UCLA

An advanced fuel cell catalyst consisting of ultra-fine platinum particles encased in graphene pockets within porous carbon, designed for hydrogen fuel cell applications with 200,000-hour projected operational life.

New supercapacitors developed by UCLA researchers using graphene, offering higher energy storage and faster charge/discharge rates compared to conventional batteries.

A device that combines a supercapacitor with a solar cell to produce and store hydrogen fuel. Uses nickel, iron, and cobalt catalysts instead of platinum. Scalable for applications ranging from small electronics to fuel cell vehicles to large-scale city energy storage.

A prototype device designed for the production of hydrogen using renewable energy sources.

A device used to split water into hydrogen and oxygen through electrolysis. Bloom Energy produces solid-oxide electrolyzers.

Electrochemical capacitors capable of storing massive electrical charges and discharging energy much faster than batteries.

California

United States

Development of a green hydrogen generator prototype utilizing novel high-performance and low-cost catalyst technology.

Development of an advanced catalyst material using graphene-shielded platinum particles in porous carbon for hydrogen fuel cell applications, achieving 200,000-hour projected durability.

A research project to develop a device that combines a supercapacitor and solar cell to produce and store hydrogen fuel using affordable materials (nickel, iron, cobalt).

A device that combines a supercapacitor with a solar cell to produce and store hydrogen fuel. Uses nickel, iron, and cobalt catalysts instead of platinum. Scalable for applications ranging from small electronics to fuel cell vehicles to large-scale city energy storage.

A prototype device featuring a novel low-cost and high-performance catalyst technology, designed to produce renewable hydrogen and serve as a platform for future innovations.

An advanced fuel cell catalyst consisting of ultra-fine platinum particles encased in graphene pockets within porous carbon, designed for hydrogen fuel cell applications with 200,000-hour projected operational life.