Roman Botcharnikov is a researcher at the Department of Petrology, Institute of Geosciences, Johannes Gutenberg University Mainz. His work focuses on experimental petrology, magmatic processes, and geochemical analysis of melt inclusions and volcanic systems. He employs advanced techniques like electron microprobe analysis, XANES spectroscopy, and fluid inclusion experiments to study magma evolution, volatile solubility, and metal mobilization. Research Interests : Experimental petrology, melt inclusion analysis, sulfide systems, iron oxidation states, and magmatic-hydrothermal fluid interactions. Collaborations : Works with teams studying geoarchaeology, hydrogeochemistry, and volcanology. Collaborators include experts in XANES, LA-ICP-MS, and thermodynamic modeling. Recent Article Trends : His recent publications investigate ion substitution in beryl, Fe oxidation in olivine-hosted inclusions, and REE transfer mechanisms. These studies bridge experimental petrology with natural systems in collision zones and layered intrusions. Student Advising : Mentors students like Stepan Krashenninikov and Antonia Simon in petrological and mineralogical research.
Dr. David Peate is a Professor of Geochemistry and Department Chair at the University of Iowa , within the College of Liberal Arts and Sciences . His research focuses on using elemental and isotopic data from volcanic rocks and minerals to investigate magma generation in diverse tectonic settings, including continental flood basalts, subduction zones, and ocean islands. He also applies geochemical techniques to interdisciplinary problems such as impact cratering, sedimentary geochemistry, geoarchaeology, and environmental lead pollution. Education : PhD , Open University, United Kingdom BA , University of Cambridge, United Kingdom His work spans igneous petrology , mantle and crustal processes , and geochemical applications in environmental and archaeological contexts. He has led NSF-funded projects on off-axis volcanism in Iceland, South China Sea rifted margins, and magma ascent timescales using crystal diffusion profiles. Recent publications highlight collaborations on planetary analogs , isotopic tracing of human migration , and geochemical proxies for large igneous provinces . His lab trains graduate and undergraduate researchers in advanced analytical methods like LA-ICP-MS , electron microprobe , and petrographic microscopy . Scientific Awards : Distinguished Lecturer – Ocean Discovery Lecture Series (2021) Collegiate Teaching Award, University of Iowa (2014) Dean’s Scholar, University of Iowa (2009) Obermann Center Scholar (2007) Old Gold Summer Fellowship (2004) Wiltshire Student Prize, University of Cambridge (1984) Churchill College Scholarship, University of Cambridge (1984) Dr. Peate has advised numerous PhD and Master’s students , fostering research on topics such as mantle heterogeneity, impact melt analysis, and volcanic system dynamics. He also manages the University of Iowa’s ICP-MS lab and electron microprobe facility , which serve as hubs for geochemical research.
Dagmar Galusková, PhD. serves as Head of the Central Laboratories Department at Alexander Dubček University of Trenčín, Slovakia, and is a key researcher at the FunGlass Centre for Functional and Surface Functionalized Glass. Her work bridges material science with practical applications in biomedical engineering, cultural heritage preservation, and industrial materials development through the European Union's Horizon 2020 research programme. Dr. Galusková's educational background includes: PhD (2006-2010) in 'Corrosion resistance of ceramic materials' from the Faculty of Chemical and Food Technology, Bratislava MSc (1991-1992) with thesis on 'Determination of kinetic parameters of degradation of petroleum hydrocarbons' Her research focuses on corrosion resistance and durability of silicate materials, with specialized expertise in glass (bioactive, historical, industrial) chemical and surface characterization. She has developed testing procedures for assessing bio-characteristics of biomaterials and mechanisms of their degradation, establishing herself as a significant figure in materials science with methodology support for testing corrosion resistance. Analysis of her publication trends reveals two parallel research streams: one focused on bioactive glass applications for biomedical purposes (particularly metal-doped glasses with therapeutic ion release properties), and another examining historical glass artifacts through archaeometry. Her work spans from fundamental corrosion mechanisms to practical applications in dental materials, biomedical implants, and industrial ceramics. Dr. Galusková's recognition includes: 2019: Member of the 'Scientific team of the year' awarded by the Ministry of Education of the Slovak Republic 2011: Competition award (second prize) for hydrothermal corrosion of alumina ceramics research 2008: Dual recognition as Member of both 'Research team of the year' and 'Scientific team of the year' As an academic leader, Dr. Galusková supervises PhD students and teaches doctoral courses including 'Inorganic technologies and materials II' and analytical methods. She leads significant research projects such as APVV 22-0062 on reference glasses (2023-2027) and VEGA 1-0191/20 on bioactive materials (2020-2023), demonstrating sustained funding success. Her Horizon 2020 project involvement (2017-2023) highlights her international research collaborations with institutions in Erlangen, Jena, Madrid, and Padova. Dr. Galusková actively contributes to the scientific community as a member of Organisation Committees for international conferences, the Slovak Glass Society, and the Slovak Silicate Society. She organizes junior FunGlass schools to promote material science education and has completed research stays at the University of Bologna and Technische Universität Darmstadt, strengthening international research networks.
Sampriti Basak is an Assistant Professor at the University of Copenhagen, Faculty of Science, Department of Geoscience and Natural Resource Management, based at The Natural History Museum. Her research focuses on Earth's evolution as a habitable planet through geological and geochemical analysis of ancient rock formations. Education: Ph.D. in Geology, Ruhr University Bochum (2020), thesis: "High-resolution thermal and tectonic history of Archean terranes: A case study from Coorg Block, S. India" Her research applies petrology, geochemistry, thermodynamic modelling, isotope geochronology, and diffusion modelling to investigate Earth's development of oceans and an oxygenated atmosphere. As an enthusiastic field geologist, she conducts fieldwork in western Australia, eastern Canada, and India to study Earth's oldest rocks, integrating spatial geological features with laboratory analyses of petrology and isotopic techniques. Recent publications (2022-2024) reveal consistent focus on Archean geology in Greenland and South India, utilizing petrological and geochemical methods to unravel deep crustal processes, metamorphic evolution, and tectonic histories during Earth's formative periods. She supervises bachelor's and master's thesis students while conducting departmental examinations. Her active research involves six major Greenland projects investigating corundum formation, talc deposits, anorthosite complexes, graphite deposits, orogenic zones, and supracrustal belts through international collaborations with Denmark, Germany, China, and Japan. As part of the 'Early Earth Research Group' led by Associate Professor Kristoffer Szilas, she operates the Bruker Tornado M4+ micro-XRF with Automated Mineralogical Identification System (AMICS), JEOL Electron Microprobe JXA 8200, and XRD instrumentation for advanced mineralogical analysis.
Dr. Scott Adams serves as a Senior Lecturer at Deakin University within the Faculty of Science Engineering and Built Environment, School of Engineering, and is affiliated with the Centre for Sustainable Bio-Products. His research spans multiple engineering disciplines with a strong emphasis on sustainable technologies, artificial intelligence applications, and biomedical device development. Dr. Adams earned his Doctor of Philosophy and dual Bachelor degrees (Engineering with Honours and Information Technology with Distinction) from Deakin University. His academic journey progressed from Postdoctoral Research Fellow (2019-2022) to his current Senior Lecturer position. His research interests focus on data management and data science, electronics and sensor technology, control engineering, mechatronics, robotics, and biomedical engineering . His work demonstrates particular expertise in sustainable waste management systems, AI-driven monitoring solutions, and neural interface technologies. Dr. Adams has developed innovative approaches to tyre recycling, solar panel inspection, greenhouse monitoring, and neural microprobes with adaptive stiffness. An analysis of his recent publications reveals a strong trend toward sustainable engineering solutions with applications in waste recycling (particularly end-of-life tyres and solar panels), AI-enhanced monitoring systems for environmental and agricultural applications, and advanced biomedical devices featuring novel materials and control systems. His interdisciplinary approach bridges mechanical engineering, computer science, and environmental science. Dr. Adams actively supervises numerous doctoral students across diverse engineering projects and has secured substantial research funding through multiple industry collaborations. His grants portfolio includes significant projects such as the Commercialisation of an Automated Mobile EOL Solar PV Panel Recovery Plant ($345,925), End of Life Tyres to Green Hydrogen ($23,745,206), and various contracts with rail companies, energy firms, and agricultural technology developers. His teaching responsibilities include units such as SEE216 - Analogue and Digital Electronics, SEJ102 - Electrical Systems Engineering Project, and SEE711 - Sensor Networks. Dr. Adams has developed several innovative devices including the SmartStim AI-enabled deep brain stimulation device, AgriGlow IoT multi-spectral light sensing system, and automated soil gas monitoring technology, demonstrating his commitment to translating research into practical applications.
