Aluminium Air Fuel Cells: Harnessing Metal Power for Electric Vehicles
Massive advances in fuel cell technology have been driven by a rising call for green and sustainable energy solutions. One potential alternative to harnessing electric power is the use of aluminum-air fuel cells, or AAFCs. The possibility that AAFCs might change the way that electricity is generated is examined. Using aluminum and airborne oxygen as catalysts, AAFCs produce electricity. AAFCs are a cheap and ecologically friendly energy source since aluminum and oxygen are widely available. AAFCs are perfect for applications like portable electronics, backup power systems, and electric cars because of their high energy density, which also allows them to operate for extended periods of time without requiring regular refilling or recharging. This study discusses the two substantial design model factors for the proposed aluminum-air fuel cells and how they support efficient and sustainable energy conversion. It focusses at key components such catalysts, the composition of electrolytes, substrate for electrodes, and cell structure. During the design phase, three crucial performance metrics are optimised: power density, energy economy, and durability. Additionally, the study looks into new approaches to AAFC design, like improved electrode designs and catalyst synthesis. According to the findings, AAFCs' cylindrical model architecture has potential for green energy applications in portable devices, electric cars with lighter features, and other areas. Strategic design is also crucial for maximising AAFC performance.
Authors
- S. Begum
- M. Raja Nayak
- T. Nagaraju
- A. Srinivasarao
- M. Saritha
- Pandala Rathnakar Kumar
Institutions
- Jawaharlal Nehru Technological University, Kakinada (IN)
- English and Foreign Languages University (IN)
- ICFAI Business School (IN)
- Kamineni Institute of Dental Sciences (IN)
Publication Details
- Published
- 2025-04-11
- DOI
- https://doi.org/10.1109/ccict65753.2025.00113
- Primary Topic
- Fuel Cells and Related Materials
- Type
- article
- Field-Weighted Citation Impact
- 0.00