bioRxiv

Overexpression of the microtubule-binding protein CLIP-170 induces a +TIP network superstructure consistent with a biomolecular condensate

• Phase Separation
• Physics of Condensates

Jill Bouchard

Editor in Chief, Condensates.com

Cool, it looks like growing microtubules are regulated at least in part by the phase separation of plus-end tracking proteins (+TIPs).

bioRxiv

Shape Recovery of Deformed Biomolecular Droplets: Dependence on Condensate Viscoelasticity

• Methods
• Phase Separation
• Physics of Condensates

bioRxiv

Structure of Biomolecular Condensates from Dissipative Particle Dynamics Simulations

• Methods
• Neurodegeneration
• Phase Separation
• Physics of Condensates

bioRxiv

Sodium ion regulates liquidity of biomolecular condensates in hyperosmotic stress response

• Phase Separation
• Physics of Condensates

bioRxiv

Structure of Biomolecular Condensates from Dissipative Particle Dynamics Simulations

• Neurodegeneration
• Phase Separation
• Physics of Condensates

Nature Reviews Molecular Cell Biology

Phase separation tunes signal transduction

• Phase Separation
• Physics of Condensates

Jill Bouchard

Editor in Chief, Condensates.com

Here's a Nat Rev Mol Cell Biol Comment article about two articles in the same issue of Science showing the phase separation of signaling proteins: One about actin signaling clusters Another about Ras activation

High Resolution Biomolecular Condensate Phase Diagrams with a Combinatorial Microdroplet Platform

• Methods
• Phase Separation
• Physics of Condensates

bioRxiv

Elasticity generates indissoluble biomolecular condensates

• Methods
• Phase Separation
• Physics of Condensates

bioRxiv

Amphiphilic proteins coassemble into multiphasic condensates and act as biomolecular surfactants

• Phase Separation
• Physics of Condensates

bioRxiv

Chaperones directly and efficiently disperse stress-triggered biomolecular condensates

• Phase Separation
• Transcription