Nanopores have been used to detect molecules, to sequence DNA, or to investigate chemical reactions at the single-molecule level. Because they approach the absolute limit of sensor miniaturization, nanopores are amenable to parallelization and could be used in single-cell measurements. Here we show that single enzymes can be functionally and reversibly trapped inside the confined space of a ClyA nanopore. Remarkably, the binding of ligands to the internalized proteins is mirrored by specific changes to the nanopore conductance. Conveniently, the manipulation of the charge of the protein allowed increasing of the residence time of the protein inside the nanopore. Nanopores with internalized protein adaptors can be used to study proteins in r...
Proteins are the active workhorses in our body. These biomolecules perform all vital cellular functi...
The covalent addition of ubiquitin to target proteins is a key post-translational modification that ...
Nanopore technology, as the simplest and most inexpensive single-molecule tool, is being intensively...
Nanopores have been used to detect molecules, to sequence DNA, or to investigate chemical reactions ...
Nanopores have been used in label-free single-molecule studies, including investigations of chemical...
Biological nanopores are a class of membrane proteins that open nanoscale water conduits in biologic...
Nanopores have recently emerged as powerful tools in single-molecule investigations. Biological nano...
The ability to confine and to study single molecules has enabled important advances in natural and a...
Single protein sensing based on solid-state nanopores is promising but challenging, because the fast...
Nanopores have recently emerged as powerful tools in single-molecule investigations. Biological nano...
International audienceProteins subjected to an electric field and forced to pass through a nanopore ...
Nanopores have recently emerged as powerful tools in single-molecule investigations. Biological nano...
Single molecule studies using nanopores have gained attention due to the ability to sense single mol...
ABSTRACT: Nanopores are a versatile technique for the detection and characterization of single molec...
Proteins are the active workhorses in our body. These biomolecules perform all vital cellular functi...
The covalent addition of ubiquitin to target proteins is a key post-translational modification that ...
Nanopore technology, as the simplest and most inexpensive single-molecule tool, is being intensively...
Nanopores have been used to detect molecules, to sequence DNA, or to investigate chemical reactions ...
Nanopores have been used in label-free single-molecule studies, including investigations of chemical...
Biological nanopores are a class of membrane proteins that open nanoscale water conduits in biologic...
Nanopores have recently emerged as powerful tools in single-molecule investigations. Biological nano...
The ability to confine and to study single molecules has enabled important advances in natural and a...
Single protein sensing based on solid-state nanopores is promising but challenging, because the fast...
Nanopores have recently emerged as powerful tools in single-molecule investigations. Biological nano...
International audienceProteins subjected to an electric field and forced to pass through a nanopore ...
Nanopores have recently emerged as powerful tools in single-molecule investigations. Biological nano...
Single molecule studies using nanopores have gained attention due to the ability to sense single mol...
ABSTRACT: Nanopores are a versatile technique for the detection and characterization of single molec...
Proteins are the active workhorses in our body. These biomolecules perform all vital cellular functi...
The covalent addition of ubiquitin to target proteins is a key post-translational modification that ...
Nanopore technology, as the simplest and most inexpensive single-molecule tool, is being intensively...