Elisa Mejía-Mejía is a researcher at City, University of London , specializing in Biomedical Engineering with a focus on Photoplethysmography (PPG) signal analysis for cardiovascular monitoring. Her work bridges Physiological Measurement and Signal Processing , with key publications in Frontiers in Physiology , Biomedical Signal Processing and Control , and npj Digital Medicine . Developed PRV analysis protocols for Intracranial Pressure Monitoring (2023) Validated In-Vitro Tissue-Vessel Phantoms for PPG research (2020-2022) Created Outlier Management Frameworks for PPG data (2022) Her 15+ publications (2020-2023) demonstrate expertise in PRV/HRV relationships , blood pressure estimation , and optical sensor development . She collaborates with Prof. Panicos Kyriacou and has presented at IEEE EMBC and Sensors conferences.
Vito Fernicola serves as an external teaching collaborator at the Department of Energy (DENERG) at Polytechnic University of Turin, where he teaches courses across multiple academic programs including PhD Metrology, Master's in Energy and Nuclear Engineering, and Bachelor's in Energy Engineering. His academic responsibilities span from 2014/2015 through the current 2024/2025 academic year. His research focuses on precision measurement techniques in thermal and energy systems, with particular expertise in water and humidity measurement standards, temperature metrology using optical resonators, and energy efficiency applications. Dr. Fernicola's work bridges theoretical metrology with practical engineering solutions for industrial applications, especially in trace water measurement for energy gases and advanced thermal characterization methods. His publications demonstrate consistent contributions to metrology standards and thermal measurement technologies. Analysis of his publication record reveals sustained research activity from 2016 through 2024, with increasing focus on trace water measurement standards, thermochemical energy storage materials, and precision temperature metrology using whispering gallery mode technology. His work spans both fundamental metrology research and applied energy systems engineering, with strong connections to industrial measurement challenges. Dr. Fernicola actively supervises PhD research, currently guiding Rezvaneh Nobakht Parashkouhi in developing trace water measurement standards for process and energy gases. His teaching portfolio demonstrates deep commitment to energy engineering education across all academic levels, from bachelor's to doctoral programs, with consistent involvement in metrology and thermal measurement coursework.
Pedro Almeida is an Assistant Professor with Agregação at the University of Madeira, where he leads the High Pressure Plasmas Group at Instituto de Plasmas e Fusão Nuclear (IPFN). He also serves as Vice-President of the Faculty of Exact Sciences and Engineering and as a member of the IPFN Administration Board. His academic career spans roles from Scientific Initiation Fellow (2000) to Assistant Professor with Agregação (2023). BSc in Physics (2001, University of Madeira) MSc-equivalent: Provas de Aptidão Pedagógica e Capacidade Científica (2006, University of Madeira) PhD in Physics (2011, University of Madeira) Agregação (2023, University of Madeira) Almeida’s research focuses on plasma discharges , particularly corona/streamer discharges , self-organized cathode spots , and breakdown phenomena in gases and vacuum. His work combines theoretical modeling with computational tools like COMSOL Multiphysics to study discharge stability and applications in energy systems. His 15 most recent publications (2025-2017) emphasize numerical simulations of low-current discharges , self-organization , and electric field dynamics . Key themes include corona stability , cathode spot prevention , and validation of theoretical criteria for discharge ignition. He has participated in research projects funded by FCT , Siemens Corporate Research , and European Union programs like COST and ERDF. Notably, he led the PlasMa project (2019-2021) as Principal Researcher and contributed to industrial modeling for high-voltage systems.
Raúl Hugo Prado Govea is a Collaborating Professor at the University of Alicante within the Architectural Constructions department under the College of Engineering. With a PhD in Environmental Geology and Soil Science of Mediterranean Regions (2011), his work spans teaching, research, and transfer projects focused on architectural restoration, sustainable materials, and historical heritage conservation. Research Interests: His expertise lies in bioclimatic design, construction material analysis, and preservation of historical structures. Key projects include studies on radon gas in buried industrial architecture, Passivhaus standards in Mediterranean housing, and zeolite applications in architectural restoration. Scientific Contributions: While recent journal publications are limited, he has contributed to book chapters on cross-disciplinary coordination and sustainable ceramic architectural solutions. His research emphasizes practical applications in construction material durability and energy efficiency.
Prof. Dr.-Ing. habil. Volker Kühn serves as Professor and Head of the Institute of Communications Engineering at the University of Rostock within the Faculty of Computer Science and Electrical Engineering. He concurrently holds the position of Vice Dean of the Faculty while directing academic operations as Chairman of both the Electrical Engineering and Medical Information Technology Examination Boards. His research integrates wireless communications theory with biomedical applications, specializing in spatial modulation techniques, information bottleneck optimization, and electrical impedance tomography signal processing. Current work focuses on machine learning-enhanced physiological monitoring systems and distributed compression algorithms for sensor networks, with significant contributions to bias-free spectral estimation from irregularly sampled data. Analysis of his 2021-2025 publications reveals three dominant research thrusts: (1) neural network applications for medical signal processing, (2) information-theoretic optimization of communication protocols, and (3) advanced spectral estimation methods for biomedical and sensor data. This interdisciplinary approach bridges communications engineering with healthcare technology development. Prof. Kühn actively mentors students as Study Advisor for Electrical Engineering and Academic Advisor for Medical Information Technology. His leadership extends to the ITG Technical Committee 5.1 on Information and Systems Theory and IEEE societies. The Institute of Communications Engineering under his direction maintains specialized laboratories for wireless communications testing, medical signal acquisition, and MIMO system prototyping, supporting both fundamental research and industry collaboration projects in 5G/6G technologies and healthcare IoT.
Dr. Volkmar Schultze is a Researcher in the Quantum Systems Work Group Quantum Magnetometry at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany. His work focuses on developing high-resolution magnetic field sensors using optically pumped magnetometers (OPMs) and superconducting quantum interference devices (SQUIDs) for applications in geomagnetic prospection (e.g., archaeometry) and biomedical investigations (e.g., magnetoencephalography). His research spans sensor design, noise reduction, and orientation error compensation. Key contributions include innovations in light-shift dispersed Mz (LSD-Mz) mode and heading error mitigation in Earth’s magnetic field. He collaborates on magnetorelaxometry imaging and quantum-limited resolution systems, with a focus on eliminating magnetic shielding requirements. Recent publications highlight advancements in portable OPM systems (2022), dead-zone-free sensors (2023), and spin-exchange relaxation suppression (2016). His work bridges quantum physics , applied instrumentation , and cross-disciplinary applications in geophysics and medicine. Labs & Teams : He collaborates with interdisciplinary teams at Leibniz-IPHT, including co-authors like Gregor Oelsner, Christian B. Schmidt, and Ronny Stolz. His work integrates theoretical modeling (e.g., density-matrix simulations) with experimental sensor development.
Miodrag Hadžistević is a Full Professor at the Department of Production Engineering within the Faculty of Technical Sciences at the University of Novi Sad. His career spans over two decades, including roles as Assistant Professor (2005-2010) and Associate Professor (2010-2015) in the same department. Academic Timeline Full Professor (2015-present) Associate Professor (2010-2015) Assistant Professor (2005-2010) Administrative Roles Head of Department of Production Engineering (2012-2018) Head of Chair of Metrology, Quality, Equipment, Tools, and Ecological-Engineering Aspects (2018-2024) His research focuses on precision engineering, quality management, and manufacturing technologies. Key contributions include innovations in coordinate measuring machine accuracy, flatness error evaluation, and dental engineering applications. Publications span journals like Precision Engineering , Metalurgija , and Journal of Craniofacial Surgery . While no explicit awards are mentioned, his work demonstrates expertise in metrology, tool design, and ecological-engineering aspects. Recent articles reveal a strong emphasis on dimensional accuracy analysis, dental prosthetics fabrication, and advanced manufacturing methods. His work integrates CAD/CAE systems, Monte Carlo simulations for uncertainty evaluation, and rapid prototyping technologies. The research also explores material behavior in machining processes and corrosion protection techniques.
Prof. Dr.-Ing. Gabi Schierning is a Professor at the University of Duisburg-Essen (UDE), affiliated with the Institute for Energy and Material Processes (EMPI) and the Applied Quantum Materials research group. She maintains an active research program focused on thermoelectric materials and quantum materials, with extensive publications spanning from 2003 to the present. Her research primarily focuses on thermoelectric materials and energy conversion technologies. Her work spans fundamental material science investigations to practical device applications. She has made significant contributions to understanding the thermoelectric properties of silicon-based nanomaterials, topological materials, and quantum materials. Her research group develops novel synthesis methods for thermoelectric materials, investigates fundamental transport mechanisms, and designs micro-thermoelectric devices for practical applications including waste heat recovery and powering IoT devices. Analysis of her recent publications (2022-2025) reveals a strong focus on advanced thermoelectric materials characterization, quantum transport phenomena in topological materials, and the development of micro-scale thermoelectric devices. Her work bridges fundamental physics with practical engineering applications, particularly in energy harvesting technologies. She frequently employs advanced characterization techniques including X-ray photoelectron spectroscopy, magneto-transport measurements, and thermal imaging to understand material properties at multiple scales. Prof. Schierning has received support through the ERC Mentoring program at UDE, which provides comprehensive support for researchers applying for European Research Council grants. Her research group includes several doctoral students and postdoctoral researchers as evidenced by consistent co-authorship patterns. She collaborates extensively with researchers both within UDE and internationally. The research environment includes specialized equipment for materials synthesis, characterization, and device fabrication, as indicated by references to plasma synthesis, sintering techniques, and thermoelectric characterization platforms in her publications.
Professor Michael Horn-von Hoegen leads the experimental physics group at the University of Duisburg-Essen's Faculty of Physics, focusing on surface dynamics and 2D material behavior through ultrafast electron diffraction and microscopy. With over 185 publications and significant citations (h=42), his work bridges fundamental quantum phenomena and applied nanotechnology. Academic Roles: DFG Liaison Professor, Dean's Office member, former SFB 616 spokesperson Key Projects: CRC 1242 'Non-equilibrium Dynamics' with projects on phonon transport, plasmonics, and atomic wire systems Research Focus: Specializes in heteroepitaxy , topological plasmonics , and nanoscale heat transport through techniques like time-resolved LEED and ultrafast electron microscopy . Notable discoveries include negative thermal expansion in hBN and surfactant-modified epitaxy mechanisms . Recent Article Trends: 2023-2025 publications demonstrate expertise in fractional angular momentum systems, phase transition dynamics , and defect-free 2D material growth using advanced interferometry and microscopy techniques. Scientific Awards: IBM Postdoctoral Fellowship Heinz-Maier-Leibnitz Prize iCORE Visiting Professor Grants Academic Leadership: Advises multiple PhD candidates while maintaining collaborative projects with institutions across Canada, Australia, and Europe. His group provides training in cutting-edge methods like single-path interferometry and plasmon-enhanced electron emission within the DFG-funded CRC 1242 graduate school.
Dr. Sam Stennett is an Adjunct Research Fellow at the School of Mechanical and Mining Engineering , The University of Queensland , specializing in Hypersonics and advanced shock tunnel technology. His research focuses on developing and optimizing experimental facilities like the X3R Free-Piston Reflected Shock Tunnel for long-duration hypersonic testing. University: The University of Queensland School: School of Mechanical and Mining Engineering Rank: Research Fellow Email: s.stennett@uq.edu.au Stennett's work bridges Mechanical Engineering and Aerospace Engineering , emphasizing Computational Fluid Dynamics (CFD) validation, 3D Flow Analysis , and Experimental Fluid Dynamics . He contributes to shock tunnel design and hypersonic flow modeling , collaborating with experts like Prof. Peter Jacobs and Dr. David Gildfind. His publications highlight advancements in free-piston driver optimization , piston trajectory measurement , and CFD solver development , with a 2024 study in Experiments in Fluids demonstrating multi-mode shock expansion tunnel capabilities.
Aleksi Tamminen serves as a Lecturer in the Department of Electronics and Nanoengineering at Aalto University, Finland, specializing in terahertz and submillimeter-wave technologies with significant biomedical applications. His academic role bridges electrical engineering, optics, and medical diagnostics, focusing on instrumentation development for non-invasive corneal water-content sensing. His research expertise spans: Terahertz imaging system design Quasioptical measurement techniques Submillimeter-wave holography Biomedical sensor development Corneal diagnostic instrumentation Analysis of his 15 most recent publications (2023-2025) reveals a concentrated evolution toward automated optimization frameworks and telecentric imaging systems. His work increasingly integrates computational methods (automatic differentiation, boundary integral techniques) with optical engineering to solve calibration challenges in cryogenic and biomedical contexts. A dominant theme across 70% of these publications is corneal sensing, demonstrating sustained focus on ophthalmic applications of terahertz technology. While specific awards remain undocumented in source materials, his extensive publication record in SPIE journals and IEEE transactions indicates recognition within the terahertz research community. His technical contributions to quasioptical calibration standards and frequency-diverse holography represent significant methodological advances. Dr. Tamminen's academic activities include teaching within Aalto's microelectronics curriculum and collaborative research with medical institutions for terahertz corneal diagnostics. His laboratory work centers on developing vacuum-compatible measurement systems and compact imaging apparatus for submillimeter-wave applications, with ongoing projects targeting real-time video-rate imaging for medical diagnostics.
María José Madero Ayora is a Professor at the Department of Signal Theory and Communications , Universidad de Sevilla , specializing in nonlinear system modeling and digital predistortion for wireless communication systems. Her research focuses on Volterra series applications in power amplifier linearization, microwave measurements , and machine learning techniques for signal processing. Principal Investigator for projects like Statistical Signal Modeling for Brain-Computer Interfaces (PID2021-123090NB-I00) Recipient of the Arftg Roger Pollard Student Fellowship in microwave measurement Her work spans 5G waveform linearization , I/Q modulator impairments , and thermal memory effects in RF amplifiers. Recent publications combine sparse Bayesian methods with Volterra models to address nonlinear distortion in OFDM and visible light communication systems. She has supervised doctoral theses and participated in international conferences across the U.S., Europe, and Asia.
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.
Ramis Örlü is a Professor at Oslo Metropolitan University (OsloMet) in the Department of Mechanical, Electronics and Chemistry within the Faculty of Technology, Art and Design. He previously held positions at KTH Royal Institute of Technology (Associate Professor in experimental fluid physics) and the University of Bologna (Adjunct Professor). He has also served as a Visiting Professor at Karlsruhe Institute of Technology, Friedrich-Alexander-Universität Erlangen, and Turkish-German University. Education: Engineering Degree (Dipl.-Ing.) in Mechanical Engineering, Ruhr University Bochum, Germany (2003) Ph.D. in Engineering Mechanics (experimental fluid dynamics and turbulence), KTH Royal Institute of Technology, Sweden (2009) Örlü's research focuses on turbulent flows, particularly drag and friction reduction through passive/active control techniques. His work combines large wind tunnel experiments, advanced measurement methods, and high-fidelity simulations for cross-validation. He contributes significantly to fluid dynamics journals and conferences. Scientific Contributions: Recent publications (2022–2025) highlight studies on turbulent boundary layers, NACA wing aerodynamics, helical pipe flow stability, and innovative measurement techniques. His article trends emphasize computational/experimental synergy, adverse pressure gradient effects, and vortex dynamics. Leadership: He serves as Managing Editor of Experimental Thermal and Fluid Science , Editorial Board member for Flow, Turbulence and Combustion and Advances in Aerodynamics , and Co-Editor of the Progress in Turbulence series.
Mark Ferris is a Senior Research Fellow at the National Institute of Standards and Technology (NIST), affiliated with the Magnetic Imaging Group. His research specializes in developing hydrogel composites for advanced sensors, including Nuclear Magnetic Resonance (NMR) technologies and smartphone-integrated detection systems. Key focuses include geometrical sensor design, fabrication protocols, and multiplexed sensing capabilities. Research Focus Ferris's work spans: Smart Hydrogels : Responsive materials for real-time analyte detection. Smartphone-based Sensing : Leveraging consumer devices for portable diagnostics. NMR Profiling : Non-invasive material characterization and swelling dynamics analysis. Publication Trends His recent articles (2018-2024) demonstrate consistent innovation in sensor platforms, emphasizing nanomaterials (silicon nanocrystals, hydrogels), optical/luminescent detection methods, and strategies for sensitivity control. Cross-disciplinary themes span materials science, analytical chemistry, and nanotechnology. Research Environment Ferris conducts experiments within NIST's Magnetic Imaging Group, which pioneers micro/milliscale hydrogel sensors for multidimensional variable measurement.
