🧪 Synthesizing solid catalysts is one thing, but for their application, they also need to undergo shaping or - in case of 🔌 #electrocatalysis - deposition on electrodes. Such steps are sometimes underrated in academic #catalysis research.

👉 Find out more on the strong effects of different binder additives on the wetting behavior of electrodes for #watersplitting in our recent collaborative work with the Particle Science and Technology Group of Doris Segets at @unidue.bsky.social.

🔗 https://doi.org/10.1021/acsami.5c15573

🤝 We are very happy to provide our powder catalysts for such important studies that open the door towards 🍃 green applications. Thanks for the fruitful collaboration and special congrats to the first author Adarsh! 👏

New Catalyst Cuts The Cost Of Green Hydrogen

US researchers are among the innovators seeking new, low-iridium catalysts, aiming for a sharp reduction in the cost of green hydrogen.

CleanTechnica
New Catalyst Cuts The Cost Of Green Hydrogen

US researchers are among the innovators seeking new, low-iridium catalysts, aiming for a sharp reduction in the cost of green hydrogen.

CleanTechnica

https://phys.org/news/2025-03-scientists-nm-ru-based-alloy.html

Sub-5 nm Ru-based alloys have gained attention as promising electrochemical catalysts for water splitting. However, their synthesis has been constrained by thermodynamic immiscibility, which limits the development of a universally applicable preparation method.

In this study, the research team employed nanosecond laser ultrafast confined alloying (LUCA) to overcome the immiscible-to-miscible transition barrier…

#hydrogen #watersplitting

Scientists develop sub-5 nm Ru-based alloy catalysts for efficient water splitting

A research team led by Prof. Liang Changhao from the Hefei Institutes of Physical Science of the Chinese Academy of Sciences has developed a novel method for synthesizing carbon nanotube (CNT)-supported intermetallic RuM (M = Cu, Rh, and Pd) alloys dominated by sub-5 nm nanoparticles (NPs). Their findings are published in Advanced Science.

Phys.org
Unveiling the role of interface interactions in #Artificial #Photosynthesis. With #InSitu X-ray #Spectroscopy at near-ambient pressure, scientists tracked the carbon nitride #Photocatalyst surface step-by-step t/out the #WaterSplitting process.
https://nachrichten.idw-online.de/2025/01/23/artificial-photosynthesis-decoded-how-carbon-nitride-splits-water-and-enables-green-hydrogen
Artificial Photosynthesis Decoded: How Carbon Nitride Splits Water (and Enables Green Hydrogen)

Paper about an alternative paradigm to photoelectrochemical (PEC) water splitting: the “particle suspension reactor (PSR), forgoes the rigid design in favour of individual PEC particles suspended in solution, a potentially low-cost option compared with planar systems”

“Water splitting with silicon p–i–n superlattices suspended in solution”

#hydrogen #lowcosttech #watersplitting

https://www.nature.com/articles/s41586-022-05549-5

Behind paywall, but 3 data sets and 40 references available.

Water splitting with silicon p–i–n superlattices suspended in solution - Nature

The simplicity of particle suspension reactors and the precise synthetic control afforded by silicon nanowire growth are used to develop a system that can produce hydrogen fuel by splitting water with sunlight.

Nature

Cheap, sustainable #hydrogen through #solarpower: Withstanding high temperatures and the light of 160 suns, a new catalyst is 10 times more efficient than previous sun-powered #watersplitting devices of its kind

ScienceDaily https://www.sciencedaily.com/releases/2023/01/230104115158.htm

Cheap, sustainable hydrogen through solar power: Withstanding high temperatures and the light of 160 suns, a new catalyst is 10 times more efficient than previous sun-powered water-splitting devices of its kind

A new kind of solar panel has achieved 9% efficiency in converting water into hydrogen and oxygen--mimicking a crucial step in natural photosynthesis. Outdoors, it represents a major leap in the technology, nearly 10 times more efficient than solar water-splitting experiments of its kind.

ScienceDaily