AIBs utilize trivalent aluminum ions, which possess a +3 charge, in contrast to the monovalent lithium ions in LIBs with a +1 charge. This disparity in charge magnitude greatly influences energy storage, conductivity, and ion mobility in the respective electrolytes. Trivalent ions, due to their capacity to convey more charge per ion than monovalent ions, may exhibit elevated charge/discharge potentials . Structurally, LIBs intercalate (insert between crystal layers) between anode and cathode materials without significant structural alterations, AIBs predominantly witness the plating of aluminum ions onto, or their stripping from, the metal anode, bypassing the typical intercalation 5 . Furthermore, on average aluminum costs $2.55 per kilogram while lithium costs $18.75 per kilogram 6 . The cost of Li is >7x higher than aluminum, making this cost difference compelling at large scale and because of this, news articles praise aluminum batteries as "dirt cheap" compared to li-ion batteries . Lastly, while LIBs incorporate various metal oxide cathodes, AIBs frequently adopt carbon-based materials like graphite, underscoring the distinct material requirements and possibilities each battery system presents .