How Do Liquid Metal Batteries Utilize Chemical Reactions for Energy Storage?

AI Thread Summary
The discussion centers on the chemical processes involved in using molten antimony and magnesium as charge holders in battery technology, specifically highlighting the role of sodium sulfide as an intermediary. The key chemical reaction involves the interaction between magnesium and antimony, which forms magnesium antimonide, a compound that can enhance energy storage capabilities. This reaction is crucial for the development of smaller, more efficient batteries and fuel cells, promising advancements in energy storage solutions. The conversation emphasizes the potential for these innovations to impact both community and educational environments, indicating a shift towards cleaner energy technologies.
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"One of the first compilations used molten antimony and magnesium as the charge holders with a layer of sodium sulfide between the two."How does this work?
What chemical reaction is taking place between the metals and the salt?
 
Chemistry news on Phys.org
http://www.ecovoice.com.au/eco-news/eco-news-issue-73-may-2010/343-smaller-harder-faster-and-cleaner-batteries-fuel-cells-and-energy-storage-of-the-future-is-coming-to-a-community-and-classroom-near-you

Scroll down or search the text for magnesium antimonide.

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