C. Barthelemy, S. Bouvet
With the projected addition of 2 billion inhabitants on earth by 2050, the extraction of commodity metals is expected to grow significantly. This article aims to analyze the current state of metal production, focusing on iron, aluminum, and copper, in the context of increasing global population and environmental concerns. The methodology involved a review of production statistics and market realities as of 2015, highlighting the demand dynamics for these primary metals, which drive mining and metal feedstock production. Results indicated that by 2015, iron was the most consumed metal at 1,620 million tons, followed by aluminum and copper, with significant revenue generated from mining activities. Additionally, the article discusses the potential for cost-effective, carbon-free power generation to contribute to more sustainable metal extraction processes. It considers whether advancements in electrochemical engineering can facilitate this transition. The findings suggest a necessity for technological innovations to improve sustainability and offer a pathway for the metal industry to adapt to emerging environmental requirements while accommodating a growing population.
@article{7c689cc9-7d91-4b8e-8732-96e08603ebbf,
title={Electrochemical Engineering for Commodit},
author={C. Barthelemy and S. Bouvet},
year={2026},
language={en}
}TY - JOUR TI - Electrochemical Engineering for Commodit AU - C. Barthelemy AU - S. Bouvet PY - 2026 LA - en ER -
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