BRIMM: Is a collaboration between world-class scientists and - - PowerPoint PPT Presentation
BRIMM: Is a collaboration between world-class scientists and - - PowerPoint PPT Presentation
BRIMM: Is a collaboration between world-class scientists and engineers to advance cross-disciplinary research encompassing the entire life-cycle of mining, from exploration to extraction, from processing to rehabilitation. Adopts a minerals
BRIMM: Is a collaboration between world-class scientists and engineers to advance cross-disciplinary research encompassing the entire life-cycle of mining, from exploration to extraction, from processing to rehabilitation. Adopts a “minerals first” approach that embraces the complexity of geological deposits, to improve knowledge, enhance efficiency and manage risk from exploration right through to closure and remediation.
BRIMM: Will drive data integration across the traditional silos of exploration, mining and environmental impact to produce to a greater appreciation of ore diversity for processing and waste management while maximizing the value of information collected at each stage of the mining cycle.
BRIMM GOALS
- 1. Expand capacity and visibility of UBC mining-related
research on-campus and downtown
- 2. Foster collaboration and engage new UBC research
expertise
- 3. Engage with the minerals industry to identify new and
relevant areas of multi-disciplinary research
BRIMM GOALS
- 4. Motivate and provide seed funding to new integrated
and multi-disciplinary research across the full mine cycle in projects that attract direct industry financial support
- 5. Provide advanced training across mineral systems
and the mining life cycle
- 6. Increase mining-related research capacity at UBC
UBC Expertise: Faculty
UBC Expertise: Area of Application
UBC Expertise: Affiliations
UBC Expertise: Research Tools
BRIMM RESEARCH THEMES
- Develop biomarkers for exploration
- Engineer new bioprocesses for
mineral extraction, metal recovery, waste stabilization and effluent treatment
- Develop biomarkers for
environmental and risk assessment
- Maximize the effectiveness of
ecological restoration
The Mining Microbiome
BRIMM RESEARCH THEMES
25 50 75 100 SeRB Run6 Run8
Enrichment Percentage Species
Other Otu1_Tissierella Otu15_Lysinibacillus Otu16_Pseudomonas Otu17_Exiguobacterium Otu18_Thauera Otu2_Tissierella Otu3_Clostridium_XI Otu30_Stenotrophomonas Otu4_Tissierella Otu5_Tissierella Otu6_Tissierella
Archaea Bacteria Protobacteria 20 40 60 August2008 September2008 October2008 November2008 January2009 February2009 March2009 April2009 May2009 June2009 July2009 August2008 September2008 October2008 November2008 January2009 February2009 March2009 April2009 May2009 June2009 July2009 August2008 September2008 October2008 November2008 January2009 February2009 March2009 April2009 May2009 June2009 July2009
Month Percentage
Taxon Methanobacteriales Methanomicrobiales Methanosarcinales Other_Archaea Bacteroidales Sphingobacteriales Clostridiales Spirochaetales Caulobacterales Rhizobiales Burkholderiales Desulfobacterales Desulfovibrionales Xanthomonadales
- Bacteria are among the best geochemists in
the world, and occupy niche environments. ‘Omics-based detectors of specific genes can be used as exploration tools.
- Consortia of particular bacteria can remove
multiple constituents of concern from mine- influenced water simultaneously.
- Mineral-binding peptides that discriminate
between chalcopyrite and enargite can selectively recover these minerals.
- Bacteria can remove metals from water in
remote mines located in cold climes.
- Microbial communities are resilient and
resist catastrophic disturbances making ecological recovery possible.
The Mining Microbiome
- Steven Hallam
- Shaun Crowe
- Bill Mohn
- Susan Baldwin
- Vikram Yadev
- Scott Dunbar
- Marcello Veiga
- Uli Mayer
- Roger Beckie
- Suzanne Simard
- Shaun Mansfield
- Sue Grayston
- Cindy Prescott
- Steve Withers
The Mining Microbiome BRIMM RESEARCH THEMES
Geometallurgy
BRIMM RESEARCH THEMES
- Integrate geological, mining, metallurgical, environmental and
economic data to create an accurate spatial and geologically- based orebody model to maximize value while minimizing risk throughout the mining value chain.
- Combine information from exploration, extraction, processing,
and waste management to better understand key performance issues such as, energy consumption, grade, grindability, efficiency of separation, water retention and tailings reactivity.
- New approaches to core logging are needed to allow data
collected to be systematic and spatial. This requires the innovative use of tools and development of geometallurgy- specific logging methods.
- Enable innovation and development of new approaches to
handling, treating, and storing tailings and leaching residues that extracts maximum value from gangue heterogeneity and maximizes water recovery.
CT scan of a flocculated sediment Distribution of solids contents in a cross- section (slice) of a CT-scanned sediment
BRIMM RESEARCH THEMES
Exploration geochemical data is available deposit wide. Use of these date to estimate mineral abundance allows:
- Ore and gangue heterogeneity to be assessed
- Representative samples to be more easily identified so they
can better inform metallurgical testing
- Assessment of environmental reactivity of tailings as a
function of alteration style and ore type
Sufficient Labile Mg for GHG offsets
Three-dimensional model of brucite abundance in the Decar Ni Deposit
Brucite adundance
Labile magnesium content of tailings by ore
- tonnage. Labile Mg represents an economical
pathway to carbon sequestration in tailings and potential offsets to GHG emissions to reduce carbon tax and improve environmental impact.
Geometallurgy
BRIMM RESEARCH THEMES
- Dirk van Zyl
- Uli Mayer
- Craig Hart
- Sue Baldwin
- Greg Dipple
- David Dreisinger
- Ed Asselin
- Bern Klein
- Marek Pawlik
- Maria Holuszko
- Sanja Miskovic
- Ilja Miskovic
- Marcello Veiga
- Ali Madiseh
- Davide Elmo