Critical metal deposits in terrestrial and oceanic environments and the Global Energy Transition

Critical metals like rare earth elements (REE), Li, Co, Cu, Ni, and platinum group elements (PGE) are vital requirements for various green technology applications. These metals are essential components in rechargeable batteries, wind turbines, solar panels, electric vehicles, and for strategic applications. In this overview, we present a consolidated account of the different types of critical mineral deposits on land and in the deep oceans is presented here. The terrestrial deposits include various types of magmatic, hydrothermal, and sedimentary archives, which are currently the major sources for these critical minerals. The potential marine mineral deposits include manganese nodules on ocean floor, ferromanganese crust deposits on seamounts, hydrothermal sulphide deposits in the mid-oceanic ridges, phosphorite deposits on the ocean floor along continental margins and submerged mountains, and REY-rich mud representing deep-sea sediment deposits. Currently, exploitation of marine mineral deposits face many challenges including pollution and habitat destruction in the marine environment, as well as climate change, which can negatively impact the environment and the resources. The shift to a low-carbon economy depends on securing a stable supply of these critical metals. While terrestrial mining remains dominant, deep-sea resources must be balanced with environmental protections. Sustainable strategies, including recycling and diversification of supply chains, with emphasis on circular economy, will be the key to ensuring a smooth energy transition. Coupled with supportive policies, technological advancements, and ethical practices, these strategies forge a resilient, low-carbon future.

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Publication Details

Journal
Habitable Planet
Published
2025-05-24
DOI
https://doi.org/10.63335/j.hp.2025.0008
Citations
12
Primary Topic
Extraction and Separation Processes
Type
article
Field-Weighted Citation Impact
8.56
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article

Critical metal deposits in terrestrial and oceanic environments and the Global Energy Transition

V. Balaram, M. Santosh
12 citations
Habitable Planet
Extraction and Separation Processes
8.56
article

Critical metal deposits in terrestrial and oceanic environments and the Global Energy Transition

V. Balaram, M. Santosh
article en
12 citations

Abstract

Critical metals like rare earth elements (REE), Li, Co, Cu, Ni, and platinum group elements (PGE) are vital requirements for various green technology applications. These metals are essential components in rechargeable batteries, wind turbines, solar panels, electric vehicles, and for strategic applications. In this overview, we present a consolidated account of the different types of critical mineral deposits on land and in the deep oceans is presented here. The terrestrial deposits include various types of magmatic, hydrothermal, and sedimentary archives, which are currently the major sources for these critical minerals. The potential marine mineral deposits include manganese nodules on ocean floor, ferromanganese crust deposits on seamounts, hydrothermal sulphide deposits in the mid-oceanic ridges, phosphorite deposits on the ocean floor along continental margins and submerged mountains, and REY-rich mud representing deep-sea sediment deposits. Currently, exploitation of marine mineral deposits face many challenges including pollution and habitat destruction in the marine environment, as well as climate change, which can negatively impact the environment and the resources. The shift to a low-carbon economy depends on securing a stable supply of these critical metals. While terrestrial mining remains dominant, deep-sea resources must be balanced with environmental protections. Sustainable strategies, including recycling and diversification of supply chains, with emphasis on circular economy, will be the key to ensuring a smooth energy transition. Coupled with supportive policies, technological advancements, and ethical practices, these strategies forge a resilient, low-carbon future.

Habitable PlanetVol. 1(1&2)
Yonsei University (KR), National Geophysical Research Institute (IN), China University of Geosciences (Beijing) (CN)
Openalex Percentile: Top 2%
Extraction and Separation Processes
8.56
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