In the past few years, graphene oxide (GO) has emerged as a unique platform for
developing DNA-based biosensors, given the DNA adsorption and fluorescence-quenching …

Carbon-based nanomaterials have attracted much attention in recent years.[1] In particular,
graphene, an atomicallythick two-dimensional (2D) honeycomb lattice carbon material, has …

Slowing down DNA translocation speed in a nanopore is essential to ensuring reliable
resolution of individual bases. Thin membrane materials enhance spatial resolution but …

The exploration and fabrication of nano‐biointerfaces have fundamental significance and
practical importance in many fields including chemistry, biology, and materials science …

Interaction of the single-stranded DNA (ssDNA) aptamers and proteins was investigated on
graphene oxide (GO)-based biosensors. GO was applied for biological applications …

In order to understand how oxidation rate of graphene surfaces affects single‐stranded poly‐
thymine, poly (T) 20, structure during physisorption, all‐atom molecular dynamics …

Recent studies on colloidal graphene-based materials have found that double-stranded
DNAs (dsDNAs) can be trapped between stacked graphene layers in an aqueous solution …

Graphene oxide (GO) has a large surface-to-volume ratio and contains hydrophobic
hexagonal rings that can interact with biomolecules. Single-stranded DNA (ssDNA) adsorbs …

In this study, we use classical applied mathematical modelling to employ the 6–12 Lennard-
Jones potential function along with the continuous approximation to investigate the …

Graphene oxide (GO) is known to interact with single-stranded nucleic acids through pi-
stacking interactions and hydrogen bonds between the nucleobases and the hexagonal …