The field of solid-state nanopores and nanochannels has grown exponentially in the past five years. Recent advances have greatly broadened the spectrum of available gating stimuli, expanded applications in sensing, energy conversion, and separation science, and improved our understanding of the mechanisms that govern ion transport in nanometer-sized channels and pores. Despite these impressive achievements, there still exists very challenging (and very exciting) research directions. This review focuses on three of these directions: i) ion selectivity: is it possible to construct channels that discriminate one type of ion from others with the same charge and similar size? ii) Integration with chemical networks: how can chemical networks, whi...
Solid state nanopores are single-molecular devices governed by nanoscale physics with a broad potent...
Recently reported synthetic organic nanopore (SONP) can mimic a key feature of natural ion channels,...
[[abstract]]Due to its capability of mimicking ion channels in living organisms, the ionic transport...
A detailed characterization of the physics of novel nanopore systems has the potential to revolution...
Ion channels are part of nature???s solution for regulating biological environments. Every ion chann...
Biological nanopores are an essential element to the success of the lipid bilayer that makes life po...
Nanoscopic pores in biological systems – cells, for example – are responsible for regulating the tra...
International audienceFundamental understanding of ionic transport at the nanoscale is essential for...
Biological ion channels are essential to life in all its forms. The key properties underlying their ...
We describe the use of asymmetric nanopores decorated with crown ethers for constructing robust sign...
Just lifting a finger involves the coordinated opening and closing of billions of ion channels. Thes...
Abstract: Ionic selectivity across nanochannels is of great importance to biological activities as w...
AbstractNanometer-scale proteinaceous pores are the basis of ion and macromolecular transport in cel...
The transport of ions across single-molecule protein nanochannels is important both in the biologica...
We describe the use of asymmetric nanopores decorated with crown ethers for constructing robust sign...
Solid state nanopores are single-molecular devices governed by nanoscale physics with a broad potent...
Recently reported synthetic organic nanopore (SONP) can mimic a key feature of natural ion channels,...
[[abstract]]Due to its capability of mimicking ion channels in living organisms, the ionic transport...
A detailed characterization of the physics of novel nanopore systems has the potential to revolution...
Ion channels are part of nature???s solution for regulating biological environments. Every ion chann...
Biological nanopores are an essential element to the success of the lipid bilayer that makes life po...
Nanoscopic pores in biological systems – cells, for example – are responsible for regulating the tra...
International audienceFundamental understanding of ionic transport at the nanoscale is essential for...
Biological ion channels are essential to life in all its forms. The key properties underlying their ...
We describe the use of asymmetric nanopores decorated with crown ethers for constructing robust sign...
Just lifting a finger involves the coordinated opening and closing of billions of ion channels. Thes...
Abstract: Ionic selectivity across nanochannels is of great importance to biological activities as w...
AbstractNanometer-scale proteinaceous pores are the basis of ion and macromolecular transport in cel...
The transport of ions across single-molecule protein nanochannels is important both in the biologica...
We describe the use of asymmetric nanopores decorated with crown ethers for constructing robust sign...
Solid state nanopores are single-molecular devices governed by nanoscale physics with a broad potent...
Recently reported synthetic organic nanopore (SONP) can mimic a key feature of natural ion channels,...
[[abstract]]Due to its capability of mimicking ion channels in living organisms, the ionic transport...