.bsky.social Postdoc @htstuart lab @embl.org // @NerurkarLab at Columbia // PhD @xaviertrepat.bsky.social lab at IBEC Barcelona jexpnimesh.com

How are two embryos alike? As we collect spatio-temporal microscopy data, we want to quantify variability in the timing of key developmental events. Alignment of multiple recordings is a core engineering challenge here and we suggest a solution; read about it: www.biorxiv.org/content/10.6...

A quantitative coordinate system for developmental dynamics

Quantitative comparison of morphogenesis across individuals remains a fundamental challenge, as developing embryos vary in shape, orientation and developmental tempo. Moreover, real-time three-dimensi...

biorxiv.org

Our latest: Minimal essential requirements for neural tube self-organisation How does a single cell give rise to a tissue with the right cell types in the right proportions? We deconstruct and rebuild a self-organising tissue from first principles A thread🧵 www.biorxiv.org/content/10.6...

Minimal essential requirements for neural tube self-organisation

The reliable generation of diverse cell types in precise proportions is essential for the formation of functional tissues during embryonic development. Three-dimensional organoid models derived from p...

biorxiv.org

Hundreds of organelles. Disorder → order. No blueprint. The switch? Actin crosslinking. The moment the meshwork forms, Basal Body dynamics shift from diffusive to subdiffusive. Same transition. Same developmental window - Every time. New preprint from my postdoc. Full thread👇

kuba sędziński@kuba-sedzinski.bsky.social · 3mo ago

💥 🚀 New preprint! 🎉🥳 How do hundreds of organelles organize themselves into near-perfect patterns inside a cell, without a blueprint? We dive deep into how basal bodies (BBs) self-organize in MCCs - and how actin actively tunes their dynamics into order 🍪 🧵👇 (1/17)

🚨 How do mechanical forces shape a developing organ? Our new #ScienceAdvances @science.org study, led by the amazing @cvagenapantoula.bsky.social, reveals a Piezo1-driven hydraulic mechanism, where mechanical cues control cell volume to guide cardiac formation ❤️🐟 🔗 www.science.org/doi/10.1126/...

Piezo1-mediated mechanohydraulic control of cell volume drives cardiac morphogenesis

Mechanical forces shape the developing heart by controlling cell volume through a Piezo1-driven hydraulic mechanism.

science.org