Inductively Coupled Plasma-Mass Spectrometry (ICP-MS)
Our services
The ICP-MS platform is part of the Advanced Geochemical Facilities at the University of Western Australia, dedicated to providing analytical and research support for characterising the elemental and isotopic composition of various materials.
Our laboratory is equipped to undertake advanced and complex geochemical studies of your samples, supported by our highly skilled personnel with over 60 years of combined ICP-MS experience, top-of-the-line mass spectrometers, and comprehensive sample preparation capabilities.
Compositional and isotopic characterisation can be conducted in ‘solution mode’ or ‘in-situ’ using our laser ablation systems. We continuously expand our services in advanced geochemistry and currently specialise in the following areas:
Rock characterisation: suites of trace elements with best available on the market detection levels
Base metals analyses: Cu, Ni, Sn and any other transitional elements
Energy minerals analyses: Li, K, Th, Rb, Cs, and the REEs
Precious metals analyses: Au, Ag and the platinum group elements
Environmental monitoring: site remediation geochemistry, acid rock drainage, heavy metals pollution
Surface and ground water monitoring: water sourcing, tracing natural and anthropogenic effects on water quality
Marine and brackish water pollution: trace metal and heavy metal analyses
Geochemistry of marine and terrestrial carbonates: research in climate change and ocean acidification
Zircon U-Pb geochronology: dating rock formation using detrital and magmatic zircons
Accessory minerals U-Pb geochronology: apatite, monazite, rutile, titanite U-Pb dating
Rb-Sr geochronology on mica minerals or K rich phases like K-feldspar, illite, glauconite
Sm-Nd, Lu-Hf, Pb geochronology using different minerals or bulk rock samples
Sr, U, B and Li isotopes systems: tracing dynamic and evolution of ground waters
Mg, Ca, S, K isotopes systems: geoscience applications and research in agriculture sector
Our techniques
Thermo iCapTQ
Laser Ablation Systems for In-Situ Geochemistry
Thermo Neptune Plus Multi-Collector ICP Mass Spectrometer (MC-ICP-MS)
The Thermo Neptune Plus Multi-Collector ICP Mass Spectrometer (MC-ICP-MS) is the most sensitive instrument available for isotope geochemistry. With its design featuring movable collectors, this mass spectrometer allows for the relatively quick setup of new methods for isotope analysis. In our laboratory, it serves as the primary instrument for in-situ Nd and Hf isotopes, as well as non-traditional stable isotope systems such as Li, B, Mg, and Ca.
Thermo Element XR sector field mass spectrometers
The Nu Plasma 3 Multi-Collector ICP Mass Spectrometer (MC-ICP-MS)
Featuring a ground potential analyser design, provides an excellent combination of precision and accuracy for simultaneous isotopic ion detection. This mass spectrometer is optimised for U-Th and U-Pb geochronology but is also used for other isotope systems, including B, S, and Sr isotopes.
Ultra clean laboratory
Data processing facilities
Our instruments
The laboratory hosts a range of ICP-mass spectrometers including:
- Thermo ICapTQ Quadrupole MS
- Thermo ElementXR sector field ICPM
- Thermo Neptune Plus MC-ICPMS
- Nu Plasma III MC-ICPMS
- Laser Ablation System G2 Analyte
- Laser Ablation System Excite
- Thermo ElementXR sector field ICPMS
Platform experts
Dr Aleksey Sadekov
ICP-MS Platform Leader, Centre for Microscopy, Characterisation and Analysis