AbstractNanopores have emerged over the past two decades to become an important technique in single molecule experimental physics and biomolecule sensing. Recently DNA nanotechnology, in particular DNA origami, has been used for the formation of nanopores in insulating materials. DNA origami is a very attractive technique for the formation of nanopores since it enables the construction of 3D shapes with precise control over geometry and surface functionality. DNA origami has been applied to nanopore research by forming hybrid architectures with solid state nanopores and by direct insertion into lipid bilayers. This review discusses recent experimental work in this area and provides an outlook for future avenues and challenges
Over the last decade, DNA origami has matured into one of the most powerful bottom-up nanofabricatio...
DNA origami nanotechnology is being increasingly used to mimic membrane-associated biophysical pheno...
We show DNA origami nanopores that respond to high voltages by a change in conformation on glass nan...
AbstractNanopores have emerged over the past two decades to become an important technique in single ...
We demonstrate the assembly of functional hybrid nanopores for single molecule sensing by inserting ...
We combine DNA origami structures with glass nanocapillaries to reversibly form hybrid DNA origami n...
DNA origami is a DNA-based nanotechnology that utilizes programmed combinations of short complementa...
The specificity and simplicity of the Watson–Crick base pair interactions make DNA one of the most v...
AbstractOver the last decade, functionally designed DNA nanostructures applied to lipid membranes pr...
Solid-state nanopores have enabled the single-molecule detection of a range of analytes but often la...
Over the last decade, functionally designed DNA nanostructures applied to lipid membranes prompted i...
DNA nanotechnology allows for the programmable self-assembly of nanostructures of arbitrary shapes a...
The DNA-origami technique has enabled the engineering of transmembrane nanopores with programmable s...
The DNA origami technique itself is considered a milestone of DNA nanotechnology and DNA origami nan...
DNA nanotechnology provides an excellent foundation for diverse nanoscale structures that can be use...
Over the last decade, DNA origami has matured into one of the most powerful bottom-up nanofabricatio...
DNA origami nanotechnology is being increasingly used to mimic membrane-associated biophysical pheno...
We show DNA origami nanopores that respond to high voltages by a change in conformation on glass nan...
AbstractNanopores have emerged over the past two decades to become an important technique in single ...
We demonstrate the assembly of functional hybrid nanopores for single molecule sensing by inserting ...
We combine DNA origami structures with glass nanocapillaries to reversibly form hybrid DNA origami n...
DNA origami is a DNA-based nanotechnology that utilizes programmed combinations of short complementa...
The specificity and simplicity of the Watson–Crick base pair interactions make DNA one of the most v...
AbstractOver the last decade, functionally designed DNA nanostructures applied to lipid membranes pr...
Solid-state nanopores have enabled the single-molecule detection of a range of analytes but often la...
Over the last decade, functionally designed DNA nanostructures applied to lipid membranes prompted i...
DNA nanotechnology allows for the programmable self-assembly of nanostructures of arbitrary shapes a...
The DNA-origami technique has enabled the engineering of transmembrane nanopores with programmable s...
The DNA origami technique itself is considered a milestone of DNA nanotechnology and DNA origami nan...
DNA nanotechnology provides an excellent foundation for diverse nanoscale structures that can be use...
Over the last decade, DNA origami has matured into one of the most powerful bottom-up nanofabricatio...
DNA origami nanotechnology is being increasingly used to mimic membrane-associated biophysical pheno...
We show DNA origami nanopores that respond to high voltages by a change in conformation on glass nan...