Aluminum-Air Batteries: Pioneering a New Frontier in Combating Global Energy Poverty

Abstract Many products have entered the market to alleviate energy poverty, including solar, ionic, and hydroelectric energy. This study completes a literature review of relevant sources from academic journals, government publications, and online databases to evaluate the unique advantages of aluminum-air batteries as the differentiating solution. The research on oleophobicity (property of a material that repels oils and oil-based substances) and other technologies relevant to aluminum-air batteries are evaluated for feasibility and potential further development of the aluminum-air battery technology. Aluminum-air batteries were found to offer a lightweight and sustainable solution. The design is further improved by flexible electrolytes such as polymer and solid-state electrolytes other than the current aqueous solutions which can be compromised. By using more powerful electrolytes, the energy output of aluminum-air batteries is virtually limitless when the corrosion of the aluminum is solved by an oil pump inspired by research on oleophobicity. Beyond these advantages, aluminum-air batteries have replaceable and recyclable components, on-demand high energy output, and a safe, stable energy delivery system, effectively avoiding combustion. The findings show that the result of aluminum-air batteries can be utilized for developments in the field of sustainable energy in order to challenge energy poverty.

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Publication Details

Published
2024-09-15
DOI
https://doi.org/10.1115/power2024-138862
Primary Topic
Ammonia Synthesis and Nitrogen Reduction
Type
article
Field-Weighted Citation Impact
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article

Aluminum-Air Batteries: Pioneering a New Frontier in Combating Global Energy Poverty

Andy Aditya, Siddharth Mohan, Pranava Manthena, Poojitha Palaniswamy et al.
Ammonia Synthesis and Nitrogen Reduction
article

Aluminum-Air Batteries: Pioneering a New Frontier in Combating Global Energy Poverty

Andy Aditya, Siddharth Mohan, Pranava Manthena, Poojitha Palaniswamy, Sahasra Beerala, Gopal Singh
article en

Abstract

Abstract Many products have entered the market to alleviate energy poverty, including solar, ionic, and hydroelectric energy. This study completes a literature review of relevant sources from academic journals, government publications, and online databases to evaluate the unique advantages of aluminum-air batteries as the differentiating solution. The research on oleophobicity (property of a material that repels oils and oil-based substances) and other technologies relevant to aluminum-air batteries are evaluated for feasibility and potential further development of the aluminum-air battery technology. Aluminum-air batteries were found to offer a lightweight and sustainable solution. The design is further improved by flexible electrolytes such as polymer and solid-state electrolytes other than the current aqueous solutions which can be compromised. By using more powerful electrolytes, the energy output of aluminum-air batteries is virtually limitless when the corrosion of the aluminum is solved by an oil pump inspired by research on oleophobicity. Beyond these advantages, aluminum-air batteries have replaceable and recyclable components, on-demand high energy output, and a safe, stable energy delivery system, effectively avoiding combustion. The findings show that the result of aluminum-air batteries can be utilized for developments in the field of sustainable energy in order to challenge energy poverty.

University of Central Florida (US)
Openalex Percentile: Top 91%
Ammonia Synthesis and Nitrogen Reduction
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