Spotlight October 2023: Improved hydrogen production through novel catalyst made of three metals

Home > Spotlight October 2023: Improved hydrogen production through novel catalyst made of three metals

Hydrogen is one of the important energy carriers of the future when it comes to climate-relevant energy supply. For example, surplus electricity from wind turbines or solar plants can be converted into hydrogen, allowing the otherwise unused energy to be stored for longer periods. This hydrogen can be used to power trucks and buses for local public transport as well as other vehicles in an environmentally and climate-friendly way, or it can be converted back into electricity. However, the production of hydrogen using electricity has so far been relatively inefficient, so catalysts are being feverishly sought to help improve this process.

One possibility now seems to have been discovered in a novel catalyst. Korean researchers have synthesized this catalyst from the three known metals nickel, palladium and platinum, which enables the production of hydrogen about 8 times better than previous platinum-carbon catalysts. This high activity of the catalyst is possible due to the very small subunits in nanometer size. Nickel/platinum and palladium/platinum interfaces are created, which are arranged in a specific order to each other and thus considerably facilitate the processes of hydrogen production.

Such and other expected developments in catalyst chemistry will help secure future energy supplies and contribute to a sustainable and environmentally friendly energy supply.

 

Original publication:

Gu, B.S., Dutta, S., Hong, Y.R., Ngome Okello, O.F., Im, H., Ahn, S., Choi, S.Y., Woo Han, J., Ryu, S., and Lee, I.S. (2023). Angew Chem Int Ed Engl 62, e202307816.

Spotlight October 2023: Improved hydrogen production through novel catalyst made of three metals

Weitere Spotlights


Spotlight July: Plastic Pollution and the Urgent Need for Comprehensive Action

Spotlight July: Plastic Pollution and the Urgent Need for Comprehensive Action

Plastic pollution has become a significant threat to the oceans, biodiversity, and ecosystems worldwide. Despite efforts to reduce plastic consumption, escalating plastic production continues to increase the magnitude of plastic pollution in the environment. In response to this crisis, the UN-Environmental Assembly (Link) adopted a resolution in March 2022 to develop a legally binding treaty […]

Read more

Spotlight July 2021: The Path to Digital Material Research – It is never too late to start

Spotlight July 2021: The Path to Digital Material Research – It is never too late to start

Machine Learning, Artificial Intelligence, Big Data…. Have you read these words lately? No, these are not just buzzwords. The digitalisation of science is an evolving topic that is gaining importance with each passing day. That is why this month we would like to introduce you to the article “Digital Transformation in Materials Science: A Paradigm […]

Read more

Spotlight December 2021: Silica nanoparticles improve plant disease resistance

Spotlight December 2021: Silica nanoparticles improve plant disease resistance

The resistance of plants to various pathogens is often increased in agriculture with various chemicals (“fertilizers”). A new direction is being taken with the use of nanoparticles. These can be sprayed on the plants. In the present study, the model plant Arabidopsis was used to investigate whether silicon dioxide nanoparticles (SiO2) can increase resistance to […]

Read more

Spotlight October 2021: Nanopesticides – a proposal for a risk assessment framework

Spotlight October 2021: Nanopesticides – a proposal for a risk assessment framework

The application of so-called “nanopesticides” (see also cross-sectional text Nanomaterials in plant protection products) is said to have two basic advantages: a smaller amount of pesticide is needed for the same agricultural area and the efficacy is improved. This is necessary to grow enough food for a still growing world population. However, this could also […]

Read more

Skip to content