H2ES FSP Metal hydride composites

June 21st, 2022

R&D Focus Areas:
Hydrides, Specialised components and devices

Lead Organisation:
CSIRO

Partners:
Not applicable 

Status:
Completed

Start date:
January 2021

Completion date:
December 2023

Key contacts:
Ashleigh Cousins: Ashleigh.Cousins@csiro.au

Funding:
CSIRO – Hydrogen Energy Systems Future Science Platform

Project total cost:
AUD$960,000

Project summary description:
This project aims to develop composite structures to improve the heat transfer and durability of metal hydride-based systems. Currently, metal hydride systems are strongly impacted by heat transfer limitations. Metal hydrides also swell as they absorb H2, placing an upper limit on the amount of alloy that can be safely stored in vessels.

Combining metal hydrides with other materials, such as expanded natural graphite, can improve the thermal conductivity. Combining them with polymers/resins can potentially absorb the swelling as H2 is absorbed. This project is exploring three novel pathways for developing these composite structures with the overall aim of improving the performance and durability of metal hydride-based compression and storage.

Related publications and key links:
Liu, L., Ilyushechkin, A., Liang, D., Cousins, A., Tian, W., Chen, C., Yin, J., Schoeman, L., 2023, Metal hydride composite structures for improved heat transfer and stability for hydrogen storage and compression applications, Inorganics 11, 181
https://doi.org/10.3390/inorganics11050181

CSIRO ‘Future Science Platforms: Hydrogen Energy Systems:’: Metal hydride composites – Hydrogen Energy Systems (csiro.au)

Higher degree studies supported:
Not applicable.

 

Reviewed: July 2024