Find Academic Supervisors

• Biomedical Signal Processing
• Computational Modeling
• Cardiac Electrophysiology
• +3 more

Michela Masè is an Assistant Professor in the Department of Industrial Engineering at the University of Trento , Italy. Her research bridges biomedical engineering and clinical applications, with laboratories located at Via Sommarive, 9 in Povo. She teaches core courses including Advanced Signals Processing and Modeling of Physiological Systems , Artificial Intelligence for Biomedical Problems Solving , and Fondamenti di Tecnologie Biomediche . Her research focuses on: Computational modeling of cardiac electrophysiology, particularly atrial fibrillation mechanisms and fibrosis dynamics Development of wearable medical devices (e.g., MedSENS in-ear multisensor for vital monitoring) High-altitude physiology and cognitive performance in extreme environments Advanced signal/image processing techniques for biomedical data Publication analysis reveals strong emphases on: translational cardiac research (45%), biomedical instrumentation (30%), and environmental physiology (25%), with consistent interdisciplinary integration of engineering principles. Her work frequently involves clinical collaborations and validation studies.

Torrey WagnerView profile

Assistant Professor

• Artificial Intelligence
• Machine Learning
• Data Analytics
• +7 more

Dr. Torrey Wagner serves as an Assistant Professor of Data Analytics at the Air Force Institute of Technology (AFIT), where he supports the Data Analytics graduate certificate program. He develops and teaches core courses including DASC 522 Machine Learning, SATI 532 Data Visualization & Communication, and DASC 511 Object-Oriented Programming using Python. His instructional focus centers on applying data analytics techniques to solve military problems through the CRISP-DM process framework. Dr. Wagner earned his PhD in Electrical Engineering with an Electro-optics focus from AFIT in 2010, an MS in Aerospace Systems Engineering from Loughborough University (UK) in 2004, and a BS in Electrical Engineering from the University of Minnesota in 2000. His educational background bridges electrical engineering, aerospace systems, and advanced data analytics. His research concentrates on applying predictive and generative artificial intelligence techniques to enhance Department of Defense organizational efficiency and performance. Dr. Wagner's scholarly work spans machine learning applications for defense systems, energy optimization for military operations, quantum computing advancements, and natural language processing solutions for defense contexts. He has developed specialized methodologies for military problem-solving through data analytics, with emphasis on practical implementation in operational environments. Dr. Wagner's publication record reveals a strategic evolution toward cutting-edge AI applications. Recent work demonstrates significant focus on large language models, retrieval-augmented generation systems, and quantum computing implementations. His research portfolio includes machine learning applications for aircraft engine cost prediction, satellite imagery analysis, seismic event classification, and energy system optimization for austere military environments. This work consistently bridges theoretical AI advances with tangible defense applications. As an educator and mentor, Dr. Wagner has guided dozens of students through their first publications and presentations. His students frequently co-author peer-reviewed journal articles and conference papers, primarily at the master's level with several doctoral candidates. He has contributed to AI education within military contexts through his chapter "Augmenting a Curriculum Review with Generative AI" in the AFIT Generative AI Teaching Guidebook and other educational resources. Dr. Wagner's research supports multiple AFIT initiatives focused on data analytics for defense applications. His work involves extensive collaboration with Department of Defense organizations to implement AI technologies in practical military settings, particularly in energy systems optimization, aircraft operations analytics, and decision support tools for commanders. Current projects include secure offline large language model implementations, quantum communication network resilience, and advanced data visualization techniques for military decision-making.

John KerekesView profile

Research Professor

• Remote Sensing
• Imaging Science
• Hyperspectral Imaging
• +5 more

John Kerekes is a Research Professor at the Chester F. Carlson Center for Imaging Science within the College of Science at Rochester Institute of Technology (RIT). His research focuses on advancing remote sensing technology through theoretical investigations, data analysis, and modeling of remote sensing systems. Dr. Kerekes approaches the end-to-end remote sensing process as a system with application performance as the metric, developing statistical parametric models to propagate information-bearing characteristics through the remote sensing process. Dr. Kerekes holds a BS, MS, and Ph.D. from Purdue University. His research interests span remote sensing, system modeling and analysis, pattern recognition, digital imaging, and image processing. He has applied his expertise to multispectral remote sensing systems for surface land cover classification, atmospheric temperature and water vapor profiling, surface particulate matter sensing, and sub-pixel object detection and identification. He has also investigated spectral imaging for medical applications. His recent publications demonstrate a strong focus on hyperspectral imaging, methane detection, air quality monitoring, and agricultural applications. The research shows an evolving trend toward integrating machine learning with traditional remote sensing techniques, particularly in environmental monitoring and target detection applications. His work increasingly addresses practical implementation challenges in satellite and airborne remote sensing systems. Dr. Kerekes is affiliated with the Digital Imaging and Remote Sensing Laboratory (DIRS) at RIT and has secured significant research funding, including a grant from the National Geospatial-Intelligence Agency for fundamental research on imaging systems. He mentors graduate students through thesis research (IMGS-790, IMGS-890) and independent study courses (IMGS-799), focusing on advanced topics in imaging science. His laboratory work includes the SpecTIR Hyperspectral Airborne Rochester Experiment (SHARE) data collection campaigns and research on polarimetric synthetic aperture radar systems. Dr. Kerekes also contributes to major community remote sensing experiments such as ROCX 2025 at RIT's Tait Preserve, which involves deploying satellites, planes, drones, and other sensing platforms for comprehensive data collection.

Kelli HunsuckerView profile

Assistant Professor

• Biofouling Prevention
• Eco-engineering
• Benthic Ecology
• +2 more

Dr. Kelli Hunsucker serves as an Assistant Professor in the Department of Ocean Engineering and Marine Sciences at the Florida Institute of Technology, where she leads research at the intersection of marine biofouling prevention and ecological engineering. Her work addresses critical challenges in coastal ecosystem health through innovative technological and nature-based solutions. Her academic foundation includes a Ph.D. in Biological Oceanography (2012) and M.S. in Chemical Oceanography from Florida Tech, complemented by a B.S. in Oceanography with Marine Chemistry focus from Stockton University (2005). Ph.D., Biological Oceanography, Florida Institute of Technology (2012) M.S., Chemical Oceanography, Florida Institute of Technology B.S., Oceanography (Marine Chemistry), Stockton University (2005) Hunsucker's research program operates on dual tracks: preventing destructive biofouling on marine infrastructure and promoting beneficial ecological engineering for habitat restoration. She pioneers ultraviolet C (UVC) applications for antifouling systems while developing 'living dock' structures that enhance benthic recruitment in the Indian River Lagoon. Her approach integrates laboratory experimentation, field validation, and citizen science initiatives to create scalable solutions for water quality improvement and coastal resilience. Collaborations with government agencies, industry partners, and community stakeholders ensure practical implementation of her findings. Analysis of her recent publications reveals a concentrated focus on UVC-based antifouling technologies and eco-engineering interventions in estuarine environments. Her work demonstrates increasing sophistication in combining optical engineering with marine ecology, particularly through ROV-integrated UVC systems and quantifiable assessments of living dock performance. The Indian River Lagoon serves as both experimental site and ecological indicator system across her research portfolio. Her recognition as Marine Science Educator of the Year (2022) highlights her commitment to outreach: Marine Science Educator of the Year Honor (2022) Hunsucker actively mentors graduate researchers like doctoral candidate Kailey Richard while securing collaborative funding for biofouling and ecosystem enhancement projects. Her community engagement extends to marine science summer programs for children and partnerships with local organizations focused on lagoon restoration. She serves on the Steering Committee for the Indian River Lagoon Symposium and contributes to editorial boards including the Marine Technology Society Journal. Her research operations center on the Indian River Lagoon ecosystem, where she directs field studies of living dock structures and UVC antifouling applications. The Marine Science & Coastal Engineering Camp functions as both educational initiative and practical research extension, engaging citizen scientists in benthic recruitment monitoring while advancing her team's understanding of coastal ecosystem dynamics.

Swathi MurthyView profile

Assistant Professor

• Biophotonics
• Biophysics
• Coral Reef Studies
• +13 more

Swathi Murthy serves as an Assistant Professor in the Department of Biology within the Faculty of Science at the University of Copenhagen, specializing in Marine Biology. Her research profile is prominently featured on the university's bio.ku.dk domain, with her office located at Strandpromenaden 5 in Helsingør. She maintains an active research program with numerous recent publications spanning from 2021 to 2025, reflecting her ongoing contributions to marine biophysics and biophotonics. Dr. Murthy's primary research interests focus on biophotonics and biophysics studies of reef-building corals and biofilms. She develops experiment-driven multi-physics numerical models to investigate how corals and biofilms interact with light and hydrodynamics across scales from cellular to organism levels. As a specialist in light-scattering measurements, her technical expertise includes optical coherence tomography, digital holotomography, hyperspectral imaging, and micro-sensor measurements of light, chemical species, and temperature. Her work bridges fundamental science with practical applications, aiming to study functional adaptations in nature that modulate light and chemical environments across length scales from nanometers to meters. Analysis of her recent publications reveals a consistent research trajectory centered on coral microenvironments, bioimaging techniques, and bioprinting applications. Her work demonstrates strong interdisciplinary collaboration, particularly with Michael Kühl and other researchers across multiple institutions. The publications show increasing sophistication in both experimental methods and computational modeling approaches, with recent work expanding into 3D bioprinting of microalgal constructs and advanced light management systems inspired by natural organisms. Dr. Murthy actively participates in multi-disciplinary collaborative projects, with research outputs spanning journal articles, conference proceedings, and preprints. Her work appears in high-impact journals including Proceedings of the National Academy of Sciences, Journal of the Royal Society Interface, and Biotechnology Advances. The citation metrics indicate growing recognition of her contributions, with several publications accumulating significant readership on platforms like Mendeley and social media engagement. Her laboratory work appears to focus on marine organism imaging and microenvironment analysis, with particular emphasis on coral reef systems and photosynthetic organisms. The research has clear applications in nature conservation and restoration efforts, as well as potential translation into sustainable consumer products such as displays and solar cells that take inspiration from natural light management systems.

• Photonics
• Optical Fiber Sensors
• Photobiomodulation
• +3 more

Fotios Sidiroglou is a Senior Lecturer at Victoria University's First Year College, where he has established himself as both an innovative physics educator and photonics researcher. With a PhD in Physics from the University of Melbourne and a Graduate Certificate in Tertiary Education, he has developed interdisciplinary expertise spanning optical fiber technology, environmental monitoring, and educational pedagogy. His educational background includes: BSc from Victoria University (2002) BSc (Hons) from Victoria University (2003) GCTE from Victoria University (2018) PhD in Physics from University of Melbourne (2007) Sidiroglou's research spans two interconnected domains: photonics and physics education. In photonics, he specializes in optical fiber sensors for environmental monitoring (particularly PFAS detection in water systems) and photobiomodulation applications for wound healing and pain management. His educational research focuses on innovative teaching methodologies, blended learning approaches, and student engagement strategies in physics education. His publication record shows a clear evolution from fundamental optical fiber research to applied environmental and biomedical applications, with a parallel track of educational research demonstrating increasing interdisciplinary integration. His recent publications indicate a growing focus on practical applications of photonics technology to address environmental challenges (water contamination) and healthcare needs (wound healing), while maintaining strong contributions to educational research methodology. The work shows sophisticated integration of materials science, optical engineering, and biological applications. Sidiroglou has received several prestigious recognitions: Vice-Chancellor's Award for Learning and Teaching (2019) First Year College Award for Excellence in Learning and Teaching (2021) Students' Choice Award for Best Facilitator Vice-Chancellor's Peak Award (2018, as founding member of First Year College) In terms of research supervision, Sidiroglou serves as principal supervisor for one completed PhD, has co-supervised three PhDs to completion, and mentors numerous Honours students and postdoctoral fellows. His current research is supported by grants including 'Low Level Laser Therapy for Treating Wounds and Managing Pain' from the Defence Science Institute. He actively seeks HDR students in fiber optic sensors, photobiomodulation applications, and education research, with specific opportunities like 'Advanced light-functional membranes for managing water decontamination.' Sidiroglou is a founding member of Victoria University's innovative First Year College and contributes significantly to the academic community through journal reviewing for Q1 optical fiber sensor journals and service on the Scientific Committee for the International Conference on Information, Communication Technologies in Education since 2020.

• MEMS
• Flexible electronics
• Inorganic bioelectronics
• +6 more

Dr. Khoa Nguyen is an ARC DECRA Fellow (2024-2027) at Griffith University's School of Engineering and Built Environment. He is a member of both the Queensland Quantum and Advanced Technologies Research Institute (QUATRI) and the Queensland Micro and Nanotechnology Centre. His research focuses on micro and nanoscale electronics for physical and biological sensing applications, particularly using wide bandgap semiconductors like silicon carbide. Dr. Nguyen has authored over 50 high-impact journal papers, with many published in top 10% journals according to Scopus, including publications in PNAS, ACS Nano, and Nature Communications. Dr. Nguyen's educational background includes: PhD in Engineering from Griffith University (2015-2018) Master of Engineering from Hanoi University of Science and Technology (2009-2011) Bachelor of Engineering (Honours) from Hanoi University of Science and Technology (2004-2009) Dr. Nguyen's research centers on the innovation and development of micro and nano-scaled electronics devices for emerging applications in physical and biological sensing. His work particularly focuses on silicon carbide-based technologies for harsh environment applications, flexible bioelectronics, and wearable sensors. He has made significant contributions to the field of wide bandgap semiconductor devices, with applications ranging from implantable medical devices to environmental monitoring systems. His interdisciplinary approach combines materials science, electrical engineering, and biomedical applications to create novel sensing platforms that can operate in challenging conditions where conventional silicon-based devices would fail. Analysis of Dr. Nguyen's recent publications reveals a strong focus on silicon carbide technology for bioelectronic applications, with significant work on flexible electrode arrays, wearable biosensors, and microfluidic systems. His research demonstrates a clear trajectory toward developing practical, implantable sensing solutions with emphasis on reliability and performance in challenging environments. The publications span multiple high-impact journals across materials science, electrical engineering, and biomedical engineering disciplines, indicating the interdisciplinary nature and broad impact of his work. Dr. Nguyen has received notable recognition including: ARC DECRA Fellowship (2024-2027) 'Rising Stars' recognition among future leaders in nanotechnology and sensors research by Australian Research Magazine (2020) As an academic supervisor, Dr. Nguyen currently advises multiple doctoral students working on silicon carbide sensors, flexible bioelectronics, and wearable sensing technologies. His research is supported by several significant grants including an ARC DECRA grant titled 'Advancing bioelectronics with silicon carbide on microfluidics' (2024-2027) and an internal Griffith University grant 'Low dimensional lab-on-chip silicon carbide biomolecular sensors for early disease detection' (2023-2024). His work aligns with UN Sustainable Development Goals 3 (Good Health and Well-Being) and 9 (Industry, Innovation and Infrastructure). Dr. Nguyen is actively involved with the Queensland Micro and Nanotechnology Centre and the Queensland Quantum and Advanced Technologies Research Institute, where he collaborates with multidisciplinary teams to advance micro and nanoscale technologies for practical applications in healthcare monitoring, environmental sensing, and industrial applications requiring robust electronic systems.

• Pavement Engineering
• Transportation Infrastructure
• Machine Learning Applications
• +4 more

Dr. Saumya Amarasiri serves as Assistant Professor in the Department of Environmental and Civil Engineering at Mercer University's School of Engineering, specializing in transportation infrastructure with advanced expertise in pavement engineering and computational analysis techniques. Her academic credentials include: PhD in Civil Engineering from the University of South Florida (2011) MSE in Civil Engineering from Texas Tech University (2004) Her research program integrates digital image processing and machine learning to solve critical challenges in pavement management, with particular emphasis on preventive maintenance effectiveness , cracking deterioration mechanisms , and climate-specific performance in wet freeze environments. This interdisciplinary approach bridges civil engineering fundamentals with data science to optimize infrastructure longevity and sustainability through predictive modeling of pavement behavior under diverse environmental conditions. Analysis of her publication history reveals a sustained research trajectory focused on computational pavement evaluation, evolving from foundational optical texture analysis (2007-2010) to sophisticated machine learning applications (2019-2022) for cost-benefit optimization and climate-resilient maintenance strategies. Her professional recognition includes: Non tenure track teaching award from Washington State University (May 2019) Dr. Amarasiri actively contributes to the transportation research community through regular presentations at Transportation Research Board conferences, though specific details regarding graduate student mentorship or external research grants are not documented in the available institutional profile.

Marco DiegelView profile

Researcher

• Nanomaterials
• Thin films
• Memristors
• +5 more

Dr. Marco Diegel is a Researcher at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany, affiliated with the Center of Competence for Micro and Nanotechnologies and the Microstructure Analysis Working Group. His contact information includes email (marco.diegel@leibniz-ipht.de) and office locations HG S43 and HG 151. Dr. Diegel's research focuses on advanced materials for optoelectronic and energy applications with expertise in nanomaterials synthesis , thin film characterization , and device fabrication . Key areas include: Development of porous platinum for electrocatalysis and optical applications Investigation of epsilon-near-zero properties in $$\text{ITO}$$ thin films Study of resistive switching mechanisms in memristive devices using $$\text{HoMnO}_3$$ and $$\text{BiFeO}_3$$ Design of nanozymes for colorimetric detection applications Characterization of plasmonic nanowire lasers using $$\text{ZnO}$$ structures Analysis of Dr. Diegel's recent publications reveals a strong interdisciplinary focus bridging fundamental materials science with practical device implementation. His work demonstrates particular strength in resistive memory devices , photocatalysis , and optical sensing , with collaborations spanning physics, chemistry, and engineering disciplines. The progression of his research shows increasing sophistication in materials engineering for targeted applications. Dr. Diegel is an active contributor to the Microstructure Analysis Working Group at Leibniz-IPHT, with research that has practical implications across renewable energy, environmental monitoring, and biomedical technologies. His work on tunable magnetic nanoparticles and nanozyme-based sensors shows particular promise for real-world applications.

Alexander PuzrinView profile

Professor

• Geotechnical Engineering
• Landslide Analysis
• Soil Mechanics
• +2 more

Alexander Puzrin is a Full Professor of Geotechnical Engineering at ETH Zürich's Institute for Geotechnical Engineering, where he has been employed since 2004. His research focuses on constitutive modeling of geomaterials, analysis of landslides (including subaerial and submarine types), development of geotechnical monitoring sensors, and chemical/biological soil improvement. He holds a PhD from Technion and has held positions at Imperial College, Oxford, and Georgia Tech. Research Interests: Puzrin's interdisciplinary work integrates geotechnics, experimental mechanics, applied mathematics, and sensor technologies. Key areas include: Progressive failure mechanisms in soils Tsunamigenic landslide modeling Fiber-optics monitoring systems Microbiological soil enhancement Publications: Recent articles (2018-2025) predominantly explore computational mechanics, materials science, and fracture dynamics. Trends include physics-consistent ML models, corrosion mechanisms in infrastructure, and Eulerian phase-field methods for contact problems. Awards & Honors: Geotechnical Research Medal (2004, 2013) George Stephenson Medal (2013) ETH Excellence in Teaching Award (2009, 2013) Editor of Géotechnique (2012-2015) Professional Activities: Puzrin co-founded Marmota Engineering AG (ETH spin-off) and consults internationally on geotechnical projects. He leads research teams focused on sensor technologies and biological soil stabilization.

Regina HitzenbergerView profile

Professor

• Physical properties of atmospheric aerosols
• Cloud condensation nuclei (CCN)
• Diesel soot and biomass soot
• +2 more

Univ.-Prof. Dr. Regina Hitzenberger is a Professor at the University of Vienna's Faculty of Physics, Department of Aerosol Physics and Environmental Physics. Her research focuses on atmospheric aerosols, including their physical properties, climate effects, and health implications. She has led projects such as the VACES system development for CCN analysis (2013–2014) and studies on ice nucleation of carbonaceous particles (2014–2018). Her research interests include cloud condensation nuclei (CCN), diesel/biomass soot, and radiative properties of aerosols. She has published extensively (over 140 papers) on topics like aerosol measurement techniques, climate impacts, and historical exposure assessments. Notable collaborations include work on brown carbon and elemental carbon (EC) in household emissions and legacy pollution. Dr. Hitzenberger has presented invited talks on aerosols and climate change, and her work bridges environmental monitoring, analytical chemistry, and climate science. Her CV and publications are available for download from her profile page.

Bhaskar DudemView profile

Research Fellow

• Wearable piezo/triboelectric nanogenerators
• Energy harvesting
• Self-powered sensors
• +3 more

Dr. Bhaskar Dudem is a Research Fellow at the Advanced Technology Institute, University of Surrey, UK, and holds affiliations with the Royal Society of Chemistry and the Materials Research Society. His career includes postdoctoral research at Kyung Hee University and teaching roles at KL University and KSIT in India. He earned a Ph.D. in Electronics & Radio Engineering from Kyung Hee University and an M.Tech. in Materials Science from IIT Kanpur. His research focuses on wearable energy-harvesting technologies, triboelectric nanogenerators, and sustainable materials, with over 40 publications and an h-index of 28. Dr. Dudem’s work bridges nanotechnology, energy systems, and biomedical applications. Education: Ph.D. (2018), Kyung Hee University; M.Tech. (2012), IIT Kanpur. Previous roles include Postdoctoral Fellow at Kyung Hee University (2018–2019) and Teaching Faculty at KL University (2012–2014). Research Interests: Wearable and flexible triboelectric/piezoelectric nanogenerators for energy harvesting and sensing Solar cells and anti-reflection coatings Hybrid energy systems and sustainable materials Advising and Grants: Supervised postgraduate and undergraduate students in projects like self-charging supercapacitors and flexible triboelectric sensors. His research emphasizes eco-friendly materials and real-world applications of energy harvesting. Labs/Teams: Active in the Advanced Technology Institute and collaborates with global researchers on energy harvesting and nanotechnology.

Renee KroonView profile

Associate Professor

• Organic Chemistry
• Polymer Science
• Organic Electronics
• +4 more

Renee Kroon serves as Associate Professor and Head of Unit at Linköping University's Department of Science and Technology (ITN), Faculty of Science and Engineering, within the Laboratory of Organic Electronics (LOE). His academic journey began with an MSc in Polymer Science from the University of Groningen (2008), followed by a PhD at Chalmers University of Technology (2013) focusing on conjugated polymers for solar cells. After postdoctoral research at the University of South Australia and with Prof. Christian Muller on organic thermoelectrics, he joined LOE in July 2020. His research spans organic chemistry , polymer science , and organic electronics , with core expertise in designing functionalized conjugated polymers for electronic applications. Key areas include organic thermoelectrics, polar polythiophene synthesis, mixed ionic-electronic conductors, and organic electrochemical transistors. Recent work emphasizes sustainable synthesis methods, biohybrid materials (e.g., lignin integration), and applications in biosensing and energy storage. Analysis of his 15 most recent publications reveals dominant trends in polymer synthesis innovation (direct arylation, vapor-phase methods), structure-property relationships (side-chain engineering, microstructure effects), and application-driven materials design (biosensors, thermoelectrics, sustainable electronics). The work consistently bridges fundamental chemistry with device engineering. Scientific recognition includes: Docent (Associate Professor) appointment at Linköping University (November 2024) As Head of Unit at LOE, Kroon leads research on conductive polymers within Linköping's expanded 500m² chemistry laboratory in Norrköping. His group collaborates extensively across organic electronics, with co-authors from institutions including Chalmers University, University of South Australia, and international partners. Current projects focus on sustainable polymer processing, bioelectronic interfaces, and high-performance thermoelectric materials. The Laboratory of Organic Electronics (LOE) explores electronic/optical properties of organic and hybrid materials, serving as a hub for interdisciplinary research in sustainable electronics, biosensors, and energy applications within ITN's technical-scientific framework.

• Additive Manufacturing
• Materials Science
• Surface Engineering
• +3 more

Alberto Boschetto is a Full Professor at the Department of Mechanical and Aerospace Engineering, Sapienza University of Rome. His research focuses on advanced manufacturing technologies, particularly additive manufacturing (AM), materials science, and surface engineering. He leads investigations into 4D printing, laser powder bed fusion, and digital image analysis for quality control in AM processes. Key areas of expertise include: 4D printing of smart materials for dynamic applications Optimization of metal additive manufacturing processes (SLM, FFF) Surface characterization and post-processing techniques Application of AM in aerospace components (satellites, LIDAR systems) Industry 4.0 integration for space manufacturing Recent work emphasizes defect detection via digital image processing, corrosion-resistant coatings for aluminum alloys, and lightweight satellite platform design. His publications span over 20 years with a focus on improving AM process reliability and expanding its aerospace applications. Dr. Boschetto collaborates on EU-funded projects related to smart manufacturing systems and has pioneered AM redesign methodologies for military aircraft components. His research bridges fundamental materials science with practical industrial applications in aerospace and automotive sectors.

• Wide Bandgap Semiconductors
• Ultraviolet Optoelectronics
• Gallium Oxide (Ga2O3)
• +5 more

Dr. Fabien Massabuau is a Senior Lecturer in the Department of Physics at the University of Strathclyde, where he joined as a Chancellor's Fellow in September 2019. His research focuses on wide bandgap semiconductors for ultraviolet optoelectronic devices, with particular emphasis on α-Ga 2 O 3 and h-BN. Prior to his position at Strathclyde, Dr. Massabuau completed his PhD (2011-2015) and served as a post-doctoral researcher (2015-2019) at the Department of Materials Science and Metallurgy at the University of Cambridge. During his time at Cambridge, he developed a "multi-microscopy" methodology to study nanoscale features across multiple imaging platforms (AFM, SEM-CL, TEM), advancing understanding of defects in III-Nitride materials. Dr. Massabuau's research interests span wide bandgap semiconductors, ultraviolet optoelectronics, and the fundamental relationship between nanostructure and optical properties in semiconductor materials. His work has significant applications in UV photodetection, water quality monitoring, and radiation-resilient sensor technologies. He actively investigates gallium oxide variants (α, β, and κ phases) and hexagonal boron nitride, focusing on defect engineering and performance optimization for practical device applications. His recent publications demonstrate a strong focus on gallium oxide materials systems, with particular attention to crystal structure-property relationships, defect characterization, and device performance metrics. The research shows increasing integration of computational approaches with experimental characterization to optimize material properties. Dr. Massabuau has received numerous prestigious awards: Materials Young Investigator Award (2025) 2024 Emerging Leader in J. Phys. D: Appl. Phys. Nanoscale 2022 Emerging Investigator European Crucible Seed Funding Award for Nanostructure-enhanced Gallium Oxide UV photodetectors (2021) European Crucible Seed Funding Award for Developing new tools for evaluating nanoscale biological interactions (2021) 2021 Emerging Leader in J. Phys. D: Appl. Phys. As a Principal Investigator, Dr. Massabuau leads multiple research projects including "Gallium Oxide Optoelectronic Devices for Water Pollution Sensing (GOOD-Water)" and "Tuneable radiation-resilient (AlGa)2O3 UVC photodetectors." He serves on the committee for Doctoral Researcher Awards and is a member of the editorial board for SN Applied Sciences. With over 40 peer-reviewed articles, 2 book chapters, and 1 mobile application to his name, his work has accumulated more than 600 citations. Dr. Massabuau actively participates in the semiconductor research community through conference organization (including the upcoming "Ultra-wide bandgap oxides 2025" conference) and as an invited speaker at international venues focusing on defects in α-phase Ga 2 O 3 . His research group continues to advance the understanding and application of wide bandgap semiconductors for next-generation optoelectronic devices.