Reactive Power Engineering Professors and Supervisors

Józef LorencView profile

Professor

Poznan University of TechnologyPoland

Professor Józef Lorenc is a distinguished academic at Poznań University of Technology, holding the position of full professor within the Faculty of Environmental and Energy Engineering, specifically in the Institute of Electrical Power Engineering. With a scientific discipline classified under Environmental engineering, mining and energy (100%), he maintains an active research profile with numerous publications spanning several decades, including multiple publications in 2024. His research interests focus on critical aspects of electrical power systems, particularly medium voltage networks, earth fault protection systems, reactive power compensation, and demand response mechanisms. Professor Lorenc's work bridges theoretical analysis with practical applications, addressing real-world challenges in power system reliability and safety. His expertise in electrical network analysis, particularly concerning earth asymmetry and fault detection, has positioned him as a leading researcher in his field. Analysis of his recent publications reveals a consistent focus on improving the reliability and efficiency of electrical power distribution systems. His work on reactive power compensation directly addresses energy loss reduction in distribution networks, while his research on demand elasticity informs better tariff design for residential consumers. The recurring theme across his publications is enhancing the safety and reliability of medium voltage networks, particularly through advanced fault detection and protection mechanisms. Professor Lorenc has supervised 10 doctoral dissertations and reviewed 11 additional dissertations, demonstrating his significant contribution to academic mentoring. His students have worked on topics including earth fault detection systems, medium voltage network protection, and demand response mechanisms. His editorial leadership on multiple editions of 'Blackout and the national power system' has shaped important discourse on power system security in Poland. His research has practical applications in improving the reliability of electrical networks, with several patented inventions including systems for detecting high-resistance short circuits and specialized measurement devices for network diagnostics. These contributions demonstrate his commitment to translating theoretical research into practical solutions for power system challenges.

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Rolf Matthias DillerView profile

Professor

University of Kaiserslautern-Landau (RPTU)Germany

Professor Rolf Matthias Diller (born August 12, 1958 in Hamburg) is a C3 Professor of Biophysics and Ultrafast Spectroscopy in the Department of Physics at Rheinland-Pfälzische Technische Universität Kaiserslautern (RPTU). His office is located in Building 46, Room 258 at Erwin-Schrödinger-Strasse, 67663 Kaiserslautern. Professor Diller leads the research group 'Biophysics and Ultrafast Spectroscopy' which conducts highly interdisciplinary research focused on fast and ultrafast dynamics in condensed phase systems. His work particularly examines reactive and non-reactive processes in biologically relevant molecules and metal-ligand complexes. To achieve femtosecond time resolution, his group develops and applies ultrafast laser spectroscopy methods. His specific research interests include retinal proteins, phytochromes, blue light receptors, and spin-crossover systems. Recent publications (2023-2025) demonstrate continued productivity in ultrafast spectroscopy of transition metal complexes, protein dynamics, and photoreceptor mechanisms. His work spans chemistry, physics, and biology, reflecting the interdisciplinary nature of his research. Professor Diller has received continuous funding throughout his career, including DFG stipends during his postdoc and habilitation periods. Since 2011, he has been a member and project leader at the DFG Sonderforschungsbereich-TRR-88 'Kooperative Effekte in homo- und heterometallischen Komplexen (3MET)'. He also serves on the Scientific Advisory Committee for ELBE - Center for High-Power Radiation Sources in Dresden since 2004. His advising and research activities include leadership of the Biophysics study program at RPTU Kaiserslautern and organization of interdisciplinary workshops such as the upcoming 'Perspectives in Biophysics' event in June 2025. Professor Diller maintains active collaborations with institutions including the Weizmann Institute of Science and Hebrew University in Israel.

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Adam LamęckiView profile

Associate Professor

Gdańsk University of TechnologyPoland

Dr. Adam Lamęcki serves as an Associate Professor at Gdańsk University of Technology within the Faculty of Electronics, Telecommunications and Informatics. His primary affiliation is with the Department of Microwave and Antenna Engineering, where he conducts research on advanced microwave components and electromagnetic systems. Contact information includes email adalamec@pg.edu.pl and phone +48 58 347 2917. His research focuses on microwave filter design , antenna engineering , and computational electromagnetics , with particular expertise in 3D-printed components, dispersive-delay structures, and multipactor simulation. Recent work demonstrates innovation in coaxial-line filters for Earth observation systems, compact beam-switching antennas for ISM bands, and self-equalized Chebyshev microwave filters using frequency-variant coupling networks. Analysis of his 2024-2025 publications reveals strong emphasis on practical RF component implementation and open-source simulation tools , with applications spanning telecommunications, satellite systems, and industrial microwave devices. His work consistently bridges theoretical microwave theory with experimental validation. Lamęcki leads significant research projects funded through Poland's National Science Center, including PRELUDIUM BIS and OPUS grants focused on advanced mesh deformation techniques for electromagnetic structure optimization. His projects operate within the Faculty of Electronics, Telecommunications and Informatics under agreements UMO-2020/39/O/ST7/02897 and UMO-2013/09/B/ST7/04202.

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Peter PohlView profile

Professor

Johannes Kepler University LinzAustria

Peter Pohl serves as University Professor at the Institute of Biophysics, Johannes Kepler University Linz, leading the Department of Molecular and Membrane Biophysics. His research program focuses on fundamental membrane processes with emphasis on ion channel behavior, proton conduction mechanisms, and development of optical tools for membrane manipulation. His primary research domains include Biophysics and Membrane Biology , specifically targeting: Regulation of ion channels by membrane domains Interfacial proton diffusion dynamics Photolipid-based optocapacitive stimulation Synthetic biomimetic pores using advanced polymers Nanodisc technology for membrane protein studies Light-powered molecular nanomotors His integrative approach combines experimental biophysics with theoretical modeling to address core questions in cellular membrane function. Recent publications reveal a pronounced shift toward optical control methodologies for membrane processes, including photolipid-induced action potentials and engineered fluorescent labeling systems. Concurrently, his group advances fundamental understanding of proton conduction mechanisms while developing synthetic ion channels through novel materials science approaches. No major scientific awards are documented in the provided information. Professor Pohl directs extensive research funding including EU Horizon projects and Austrian Science Fund grants. Current active projects (4) and completed initiatives (20) address membrane domain formation, ion channel regulation, antiviral compound development, and stress conduction through membranes. He has supervised one graduate researcher to date. His laboratory operates within the Institute of Biophysics at JKU, maintaining robust national and international collaborations evidenced by 59 scientific activities including conference presentations and organizational roles across European research networks.

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Corneliu GHICAView profile

Researcher

National Institute of Materials PhysicsRomania

Dr. Corneliu GHICA is a Scientific Researcher I and Head of the Laboratory of Atomic Structures and Defects in Advanced Materials (LASDAM) at the National Institute of Materials Physics. His work focuses on advanced materials characterization using atomic-resolution electron microscopy techniques and development of functional materials for applications in sensors, electronics, and energy technologies. Dr. GHICA's educational background includes: PhD in Physics (2001): 'Study of thin films deposited by laser ablation: manganites with colossal magnetoresistance effect' from University of Bucharest and Louis Pasteur University of Strasbourg PhD in Physics (1995): Optical engineering, optical spectroscopy and laser technologies from University of Bucharest BSc Physics (1994): Optical engineering, optical spectroscopy and laser technologies from University of Bucharest His research expertise centers on in-depth microstructural characterization of advanced materials using aberration-corrected transmission electron microscopy. He specializes in quantitative HRTEM analysis of strain fields associated with defects and interfaces, and structure-properties correlation in thin films and nanostructured materials. His work spans ferroelectric materials, gas sensors, and electronic devices, with emphasis on atomic-resolution techniques like HRTEM, STEM, EDS, and EELS. Dr. GHICA's recent publications reveal a strong focus on functional oxide materials, particularly zirconia-based systems for electronic applications, and development of advanced gas sensors. His research combines experimental characterization with theoretical modeling, demonstrating expertise in both materials synthesis and advanced characterization techniques. The work shows increasing international collaboration across Europe with applications spanning energy conversion, environmental monitoring, and electronic devices. Dr. GHICA has led multiple significant research projects: Nanoscaled ferroelectric (pseudo)-binary oxide thin film supercapacitors (NanOx4Estor) - M-ERA.NET project (2022-2024) Interplay structure-functionality in nanostructured materials for gas sensors - Mobility project (2019-2020) From 2D to 3D+ nanoscale characterization of advanced functional materials - PCE project (2017-2019) Atomically resolved structure and interface phenomena in nano-scale modulated smart materials - PCE project (2013-2015) Laser processing of defects induced in silicon by RF plasma hydrogenation - PCE project (2007-2010) As Head of LASDAM, Dr. GHICA leads a team focused on atomic-scale materials characterization using advanced electron microscopy techniques. The laboratory specializes in TEM specimen preparation, thin film deposition by PVD, PLD and sol-gel, and in-situ/operando experiments to study material behavior under real operating conditions. His expertise in electron microscopy makes him a valuable resource for the broader scientific community.

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Amelia-Elena BocirneaView profile

Researcher

National Institute of Materials PhysicsRomania

Dr. Amelia-Elena Bocirnea is a Scientific Researcher at the Laboratory of Surface and Interface Science within the National Institute of Materials Physics. She has been working at this institute since September 2013, initially in what was previously named the 'Nanoscale Condensed Matter laboratory.' Her research focuses on advanced materials science with particular expertise in Van der Waals materials , metallic oxides , atomically clean surfaces prepared in ultrahigh vacuum (UHV) conditions , and the analysis of ultrathin films, films and powders . She employs sophisticated experimental techniques including X-ray photoemission spectroscopy (XPS), molecular beam epitaxy (MBE), e-beam deposition, low energy electron diffraction (LEED), room temperature scanning electron microscopy (RT-STM), and photoemission electron microscopy (PEEM). Dr. Bocirnea's recent publications (2023-2025) demonstrate her expertise across multiple cutting-edge research areas including 2D materials synthesis, energy storage applications, photocatalysis, and semiconductor physics. Her work shows strong interdisciplinary connections between materials science, nanotechnology, and electronic applications, with particular emphasis on developing novel synthesis methods that avoid toxic gases and are compatible with industrial manufacturing processes. She has established herself as a significant contributor to her field with 11 ISI papers, 20 citations (excluding self-citations), and an Hirsch index of 4 according to Web of Science, along with 2 national patents.

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Olusola AjiloreView profile

Professor

University of Illinois ChicagoUnited States

Dr. Olusola Ajilore is the endowed Center for Depression and Resilience Professor in the Department of Psychiatry at the University of Illinois Chicago (UIC) College of Medicine. He directs the Clinical Research Core in the Center for Clinical and Translational Science and leads the Mood and Anxiety Disorders Program. His lab employs computational neuroimaging and digital biomarkers to study neuropsychiatric disorders. Education: AB Biology, Harvard University (magna cum laude) MD/PhD Neuroscience, Stanford University Residency in Psychiatry, UCLA MS Clinical Research, Medical University of South Carolina Ajilore's research focuses on three interconnected domains: 1) Neurobiological mechanisms of depression in aging populations using advanced MRI; 2) Digital mental health interventions including AI-powered tools; and 3) Vascular and inflammatory contributors to late-life depression. His work bridges computational neuroscience with clinical translation. Analysis of his 372+ publications reveals consistent themes: neuroimaging biomarkers of depression recurrence, digital therapeutics for mood disorders, and mechanistic studies of stress pathways. Recent works increasingly address AI ethics, health disparities, and multi-modal intervention development. Scientific Awards: UIC Faculty of the Year (2021, 2017) Advanced Research Institute in Geriatric Mental Health Scholar (2012) International College of Geriatric Psychoneuropharmacology Award (2011) American College of Neuropsychopharmacology Travel Award (2010) He leads 39 active NIH grants including projects on: Digital interventions for comorbid obesity/depression (IGNITE) Voice-enabled AI psychotherapy (SPEAC) White matter integrity in depression recurrence Clemastine trials for late-life depression As Associate Head for Faculty Development, he mentors junior researchers and teaches graduate courses in neuroscience and biomedical engineering.

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Mohammad Taufiqul ArifView profile

Senior Lecturer

Deakin UniversityAustralia

Dr. Mohammad Taufiqul Arif is a Senior Lecturer in the School of Engineering at Deakin University's Faculty of Science Engineering and Built Environment. With a PhD in Electrical Engineering from Central Queensland University, he has established himself as a leading researcher in sustainable energy systems, power grid integration, and smart grid technologies. Research Interests Dr. Arif's research focuses on several critical areas in modern power systems: Sustainable energy applications including renewable energy, energy storage, and electric vehicle integration Microgrid and smart grid design, operation, and management Power system protection and voltage management Waste-to-energy conversion technologies RFID and IoT applications in power systems His work addresses fundamental challenges in the transition to cleaner, more resilient energy systems, with particular emphasis on the integration of renewable resources, hydrogen technologies, and electric vehicles into existing power infrastructure. Recent publications demonstrate his leadership in virtual power plants, energy market participation strategies, and advanced control systems for microgrids. Scientific Awards Outstanding service performance award from School of Engineering (2018) Early career teaching award from School of Engineering (2015) Supervision and Professional Activities Dr. Arif has supervised numerous PhD students, serving as both principal and associate supervisor. He has published over 80 high-quality journal, book chapter, and conference papers. Professionally, he is: A Chartered Professional Engineer (CPEng) listed in the National Engineering Register (NER), Australia Treasurer of IEEE Industry Applications Society (Victorian chapter) Advisor of IEEE Industry Applications Society student branch chapter at Deakin University Member of Engineers Australia, IEEE, and Higher Education Research and Development Society of Australia As Associate Editor of the Australian Journal of Electrical & Electronics Engineering and Guest Editor for Sustainability/MDPI, Dr. Arif actively contributes to advancing scholarly communication in his field. Research Groups Dr. Arif is involved with the Centre for Smart Power and Energy Research (cSPER) at Deakin University, where he serves as Publicity & Promotion Lead, helping to disseminate research findings and connect with industry partners.

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Jooyong YiView profile

Associate Professor

Max Planck Institute for Security and PrivacyGermany

Jooyong Yi is an Associate Professor in the Department of Computer Science and Engineering at UNIST (Ulsan National Institute of Science and Technology). He leads the LOFT (Lab of Software), focusing on autonomous techniques for software reliability in AI-generated code environments. Research Interests: His work spans program analysis, automated repair, testing/debugging, and verification. Core themes include developing scalable methods for bug detection (via static/dynamic analysis), AI-compatible repair systems, and verification frameworks for safety-critical systems. Recent emphasis integrates fuzzing techniques with repair validation. Publication Trends: His 15 most recent works (2015-2025) show progression from foundational program repair techniques (e.g., Angelix, DirectFix) toward AI-era innovations: greybox fuzzing for efficiency, memory-leak repair for web frameworks, and deep-learning library testing. Over 50% of publications focus on optimizing repair validation and scalability. Awards: ACM Distinguished Paper Award at ASE 2023 Students & Grants: Currently advises 5 PhD, 1 MS/PhD, and 2 MSc students. Secured ₩20B+ in funding for projects including: MSIT Binary Micro-Security Patch Technology (2024-2026) Patch Validation for Automated Repair (2023-2026) AI-Powered Low-Code Platform (2023-2025) Memory-Safe Language Integration (2024-2027) Lab: LOFT lab develops verified repair tools (e.g., LeakPair, Verifix) and benchmarks (BUGSC++), prioritizing human oversight in AI-generated software.

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Panagiotis ManoliosView profile

Professor

Northeastern UniversityUnited States

Panagiotis (Pete) Manolios is a Professor in the Department of Computer Science within Northeastern University's College of Engineering in Boston. He leads the Northeastern University Formal Methods (NUFM) research group and maintains an active research program with multiple current PhD students. His primary affiliation is with the College of Computer Science (CCS) at Northeastern University, where he holds a tenured faculty position. Manolios' research focuses on formal methods with particular emphasis on program verification, theorem proving, and safety analysis of systems. His work spans several key areas including floating-point program analysis, resource-aware program verification, protocol verification, and safety-critical systems. He has developed significant tools and methodologies such as ACL2s (a powerful theorem prover) and pioneered approaches for analyzing numeric stability in compiler optimizations. His recent publications demonstrate substantial activity in formal verification, with particular focus on numeric stability analysis, invariant discovery through gamification, and model-based safety analysis of complex system architectures. These works reflect a consistent research trajectory toward making formal verification more practical and applicable to real-world systems, especially those with safety-critical requirements. Manolios has received recognition through multiple NSF grants including the SaTC: CORE: Medium collaborative project on bridging the gap between protocol design and implementation. His work on confidentiality and integrity of deep neural networks represents cutting-edge research at the intersection of formal methods and AI security. He has successfully mentored numerous PhD students who have gone on to positions at major technology companies including Google, Facebook, Intel, and MathWorks. His students' dissertations cover diverse topics within formal methods, from rank-polymorphic programming languages to resource-aware program analysis. Manolios directs several significant research projects including ACL2s (a powerful theorem prover), CID: Confidentiality and Integrity of Deep Neural Networks, Compilation-Dependent Security Properties of Software, and Platform Dependencies of Floating-Point Programs. These projects address fundamental challenges in making formal verification more practical and applicable to real-world systems.

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Takashi KimuraView profile

Associate Professor

Nagoya Institute of Technology (NIT)Japan

Takashi Kimura serves as Associate Professor in the Department of Physics Engineering at Nagoya Institute of Technology's Faculty of Engineering, where he advances plasma-based materials engineering for industrial applications. His expertise spans atmospheric pressure discharges and low-pressure plasma design for surface modification. Education: Bachelor of Engineering, Nagoya Institute of Technology, Faculty of Engineering (1987) Master of Engineering, Nagoya Institute of Technology, Graduate School of Engineering (1989) Doctor of Engineering, Nagoya Institute of Technology Kimura's research centers on plasma physics and thin film deposition, with emphasis on high-power impulse magnetron sputtering (HiPIMS) techniques. He pioneers multi-pulse HiPIMS methodologies for synthesizing diamond-like carbon coatings and nanoscale multilayered metal nitrides, targeting energy engineering applications through fundamental plasma studies. His work bridges theoretical plasma phenomena with practical materials processing requirements. Analysis of his 2018-2024 publications reveals consistent innovation in plasma-assisted thin film synthesis, particularly in optimizing HiPIMS parameters for diamond-like carbon and transition metal nitride/oxide systems. Key trends include nanoscale layer engineering in CrN/VN and CrN/TiN multilayers, hydrocarbon gas modulation for DLC properties, and hybrid PBII-HiPIMS approaches for conductive silicon-doped coatings. These efforts demonstrate strong alignment between fundamental plasma research and industrial materials development. Kimura actively mentors students including Kenta Ozeki and Shunsuke Ando, who present collaborative work at international forums like the International Symposium on Sputtering and Plasma Processes. He contributes significantly to academic governance through committee roles in the Japan Society of Vacuum and Surface Science (Chubu Branch Officer since 2021), Institute of Electrical Engineers of Japan (Plasma Technology Committee 2008-2014), and Japan Society of Applied Physics (Plasma Electronics Division 1999-2001).

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Tadashi WadayamaView profile

Professor

Nagoya Institute of Technology (NIT)Japan

Professor Tadashi Wadayama serves in the Department of Computer Science within the Faculty of Engineering at Nagoya Institute of Technology. He holds a full professorship position and leads research initiatives in coding theory, signal processing, and deep learning applications for next-generation communication systems. Professor Wadayama received his B.E., M.E., and D.E. degrees from Kyoto Institute of Technology in 1991, 1993, and 1997 respectively. He began his academic career at Okayama Prefectural University in 1995 as a research associate and spent 1999-2000 as a visiting researcher at Essen University in Germany. He joined Nagoya Institute of Technology as an associate professor in 2004 and was promoted to full professor in 2010. He maintains active memberships in IEEE and the Institute of Electronics, Information and Communication Engineers (IEICE). His research spans multiple interconnected domains with primary focus on Coding Theory , Signal Processing for Wireless Communications , and Deep Learning applications . Professor Wadayama has made significant contributions to LDPC codes, MIMO signal detection, and the emerging field of deep unfolding techniques that bridge neural networks with traditional signal processing algorithms. His work increasingly incorporates physics-aware modeling of communication channels governed by partial differential equations. Recent research demonstrates strong interdisciplinary integration between information theory, machine learning, and communication engineering principles. Analysis of his recent publications reveals a clear trajectory toward developing foundational technologies for post-Shannon communication architectures. His work emphasizes ultra-large-scale coding, goal-oriented communication, digital homeostasis mechanisms, physics-embedded signal processing, and dual-process learning systems that combine fast reactive processing with deliberative meta-learning using LLM orchestrators. Fundamentals Review Best Author Award, IEICE, 2022 SRC 2010 Paper Award, Storage Research Promotion Organization, 2011 Professor Wadayama has successfully led multiple competitive research grants including JSPS Grant-in-Aid projects. He currently serves as Principal Investigator for the JST CRONOS project "Digital Cybernetics: Towards Next-Generation Communication Architecture" (2025-2031), which aims to develop foundational technologies supporting autonomous, adaptive, and robust large-scale AI systems. As IEEE Information Theory Workshop General Co-chair (2020-2021) and former chair of IEICE's Information Theory Research Committee (2020-2022), he maintains active leadership roles in the academic community. He leads the Wadayama Group at Nagoya Institute of Technology, which focuses on digital cybernetics and communication physics. The group develops physics-aware signal processing implementations, dual-process learning systems, digital homeostasis mechanisms, and system integration for next-generation communication architectures. His team collaborates with researchers from Kyoto University, Hiroshima University, Institute of Science Tokyo, and Tokyo University of Science, creating a robust research ecosystem focused on post-Shannon communication frameworks.

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