Edward Canepa is a Researcher at the Department of Mechanical, Energy, Management and Transport Engineering (DIME) at the University of Genoa (UNIGE). He serves as a member of the Joint Teacher-Student Commission within the Polytechnic School. Specializes in fluid machines and marine propulsion systems Teaches MACHINES (code 66163) and SAILING YACHT AERO-HYDRO-DYNAMICS (code 91074) Conducts experimental research on fluid dynamics and propulsion efficiency Research Focus: His work examines alternative fuels for marine propulsion, flow field analysis around ship propellers, and leakage flow characterization in axial fans. Current projects include well-to-wake environmental impact assessments and hydrodynamic performance optimization. Publications: Recent research includes studies on unsteady leakage flows in axial fans, inclined shaft propeller dynamics, and sustainable marine fuel alternatives. His work contributes to improving propulsion efficiency and reducing environmental impact in maritime engineering.
Khalil Khanafer is an Assistant Professor of Mechanical Engineering at the Department of Engineering, College of Innovation and Technology, University of Michigan-Flint. His research focuses on Thermal Management, Computational Fluid Dynamics (CFD), Nanotechnology, Additive Manufacturing, and Transport in Porous Media. His scholarly contributions include advancements in Phase Change Materials (PCM) for energy-efficient systems, such as solar panels and supercapacitors, and studies on 3D-printed metallic and polymeric materials. He has also explored applications of nanofluids in thermal systems and fluid-structure interactions in microcantilevers. Scientific awards include the 2025 Scholarly or Creative Achievement Award, 2024 MWIN Faculty Innovation Fellowship, and Stanford University's 2024 Top 2% Scientists list recognition. Current research grants address topics like 3D printing for pet prosthetics and vascular targeting nanoparticles. His work spans from 2025 to 2024 and emphasizes interdisciplinary approaches combining thermal analysis, numerical modeling, and additive manufacturing innovations.
Pietro De Palma serves as a Full Professor in the Department of Mechanics, Mathematics & Management at the Polytechnic University of Bari, Italy. His research focuses on fluid machinery systems with applications spanning hydrogen propulsion, renewable energy conversion, and fundamental fluid dynamics. Contact details include email pietro.depalma@poliba.it and office phone +39 080 596 3226 at Via Orabona 4, Bari. His primary research domains encompass Fluid Dynamics , Combustion Engineering , and Turbomachinery , with specialized expertise in hydrogen engine combustion phenomena, wind turbine aerodynamics, and thermal management systems. Recent work investigates lubricant oil interactions in hydrogen engines, Coriolis effects on wind turbine wakes, and stability mechanisms in transitional channel flows. He employs advanced computational methods including Large Eddy Simulation (LES), Reynolds-Averaged Navier-Stokes (RANS), and Dynamic Mode Decomposition (DMD) for complex fluid-structure interactions. Analysis of his 15 most recent publications (2024-2026) reveals three dominant research thrusts: (1) Hydrogen propulsion systems addressing pre-ignition mechanisms and combustion characterization, (2) Wind energy optimization focusing on wake dynamics and floating platform simulations, and (3) Fundamental fluid mechanics exploring coherent structures in turbulent flows. His work consistently bridges theoretical fluid dynamics with practical energy system challenges, particularly in decarbonization technologies. No scientific awards were documented in the provided sources. While student advising details are unavailable in the scraped materials, his extensive publication record indicates active mentorship in mechanical engineering research. No specific grant information appears in the sources, though his involvement in projects like PONa3_00372 'Innovative Processes for Energy Conversion–PrInCE' suggests competitive funding acquisition. Research activities appear centered within the university's Department of Mechanics, Mathematics & Management, with collaborations evident in wind energy and combustion studies through co-authored publications. His work connects with international initiatives like the IEA Wind Task 32 on wind turbine wake behavior.
Dr. Evangelos H. Papakitsos serves as a Lecturer in the Department of Industrial Design and Production Engineering at the University of West Attica. A physicist by training (National & Kapodistrian University of Athens, 1987), he holds advanced degrees in Information Systems (University of Liverpool, 1992) and Informatics (National & Kapodistrian University of Athens, 2000), with postdoctoral specialization in Semantic Lexical Databases. His academic journey spans four higher education institutions since 1993, including National Technical University of Athens and National & Kapodistrian University of Athens. His research spans interdisciplinary domains at the intersection of technology and humanities, with primary focus on Natural Language Processing , Digital Humanities , and Systems Science . Key research thrusts include computational linguistics for ancient scripts (particularly Linear A and Indus Valley), energy harvesting systems, environmental physics applications, and robotics for defense and environmental monitoring. His recent publications (2021-2025) demonstrate strong activity in nanotechnology applications for water purification, unmanned vehicle systems, and computational approaches to linguistic decipherment. Dr. Papakitsos has developed significant expertise in bridging engineering disciplines with humanities through his work on: Machine-readable dictionaries for ancient scripts Energy harvesting applications in civil infrastructure Computational analysis of historical linguistics Environmental monitoring robotics His laboratory work centers on Electronic Automation, Telematics and Cyberphysical Systems, reflecting his systems-oriented approach to complex interdisciplinary problems. Teaching responsibilities include undergraduate courses in General Physics, Optimization Methods, and Fluid Mechanics, plus postgraduate instruction in Automation Information Systems, Energy Management, and Unmanned Systems within the "Unmanned Autonomous and Remotely Piloted Systems" program. His educational background in career counseling informs interdisciplinary approaches to curriculum development, particularly evident in his work on the systemic evaluation of tourism marketing strategies during the pandemic.
Dr. Khalid Zouhri serves as an Associate Professor and program leader of mechanical engineering technology within the Department of Engineering Management, Systems, and Technology at the University of Dayton's School of Engineering. With over a decade of aerospace industry experience spanning roles at Timco Aviation, Pratt & Whitney, and Radiall Aerospace, he brings substantial practical expertise to his academic position. His doctoral training in mechanical engineering complements his industrial background in propulsion systems and materials testing. His educational foundation includes: Ph.D. in Mechanical Engineering from Michigan Technological University (2016) M.B.A. from Southern Connecticut State University (2012) B.S. in Mechanical Engineering from North Carolina A&T State University (2008) Aircraft structure mechanic diploma from Guilford Technical Community College Aviation Campus/Timco Aviation Dr. Zouhri's research spans nanomaterials characterization, high-temperature materials behavior for propulsion systems, corrosion prevention, and electrochemical reactions for energy conversion devices. His thermal-fluid sciences work includes electron/phonon transport modeling, bio-fluid mechanics using particle image velocimetry, and turbulence analysis of jets and bluff bodies. This multidisciplinary approach bridges materials science with energy conversion applications. His publication record reveals strong trends in energy conversion technologies, particularly solid oxide fuel cells and dye-sensitized solar cells, where he applies exergy analysis to optimize performance. Simultaneously, his fluid dynamics research focuses on turbulent flows, bluff body wakes, and condition monitoring of mechanical systems using advanced signal processing techniques like wavelet analysis. These dual research streams demonstrate consistent application of thermodynamic principles to both energy systems and fluid mechanics challenges. Dr. Zouhri actively contributes to engineering education through courses including Strength of Materials, Advanced Fluid Mechanics, Thermodynamics, and Statics. His professional affiliations with ASME and ASEE reflect his commitment to the mechanical engineering community. His industry-academia trajectory provides unique perspective for developing practical engineering solutions while advancing fundamental research in materials and thermal-fluid sciences.
Johan Persson is a Senior Lecturer at Mid Sweden University's Department of Engineering, Mathematics and Subject Didactics (IMD). He is affiliated with the FSCN Research Centre and serves as Director of Studies in technical design. His research spans mechanical engineering, materials science, and computational modeling. Education: PhD in Mechanical Engineering (2015) from Mid Sweden University. Research interests include: Dynamic crack propagation in discontinuous materials Fluid dynamics of pulp flow in industrial processes Mechanical behavior of fiber-reinforced composites Geometrical optimization of industrial components Computational modeling of fracture mechanics Thermal management in electrical systems Publication trends show focus on pulp flow analysis, mechanical failure prediction, and computational modeling of fiber materials. Recent work applies machine learning to pulp particle classification and investigates fatigue damage in additive-manufactured alloys. Labs & Teams: Collaborates with the FSCN Research Centre on fiber material science and participates in projects like ExpoFiber, NeoPulp, and ModDD.
Dr. Yuanming Wang is a Postdoctoral Fellow in Fast Radio Bursts at the School of Science, Computing and Emerging Technologies , Swinburne University . Holding a PhD in Astronomy from the University of Sydney , he specializes in detecting rapidly changing radio transients using the ASKAP telescope in Western Australia, with notable contributions including the discovery of the most luminous pulsar in the Large Magellanic Cloud. His research spans Fast Radio Bursts , neutron star physics , and long-period radio transients , aiming to bridge gaps in pulsar spin periods and tidal disruption event models. Key projects include FRB localization , radio star cataloging with eROSITA cross-matching, and transient detection pipeline optimization for SKA-scale data processing. Recent publications (2023–2025) focus on multiwavelength observations of periodic nuclear transients, X-ray-radio correlations in long-period sources, and astrometric refinements for cosmological tools. His work also highlights highly scattered pulsars and redback binary candidates , expanding understanding of extreme astrophysical phenomena. Dr. Wang is available for supervising Doctorate (PhD) projects in Fast Radio Burst discovery and advanced signal processing . He contributes to the ADS publication library and collaborates with international teams on radio surveys for the Deeper, Wider, Faster program .
Rossitza Pentcheva is a Professor at the University of Duisburg-Essen leading research in quantum materials and energy conversion through ab initio modeling. Her work focuses on transition metal oxides thermoelectric heterostructures photoelectrochemical water splitting spin-resolved electronic states strain and disorder effects in Heusler alloys at the nanoscale. Recent research trends include topological phases in oxide superlattices lattice-electronic coupling in magnetocaloric systems orbital engineering via geometric constraints machine-learned force fields for nonequilibrium dynamics defect-mediated tuning of oxygen evolution catalysts across collaborative projects like CRC1242 and TRR270. Her group has produced 12 doctoral graduates since 2019, with ongoing contributions to Nature Materials and Science publications. Selected scientific collaborations span institutions in Germany, US, Canada, and Italy, driving European patents and machine-learning frameworks for material discovery.
Dr. Laurynas Dagys is a Senior Researcher at the Institute of Chemical Physics (IChP) within the Faculty of Physics at Vilnius University, Lithuania. His research focuses on advanced Nuclear Magnetic Resonance (NMR) techniques, particularly in the areas of hyperpolarization, low-field NMR, and nuclear singlet states. Dr. Dagys' primary research interests include: NMR Spectroscopy for enhanced signal detection Hyperpolarization techniques to amplify magnetic resonance signals Low-field NMR applications for cost-effective medical and scientific instrumentation Nuclear singlet states for extended spin coherence and novel imaging applications Quantum spin dynamics in biological and chemical systems Development of microfluidic platforms for hyperpolarized metabolite production His recent work demonstrates significant advancements in parahydrogen-induced polarization methods, achieving over 20% carbon-13 polarization for metabolites like pyruvate. These breakthroughs have important implications for medical imaging, particularly in developing more affordable and accessible diagnostic tools. Dr. Dagys has pioneered techniques for hyperpolarization on microfluidic devices, enabling direct production of hyperpolarized metabolites for potential clinical applications. His research bridges physics, chemistry, and biomedical engineering, with applications ranging from fundamental quantum mechanics to practical medical diagnostics. Dr. Dagys was awarded the Erwin-Schrodinger-Prize in 2021 for developing a technique that amplifies magnetic resonance signals inexpensively and extraordinarily, highlighting the significance and impact of his research. This work has opened new possibilities for making advanced NMR and MRI technologies more accessible globally. He teaches courses in Physics and Optics at Vilnius University, contributing to the education of future scientists and researchers in these fundamental disciplines. His collaborative research involves international partnerships with institutions across Europe and the United States, reflecting the global significance of his work in advancing NMR technology. Dr. Dagys maintains an active research profile with numerous publications in high-impact journals including Science Advances, PNAS, and Journal of the American Chemical Society.
Eamon Scullion is a researcher at Northumbria University specializing in observational solar physics, image processing, and data analysis of solar atmospheric phenomena. His work bridges theoretical astrophysics and engineering applications through projects like the Autonomous Laser Inter-Satellite Gigabit Network (ALIGN) and CubeSat optical communication systems. Affiliated with institutions including the University of Oslo and Trinity College Dublin, he has led multiple high-impact space missions.
Jochen Fröhlich is a Professor at the Department of Fluid Mechanics, Technische Universität Dresden (TUD), College of Engineering. His research focuses on computational fluid dynamics (CFD), fluid-structure interaction, and multiphase flows. University: Technische Universität Dresden Department: Fluid Mechanics Academic Rank: Professor His recent work emphasizes large-eddy simulation (LES) , direct numerical simulation (DNS) , and turbulent flow analysis in systems like aquatic canopies, compressor cascades, and sediment transport. Key applications include industrial cleaning processes , bubble dynamics , and microfluidic particle migration . The 15 most recent publications highlight his expertise in fluid-structure interaction , collision modeling , and CDF-driven process optimization . Subfields span turbulent boundary layers , non-spherical particle dynamics , hydrodynamic drag prediction , and flexible structure simulations .
Gennady Lubarsky is a CHIC Research Fellow in Electronic & Computing Engineering at Ulster University's School of Engineering, working across both the Belfast campus (2-24 York Street) and Jordanstown Campus. His research spans material science, nanotechnology, and biomedical engineering with applications in health diagnostics and structural monitoring. His research interests include: Graphene and carbon-based nanomaterials Atomic Force Microscopy and surface characterization Microfluidic devices and lab-on-a-chip systems Biosensors and point-of-care diagnostic technologies Machine learning applications in structural health monitoring Nanophotonic sensing for medical applications Dr. Lubarsky's publication record shows a consistent research trajectory from fundamental material science to applied biomedical technologies. His recent work (2020-2024) demonstrates a strong focus on developing innovative diagnostic tools for medical applications, including microneedle-based blood sampling, cell rotation technologies for bioimaging, and machine learning approaches for structural monitoring. His earlier work (2000-2015) established expertise in material characterization, particularly with graphene and carbon-based materials. His scientific contributions have been recognized through citations across multiple disciplines. His work has been cited in patents and has garnered attention on academic platforms like Mendeley. Dr. Lubarsky serves as a peer reviewer for prestigious journals including Advanced Science and Review of Scientific Instruments, demonstrating his standing in the scientific community. His research contributes to UN Sustainable Development Goals, particularly in health and technology innovation.
Peter Averkiou, M.D. is an Associate Professor of Pediatrics at Florida Atlantic University's Charles E. Schmidt College of Medicine. He serves as Co-Director of M1 and M2 Clinical Education, Director of the Newborn Nursery Clinical Rotation, and Director of Service Learning Projects. His roles include advising medical students, teaching clinical skills, and contributing to curriculum development. Education B.S. (1985), CUNY School of Medicine M.D. (1988), Albany Medical College Pediatrics Internship (1988-1989), Albert Einstein College of Medicine/Montefiore Medical Center Pediatrics Residency (1989-1991), Albert Einstein College of Medicine/Montefiore Medical Center Dr. Averkiou's research interests span Pediatrics, Medical Education, Public Health, and Road Safety. He has published on topics linking infectious diseases to hospital logistics and urban transportation, as well as traffic engineering and accident analysis. He has been recognized with awards such as America’s Top Pediatricians and the Rouseau Foundation-Rouseau Guardian Award , and has served on committees like the Interprofessional Education Development Sessions and the YMCA Diabetes Prevention Program Advisory Board.
Olivier Février is a Researcher at the Swiss Plasma Center (SPC-PB) and a Lecturer at the School of Basic Sciences (SB), both affiliated with École Polytechnique Fédérale de Lausanne (EPFL). His academic career spans advanced plasma physics research and teaching in nonlinear dynamics and complex systems. Research Focus: Plasma detachment, divertor optimization, tokamak power exhaust, magnetic confinement, and impurity transport. Teaching: Nonlinear dynamics, chaos theory, and complex systems with hands-on numerical applications. Publications & Trends: His work emphasizes tokamak edge plasma scenarios, nitrogen seeding for detachment, X-point radiator regimes, and computational modeling using SOLPS-ITER. Key themes include magnetic topology, neutral baffling, and ELM mitigation strategies. Student Supervision: Advises PhD candidates such as Brown Benjamin Yong Kwak, Carpita Massimo, and Durr-Legoupil-Nicoud Garance Hélène Salomé, focusing on advanced plasma confinement and exhaust techniques.
Stephen L. Teitel is a Professor in the Department of Physics and Astronomy at the University of Rochester . He joined the university as an Assistant Professor in 1986, was promoted to Professor in 1999, and served as Associate Chair from 2013-2018. His research focuses on theoretical condensed matter physics, particularly statistical mechanics, critical phenomena, and jamming transitions in granular systems. BS and PhD in Physics from Cornell University (1975, 1981) Postdoctoral appointments at Ohio State University (1981-83) and Weizmann Institute (1983-86) Recent work examines jamming behavior in athermal frictionless systems, with studies on compression-driven transitions, shear-induced flow, and particle shape effects. His research also extends to superconductivity and nanostructure stability. Notable awards include: Fellow of the American Physical Society (2000) Excellence in Teaching Award (2000, 2016) University Bridging Fellowship (2003) APS Outstanding Referee (2011)
