New electrocatalyst may prove helpful in lowering hydrogen fuel production cost
Discovering a less expensive catalyst will be particularly helpful in cutting the cost of green H2. The production of emission-free green hydrogen is achieved through the use of an electrocatalyst within a renewable energy-powered electrolyzer that splits water molecules. That said, the current standard is a platinum catalyst. The cost of rare metals as catalysts keeps the price tag associated with H2 quite high compared to other forms. Since platinum is a rare metal, it makes the electrocatalysts quite expensive. In fact, it’s typically more expensive than gold. As a result, using electrolys…
Discovering a less expensive catalyst will be particularly helpful in cutting the cost of green H2.
The production of emission-free green hydrogen is achieved through the use of an electrocatalyst within a renewable energy-powered electrolyzer that splits water molecules. That said, the current standard is a platinum catalyst.The cost of rare metals as catalysts keeps the price tag associated with H2 quite high compared to other forms.
Since platinum is a rare metal, it makes the electrocatalysts quite expensive. In fact, it’s typically more expensive than gold. As a result, using electrolysis powered by renewable energy to produce hydrogen fuel is considerably more expensive than using polluting fossil fuels (without government subsidies and assistance). As a result, scientists have been researching lower-cost alternatives in the hopes of finding an option that will make it possible to use electrolysis more cheaply. Recently, one of those options has been in the form of molybdenum disulfide. It is a two-dimensional compound currently used quite often in products such as motorcycle engine lubricants. While not as efficient as platinum, it still appears to be quite promising.
A recently published study examined this material and how its efficiency could be substantially increased. The researchers were scientists from the University of Buffalo. The study was published in Npj 2D Materials and Applications.