Pranjal Sur

This paper demonstrates that tilting solid-state nanopores increases DNA dwell time by altering electric field distribution and DNA motion, enhancing single-molecule sensing capabilities.

This study investigates how PTMs modulate peptide translocation through graphene nanopores using molecular dynamics, finding that acetylation and phosphorylation significantly alter dwell-time statistics and current blockade.

This study shows that localized electric-field measurements in nanopore sensing can capture peptide charge patterns more effectively than ionic-current blockade, enabling better peptide discrimination.

This study investigates how the orientation of single amino acids affects current blockades during translocation through graphene nanopores using molecular dynamics simulations.