Palladium nanoneedle “highways” for fast hydrogen transport in magnesium nanoparticle assembled films

Abstract The importance of hydrogen storage for mobile applications remains a timely subject with respect to a sustainable energy economy. Magnesium is a viable material for hydrogen storage by insertion, because of its low weight, abundance, and non-toxicity. A major obstacle for magnesium hydrides to be used for hydrogen storage is the high temperature for release, making it impracticable. However, nanoscale magnesium shows promising hydrogen desorption temperatures, which is employed in the form of nanoparticles in this work. A palladium “nanoneedle” network was used to speed up hydrogen transport to and from the magnesium nanoparticles in a matter of minutes. By using the optical changes that accompany the presence of hydrogen in magnesium, hydrogen transport was studied. The palladium nanoneedle “highways” improved the (de-) hydrogenation of magnesium nanoparticles by at least a factor two, which could be a template for further improvements in hydrogen storage systems.

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Publication Details

Journal
Journal of Materials Science
Published
2025-03-01
DOI
https://doi.org/10.1007/s10853-025-10774-0
Citations
1
Primary Topic
Hydrogen Storage and Materials
Type
article
Field-Weighted Citation Impact
0.52

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article

Palladium nanoneedle “highways” for fast hydrogen transport in magnesium nanoparticle assembled films

Marcel Di Vece, Stefania Crespi, Katrina E. Schieck, Luca Pedicone
1 citations
Journal of Materials Science
Hydrogen Storage and Materials
0.52
article

Palladium nanoneedle “highways” for fast hydrogen transport in magnesium nanoparticle assembled films

Marcel Di Vece, Stefania Crespi, Katrina E. Schieck, Luca Pedicone
article en
1 citations

Abstract

Abstract The importance of hydrogen storage for mobile applications remains a timely subject with respect to a sustainable energy economy. Magnesium is a viable material for hydrogen storage by insertion, because of its low weight, abundance, and non-toxicity. A major obstacle for magnesium hydrides to be used for hydrogen storage is the high temperature for release, making it impracticable. However, nanoscale magnesium shows promising hydrogen desorption temperatures, which is employed in the form of nanoparticles in this work. A palladium “nanoneedle” network was used to speed up hydrogen transport to and from the magnesium nanoparticles in a matter of minutes. By using the optical changes that accompany the presence of hydrogen in magnesium, hydrogen transport was studied. The palladium nanoneedle “highways” improved the (de-) hydrogenation of magnesium nanoparticles by at least a factor two, which could be a template for further improvements in hydrogen storage systems.

Journal of Materials ScienceVol. 60(12)
University of Milan (IT)
Università degli Studi di Milano
Openalex Percentile: Top 41%
Hydrogen Storage and Materials
0.52
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