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Stephanie FludeView profile

Research Fellow

• Energy Transition
• Geochemistry
• Carbon Capture and Storage
• +3 more

Stephanie Flude is a Research Fellow in Civil and Environmental Engineering at the University of Strathclyde, UK, specializing in energy transition research with a focus on heat storage in abandoned mine shafts and contributions to UN Sustainable Development Goals. Education PhD in Rhyolite Volcanism in Iceland: Timing and Timescales of Eruption, University of Manchester (2005). Research Interests Her expertise spans geochemistry , carbon capture and storage (CCS) , hydrogen exploration , and geothermal energy storage . Current work investigates mine shaft utilization for thermal energy storage to support decarbonization of heating systems, building on her background in volcanology and subsurface processes. Research Trends Recent publications (2024-2026) model mine shaft thermal energy storage for district heating and grid balancing, integrating geology and energy engineering to advance sustainable energy solutions through abandoned coalfield repurposing. Scientific Awards No awards were mentioned. Advising and Grants No details on student supervision or research grants are available in the provided materials. Professional Activities Trustee, Scottish Geology Trust (2021-present). Participant in Responsible Research and Innovation conference for Minewater Thermal Energy Technologies (2025).

• Advanced Construction Materials
• Concrete Technology and Design
• Environmental Sustainability
• +3 more

Professor Patrick Tang is a faculty member at the University of Newcastle within the School of Architecture and Built Environment , specializing in Construction Management . His research focuses on sustainable construction materials and technologies aimed at reducing environmental impact while enhancing structural functionality. A leader in the Circular Economy and Sustainable Construction research group, he has published over 140 Q1 journal articles with >6000 citations (h-index 43). Received PVC Awards for research (2018) and teaching (2017) World's Top 2% Scientist (Stanford) since 2019 His work spans thermal energy storage concrete , low-carbon materials , and AI applications in construction. Recent projects include SmartCrete CRC (AU$21M) and NSW Environmental Trust grants. He pioneered virtual concrete lab development for education, and serves as Deputy Head of School - Research managing research performance across the school.

• Peatland Ecology
• Greenhouse Gas Exchange
• Wetland Restoration
• +3 more

Maria Strack is a Professor and Canada Research Chair at the University of Waterloo , focusing on wetland ecosystems. Her research bridges ecology , hydrology , biogeochemistry , and soil science to understand greenhouse gas dynamics in peatlands. Current projects include peatland restoration after industrial disturbances (e.g., oil sands mining, horticultural peat extraction). She investigates climate change impacts via experimental manipulation of temperature and water table levels to assess feedbacks on carbon cycling. Research interests emphasize: Greenhouse gas fluxes (CO2, CH4, N2O) in natural, disturbed, and restored peatlands. Ecohydrology and organic soil physics in wetland systems. Methane dynamics , including subsurface storage and geophysical monitoring techniques. Her recent publications highlight applications of remote sensing and experimental ecology to map methane release and evaluate restoration success. Collaborations span Alberta oil sands and boreal peatlands , with a focus on carbon accumulation and climate feedbacks . Scientific recognition : Named a Canada Research Chair for her leadership in wetland carbon dynamics. Maria supervises graduate research in soil greenhouse gas fluxes , peatland restoration , and mitigation of land-use change emissions . She leads the Wetland Soils and Greenhouse Gas Exchange Lab , integrating multidisciplinary approaches to address climate-ecosystem interactions.

Sebastian HoerningView profile

Research Fellow

• Geostatistics
• Stochastic Modeling
• Copula-based Non-linear Geostatistics
• +5 more

Dr. Sebastian Hoerning is a Research Fellow at The University of Queensland's Gas & Energy Transition Research Centre within the Faculty of Engineering, Architecture and Information Technology. His work focuses on advanced geostatistical methods for energy transition and environmental applications. His educational background includes: Bachelor of Science from Universität Stuttgart Masters (Coursework) of Science from Universität Stuttgart Doctor of Philosophy from Universität Stuttgart Dr. Hoerning's research centers on geostatistics and stochastic modeling with applications in underground hydrogen storage, fugitive methane emissions, and reservoir characterization. His innovative work on copula-based non-linear geostatistics addresses directional asymmetry in spatial fields, providing more accurate representations of geological formations. He develops computational methods that bridge theoretical statistics with practical energy challenges, particularly relevant to Australia's energy transition. His recent publications demonstrate a clear focus on critical energy transition issues, with particular emphasis on underground hydrogen storage , fugitive methane monitoring , and advanced computational geostatistics . These works show progression from fundamental methodological developments to applied solutions for real-world energy challenges. Dr. Hoerning has secured significant research funding including: Novel statistical estimation of fugitive methane emissions using drones (Advance Queensland Industry Research Fellowships, 2022-2024) New Stratigraphy and Geostatistics for Gas and Water Resources (ARC Linkage Projects, 2020-2023) Impact of Geostatistical Techniques on Technically Recoverable Resources (Australian Energy Resource Growth Centre Ltd, 2018-2021) He actively supervises PhD students, serving as Principal Advisor for research on hydrogen storage repurposing of gas fields and Associate Advisor for waveform inversion techniques. His development of computational tools like RMWSPy enables spatial simulation for environmental applications, supporting both academic research and industry practice.

Marc AbadieView profile

Researcher

• Air Quality
• Ventilation
• Hygrothermal Transfers
• +3 more

Marc Abadie is a full-time Researcher at the University of La Rochelle , affiliated with the Laboratory of Thermal Systems (LST) and the CNRS INSIS department. With a 2023 HDR (Habilitation à Diriger des Recherches) Active membership in ISIAQ , IABP , and IBPSA-France Editorial board member of International Journal of Ventilation , his work bridges air quality, hygrothermal modeling, and ventilation systems. Research focuses on dynamic IAQ simulation tools , Zonal/CFD airflow modeling inside/outside buildings DOMUS hygrothermal software development PANDORE pollutant emission database , supported by 15 recent publications analyzing pollutant dispersion, thermal comfort, and energy-air quality tradeoffs. His scientific awards include 2023 HDR in Sciences Leadership roles in Annex68 , IABP , and RSEIN Editorial contributions since 2023 . Teaching covers ventilation, heat exchangers, and building thermal energy compliance with RE2020 standards.

Luciana TavaresView profile

Associate Professor

• Dielectrics
• Capacitor Technology
• Additive Manufacturing
• +5 more

Luciana Tavares is an Associate Professor at the Institute of Mechanical and Electrical Engineering, University of Southern Denmark. Her research focuses on advanced capacitor technologies, dielectric materials, and additive manufacturing processes, with significant contributions to polymer electrolyte membrane fuel cells, nanocomposite thin films, and surface engineering. Institute of Mechanical and Electrical Engineering, University of Southern Denmark Center for Industrial Electronics Her research spans dielectric material optimization , metallized film capacitors , and additive manufacturing of metallic components , aiming to improve energy storage efficiency, mechanical integrity, and surface properties in power electronics. She explores the interplay between microstructure and performance in 316L stainless steel and develops surfactant-modified nanocomposite capacitors. Recent work includes helium-ion irradiation for dielectric enhancement , flow plate roughness in fuel cells , and high-voltage aluminum polymer capacitors . Her projects are supported by foundations like Norlys Vækstpulje and Villum Experiment. Scientific Awards : Villum Grant - Villum Experiment (2021) She supervises projects on dielectric properties , metallization ratios , and UV treatment of biaxially oriented polypropylene , while participating in conferences like PCIM Europe and Hydrogen & P2X. Collaborations include institutions in Germany and Denmark, with expertise in nanofibers, thin films, and surface science.

Jon E OlsonView profile

Professor

• Naturally fractured reservoirs
• Rock mechanics
• Hydraulic fracturing
• +9 more

Jon E Olson is a Professor in the Hildebrand Department of Petroleum and Geosystems Engineering at the Cockrell School of Engineering and an Associate Professor in the Bureau of Economic Geology at the Jackson School of Geosciences , both at The University of Texas at Austin. He holds the prestigious Cockrell Family Chair in Engineering #17 . His work bridges petroleum engineering and geosciences, focusing on energy production optimization and environmental impact mitigation. Core research areas include: Hydraulic fracturing mechanics and design optimization Diagenetic influences on fracture patterns in geological systems Subsurface deformation monitoring using InSAR technology Chemical-mechanical feedback mechanisms in rock fracturing Induced seismicity associated with wastewater injection Geothermal energy reservoir characterization Recent studies emphasize interdisciplinary approaches, integrating numerical modeling with experimental data to advance understanding of fracture interactions in multi-layer reservoirs. He explores how fluid chemistry and temperature affect shale properties, with implications for CO 2 storage and energy security. Jon is affiliated with research teams including the Center for Frontiers of Subsurface Energy Security and Geomechanics for Energy and the Environment . His experimental work involves torsion testing and hydrostone block experiments to study fracture behavior under reservoir conditions.

Katherine D RomanakView profile

Research Professor

• Carbon Cycling
• Geochemistry
• Soil-Gas Monitoring
• +4 more

Katherine D. Romanak is a Research Professor at the Bureau of Economic Geology within the Jackson School of Geosciences at The University of Texas at Austin. She specializes in geochemistry and carbon sequestration, focusing on soil-gas monitoring, microbial influences, and the fate of contaminants in subsurface environments. Her work includes large-scale projects like the Southeast Carbon Partnership and the Kerr Farm Assessment in Saskatchewan. Education: B.S. Geology, Southern Methodist University (1984) M.S. Geology, University of Texas at Arlington (1988) Ph.D. Geology, University of Texas at Austin (1997) Research interests emphasize carbon cycling dynamics, shallow subsurface monitoring, and CO2 storage safety. Notable contributions include developing process-based soil-gas methods to detect CO2 leakage and assessing environmental impacts of CO2 injection in oilfields. Her work integrates geochemical modeling with field experiments, as seen in studies at the Cranfield Mississippi site. Key awards include Jackson School Equipment Awards (2009, 2010) and a Career Development Publications Award (2009). She has led international initiatives, such as guest editing special issues on carbon storage and co-chairing global workshops on CO2 monitoring challenges. Professional activities span academic outreach, K-12 education, and stakeholder engagement. She collaborates with institutions like the Smithsonian Institution and the U.S. Department of Energy, advancing CCS technologies and policy alignment.

• Geomechanics
• Hydrogeology
• Induced Seismicity
• +7 more

Katie M Smye is a Research Associate Professor at the Bureau of Economic Geology within the Jackson School of Geosciences at The University of Texas at Austin. Her work focuses on geomechanical and hydrogeological processes related to oil and gas operations, particularly induced seismicity, wastewater disposal, and reservoir dynamics. She combines satellite InSAR data with subsurface modeling to assess anthropogenic land deformation and fault stability. Research Interests: Induced seismicity mechanisms and mitigation Wastewater disposal reservoir characterization Pore pressure evolution in unconventional plays Geomechanical modeling of fault systems Hydrogeological impacts of energy operations Her recent work emphasizes regional studies in the Permian and Delaware Basins, linking injection practices to surface deformation and fault reactivation. Over 50 peer-reviewed articles demonstrate her contributions to understanding subsurface-fluid interactions and geohazard assessment. Lab/Affiliations: Active member of the Bureau of Economic Geology's Energy and Geoscience group, collaborating with industry and government agencies on applied geoscience solutions for sustainable resource development.

Tongwei ZhangView profile

Research Professor

• Gas Geochemistry
• Isotope Geochemistry
• Petroleum and Gas Generation Kinetics
• +6 more

Tongwei Zhang is a Research Professor at the Bureau of Economic Geology within the Jackson School of Geosciences, The University of Texas at Austin. His research focuses on gas geochemistry, isotope geochemistry, and unconventional energy resources. He holds expertise in petroleum and gas generation kinetics, basin modeling, fluid transport processes, and CO2 sequestration. His work bridges geochemical analysis with practical applications in reservoir characterization and environmental science. Research Interests: Zhang’s studies span redox conditions in ancient oceans, volcanic impacts on mass extinctions, shale gas reservoir evaluation, and CO2 storage mechanisms. He employs advanced analytical techniques like SEM/TEM, Raman spectroscopy, and pyrolysis to investigate organic matter maturation and fluid dynamics. Key Contributions: His recent work addresses natural hydrogen generation in subsurface organic matter, gas adsorption in nanoporous rocks, and thermal maturity assessments in Cambrian shales. These studies highlight interdisciplinary approaches to understanding energy resources and environmental processes. Affiliations: Bureau of Economic Geology, Jackson School of Geosciences, The University of Texas at Austin. Contact: tongwei.zhang@beg.utexas.edu | +1 512 232 1496.

Bradley StevensonView profile

Research Professor

• Microbial Ecology
• Biogeochemistry
• Subsurface Microbiology
• +2 more

Dr. Bradley Stevenson is a Research Associate Professor in the Department of Earth, Environmental, and Planetary Sciences at Northwestern University. His research investigates microbial ecosystems in extreme subsurface environments, with applications to biogeochemistry, astrobiology, and public health surveillance. Current projects span: Deep subsurface microbial adaptations Wastewater-based epidemiology Biogeochemical cycling in cave systems Planetary analog environments Anthropogenic impacts on subsurface ecology Publications demonstrate dual focus on fundamental subsurface microbiology and applied environmental monitoring. Recent work includes wastewater surveillance for pathogens like SARS-CoV-2 and West Nile virus, deep biosphere characterization in geological formations, and astrobiological investigations in analog environments. Methodological approaches include stable isotope analysis, metagenomics, geochemical characterization, and development of novel surveillance techniques. Field sites encompass Mammoth Cave systems, Colorado Plateau aquifers, and urban wastewater infrastructure. Research contributes to understanding microbial life in energy-limited environments, planetary habitability models, and public health monitoring frameworks through environmental sampling and molecular analysis.

• Hydrogen Energy
• Carbon Capture and Utilisation
• Air Pollution
• +8 more

Dr. Yuhan Huang is a DECRA Fellow and Senior Lecturer at the School of Civil and Environmental Engineering, University of Technology Sydney (UTS). He holds editorial roles at multiple journals, including Associate Editor for Frontiers in Environmental Science and Frontiers in Energy Research. His research focuses on hydrogen energy, carbon capture, urban air pollution, and urban heat island mitigation, with over 80 publications in leading journals like Nature Sustainability and Science Advances. Huang has led 13 research projects totaling over AU$2M and holds one patent. His work emphasizes interdisciplinary approaches to sustainable urban development and clean energy technologies. Education: BEng (Mechanical Engineering, Huazhong University of Science and Technology, 2011); PhD (UTS, 2017). Career: Postdoctoral Research Fellow (2017–2021), Chancellor’s Research Fellow (2022), DECRA Fellow & Lecturer/Senior Lecturer (2022–present). He also held visiting fellowships at the Jockey Club Heavy Vehicle Emissions Testing and Research Centre (2017–2019) and the University of Oxford (2023). Grants include the CSIRO International Hydrogen Research Collaboration Program (2023–2024) and projects targeting urban heat island challenges. His research has been highlighted in media for its public health implications, particularly in air pollution mitigation.

Brent ChristnerView profile

Associate Professor

• Environmental Microbiology
• Microbial Physiology and Ecology
• Biogeochemistry
• +4 more

Brent Christner is an Associate Professor and Preeminent Scholar in the Department of Microbiology and Cell Science at the University of Florida. His research focuses on microbial physiology, ecology, and biogeochemistry in extreme environments such as the cryosphere and atmosphere. He leads the Christner Research Group, which explores microbial adaptations to low-temperature and low-energy habitats, including subglacial lakes, stratospheric aerosols, and karst aquifers. Education: B.S. in Molecular Biology (Westminster College, 1992); M.S. in Microbiology (University of Dayton, 1996); Ph.D. in Microbiology (The Ohio State University, 2002). Research Highlights: Investigates microbial survival mechanisms in Antarctic subglacial lakes (e.g., SALSA project). Studies biological ice nucleation and its role in precipitation formation via bioaerosols. Explores microbial resilience to extreme conditions (e.g., stratospheric radiation, desiccation). Develops technology for sampling icy extraterrestrial environments (e.g., THOR cryobot). Grants & Collaborations: Funded by NSF, NASA, and the Water Institute (e.g., SILA, WISSARD, THOR projects). International collaborations include Greenlandic researchers and Antarctic drilling initiatives. Outreach: Engages in K-12 education programs, polar outreach, and public science communication.

• Nanomaterials Chemistry
• Nanotechnology Applications
• Oilfield Technology
• +4 more

Valery Khabashesku is an Adjunct Professor in the Materials Science and NanoEngineering department at Rice University. He holds a Doctor of Science (DSc) from the Russian Academy of Sciences and has extensive industry experience as Head of the Nanotechnology Center of Excellence at Baker Hughes, where he contributed to oilfield nanotechnology innovations. His research focuses on nanomaterials chemistry, surface functionalization, and applications in energy, aerospace, and biomedical fields. Education: 1998: DSc (ProfDr) in Chemistry, Russian Academy of Sciences 1980: PhD in Organic Chemistry, Russian Academy of Sciences 1973: MSc in Chemistry, Lomonosov Moscow State University Research Interests: Dr. Khabashesku develops nanomaterials for oilfield applications (e.g., functionalized nanoparticles for enhanced hydrocarbon recovery), high-temperature materials, and surface-functionalized nanodiamonds. His work bridges academia and industry, emphasizing practical solutions in energy and materials science. Awards: 2017 Marquis Who’s Who Lifetime Achievement Award 2016 Baker Hughes Technology Excellence Awards 2003 US R&D 100 Award 2001 State Prize of the Russian Federation in Science and Technology Grants & Patents: He holds 110 patents and has authored/co-authored over 350 papers. Recent work includes developments in carbon nanotube-based sensors, fluorinated boron nitride, and diamond composites for extreme environments. Labs/Teams: Collaborates with Rice’s Materials Science group and industry partners like Baker Hughes on nanotechnology R&D, focusing on commercializing novel materials for energy and aerospace sectors.

Mason TomsonView profile

Professor

• Fate and Transport of Chemicals
• Environmental Impact of Nanoparticles
• Mineral Scale Inhibition
• +3 more

Professor Mason Tomson is a faculty member at Rice University's Civil and Environmental Engineering department, specializing in chemical fate/transport mechanisms and mineral scale inhibition. He holds a Ph.D. in Chemistry (1972) and a B.S. in Chemistry and Mathematics (1967). His research focuses on environmental chemical processes, nanoparticle impacts, and sustainable energy solutions. With an h-index of 64 and 17,000+ citations, he has authored over 500 articles and secured $40M+ in research funding. Professor Tomson has advised over 50 graduate students and contributed to university governance through roles on committees like Student Health, Safety, and Undergraduate Admissions. His innovations include pioneering studies on molecular carriers for chemical transport and nanotechnology applications recognized by Forbes and The New York Times. Collaborations include joint initiatives with Nankai University (China) and Macao University to advance sustainable environmental practices. His research encompasses mineral scale formation kinetics, CO2 corrosion effects, and PFAS mineralization via flash Joule heating. Key contributions include developing inhibition strategies for calcite, barite, and sulfide scales, extending oil well lifetimes through novel scale inhibitors, and reducing hydraulic fracturing water usage. His work bridges fundamental chemical principles with applied engineering solutions for energy and environmental challenges.