I. Szleifer

This paper proposes a tree-like data structure for the 3D genome to explain its physical properties and folding principles.

The paper develops a molecular model of the nuclear pore complex's central transporter, revealing a thermoreversible FG-network with distinct territories for different FG motifs.

This study uses 13C' chemical shifts and machine learning to classify RNA backbone conformations into rotamers and discusses limitations of theoretical computations.

This paper introduces a multimodal interferometric imaging platform to study nanoscale structure and macromolecular dynamics in live cells, revealing a new phenomenon called cellular paroxysm induced by UV light.

This study evaluates how cytological preparation affects nanoscale chromatin changes using PWS microscopy in cancer cell models, showing that modifications can preserve clinically relevant nanoscopic differences.