Tritium is a sustainable next‐generation prime fuel for generating nuclear energy through
fusion reactions to fulfill the increasing global energy demand. Owing to the scarcity–high …

Graphene-based membranes have got significant attention in wastewater treatment,
desalination, gas separation, pervaporation, fuel cell, energy storage applications due to …

Porous materials that contain ultrafine pore apertures can separate hydrogen isotopes via
kinetic quantum sieving (KQS). However, it is challenging to design materials with suitably …

Electrolysis of water is widely used for hydrogen isotope separation and the development of
hydrogen evolution reaction (HER) catalysts with high selectivity and activity is of key …

Flexible metal–organic frameworks offer a route towards high useable hydrogen storage
capacities with minimal swings in pressure and temperature via step-shaped adsorption and …

The separation of hydrogen isotopes is a vital step in preparing tritium and deuterium fuels
for future fusion power plants. This represents a fundamental challenge to fusion energy …

Realizing ideal deuterium separation from isotopic mixtures remains a daunting challenge
because of their almost identical sizes, shapes, and physicochemical properties. Using the …

The commercial demand for D 2 is poised to increase significantly; however, the low natural
abundance and the energy-and capital-intensive industrial separation (ie, 24 K cryogenic …

Quantum sieving is a promising approach for separation of hydrogen isotopes using porous
solids as sorbents at cryogenic temperatures (< 77 K). In the present work, we characterized …

Kinetic quantum sieving (KQS) based on pore size and chemical affinity quantum sieving
(CAQS) based on adsorption site are two routes of porous materials to separate hydrogen …