Lahieb Abrahim is a Lecturer affiliated with the Faculty of Computing, Engineering and Science, contributing to the Engineering Research and Innovation Group. His research focuses on power systems, renewable energy integration, and smart grid technologies. Key work includes systematic reviews on grid balancing mechanisms and evaluations of future power system control methodologies. Research interests emphasize practical applications like demand side management through electric water heater monitoring and frequency control challenges in modern grids. His 2024 study explores timer monitoring methods for demand response, while 2019 work analyzed challenges in frequency control with renewable integration. Though no awards or grants are explicitly listed, his publications reflect a focus on energy system optimization and grid stability. Abrahim collaborates with institutions publishing in journals like the World Academy of Science, Engineering and Technology and the Journal of Modern Power Systems and Clean Energy, demonstrating peer-reviewed contributions to energy engineering.
Kaushik Das is an Associate Professor in the Department of Wind and Energy Systems at the Technical University of Denmark (DTU), where he conducts research and teaching in renewable energy systems, particularly hybrid power plants and wind energy integration. He serves as Head of Studies for the MSc in Sustainable Energy Technologies and is the Scientific Director of the DTU-TotalEnergies Excellence Center. He is an Operating Agent in IEA Wind Task 50 on Hybrid Power Plants and a Senior Member of IEEE. PhD in Wind Energy, Technical University of Denmark (2013–2016) Master of Technology in Power Systems, Indian Institute of Technology Kharagpur (2009–2011) Dr. Das’s research focuses on hybrid power plants, integration of renewables into power systems, power system balancing, active distribution networks, and grid connection of wind farms. His work spans modeling, control, and optimization of renewable energy systems, with a strong emphasis on digital solutions and system resilience. He is deeply involved in the UN Sustainable Development Goals, particularly those related to affordable and clean energy. His recent publications and projects highlight a strong trend toward hybridization of wind, solar, and storage, advanced control strategies for grid support, digital twins for energy systems, and green hydrogen ecosystems. He leads and contributes to major Horizon Europe, EUDP, and bilateral research initiatives. AEG Elektronprisen (2022) Dr. Das actively supervises PhD students and has been involved in numerous research projects, including EU H2020, Horizon Europe, and Danish national initiatives. He leads the GREAT and H2BRIDGE projects and is a principal investigator in the NEST and DTWO projects. His advisory roles include the International Hybrid Power Systems Workshop and IEEE PES conferences. He also serves as a journal editor and peer reviewer for international energy journals. He is involved in the development of research infrastructure such as the DTU 7k Bus Active Distribution Network and contributes to international expert groups including CIGRE JWG C6/C2.34 and WindEurope. His work bridges academia, industry, and policy through active collaboration with TotalEnergies, IEA, and European energy networks.
Professor Ahmed Khaled is a leading academic in power electronics and energy systems at the University of Strathclyde, UK, where he serves as Professor and Head of the Power Electronics, Drives, and Energy Conversion (PEDEC) research group within the Department of Electronic and Electrical Engineering, Faculty of Engineering. He holds a PhD from the same university, earned in 2008, and has held academic positions at both the University of Aberdeen and Strathclyde. PhD in Power Electronics, University of Strathclyde (2008) Lecturer in Power Electronics, University of Aberdeen (2011) Promoted to Senior Lecturer (2015) Professor and Research Group Head, University of Strathclyde (current) His research focuses on advanced power electronics for sustainable energy systems. Key areas include HVDC transmission, grid-forming converters, microgrids, offshore wind integration, and electrification of oil and gas platforms. His work contributes significantly to renewable energy integration and smart grid technologies, aligning with UN Sustainable Development Goals in clean energy and industry innovation. The recent publications highlight a strong trend toward modern grid challenges: inertia estimation in low-inertia systems, high-power DC-DC conversion for hydrogen storage and offshore interconnections, and hybrid control strategies. These reflect a focus on stability, efficiency, and scalability in future power systems dominated by inverter-based resources. Scientific recognition includes: Senior Member, IEEE Industrial and Power Electronics Societies Member, Institution of Engineering and Technology (IET) Chartered Engineer, Engineering Council UK Senior Fellow, Higher Education Academy Associate Editor, IEEE Open Journal of Industrial Electronics Society and Elsevier Alexandria Engineering Journal Prof. Ahmed has secured over £6 million in research funding as Principal or Co-Investigator from EPSRC, EU, Royal Society, British Council, Scottish Funding Council, and industry partners including SSE, Rolls-Royce, Iberdrola, and Technip. He has supervised 20 PhD students (12 graduated, 8 ongoing) and leads major projects such as Multi-port DC-DC Converter for All-Electric Ships and Off-grid EV Charging Infrastructure. He also serves on organizing committees for key conferences like IEEE eGrid and IET ACDC. He leads the PEDEC research group and collaborates extensively with industry on real-world applications, including delivering CPD courses for SSE engineers and developing load-bearing cable terminations with Technip. His lab is actively engaged in hardware-in-the-loop testing and control algorithm development for black start and grid-forming operations.
Dr. John K Ward is the Research Director of the Energy Systems Research Program at CSIRO. He leads the Energy Systems (GEES) Research Program, managing a portfolio with over 50 staff across multiple sites to address Australia’s national energy challenges, including building thermal physics, behavioural science, electricity network optimization, solar forecasting, and energy storage. Research Focus: Dr. Ward specializes in intelligent integration of energy systems within electricity distribution networks. His work emphasizes energy-efficient building systems, optimization methods for distributed energy systems, and multi-agent learning techniques. Key contributions include foundational research for startups like Evergen and the international deployment of BuildingIQ’s technology, which he commercialized through ASX-listed BuildingIQ. Technical lead for Mission Innovation Smart Grids innovation challenge Australian Representative on the International Energy Agency (IEA) Smart Grid network (ISGAN) Chair of the International Conference on Integration of Renewable and Distributed Energy Resources (IRED 2020) Leadership & Standards: Dr. Ward shaped the CSIRO/ENA Electricity Network Transformation Roadmap (ENTR) and contributed to Australian Standards committees for PV installation, inverter control, grid interaction, and energy storage safety. He also developed Australia’s first desiccant-based cogeneration system at Hornsby Library, reducing greenhouse gas emissions and electricity load during peak demand. Academic Background: He earned his Ph.D. in Control Theory (2002) and a Bachelor of Engineering (Elec, Honours 1) from the University of Newcastle. With over 60 publications and 1100 citations (h-index 17), his research bridges fundamental science and scalable industry solutions.
Dr. Yun Yu is a Research Fellow at Aalborg University's Faculty of Engineering and Science , specializing in Electric Power Systems and Microgrids within the AAU Energy research group. With a Ph.D. in Energy Technology (awarded May 2023), Yu's work focuses on microgrid stability , grid-forming converters , and renewable energy integration , particularly in offshore wind and earthquake-prone regions. Education: Ph.D. in Energy Technology (Aalborg University, 2023) Yu's research bridges power electronics and control systems , exemplified by projects like "Harmonic Modeling and Stability Analysis of Multi-Vendor Grid-forming Wind Power Plants" (2024–2027) and "LastWind: Large-Scale Wind Integration in Ethiopia" (2023–2026). Their 2025 publications in IEEE Transactions on Industrial Electronics and IEEE Open Journal of Power Electronics highlight innovations in fractional-order regulators and power flow solvability for EV-integrated grids. Recent work trends reveal dual expertise in technical energy systems and engineering education research , with contributions to problem-based learning (PBL) frameworks and academic leadership development . Notable collaborations include mentoring roles with Prof. Josep M. Guerrero and Prof. Juan C. Vasquez across Denmark, Ethiopia, and Indonesia projects.
Prof. Dr.-Ing. Lijun Cai is a faculty member at the Institute of Electrical Power Engineering at the University of Rostock , Germany. His research focuses on power systems dynamics, stability analysis, and decentralized energy generation within interconnected grids. Chair of Electrical Power Supply Specializes in liberalized electricity markets and grid regulation Active in international working groups (CIGRE, IEEE) Research Areas: Dynamic network modeling, power plant interactions, renewable energy integration, and UCTE grid operations. Contact: Email - lijun.cai@uni-rostock.de | Office: Experimental Building II, Room 120
Lalatendu Acharya serves as Associate Professor of Health Sciences in the School of Sciences at Indiana University Kokomo, where he focuses on public health communication and health promotion for vulnerable communities suffering from health inequities. His academic credentials include: PhD in Health Communication MBA in Marketing Dr. Acharya's research examines pathways to influence health behavior through participatory interventions targeting mental health and environmental health disparities. His work specifically engages adolescents, college students, and marginalized populations including minorities, immigrants, and indigenous communities across the United States and India. He emphasizes community-driven solutions and translational research to bridge academic findings with practical health outcomes. Analysis of his 2018-2023 publications reveals consistent interdisciplinary focus on health disparities among immigrant populations , mental health interventions for international students , and environmental health inequities . His work uniquely combines public health frameworks with communication theory and consumer behavior analysis, often employing community-based participatory methods to co-create interventions with target populations. No specific scientific awards were documented in available sources. Dr. Acharya actively recruits undergraduate researchers for his lab, seeking students passionate about health equity work. His mentoring approach emphasizes hands-on community engagement, though specific grant funding details remain undisclosed. His prior field experience with UNICEF and NGOs suggests established capacity for securing applied research funding. He maintains an active research laboratory focused on participatory health projects, particularly those involving children and vulnerable communities in collaborative intervention design.
Dr. Manuela Pinto is an Assistant Professor at Utrecht University's Department of Languages, Literature and Communication, with affiliations to the Institute for Language Sciences and the Dynamics of Youth (DoY) research theme. Her work bridges formal linguistics (Generative Grammar) with applied language education, focusing on second language acquisition, psycholinguistics, and intercultural communication. PhD in Linguistics (Utrecht, 1997) - Thesis: Licensing and Interpretation of Inverted Subjects in Italian MA in General Linguistics (Utrecht, 1991) MA in German Language/Literature (Italy, 1986) Research spans child language development, bilingualism, and societal applications through projects like: Coloring Book - Digital method for assessing language comprehension in children KleurenSchat - Dutch vocabulary assessment tool Nederlands voor Alle Kinderen (NvAK) - Language tracking for newcomer children Community Engaged Learning projects with migrants' organizations Recent publications focus on: Syntactic theory and microcontact phenomena Ecological validity in language testing Aspectual properties in L2 acquisition Intercultural pragmatics in advertising She has received research grants for: Heritage Storytelling projects Bidirectional Storytelling initiatives Additional contributions include: Coordinating typological databases Organizing international conferences (Going Romance, ISB symposia) Founding Growingupbilingual.org information service
Andrew J. Mannix is an Assistant Professor in the Department of Materials Science and Engineering at Stanford University, appointed in 2020. His research group pioneers atomic-scale engineering of two-dimensional (2D) materials, with the overarching goal of tailoring electronic, optoelectronic, and quantum properties down to the fundamental limit of individual atoms. Education: Ph.D. in Materials Science and Engineering, Northwestern University (2017) B.S. in Materials Science and Engineering, University of Illinois Urbana-Champaign (2012) Research Focus: The Mannix laboratory specializes in growth, fabrication, and characterization of 2D semiconductors, borophene, and van der Waals heterostructures. By combining scanning tunneling microscopy, atomic force microscopy, hyperspectral optical techniques, and machine learning, the group accelerates discovery and optimization of materials for next-generation high-performance transistors, flexible electronics, bio-integrated sensors, and quantum information platforms. A signature achievement is the development of robotic, ultra-high-vacuum stacking systems that deterministically assemble complex van der Waals solids with atomic precision. Recent publications (2024-2025) reveal a concentrated thrust on: Monolayer and bilayer TMD (WS₂, WSe₂, MoS₂) device physics Moiré superlattices and twist-controlled quantum phenomena AI-driven parameter extraction for 2D transistors Defect healing and contact engineering strategies Ferroelectricity in 2D layered semiconductors Scientific Awards: Office of Naval Research Young Investigator Program (YIP) Award (2024) NSF CAREER Award (2024) Advising & Open Positions: Prof. Mannix is actively recruiting Ph.D. students, postdoctoral fellows, and Stanford undergraduates or REU participants. Ideal candidates possess backgrounds in materials science, physics, applied physics, engineering, or optics. Prior experience in 2D crystal growth, nanofabrication, or advanced characterization is advantageous but not mandatory. Interested individuals should forward CVs to ajmannix@stanford.edu . Lab & Infrastructure: The Mannix Research Group operates state-of-the-art facilities for MOCVD and hybrid CVD growth, robotic van der Waals stacking, scanning probe microscopy suites, and hyperspectral optical characterization. These resources enable rapid iteration from materials synthesis to device demonstration within a single collaborative environment.
C. Huang is an active researcher in the fields of materials science and chemical engineering, with particular expertise in advanced materials processing, energy systems, and sustainable technologies. Currently affiliated with the Applied Sciences division and Chemical Engineering/Catalysis Engineering department, Huang's research spans from fundamental materials research to applied energy system optimization. Research Focus Areas: Inkjet printing of advanced materials including metal-organic frameworks (MOFs) and covalent organic frameworks (COFs) Process design and optimization for additive manufacturing technologies Hydrogen production technologies with emphasis on alkaline electrolysis systems Renewable energy integration and grid-scale energy storage solutions Microgrid optimization and control strategies Thermal management and heat recovery systems for energy applications Huang's recent work demonstrates a strong interdisciplinary approach, combining materials science expertise with energy systems engineering. The research output shows significant contributions to both fundamental understanding of material processing techniques and practical applications in renewable energy systems. The 2025 review article in ACS Applied Materials and Interfaces represents a comprehensive analysis of inkjet printing technologies for advanced porous materials, while the extensive Google Scholar publications showcase expertise in hydrogen technology and energy system optimization. Collaboration Network: The research profile indicates active collaboration with international partners, as evidenced by the multi-institutional authorship on the 2025 review article. The work spans both experimental materials research and computational modeling approaches, suggesting a well-rounded research program that bridges theoretical understanding with practical applications.
Nathan Baeckeland serves as a Researcher III in Power Systems Engineering at the National Renewable Energy Laboratory (NREL), specializing in grid-forming inverter technologies for modern power systems. His work addresses critical challenges in renewable energy integration through advanced stability analysis and control strategies. Research interests center on grid-forming inverters, with emphasis on equivalent-circuit modeling, transient and small-signal stability analysis, current-limiting mechanisms, and frequency stabilization techniques. His fingerprint analysis reveals dominant activity in Inverter Engineering (100%), supported by significant contributions to Limiters Engineering (24%) and Equivalent Circuit Modeling (23%). This research directly addresses stability challenges in power grids with high renewable penetration. Recent publications demonstrate a cohesive focus on stability enhancement under operational constraints, particularly current limiting and unbalanced conditions. His work integrates electromagnetic transient analysis with control architecture design, showing consistent application of equivalent-circuit models across both theoretical and experimental validation frameworks. Key collaborations include researchers from the University of Minnesota (Seo, G.-S., Dhople, S.) on inverter-based resource modeling. NREL-based research activities involve close coordination with electrical engineering teams focused on power systems modernization, contributing to national initiatives for grid resilience through inverter-based resource integration. His output reflects strong industry relevance with direct applications to grid-forming inverter deployment standards.
Gabino Jiménez Castillo serves as an Interim Substitute Professor in Electrical Engineering, holding a PhD from the University of Jaén (2019) for his thesis on photovoltaic system monitoring. His academic profile bridges cutting-edge renewable energy research with transformative engineering education methodologies. His educational background centers on advanced photovoltaic systems, with doctoral supervision by Dr. Francisco José Muñoz Rodríguez and Dr. Catalina Rus Casas. This foundation drives his dual research trajectory in solar energy engineering and pedagogical innovation. Dr. Jiménez Castillo's research demonstrates two interconnected pillars : First, photovoltaic systems engineering focusing on self-consumption optimization, bifacial technology, and Mediterranean climate adaptations for industrial and agricultural applications. Second, revolutionary engineering education through project-based learning (PBL), personal learning environments (PLEs), and remote laboratory development. His work consistently addresses real-world implementation challenges while advancing sustainable educational frameworks that cultivate entrepreneurial mindsets. Analysis of his 2023-2025 publications reveals distinct thematic clusters : 60% target photovoltaic performance optimization (rooftop systems, bifacial modules, battery integration), while 40% pioneer educational methodologies (PBL implementation, digital learning environments, entrepreneurship training). This synergy positions him at the critical intersection of renewable energy deployment and next-generation engineer development, with significant contributions to both technical standards (IEC 61724) and pedagogical frameworks. His laboratory initiatives demonstrate significant innovation in remote electronic instrumentation and personalized learning ecosystems , creating accessible platforms for hands-on engineering education. These environments integrate Arduino-based measurement systems and content curation tools to foster student autonomy in sustainable technology development.
Catalina Rus Casas is a University Professor in the Department of Electronic and Automatic Engineering at the University of Jaén, where she has held a professorship since 2019. She leads the ENIAS (Applied Engineering and Solar Energy) research team focused on engineering of photovoltaic systems, both grid-connected and stand-alone. Her educational background includes: Electronic Engineering degree from the University of Granada (2004) PhD from the University of Jaén (2011) with thesis on energy estimation methods in grid-connected photovoltaic systems Dr. Rus Casas specializes in photovoltaic system performance analysis, monitoring through IoT, and energy generation through self-consumption photovoltaic systems. Her research integrates technical aspects of solar energy with innovative educational approaches, particularly in engineering education and entrepreneurship development. She has published over 70 indexed publications and maintains an H13 index in JCR journals. Her recent publications reveal a strong trajectory in both technical photovoltaic research and educational innovation. The technical work focuses on optimizing photovoltaic self-consumption systems, particularly for industrial and residential applications under Mediterranean climate conditions, while her educational research emphasizes project-based learning, entrepreneurship integration, and digital tools for engineering education. This dual focus demonstrates her commitment to advancing both solar energy technology and engineering pedagogy. Her notable scientific achievements include: Extraordinary Doctorate Award in Engineering and Architecture 2nd Award for the Promotion of Entrepreneurial Culture from the University of Jaén First and Second Prizes in Innovation and Entrepreneurship Awards As lead researcher of the TEP-988 research group, she has participated in over 20 research projects through national and international competitive programs. She has served as principal investigator for four competitive innovation projects and two Industrial Doctorate training grants. Her mentorship activities include guiding end-of-degree projects as research initiation and mentoring engineering students in sustainable entrepreneurship through university-technological center collaborations. Dr. Rus Casas actively contributes to the TAEE Association (Technologies, Learning and Teaching of Electronics), where she served as secretary from 2015-2022. Through this international association of higher education professors, she collaborates with over 20 universities to improve electronics teaching and integrate research advances into university education.
Lisa Brunhuber serves as Professor and Deputy Academic Director of the Healthcare and Nursing (BA) program at the Department of Health Sciences within the Institute of Health Sciences, University of Applied Sciences St. Pölten. As a University of Applied Sciences lecturer, she specializes in inpatient nursing care with focus on gynecology and contributes to curriculum development and international educational initiatives. Her academic credentials include: Bachelor's degree in Health and Nursing from FH Campus Wien Master's degree in Nursing Science from the University of Vienna Master's program in Advanced Nursing Education from FH Campus Wien Brunhuber's research concentrates on nursing diagnostics, interprofessional collaboration, and innovative pedagogical approaches in healthcare education. Her work addresses complex clinical scenarios through case-based learning and international partnerships, with emphasis on bridging theoretical knowledge and practical application in multicultural healthcare settings. She actively develops resources for stroke care education and explores solutions for language barriers in nursing practice. Analysis of her recent publications reveals strong thematic continuity in interprofessional education models, particularly the inverted classroom methodology, and cross-border nursing education projects. Her work consistently targets improved patient outcomes through enhanced communication frameworks and diagnostic precision in complex care environments. Professional engagement includes submissions for the MTD Innovation Award 2024 and presentations at international conferences on nursing education. Her project portfolio demonstrates commitment to advancing healthcare education through technology-enhanced learning spaces and collaborative teaching frameworks. Brunhuber actively participates in academic advising and project leadership within the Department of Health Sciences, focusing on curriculum innovation and international educational partnerships that strengthen nursing practice standards across institutional boundaries.
Associate Professor Hemanshu Pota is a faculty member at UNSW Canberra in the School of Engineering and Information Technology. With extensive research experience spanning multiple decades, his work focuses on renewable energy integration, smart grid control, and mechanical systems control. He has secured nearly three million dollars in external research funding, including three ARC Discovery grants and one ARC Linkage grant. Professor Pota's research interests encompass a broad range of topics including renewable energy integration for smart grids, control of mechanical systems (particularly atomic force microscopes and small UAVs), battery and renewable resource integration, vehicle-to-grid systems for power quality support, power systems transient stability analysis, and robust control techniques. His work bridges theoretical control theory with practical power system applications. His publication record is impressive, with over 130 refereed journal papers in high-impact journals, one book, fifteen book chapters, and over 270 international conference papers. His most recent work (2023-2025) shows a continued focus on power electronics, grid integration of renewables, electric vehicle infrastructure, and cybersecurity for microgrids, with particular emphasis on advanced control techniques like sliding mode control and fixed-time control approaches. Best Paper Award at the 8th IEEE Conference on Industrial Electronics and Applications (ICIEA 2013) Elsevier Prize for Best Applications Paper at IEE International Conference Control 2000 UNSW@ADFA Teaching Excellence Award 2006 Professor Pota has supervised fifteen PhD students and eleven Masters students to completion. He serves as Editor-in-Chief of Technology and Economic Smart Grids and Sustainable Energy, and as Associate Editor for several prestigious journals including IEEE Transactions on Control Systems Technology. His international collaborations span institutions including Columbia University, UCLA, Tsinghua University, and Aalborg University. His consulting work with GHD in Australia demonstrates the practical application of his research in power systems dynamics and control. His teaching interests include analogue electronics, circuit theory, control engineering, and power systems.
