Dr Samuel Boone

School of Physics, Chemistry and Earth Sciences

College of Sciences


Dr Samuel C Boone is a geoscience research fellow in tectonics and thermochronology. His work aims to better our understanding of Earth's dynamic evolution by constraining the thermal and tectonic history of the crust in relation to the growth and breakup of continents. To do this, he integrates field observations, low-temperature thermochronology, structural geology, geochronology, and geochemistry. Dr Boone commenced his role at the University of Adelaide as a research fellow in 2022. In collaboration with Associate Professor Stijn Glorie, he aims to investigate the interplay between tectonics, climate, and resources through a megacontinental-scale synthesis of the upper crustal thermal evolution of Gondwana in response to continental breakup over the last 200 million years. He is also a member of the Tectonics and Earth Systems Group (TES) in Adelaide, where he is working with Prof Alan Collins and Dr Morgan Blades to investigate the tectonics of the Neoproterozoic East African Orogen. Sam splits his time between Adelaide and the University of Melbourne where he is a leader of the Melbourne Thermochronology Research Group, specialising in the development and application of fission track and (U-Th)/He analyses of the common accessory mineral apatite and other uranium-enriched minerals, including zircon, titanite, and monazite. They conduct research across all aspects of the development of laboratory techniques, as well as their application to understanding the low-temperature history of continental crust in response to continental extension, sedimentary basin development, orogenesis and continental amalgamation, landscape evolution, and the long-term stability of cratons.Sam is also a leading member of the AuScope Geochemistry Network, an Australian consortium of Earth Science Institutes cooperating to develop national geochemistry infrastructure. Their flagship project is the development of AusGeochem, a FAIR data platform enabling researchers to solve geoscience challenges through geospatial interrogation of geochemistry Big Data on a global scale. To find out more about what Sam does, check out...The Melbourne Thermochronology Research Group: https://www.melbournethermochronology.com/The AuScope Geochemistry Network: https://www.auscope.org.au/agnA preview of the AusGeochem data platform: https://www.youtube.com/watch?v=S1uUSV2rShM&t=2sA recent virtual presentation Sam gave: https://www.youtube.com/watch?v=KJSxGukB9JQ&t=1sA study of his investigating the onset of the East African Rift System: https://doi.org/10.1130/G46468.1The Rocky Framework of the Rift, an introduction to his work on the Neoproterozoic East African Orogen: https://doi.org/10.1130/G46468.1And here is a recent article he wrote in Eos about the uncertain future of geoscience in Australia: https://eos.org/opinions/australias-unfolding-geoscience-malady

Why do continents break apart?  

The breakup of continents along rift systems plays a fundamental role in the theory of plate tectonics, leading to the creation of new oceans and continental margins instrumental in driving the evolution of the Earth’s climate and biosphere. Active rift systems also host important economic resources, such as low-carbon geothermal energy systems. Yet despite the important role of continental breakup in how our planet has evolved and operates, the mechanisms controlling the initiation and localisation of rifting remain enigmatic. Sam's work aims to quantify the natural processes controlling the inception and early evolution of continental rifts by integrating geochemical and field observations of active rift systems, namely in East Africa.  

Continental margins record the signature of ancient periods of rifting, lithospheric plate rupture, ocean basin formation, the growth of topography and mass sediment transportation. The southeast margin of Madagascar (pictured) records the breakup of central Gondwana, when Africa, Madagascar, Antarctica, India and Australia began gradually dispersing approximately 180 million years ago, forming the Indian Ocean in their wake. Image credit: S.C. Boone.
Continental margins record the signature of ancient periods of rifting, lithospheric plate rupture, ocean basin formation, the growth of topography and mass sediment transportation. The southeast margin of Madagascar (pictured) records the breakup of central Gondwana, when Africa, Madagascar, Antarctica, India and Australia began gradually dispersing approximately 180 million years ago, forming the Indian Ocean in their wake. Image credit: S.C. Boone. 

 

The growth of supercontinents  

The distribution of continents, mountain ranges, and oceans associated with the growth of supercontinents is thought to be instrumental in driving the most dynamic periods of evolution for the interior of Earth, the climate, and life. Nevertheless, details of the development of supercontinents often remain poorly constrained. Using a range of geochemistry techniques in combination with structural geology and field observation, Sam aims to restore the amalgamation history and configuration of ancient supercontinents to better understand the most dynamic periods of Earth’s evolution.

Supercontinent assembly occurs via episodic periods of tectonic plate collision, resulting in the growth of the largest mountain belts on Earth. But long after these peaks have eroded away, the signature of ancient collisional events can still be detected by the structural, magmatic and chemical fingerprints they leave behind. Mt Everest and the Nepalese Himalaya (pictured from the summit of Gokyo Ri) record the collision of India with Asia over the last 55 million years. Image credit: S.C. Boone.
Supercontinent assembly occurs via episodic periods of tectonic plate collision, resulting in the growth of the largest mountain belts on Earth. But long after these peaks have eroded away, the signature of ancient collisional events can still be detected by the structural, magmatic and chemical fingerprints they leave behind. Mt Everest and the Nepalese Himalaya (pictured from the summit of Gokyo Ri) record the collision of India with Asia over the last 55 million years. Image credit: S.C. Boone. 



Developing tools to constrain the thermal evolution of Earth’s crust  

Dr Boone specialises in the development and application of temperature-sensitive radiometric dating techniques that can be used to constrain the thermal evolution of the crust in relation to mountain building events, continental breakup and landscape evolution. To develop these so-called low-temperature thermochronology methods, he integrates digital microscopy, chemistry, spectrometry, software engineering, and machine learning in laboratory and fieldwork. Below is a preview of the open-access AusGeochem geochemistry data platform which he has worked to develop as part of the AuScope Geochemistry Network.

Remote video URL

Date Position Institution name
2022 - ongoing Geoscience Research Fellow in Tectonics University of Adelaide
2019 - ongoing Geoscience Research Fellow in Thermochronology University of Melbourne
2019 - 2022 Data Scientist AuScope Geochemistry Network
2018 - 2019 Postdoctoral Researcher Institute of Geosciences

Language Competency
Dutch; Flemish Can read, write, speak and understand spoken
English Can read, write, speak, understand spoken and peer review

Date Institution name Country Title
2014 - 2018 University of Melbourne Australia PhD in Geology
2012 - 2013 University of Melbourne Australia MSc in Geology
2004 - 2009 University of Massachusetts United States BSc in Physics

Date Title Institution Country
2021 - 2021 CS50 Computer Science Harvard University United States
2019 - 2019 NERC Numerical Earth Science Modelling Durham University England
2017 - 2017 Rift Basin Reservoirs: From Outcrop to Model University Centre in Svalbard Norway

Year Citation
2026 Boone, S. C., Chung, L., Faux, N., Nattala, U., Church, T., Jiang, C., . . . Gleadow, A. (2026). Raising the bar: Deep learning on comprehensive database sets new benchmark for automated fission-track detection. Computers and Geosciences, 208, 12 pages.
DOI
2025 Morley, C. K., & Boone, S. C. (2025). Inception and evolution of the Turkana Depression: A review from the perspective of the longest-lived sector of the East African Rift. Journal of African Earth Sciences, 227, 34 pages.
DOI Scopus2 WoS2
2025 Kukkonen, I. T., Kohn, B., Kirsimäe, K., Jõeleht, A., Chung, L., McMillan, M., . . . Gleadow, A. (2025). Phanerozoic evolution of Fennoscandia: Evidence from apatite fission track, fluid flow and geodynamic data in Finland and Estonia. Gondwana Research, 146, 74-92.
DOI
2025 Gleadow, A., Green, H., Finch, D., Boone, S., Fink, D., Fülöp, R. H., . . . Unghango, A. (2025). The origin, evolution and life cycle of rock art shelters in the Kimberley Basin of NW Australia. Earth Surface Processes and Landforms, 50(9), 17 pages.
DOI
2025 Quarles, C. D., Manard, B. T., Zirakparvar, N. A., Petrus, J., Paul, B., Douglas, D., . . . McCubbin, F. M. (2025). Exploration of a Combined LIBS and LA-ICP-MS Approach for Apatite Characterisation. Geostandards and Geoanalytical Research, 17 pages.
DOI
2025 Nixon, A. L., Boone, S. C., Gréau, Y., Kohlmann, F., Theile, M., Noble, W., . . . McInnes, B. I. A. (2025). Volcanoes to vugs: Demonstrating a FAIR geochemistry framework with a diverse application of major and trace element data through the AuScope EarthBank platform. Chemical Geology, 696, 14 pages.
DOI Scopus1 WoS1
2025 Tu, A., Zahirovic, S., Polanco, S., Boone, S. C., Boyd, M., Mallard, C., . . . Müller, D. R. (2025). Predicting the preservation of buried ore deposits using deep-time landscape evolution modeling. Science Advances, 11(48), eady6244-1-eady6244-16.
DOI Scopus1 WoS1
2025 Boone, S. C., Glorie, S., Zahirovic, S., Nixon, A., Meeuws, F., & Kohlmann, F. (2025). Deciphering mantle, tectonic and climatic drivers of exhumation. Communications Earth and Environment, 6(1), 14 pages.
DOI Scopus1 WoS1
2025 Kohn, B. P., Ketcham, R. A., Vermeesch, P., Boone, S. C., Hasebe, N., Chew, D., . . . Sobel, E. R. (2025). Interpreting and reporting fission-track chronological data. GEOLOGICAL SOCIETY OF AMERICA BULLETIN, 136(9-10), 30 pages.
DOI Scopus24 WoS22
2025 Sun, Y., Wang, Y., Pang, J., Boone, S. C., Wu, M., Shao, C., & Liu, W. (2025). Exhumation and Preservation of the Yangchuling Porphyry W-Mo Deposit in the Jiangnan Tungsten Ore Belt, South China: Insights from (U-Th)/He and Fission Track Dating. Journal of Earth Science, 36(1), 46-56.
DOI Scopus2 WoS2
2025 Boone, S. C., McMillan, M., Balestrieri, M. L., Kohn, B., Gleadow, A., Alimanovic, A., . . . Beucher, R. (2025). Phanerozoic thermochronology record of Afro-Arabia through space and time. Scientific Data, 12(1), 17 pages.
DOI Scopus1 WoS2
2024 McMillan, M., Boone, S. C., Chindandali, P., Kohn, B., & Gleadow, A. (2024). 4D fault evolution revealed by footwall exhumation modelling: A natural experiment in the Malawi rift. Journal of Structural Geology, 187, 78 pages.
DOI Scopus4 WoS4
2023 Seiler, C., Boone, S. C., Kohn, B. P., & Gleadow, A. J. W. (2023). A grain-by-grain comparison of apatite fission-track analysis by LA-ICP-MS and the External Detector Method. Chemical Geology, 635, 1-16.
DOI Scopus15 WoS11
2023 Boone, S., Kohlmann, F., Noble, W., Theile, M., Beucher, R., Kohn, B., . . . Nixon, A. (2023). PREPRINT: A global platform solution for Big Data in low-temperature thermochronology.
DOI
2023 Vermeer, J. L. L., Quigley, M. C. C., Boone, S. C. C., Duffy, B. G. G., Langridge, R. M. M., & Kohn, B. P. P. (2023). Tectono-Thermal Evolution of the Hope-Kelly Fault System, Southern Alps, New Zealand: Insights From Topographic Analysis and (U-Th)/He Thermochronology. JOURNAL OF GEOPHYSICAL RESEARCH-SOLID EARTH, 128(4), 1-27.
DOI Scopus4 WoS2
2023 Boone, S. C., Kohlmann, F., Noble, W., Theile, M., Beucher, R., Kohn, B., . . . McInnes, B. (2023). A geospatial platform for the tectonic interpretation of low-temperature thermochronology Big Data. Scientific Reports, 13(1), 8581-1-8581-15.
DOI Scopus11 WoS12 Europe PMC1
2022 Boone, S. C., Dalton, H., Prent, A., Kohlmann, F., Theile, M., Gréau, Y., . . . Rawling, T. (2022). AusGeochem: An Open Platform for Geochemical Data Preservation, Dissemination and Synthesis. Geostandards and Geoanalytical Research, 46(2), 245-259.
DOI Scopus23 WoS21
2022 McMillan, M. F., Boone, S. C., Kohn, B. P., Gleadow, A. J., & Chindandali, P. R. (2022). Development of the Nyika Plateau, Malawi: A Long Lived Paleo-Surface or a Contemporary Feature of the East African Rift?. Geochemistry Geophysics Geosystems, 23(8), 31 pages.
DOI Scopus13 WoS13
2021 Sun, Y., Chen, Z., Boone, S. C., Zhong, F., & Tao, W. (2021). Exhumation history and preservation of the Changjiang uranium ore field, South China, revealed by (U-Th)/He and fission track thermochronology. Ore Geology Reviews, 133, 12 pages.
DOI Scopus14 WoS12
2021 Boone, S. C., Balestrieri, M. L., & Kohn, B. (2021). Tectono-Thermal Evolution of the Red Sea Rift. Frontiers in Earth Science, 9, 9 pages.
DOI Scopus22 WoS20
2021 Prent, A., Dalton, H., Boone, S., Florin, G., Greau, Y., McInnes, B., . . . Noble, W. (2021). The AuScope Geochemistry Network and the AusGeochem geochemistry data platform.
DOI
2021 Fraser, R., Boone, S., Prent, A., Klump, J., & Aben, G. (2021). SciDataMover: Moving Geochemistry Data from the Lab through to Publication.
DOI
2021 Boone, S., Kohlmann, F., Theile, M., Noble, W., Kohn, B., Glorie, S., . . . Zhou, R. (2021). AusGeochem and Big Data Analytics in Low-Temperature Thermochronology.
DOI
2021 Boone, S. C., Balestrieri, M. L., & Kohn, B. (2021). Thermo-tectonic imaging of the Gulf of Aden-Red Sea rift systems and Afro-Arabian hinterland. Earth-Science Reviews, 222, 19 pages.
DOI Scopus20 WoS21
2021 Sun, Y., Kohn, B. P., Boone, S. C., Wang, D., & Wang, K. (2021). Burial and exhumation history of the lujing uranium ore field, zhuguangshan complex, south china: Evidence from low-temperature thermochronology. Minerals, 11(2), 1-24.
DOI Scopus16 WoS11
2021 Boone, S., Quigley, M., Betts, P., Miller, M., & Rawling, T. (2021). Australia’s Unfolding Geoscience Malady. Eos United States, 102(11), 28-30.
DOI Scopus6
2020 Boone, S., Kohlmann, F., Balestrieri, M. -L., McMillan, M., Kohn, B., Noble, W., . . . Gleadow, A. (2020). Thermo-tectonic imaging of the Afro-Arabian Rift System.
DOI
2020 Prent, A., McInnes, B., Gleadow, A., O'Reilly, S., Boone, S., Kohn, B., . . . Rawling, T. (2020). The AuScope Geochemistry Laboratory Network.
DOI
2019 Boone, S. C., Balestrieri, M. L., Kohn, B. P., Corti, G., Gleadow, A. J. W., & Seiler, C. (2019). Tectonothermal Evolution of the Broadly Rifted Zone, Ethiopian Rift. Tectonics, 38(3), 1070-1100.
DOI Scopus17 WoS18
2019 Boone, S. C., Kohn, B. P., Gleadow, A. J. W., Morley, C. K., Seiler, C., & Foster, D. A. (2019). Birth of the East African Rift System: Nucleation of magmatism and strain in the Turkana Depression. Geology, 47(9), 886-890.
DOI Scopus36 WoS33
2018 Boone, S. C., Kohn, B. P., Gleadow, A. J. W., Morley, C. K., Seiler, C., Foster, D. A., & Chung, L. (2018). Tectono-thermal evolution of a long-lived segment of the East African Rift System: Thermochronological insights from the North Lokichar Basin, Turkana, Kenya. Tectonophysics, 744, 23-46.
DOI Scopus28 WoS24
2018 Boone, S. C., Seiler, C., Kohn, B. P., Gleadow, A. J. W., Foster, D. A., & Chung, L. (2018). Influence of Rift Superposition on Lithospheric Response to East African Rift System Extension: Lapur Range, Turkana, Kenya. Tectonics, 37(1), 182-207.
DOI Scopus32 WoS29
2018 Hall, J., Glorie, S., Reid, A., Boone, S., Collins, A., & Gleadow, A. (2018). An apatite U-Pb thermal history map for the northern Gawler Craton, South Australia. Geoscience Frontiers, 9(5), 1293-1308.
DOI Scopus24 WoS22
2016 Boone, S., Seiler, C., Reid, A., Kohn, B., & Gleadow, A. (2016). An Upper Cretaceous paleo-aquifer system in the Eromanga Basin of the central Gawler Craton, South Australia: evidence from apatite fission track thermochronology. Australian Journal of Earth Sciences, 63(3), 315-331.
DOI Scopus22 WoS21

Year Citation
1965 BOONE, S. C., & WAKIL, S. (1965). SYNTHESIS OF LIGNOCERIC AND NERVONIC ACIDS. In TEXAS REPORTS ON BIOLOGY AND MEDICINE Vol. 23 (pp. 643-&). UNIV TEXAS.

Year Citation
2023 Boone, S., Kohlmann, F., Noble, W., Theile, M., Beucher, R., Kohn, B., & Glorie, S. (2023). AusGeochem: An open-access platform for geospatial interrogation of thermochronology Big Data through deep time. Poster session presented at the meeting of Goldschmidt 2023.
2023 Nixon, A., Boone, S., Vermeesch, P., Glorie, S., Gleadow, A., & Chung, L. (2023). Automated semi-track length measurements as a tool for predicting annealed distributions for thermochronological reconstruction. Poster session presented at the meeting of Thermo 2023.

Year Citation
2018 Boone, S. (2018). A low-temperature thermochronology investigation of the Turkana Depression: Implications for the development of the East African Rift System. (PhD Thesis, The University of Melbourne).
  • Phillips, Hergt, Gleadow, Cerling, Leakey, Boone, Dalton. A high resolution chronological framework for volcanic tuffs in the Turkana Basin to constrain species evolution and paleoclimate/paleoenvironmental change through time. Turkana Basin Institute Research Continuity Award. USD $126,364. 2022-2023. 
  • Boone. Why Do Continents Rupture? University of Melbourne Early Career Researcher Grant. AUD $36,000. 2021-2022.
  • Boone. AI-powered automated digital microscopy techniques for the Earth Sciences. Melbourne Data Analytics Platform Collaboration Scheme. AUD $50,000 in-kind. 2021-2022.
  • BoonePaleogeography and tectonics of Gondwana amalgamation. German Academic Exchange Service (DAAD) Short-Term Research Grant. EUR $8,550. 2018-2019.
  • 2022 - The University of Adelaide, Department of Earth Sciences 3rd-year undergraduate Arkaroola Field Trip
  • 2022 to present - Victorian Institute of Earth and Planetary Sciences Geochronology and Thermochronology Honours and MSc course
  • 2019 - The University of Adelaide, Department of Earth Sciences 2nd & 3rd-year undergraduate Oman International Study Tour
  • 2018 - Victorian Institute of Earth and Planetary Sciences' Basin Evolution and Stratigraphy Honours and MSc course
  • 2016, 2017 - The University of Melbourne, School of Earth Sciences 2nd-year undergraduate subject Structural & Metamorphic Geology
  • 2016 - The University of Melbourne, School of Earth Sciences 3rd-year undergraduate subject Tectonics & Geodynamics
  • 2013 - The University of Melbourne, School of Earth Sciences 1st-year undergraduate subject Understanding Planet Earth

 

Date Role Research Topic Location Program Supervision Type Student Load Student Name
2022 - ongoing Principal Supervisor Compositional Control of Fission-Track Annealing in Apatites from The Otway Basin University of Melbourne - Master - Matthew Winefield
2022 - ongoing Co-Supervisor AI-powered automated digital microscopy techniques for the Earth Sciences University of Melbourne Master of Computer Science Master - Chenghao Jiang
2018 - ongoing Co-Supervisor Tectonothermal evolution of the Malawi Rift The University of Melbourne - Doctorate - Malcolm McMillan

Date Role Committee Institution Country
2021 - ongoing Member Environmental, Health and Safety Committee University of Melbourne, School of Geography, Earth and Atmospheric Sciences Australia
2021 - 2022 Member Seminar Series Committee University of Melbourne, School of Geography, Earth and Atmospheric Sciences Australia
2015 - 2015 Member AAPG International Conference & Exhibition (ECE) 2015 Student sub-committee American Association of Petroleum Geologists Australia

Date Role Membership Country
2018 - ongoing Member European Geosciences Union Germany
2016 - ongoing Member Royal Society of Victoria Australia
2016 - ongoing Member Geological Society of Australia Australia
2015 - ongoing Member American Geophysical Union United States

Date Title Engagement Type Institution Country
2021 - 2021 Science Meets Parliament Delegate 2021 Public Community Engagement Science Meets Parliament Australia

Date Topic Presented at Institution Country
2022 - ongoing Thermochronological Insights into Continental Breakup Process. From AI to Big Data: Multi-scale thermal evolution constraints on the rifting history of East Africa Institute of Geological Sciences Polish Academy of Sciences Poland
2020 - ongoing Why do continents break apart? Insights into early-stage rift processes from the upper crustal thermal evolution of East Africa Department of Earth Sciences The University of Adelaide Australia
2018 - ongoing The application of low-temperature thermochronology in intracontinental rift settings School of Geographical & Earth Sciences University of Glasgow United Kingdom

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