The metal-organic framework, MFU-4, possessing small cavities and apertures, is exploited for quantum sieving of hydrogen isotopes. Quantum mechanically, a molecule confined in a small cavity shows an increase in effective size depending on the particle mass, which leads to a faster deuterium adsorption from a H-2/D-2 isotope mixture
Hydrogen (H-2) has been receiving considerable attention as a promising future energy source owing t...
Separating gaseous mixtures that consist of very similar size is one of the critical issues in moder...
In this work, a systematic computational study was performed to investigate the quantum sieving in n...
Highly pure deuterium is an irreplaceable raw material for both industrial and scientific research, ...
Deuterium is widely used for numerous applications such as nuclear fusion, non-radioactive isotopic ...
Recently we reported hydrogen isotope separation by quantum sieving in metal-organic framework MFU-4...
Deuterium has been recognized as an irreplaceable element in industrial and scientific research. How...
Deuterium has been recognized as an irreplace able element in industrial and scientific research. Ho...
Deuterium plays a pivotal role in industrial and scientific research, and is irreplaceable for vario...
Metal-organic frameworks (MOFs) have attracted great attention in gas storage and separation over th...
Hydrogen isotope separation with nanoporous materials is a very challenging yet promising approach. ...
One of the greatest challenges of modern separation technology is separating isotope mixtures in hig...
Hydrogen isotope separation within the metal-organic framework material known as Cu(I)-MFU-4l is inv...
Separation of hydrogen isotopes is of great importance to produce highly pure hydrogen isotopes for ...
Porous materials that contain ultrafine pore apertures can separate hydrogen isotopes via kinetic qu...
Hydrogen (H-2) has been receiving considerable attention as a promising future energy source owing t...
Separating gaseous mixtures that consist of very similar size is one of the critical issues in moder...
In this work, a systematic computational study was performed to investigate the quantum sieving in n...
Highly pure deuterium is an irreplaceable raw material for both industrial and scientific research, ...
Deuterium is widely used for numerous applications such as nuclear fusion, non-radioactive isotopic ...
Recently we reported hydrogen isotope separation by quantum sieving in metal-organic framework MFU-4...
Deuterium has been recognized as an irreplaceable element in industrial and scientific research. How...
Deuterium has been recognized as an irreplace able element in industrial and scientific research. Ho...
Deuterium plays a pivotal role in industrial and scientific research, and is irreplaceable for vario...
Metal-organic frameworks (MOFs) have attracted great attention in gas storage and separation over th...
Hydrogen isotope separation with nanoporous materials is a very challenging yet promising approach. ...
One of the greatest challenges of modern separation technology is separating isotope mixtures in hig...
Hydrogen isotope separation within the metal-organic framework material known as Cu(I)-MFU-4l is inv...
Separation of hydrogen isotopes is of great importance to produce highly pure hydrogen isotopes for ...
Porous materials that contain ultrafine pore apertures can separate hydrogen isotopes via kinetic qu...
Hydrogen (H-2) has been receiving considerable attention as a promising future energy source owing t...
Separating gaseous mixtures that consist of very similar size is one of the critical issues in moder...
In this work, a systematic computational study was performed to investigate the quantum sieving in n...