IAMG2025
The 23. annual conference of the IAMG
October 08 - 13, 2025, Zhuhai, China

Keynote speakers and IAMG Awardees

Keynote Speakers

IAMG Awardees

Keynote Speakers

Alik Ismail-Zadeh

Alik Ismail-Zadeh is Research Professor at the Karlsruhe Institute of Technology, Karlsruhe, Germany. He is a mathematical geoscientist known for his contribution to computational geodynamics and natural hazard studies and pioneering work on data assimilation in geodynamics. His research covers several topics in geosciences and applied mathematics: mantle/lithosphere dynamics, seismology, volcanology, sedimentary basins, tectonophysics, geohazards, risk analysis as well as gravitational and thermal instabilities, inverse problems, and numerical techniques. His research methods include multi- and interdisciplinary synthesis, theoretical analysis, and numerical experiments. He is a principal author and co-author of over 150 peer-reviewed papers and several books.
Alik Ismail-Zadeh has been Secretary General of the International Union of Geodesy and Geophysics (IUGG, 2007-2019) and inaugural Secretary General of the International Science Council (ISC, 2018-2021), which represents science as a global voice at the United Nations (UN). Currently, he is Chair of the IUGG Commission on Mathematical Geophysics and Chair of the ISC-UNDRR Scientific Committee of the Integrated Research on Disaster Risk. Alik Ismail-Zadeh is a Member of Academia Europaea, Fellow of the American Geophysical Union, of the International Union of Geodesy and Geophysics, of the International Science Council, and Honorary Fellow of the Royal Astronomical Society. He honored by several prestigious professional awards and medals.

Talk title: Data-Driven Computational Modelling in Geodynamics

Deep geodynamic processes and their surface manifestations, such as seismicity or volcanism, are of great scientific interest and of societal relevance. With great advances in understanding the geodynamic processes based on geological analysis, geophysical and geodetic monitoring, observations and data analysis as well as with novel mathematical methods and technological progress in computer simulations, data-driven computational models in geodynamics become feasible and important in recovering the past, analysing the present, and forecasting the future. If traditional geodynamic models are related to analyses of basic dynamical processes in and on the Earth without a direct linkage to observations, data-driven models try to assimilate Earth observations and relevant data models via physics-based numerical models to determine either optimal characteristics of the models or initial/boundary conditions. Data assimilation techniques, e.g., adjoint or quasi-reversibility, employed for analysis of geodynamic processes as well as AI methods used in computer vision, e.g., for identification of parameters of physics-based models based on geomorphological shapes, permit for utilising huge observations via models. During the talk I shall present case studies related to mantle-lithosphere dynamics, earthquake occurrence, and lava dynamics. These case studies enhance our knowledge on the dynamics of the planet as well as contributes to the solutions of societal challenges related to georesources and geohazards.

Anna Nguno

Coming soon

Talk title: Coming soon

Coming soon

IAMG Awardees

Dario Grana - Felix Chayes Prize 2025

Dario Grana is a professor in the Department of Geology and Geophysics at the University of Wyoming, where he holds the Wyoming Excellence Chair and the Nielson Faculty Fellowship. He also serves as the director of the Bayesian Learning Consortium in the School of Energy Resources. He earned an MS in Mathematics from the University of Pavia (Italy) in 2005 and a Ph.D. in Geophysics from Stanford University in 2013, before joining the University of Wyoming that same year. He is the author of Seismic Reflections of Rock Properties (2014) and Seismic Reservoir Modeling (2021) and has published over 100 papers in peer-reviewed journals. His contributions to geophysics have been recognized with several prestigious awards, including the 2015 Mathematical Geosciences Best Paper Award, the 2016 SEG Karcher Award, the 2017 EAGE Van Weelden Award, and the 2022 SEG Outstanding Educator Award. His research focuses on petrophysics, rock physics, geostatistics, data assimilation, and inverse problems for subsurface modeling.

Talk title: Revealing Subsurface Petrophysical Properties Through Bayesian Learning

Coming Soon.

Guoxiong Chen - Andrei Borisovich Vistelius Research Award 2025

Guoxiong Chen is a professor at the China University of Geosciences (Wuhan) and Deputy Director of the State Key Laboratory of Geological Processes and Mineral Resources. He serves as Associate Editor for both Mathematical Geosciences and Ore Geology Reviews, while holding positions as subgroup leader of the IUGS International Lithological Program (LIP) and co-leader of the Mathematical Geology Working Group in the IUGS Deep-Time Digital Earth (DDE) Big Science Program. Dr. Chen maintains broad research interests across geoscience disciplines, with particular emphasis on employing mathematical modeling and innovative methodologies to investigate fundamental questions regarding the evolution of habitable Earth and resolve technical challenges in mineral exploration. As an early-career scientist, he has authored over 30 SCI-indexed publications in leading journals including Nature Communications, Science Advances, Geology, and Earth and Planetary Science Letters, as well as specialized IAMG journals.

Talk title: Data-driven traveling in deep time: a unique way of mathematical geologists for exploring the operation of early Earth.

Coming soon.

Anirudh Prabhu - Andrei Borisovich Vistelius Research Award 2025

Coming soon.

Coming soon.

Renguang Zuo - Distinguished Lecturer 2026

Professor Renguang Zuo received his B.S. and Ph.D. degrees from the China University of Geosciences (CUG), Wuhan, China, in 2004 and 2009, respectively. He is currently a full professor at the State Key Laboratory of Geological Processes and Mineral Resources, CUG. His research focuses on big data analytics and machine learning-based mineral prospectivity mapping and geochemical anomalies identification. Dr. Zuo has published over 160 peer-reviewed journal papers, 6 books, and book chapters. He has served as the Gust Editor for 8 special issues in international high-quality journals. His publications have amassed over 9,000 citations (Google scholar) across a range of esteemed international journals. In 2023, Dr. Zuo was awarded the Gold Medal, which is the highest award by the Association of Applied Geochemists (AAG). Meanwhile, Dr. Zuo was selected as the IAMG Distinguished Lecturer 2026. In addition, he was the inaugural recipient of the Kharaka Award by the International Association for GeoChemistry in 2015.
Dr. Zuo is the Vice President of AAG (2025-2026), and was a council of IAMG (2020-2024). He has received fellowships from AAG, Society of Economic Geologists, and Geological Society of London. He has been heavily involved in the editorial boards of many SCI-indexed journals, including Journal of Geochemical Exploration, Geochemistry: Exploration, Environment, Analysis, Computers & Geosciences, Natural Resources Research, Ore Geology Reviews, and Journal of Earth Science.

Talk title: Data-knowledge dual-driven mineral prospectivity mapping

Mineral prospectivity mapping (MPM), as a computer-based approach to delineate target areas for a specific type of mineral deposits. MPM typically comprises knowledge-driven and data-driven models. Knowledge-driven MPM relies on expert knowledge, which is based on causal relationships but is not readily adaptable to dynamic changes. Data-driven MPM is capable of identifying underlying data patterns but involves poorly interpretable decision logic. This talk will focus on the state-of-art big data analytics and AI in MPM to devise a data-knowledge dual-driven model coupling AI with a mineral systems approach to MPM.

Dionysios Christopoulos - Georges Matheron Lecturer 2024

Dionissios T. Hristopulos is a Professor in the School of Electrical and Computer Engineering at the Technical University of Crete and the director of the Master's program in Machine Learning and Data Science. He holds a Diploma in Electrical Engineering (National Technical University of Athens) and a PhD in Physics (Princeton University). He has held appointments in the Department of Environmental Sciences and Engineering (University of North Carolina at Chapel Hill, USA) and the Pulp and Paper Research Institute of Canada. In 2002, he returned to Greece in the Department of Mineral Resources Engineering at the Technical University of Crete, where he stayed until 2020 before moving to his current position. In 2003, he shared with Tetsu Uesaka the Johannes A. Van den Akker International Prize for Advances in Paper Physics. Dionissios serves on the editorial boards of Computers & Geosciences, Spatial Statistics, and Stochastic Environmental Research and Risk Assessment. He has co-authored more than 100 peer-reviewed publications and is the author of Random Fields for Spatial Data Modeling: A Primer for Scientists and Engineers (Springer, 2020). His research interests include new methodologies in spatiotemporal statistics, statistical physics, machine learning, and their applications.

Talk title: From Particles to Patterns: An Odyssey from Physics to Geostatistics and Beyond

Are there useful connections between statistical physics and geostatistics? Does quantum many-body theory have similarities with random fields? Is it worth learning how to use kriging in the era of artificial intelligence (AI)? This presentation gives affirmative answers to the questions above. We will show that the geostatistical framework fits nicely inside the framework of Gaussian process regression, thus making the connection of geostatistics with the field of AI. Gaussian process regression (kriging as well) faces computational difficulties for very large datasets due to the inversion of the covariance matrix which scales cubically with data size. One solution to this problem exploits an idea from statistical field theory, namely the formulation of joint densities by means of field interactions. This change in perspective, compared to the standard, covariance-based formulation, puts the precision (inverse covariance) matrix at the forefront and avoids inversion of the covariance matrix for spatial prediction or for model likelihood estimation. The stochastic local interaction (SLI) models derived by pursuing this idea can be viewed as Markov random fields with physically inspired precision matrices, and they have significantly lower computational complexity compared to kriging. The range of the interactions in SLI models is determined by adaptively controlling the range of user-selected interaction kernels. In the continuum limit, precision matrices are replaced by precision operators. We will show that by combining a particular precision operator with yet another idea from statistical physics, namely smoothed particle hydrodynamics, we obtain the first representation of a continuum precision (inverse covariance) function. For data with non-Gaussian distribution, the idea of warped Gaussian processes (a close relative of Gaussian anamorphosis) is often useful. We will present a new, flexible nonlinear transformation for warped Gaussian processes using mathematical tools developed for generalized entropies. Finally, we will consider the Ising model, a cornerstone in statistical physics and complex systems, and how it can be used for spatial data analysis. We will conclude the presentation with some remarks on future perspectives.