Find Academic Supervisors

• Electric Machines
• Power Electronics
• Drive Systems
• +3 more

Prof. Dr.-Ing. Bernd Ponick serves as Executive Director of the Institute of Drive Systems and Power Electronics at Leibniz University Hannover, within the Faculty of Electrical Engineering and Computer Science. He holds a professorship in the Electrical Machines and Drive Systems section and is a member of the Leibniz Research Centre Energy 2050. His roles include participation in the Faculty Council and representation on behalf of professors within the faculty. His research focuses extensively on electric drive systems, power electronics, and advanced motor design, with particular emphasis on vibration reduction, bearing current analysis, and high-efficiency energy conversion. Notable areas include superconducting wind generators, airborne wind energy systems, and electrified aircraft propulsion. His work integrates multidisciplinary approaches, combining analytical modeling (e.g., beam element methods) with experimental validation for precision in design and performance optimization. Recent publications highlight contributions to topics such as self-sensing induction machines, common-mode current mitigation, and additive manufacturing in synchronous reluctance rotors. His research also addresses challenges in aviation electrification, including thermal management and insulation reliability for high-voltage systems. Prof. Ponick collaborates closely with the Leibniz Research Centre Energy 2050, focusing on sustainable energy systems and advanced drive technologies. While no specific grants or advisees are explicitly listed, his involvement in institutional committees underscores his leadership role in academic and research governance.

Delphine CabaretView profile

Professor

• X-ray Absorption Spectroscopy
• X-ray Raman Scattering
• Core-level Excitation Spectroscopies
• +7 more

Delphine Cabaret is a Professor of Physics at Sorbonne University, Faculty of Science and Engineering, working at the Institute of Mineralogy, Physics of Materials and Cosmochemistry (IMPMC). She is affiliated with Section CNU 28 and maintains her office at Campus Pierre et Marie Curie, 4 place Jussieu, Paris. Her research focuses on core-level excitation spectroscopies including X-ray absorption spectroscopy (XAS), X-ray Raman scattering (XRS), and related techniques. She investigates electronic structural properties of paramagnetic 3d impurities in large gap insulators, structural properties of oxide glasses and minerals, and the impact of quantum thermal fluctuations of nuclei on spectroscopic measurements. Her work involves both experimental studies at synchrotron facilities and theoretical modeling. Prof. Cabaret's recent publications demonstrate her expertise in analyzing temperature effects on multipole contributions in core-level spectroscopies, X-ray Raman scattering applications, and high-pressure studies of spin crossover phenomena. Her research bridges experimental spectroscopy with advanced computational methods to understand materials at the atomic level. Best poster award at XAFS-2018 conference Best poster award at XAFS-X conference (Chicago, 1998) She actively supervises research and has presented her work at numerous international conferences. Her teaching responsibilities include coordinating the Master's program in Materials Science and Nano-objects (Nanomat), teaching crystallography and diffraction techniques, and developing educational resources including a SPOC (Small Private Online Course) on geometric crystallography.

Mayorov Evgeny SergeevichView profile

Senior Lecturer

• Mining Engineering
• Mineral Resource Management
• Underground Construction
• +3 more

Evgeny Sergeevich Mayorov serves as a Senior Lecturer at the Department of Mine and Underground Construction within Siberian Federal University's Institute of Mining, Geology and Geotechnology. Appointed in 2009, he instructs core courses including Aerology of Mining Enterprises, Construction of Underground Structures in Difficult Conditions, Physics of Rocks, and Physics of the Earth. His academic credentials feature dual higher education: Mining Engineer ("Mine and Underground Construction" specialization) from Siberian Federal University (2007) Economist-Manager ("Economics and Management at Mining Enterprises") from Siberian Federal University (2008) Mayorov's research centers on mineral resource optimization, particularly standardization methodologies for ore loss and dilution control in solid mineral extraction. His dissertation focuses on diamond ore extraction rate assessment in Yakutia deposits. Analysis of his 18 publications reveals dominant themes in copper-nickel and diamond mining operations, with significant contributions to backfilling technology, blasting parameters, and regulatory frameworks for resource conservation across diverse geological conditions. He directs industry-funded research initiatives for Norilsk Nickel and ALROSA, developing standardization protocols for ore extraction. His supervisory role includes mentoring student Baanay S.B. on blasting techniques research, demonstrating active engagement in both industrial consulting and academic training within Russia's mineral extraction sector.

• Credibility Premium Estimation
• Robust Estimation
• Ratemaking and Reserving
• +6 more

Georgios Pitselis serves as an Assistant Professor in the Department of Statistics and Actuarial Science at the University of Piraeus' School of Finance and Statistics. With academic appointments dating back to 2001, he obtained tenure in 2011 and has maintained continuous academic engagement through teaching, research, and professional service. His career includes visiting positions at prestigious institutions including Katholieke Universiteit Leuven and Concordia University. Dr. Pitselis specializes in credibility theory, robust estimation methods, and mortality modeling, with research interests spanning Credibility Premium Estimation Ratemaking and Reserving Solvency II implementation Longevity Risk modeling Non-Life Risk assessment His scholarly contributions focus on developing advanced statistical methods for insurance applications, particularly in the areas of multi-population mortality modeling and quantile-based credibility approaches. Analysis of his recent publications (2016-2022) reveals a strong emphasis on integrating credibility theory with modern statistical techniques, especially quantile regression methods applied to mortality forecasting and loss reserving. His work frequently addresses challenges in modeling with limited data and cross-population dependencies, demonstrating particular expertise in adapting traditional actuarial methods to contemporary insurance industry needs under Solvency II frameworks. Professional service highlights include: Guest Editor for Risks (2021-2022) Associate Editor for Insurance Mathematics and Economics (2008-2019) Member of working groups preparing the Greek insurance market for Solvency II International referee for Research Council KULEUVEN Extensive conference organization roles, particularly for IME conferences Dr. Pitselis has supervised numerous graduate students through thesis committees and has been actively involved in developing curricula for actuarial science programs. His teaching portfolio spans undergraduate and graduate levels, covering core actuarial topics including Credibility Theory, Ratemaking-Reserving, Pension Plans, and Loss Models. He has also contributed to professional development through workshops on Solvency II and actuarial science topics both in Greece and internationally.

Donghyun KimView profile

Assistant Professor

• Electromagnetic Compatibility
• Signal Integrity
• Power Integrity
• +5 more

Donghyun Kim serves as an Assistant Professor in the Department of Electrical and Computer Engineering at Missouri University of Science and Technology, where he leads research in electromagnetic compatibility (EMC), signal integrity (SI), and power integrity (PI) for high-speed electronic systems at the Electromagnetic Compatibility Laboratory in Rolla, Missouri. His academic credentials include: Ph.D. in Electrical Engineering, KAIST, Daejeon, Korea (2018) M.S. in Electrical Engineering, KAIST, Daejeon, Korea (2014) B.S. in Electrical Engineering, KAIST, Daejeon, Korea (2012) Dr. Kim's research spans electromagnetic challenges in advanced electronic packaging, with core expertise in 2.5D/3D IC systems, through-silicon via (TSV) technology, and nanometer-scale device design. His work addresses critical signal integrity issues in high-speed digital channels, power distribution network noise, and electromagnetic interference in printed circuit boards (PCBs), while also exploring nanomaterial applications like MXene-graphene hybrids for viral biosensors. Analysis of his 2024 publications reveals dominant themes in high-frequency modeling up to 100 GHz, PCB dielectric characterization techniques, statistical eye diagram methodologies, and surface roughness effects on transmission lines. This body of work demonstrates consistent focus on solving practical EMC and SI challenges in next-generation electronic packaging through rigorous electromagnetic theory and measurement validation. Scientific recognition: No awards listed in available sources Academic mentoring and research funding details are not publicly specified, though his role in the Electromagnetic Compatibility Laboratory indicates active supervision of graduate research. The laboratory provides critical infrastructure for industry-academic collaboration in EMC testing, high-frequency measurements, and signal integrity analysis. The Electromagnetic Compatibility Laboratory at Missouri S&T serves as Dr. Kim's primary research base, featuring state-of-the-art facilities for electromagnetic testing, high-speed channel characterization, and nanomaterial-based sensor development, supporting both fundamental research and industry-driven solutions.

• Accounting
• Taxation
• Non-Profit Enterprise Accounting
• +2 more

Assoc. Prof. Stanislava Pancheva Georgieva serves in the Department of Economics at New Bulgarian University's Central School of Economics since 2012, teaching core accounting courses including Introduction to Accounting, Financial Accounting, and Management Accounting. Her academic journey spans over two decades with progressive appointments from Assistant to Associate Professor, specializing in the intricate relationship between accounting frameworks and tax systems. Education: Doctor of Science in Accounting, Control and Analysis of Business Activities (2006), D.A.Tsenov University of Applied Sciences Master's in Health Management (2018), VUARR Plovdiv Specialized Certifications in Academic Teaching Methodology, ECTS Development, and ICT-Based Educational Strategies (2014-2015) Master's Degree in Economist-Accountant (1998), D.A.Tsenov College of Business Administration Her research program systematically addresses critical gaps in accounting theory and practice, particularly focusing on non-profit enterprise financial reporting and corporate tax compliance. Current investigations examine chart of accounts optimization, deferred tax asset recognition frameworks, and international harmonization of accounting policies through comparative Bulgarian-Russian analyses. This work directly informs her pedagogical approach in developing practical training materials for accounting students. Her 40+ scholarly outputs reveal a clear evolution from foundational accounting mechanics toward sophisticated tax-accounting integration, with recent publications emphasizing regulatory compliance and policy development. This trajectory demonstrates her commitment to solving real-world financial reporting challenges in transitional economies while maintaining rigorous academic standards. As an active contributor to academic governance, she serves as an expert for NAOA (National Audit Office of Bulgaria) and participates in professional associations including "Akademiya-BG". Her classroom methodology integrates modern educational technologies with traditional accounting principles, preparing students for complex financial environments through courses like BAEB019 Accounting Methodology and BAFB565 Practice: Study Training Company.

Ananya Renuka BalakrishnaView profile

Assistant Professor

• Materials Science
• Mechanics
• Battery Technology
• +5 more

Dr. Ananya Renuka Balakrishna is an Assistant Professor in the Materials Department at the University of California, Santa Barbara (UCSB), within the College of Engineering. Her research focuses on the intersection of mechanics and materials science, specifically understanding how microstructure, instabilities, and material constants influence physical properties. She develops continuum theories and computational models (e.g., phase-field, molecular dynamics) to design materials with extended lifespans and enhanced functionality, targeting applications in batteries, magnetic materials, and light-interactive molecular crystals. Education: D. Phil in Solid Mechanics and Materials Engineering, University of Oxford B. Tech in Mechanical Engineering, National Institute of Technology Karnataka, Surathkal Research Interests: Her work integrates mechanics and materials science to address challenges in energy storage and functional materials. Key areas include: - Battery Materials: Optimizing intercalation compounds and electrode designs for enhanced cycle life and reduced degradation. - Magnetic Materials: Investigating hysteresis, domain dynamics, and microstructural compatibility for soft magnet applications. - Photomechanical Materials: Designing light-responsive crystals with programmable mechanical responses. Publications: Her recent work emphasizes finite deformation modeling in battery electrodes, lattice compatibility in intercalation compounds, and hysteresis reduction in magnetic systems. These studies highlight her focus on bridging scales—from atomic to continuum—using advanced computational tools. Grants & Advising: While specific grant details are not provided, her research aligns with sustainability goals under initiatives like Energy Earthshots. She advises graduate students in materials modeling and interdisciplinary design, though no named advisees are listed. Labs & Teams: Her research group collaborates with experimentalists and theorists to advance materials discovery. Core facilities used include UCSB’s Materials Research Lab and computational resources for phase-field simulations.

Klaus Th. HessView profile

Senior Lecturer

• Actuarial Mathematics
• Insurance Mathematics
• Risk Theory
• +7 more

Dr. Klaus Th. Hess is a faculty member at the Institute of Mathematics, University of Rostock, where he specializes in actuarial mathematics. He is actively involved in teaching, research, and publication, with a strong focus on insurance mathematics, risk theory, and statistical modeling in actuarial science. His affiliation includes roles in course instruction, supervision of academic projects, and ongoing scholarly contributions. University: University of Rostock School: Institute of Mathematics Department: Department of Mathematics Email: klaus-thomas.hess@uni-rostock.de Office: Building 3, Room 330, Ulmenstraße 69, 18057 Rostock His research interests center on actuarial and insurance mathematics, with emphasis on credibility models, loss reserving techniques, risk theory, and statistical methods in insurance. He has made significant contributions to the understanding of collective models, chain-ladder methods, multinomial models, and reinsurance optimization. His work bridges theoretical probability with practical applications in non-life insurance. The analysis of his recent publications reveals a consistent focus on statistical and probabilistic modeling in insurance contexts. Key themes include loss reserving methodologies (e.g., chain-ladder, credibility models), estimation techniques (maximum likelihood, marginal sum), and structural models for claims and risk processes. His work often involves collaborative research, particularly with Klaus D. Schmidt, and appears in leading actuarial journals and authoritative handbooks. Dr. Hess has co-authored influential textbooks and contributed chapters to major reference works in loss reserving and insurance mathematics. Notable among these is the 2016 textbook Schadenversicherungsmathematik and multiple editions of the Handbook on Loss Reserving . These contributions reflect his standing as a key figure in German-speaking actuarial academia. He advises bachelor’s and teaching-track mathematics students through seminars and practical courses. While specific grant funding is not mentioned, his sustained research output and textbook authorship indicate active engagement in academic projects. He teaches core courses such as Mathematics 1 and 2 for Chemistry, Statistics for Biology, and specialized topics like Damage Insurance and Demographic Models. Dr. Hess is associated with the Dresdner Schriften zur Versicherungsmathematik, a preprint series reflecting his long-standing research collaboration with scholars at TU Dresden. His work environment supports both independent and collaborative research in actuarial science, with a strong emphasis on mathematical rigor and practical applicability in insurance.

Tobias HabisreutherView profile

Researcher

• Optical Fiber Sensors
• High-Temperature Sensing
• Superconducting Materials
• +2 more

Dr. Tobias Habisreuther is the Head of Department at the Competence Center for Specialty Optical Fibers of the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany. His work focuses on advanced optical fiber sensors for extreme environments and superconducting materials research. Expertise in sapphire fiber Bragg grating (SFBG) fabrication Applications in high-temperature diagnostics (up to 1900°C) Contributions to superconducting material microstructure analysis Research interests span optical sensor development for harsh conditions and superconducting phase characterization . His publications demonstrate first-order SFBG strain sensors with 10 µstrain resolution and MgB2-based materials with oxygen-enhanced critical current densities. Key collaborative works include studies on YBaCuO twin density optimization and sapphire-derived all-glass fiber thermal stability. Publications appear in IEEE Transactions , Optics Express , and Journal of Physics series.

• Administrative Law
• Administrative Liability
• Health Law

Nathalie Albert-Moretti serves as Professor of Public Law and Dean of the Faculty of Law, Economics and Social Sciences at the University of Tours, where she also co-directs the Master 2 "Juriste de droit public" program. Her institutional leadership spans academic administration and specialized legal education within the Department of Public Law and Political Science. Her research concentrates on three core domains: General Administrative Law examining foundational state-citizen relationships; Administrative Liability Law analyzing state accountability mechanisms; and Health Law investigating medical-legal interfaces. This tripartite focus manifests in her examination of reasonableness standards, presumption of harm frameworks, and public-private liability interfaces across 16 major publications since 2003. Recent scholarly output reveals evolving emphasis from traditional administrative structures toward contemporary challenges including privatization impacts, medical information duties, and loss-of-opportunity compensation methodologies. Her work consistently bridges doctrinal analysis with practical administrative applications through contributions to leading legal journals and edited volumes. As academic leader, Professor Albert-Moretti oversees the Master 2 program in Public Law while maintaining active research supervision. Her administrative responsibilities include faculty governance and strategic development of legal education programs at the University of Tours.

Maria Isabel Simões CatarinoView profile

Assistant Professor

• Cryogenics
• Specific heat
• Pulsed tubes
• +6 more

Maria Isabel Simões Catarino is an Assistant Professor in the Department of Physics at the Faculty of Science and Technology, Universidade NOVA de Lisboa (FCT/UNL). She maintains active research affiliations with LIBPhys-UNL and previously worked with CeFITec – Centro de Física e Investigação Tecnológica. Her academic credentials include: Licentiate in Physics Engineering from FCT/UNL (1991) PhD in Physical Engineering from FCT/UNL (2002) with dissertation on "Cryogenics: Specific Heat and Pulsed Tubes" Dr. Catarino's research program spans cryogenic engineering, thermal management, and energy integration systems with significant contributions to superconducting applications. Her work bridges theoretical cryogenic principles with practical engineering solutions across multiple domains: Development of fault current limiters using high-temperature superconductors Thermodynamic optimization of LNG regasification processes Energy recovery systems using cryogenic exergy Eco-innovation in industrial cleaning processes Renewable energy integration and grid stability solutions Recent publications (2022-2025) reveal an expanding research scope that maintains her core expertise in cryogenics while addressing contemporary energy challenges. Her work increasingly focuses on practical implementations of superconducting technologies in power systems and sustainable energy solutions, with growing emphasis on renewable integration and environmental applications. Research metrics indicate substantial scholarly impact with 392 citations and an h-index of 11 according to Scopus data. Dr. Catarino leads significant research initiatives including: "Transforming Losses Calculation in High Temperature Superconducting Power Systems" (tLOSS, PTDC/EEI-EEE/32508/2017, 2018-2022) COST Action CA19108 "High-temperature SuperConductivity for Accelerating the Energy Transition" (Hi-SCALE, 2020-2024) Her experimental work centers on cryogenic measurement techniques, superconducting device characterization, and thermal management systems, with applications ranging from power grid protection to sustainable industrial processes and renewable energy integration.

• Sociology
• Social Theory
• Digital Media Studies
• +4 more

Alberto Cevolini is an Associate Professor at the Department of Education and Human Sciences of the University of Modena and Reggio Emilia . His research focuses on sociology, social theory, and digital media studies, with particular emphasis on the sociology of insurance, social memory, and knowledge organization. He teaches courses such as Sociologia generale and Sociologia dei media digitali , emphasizing theoretical frameworks like Niklas Luhmann's systems theory. His work explores topics such as the evolution of insurance as a social institution, the impact of digital technologies on risk assessment, and the role of search engines in shaping postmodern memory. He has published extensively on these themes, including his monograph L’ordine del sapere , and contributes to debates on algorithmic prediction in insurance and the societal implications of behavioral data. Educational Background: Not explicitly stated in texts. Key Research Areas: Insurance sociology, social memory systems, digital media, knowledge organization, systems theory. Teaching responsibilities include guiding students through core sociological theories (Weber, Parsons, Luhmann) and contemporary issues like digital media effects. His courses emphasize critical analysis of media’s societal impact and historical evolution of knowledge management systems. Publications span academic articles, book chapters, and edited volumes, addressing topics from early modern indexing practices to modern insurance ethics. He collaborates internationally and engages with interdisciplinary themes like ecological communication and fake news dynamics in hyperconnected societies.

• Solid State Physics
• Semiconducting Materials
• Solar Cells
• +8 more

Piers Barnes is an Assistant Professor in Experimental Solid State Physics at the Department of Physics, Imperial College London. His research focuses on charge carrier behavior in semiconducting materials, particularly in solar cells and energy conversion systems. He is affiliated with the Centre for Processable Electronics, Experimental Solid State Physics Group, and The Matter Community. His academic journey includes a PhD from the University of Bristol (1998–2003) and postdoctoral work at CSIRO Australia (2004–2007). He joined Imperial College in 2007, later securing an EPSRC Career Acceleration Fellowship (2011) to establish his research group. His work emphasizes device simulation, transient optoelectronic measurements, and ion migration in perovskite materials. Key research areas include energy loss mechanisms in photovoltaic systems, ionic transport in hybrid perovskites, and stability of solar cells. Barnes has contributed to open-source tools like the DRIFTFUSION MATLAB code for solar cell simulation. His group collaborates internationally, addressing challenges in perovskite physics and optoelectronic device design. Scientific awards include the EPSRC Career Acceleration Fellowship and mentoring students who have won the Solid State Physics Thesis Prize (Aurelien, Davide). His work spans 50+ peer-reviewed articles, with a focus on interdisciplinary approaches to solar energy and materials science.

Ben CarlsonView profile

Assistant Professor

• Experimental Particle Physics
• High Energy Physics
• ATLAS Experiment
• +3 more

Ben Carlson is an Assistant Professor of Physics at Westmont College. He holds a Ph.D. from Carnegie Mellon University (2015) and completed his postdoctoral research at the University of Pittsburgh until 2021. His research focuses on experimental high-energy physics, particularly within the ATLAS experiment at CERN, where he investigates Higgs boson decays and optimizes the ATLAS trigger system. He has secured an NSF grant (2022) to support student involvement in ATLAS research. Education: Ph.D. in Physics, Carnegie Mellon University, 2015 Postdoctoral Researcher, University of Pittsburgh, 2015–2021 Research Interests: Experimental particle physics, Higgs boson phenomenology, detector trigger systems, and machine learning applications in real-time data analysis. His work contributes to discovering new particles through exotic decay channels and improving collision event selection in high-luminosity environments. Recent Research Trends: Recent publications emphasize nanosecond-scale machine learning algorithms for FPGA-based decision trees, Higgs boson decay searches in vector-boson fusion processes, and trigger system performance optimization. These studies address both core particle physics questions and technical challenges in large-scale experiments like ATLAS. Awards: NSF Grant (2022) Advising & Grants: Leverages NSF funding to involve students in ATLAS collaboration projects, fostering hands-on experience in data analysis and experimental physics. His work bridges theoretical predictions with experimental validation in high-energy settings. Teams/Labs: Active member of the ATLAS Collaboration, contributing to detector operations and analysis workflows at the Large Hadron Collider.

• Electrical Engineering
• Power Systems
• Renewable Energy
• +3 more

Robert Kristoffer Nilssen is a Professor at the Department of Electric Energy at the Norwegian University of Science and Technology (NTNU). His research focuses on advanced electrical machines, renewable energy systems, and fault diagnosis in power systems. He specializes in topics such as synchronous generators, superconducting technologies, and magnetic field analysis. His work addresses challenges in energy conversion efficiency, fault detection methodologies, and high-performance motor design. Dr. Nilssen has published extensively in top-tier journals and conferences, including IEEE Transactions and international symposiums on electrical machines and systems. His research explores cutting-edge applications such as superconducting propulsion systems for aircraft and wind power generators. He has contributed to the development of analytical models for magnetic field analysis and loss computation in electric machines. Collaborations with industry and academia highlight his role in bridging theoretical advancements with practical engineering solutions. Dr. Nilssen’s recent work emphasizes sustainable energy systems, including studies on fractional-slot winding configurations, HTS (High-Temperature Superconductor) armature windings, and multiphase superconducting topologies for wind turbines. His publications reflect expertise in electromagnetic design, fault monitoring techniques, and multi-physics simulation frameworks.