While DNA origami is a popular and versatile platform, its structural properties are still poorly
understood. In this study we use solid-state nanopores to investigate the ionic permeability …

The DNA origami technique can enable functionalization of inorganic structures for single-
molecule electric current recordings. Experiments have shown that several layers of DNA …

DNA origami nanostructures can be used to functionalize solid-state nanopores for single
molecule studies. In this study, we characterized a nanopore in a DNA origami–graphene …

We show DNA origami nanopores that respond to high voltages by a change in
conformation on glass nanocapillaries. Our DNA origami nanopores are voltage sensitive as …

The DNA bricks method exploits self-assembly of short DNA fragments to produce custom
three-dimensional objects with subnanometer precision. In contrast to DNA origami, the …

DNA origami enables fabrication of precise nanostructures by programming the self-
assembly of DNA. While this approach has been used to make a variety of complex 2D and …

DNA origami nanostructures have been used extensively as scaffolds for numerous
applications such as for organizing both organic and inorganic nanomaterials, studying …

Nanopores have emerged over the past two decades to become an important technique in
single molecule experimental physics and biomolecule sensing. Recently DNA …

Molecular self-assembly with DNA enables the construction of soluble objects with
nanometer to micrometer scale absolute dimensions and custom chemical features,[1] …

DNA origami nanostructures are regarded as powerful and versatile vehicles for targeted
drug delivery. So far, DNA origami-based drug delivery strategies mostly use intercalation of …