Olugbenga Moses Anubi is an Assistant Professor in the Department of Electrical & Computer Engineering at the FAMU-FSU College of Engineering, Florida State University. He directs the Resilient and Autonomous Systems Lab (RASLab) and contributes to the Center for Advanced Power Systems (CAPS) and the Center for Intelligent Systems, Control, and Robotics (CISCOR). Ph.D. from the University of Florida His research focuses on Resilient Control Systems for cyber-physical infrastructures, including Adaptive Control , Vehicle Dynamics , and Autonomous Systems . He also explores Real-time Optimization and Collaborative Learning in distributed environments. Recent publications highlight advancements in Cyber-Physical Systems , with emphasis on Resilient State Estimation , Energy Storage Dispatch , and Autonomous Vehicle Control . Key areas include mitigating Adversarial Attacks , Battery Degradation Modeling , and Decentralized Power Systems . He teaches courses such as Signals and Systems , Advanced Control Methods , and Model Predictive Control , alternating specialized electives annually. Labs and teams: RASLab develops self-driving platforms ( MicroNole , AutoNole ), focusing on vision-based lane detection , robust motion control , and collaborative learning in distributed systems.
Tsunayoshi Ishii serves as a Researcher (Assistant Professor) at the Advanced Collaborative Research Organization for SmartSociety under the Affiliation Research Council. His work focuses on next-generation energy systems with emphasis on distributed control architectures and grid integration challenges. Research interests span Smart Grids , Distributed Energy Systems , and Power System Protection . His foundational work established hierarchical decentralized control frameworks for super-distributed energy systems, evolving into current research on renewable integration, electric transportation, and advanced energy management systems. Key contributions include lightning surge analysis for residential solar systems and optimization methods for electric bus charging infrastructure. His publication portfolio demonstrates consistent focus on practical grid applications, with recent work addressing battery storage placement, multi-objective EMS design, and congestion mitigation in distribution networks. The 15 most recent publications reveal strong trends toward decarbonization technologies and real-time control solutions for high renewable penetration scenarios. 2010 Excellent Paper Presentation Award at Electrical Society Power and Energy Division Conference 2004 Academic Promotion Prize Paper Award (Electrical Society) 2004 Kodaira Memorial Hitachi Educational Foundation Award 2002 Excellent Paper Presentation Award at Electrical Society Power and Energy Division Research Meeting Ishii maintains active professional engagement through committee memberships including CIGRE SC C6 (2023-present), IEC TC57 domestic committee (2018-2020), and multiple lightning protection research committees. His research bridges theoretical control frameworks with practical grid implementation challenges, particularly in distribution system resilience and DER integration.
Dr. Farzad Vazinram is a Postdoc Researcher in the Data Management and Biometrics Group at the University of Twente's Faculty of Electrical Engineering, Mathematics, and Computer Science. With a background in Electrical Engineering (Power Systems) and a second M.Sc. in Smart Systems Engineering, he combines industrial experience from CATERPILLAR and Grid Management Company with academic expertise in Scalable Energy-efficient Deep Learning through the MISD project. B.Sc., M.Sc., Ph.D. in Electrical Engineering 2025 Cum Laude M.Sc. award recipient Research Interests span multiple domains: Deep Learning : Energy-efficient training methods, weight transfer optimization Energy Systems : Microgrid modeling, combined gas-electricity networks Optimization : Power flow calculations, anomaly detection algorithms Smart Systems : Data-driven approaches for grid efficiency Recent publications (2025) demonstrate 40% energy consumption reduction in neural network training while maintaining accuracy. His work aligns with UN Sustainable Development Goals for Education and Clean Energy through technical innovations in grid optimization and AI efficiency. Scientific Recognition : Cum Laude award for M.Sc. research (2024) Scopus-indexed publications with 17 citations Active in academic service as a peer-review editor for the 21st International Conference on Artificial Intelligence Applications and Innovations (2025).
Sanjeevikumar Padmanaban is a Full Professor in Electrical Power Engineering at the Department of Electrical Engineering, Information Technology and Cybernetics, University of South-Eastern Norway, within the Faculty of Technology, Natural Sciences and Maritime Sciences at the Porsgrunn campus. He also serves as a Visiting Professor at Universiti Tenaga Nasional, Malaysia (2023-2025) and as Project Head at Ohm Technologiees R&D in India. Professor Padmanaban is a Distinguished Lecturer of the IEEE Systems Council on Power Electronics in Renewable Energy System & Electric Vehicles and a Senior Member of IEEE since 2015. Professor Padmanaban's research focuses on Power Electronics Applications to Smart Energy Systems, particularly Renewable Energy Integration (Wind Energy, Photovoltaics, Fuel Cell), Electric Vehicle Applications and Control Schemes, Battery Management Systems, and the design of conventional and multilevel inverters. His work spans from theoretical development to practical implementation of power electronic converters for renewable energy systems and electric vehicle applications. He has made significant contributions to multiphase AC drives, space vector techniques for modeling, and switching loss reduction methods in power converters. With over 1,160 publications and nearly 1 million reads on ResearchGate, Professor Padmanaban demonstrates exceptional research productivity and impact. His recent work shows a strong emphasis on renewable energy integration, electric vehicle charging systems, smart grid technologies, and advanced control strategies for power systems. The publications reflect a consistent focus on practical solutions for energy challenges, with particular attention to photovoltaic systems, wireless power transfer, and microgrid control under high renewable penetration. Fellow of the Institution of Engineers, India (FIE) Fellow of the Institution of Electronics and Telecommunication Engineers, India (FIETE) Fellow of the Institution of Engineering and Technology, U.K. (FIET) Lifetime achievement award from Marquis Who's Who - USA 2017 Multiple best paper awards from IET and IEEE conferences Listed among the world's top 2% scientists by Stanford University since 2019 Professor Padmanaban actively supervises Master's thesis projects on Power Electronics, renewable energy systems, and their applications to Electric Vehicles and Grid Connected Systems. His extensive editorial work, including roles with IEEE Transactions on Industry Applications and other prestigious journals, demonstrates his leadership in the field. His research has significant practical applications in renewable energy integration, electric vehicle technology, and smart grid development, addressing critical challenges in the global transition to sustainable energy systems.
Dr. Abdelhakim SAIM serves as a Senior Lecturer in the Department of Electrical Engineering at Polytech Nantes, University of Nantes, where he teaches Power electronics, analog electronics, electrical system control, and introduction to Smart Grids. His academic home is the Department of Electrical Engineering within Polytech Nantes at the Gavy Campus in Saint-Nazaire. Dr. Saim's research focuses on the control of electrical microgrids, power electronic converters, power quality and stability of microgrids, and maritime microgrids. His work bridges theoretical control strategies with practical implementation, addressing critical challenges in renewable energy integration and grid stability. He has developed advanced control methodologies including adaptive fuzzy control, fractional controllers, and virtual impedance techniques to enhance microgrid performance. Analysis of his publication trends from 2016-2026 reveals a consistent research trajectory with increasing emphasis on AI applications for microgrid design, maritime electrical systems, and optimal energy management in multi-energy systems. His work spans theoretical control algorithms to practical implementation in renewable energy systems, with particular attention to stability challenges in islanded operations. Dr. Saim maintains an active research program with numerous collaborations, particularly with Josep M. Guerrero, Azeddine Houari, and Mohamed Machmoum. His supervision likely focuses on graduate students working on microgrid control systems, power electronics, and renewable energy integration. While specific grant information isn't detailed, his continuous publication record suggests ongoing research funding. His research group appears to focus on practical implementation of advanced control strategies for electrical systems, with growing interest in maritime applications and AI-enhanced microgrid management. Students in his group would gain expertise in both theoretical control methods and hands-on implementation of power electronic systems for modern energy applications.
Abeer Y Al-Eryani serves as an Energy Transition Postdoctoral Fellow at American University's Center for Environment, Community, and Equity (CECE), where she investigates the critical intersection of energy transitions, energy justice, and conflict political economy. Her work focuses on how armed conflicts reshape energy systems, with deep expertise in Yemen's electricity sector transformation during wartime. Her academic foundation includes: PhD in Science and Technology Policy from the University of Sussex's Science Policy Research Unit (SPRU) Master's in Development Studies from SOAS, University of London Bachelor's in Finance from Amman Alahlyah University Dr. Al-Eryani's research reveals how war fundamentally reconfigures energy governance beyond physical destruction, analyzing battlefield dynamics, intra-group power struggles, and economic pressures as active drivers of energy system evolution. She documents Yemen's shift from centralized grids to household solar systems and community diesel microgrids, exposing how these transitions create both resilience opportunities and new inequality pathways. Her framework examines distributive, procedural, and recognition dimensions of energy justice in contexts where state collapse forces communities to innovate. At CECE, she leads the Faculty Research Incubator Grant project on Renewable Energy Technologies and Energy Justice, developing practical tools for assessing equity in Washington D.C. energy initiatives. Her work bridges academic rigor and frontline impact through community co-design, international leader training, and policy engagement—demonstrating how conflict zones can generate transformative insights for global energy justice challenges.
Keyhan Sheshyekani is a Full Professor in the Department of Electrical Engineering at Polytechnique Montréal. He holds membership in the NSERC/Hydro-Québec/RTE/EDF/OPAL-RT Industrial Research Chair, specializing in multi time-frame simulation of transients for large-scale power systems. His work bridges industry and academia through partnerships with major energy stakeholders. Research interests span: Smart grids : Cybersecurity, EV-grid integration, and demand response Electromagnetic systems : Grounding design, field modeling, and compatibility Energy control : Optimization algorithms for microgrids and converter systems Recent publications (2021-2025) show strong focus on: Machine learning applications in energy dispatch Cybersecurity frameworks for grid IT/OT convergence Real-time simulation of power electronics Advanced control strategies for EV charging infrastructure He actively mentors graduate students, with 10+ advised in the past five years working on projects like: EV aggregator controls for grid ancillary services FPGA-based real-time simulation Cybersecurity for synchrophasor networks
Dr Shannon Page serves as Senior Lecturer and Head of the Department of Environmental Management at Lincoln University (New Zealand) since 2018. Her academic leadership spans transport-energy systems research with interdisciplinary applications in climate policy and sustainable development. Her research focuses on transport and energy systems transformation to achieve greenhouse gas reduction goals, utilizing mathematical modeling of historical datasets to explore feasible technology limits. Key methodologies involve “what if” scenario analysis for renewable energy adoption and urban form changes, avoiding speculative forecasting for more robust policy insights. Primary research domains include: Electrified transport infrastructure impacts Renewable energy integration (solar, wind, geothermal) Sustainable mobility culture and behavioral adaptation Agricultural energy systems and livestock management Recent publications demonstrate strong interdisciplinary trends, evolving from foundational work on 100% renewable electricity systems (2010-2013) toward integrated solutions for solar farming, electric vehicle tourism, and precision agriculture. Her work consistently addresses New Zealand’s unique energy challenges while contributing to UN Sustainable Development Goal 7 (Affordable and Clean Energy). Dr Page has supervised 10+ postgraduate research projects including “Our electric futures: understanding hydrogen’s role in NZ grid dispatch” (2024) and “Body composition estimation in breeding ewes” (2024), demonstrating cross-sectoral impact. She examines as course examiner for Advanced Energy and Transport Planning (ERST 608) and Environmental Management Systems. Her laboratory work centers on energy modeling and spatial analysis, with recent collaborations extending into agricultural technology applications through image analysis of livestock systems. Current projects explore solar farming viability and electric vehicle tourism infrastructure challenges.
GM Shafiullah is an Associate Professor at Murdoch University's School of Engineering and Energy, specializing in power systems stability, renewable energy integration, microgrids, smart grids, green hydrogen, and energy sustainability. His work addresses critical challenges in decarbonisation and future electricity networks. Education: Doctor of Philosophy in Renewable Energy Engineering, Central Queensland University (2010-2013) His research focuses on enabling technologies for 100% renewable energy systems, including hybrid PV-Battery-Hydrogen microgrids, distributed energy resource integration, and cyber-resilient power systems. He actively investigates energy transition pathways aligned with Sustainable Development Goals and large-scale electric vehicle impacts on grid stability. His scientific contributions have been recognized with: Vice Chancellors Award for Excellence in Postgraduate Research Supervision (2024) Vice Chancellor's Award for Excellence in Research and Innovation (2021) AJ Parker Award for Outstanding Early Career Researcher (2018) GM Shafiullah has supervised 17 HDR students to completion and currently guides 5 doctoral candidates. He has secured approximately $9.0 million in research funding for projects spanning industrial microgrid deployments, DER integration, and national energy strategy development. As a Senior IEEE Member and Associate Editor for multiple energy journals, he bridges academic research with real-world energy solutions. His current projects address reactive/active power management with EV integration, cyber-attack resilience in renewable-rich grids, and translating SDGs into actionable energy policies, though specific lab structures are not detailed in source materials.
Farhad Shahnia serves as a Professor in Electrical Engineering within the School of Engineering and Energy at Murdoch University, where his work centers on modern power infrastructure challenges. His academic profile emphasizes both theoretical and applied research in electrical power systems engineering. His research portfolio spans critical energy transition domains: Power Systems Smart Grids Microgrids Distributed energy resources Distribution networks Application and Control of Power Electronics These interconnected fields address grid resilience, renewable integration, and intelligent control systems for next-generation electricity networks. No scientific awards are documented in the provided materials. Teaching and supervision activities are indicated through his faculty position, though specific advisees and grant details remain unspecified in the source text. Professional engagement is reflected through maintained profiles on Google Scholar, ResearchGate, LinkedIn, and Lens platforms.
Alfredo Alcayde García is an Associate Professor in the Engineering Department at the University of Almería, Spain. With an h-index of 21 (Scopus) and 18 (Web of Science), he has established himself as a significant contributor to electrical engineering research, particularly in power systems analysis and renewable energy integration. His academic profile includes directing multiple doctoral theses and leading several research projects with substantial funding from national and international sources. Professor Alcayde García's research primarily focuses on electrical engineering with specialization in power systems under non-sinusoidal conditions, renewable energy integration, and energy efficiency optimization. His work bridges theoretical developments in geometric algebra applications for power theory with practical implementations in smart grid technologies and non-intrusive load monitoring. Recent research directions have expanded to include environmental applications, particularly examining microplastic pollution in agricultural contexts related to energy systems. Analysis of his recent publications (2023-2025) reveals a strong trend toward interdisciplinary research that combines electrical engineering with environmental science and data analytics. His work spans high-impact journals across multiple disciplines, demonstrating both depth in his core field and breadth through successful cross-disciplinary collaborations. The research shows consistent methodological rigor with increasing emphasis on practical applications and real-world implementation of theoretical concepts. Professor Alcayde García actively supervises graduate students and has directed multiple doctoral theses on topics ranging from drone-based power line design to electric vehicle integration. His research group 'Computación, optimización y sensorización en ingeniería y energía' maintains several active projects with significant funding, indicating strong research momentum and institutional support. Current projects demonstrate a strategic expansion into environmental applications of engineering principles while maintaining core strengths in power systems analysis. The research environment led by Professor Alcayde García emphasizes both theoretical innovation and practical implementation, with opportunities for students to engage in field work, computational modeling, and collaborative projects across engineering disciplines. His work continues to evolve with emerging energy challenges, maintaining relevance to both academic research and industry applications.
Mike Danilovic serves as Professor at Halmstad University's Academy of Entrepreneurship, Innovation and Sustainability in Sweden. His academic career focuses on the intersection of business innovation and sustainable technological transformation, particularly in transportation and energy systems. Professor Danilovic's research centers on business model innovation for sustainable systems, with particular emphasis on transportation electrification and smart grid technologies. His work examines multidimensional readiness for electrifying transportation systems, with extensive comparative analysis of China, Norway, and Sweden. He investigates organizational change patterns in new forms of organizations and barriers to collaborative innovation in supply chains, taking an empirical approach to understanding how stakeholders influence core intermediary activities. His publication record demonstrates consistent output in high-impact areas, with recent work focusing on specific technological aspects of transportation electrification including battery swapping for heavy trucks, hydrogen technology, inductive charging, and electric road systems integrated with local renewable energy sources. This research follows earlier foundational work on business model innovation in wind energy and corporate social responsibility. Professor Danilovic's work bridges theoretical innovation frameworks with practical implementation challenges, providing valuable insights for both academic researchers and industry practitioners working on sustainability transitions. His approach emphasizes the interconnectedness of technological, organizational, and policy dimensions in successful innovation implementation.
Dean Valla Sorensen serves as an Adjunct Lecturer in the Department of Electrical & Computer Engineering at Worcester Polytechnic Institute (WPI), teaching graduate power systems protection courses since 2011 while concurrently working as Principal Engineer in National Grid's Protection Policy and Support group. With 35+ years of industry experience spanning transmission, distribution, and generation systems, he specializes in power system protection, controls, and power quality challenges. His academic credentials include: B.S. Electrical Engineering with distinction (1984), Worcester Polytechnic Institute M.S. Power Systems Management (2002), Worcester Polytechnic Institute He maintains active IEEE membership and serves on the Power System Relay Committee (PSRC), holding Massachusetts Professional Engineer licensure. Sorensen's research addresses critical grid reliability issues through practical applications of protection systems. His work examines load encroachment phenomena in complex scenarios involving undersea cables and wind farms, nuisance tripping mechanisms in adjacent faulted lines, and voltage distortion from nonlinear loads. This focus bridges theoretical protection principles with real-world operational challenges in modern grids integrating renewable resources. His scholarly output demonstrates consistent industry relevance, with recent conference presentations analyzing actual grid events at Georgia Tech's Fault and Disturbance Analysis Conference (2019, 2017) and PSRC reports (2016). These works highlight evolving protection challenges in grids with increasing renewable penetration and complex topologies. As an adjunct faculty member, Sorensen provides graduate students with direct industry insights through case-based teaching. His National Grid role offers exposure to current protection policy development and real grid data analysis, though formal research advising or grant-funded projects aren't documented in available materials. This practitioner-academic duality creates unique learning opportunities focused on immediate industry applicability.
Dr. Stanisław Galla serves as an Assistant Professor in the Department of Metrology and Optoelectronics at the Faculty of Electronics Telecommunications and Informatics, Gdańsk University of Technology. His office is located in Building A, room 446, where he conducts research and teaching activities related to electrical engineering and metrology. With over 70 publications to his name, Dr. Galla maintains an active research profile with recent contributions spanning multiple high-impact journals. Dr. Galla's research interests focus on electromagnetic compatibility, non-destructive testing, thermography, and diagnostics, with particular emphasis on practical applications in energy management systems and lighting technology. His laboratory and simulation research addresses real-world challenges in power quality, LED lighting durability, and superconducting electromagnet systems. This interdisciplinary approach bridges theoretical electrical engineering with industrial applications, particularly in energy efficiency optimization for commercial facilities. Analysis of Dr. Galla's recent publications (2015-2025) reveals three dominant research trajectories: energy management systems for fuel stations and retail facilities, LED lighting technology under harmonic disturbances, and superconducting electromagnet diagnostics for particle accelerators like the FAIR facility. His work demonstrates consistent focus on practical electrical engineering solutions with measurable industrial impact, particularly in energy efficiency applications where system implementations show return on investment within 12-50 months. Dr. Galla maintains active collaborations with researchers including M. Włas, P. Szwangruber, and A. Wilk across multiple institutions. His research has practical applications in commercial energy management, lighting technology standards compliance, and particle accelerator development. While specific grant information isn't detailed in available sources, his participation in international projects like FAIR indicates significant research funding support.
Professor William Holderbaum is a faculty member at the School of Science, Engineering & Environment at the University of Salford, with additional affiliation to the Centre for Future Engineering. His academic career demonstrates sustained research productivity with 46 documented research outputs spanning from 2012 to 2025. Professor Holderbaum's research interests encompass several interconnected domains: Control Systems Theory and Applications Hybrid Dynamical Systems (particularly power converters) Robotics (Geometric Control, nonholonomic systems, Reinforcement Learning) Rehabilitation Engineering (Robust Control Design) Energy Management (Electric Vehicles, Smart Grids, Multiple Agent Systems) Autonomous Vehicles (Motion planning, AI) His recent publication activity (11 papers in 2025, 13 in 2024) reveals a strong emphasis on power systems protection challenges, particularly addressing microgrid protection issues arising from distributed generation integration. He has developed innovative approaches for overcurrent relay coordination, microgrid frequency stability, and protection schemes for inverter-dominated grids. His work also extends to robotics applications in textile manufacturing, wearable sensor technology for gesture recognition, and digital twin applications for power system protection. Professor Holderbaum maintains an active research program with significant recent output, demonstrating continued scholarly productivity and relevance in his fields of expertise. His interdisciplinary approach bridges theoretical control systems with practical engineering applications across multiple domains.
