Materials Map

Discover the materials research landscape. Find experts, partners, networks.

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The Materials Map is an open tool for improving networking and interdisciplinary exchange within materials research. It enables cross-database search for cooperation and network partners and discovering of the research landscape.

The dashboard provides detailed information about the selected scientist, e.g. publications. The dashboard can be filtered and shows the relationship to co-authors in different diagrams. In addition, a link is provided to find contact information.

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Materials Map under construction

The Materials Map is still under development. In its current state, it is only based on one single data source and, thus, incomplete and contains duplicates. We are working on incorporating new open data sources like ORCID to improve the quality and the timeliness of our data. We will update Materials Map as soon as possible and kindly ask for your patience.

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1.080 Topics available

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693.932 PEOPLE
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in Cooperation with on an Cooperation-Score of 37%

Topics

Publications (4/4 displayed)

  • 2024Biomining of critical minerals from ores and wastes: progress and prospectscitations
  • 2023Biomining critical minerals from low-grade ores and wastescitations
  • 2019Effect of Quorum Sensing on the Ability of Desulfovibrio vulgaris To Form Biofilms and To Biocorrode Carbon Steel in Saline Conditions.36citations
  • 2018Recent progress in biohydrometallurgy and microbial characterisation173citations

Places of action

Chart of shared publication
Boxall, Naomi
2 / 4 shared
Ashton, Jake
2 / 2 shared
Kaksonen, Anna H.
2 / 2 shared
Scarascia, Giantommaso
1 / 1 shared
Cheng, Ka Yu
2 / 2 shared
Machuca Suarez, Laura Lizeth
1 / 13 shared
Bohu, Tsing
1 / 2 shared
Usher, Kayley M.
1 / 1 shared
Lakaniemi, Aino-Maija
1 / 3 shared
Boxall, Naomi J.
1 / 1 shared
Gumulya, Yosephine
1 / 1 shared
Khaleque, Himel N.
1 / 1 shared
Chart of publication period
2024
2023
2019
2018

Co-Authors (by relevance)

  • Boxall, Naomi
  • Ashton, Jake
  • Kaksonen, Anna H.
  • Scarascia, Giantommaso
  • Cheng, Ka Yu
  • Machuca Suarez, Laura Lizeth
  • Bohu, Tsing
  • Usher, Kayley M.
  • Lakaniemi, Aino-Maija
  • Boxall, Naomi J.
  • Gumulya, Yosephine
  • Khaleque, Himel N.
OrganizationsLocationPeople

document

Biomining critical minerals from low-grade ores and wastes

  • Morris, Christina
  • Boxall, Naomi
  • Ashton, Jake
Abstract

Biomining utilises the metabolic activity of microorganisms to extract (i.e., to bioleach) and recover (e.g., bioprecipitate, biosorb) metals from solid materials. Bioleaching has been applied for decades at an industrial scale for the extraction of copper from sulfidic ores; and biooxidation for the pre-treatment of refractory sulfidic gold ores to solubilise the sulfide matrix before cyanidation. There is also increasing interest in applying biomining to extract and recover resources from various mining and metallurgical wastes (e.g., slags, tailing, sludges, and ashes) and electronic wastes (e.g., batteries and printed circuit boards). Moreover, other potential applications of biomining are currently being explored, for example, targeting specific critical commodities, including rare earth elements and lithium, to meet growing demand. Biomining is especially attractive for low-grade and complex ores and wastes, which may not be economical to process through traditional metallurgical technologies and feedstocks containing penalty elements, such as arsenic. Biomining is typically carried out at ambient pressures and relatively low temperatures, providing opportunities to reduce energy consumption and the carbon footprint of processing as compared to hydrometallurgical pressure leaching and pyrometallurgical operations. Biomining can also reduce the consumption of chemical reagents, further reducing operating costs. In addition, biomining also has the potential to reduce the passivation of some minerals, such as chalcopyrite, thus improving resource extraction and recovery. This presentation provides an overview of biomining mechanisms and microbes suitable for various mineral types and commodities, and engineering applications for the implementation of microbial catalysts, including bioreactors, vats, heaps, and in situ leaching. Examples are given for some industrial-scale biomining operations across the globe. Finally, recent developments in the field and future research targets are highlighted.

Topics
  • impedance spectroscopy
  • mineral
  • Carbon
  • extraction
  • gold
  • copper
  • leaching
  • Lithium
  • refractory
  • Arsenic
  • rare earth metal