Javier Cuerda serves as a Visitor Faculty member in the Department of Applied Physics within Aalto University's School of Science, specializing in Quantum Dynamics research. His work focuses on advanced photonics and nanoscale phenomena. He holds a Doctoral degree in Engineering and Technology from Universidad Autónoma de Madrid, awarded on October 19, 2017. Research interests span Nanoparticle Physics , Brillouin Zone phenomena , Lasing systems , Photonics , Metasurfaces , and Magnetic Field interactions in plasmonic structures. His fingerprint analysis reveals strong activity in Multipole Physics (45%), Antenna Physics (45%), and Metasurface Physics (45%). Recent publications demonstrate trends in quantum geometric tensor analysis, non-Hermitian systems, and silicon-integrated metasurface lasing. Key contributions include high-impact papers in Nature Photonics (41 citations) and ACS Photonics (52 citations), with significant attention from news outlets and Wikipedia references. Collaborations span international networks with prominent researchers like P. Törmä, evidenced by dataset contributions to Zenodo and substantial Mendeley readership (53+ readers).
Haonan Ling is an Assistant Professor at the University of Central Florida (UCF). His research focuses on nanoscale light-matter interactions, novel material systems, and nanophotonic device engineering. He leads the Ling Lab , exploring applications in metamaterials, van der Waals heterostructures, and quantum optoelectronics. Education: Ph.D. in Mechanical Engineering, UCLA (2024) B.S. in Chemical & Biomolecular Engineering, UCLA (2017) Research Interests: Design of mid-infrared metasurfaces for ultra-efficient light-matter coupling Development of deeply subwavelength nanophotonic devices Integration of van der Waals materials into scalable optoelectronic systems Exploration of excitonic effects in 2D material heterostructures Publication Trends (2020–2024): Consistent focus on van der Waals materials and metamaterials Advances in mid-infrared photonics and nonlinear optics Emerging work in bio-integrated sensors and wearable electronics High-impact contributions in Nano Letters , Nature Nanotechnology , and Optica Awards: 2024 Dimitris N. Chorafas Foundation Prize 2023 UCLA Dissertation Year Fellowship Grants & Advising: Active research grants in metamaterials and nanophotonics (details pending) Current advisees: None listed (likely early in career) Lab & Teams: The Ling Lab at UCF specializes in atomically precise nanophotonic design , combining experimental fabrication with computational modeling to create next-generation optical devices.
Francisco Javier Herraiz Martínez is an Associate Professor at the School of Engineering (ICAI) of Universidad Pontificia Comillas, specializing in Bioengineering. He holds Engineering and PhD degrees from Universidad Carlos III de Madrid (2006 and 2010, respectively), with postdoctoral research at CIMITEC-UAB. His research focuses on passive sensors, RFID systems, electromagnetic metamaterials, antennas, and microwave circuits. He has led projects such as 'Self-sensing implants based on additive manufacturing techniques' and '3D-printed self-sensing scaffolds for bone regeneration.' He has supervised multiple PhD theses, including works on machine learning-enhanced capacitive sensing and IoT-based sensor systems. He has authored over 30 journal articles and conference papers, with recent contributions in Machine Learning applications for sensor data analysis and 3D-printed dielectric resonators. His awards include the Best Master Thesis Award (COIT/AEIT, 2006) and a Spanish Ministry scholarship for doctoral studies. He is actively involved in academic service, including organizing international conferences and reviewing for top journals like IEEE Transactions on Antennas and Propagation. Key achievements include developing low-cost sensor systems for biomedical applications and pioneering metamaterial-based antenna designs. His work integrates advanced manufacturing (e.g., 3D printing) with electromagnetic engineering for next-generation sensor technologies.
Gordon Wong is a Research Fellow at the Max Planck Institute for the Science of Light (MPL) in Erlangen, Germany. His work focuses on advanced optical manipulation and quantum control of nanoparticles within photonic crystal fibers, with significant contributions to orbital angular momentum (OAM) preservation, phase-adaptive cooling mechanisms, and nonlinear optical phenomena. His research interests span: Optical Cooling: Developing room-temperature feedback systems for nanoparticle motion damping. Photonic Crystal Fibers: Exploring twisted and hollow-core structures for OAM mode control and quantum applications. Nanoparticle Dynamics: Studying drag-trapping, velocity modulation, and viscous force interactions in fiber environments. Nonlinear Optics: Investigating Brillouin scattering and modulational instability in chiral systems. Recent publications highlight his leadership in advancing fiber-integrated platforms for quantum manipulation and precision sensing. His work has been published in journals like Physical Review Research and Optica , with a focus on scalable photonic technologies and fundamental physics exploration.
David Marpaung is a Full Professor at the University of Twente's MESA+ Institute for Nanotechnology, leading the Nonlinear Nanophotonics Group. His primary affiliation is within the Department of Nanophotonics and Hybrid Systems, where he focuses on integrated photonics, microwave photonics, and nonlinear optical phenomena such as Brillouin scattering. His research emphasizes developing high-performance photonic integrated circuits (PICs) using materials like silicon nitride and lithium niobate, with applications in signal processing, filtering, and optical communications. Key research areas include the design of low-loss photonic circuits, Brillouin-based microwave photonics systems, and hybrid integration of optical components. His work has led to advancements in programmable photonic circuits, RF interference mitigation, and high-dynamic-range filtering solutions. Collaborations span global institutions, reflecting his leadership in the field. Marpaung has been recognized with prestigious awards, including the Optica Fellow designation in 2022 and the Best Contributed Paper Award in 2021. His contributions bridge fundamental optics and applied engineering, addressing challenges in telecommunications and photonic systems. Recent publications highlight innovations in thin-film lithium niobate platforms for Brillouin photonics and silicon nitride-based acoustic wave engineering. His research group actively explores next-generation photonic technologies, leveraging both theoretical and experimental approaches to push the boundaries of integrated photonics. Labs and facilities at MESA+ enable cutting-edge prototyping and testing of novel devices, ensuring practical impact alongside academic contributions.
Dr. Lecturer İnci Umakoglu is an Assistant Professor at the Faculty of Engineering , Kütahya Dumlupınar University . She holds a PhD in Electrical-Electronics Engineering from the same university and has been a Research Assistant in multiple laboratories since 2015, including Analog & Digital Communications, Measurement & Circuit, and Logic Design. Her research focuses on Wireless Communication Systems (NOMA, OTFS modulation) Antenna Design for 5G and beyond UAV-assisted network architectures IoT device security protocols She has led and advised numerous student research projects in avionics, telemetry, and low-altitude defense systems under the TÜBİTAK 2209-A and Scientific Research Project (BAP) programs. Recent publications highlight her work in deep learning for signal detection , LoRa-based telemetry systems , and IoT security methods , with a strong emphasis on practical implementations in 5G and UAV technologies. She is an active member of IEEE and the Applied Computational Electromagnetics Society (ACES) .
Haijun Fan is an Assistant Professor at the Institute of Sensors, Signals & Systems within the School of Engineering & Physical Sciences at Heriot-Watt University. His research focuses on advanced RF and microwave engineering, with particular emphasis on power amplifier design, antenna systems, and signal processing. He holds affiliations with interdisciplinary research groups specializing in sensor networks and integrated systems. Dr. Fan’s work spans theoretical and applied research, including automated design methodologies for power amplifiers using AI-driven optimization, beamforming in coupled directional modulation arrays, and energy-efficient transceiver systems. His contributions address challenges in multi-beam active antennas, MIMO transmitter design, and wideband filtering solutions. Key technical interests include: RF/microwave circuit design Antenna-transmitter co-design AI applications in electronics Time-modulated arrays Wideband filter development Recent publications (2021–2025) emphasize innovations in: Surrogate model-based optimization for power amplifiers Orthogonal vector techniques for MIMO systems Ka-band antenna design with dual-layer Rotman lenses Low-loss waveguide transitions No academic awards or grants are explicitly listed in the provided information. His research group collaborates internationally on antenna systems and RF component development.
Jacob Coetzee is a Senior Lecturer in Electrical Engineering at Queensland University of Technology (QUT), affiliated with the Faculty of Engineering and School of Electrical Engineering & Robotics. He has been with QUT since January 2008, following academic positions at the University of Pretoria (1994-1997) and the National University of Singapore (1998-2007). His educational background includes: BEng (cum laude) from University of Pretoria (1986) MEng (cum laude) from University of Pretoria (1989) PhD from University of Pretoria (1994) Coetzee's research focuses on electromagnetics and microwave engineering, with particular expertise in antenna design, antenna arrays, computational electromagnetics, and passive microwave components. His work demonstrates consistent technical depth in solving complex electromagnetic problems related to waveguide slot arrays, coupling mechanisms, and radiation patterns. The research shows strong theoretical foundations combined with practical engineering applications. Analysis of his publication record reveals a sustained research trajectory focused on waveguide slot array design, with recent expansion into 5G communication systems. His work consistently addresses fundamental electromagnetic challenges in antenna systems while maintaining relevance to contemporary wireless technologies. The publications show increasing sophistication in modeling techniques and solution approaches over time. Professional recognition includes: Senior Member IEEE Coetzee teaches EGB241 Electromagnetics and Machines and EGH442 RF Techniques and Applications at QUT. His research appears to be primarily individual or small-team focused, with consistent publication output in high-impact IEEE journals, particularly IEEE Transactions on Antennas and Propagation. While specific grant information isn't provided, his sustained publication record suggests successful research funding. His work contributes to both theoretical electromagnetic understanding and practical antenna design methodologies, with applications spanning traditional radar systems to modern wireless communication infrastructure.
Leszek Jaroszewicz, PhD with habilitation, is a Professor at the Military University of Technology in Warsaw, Poland, specifically affiliated with the Faculty of Advanced Technologies and Chemistry and the Institute of Applied Physics. As a corresponding member of the Polish Academy of Sciences (PAS), he has established himself as a leading researcher in photonics and optical fiber technology. His academic career spans several decades, with continuous research activity evidenced by publications through 2025. Professor Jaroszewicz's research primarily focuses on photonics technology applications for sensor devices, with particular expertise in hybrid waveguide transducers employing liquid crystalline materials. His work encompasses new technologies for manufacturing monocrystals and glasses (especially oxide types), theoretical studies of complex semiconducting structures for electromagnetic radiation detectors, advanced fiber optics technologies including photonic crystal fiber elements, materials for hydrogen storage, and polarization problems in waveguide structures for sensor construction. His research area is formally recognized as materials engineering (100% ME). Analysis of his recent publications reveals a strong trend toward practical applications of optical fiber technologies in sensing systems, particularly rotational seismology and refractive index sensing. His work increasingly integrates liquid crystal technologies with optical fibers, nanomaterials (like Fe 3 O 4 nanoparticles), and computational methods. The research spans fundamental physics of light propagation through applied engineering of sensor devices for diverse applications from seismic monitoring to food safety inspection. His significant recognition includes being elected as a Corresponding Member of the Polish Academy of Sciences, a prestigious honor in Polish academia. His bibliometric indicators demonstrate substantial scholarly impact with 373 publications, an h-index of 24 (Scopus) and 22 (Web of Science), total impact factor of 352.125, and a ministerial score of 8,412. Professor Jaroszewicz has supervised 13 promoted theses, indicating his active role in mentoring the next generation of researchers. His research has been supported by at least 10 projects and has resulted in 4 patents, demonstrating both academic and practical impact of his work. His research group appears to focus on optical instrumentation development, particularly for specialized sensing applications. The research environment led by Professor Jaroszewicz includes advanced laboratories for optical fiber technology, liquid crystal device fabrication, and sensor testing. His team appears to collaborate across disciplines, connecting physics, materials science, and engineering to develop innovative sensing solutions. Current work suggests ongoing development of fiber-optic rotational seismographs and other specialized optical sensors for both scientific and practical applications.
Eva Oton Martinez is an Assistant Professor at the Military University of Technology. Her research focuses on liquid crystals, photonics, and applied physics, with a strong emphasis on photonic devices, optical effects, and material engineering. She has contributed to advancements in blue phase liquid crystals, tunable optical systems, and nanoparticle-enhanced materials. Her work spans topics such as liquid crystal orientation control, self-assembly mechanisms, and the integration of liquid crystals into optical waveguides and sensors. Notable achievements include pioneering studies on 3D photonic crystal switches and pathogen detection using lyotropic liquid crystals. Recent publications highlight innovations in spin-orbit coupled photonic lattices, all-optical switching systems, and the use of achiral nanoparticles to enhance thermal stability in blue phases. Her research bridges fundamental physics with practical applications in optics and photonics. No scientific awards or grants are explicitly listed in the provided profile. She collaborates widely with institutions and researchers globally, contributing to both theoretical and applied studies in her field.
Jorge L. Salazar-Cerreno is an Associate Professor at the School of Electrical and Computer Engineering , University of Oklahoma , and a key member of the Advanced Radar Research Center (ARRC) and PAARD . His work bridges antenna design , phased array radar systems , and atmospheric research . Education: Ph.D. in Electrical and Computer Engineering (2012), University of Massachusetts Amherst Research Interests focus on dual-polarized phased arrays, mmWave and sub-terahertz antennas, radome modeling, and UAV-based radar calibration. His innovations aim to enhance scanning performance, reduce costs, and improve weather observation accuracy in challenging terrains. Article Trends highlight advancements in UAV metrology , real-time calibration , and rapid-scan imaging radars , particularly for storm analysis and atmospheric sensing. Key themes include wideband antenna design , array diagnostics , and material characterization . Scientific Awards NCAR Advanced Study Program postdoctoral fellowship Grants include a $3.01 million NSF award (2023) for developing a C-band mobile polarimetric imaging radar to improve severe weather warnings. Labs & Teams : Leads the Radar Innovations Lab , contributing to next-generation weather radar systems like Horus and PAIR .
David Barton serves as Assistant Professor of Materials Science and Engineering at Northwestern University, focusing on integrated photonics for energy-efficient computing and communications through advanced semiconductor nanofabrication techniques. His academic foundation includes: PhD in Materials Science and Engineering from Stanford University BChE in Chemical Engineering from the University of Minnesota, Twin Cities Research centers on developing novel material platforms and optical devices to solve critical challenges in energy efficiency, communications, and nonlinear optics. His group bridges fundamental material science—examining optical, electronic, and electro-optic properties—with practical device engineering, emphasizing thin-film growth, nanofabrication, and characterization. This interdisciplinary approach targets scalable solutions for next-generation computing infrastructure. Recent publications reveal a strategic shift toward quantum photonics applications, particularly in mitigating fabrication defects for stable photonic circuits and enabling coherent quantum control systems. Key recognitions include: Intelligence Community Postdoctoral fellowship (2020-2022) MRS graduate student award – Silver award (2019) Stanford Graduate Fellowship His laboratory drives innovation from material synthesis to device validation, maintaining strong industry and defense-sector partnerships to accelerate real-world deployment of photonic computing technologies.
Giacinta Parish is Professor in the Department of Electrical, Electronic and Computer Engineering at the University of Western Australia's School of Engineering. She serves as Director of the UWA Defence & Security Institute and is a Board Director for Australian Remote Operations for Space and Earth (AROSE). Her work bridges academic research with practical applications in defence, security, and space technologies. PhD in Electrical Engineering, University of California Santa Barbara (2001) Master of Engineering Science in Electrical and Electronic Engineering, University of Western Australia (1997) Bachelor of Engineering in Electronic Engineering, University of Western Australia (1995) Bachelor of Science in Chemistry, University of Western Australia (1995) Professor Parish's research focuses on advanced semiconductor materials and device technologies, with particular expertise in III-V nitride materials and porous silicon. Her work spans the development of chemical, bio- and infrared sensors for environmental monitoring, industrial applications, and defence purposes. She investigates semiconductor device physics, sensor array development, and micro-electronics for practical sensing solutions. Her multidisciplinary background combines electronic engineering, materials science, and chemistry to create innovative sensor technologies. Her recent publications demonstrate a consistent focus on porous silicon and gallium nitride-based sensor technologies. The research shows progression from fundamental material properties to practical device applications, with increasing emphasis on thermal sensing, chemical detection, and integration with micro-electromechanical systems (MEMS). The work often combines experimental fabrication with theoretical modeling to optimize sensor performance. Science & Technology Excellence in Leadership Award, Defence Science and Technology Group (2024) Women in Technology WA '20 in 20' award (2018) Senior Member, Institute of Electrical & Electronic Engineers (IEEE) Finalist, Scopus Young Investigator Awards (2011) Fulbright Scholar (1996) Professor Parish has supervised numerous research students and leads multiple funded projects, including 'A Sensor for Diagnostics and Closed-Loop Drug Delivery in the Inner Ear' (NHMRC, 2024-2026) and 'DFAT SE Asia Maritime Exchange' (2022-2023). Her research has attracted significant funding from organizations including the Australian Research Council and the Department of Foreign Affairs and Trade. As Director of the UWA Defence & Security Institute, Professor Parish leads a multidisciplinary team working at the intersection of academic research and defence applications. She also contributes to the International Space Centre's Advisory Board, connecting her expertise in sensor technologies with space applications through AROSE.
Adrian Keating is a Professor in the School of Mechanical Engineering at The University of Western Australia (UWA), specializing in Microelectromechanical Systems (MEMS), porous silicon, and infrared sensors. He holds roles such as Mechatronics Course Advisor and Laser Safety Officer. His career spans over 20 years, including industrial experience at Calient Networks as Fiber Optics Technology Manager, where he developed high-yield MEMS-based products. Dr. Keating earned a Bachelor of Engineering (Honors) from The University of Melbourne and a Ph.D. from Telecom Research Laboratories, focusing on photonic communication networks. His research emphasizes optical sensors, MEMS, and IoT technologies. Notable contributions include patents for fiber-collimator designs and work on MEMS-based infrared sensors. He actively supervises students and leads projects in areas like soil and grain parameter assessment via microspectrometers. Key research interests include porous silicon materials, thermal sensing, and MEMS fabrication. He has secured grants totaling millions, such as the 2004 ARC Discovery Project on MEMS/NEMS technologies. Teaching responsibilities include units like Mechatronic Systems and Engineering Dynamics. Current projects explore infrared thermal imagers, microfluidics, and IoT-enabled beehive monitoring systems. His work aligns with UN Sustainable Development Goals through innovations in agriculture and environmental monitoring. Dr. Keating collaborates internationally, with recent projects in Japan (NTT) and the U.S. (UC Santa Barbara). His lab focuses on developing low-cost, high-performance sensors and imaging systems. Patents and peer-reviewed publications reflect his expertise in optical systems, micromachining, and material science. Future research aims to advance infrared imaging and MEMS-based sensor technologies for industrial and environmental applications.
Dr. Anuradha Agarwal is a Principal Research Scientist at the Massachusetts Institute of Technology , affiliated with the Microphotonics Center and Materials Research Laboratory . She serves as Director of the Electronic-Photonics Packaging Materials Research Laboratory and leads the Lab for Education and Application Prototypes (LEAP) . Her work bridges fundamental materials science with scalable photonic device applications. Ph.D., Electrical Engineering , Boston University Dr. Agarwal’s research focuses on mid-infrared photonic sensors for chem-bio sensing and hyperspectral imaging, utilizing CMOS-compatible silicon fabrication to enable large-scale manufacturing. She pioneers sustainable microchip production through the FUTUR-IC initiative and develops education programs for integrated photonics workforce training. Her recent publications highlight advancements in photonic couplers , metasurfaces , and self-healing materials , reflecting a strong emphasis on resource efficiency and environmental resilience in photonic technology. She has authored over 250 peer-reviewed papers and holds 17 awarded patents. Optica Fellow (2022) As director of Electronic-Photonic Packaging (EPP) , she explores innovative testing and packaging solutions. Her LEAP lab focuses on K-Gray workforce development, including virtual/augmented reality training tools to address skill gaps in the integrated photonics industry.
