Publications

bioRxiv

Hetero-oligomerization of TDP-43 carboxy-terminal fragments with cellular proteins contributes to proteotoxicity

• Neurodegeneration
• Phase Separation
• Physics of Condensates

bioRxiv

Interplay between PML NBs and HIRA for H3.3 dynamics following type I interferon stimulus

• Cancer
• Transcription

bioRxiv

Condensates of disordered proteins have small-world network structures and interfaces defined by expanded conformations

• Neurodegeneration
• Phase Separation
• Physics of Condensates

The Journal of chemical physics

Multiphase organization is a second phase transition within multi-component biomolecular condensates

• Methods
• Phase Separation
• Physics of Condensates

The journal of physical chemistry B

Gelation Dynamics upon Pressure-Induced Liquid-Liquid Phase Separation in a Water-Lysozyme Solution

• Methods
• Phase Separation
• Physics of Condensates

STAR protocols

Using fluorescence anisotropy to monitor chaperone dispersal of RNA-binding protein condensates

• Methods
• Physics of Condensates
• Transcription

Jill Bouchard

Editor in Chief, Condensates.com

Here's the STAR protocol associated with the recent paper in Mol Cell about chaperones and condensates.

Interactions between membraneless condensates and membranous organelles at the presynapse: a phase separation view of synaptic vesicle cycle

• Phase Separation
• Physics of Condensates

iScience

Nde1 is required for heterochromatin compaction and stability in neocortical neurons

• Neurodegeneration
• Phase Separation
• Physics of Condensates

Science Advances

Valence-induced jumps in coacervate properties

• Phase Separation
• Physics of Condensates

Advanced science (Weinheim, Baden-Wurttemberg, Germany)

Complete Sequences of the Velvet Worm Slime Proteins Reveal that Slime Formation is Enabled by Disulfide Bonds and Intrinsically Disordered Regions

• Methods
• Phase Separation
• Physics of Condensates