Find Academic Supervisors

• Soil Biogeochemistry
• Environmental Chemistry
• Molecular Modeling
• +4 more

Priv.Doz.Dr. Daniel Tunega is a Senior Lecturer at the Institute of Soil Research within the University of Natural Resources and Life Sciences, Vienna (BOKU) . His research focuses on molecular-scale interactions between environmental pollutants and soil components, with a particular emphasis on clay minerals and iron-based nanoparticles. Principal Investigator on projects funded by the Austrian Science Fund (FWF) Active in interdisciplinary research combining soil science, computational chemistry, and environmental engineering Research Interests include: Theoretical modeling of: Adsorption mechanisms of hydrophobic organic chemicals on mineral surfaces Reductive dechlorination processes using modified nanomaterials Mechanical properties of clay minerals and hybrids Wettability and surface interactions in soil systems Environmental fate of persistent pollutants Geochemical reaction pathways His publication portfolio demonstrates expertise in Density Functional Theory (DFT) calculations, molecular dynamics simulations, and experimental validation through collaborations. Key themes across his 2023-2025 publications include: Pollutant adsorption on modified clays Nanoparticle-mediated contaminant degradation Soil mineral-water interactions Organic-inorganic composite materials Scientific Presentations reveal continuous engagement with international conferences like Goldschmidt, Euroclay, EGU General Assembly, and World Congress of Soil Science, focusing on: Mechanistic soil pollution remediation Molecular-scale interface analysis Computational environmental chemistry

Michael BodensteinerView profile

Researcher

• Quantum Crystallography
• X-ray Structure Analysis
• Anomalous Dispersion
• +3 more

Dr. Michael Bodensteiner serves as the Head of the X-ray Structure Analysis Department within the Central Analytics Unit at the University of Regensburg's Institute of Inorganic Chemistry, Faculty of Chemistry and Pharmacy. With over a decade of leadership in crystallographic analysis since 2011, he has established himself as a key figure in quantum crystallography and advanced X-ray structure determination techniques. His educational background includes chemistry studies at the University of Regensburg (2001-2007) culminating in a diploma thesis on "Investigations into the oligomerization of Lewis acid/base-stabilized phosphanylalanes" under Prof. Dr. M. Scheer, followed by doctoral research on "Lewis Acid-Base-Stabilized Phosphanylalanes and Crystal Structure Determinations" completed between 2007-2011. Dr. Bodensteiner's research focuses on quantum crystallography, particularly the application of individual aspherical form factors derived from quantum chemical calculations or multipole refinement. His work significantly advances the understanding of electron density distribution, bonding relationships, and precise hydrogen positioning at neutron diffraction levels. He specializes in Cu-Kβ radiation techniques that provide superior resolution for challenging crystal structures like "sponge crystals," and has developed methods for individual determination of anomalous dispersion during structure model refinement. His research directly contributes to the development of the NoSpherA2 software, which he co-developed. Analysis of his recent publications reveals a strong emphasis on quantum crystallographic methods, particularly through the NoSpherA2 platform. His work spans from fundamental charge density analysis to applications in heavy element compounds, organometallic chemistry, and materials science. A notable trend is the integration of computational methods with experimental crystallography to extract maximum information from X-ray diffraction data, with particular attention to anomalous dispersion effects and advanced refinement techniques. Dr. Bodensteiner actively teaches multiple courses in X-ray crystallography across both winter and summer semesters, including practical courses on single-crystal X-ray structure analysis and theoretical components covering the journey from crystal to reflection and back. His teaching extends to general chemistry for biologists, pharmaceutical scientists, and business chemists. As Managing Director of OlexSys GmbH, he bridges academic research with commercial applications of crystallographic software. His professional leadership extends to multiple crystallographic societies where he serves in significant roles, including as board member of the Chemical Crystallography Working Group in the Analytical Chemistry Division of the German Chemical Society, and involvement with multiple special interest groups in the European Crystallographic Association. His laboratory work centers around advanced X-ray diffraction techniques, with particular expertise in quantum crystallography methods, Cu-Kβ radiation applications, and anomalous dispersion parameter refinement. The department under his leadership serves as a critical analytical resource for the university's chemistry research community, providing high-precision structure determinations that inform broader chemical investigations across multiple research groups.

Marlies PirnerView profile

Assistant Professor

• Kinetic Theory
• Partial Differential Equations
• Boltzmann Equation
• +5 more

Marlies Pirner serves as Assistant Professor (Juniorprofessur) and Investigator in the Cluster of Excellence Mathematics Münster Dynamics-Geometry-Structure at the University of Münster since October 2022. She is affiliated with the Institute of Mathematics, specializing in Applied Mathematics. Previously, she held research positions at the University of Wuerzburg and the University of Vienna. University of Wuerzburg: Master's (2014) and PhD (2018, summa cum laude) in Mathematical Physics Feodor-Lynen Research Scholarship: University of Vienna (2018-2020) Feodor-Lynen Return Scholarship: University of Wuerzburg (2020-2021) DFG Funded Postdoc: University of Wuerzburg (2021-2022) Professor Pirner's research centers on kinetic theory and partial differential equations, with particular emphasis on Boltzmann equations, BGK approximations, and mathematical modeling of gas mixtures. Her work addresses hypocoercivity, long-time behavior of solutions, qualitative properties like positivity, existence and uniqueness theorems, and applications to plasma physics and semiconductor models. She has developed consistent kinetic models for polyatomic gas mixtures and extended these to quantum systems. Her recent publications reveal a strong focus on numerical schemes for multi-species quantum BGK models, hypocoercivity analysis for non-linear semiconductor Boltzmann equations, and BGK models for rarefied gases in bounded domains. The work demonstrates increasing sophistication in handling velocity-dependent collision frequencies, stochastic coefficients, and conservation properties. Her research bridges theoretical mathematical analysis with computational approaches to kinetic phenomena. Feodor-Lynen Research Scholarship of the Alexander von Humboldt Foundation Feodor-Lynen Return Scholarship of the Alexander von Humboldt Foundation DFG Funded Postdoc Position Professor Pirner leads a research group at the University of Münster with Dr. Gayrat Toshpulatov as Research Assistant and previously included Dr. Dennis Ulbrich. Her teaching portfolio includes advanced courses such as Kinetic Transport Theory of dilute gases (SS 2023), Partial Differential Equations in Mathematical Physics (WS 2023/2024), and Partial differential equations (SS 2025). Her research is supported through the Cluster of Excellence Mathematics Münster and previously through prestigious fellowships from the Alexander von Humboldt Foundation and DFG funding. Her research group focuses on kinetic equations for gas mixtures, developing mathematical models that capture complex physical phenomena while maintaining analytical tractability and computational feasibility.

Martin MoškoView profile

Associate Professor

• Physics
• Materials Science
• Nanotechnology
• +3 more

Martin Moško serves as an Associate Professor at the Faculty of Mathematics, Physics and Informatics, Comenius University in Bratislava, Slovakia. His academic activities center on experimental physics and materials research within the university's Mlynská dolina campus (Office F2 K4, Phone: 02/602 95 272). His research spans mesoscopic physics , quantum electronics , and advanced materials engineering , with emphasis on: Resistive switching phenomena and memristor applications Gas sensor development with intrinsic memory capabilities Atomic layer deposition of functional thin films Electrical characterization of nanoscale materials Recent publications (2019-2023) reveal a concentrated research trajectory in sensor-device integration and novel deposition techniques, particularly demonstrating expertise in translating material properties into functional electronic components. His work appears consistently in applied physics and materials science journals including Applied Physics Letters and Journal of Applied Physics . Martin Moško actively teaches Mesoscopic Physics and Quantum Electronics (2-FTL-224), conducting both lectures and exercises in room F2-223. His personal webpage ( http://www.dep.fmph.uniba.sk/mambo ) serves as his primary academic portal, though no email contact is publicly listed in the scraped content.

Gabriel LuqueView profile

Assistant Professor

• Parallel Metaheuristics
• Genetic Algorithms
• Combinatorial Optimization
• +7 more

Gabriel Luque is an Assistant Professor in the Department of Languages and Computer Science at the E.T.S.I. Informática (School of Computer Engineering) of the University of Málaga, Spain. His academic career focuses on parallel metaheuristics and evolutionary algorithms, with applications spanning bioinformatics, natural language processing, traffic optimization, and workforce planning. Dr. Luque's research interests center on the design and analysis of parallel and distributed metaheuristics for solving complex combinatorial optimization problems. His work has significantly contributed to understanding the performance characteristics of distributed evolutionary algorithms, including studies on takeover time dynamics, energy consumption analysis, and communication overhead in parallel implementations. He has made notable contributions to DNA fragment assembly problems using parallel genetic algorithms and has extended his research to emerging areas like quantum computing applications. Research grant from Spanish Government: 'Ayuda a la Movilidad José Castillejo' (2008) Research grant from Andalusian Government: 'Beca de Formación de Personal Docente e Investigador' (2002-2006) Award: 'Proyecto Fin de Carrera - Diario el País' (2001) Dr. Luque actively supervises student research projects and has directed several final degree projects on topics including particle swarm algorithms for complex problem solving and extending optimization libraries. His research is supported by multiple national and international projects focused on smart mobility, intelligent cities, and fundamental metaheuristic research. Dr. Luque has established a productive research trajectory with numerous high-impact publications in journals and conferences, demonstrating consistent contributions to the field of parallel metaheuristics and their real-world applications.

Felipe Gohring de MagalhaesView profile

Assistant Professor

• Integrated circuits
• Microelectronics
• Computer systems organization
• +7 more

Felipe Gohring de Magalhaes is an Assistant Professor in the Department of Computer Engineering and Software Engineering at Polytechnique Montréal, where he has been working since July 2018 and assumed his current position in October 2024. He holds a dual doctorate from PUC-RS (Brazil) and Polytechnique Montréal (2016), with degrees in both computer science and computer engineering. His research spans embedded system architectures, real-time systems, avionics, and cybersecurity for emerging technologies. He is affiliated with the Microelectronics and Microsystems Research Group and the Multidisciplinary Institute for Cybersecurity and Cyber Resilience, reflecting his focus on integrated circuits, microelectronics, and system security. Professor Gohring de Magalhaes has published over 40 articles in international journals and conferences, with recent work focusing on photonic integrated circuits security, optical neural networks, and post-quantum cryptography for avionic systems. His publication trend shows consistent output with increasing focus on security aspects of emerging computing technologies. He has supervised at least one PhD student to completion and teaches courses including Introduction to Programming and Operating System Kernel. His research interests align with NSERC topics in integrated circuits, microelectronics, computer systems organization, and VLSI systems.

• Mechanics
• Quantum Physics
• Computer Algebra Methods in Technology
• +8 more

Ihor Bordun is a university professor at the Częstochowa University of Technology , Faculty of Electrical Engineering. He has been actively involved in teaching courses such as Mechanics, Introduction to Quantum Physics, Technical Drawing, and specialized subjects in vehicle engineering and energy systems since at least 2017. Primary research areas: Mechanics, Quantum Physics, Energy Systems, Vehicle Engineering Teaching includes both theoretical and practical components (lectures, labs, projects) Contact details: Available via institutional messaging system

Daniela Gospodinova NedevaView profile

Senior Lecturer

• Environmental Monitoring
• Nuclear Physics Applications
• Laser Technologies
• +4 more

Daniela Gospodinova Nedeva is a Senior Lecturer at the Technical University of Gabrovo, Bulgaria, working in the Faculty of Economics within the Department of Mathematics, Computer Science and Natural Sciences. She holds a Doctorate in Technical Sciences and has established herself as a prominent researcher in environmental physics and applied engineering technologies. Dr. Nedeva's research primarily focuses on environmental radiation monitoring, with extensive work measuring natural radioactivity in medicinal plants, soil, and sand samples from various Bulgarian regions including the Shumen Plateau, Rhodope Mountains, and the Black Sea coast. Her research portfolio also includes significant contributions to laser technologies for engineering applications, particularly in laser welding, cutting, and marking of materials for electric motor components. Additionally, she has developed numerous educational materials and methodologies for physics instruction. Analysis of her publication record reveals a strong interdisciplinary approach combining physics, environmental science, and engineering. Over the past decade, she has published extensively on radionuclide analysis in biological and environmental samples, electron beam surface modification of materials, and innovative physics teaching methods. Her recent work demonstrates increasing focus on ecological and energy-saving technologies, as evidenced by her leadership in projects like "Intelligent, ecological and energy-saving technologies in modern industry and practice." Her research shows consistent application of nuclear physics methods to address environmental challenges. Lead researcher on "Intelligent, ecological and energy-saving technologies in modern industry and practice - stage 1" (2025) Lead researcher on "Modern engineering solutions for environmental management and protection - Stage III" (2024) Researcher on "MountResilience - HORIZON-MISS-2022-CLIMA-01" focusing on climate adaptation in European mountain regions Researcher on "Integrative approach to solving environmental problems - phase 2" (2024) Dr. Nedeva has supervised or participated in 35 research projects, demonstrating strong leadership in environmental monitoring through nuclear physics methods. Her work shows consistent commitment to applying physics principles to solve practical environmental challenges while contributing significantly to physics education through textbooks and laboratory materials.

Graham GriffinView profile

Associate Professor

• Physical Chemistry
• Organic Photovoltaics
• Charge Transport
• +5 more

Graham Griffin serves as Associate Professor in the Department of Chemistry and Biochemistry within DePaul University's College of Science and Health. His research integrates spectroscopic and computational methodologies to investigate electronic dynamics in organic materials, with primary focus on charge/energy transport mechanisms for photovoltaic applications. Research centers on organic photovoltaics where his group develops single-component solar cell materials by engineering polymers containing integrated donor-acceptor moieties. Key projects include: (1) Creating conjugated organic systems with controlled chromophore networks; (2) Investigating molecular characteristics affecting electronic relaxation in small molecules; (3) Applying quantum mechanical models to explain ultrafast energy transport phenomena. The group employs in situ spectroscopy and computational simulations to bridge molecular behavior with device performance. Research trends demonstrate increasing focus on quantum effects in energy transport (2021 publications) while maintaining foundational work on molecular structure-property relationships. Recent publications span physical chemistry ( J. Phys. Chem. A ), materials science ( J. Phys. Chem. C ), and biomimetic materials ( Materials Chemistry Today ). Professional service includes: Director of Communications, Department of Chemistry & Biochemistry Chair, InCoRe Assessment Committee Member, University Student Access Committee (USAC) Member, CSH Research Committee Member, CSH Showcase Committee Professional affiliations: American Chemical Society (ACS) National Organization for the Professional Advancement of Black Chemists and Chemical Engineers (NOBCChE) Teaching responsibilities encompass General Chemistry, Analytical Chemistry, Experimental Physical Chemistry, and graduate-level Quantum Mechanics/Statistical Mechanics courses. Laboratory facilities include McGowan South 317 with specialized equipment for molecular spectroscopy and computational modeling.

A.P. NizovtsevView profile

Researcher

• Quantum optics
• Quantum computing
• Diamond NV centers
• +3 more

Dr. A.P. Nizovtsev is a Doctor of Science in Physics and Mathematics working as a Researcher at the National Academy of Sciences of Belarus, Department of Physics, Mathematics and Informatics. He has been a leading researcher at the Laboratory of quantum optics since September 2013 and is associated with CQOQI (Sergei Ya Kilin's Lab). With 157 publications, 15,159 reads, and 1,493 citations, Dr. Nizovtsev has established a significant research profile in quantum physics and computational nanomedicine. His research spans two primary domains: Quantum Physics and Quantum Technologies: Focusing on nitrogen-vacancy (NV) centers in diamond for quantum information processing, quantum sensing, and magnetic field detection applications. Quantum Chemistry and Nanomedicine: Specializing in computational modeling of fullerenol-based conjugates for cancer therapy applications, particularly studying drug delivery systems involving carboplatin, cisplatin, and other therapeutic agents. Dr. Nizovtsev employs advanced computational methods including HF-3c, DFT, and ORCA software packages to model complex molecular systems and quantum phenomena. His recent publications (2024-2025) demonstrate continued productivity with multiple papers on three-component systems for cancer therapy and advanced quantum sensing techniques using diamond NV centers. His professional network includes collaborations with researchers across multiple institutions, indicating active participation in the international scientific community. The substantial citation count of his work reflects the impact and recognition of his contributions to quantum physics and computational nanomedicine, particularly in bridging fundamental quantum phenomena with potential biomedical applications. As a leading researcher at the Laboratory of quantum optics, Dr. Nizovtsev contributes to advancing quantum technologies and their applications, particularly in the areas of quantum memory, quantum sensing, and the development of novel nanomedicine approaches for cancer treatment through improved drug delivery systems.

• Quantum Physics
• Quantum Technology
• Atomic, Molecular and Optical Physics
• +5 more

Professor Jose Verdu Galiana is a Professor of Physics specializing in Quantum Technology with trapped electrons and ions at the University of Sussex, within the School of Mathematical and Physical Sciences and the Physics and Astronomy department. He has been in his current position since October 2023, having previously served as Reader in AMO Physics (2017-2023), EPSRC Fellow in Quantum Technology (2015-2020), Senior Lecturer (2014-2017), and Lecturer (2009-2014) at the same institution. His educational background includes a Licenciatura en Ciencias Físicas from Universidad de Valencia, Spain (1996), followed by PhD studies at the University of Mainz, Germany (2000-2004). Prior to joining Sussex, he completed postdoctoral work at University of Mainz (2004-2005), University of Heidelberg (2005-2006), and served as a Marie Curie Research Fellow at Vienna University of Technology (2007-2008). Professor Verdu Galiana's research focuses on quantum technology applications using trapped electrons and ions, most notably through his invention of the Geonium Chip - a planar Penning ion trap technology that integrates the trap and magnetic field source into a single scalable chip. His work spans quantum sensing, particularly single microwave photon detection, quantum illumination for radar applications, and ultra-high resolution mass spectrometry. His research bridges fundamental quantum physics with practical quantum technology applications. His publication record shows consistent output in high-impact journals with several highly cited papers, particularly in Penning trap physics and quantum sensing applications. Recent work demonstrates the practical implementation of his Geonium Chip technology for quantum applications. EPSRC Fellow in Quantum Technology (2015-2020) Professor Verdu Galiana actively supervises BSc and MSc final year research projects focused on experimental research in Penning ion traps for quantum microwave sensing, quantum radar, and quantum mass sensing. His lab is well-funded with multiple current grants from STFC, EPSRC, and industry partners including LEONARDO MW LTD and DSTL, supporting research in quantum illumination systems and microwave quantum sensors. The Geonium Chip Group, which he leads, is developing practical applications of trapped electron technology with a focus on making quantum sensing more accessible through chip-scale integration. The group maintains an active research website at www.geoniumchip.org detailing their ongoing work.

• Concurrency Programming
• Quantum Computing
• Database Systems
• +5 more

Bartosz Zieliński is a Lecturer in the Department of Computer Science within the Faculty of Physics and Applied Computer Science at the University of Lodz. His academic work spans multiple disciplines including quantum computing, database systems, concurrency programming, and formal methods. He maintains an active research profile with numerous publications in prestigious journals and conferences. His research interests focus on the intersection of theoretical computer science and practical applications. Zieliński has made significant contributions to quantum geometry, particularly in noncommutative geometry and quantum spheres, while also exploring database theory through allegories and formal concept analysis. His work on concurrency programming, especially in Python, demonstrates practical applications of theoretical concepts in modern software development. Analysis of his publications reveals a strong pattern of interdisciplinary research connecting mathematics with computer science. His early work focused on quantum computing and noncommutative geometry, while more recent publications emphasize database systems, access control mechanisms, and programming language theory. This evolution shows a trajectory from pure mathematical research toward more applied computer science topics with practical security and database implications. Zieliński actively contributes to the academic community through publications in journals such as Journal of Noncommutative Geometry, Axioms, and various conference proceedings. His blog demonstrates engagement with practical programming topics, particularly concurrency in Python and Windows systems programming. As a faculty member, Zieliński teaches in the Department of Computer Science, with documented office hours on Tuesdays from 12:00-14:00. His technical blog showcases expertise in Python concurrency, Windows systems programming, and PowerShell scripting, indicating a strong practical component to his teaching approach alongside his theoretical research.

• Nano-Photonics
• Quantum Communications
• Silicon Photonics
• +2 more

Dr. Adam A. Filios serves as Professor and Chair of the Department of Electrical and Computer Engineering Technology at Farmingdale State College, a position he has held since joining the institution in August 2006. His prior industrial experience includes senior research roles at Corning's Photonics Research and Test Center in Somerset, NJ, and Nanodynamics Inc. in New York, where he specialized in optical fiber communications and nanoscale semiconductor systems. His academic credentials include: Ph.D. in Electrical Engineering, University of North Carolina at Charlotte (1999) M.S.E. in Electrical Engineering, University of North Carolina at Charlotte (1994) B.S. in Physics, University of Athens, Greece (1991) Dr. Filios's research program centers on nano-photonics and silicon-based optical systems, with significant contributions to quantum communications and photovoltaic technologies. His work bridges fundamental nanomaterial science with practical applications in high-speed optical networks and renewable energy conversion, leveraging expertise in semiconductor device physics developed through both academic and industrial research. His publication portfolio (40+ refereed works) shows consistent output in silicon photonics from 2010-2013, with increasing focus on quantum applications and photovoltaic integration. Key trends include the development of nanostructured silicon for optical communications (2010), characterization of nanocrystalline materials for integrated photonics (2011-2013), and thin-film solar cell technologies (2012), demonstrating a strategic evolution toward quantum-enabled photonic systems. As an educator, Dr. Filios teaches foundational courses spanning circuit analysis, semiconductor devices, and nanotechnology, directly incorporating his industrial R&D experience into practical laboratory components and design projects that prepare students for careers in photonics and semiconductor industries.

Romain AlléaumeView profile

Professor

• Quantum Cryptography
• Quantum Key Distribution
• Optical Quantum Communications
• +5 more

Professor Romain Alléaume is a faculty member at Télécom Paris - Institut Polytechnique de Paris within the Networks and Computer Science Department, leading the Quantum Information and Applications Group. His work bridges theoretical quantum information science with practical quantum communication systems development. His academic foundation includes graduation from ENS Paris followed by a 2004 PhD at University Paris VI and ENS Cachan, where his experimental quantum cryptography research earned the prestigious La Recherche Scientific Prize. Research focuses on quantum cryptography and quantum key distribution (QKD) with four interconnected pillars: Quantum coherent optical communications : Advancing continuous-variable QKD systems and optical networking integration Quantum Hardware Security : Developing evaluation frameworks for commercial QKD products Hybrid security models : Creating protocols combining quantum and computational security Multimode photonic processing : Leveraging telecom components for high-dimensional quantum states His scientific recognition includes the La Recherche Scientific Prize (2004) and multiple patents for quantum cryptographic methods. La Recherche Scientific Prize (2004) Professor Alléaume actively mentors students, currently supervising four PhD candidates while maintaining strong research funding through projects including ParisRegionQCI (2021-2024), CiViQ (Quantum Flagship, 2018-2022), and OPENQKD (2019-2023), demonstrating sustained support for quantum communication infrastructure development. He directs the Quantum Information and Applications Group , which maintains close ties with industry through ETSI standardization and SeQureNet commercialization efforts, positioning the lab at the forefront of quantum technology translation from research to real-world deployment.

• Materials Science
• Electron Paramagnetic Resonance
• Semiconductor Physics
• +5 more

Dr. Mariana STEFAN is a Scientific Researcher II at the National Institute of Materials Physics (NIMP), working in the Laboratory of Atomic Structures and Defects in Advanced Materials (LASDAM). She also serves as the responsible person for the EPR facility from the Romanian partner NIMP within the Central European Research Facility Consortium (CERIC). With expertise in electron paramagnetic resonance techniques, her work bridges fundamental materials science and practical applications in energy, sensing, and environmental technologies. Dr. STEFAN's educational background includes: PhD in Physics (Condensed State Physics), University of Bucharest, Romania (2002) Thesis title: Paramagnetic point defects in ionic crystals with structural phase transitions PhD supervisor: Prof. Dr. Sergiu V. Nistor BSc Physics (Electronic and Electrotechnical Materials and Components), Faculty of Physics, University of Bucharest, Romania (1991) Her research focuses on characterizing point defects in wide band gap semiconductors and insulating crystalline materials. She specializes in EPR probing of structural and chemical transformations, with particular expertise in multifrequency EPR analysis and computational interpretation of spectra. Her work extends to EPR investigations of nanostructured materials for applications in electronics, (photo)catalysis, and gas sensing, where she has made significant contributions to understanding defect structures and their impact on material properties. Her technical proficiency also includes single crystal growth using Czochralski and Bridgman techniques. Dr. STEFAN's publication record demonstrates consistent high-impact research across multiple domains of materials science. Her work shows a clear trajectory from fundamental studies of defect structures in semiconductor nanoparticles to applied research on energy storage devices, gas sensors, and photocatalytic materials. The integration of EPR with complementary techniques like XRD, STEM, and XPS in her research provides comprehensive materials characterization that has advanced understanding in multiple subfields. Her scientific recognition includes: Dragomir Hurmuzescu award of the Romanian Academy (2001) Dr. STEFAN has contributed to numerous collaborative research projects through CERIC and has co-authored multiple book chapters on semiconductor nanoparticles and defect structures. Her work with Research ID G-4068-2011 and ORCID ID 0000-0001-5272-4770 demonstrates sustained research productivity, with recent publications focusing on supercapacitor materials, gas sensing applications, and advanced EPR methodologies for nanomaterial characterization. As part of LASDAM at NIMP, Dr. STEFAN operates advanced EPR facilities that support both fundamental research on defect structures and applied research on materials for energy, sensing, and environmental applications. Her laboratory contributes significantly to the Romanian and European materials science communities through the CERIC consortium, providing specialized characterization capabilities for researchers across multiple disciplines.