Tackling the Hydrogen Storage Challenge with Nobel Prize-Winning Science
Hydrogen is abundant, clean, and extraordinarily energy-dense, and a fuel cell converts it into electricity efficiently and on demand. On paper, it is an ideal foundation for a decarbonized energy system. Yet decades after that promise was first made, hydrogen’s large-scale deployment remains limited, and challenging storage and transportation is one of the main reasons why.
Storing and transporting hydrogen safely and efficiently from where it is produced to where it is needed has proven extremely difficult, and existing storage methods all impose harsh trade-offs between energy density, safety, cost, and practicality. A new class of nano-engineered reticular materials based on Nobel Prize-winning science is emerging as a promising answer, enabling efficient hydrogen storage in solid state, at low pressure and near-ambient temperature.
The Challenge: Storing Hydrogen Safely and Efficiently
Hydrogen is the lightest element on the periodic table. Pound for pound it carries roughly three times the energy of gasoline. But at room temperature and atmospheric pressure, a single kilogram of hydrogen sprawls across more than 11,000 liters. Turning that volume into something practical to store and transport is the core challenge. (…)
