Hydrogen is looked upon as the next generation clean energy carrier, search for an efficient
material and method for storing hydrogen has been pursued relentlessly. Improving …

The design of hydrogen storage materials that achieve all of the US Department of Energy's
2015 goals (storage capacity, operating conditions, reversibility, cost, etc.) has proved to be …

With non-renewable fossil fuels depleting rapidly, hydrogen as a clean energy source
producing no pollutants or greenhouse gas emissions upon combustion is bound to play a …

Harvesting energy gases in the nanoporous water-frameworks of clathrate hydrate enables
the widespread of hydrogen-based fuels converted from excess solar or wind energy …

With the development of the hydrogen economy and FCV (fuel cell vehicles), the manner of
storing and delivering large quantities of hydrogen arises as a major problem, and …

In contrast with the previously accepted paradigm, it is now well established that molecular
hydrogen may be contained within the nano-sized cavities of clathrates. Specifically, water …

Hydrogen storage in clathrate hydrates is a promising approach for industry-scale
utilizations. However, extreme operation conditions such as high pressure (about GPa) limit …

Hydrogen is recognized as the" future fuel" and the most promising alternative of fossil fuels
due to its remarkable properties including exceptionally high energy content per unit mass …

Extensive research has been carried on the molecular adsorption in high surface area
materials such as carbonaceous materials and MOFs as well as atomic bonded hydrogen in …

The use of clathrate hydrates as potential hydrogen (H2)-storage materials [1] has attracted
considerable attention recently.[2–4] Clathrate hydrates with cage-like, hydrogen-bonded …