Tag Archives: University of Adelaide

Australia’s FBI CRC backs Mine Electrification project

Experts led by the University of Adelaide are looking to help the mining industry find a pathway to more efficient, green, sustainable and safer mining operations by transitioning to battery-supported electric vehicles (BEVs).

In a new project funded by the Future Battery Industries Cooperative Research Centre (FBI CRC), researchers are providing the Australian mining industry with a suite of decision-making tools and guidelines that will aid their transition towards BEVs and associated stationary machinery in their mining operations, the FBI CRC said.

“About 30-50% of the total mine site energy usage is related to diesel-powered mining vehicles,” Dr Ali Pourmousavi Kani, the University of Adelaide’s, Lecturer, School of Electrical and Electronic Engineering, said. “This represents a significant proportion of current mining operational costs, and the prevalence of diesel fuel usage presents significant health and safety concerns.

“Mining is a critical industry in Australia. It is great to see a growing movement in this industry to reduce their carbon emissions in line with the global transition to renewable energy and electric transportation. Electric vehicles and machinery, combined with partial or standalone renewable energy powered microgrids, will provide a pathway to more efficient, sustainable and safer mining operations.”

Dr Pourmousavi Kani will work on the project, named ‘Assessment, Design and Operation of Battery-Supported Electric Mining Vehicles and Machinery’, or Mine Electrification for short, with Associate Professor, Wen Soong, and Associate Professor, Nesimi Ertugrul, who are also from the School of Electrical and Electronic Engineering.

The project was developed in conjunction with and funded by the FBI CRC and its participants which are: BHP Nickel West, IGO Limited, Energetics Pty Ltd, Galaxy Resources Limited, Multicom Resources Limited, the South Australian Department for Energy and Mining, Queensland’s Department of Energy and Public Works, the Minerals Research Institute of Western Australia and the University of Western Australia.

The project, which has a budget of approximately A$2.76 million ($2.02 million), of which A$1.16 million is in cash and the remainder in-kind support, and lasts for 3.5 years, will, the FBI CRC says, enable the resources sector to:

  • Reduce the costs and improve the reliability of energy;
  • Improve occupational health and safety; and
  • Reduce the carbon footprint of production.

“The project will allow mining companies to understand the benefits and technical risks and costs of implementation,” Dr Pourmousavi Kani said.

“It will also assist equipment, technology and service providers to service mining companies during the transition to BEVs. End users will benefit from a de-risked strategy to transition, reduced production costs, reduced energy costs, reduced emissions and an upskilled work force.

“Overall, this project will help the Australian mining industry to remain competitive globally by greening their production and lowering their operational costs.”

Dr Jacques Eksteen, a Research Director of the FBICRC, said: “This project is highly significant for the FBI CRC as it serves as an important development and demonstration project of the uptake of battery technologies in mining vehicles and mobile equipment.

“This application of battery technology offers significant potential benefits to industry, and we are keen to invest in developing and enhancing capability in the field of mobile mine electrification.”

South Australia’s Minister for Energy and Mining, Dan van Holst Pellekaan, added: “Sustainable mining operations is a focus for South Australia, and the Mine Electrification project demonstrates our leadership and ability to collaborate as we work towards reducing our carbon emissions.”

Australian government backs mining and metal sector decarbonising initiative

A new Cooperative Research Centre focused on integrating green energy sources such as hydrogen, ammonia and solar into high-heat and high-emission manufacturing processes for products like steel, aluminium and cement has won Australia government backing.

The Heavy Industry Low-carbon Transition Cooperative Research Centre (HILT CRC), to be led by the University of Adelaide, has been provided with A$39 million ($29 million) of funding through the CRC Grants program. It is also backed by an additional A$175.7 million in funding and in-kind support from research and industry partners such as Alcoa, Rio Tinto Aluminium, South32, Roy Hill, Fortescue Metals Group, the Australian National University and the CSIRO.

South Australia Minister for Industry, Science and Technology, Christian Porter, said the CRC would help to secure the future of heavy industries right across the country by helping them to lower costs and establish a reputation as exporters of high-quality, low-carbon, value-added products.

“In order to remain internationally competitive, it is crucial that our heavy industries begin the transition to lower cost and cleaner energy technology to secure the long-term future of their operations,” Minister Porter said. “By connecting those industries with our best and brightest minds from within our major research institutions – coupled with the significant funding that’s now available to fast-track this work – we expect real-world solutions can be delivered within the 10-year life of the CRC.”

Dr David Cochrane, who is Technology Lead at core CRC partner South32 and also an industry leader of the HILT CRC, said: “The HILT CRC will play an important role in transitioning to a low-carbon future by creating a framework for industry to collaborate, sharing knowledge and experience while lowering the risk of trialling technology.

“For South32, we have recently set medium-term targets to halve our operational emissions by 2035 as we transition to net zero by 2050 and initiatives like the HILT CRC are part of our plan to achieve these targets.”

Susan Jeanes, who is Chair-elect of the HILT CRC, said: “Decarbonising Australia’s heavy industry will position it to be competitive in the rapidly developing, global low carbon markets for green iron and aluminium products that have higher value than our current exports. These new markets are being driven by our trading partners in countries like China, Japan and Europe, which are introducing a range of financial measures to meet their carbon targets, such as EU’s Carbon Border Tax.

“Our mineral resources geographically co-exist around the continent with our first-class renewable energy resources making decarbonising more competitive here than in other parts of the world.”

CEEC welcomes University of Adelaide’s IMER as newest sponsor

A new sponsorship partnership between the Coalition for Energy Efficient Comminution (CEEC) and the University of Adelaide’s Institute for Mineral and Energy Resources (IMER) will, CEEC says, enhance greater opportunities for innovation in the resources sector.

IMER operates at the international forefront of the mineral, energy and resource sectors, with 200 of the world’s experts working with business and government on industry-led, challenge-based projects, according to CEEC.

Welcoming the sponsorship agreement, CEEC CEO, Alison Keogh, said both organisations valued the role of innovation in sustainable mining.

“IMER is a leading research and development institute that aims to meet global mining and energy challenges with multidisciplinary solutions, advancing our progress towards modern energy systems,” she said. “CEEC’s mission is to share mining practices that improve energy efficiency, reduce costs, enhance shareholder value and help businesses achieve sustainability targets.

“A collaboration with IMER offers the opportunity to share insights from research across disciplines with potential to revolutionise the mineral and energy resources sector.”

IMER Manager, Dr Chris Matthews, said CEEC had actively contributed to accelerating innovation in the mining sector with a collaborative project stemming from a CEEC workshop.

“After involvement in CEEC’s workshop, we forged new collaborations, including an exciting industry partnership which plans to trial the use of solar thermal energy to enhance comminution,” Dr Matthews said.

“Comminution reduces solid materials to a smaller average particle size, by crushing, grinding, cutting, vibrating, or other processes. Solar thermal heat can weaken rocks, reducing the need for fossil fuel-derived mechanical energy traditionally used to crush and grind rocks, making it a more environmentally sustainable alternative.

“IMER has developed a process where heat is provided by concentrated solar thermal, which data has shown could reduce comminution energy by up to 50%. The potential to improve energy efficiency in this project is just one example of the alignment between IMER’s research on low cost, low emissions energy and CEEC’s vision.”

Interim Director of IMER, Professor Michael Goodsite, said IMER aims to progress society towards modern energy systems required for decarbonisation and the transition to a net-zero emissions energy future.

“Innovation in the processing and comminution of the raw materials required for renewable electricity generation and transmission will help us achieve better outcomes for Australia and our world. I look forward to seeing continued value-adding outcomes from this important collaboration,” he said.

Keogh said IMER had already contributed important insights to industry, with experts sharing potential transformational opportunities using solar beam-down technologies for a range of industrial processes. She said potential ground-breaking technologies were the focus of the International Forum on Zero Carbon High Temperature Minerals Processing, which was held in Adelaide, South Australia, from March 16-18.

“IMER’s sponsorship support enhances CEEC’s work to share exciting new innovation relevant to mineral processing and comminution,” she said. “We are a not-for-profit group, entirely funded by sponsorship from the minerals industry. We have a strong network and a focus on sharing energy-efficient, lower-footprint comminution and processing practices. Sponsorship from IMER and others helps CEEC connect leading thinkers through our global network and workshops, to promote best practice and innovation.”

University of Adelaide consolidates sensor, data analytics, AI and machine learning expertise

The University of Adelaide says it will lead a new national mining research and training centre using advanced technologies that will “help to shape the future of Australia’s mining operations”.

The Australian Government today announced A$3.7 million funding for the new Australian Research Council Industrial Transformation Training Centre for Integrated Operations for Complex Resources.

Funded with another A$2 million, plus A$6.8 million in-kind support from research and industry organisations, the A$12.5 million centre will deliver enabling tools and train the next generation of scientists and engineers in advanced sensors, data analytics and artificial intelligence (AI) to increase value in mining and processing of complex resources, according to the university.

Professor Mike Brooks, Deputy Vice-Chancellor (Research) of the University of Adelaide, welcomed today’s funding announcement.

“Underpinned by world-leading research, our new, high-tech training centre will help to shape the very future of mining operations in Australia,” Professor Brooks said.

“Combining our expertise in advanced sensors, data analytics, AI and machine learning, the new centre will deliver vital tools, training and workforce needs to help ensure Australia and key industry players lead the world.

“The new centre’s work directly aligns with the University of Adelaide’s industry engagement priorities in energy, mining, and resources, which are critical to the economic and technological success of South Australia and the nation.”

The new Training Centre will, according to the university:

  • Help enable the mining industry to make real-time decisions and apply the correct and most cost-effective parameters or processes at any point in the mining value chain, avoiding costly unnecessary processes;
  • Bring step-change increases in productivity via network connectivity and high-speed computation, and;
  • Focus on maximising value by optimising productivity and product quality, the outcome of which has the greatest potential to deliver the largest economic gains.

Lead Investigator Professor, Peter Dowd, Professor of Mining Engineering at the University of Adelaide, says the Training Centre addresses critical needs of the mining industry through its focus on sensors, data analytics and artificial intelligence – a knowledge priority area for the industry.

“This funding award recognises the world-leading concentration of mining research in South Australia, placing us at the forefront of developments that will transform the mining and processing of complex resources,” Professor Dowd said.

“Australia has a unique opportunity to become a world leader in integrated mining, and a hub for mining equipment, technology and services.”

The Training Centre will be housed within the University of Adelaide’s Institute for Mineral and Energy Resources. Other participants in the Training Centre include the University of South Australia, Curtin University and 22 industry and government organisations.