Resourcing Decarbonisation Strategic Program

Mining companies must produce unprecedented quantities of metals and minerals, and the supply of these minerals is driving resource extraction into new geographic areas, vulnerable ecosystems and new communities.

The University of Queensland (UQ) is investing seed funding to catalyse impact-driven research in this area.

The Resourcing Decarbonisation Strategic Program aims to answer fundamental research questions and rethink options to address supply issues and what innovations can be used responsibly.

 Researchers are tackling the sources and supply risks around mineral supply, mitigating the carbon impacts of the resources sector, examining market incentives and policy protections, and understanding the complex risk interactions associated with decarbonising society. The program also aims to grow interdisciplinary and cross-jurisdictional research on minerals, energy transitions and sustainable development.

The goal will be to unlock responsible energy transition mineral supply in a manner that respects ecosystem, reduces energy intensity and delivers against the rising expectations of performance in environmental, social and government (ESG) issues.

The Resourcing Decarbonisation Strategic Program focuses on key themes:

  • Energy minerals: complexities of supply and risk
  • Mitigating the carbon intensity of resource production
  • Market incentives and business readiness
  • Policy protections and social safeguards
  • Risk interactions and complex system behaviour

 

Research lead

Associate Professor Steven Micklethwaite
Principal Research Fellow, Sustainable Minerals Institute
View Steven Micklethwaite's research profile

Leadership panel

Associate Professor Simon Smart
School of Chemical Engineering
Faculty of Engineering, Architecture and Information Technology
View Simon Smart's research profile

Associate Professor Laura Sonter
School of Earth and Environmental Sciences
Faculty of Science
View Laura Sonter's research profile

Caroline Stott
Associate Director, Energy Transitions
Strategic Partnerships – Government and Industry
View Caroline Stott's profile

Professor Greg Marston
Centre Director, Centre for Policy Futures
Faculty of Humanities and Social Sciences
View Greg Marston's profile

Improving circularity in Queensland’s new economy minerals

This project aims to demonstrate how circular economy principles can be applied in Queensland's mining industry to produce energy transition minerals. While circularity is still in its infancy in mining, the project team plan to take the lead in developing the concept by comprehensively assessing the implications of innovative approaches to reduce waste generation at the source and increase resource value through the transformation of silicates into valuable materials such as construction or industrial sand (i.e., ore-sand).

Identifying, analysing and understanding social risks related to lithium extraction in the Lithium Triangle

This project intends to propose alternatives to achieve an improved ESG performance and sustainability of the lithium extraction industry in Chile, contributing to the responsible lithium supply for decarbonisation. 

Advancing social equity in decarbonisation: Connecting social, economic and environmental systems and policies in multiplex causal networks

This project aims to improve understanding of interactions of social equity dimensions (social, environmental and economic systems) in mine-host regions via a complex network approach based on complex systems, social risks and social equity theories. This will enable identification of the interacting points between social equity dimensions, stakeholders and policy networks, providing insights into the compound effects and accumulated challenges associated with decarbonisation interventions.

Critical Metals Data Infrastructure – Integration In AusGeoChem

This project is taking the design and construction of essential database infrastructure for one purpose and making them available for new “relational databases” that will underpin national-level delivery of pre-competitive critical metal and critical mineral data, to the research community, government, minerals industry and general public.
 

A National Digital Twin for Critical Metals and ESG

The purpose of this Project is to visualise in 3D, national scale critical metal data (drill core assays, surface sample geochemistry, hyperspectral scans etc) in a dynamic and continually updating digital twin environment, known as “Digital Earth”. This  will better inform government decision-makers and the exploration industry, and help accelerate timelines to discovery while at the same time providing better insights into potential environmental impacts.

The project is a research collaboration with Euclideon Pty Ltd, a Brisbane-based SME who have developed capability to visualise 3D spatial data of unlimited size. 

Mapping environmental, social & governance (ESG) risks to Australia's mining sector - a tool for responsible investments

This project will advance knowledge of ESG risk mapping in the Australian mining context, and produce a tool that will enable more strategic decisions by industry and government on where and how to extract energy transition minerals. 

Critical Metals potential of Goongewa Zn-Pb Deposit, Canning Basin

The aim of this project is to characterise the Goongewa Zn-Pb deposit, from the Lennard Shelf, in Western Australia. The Goongewa Deposit is a carbonate-hosted base metal deposit, which likely formed at low temperatures, similar to other deposits on the Lennard Shelf in the Canning Basin, Western Australia. The goal  is to understand the potential for deposits in the area to be a source of transition energy metals such as Ga, Ge and In, as well as Pb and Zn. 

From Core to Float – Making sense of a massive dataset related to floatability of ore based on core sample and mineral and chemical characterisation 

The are many factors and variables that affect the floatability of ore particles. This project aims to determine which factors are the most important for determining whether particles formed from those minerals will separate in a floatation cell, a key unit operation in minerals processing operations. 

The project focuses on applying network analysis as a form of data analysis to study the nature of the variables related to pyrite floatability. In particular, how significant correlations between those variables are interconnected, and to study the topology of that correlation network. This will provide insights into subsequent experimental design to explore causal mechanisms of pyrite floatation. The intention is to use these insights to improve the operational efficiency of copper floatation circuits, a key step on the journey to decarbonising minerals processing operations. 

Improving Coarse Particle Flotation in Conventional Flotation Cells 

Coarser particle flotation has the potential to both increase the supply of critical metals as well as reduce the carbon intensity of resource production. The aim of this project is to develop retrofit solutions which can enable coarser particle flotation in existing flotation cells already being used in brownfield mining operations. Tens of thousands of conventional flotation cells are being operated in mining operations around the world.  Being able to retrofit these existing cells would enable mining operations to more quickly achieve coarser particle flotation without the need for major equipment installation.

This will have the benefits of reducing energy of grinding and enable higher throughput during comminution as well as increasing mineral recovery by reducing loss of mineral in coarse particles that report to tailing.  Coarser grinding also makes downstream dewatering more efficient.

Contact us

Get involved or learn more about the program.

Associate Professor Steven Micklethwaite

Principal Research Fellow
WH Bryan Mining Geology Research Centre
Sustainable Minerals Institute

+61 7 3365 5819