Ida Lykke Fabricius | Petrophysics and Rock Physics | Best Researcher Award

Prof. Dr. Ida Lykke Fabricius | Petrophysics and Rock Physics | Best Researcher Award

Professor Emerita at Technical University of Denmark, Denmark

Ida Lykke Fabricius is a distinguished geoscientist whose career spans over four decades of impactful contributions to sedimentary rock physics and geotechnical engineering. Currently Professor Emerita at DTU Sustain, she has played a central role in bridging the gap between academic research and applied geoscience, particularly within the domains of sediment mechanics, rock physics, and reservoir characterization. Her legacy is reflected not only in her extensive publication record but also in her leadership within Danish and Scandinavian scientific institutions. Fabricius has continuously advanced the understanding of how sedimentary rock properties evolve under geological processes, guiding the development of energy, environmental, and civil infrastructure projects.

Profile

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Education

Fabricius’s academic journey began with an MSc in Geology from the University of Copenhagen in 1981, where she was awarded the prestigious Gold Medal. She went on to earn her PhD in 1988 at the Institute of Applied Geology at the Technical University of Denmark (DTU), focusing on the physical behavior of geological materials. Her academic pursuit culminated in a Dr. techn. degree in 2009 from DTU’s Department of Environmental Engineering, affirming her status as a leading authority in her field. Her progressive academic training reflects a continuous and deepening specialization in geotechnical and geological engineering.

Experience

With a career marked by steady advancement and scientific leadership, Fabricius began as a Development Geologist at Mærsk Oil and Gas (1981–1985) before transitioning to academia. From 1985 to 1988, she served as an Assistant Professor/PhD student at DTU, moving into an Associate Professor role until 2011. She took on early leadership as Head of Department in Geology and Geotechnical Engineering from 1989 to 1992, and later held the positions of Professor MSO (2011–2016), Head of Section (2012–2022), and Professor (2016–2024) at the Department of Civil Engineering, DTU. Internationally, she also contributed as Professor II at the University of Stavanger (2014–2018). Her transition to Professor Emerita in 2024 marks a continuing commitment to mentoring and scientific dialogue.

Research Interest

Fabricius’s research centers on the physical properties of sediments and sedimentary rocks, particularly in relation to pore fluid composition, pressure, temperature, and diagenesis. Her work integrates laboratory measurements with field data, enabling robust models for mechanical behavior and acoustic properties of sedimentary formations. She has contributed significantly to linking rock physics and rock mechanics, with applications ranging from hydrocarbon exploration to sustainable subsurface infrastructure. Her interdisciplinary approach has helped to unify geotechnical engineering, geophysics, and petrophysics into actionable scientific frameworks.

Award

Throughout her career, Fabricius has received notable honors that underscore her technical leadership and service. In 2023, she received the SPE Copenhagen Award for Outstanding Technical & Academic Contributions, a recognition of her influence in petroleum geoscience. She was knighted as “Ridder af Dannebrogsordenen” in 2019, reflecting national recognition of her contributions to science. Earlier distinctions include the Direktør Gorm-Petersens Mindelegat in 1989 and the University of Copenhagen Gold Medal in 1981. These awards affirm both her early promise and long-standing excellence.

Publication

Fabricius has authored over 98 Web of Science-indexed articles with 2,730 citations and an h-index of 30, reflecting her sustained influence in geoscience. Some notable publications include:

  1. Fabricius, I. L. (2003). “How burial diagenesis affects chalk porosity.” AAPG Bulletin, cited by 289 articles.

  2. Fabricius, I. L., et al. (2007). “Petrophysical properties of chalk: pore structure and acoustic velocity.” Petroleum Geoscience, cited by 174 articles.

  3. Fabricius, I. L., & Baechle, G. (2009). “Elastic moduli of chalk and pore system properties.” Geophysics, cited by 141 articles.

  4. Fabricius, I. L., et al. (2008). “Effect of temperature and salinity on acoustic velocity in chalk.” Geophysical Prospecting, cited by 97 articles.

  5. Fabricius, I. L. (2006). “Pore pressure prediction from acoustic data.” Marine and Petroleum Geology, cited by 85 articles.

  6. Fabricius, I. L., & Røgen, B. (2001). “Strength and porosity of chalk from the North Sea.” Journal of Petroleum Science and Engineering, cited by 76 articles.

  7. Fabricius, I. L., et al. (2010). “Velocity–porosity transforms in chalk.” Geophysical Journal International, cited by 69 articles.

These selected publications highlight her integrative and data-driven approach to understanding chalk and sedimentary systems.

Conclusion

Professor Ida Lykke Fabricius has established herself as a cornerstone of geoscientific advancement in Denmark and beyond. Her pioneering research in sedimentary rock physics has shaped both theoretical understanding and practical applications in petroleum engineering, geotechnics, and environmental geoscience. Her leadership roles, high-impact publications, and national honors reflect a lifetime of dedication to scientific integrity, innovation, and education. Fabricius remains a role model for emerging geoscientists, combining rigorous analysis with a collaborative and visionary approach to earth sciences.

Chen Hao | Electromagnetic Survey | Best Researcher Award

Mr. Chen Hao | Electromagnetic Survey | Best Researcher Award

Assistant Researcher at Chengdu Center, China Geological Survey, China

Chen Hao is an Assistant Researcher at the Chengdu Center, China Geological Survey (Geoscience Innovation Center of Southwest China), specializing in electromagnetic geophysics with a focus on magnetotelluric (MT) data processing. His work addresses the development of high-precision impedance estimation methods, noise suppression strategies, and data quality evaluation frameworks for subsurface conductivity mapping. He has made significant contributions to advancing MT methodology, particularly in refining preprocessing techniques and formulating objective criteria for data quality assessment. His research is widely cited in the field and continues to shape practices in geophysical exploration and electromagnetic data interpretation.

Profile

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Education

Chen Hao holds a doctoral-level education in geophysics, with specialization in magnetotelluric methods and electromagnetic induction theory. His academic training focused on applying physical principles to analyze natural-source electromagnetic field data, enabling the development of innovative processing techniques. His doctoral thesis introduced a new MT data quality assessment framework that integrates phase differences and linearity metrics to categorize data types, forming the foundation of his future research trajectory. This educational background provides the theoretical rigor and analytical depth that underpin his contributions to geophysical signal analysis and inversion.

Experience

Professionally, Chen Hao has extensive experience working on both theoretical and field-based geophysical research. At the China Geological Survey, he has applied advanced MT methodologies to large-scale surveys, focusing on improving the quality and interpretability of electromagnetic data in complex geological environments. His completed project on “Magnetotelluric Data Noise Suppression and Quality Assessment” contributed a novel preprocessing framework that minimizes the need for high-quality datasets by introducing quantitative evaluation metrics. He is currently investigating MT data variability in response to geomagnetic storms, aiming to build real-time monitoring tools for space weather using geophysical measurements. His hands-on experience with time-series analysis, noise diagnostics, and impedance estimation techniques positions him as a methodological innovator in the domain of electromagnetic surveys.

Research Interest

Chen Hao’s primary research interests lie in magnetotelluric signal processing, time-series noise suppression, and the development of quality-driven inversion techniques. His work emphasizes understanding non-stationary noise in MT data and applying statistical and physical diagnostics to improve reliability. He is particularly interested in integrating linearity, phase differences, polarization direction, prediction errors, and hat matrix elements to create a multi-parameter MT data evaluation framework. His current research explores the relationship between MT signal integrity and geomagnetic activity, linking geophysics with space weather monitoring. His innovations continue to enable more consistent and objective MT processing workflows, especially in data-limited or noise-prone environments.

Award

Although he has not yet received formal awards, Chen Hao is a deserving nominee for the Best Researcher Award due to his impactful scientific contributions, rigorous methodology, and peer-reviewed publications. His quality assessment framework and its application in MT signal preprocessing have already influenced data processing practices in geophysics. His growing recognition within the scientific community is evidenced by the citation of his work in prominent journals. This nomination reflects his commitment to scientific advancement and his potential as a leader in electromagnetic geophysical research.

Publications

Chen Hao has authored several high-quality, peer-reviewed articles in SCI-indexed journals, each contributing to the development of MT processing techniques:

  1. Chen, H., Mizunaga, H., Tanaka, T. (2022). Influence of geomagnetic storms on the quality of magnetotelluric impedance. Earth Planets Space, 74, 1–17. (Cited by 10 articles)

  2. Chen, H., Zhang, L., Ren, Z., Cao, H., Wang, G. (2023). An Automatic Preselection Strategy for Magnetotelluric Single-Site Data Processing Based on Linearity and the Polarization Direction. Frontiers in Earth Science, 11, 1230071. (Cited by 7 articles)

  3. Chen, H., Zhang, L. (2025). Assessing Magnetotelluric Data Quality Based on Linearity and Phase Differences. Geophysics, 90: E79-E90. (Cited by 3 articles)

These works provide robust methodologies for MT data assessment and preprocessing, combining theoretical modeling with empirical validation, and have been cited in related geophysical literature.

Conclusion

Chen Hao exemplifies excellence in geophysical research through his integration of electromagnetic theory, statistical analysis, and computational methods. His innovations in MT data processing have improved signal reliability, optimized impedance estimation, and set new standards for data quality evaluation. His research has already influenced academic practices and offers substantial potential for future applications in resource exploration and environmental monitoring. With a growing body of influential publications, a clear research focus, and strong methodological contributions, Chen Hao stands out as a promising early-career researcher in geophysics. His nomination for the Best Researcher Award is a recognition of both his current impact and his potential for continued scientific leadership.