Fabrice LEMOULT is an Associate Professor at Institut Langevin , ESPCI Paris - PSL University. His research focuses on experimental wave physics in complex media, particularly metamaterials, acoustics, and soft matter mechanics. Research Highlights : Wavefront shaping, Dirac cone manipulation, time-reversal applications, and subwavelength acoustic/elastic wave control. Key Collaborations : Mathias Fink, Geoffroy Lerosey, Sébastien Popoff, Claire Prada. Recent Work Trends : Studies on elastic wave dynamics in soft materials (2024), acoustic metasurfaces for noise isolation (2024), and microwave metamaterials for topological effects (2024). Earlier works explore superlensing (2015), phononic crystals (2016), and nonreciprocal wave propagation (2017). Advising & Outreach : Mentored 11 doctoral/postdoctoral researchers, including Samuel Croquette and Simon Yves. Advocates for frugal science and public engagement via platforms like @FabLemoult on scicomm.xyz .
Alexandre Aubry is a Research Director at CNRS affiliated with the Institut Langevin in Paris. His work focuses on imaging through complex media using wave physics principles, with applications in ultrasonic imaging, optical microscopy, seismic imaging, and radar technology . He leads projects supported by the ERC Consolidator Grant REMINISCENCE and ANR COPPOLA , and has co-founded the biomedical imaging company OWLO . Education: Habilitation à Diriger des Recherches, Université Paris Sciences & Lettres (2022) Post-Doc under John Pendry, Imperial College London (2008-2010) PhD under Arnaud Derode, Université Pierre et Marie Curie (2008) Engineer's Degree, ESPCI ParisTech (2005) Research Highlights: He developed 3D ultrasound matrix imaging to overcome wavefront distortions in biomedical applications, and pioneered passive seismic matrix imaging for volcanic structure mapping. His theoretical contributions include distortion matrix formalism for aberration correction and multiple scattering analysis in heterogeneous media. Scientific Awards: ERC Consolidator Grant REMINISCENCE ANR COPPOLA grant Research Team: Currently supervising 9 active PhD students and 5 postdoctoral researchers , with a track record of mentoring 12 former team members including prominent researchers like François Legrand and Laura Cobus.
Professor Richard Porter (B.Sc., Ph.D. Bristol) is affiliated with the School of Mathematics at the University of Bristol , contributing to the Cabot Institute for the Environment. His research focuses on wave phenomena across fluids, elasticity, electromagnetics, and acoustics, with applications in ocean wave energy converters, metamaterials, ice wave interactions, and variable bathymetry studies. Education: B.Sc. and Ph.D. from University of Bristol Research Themes: Wave Energy, Metamaterials, Fluid-Structure Interaction, Environmental Fluid Dynamics Projects: Principal Investigator for "Water wave metamaterials in the design of ocean wave energy converters" (2021-2023) and "WITT Wave Energy Converter" (2015-2016) His work involves mathematical modeling of wave interactions with complex structures, including theoretical frameworks for wave energy extraction and ice sheet dynamics. Recent publications examine wave scattering, resonant absorption, and metamaterial applications in fluid environments. Research outputs include 98 publications with significant contributions to understanding wave propagation in structured media, as evidenced by his Scopus profile and personal webpage at University of Bristol .
Jung Hwan Kim is a Professor in the Department of Energy Resources and Geosystems Engineering at Sejong University. He holds a Ph.D. in Chemical Physics from the University of Maryland at College Park (2001), M.S. (1992) and B.S. (1990) in Physics from Yonsei University. His academic career includes positions as Assistant Research Scientist (2004-2010) and Research Associate (2001-2004) at the University of Maryland/Laboratory for Physical Sciences before joining Sejong University in 2010. Education: Ph.D., University of Maryland at College Park (Chemical Physics, 2001) M.S., Yonsei University (Physics, 1992) B.S., Yonsei University (Physics, 1990) His research focuses on compound semiconductor photovoltaic cells , energy-efficient photonic devices , and high-speed semiconductor devices . Recent work spans battery recycling (closed-loop cathode resynthesis), electrochemical energy systems (CO2 reduction, fuel cells), and advanced photovoltaic device engineering. Articles show trends in semiconductor heterostructures , electrochemical modeling , and sustainable energy materials . Scientific contributions include: Developing heterojunction photovoltaic cells with quantum well structures in GaP 60 GHz optical gain cutoff frequency and 20dB up-conversion gain in phototransistors Monolithic distributed traveling wave photodetectors integrated with polymer waveguides Leading Li-ion battery recycling technologies Developing prototype fuel cell systems He has received multiple Research Excellence Awards (2011-2024) and the Sejong Merit Award (2015). His Electrochemical Energy Conversion & Storage Lab at Sejong University advances energy system technologies, with significant contributions to UN Sustainable Development Goals 7 (Affordable and Clean Energy) and 13 (Climate Action).
Per Lundgren is a Professor at the Electronics Material and Systems department of Chalmers University of Technology. His research focuses on energy storage technologies, carbon-based composites, and nanoelectromechanical systems (NEMS), with applications in microtechnology, millimeter-wave engineering, and sustainable materials. His recent work includes advancements in supercapacitor design using lignin-cellulose composites, plasma-treated carbon fibers, and hybrid electrode materials. He has contributed to high-frequency gap waveguide fabrication and waste heat energy harvesting systems. Notable Projects : Artificial Intelligence for Nanoparticle Emission Analysis (2018) Smart-MEMPHIS: Piezoelectric Energy Harvesting with Supercapacitors (2014-2018) CarPolCap: Hybrid CNT/CNF Electroactive Polymers (2012-2015) Lundgren also emphasizes educational innovation, particularly in adaptive teaching methods and interactive learning tools for semiconductor physics courses.
Weinan Feng is an Assistant Professor at the Faculty of Science and Engineering, specializing in photonics and nanotechnology. His research focuses on advanced photodetector design, nanoparticle manipulation, and optical field confinement. Photonic nanojet elongation via multilayer dielectric microcylinders All-dielectric bowtie core capillaries for bidirectional transport Inverse design of optical absorbers using machine learning High-birefringence nanosized optical fibers His recent work includes developing non-metallic nanoprobes for wavelength-insensitive light field generation and ultra-thin silicon photodetectors with enhanced near-infrared absorption. Applications span biochemical sensing, photonic integrated circuits, and metasurface design.
Hyeonu Heo is an Assistant Professor in the Mechanical Engineering Department at the University of Akron 's College of Engineering and Polymer Science. He joined the faculty in 2024 after serving as a postdoctoral scholar at Penn State University 's Graduate Program in Acoustics (2022-2024) and a postdoctoral fellow in Physics at the University of North Texas (2017-2022). Education: Ph.D. in Mechanical Engineering, University of North Texas (2016) M.E. in Mechanical Engineering, Korea Aerospace University (2012) B.E. in Aerospace Engineering, Korea Aerospace University (2010) Dr. Heo's research focuses on acoustic metamaterials , phononic crystals , and advanced manufacturing techniques for applications in tire noise reduction, vibration control, and ultrasonic technologies. His work explores computational and experimental acoustics, non-reciprocal wave propagation, and thermomechanical properties of hierarchical structures. Recent publications highlight his contributions to contactless ultrasonic power transfer , nonlinear acoustic manipulation , and metamaterials for underwater sensing . His research has theoretical and practical implications in mechanical engineering, biomedical applications, and materials science. Scientific Awards: Early Career Travel Award from the Acoustical Society of America (2022) Postdoctoral Fellowship from the Japan Society for the Promotion of Science (2021) Outstanding Graduate Student Scholarship from the Korea-American Scientists and Engineers Association ASME North Texas Chapter Outstanding Graduate Student Scholarship (2016) Society of Plastics Engineers Scholarship (2015)
Стефан Кирilов Къртунов is a Professor in the Management Department at Technical University of Gabrovo, Bulgaria. With a career spanning over three decades, he has established himself as a prominent figure in mechatronics, micro-nano systems technology, and manufacturing engineering. His work bridges theoretical knowledge with practical applications, focusing on innovative educational approaches and technological advancements in engineering disciplines. Professor Kъртунов's research interests encompass a wide spectrum of engineering fields, with particular emphasis on mechatronics systems, micro and nano technology, production technologies, and educational methodologies for engineering students. His work demonstrates a consistent focus on practical applications of theoretical concepts, especially in the areas of manufacturing processes, quality control, and system integration. He has developed specialized training modules for polymer and hybrid nanocomposites, silicon structures, and optical components that have advanced both educational practices and industrial applications. Analysis of his recent publications reveals a strong trend toward interdisciplinary research that combines mechanical engineering with electronics, materials science, and environmental applications. His work shows increasing focus on sustainable technologies, educational innovation in engineering training, and the integration of modern manufacturing techniques with traditional engineering principles. The recurring themes across his publications include technological optimization, precision manufacturing, and the development of educational frameworks that prepare students for contemporary engineering challenges. Professor Kъртунов has successfully supervised six PhD students through completion, demonstrating his commitment to academic mentorship and the development of the next generation of engineers. His extensive project portfolio includes 15 significant research initiatives, ranging from internal university projects to international collaborations with institutions in Germany, Austria, Romania, and Ukraine. These projects have focused on areas such as mechatronic systems, micro-nano technology, production optimization, and waste treatment technologies. He has contributed significantly to the academic community through his leadership in developing automated design systems like PROTECH and MICROSIS, which have advanced the field of micro-mechanical component design and manufacturing. His work continues to influence both academic research and practical industrial applications in Bulgaria and beyond.
Arnulf Johannes Snedker-Nielsen serves as an Instructor in the Department of Mathematical Sciences at the University of Copenhagen's Faculty of Science and concurrently holds a PhD fellow position at the Niels Bohr Institute specializing in Quantum Information Science & Technology. His work focuses on silicon-based quantum photonics platforms for scalable quantum technologies. His research centers on silicon T-centers as a scalable solution for single-photon generation and quantum memory systems, involving hands-on design, nanofabrication, and optical characterization. This interdisciplinary work bridges mathematical sciences with quantum physics to develop practical quantum computing components, particularly emphasizing solid-state quantum emitters and integrated photonic circuits. Recent publications demonstrate a clear trajectory toward hybrid quantum photonic systems, with emphasis on heterogeneous material integration for enhanced quantum information processing capabilities. His 2024 work on GaAs-silicon nitride waveguide coupling exemplifies efforts to merge disparate photonic platforms for optimal quantum light generation and transmission. He maintains active collaborations across international research networks under supervisor Stefano Paesani, with geographic partnership patterns visible through institutional mapping tools indicating multi-country research engagement.
Peter Moar is an Adjunct Professor in Engineering at La Trobe University with over 25 years of international experience in technology design, research, and consulting across telecommunications, automotive, aerospace, and nanotechnology sectors. His career spans from establishing global startups to optimizing operations for Fortune 500 companies, with a focus on bringing complex products from design to mass manufacture. His educational background includes: Bachelor of Engineering (Honors) PhD from La Trobe University Moar possesses extensive expertise in Aerospace Engineering , Astronomical and Space Instrumentation , Automation and Control Engineering , and Photonics and Electro-Optical Engineering . His research focuses on Industrie 4.0 applications in automotive, aerospace, and telecommunications sectors, with a notable 17-year collaboration with the German Aerospace Centre (DLR) on the FIREBIRD micro satellite missions for global bushfire monitoring. His recent publications demonstrate a shift from foundational optical fiber research to cutting-edge space applications, particularly in machine learning for orbital deployment systems and Earth observation technologies. Professional leadership includes: Chair of Engineers Australia National Committee for Space Engineering (since January 2023) Co-chair of same committee (October 2017 - January 2023) Moar has developed industry-focused educational programs including 'Work Integrated Learning (Engineering)' (March 2016) and secured mission-critical capabilities for the DLR's Earth Sensing Imaging Spectrometer (DESIS) global space instrumentation mission. His funded research includes the 'Heavy Vehicle Turntable Use on Building Construction Sites' project with The Australian Turntable Co. Pty Ltd (2019-2020), demonstrating his strong industry connections and practical application focus.
Dr Sumin David Joseph is a Researcher at the School of Electrical and Electronic Engineering, University of Sheffield. His work focuses on millimeter-wave (mmWave) systems, antenna array design, wireless power transmission, and high-frequency integrated circuits. He specializes in developing innovative solutions for 5G/6G communication systems, including reconfigurable front-ends, time-modulated arrays, and energy-efficient RFICs. His research integrates cutting-edge fabrication techniques like aerosol jet printing for antenna prototyping and explores bondwire optimization for high-frequency applications. Key contributions include dual-band mmWave down-converters, beamforming architectures, and low-power receiver mixers. Education details not explicitly stated in source material. Focus areas: mmWave systems, antenna design, wireless energy harvesting, GaAs MMICs, and beamforming. Recent work includes field trials of channel sounding systems and propagation modeling in rural environments. He has tested novel array configurations such as 8-element steerable transmit arrays and subsampling beamforming techniques to reduce hardware complexity. His research bridges theoretical models with practical implementations through co-simulation and lab validation. Notable contributions to antenna array integration include bondwire compensation circuits and SIW resonators on PCB/GaAs platforms. Ongoing projects explore E-band MMIC-to-antenna interconnections and vector-modulation techniques for QPSK/8PSK/16QAM signals.
Associate Professor Thach Nguyen is affiliated with the School of Engineering at RMIT University. His research focuses on integrated photonics, nonlinear optics, and quantum optics, with applications in mid-infrared spectroscopy, waveguide design, and optical device fabrication. He supervises projects on topics such as quantum optics on lithium niobate platforms, energy-efficient neuromorphic accelerators, and hybrid microfluidics for diagnostics. His work spans photonics integration, material characterization, and advanced optical systems. Key research areas include lithium niobate-based devices, silicon nitride waveguides, and synthetic frequency dimension engineering. Teaching interests include integrated optics and silicon photonics. His research has led to innovations in photonic CNNs for image processing, programmable silicon photonics, and fiber/chip-based supercontinuum sources. Collaborations emphasize hybrid integration, energy-efficient architectures, and novel photonic phenomena.
Dr. Jiao Lin is a Lecturer in the School of Engineering at RMIT University, Australia. Their research focuses on nanophotonics, metamaterials, plasmonics, and physical optics, with a strong emphasis on optical physics, nanotechnology, and materials chemistry. Dr. Lin's work spans theoretical and applied aspects of photonics, including photonic devices, plasmonic sensors, and advanced materials characterization. They are actively involved in supervising research students in areas such as spiking neural networks integration with AI, satellite communications, and novel optical materials. Research Interests: Optical Physics & Nanotechnology Metamaterials & Plasmonics Advanced Optical Devices Material Synthesis & Characterization Supervision Projects: Integration of Spiking Neural Networks with Large Language Models Neural Networks for Sensors and Telecommunications Internet-of-Things over UAVs and Nanosatellites Dr. Lin’s research has led to impactful publications in high-impact journals such as Advanced Materials , Nature Communications , and ACS Photonics , focusing on topics like photonic switches, plasmonic waveguides, and energy-efficient communications systems.
Mohamed Basha is an Adjunct Associate Professor at the University of Waterloo, specializing in advanced antenna design, MEMS technology, and millimeter-wave systems. His research focuses on integrating silicon-on-glass (SOG) and 3D-printed materials to develop innovative solutions in radar sensors, high-frequency antennas, and optical MEMS. Basha has contributed significantly to fields such as FMCW radar characterization, resonant MEMS mirrors, and tunable permittivity sensors. His work spans applications in aerospace, biomedical engineering, and telecommunications, with a particular emphasis on improving antenna efficiency, sensor sensitivity, and system miniaturization. Key contributions include the development of quasi-optical mirrors for space routing, contactless dielectric waveguide probes, and low-loss silicon-based THz platforms. Basha’s recent research trends highlight advancements in deep learning-assisted radar imaging, 3D-printed dielectric antennas, and tunable phase shifter technologies for sub-millimeter wave and terahertz applications. His interdisciplinary approach bridges electrical engineering, materials science, and mechanical design. While no formal awards are listed, his extensive publication record (spanning 2001–2023) underscores his impact in millimeter-wave and THz systems. His work often involves collaborations across academia and industry, though specific grant details are not provided here.
Kai Yang is an Associate Clinical Professor in the Department of Endocrinology at Yale School of Medicine, Yale University. Their research integrates clinical endocrinology with advanced photonics and quantum technologies, focusing on nanophotonic devices and material science applications. Education: MD from Johns Hopkins University (1988), BA from Smith College (1984). Research interests span quantum photonics, optoelectronic materials (e.g., lithium niobate), and nanoscale device engineering. Recent work emphasizes high-cooperativity quantum systems, cryogenic optomechanics, and rare-earth ion integration in photonic platforms. Key contributions include advancements in superconducting resonators, microwave-optical conversion, and sub-terahertz electromechanical systems. Publications highlight innovations in device fabrication, coherence control in optical resonators, and bidirectional frequency conversion. No awards or grant details are explicitly stated in the provided materials.
