Christian Vanhille Campos (@vainhilla96) 's Twitter Profile
Christian Vanhille Campos

@vainhilla96

PhD @SaricLab (@ISTAustria - @UCL) • Music, coffee, movies and ice cream • he/him • 🐘: @[email protected]

ID: 4068196282

calendar_today29-10-2015 13:48:16

104 Tweet

215 Followers

232 Following

claudio bussi (@claudiobussi) 's Twitter Profile Photo

Thank you very much to Alex Holehouse and Stephen Plassmeyer for covering our recent work on stress granules and endomembrane damage in this excellent News and Views article in nature. Check it out: nature.com/articles/d4158…

ISTAustria (@istaustria) 's Twitter Profile Photo

Membrane damage & stress response: How does a damaged lysosome heal inside the cell? A new paper in collaboration with Andela Saric & Christian Vanhille Campos at ISTA shows that stress granules form a plug to seal the pore. The Francis Crick Institute, nature

ISTAustria (@istaustria) 's Twitter Profile Photo

Healing a perforated vesicle: Molecular condensates rapidly form, triggered by the mixing of the inner (blue) and outer (pink) protein & ion solutions. Over time, the droplets form a plug that stabilizes the membrane. Simulation: © Christian Vanhille Campos Christian Vanhille Campos Andela Saric

Andela Saric (@sariclab) 's Twitter Profile Photo

2 beautiful days of our group retreat in the Alps. We hiked, we enjoyed silence ❄️, we enjoyed science, we cooked, we planned, we played, we 🛁 at 🌡️.

2 beautiful days of our group retreat in the Alps. We hiked, we enjoyed silence ❄️, we enjoyed science, we cooked, we planned, we played, we 🛁 at 🌡️.
claudio bussi (@claudiobussi) 's Twitter Profile Photo

I am thrilled to share the release of the Organelle Dynamics and Function Lab NTU School of Biological Sciences NTU Singapore Super thankful to Max Gutierrez, my great lab mates, amigos and mentors @Crick and everywhere 🇦🇷➡️🇬🇧➡️🇸🇬 Interested candidates get in touch, recruiting soon! bussilab.com #newPI😬

ISTAustria (@istaustria) 's Twitter Profile Photo

Researchers at ISTAustria have discovered a previously unknown mechanism of active matter #SelfOrganization, crucial for bacterial #CellDivision: Misaligned filaments spontaneously "die" to create a well-organized ring structure at the center of a dividing cell.

Researchers at <a href="/ISTAustria/">ISTAustria</a> have discovered a previously unknown mechanism of active matter #SelfOrganization, crucial for bacterial #CellDivision: Misaligned filaments spontaneously "die" to create a well-organized ring structure at the center of a dividing cell.
Nature Portfolio (@natureportfolio) 's Twitter Profile Photo

Treadmilling of cytoskeletal filaments is crucial for their functional self-organization. A study published in Nature Physics sheds light on the mechanism underpinning this collective organization. go.nature.com/3yHQH22

Treadmilling of cytoskeletal filaments is crucial for their functional self-organization. A study published in <a href="/NaturePhysics/">Nature Physics</a> sheds light on the mechanism underpinning this collective organization. go.nature.com/3yHQH22
EMBL (@embl) 's Twitter Profile Photo

EMBL Heidelberg researchers found how chromosomes switch from repelling each other to becoming sticky during cell division. They saw that protein Ki-67 turn chromosomes’ surface into a liquid-like glue that helps in the formation of daughter nuclei. 🔛 embl.org/news/science-t…

EMBL Heidelberg researchers found how chromosomes switch from repelling each other to becoming sticky during cell division.

They saw that protein Ki-67 turn chromosomes’ surface into a liquid-like glue that helps in the formation of daughter nuclei.

🔛 embl.org/news/science-t…