Find Academic Supervisors

Matthew BarrView profile

Researcher

• Organic Electronics
• Scanning Helium Microscopy
• X-ray Microscopy
• +4 more

Dr. Matthew Barr is a Senior ANFF Support Officer and Researcher at the University of Newcastle , affiliated with the School of Information and Physical Sciences . His work bridges organic electronics and scanning helium microscopy , focusing on printed solar technology, surface imaging, and material characterization. He completed his PhD on helium microscopy at the University of Newcastle, earning the Royal Society’s Jak Kelly Prize (2016) and showcasing his research at the Royal Society Summer Science Exhibition (2019). Expertise : Apparatus design, nanomorphology control, synchrotron techniques Key Projects : Charge Around Australia documentary (2022), Coldplay Printed Solar Project (2024) Leadership : Instrument design for helium microscopy, equipment for large-scale solar installations Research Trends : His 40+ journal articles emphasize organic solar cells , helium-based imaging , and nanoparticle engineering . Awards include the 2024 CESE Staff Excellence Award and multiple university and Royal Society recognitions. 2025 : Development of solar simulator for Lumpy Skin Disease research 2020 : Upscaling printed solar technology under NSW RAAP funding 2019 : Synchrotron studies on eco-friendly materials Teaching : Course Coordinator for Engineering Computations and Procedural Programming (2022-2023) and Engineering Physics (2024).

• Machine Tools
• Thermal Analysis
• Computer-Aided Design
• +5 more

Aleksandar Živković is a Full Professor at the Chair of Computer Aided Technological Systems and Design, Faculty of Technical Sciences, University of Novi Sad. He joined the institution in 2004 and has held progressive academic positions: Assistant (2007), Assistant Professor (2013), Associate Professor (2018), and Full Professor (2023). His academic focus is on Machine Tools, Technological Systems, and Automation of Design Procedures . Education PhD in Mechanical Engineering (2013) – Faculty of Technical Sciences. Thesis: Computer and experimental analysis of the behaviour of ball bearings for special purposes . Master's in Mechanical Engineering (2007) – Faculty of Technical Sciences. Thesis: Experimental and computational analysis of the thermal-elastic behaviour of high-speed main spindles . Bachelor's in Production Engineering (2003) – Faculty of Technical Sciences. Thesis: Analysis of static behaviour of the main spindle . Research Focus Živković's research integrates computational and experimental methods to solve industrial challenges. Key areas include: Thermal and dynamic behavior of high-speed machine tool spindles Design and analysis of bearings for specialized applications Finite element modeling of mechanical and biomechanical systems 3D printing and virtual prototyping for medical devices (e.g., hip/knee prostheses) Optimization of machining processes using AI and fuzzy logic Publications His 15 most recent articles (2012–2022) demonstrate a strong focus on thermal modeling of spindles, bearing technology, biomechanics, and machining optimization. Methodologies frequently employ neural networks, FEM, experimental validation, and parametric design. Administrative Roles Secretary of the Chair of Computer Aided Technological Systems and Design (2015–2021)

• Optics
• Ultrafast Laser Physics
• X-ray Sources
• +3 more

Stéphane SEBBAN serves as Director with HDR (Habilitation à Diriger des Recherches) qualification at ENSTA Paris, Institut Polytechnique de Paris. He is affiliated with the Applied Optics Unit (LOA) where he leads research initiatives in Semantics of Hybrid Systems (SSH) and Ultrafast particle and X-ray sources (UPX). His research focuses on ultrafast laser plasma physics, with particular expertise in developing laser-plasma particle accelerators. His work contributes to ENSTA Paris's research axis on ultra-short laser plasma physics, which explores how femtosecond laser pulses generate plasmas with extraordinary properties. These specialized plasmas produce enormous transient electromagnetic fields capable of accelerating particles at magnitudes exceeding conventional magnet-based techniques. SEBBAN's research has significant industrial applications including compact high-intensity lasers, electromagnetic protection systems, medical laser-plasma therapy, radiobiology, radiotherapy, and ophthalmology. His work enables advancements in ultra-rapid matter observation during phase transitions, eye surgery techniques, medical imaging, lightning rod systems, and infrastructure protection. His laboratory develops X-gamma radiation sources from ultra-short laser plasmas, offering new possibilities for non-destructive testing with potentially orders-of-magnitude improvements in spatial resolution compared to conventional radiography systems.

Jean-Philippe GrobyView profile

Professor

• Acoustic Waves
• Metamaterials
• Porous Media
• +5 more

Jean-Philippe Groby is a Research Director at CNRS working at the Laboratory of Acoustics of the University of Le Mans (LAUM), UMR6613 CNRS. He leads the "Acoustic Materials" research team, one of three research teams at LAUM, and chairs the Technical Committee "Acoustic Materials" of the European Acoustics Association (EAA). He also serves as an associate editor for npj Acoustics. Education: Habilitation à Diriger des Recherches (2017): "Acoustic wave propagation in lossy, structured and periodic media" at Université du Maine PhD (2005): "Modélisation de la propagation des ondes élastiques générées par un séisme proche ou éloigné à l'intérieur d'une ville" at Université de la Méditerranée - Aix-Marseille II Research Interests: Jean-Philippe Groby specializes in acoustic wave propagation through various media, with particular focus on metamaterials and porous media . His research spans theoretical modeling, experimental characterization, and practical applications of acoustic materials. His work has significant implications for noise control in urban environments, automotive and aerospace industries. He has pioneered techniques for designing materials that can manipulate sound waves with unprecedented precision, including perfect absorbers and diffusers that operate at subwavelength scales. Publication Trends: Groby's recent publications (2023-2025) demonstrate a strong focus on dual-function acoustic metamaterials that can simultaneously absorb and diffuse sound, Willis coupling phenomena in complex materials, and advanced characterization methods for anisotropic porous media. His work increasingly bridges theoretical acoustics with practical engineering applications, particularly in room acoustics, aerospace noise control, and architectural sound design. A notable trend is the development of causality-driven designs that optimize acoustic performance while minimizing material usage. Professional Activities: Associate Editor, npj Acoustics Chair, Technical Committee "Acoustic Materials" of the European Acoustics Association Editor of the book "Acoustic Waves in Periodic Structures, Metamaterials, and Porous Media: From Fundamentals to Industrial Applications" (Springer, 2021) Research Leadership: As leader of the "Acoustic Materials" team at LAUM, Groby oversees a vibrant research group focused on developing innovative acoustic solutions. His team has established strong collaborations with international research institutions and industry partners, particularly in the automotive and aerospace sectors. They have developed several patented technologies for sound absorption and control, including metaporous materials and acoustic meta-lenses.

Thomas Jean-HughView profile

Professor

• Acoustic Imaging
• Signal Processing
• UAV Acoustic Localization
• +7 more

Thomas Jean-Hugh is a Professor and Teacher-Researcher at Le Mans Université , affiliated with the Laboratoire d’Acoustique de l’Université du Mans (LAUM) , a leading research institute in acoustics in France. His role involves both teaching and active research in acoustic imaging, signal processing, and structural acoustics. Education PhD in Acoustics and Signal Processing (exact institution and year not specified in text) Research Interests Thomas Jean-Hugh’s research focuses on acoustic source localization and imaging , particularly through the use of microphone arrays , beamforming , and inverse problem solving . His work spans: Acoustic holography for non-stationary and confined sources UAV acoustic detection and tracking using sparse sensor arrays Vibro-acoustic diagnostics for automotive and naval structures Speech processing in meeting environments using distant microphone arrays Non-destructive testing using acoustic emission and imaging techniques Research Trends His recent publications (2022–2025) reveal a strong focus on machine learning-enhanced acoustic imaging , real-time UAV detection , and robust speech processing . He integrates genetic algorithms , Bayesian regularization , and circular harmonics into acoustic array processing, with applications in autonomous systems , marine biology , and automotive acoustics . Scientific Contributions Over 70 peer-reviewed publications in journals and conferences Active supervision of PhD students and postdocs in acoustics and signal processing Participation in international conferences such as Interspeech , ICSV , GRETSI , and ICA Collaborations & Labs He collaborates extensively within LAUM and with external partners including CNRS , ISCA , and international research groups. His lab work involves experimental acoustics , sensor array design , and real-time signal processing .

Yaakoubi NourdinView profile

Researcher

• Sensor Technology
• Electrochemistry
• Acoustics
• +4 more

Yaakoubi Nourdin is a Researcher at the Institute of Acoustics within Le Mans University. His work bridges acoustic engineering and electrochemical sensor development , with a focus on biomedical and environmental applications. Current research themes include Surface Acoustic Wave (SAW) sensors , molecular imprinting , and IoT-integrated monitoring systems . Key collaborations span institutions in France, Tunisia, and beyond, involving studies on water infrastructure diagnostics and flexible bioelectronics . His recent publications highlight trends in nanomaterial-enhanced sensors and acoustic-environmental interactions . Notable projects include wearable thermography for breast cancer screening and ultra-sensitive detection of heavy metals using doped polymers. The Institute of Acoustics at Le Mans University serves as his primary research hub, aligning with transversal axes like Non-linear Acoustics and Metamaterials . While no explicit awards or student advisement records are provided in available texts, his scientific production spans patent development (e.g., US10477302B2 acoustic absorber) and cross-disciplinary projects in biomedical engineering and urban infrastructure monitoring .

Jianwen MENGView profile

Assistant Professor

• Fault diagnosis
• Fault tolerant control
• Condition monitoring
• +5 more

Jianwen MENG serves as an Assistant Professor at ESTACA, where he has been an Enseignant-chercheur (Teacher-Researcher) since 2020. He is affiliated with ESTACA'Lab, the institution's research laboratory focused on embedded energy systems and transportation technologies. His academic foundation includes a PhD in Electrical Engineering from Université Paris-Saclay (2020), a Master's degree in Electronic Systems and Electrical Engineering from the University of Nantes (2017), and a Bachelor's degree in Electrical Engineering and Automation from Jimei University, China (2015). Dr. MENG specializes in fault diagnosis, fault tolerant control, and energy management systems for electric vehicles and embedded applications. His research integrates advanced control theory with machine learning to address critical challenges in battery and fuel cell technologies, particularly focusing on state estimation, degradation prediction, and real-time monitoring under operational stress. Analysis of his recent publications (2024-2025) reveals a strong interdisciplinary trajectory blending electrical engineering with artificial intelligence. Key trends include AI-enhanced battery state estimation under fast-charging conditions, reinforcement learning for energy management in hybrid vehicles, and novel fault diagnosis frameworks for electrochemical systems. His work consistently targets practical implementation in automotive applications while advancing theoretical control methodologies. He received the Best Paper Award at the IEEE Prognostics and System Health Management Conference (PHM-Paris) in 2019 for his contributions to lithium-ion battery monitoring. At ESTACA, Dr. MENG teaches multivariable systems, real-time control, rapid prototyping, and advanced simulation tools across multiple engineering program levels. His pedagogical approach emphasizes hands-on implementation of theoretical concepts in embedded systems. As a core member of ESTACA'Lab, he contributes to cutting-edge research in automotive electrification, particularly through projects involving battery management systems, fuel cell degradation modeling, and fault-tolerant control architectures for next-generation electric vehicles.

Mohammad RafieeView profile

Adjunct Professor

• Advanced materials
• Sustainable materials
• Electronic materials
• +12 more

Mohammad Rafiee is an Adjunct Professor in the Department of Mechanical Engineering at the Faculty of Engineering, University of Ottawa. He holds affiliations with City University of Hong Kong, École Polytechnique de Montréal, National Research Council Canada, and Advanced Microelectronic Technologies, Sanmina. His research focuses on Advanced materials (graphene, carbon nanotubes, piezoelectric composites) Additive manufacturing (multi-material 3D/4D printing, coaxial deposition) Mechanical/thermal analysis of composite structures Smart devices (sensors, actuators, energy harvesters) Numerical modeling (finite element analysis, nonlinear dynamics) Recent publications highlight trends in Nonplanar additive manufacturing of piezoelectric devices Multiscale graphene/epoxy composites for vibration damping Thermal stability of nanomaterial-reinforced laminates 4D printing applications Structural health monitoring via machine learning Development of polymer-derived ceramics Scientific awards include Ontario Trillium Scholarship Fonds de Recherche du Québec – Nature et technologies (FRQNT) World’s Top 2% Scientists (Stanford, since 2020) Top 1% most cited authors in materials science

• Early Childhood Education
• Educational Methods
• Plant Science
• +3 more

Dr. Marcin Michalak serves as a Lecturer in the Department of Didactics and Early Education at the University of Warmia and Mazury in Olsztyn, maintaining an active academic role with email contact marcin.michalak@uwm.edu.pl. His institutional profile uniquely bridges educational sciences and plant biology, reflecting dual expertise despite his formal placement within an early childhood education department. Primary research interests center on Early Childhood Education and Educational Methodologies , aligned with his departmental affiliation, while secondary pursuits span Plant Cryopreservation , Seed Epigenetics , and Genetic Resource Conservation . This interdisciplinary duality manifests in publications analyzing DNA methylation in stored seeds alongside educational frameworks, though explicit connections between these domains remain undocumented in available records. Analysis of his 15 most recent publications (2015-2022) reveals dominant themes in seed desiccation tolerance, cryogenic storage protocols, and epigenetic markers across species like poplar, maple, and oak. Notable patterns include methodological innovations for recalcitrant seeds and cross-species conservation strategies, punctuated by an outlier 2015 oncology study demonstrating exceptional scientific range beyond his core botanical focus.

• Civil Engineering
• Materials Science
• Concrete Durability
• +6 more

Rachid Cherif is a Teacher-Researcher at the University of Limoges, France, affiliated with the E3-TDVM team. His work bridges civil engineering, materials science, and musicology, with a focus on chloride ion transport modeling in cementitious materials and musical discourse analysis in Tunisian traditional and modern music. Key research areas: Concrete durability, multi-ion transport, recycled aggregates, AI applications in construction, ethnomusicology, and music pedagogy. Email: rachid.cherif@univ-lr.fr His publications (2010–2025) span 15+ articles on topics like: Chloride migration models with thermodynamic equilibria Predictive AI frameworks for recycled concrete properties Non-invasive corrosion diagnostics Ethnomusicological studies of Tunisian popular music Hygrothermal behavior of bio-based concretes Collaborations include researchers like Abdelkarim Aït-Mokhtar, Carmen Andrade, and Emilio Bastidas-Arteaga. No scientific awards or students are explicitly mentioned. His work also explores music education in Tunisian primary schools and interplay between authenticity and modernity in Tunisian music.

David DillardView profile

Professor

• Adhesion Science
• Polymer Mechanics
• Fracture Mechanics
• +5 more

David Dillard serves as the Adhesive and Sealant Science Professor in the Department of Mechanical Engineering within Virginia Tech's College of Engineering. His research bridges fundamental adhesion mechanics with practical applications in aerospace, automotive systems, and sustainable energy technologies. His educational background includes: Ph.D. in Engineering Mechanics, Virginia Tech (1981) M.S. in Engineering Mechanics, University of Missouri-Rolla (1978) B.S. in Engineering Mechanics, University of Missouri-Rolla (1976) Dr. Dillard's research centers on adhesion science and polymer mechanics , with pioneering work in fracture mechanics and viscoelasticity for predicting adhesive joint durability. Recent focus areas include sustainable energy systems (fuel cells, solar photovoltaics), biomaterials (vaginal tissue mechanics), and additive manufacturing. His methodology integrates experimental characterization with predictive modeling, particularly using cohesive zone models and digital image correlation for mixed-mode fracture analysis. Analysis of his publication record reveals three dominant trends: (1) Evolution of peel testing methodologies for adhesion quantification, (2) Application of adhesion principles to sustainable energy systems and biomaterials, and (3) Critical examination of standard test methods with proposals for modernization. His work consistently emphasizes practical implementation while advancing theoretical frameworks. Major recognitions include: ASME Fellow (2015) Wake Medal from Society for Adhesion and Adhesives (2013) Adhesion Society’s Award for Excellence in Adhesion Science (2010) Robert L. Patrick Fellowship (2004) Garth L. Wilkes Interdisciplinary Faculty Scholar (2019) Multiple Dean's Awards for Research Excellence Dr. Dillard has secured sustained research funding through industry partnerships, most notably the Adhesive and Sealant Science Professorship endowed by the Adhesive and Sealant Council. His educational leadership includes developing courses in adhesion science, polymer viscoelasticity, and sustainable energy solutions, with recent work on open-source textbooks and automated feedback systems for engineering mechanics education. His research group at Virginia Tech operates at the intersection of materials science and mechanical engineering, with equipment for advanced adhesion testing, fracture characterization, and sustainable energy materials development. Collaborations span aerospace manufacturers, adhesive suppliers, and biomedical research institutions.

• Nuclear Engineering
• Measurement Techniques
• Non-Destructive Testing
• +3 more

Yuan Chen is a researcher at the Institute of Science Tokyo , focusing on advanced measurement techniques for nuclear engineering and environmental applications. Their work integrates Laser-Induced Breakdown Spectroscopy (LIBS) and Ultrasonic Velocity Profiler (UVP) for remote elemental analysis and flow visualization. Primary focus on nuclear reactor inspection and soil analysis Collaborations with Hiroshige Kikura, Hideharu Takahashi, and international teams Developing robotic systems for hazardous environments Research Trends : Recent publications (2022-2025) emphasize: Remote sensing for nuclear fuel debris analysis LIBS-UVP hybrid systems for multiphase flow measurement Soil elemental analysis for smart agriculture Robotic arms equipped with advanced sensors Key techniques: Laser spectroscopy, ultrasonic imaging, flow visualization algorithms, sensor fusion. Applications span nuclear decommissioning (e.g., Fukushima) and environmental monitoring.

Thomas DobrowskiView profile

Associate Professor

• Construction Quality Control
• Materials Testing
• Engineering Ethics
• +5 more

Thomas Dobrowski is an Associate Professor in the Construction Management Engineering Technology department at Purdue University Northwest. He specializes in materials testing of steel, soils, and concrete, with a focus on construction quality control and structural design. Education: MBA from Purdue University Northwest B.S. in Construction Technology from Purdue University Northwest Research and Teaching: His research explores Construction Quality Control, Engineering Ethics, and Materials Testing, including subfields like Concrete Testing, Steel Testing, and Soil Analysis. Teaching areas include Structural Design and Geotechnical Inspections. Scientific Awards and Honors: Outstanding Employee Award (DLZ) Best Managed Project Award (DLZ) Professional Involvement: He serves on the American Concrete Institute Committees 228 (Non Destructive Testing) and 311 (Inspection of Concrete), International Union of Operating Engineers, Local 150 Apprenticeship Committee, Northwest Indiana Business Roundtable Executive Committee, Construction Advancement Foundation Education Committee, and LaPorte School System Advisory Committee. His industry experience includes roles at DLZ, Precision Surveillance Corporation, and Axelrod Construction.

Stephen BeckView profile

Professor

• Fluid Mechanics
• Flow Measurement
• Pipeline Leak Detection
• +5 more

Professor Stephen Beck is a faculty member at the University of Sheffield, affiliated with the School of Mechanical, Aerospace and Civil Engineering. He holds a PhD in Mechanical Engineering from the University of Sheffield (1992) and has been a key figure in advancing engineering education and fluid mechanics research. Director of the Centre for Engineering Education (CEE) Instrumental in designing the Diamond building First Faculty Director of Learning and Teaching (2008-2014) His research spans experimental fluid mechanics, leak detection in pipelines, energy systems in buildings, and educational pedagogy. Recent work focuses on optimizing laboratory teaching methods and remote practicals during pandemics. Professor Beck’s publications analyze leak detection systems (e.g., cepstrum analysis, vibro-acoustic measurements) and energy efficiency strategies (e.g., heat pump modeling, building energy use). His 15 most recent articles reflect a blend of fluid dynamics, sustainability, and pedagogical innovation. CATE award for collaboration (2021) Published extensively on pressure wave analysis and educational frameworks He has supervised 28 PhD and MPhil students, including Butterfield (leak signal analysis), AlHarbi (pipeline leak detection), and Castleton (building energy systems). As Faculty Director of Learning and Teaching, he oversaw curriculum reforms like activity weeks and reduced winter exams. The Diamond building, under his leadership, centralizes multidisciplinary laboratory teaching with 50 staff, redefining practical engineering education. His work combines experimental, CFD, and analytical techniques to improve teaching scalability and energy efficiency.

• Durability of brittle construction materials
• Structural resilience of existing buildings
• Non-destructive testing (NDT) techniques
• +3 more

Els Verstrynge is an Associate Professor at the Department of Civil Engineering, Faculty of Engineering Science, KU Leuven. Her work focuses on the durability of brittle construction materials and structural resilience of existing buildings , particularly those of architectural heritage. She leads interdisciplinary research projects utilizing multi-scale numerical modeling, advanced non-destructive testing (NDT), and 4D X-ray tomography to study concrete and masonry degradation. Research emphasizes reinforcement corrosion , fatigue fracture , and climate-induced degradation Develops Bayesian updating techniques for corrosion assessment and AI-driven structural analysis (CHAI project) Supervises PhD research on fracture mechanics and degradation processes Her work bridges experimental and computational methods, contributing to conservation strategies for aging infrastructure and innovative reuse of building materials.