College of Science & Engineering


Sophia Love

Sophia Love

Elle Robertson

Elle Robertson

Romain Vaucher

Romain Vaucher

Jenny Fisher

Jenny Fisher

Ambili Narayanan

Ambili Narayanan

Sarfaraz Ali

Sarfaraz Ali

Tom Lloyd

Tom Lloyd

Emerging technologies for advanced geochemical exploration undercover
Isotope geochemistry can provide powerful insights to the sources or process involved in the formation of an ore deposit. Weathering ore bodies produce unique isotopic fingerprints which can be tracked by using groundwater to undertake exploration undercover. There has been increasing commercial interest in searching for Cu a critical element for the green energy transition through this sustainable technique. However, current approaches suffer from several limitations due to the saline nature of groundwater which limits the sample size that can be routinely processed. This project will use automated separation techniques to achieve greater enrichment factors to enable high precision isotope measurements.
Emerging technologies for advanced geochemical exploration undercover
Isotope geochemistry can provide powerful insights to the sources or process involved in the formation of an ore deposit. Weathering ore bodies produce unique isotopic fingerprints which can be tracked by using groundwater to undertake exploration undercover. There has been increasing commercial interest in searching for Cu a critical element for the green energy transition through this sustainable technique. However, current approaches suffer from several limitations due to the saline nature of groundwater which limits the sample size that can be routinely processed. This project will use automated separation techniques to achieve greater enrichment factors to enable high precision isotope measurements.
Emerging technologies for advanced geochemical exploration undercover
Isotope geochemistry can provide powerful insights to the sources or process involved in the formation of an ore deposit. Weathering ore bodies produce unique isotopic fingerprints which can be tracked by using groundwater to undertake exploration undercover. There has been increasing commercial interest in searching for Cu a critical element for the green energy transition through this sustainable technique. However, current approaches suffer from several limitations due to the saline nature of groundwater which limits the sample size that can be routinely processed. This project will use automated separation techniques to achieve greater enrichment factors to enable high precision isotope measurements.
Emerging technologies for advanced geochemical exploration undercover
Mahmood Sadat Noori - Engineering
01 Jan 2025 - 01 Jan 2029
Isotope geochemistry can provide powerful insights to the sources or process involved in the formation of an ore deposit. Weathering ore bodies produce unique isotopic fingerprints which can be tracked by using groundwater to undertake exploration undercover. There has been increasing commercial interest in searching for Cu a critical element for the green energy transition through this sustainable technique. However, current approaches suffer from several limitations due to the saline nature of groundwater which limits the sample size that can be routinely processed. This project will use automated separation techniques to achieve greater enrichment factors to enable high precision isotope measurements.
High-throughput neutron tomography core scanner for critical minerals resources
This project aims to develop a drill core scanner based on neutron tomography technology.
High-throughput neutron tomography core scanner for critical minerals resources
This project aims to develop a drill core scanner based on neutron tomography technology.
High-throughput neutron tomography core scanner for critical minerals resources
Greg Boyle - Physics
01 Jan 2025 - 30 Jan 2029
This project aims to develop a drill core scanner based on neutron tomography technology.
High-throughput neutron tomography core scanner for critical minerals resources
Bronson Philippa - Engineering
01 Jan 2025 - 30 Jan 2029
This project aims to develop a drill core scanner based on neutron tomography technology.
High-throughput neutron tomography core scanner for critical minerals resources
This project aims to develop a drill core scanner based on neutron tomography technology.
UQ non-binding MOU
This is an MOU to collaborate on the newly established Queensland Geochronology Alliance
Start Date: 01 Jan 2025
Start Date: 01 Jan 1998
Start Date: 01 Jan 2003
Start Date: 01 Jan 2005
Start Date: 01 Jan 2007
Start Date: 01 Jan 2010
Reseracher: Sally Lau (Postdoctoral Research Fellow)
Start Date: 01 Jan 2022
Reseracher: Naomi Gardiner (Associate Professor)
Start Date: 01 Jan 2012
Start Date: 01 Jan 2024
End Date: 01 Jan 2025