We have designed a carbon nanotube that is selectively permeable to monovalent cations, binds divalent cations and rejects anions. The nanotubes, with an effective radius of 4.53 and length of 36 , are terminated with hydrogen atoms and are exohydrogenated in two regions near the entrance and exit. Using molecular and stochastic dynamics simulations we examine the free energy, current-voltage-concentration profiles and ion binding sites. The characteristics of this channel are comparable to the antibiotic gramicidin-A, but the potassium current is six times larger. At 40 mM calcium concentration the current is reduced from 26 pA to 4 pA due to a calcium ion binding at the channel entrance
Nanofluidic channels confine water and ions down to length scales that are comparable to the sizes o...
In order to better understand the ionic transport properties of carbon nanotubes, we have been exami...
In this paper, we use applied mathematical modelling to investigate the transportation of ions insid...
ABSTRACT Synthetic channels, such as nanotubes, offer the possibility of ion-selective nanoscale por...
Synthetic channels, such as nanotubes, offer the possibility of ion-selective nanoscale pores which ...
AbstractSynthetic channels, such as nanotubes, offer the possibility of ion-selective nanoscale pore...
The ability to design ion-selective, synthetic nanotubes which mimic biological ion channels may hav...
Carbon nanotubes have now our day’s major role. High usage of carbon nanotubes they are applied in v...
Biomimetic nanopores based on membrane-spanning single-walled carbon nanotubes have been designed to...
Biological ion channels in membranes are selectively permeable to specific ionic species. They maint...
Carbon nanotubes are building blocks of the fast-developing nanotechnology that leads to revolutiona...
Many processes in life are based on ion currents and membrane voltages controlled by a sophisticated...
Here we identify a novel class of biological membrane ion channel blockers called single-walled carb...
Control of mass transport through nanochannels is of critical importance in many nanoscale devices a...
Biological pores regulate the cellular traffic of a large variety of solutes, often with high select...
Nanofluidic channels confine water and ions down to length scales that are comparable to the sizes o...
In order to better understand the ionic transport properties of carbon nanotubes, we have been exami...
In this paper, we use applied mathematical modelling to investigate the transportation of ions insid...
ABSTRACT Synthetic channels, such as nanotubes, offer the possibility of ion-selective nanoscale por...
Synthetic channels, such as nanotubes, offer the possibility of ion-selective nanoscale pores which ...
AbstractSynthetic channels, such as nanotubes, offer the possibility of ion-selective nanoscale pore...
The ability to design ion-selective, synthetic nanotubes which mimic biological ion channels may hav...
Carbon nanotubes have now our day’s major role. High usage of carbon nanotubes they are applied in v...
Biomimetic nanopores based on membrane-spanning single-walled carbon nanotubes have been designed to...
Biological ion channels in membranes are selectively permeable to specific ionic species. They maint...
Carbon nanotubes are building blocks of the fast-developing nanotechnology that leads to revolutiona...
Many processes in life are based on ion currents and membrane voltages controlled by a sophisticated...
Here we identify a novel class of biological membrane ion channel blockers called single-walled carb...
Control of mass transport through nanochannels is of critical importance in many nanoscale devices a...
Biological pores regulate the cellular traffic of a large variety of solutes, often with high select...
Nanofluidic channels confine water and ions down to length scales that are comparable to the sizes o...
In order to better understand the ionic transport properties of carbon nanotubes, we have been exami...
In this paper, we use applied mathematical modelling to investigate the transportation of ions insid...