Completed Clean Energy Physics & Astronomy

Near-room Temperature Solid-state Hydrogen Storage

In plain English

AI plain-English summary

Hydrogen gas locks itself inside a new two-material composite that releases it only when needed, at temperatures close to a warm summer's day. Storing hydrogen safely has been a bottleneck for clean energy. Compressing it requires heavy tanks; liquefying it consumes huge amounts of energy. This project tackles that problem by designing a solid material that holds hydrogen at near-room temperature, avoiding the need for extreme pressure or cryogenic cooling. The researchers will combine two different substances to create a high-capacity storage medium, then use advanced analytical techniques to understand exactly how it works and how to improve it. If the material performs as intended, it could make hydrogen fuel cells far more practical for vehicles, backup power, and portable electronics. That would ripple through the energy system: hydrogen becomes easier to transport, refuelling stations become simpler to build, and the entire supply chain from production to end use becomes cheaper and more accessible. The project targets a fundamental materials-science challenge, but success would directly accelerate the shift away from fossil fuels in sectors that batteries struggle to serve.

View original technical description
This research aims to develop a new type of material that can store hydrogen in a safe and efficient way at near-room temperature. Hydrogen is a clean and renewable energy source, but currently, it is difficult to store and transport in large amounts. By using a combination of two different materials, we aim to create a high-capacity storage material that can be used in hydrogen fuel cell systems, which are a type of clean energy technology. We will use advanced techniques to understand how this new material works and how to improve it. The goal of this research is to make hydrogen a more practical and accessible energy source, which would have a positive impact on the environment and energy system. This project has the potential to create significant advancements in the hydrogen value chain and have global implications for the future energy system.

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Researchers

Mi Tian (Principal Investigator)

Related Research

Grants with similar aims, by meaning.

Redox Switchable Hydrogen Storage Materials. Hydrogen Burst Device Prototypes
Hydrogen, fuel cells and their application
Designing Novel High Capacity Multicomponent Hydrides for Near-Ambient Solid State Hydrogen Stores
Innovative large scale hydrogen storage using hydrogen hydrate confined in porous materials
ThermHydes: Thermochemical energy storage-assisted solid hydrogen storage

Original classification

Research Grant

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