L. K. Davis

This study investigates liquid crystalline droplets formed by inoviral phages in bacteria, showing they protect cells from antibiotics through biophysical properties rather than surface chemistry.

This study uses a physical model to predict how different nuclear transport receptors (NTRs) modulate each other's penetration through FG nucleoporin assemblies, revealing phase separation at physiologically relevant concentrations.

This paper uses the Spatial Convolution Model (SCM) to analyze allostery in 14-3-3 ζ docking proteins by modeling wave propagation and entropy transfer across three scales.

This study develops computational models to analyze the role of heterogeneity in FG Nups and NTRs, finding minor effects on binding equilibria but significant impacts on kinetics and multivalency.

This paper develops a computational model to study how charged residues on collagen-mimetic molecules drive the formation of striped fibrils, showing that multi-body interactions determine the fibril pattern.

This study shows FG nups in the nuclear pore complex exhibit ideal-polymer behavior, balancing repulsive and attractive interactions to enable both cohesion and dynamic transport.

The paper rewires cooperative communications in 14-3-3 ζ docking protein using the Fundamental Theory of the Evolution Force to increase flexibility and discover evolutionary blueprints encoded in the genome.