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A combination of polymer physics theories consistently rationalizes comprehensive experimental effects of salt, ATP, phosphorylation, and sequence charge and arginine/lysine patterns on the reentrant phase behaviors of intrinsically disordered proteins.

Findings challenge the neural noise hypothesis of dyslexia, showing no differences in excitatory/inhibitory balance between individuals with dyslexia and controls.

Computational modeling and in vitro experiments identify a unique conformational state in amyloidogenic light chains, providing a structural basis for amyloidosis and a precise target for drug design.

Common principles of white matter microstructure and pathway organisation was revealed using diffusion MRI and x-ray synchrotron imaging across resolutions, and employing diffusion tensor, micro-tensor, multi-fiber, and structure tensor models.

This frontostriatal neural network model links the source of working memory capacity limitations to challenges in learning resource management, and mitigates this challenge by learning a 'chunking' strategy.