Find Academic Supervisors

• Quantum Magnetometry
• Atomic Physics
• Magnetic Field Sensing
• +3 more

Dr. Dominic Hunter is a Research Fellow in the Department of Physics within the Faculty of Science at the University of Strathclyde. His research focuses on quantum magnetometry, particularly developing optically pumped magnetometers (OPMs) for geophysical, space weather, and biomedical applications. Education Doctor of Engineering in Applied Photonics Dr. Hunter's research centers on atomic-scale magnetic field sensing using quantum techniques. He specializes in free-induction-decay methods, cesium vapor cell optimization, and miniaturization of quantum magnetometers. His work bridges fundamental atomic physics with practical implementations for GNSS-denied navigation, critical infrastructure monitoring, and medical diagnostics like magnetocardiography. Recent innovations include distributed sensor networks for space weather tracking and portable single-beam systems for clinical applications. His 2023-2024 publications reveal strong trends in quantum sensor miniaturization (67% of works), space weather applications (33%), and biomedical translation (17%). Key advancements involve spin relaxation optimization, microfabricated vapor cells, and zero-field operation techniques across physics, geophysics, and biomedical engineering domains. Research Funding Ultra-stable quantum magnetometry for imaging in Earth-field environments (Principal Investigator, Royal Academy of Engineering, 2024-2026) Quantum Sensing of the Geomagnetic Space Weather Environment (Research Co-investigator, EPSRC, 2023-2026) UK National Quantum Technology Hub in Sensing and Timing (Principal Investigator, 2019-2024) Dr. Hunter actively contributes to the academic community through peer review for Optics Express and conference presentations at SPIE events. He collaborates extensively with the UK National Quantum Technology Hub team including Paul Griffin, Erling Riis, and Stuart Ingleby on quantum sensing projects. Laboratory Affiliations He operates within the University of Strathclyde's quantum sensing ecosystem as part of the UK National Quantum Technology Hub in Sensing and Timing, utilizing specialized laboratories for atomic magnetometer development and testing.

Torsten LehmannView profile

Associate Professor

• Solid-state circuits and systems
• CMOS circuits at cryogenic temperature
• Ultra low-power CMOS design
• +6 more

Associate Professor Torsten Lehmann is a faculty member in the School of Electrical Engineering and Telecommunications at the University of New South Wales (UNSW). He holds the position of Associate Professor in Microelectronics and maintains an active research program focused on advanced circuit design for biomedical applications and cryogenic systems. His work spans multiple disciplines at the intersection of electronics engineering, biomedical technology, and quantum computing interfaces. Dr. Lehmann's research interests encompass several cutting-edge areas of microelectronics: Solid-state circuits and systems CMOS circuits at cryogenic temperature Ultra low-power CMOS design Bio-medical microelectronics Cochlear implants and vision prostheses High-performance analogue circuits in deep sub-micron CMOS His recent publication record demonstrates a strong focus on neural interfaces and optrode technology, with significant contributions to the development of optical neural stimulation and recording systems. Over the past five years, his research has increasingly concentrated on optrode arrays, biopotential sensing, and charge-balanced stimulation techniques for neural applications. His work bridges the gap between traditional electronic circuit design and emerging biomedical applications, particularly in vision and hearing prostheses. A consistent theme throughout his publications is the development of specialized circuits for challenging environments, whether ultra-low temperatures for quantum computing or implantable medical devices requiring extreme power efficiency. Dr. Lehmann has made significant contributions to the field of microelectronics for biomedical applications, particularly in the development of circuits for vision prostheses and neural stimulation systems. His work on cryogenic circuits for quantum computing interfaces represents an important bridge between traditional electronics engineering and emerging quantum technologies. His research group appears to be actively involved in several collaborative projects related to neural engineering and biomedical implants, working with colleagues across UNSW and with clinical partners. The lab likely focuses on the design and testing of specialized integrated circuits for challenging applications where conventional electronics face significant limitations.

David TsaiView profile

Senior Lecturer

• Biomedical Engineering
• Microelectronics
• Neural Interfaces
• +4 more

Dr. David Tsai is a Senior Lecturer at the University of New South Wales (UNSW), jointly appointed between Biomedical Engineering and Electrical Engineering. He leads the Biomedical Microsystems Lab , focusing on miniature microelectronic devices for brain-machine interfaces and subcutaneous biosensing. His research has been continuously funded by the NHMRC since 2013, including an ongoing Ideas grant for soft brain-machine interfaces. He has secured >$3.8M in total funding, with support from the Kavli Foundation and ARC Linkage Infrastructure Grants . His work has appeared in Nature Communications , Nature Nanotechnology , and IEEE Transactions on Biomedical Circuits and Systems . Scientific Recognition: IEEE EMBC Student Paper Award (twice) IEEE EMBC Best Papers Award NHMRC CJ Martin Fellowship (2013-2017) Kavli Foundation Postdoctoral Fellowship (2012-2013) Education: PhD in Biomedical Engineering (2012), UNSW MBiomedE (2007), UNSW BE (Software, First Class Honours) (2007), UNSW Research Themes: Development of ultra-dense microelectrode arrays for cellular-resolution electrophysiology, computational modeling of retinal responses to electrical stimulation, and standardization of neurotechnology data formats. His lab collaborates with industry partners like LeafLabs LLC , BlackRock Microsystems , and Contactile .

• Aeroacoustics
• Fluid Mechanics
• Compressible Shear Flows
• +3 more

Jacques Andrieu is a researcher at the Laboratory of Fluid Mechanics and Acoustics (LMFA - UMR 5509) affiliated with École Normale Supérieure de Lyon (ENS Lyon). His work focuses on aeroacoustics and compressible flow dynamics , particularly in rotating machinery and environmental flow contexts. Key research areas include: nonlinear acoustic wave propagation , multiphase flow instabilities , and active flow noise control He utilizes advanced experimental techniques such as PIV/PLIF , phase Doppler anemometry , and digital holography Collaborates with international institutions on industrial fluid dynamics applications for Michelin, Renault, and TOTAL Technical Expertise : Developed urban air quality model (SIRANE) for environmental impact analysis Co-inventor of tire groove velocity measurement patent (Michelin partnership) Specializes in high-turbulence environments and complex boundary flows

Mehdi JavanmardView profile

Professor

• Nanobiotechnology
• BioMEMS
• Point of care diagnostics
• +4 more

Mehdi Javanmard is a Professor and Paul S. & Mary W. Monroe Endowed Faculty Scholar at Rutgers University's Department of Electrical and Computer Engineering. He leads the NanoBioElectronics Laboratory, focusing on integrating micro/nanotechnologies with biomedical applications to develop low-cost, rapid diagnostic tools. His work emphasizes point-of-care diagnostics, biomarker detection, and microfluidics-based solutions. Education: PhD (Electrical Engineering) from Stanford University (2008), MS (EE) from Stanford (2004), BS (EE) from Georgia Tech (2002 with Highest Honor). Research Interests: Nanobiotechnology and BioMEMS Point-of-care diagnostics Microfluidics and electrokinetic phenomena Applications of nanotechnology in medicine Key Achievements: Recipient of DARPA Young Faculty Award (2020) and NSF CAREER Award (2019) Founded RizLab Health (2018), a startup commercializing lab-on-a-chip technologies Developed wearable biosensors and wireless diagnostic platforms Published over 50 peer-reviewed articles on microfluidics, impedance cytometry, and biosensor integration Lab Focus: The lab's innovations include nanowell-based impedance sensors, smartphone-integrated diagnostics, and wearable health monitoring systems. Current projects include DARPA-funded research on continuous biomarker monitoring and NSF-supported work on environmental sensor integration.

• Analytical Chemistry
• Liquid Chromatography
• Capillary Electrophoresis
• +3 more

Miriam Beneito Cambra is an Associate Professor at the University of Valencia's Faculty of Chemistry , affiliated with the Department of Analytical Chemistry and the CLECEM research group (Liquid Chromatography, Capillary Electrophoresis and Mass Spectrometry). Education: Doctorate from the University of Valencia (2011), thesis: Desarrollo de métodos analíticos para el control de calidad de surfactantes y aditivos en productos de limpieza y de higiene personal , supervised by Dr. Guillermo Ramis Ramos and Dr. José Manuel Herrero-Martínez. Research Interests: Development of analytical methods for surfactants, additives, and contaminants in food/environmental matrices Application of liquid chromatography, capillary electrophoresis, and mass spectrometry Innovation in analytical chemistry education through digital tools and active learning methodologies Green Analytical Chemistry approaches and miniaturized devices Exploration of AI (e.g., ChatGPT) and 3D printing in analytical workflows Article Trends: Recent publications highlight her work on integrating 3D printing for sample preparation devices, AI applications in analytical chemistry education, paper-based microfluidic systems for antibiotic detection, and reticular framework materials for miniaturized analytical formats.

Levi SmithView profile

Professor

• Terahertz Engineering
• Photonics
• Spectroscopy
• +3 more

Levi Smith is a Professor leading research in Terahertz (THz) Engineering, focusing on bridging millimeter-wave and photonic technologies to address challenges in the THz gap. His work emphasizes transmitter/receiver design using photoconductive switches, transmission mediums for short-distance applications, and spectroscopic sensing for chemical and environmental monitoring. Key collaborations include shared laboratory infrastructure with Prof. Gordon and Prof. Bornemann, featuring advanced equipment such as femtosecond lasers, optical spectrum analyzers, and an anechoic chamber. Research interests span THz spectroscopy for molecular fingerprinting, greenhouse gas emission quantification via novel laser-detection systems, and integrated terahertz biosensors for healthcare applications. Recent work highlights include on-chip glucose sensing using guided waves, spoof surface plasmon polariton filters for 6G communications, and metamaterial-based bandpass filters. His lab explores synergies between nanotechnology and high-frequency systems, with a focus on practical applications in environmental monitoring, medical diagnostics, and next-generation communication technologies.

• Combustion
• Micro-fluidics
• Compact Power Systems
• +4 more

Christopher Cadou is a Professor and Keystone Professor in the Department of Aerospace Engineering at the University of Maryland. He serves as Director of Undergraduate Studies and leads interdisciplinary research in combustion, micro-fluidics, and compact power systems. His work integrates advanced diagnostics like laser-based techniques and infrared measurements. Education: B.S./B.A. in Mechanical Engineering and History from Cornell University; M.S. and Ph.D. in Mechanical Engineering from UCLA. Background: Joined UMD in 2000 as Assistant Professor, promoted to Associate (2006), and Professor (current). Prior roles include Postdoctoral positions at MIT, Caltech, and UCLA. Research interests focus on micro-scale combustion systems, fluid dynamics in miniature channels, and novel diagnostics for energy applications. His studies address flame stability, heat transfer optimization, and piezo-hydraulic actuator design. Collaborations span academia and industry, contributing to advancements in microturbomachinery and fuel-efficient systems. Grants/Advising: Active in securing NSF, AFOSR, and ARO funding. Advises on projects like microcombustor design and green aircraft engines. Mentors students through initiatives like the Maryland Energy Innovation Institute. Labs/Teams: Leads experimental facilities for combustion diagnostics and microfluidics. Collaborates with the Terrapin Rocket Team and MEI² startups in clean energy.

Imad AghaView profile

Associate Professor

• Photonics
• Quantum Optics
• Nanophotonics
• +7 more

Imad Agha is an Associate Professor with a joint appointment in the College of Arts and Sciences (Physics) and the School of Engineering (Department of Electro-Optics and Photonics) at the University of Dayton. He is a full-time faculty member actively engaged in cutting-edge research in photonics, quantum optics, and nanomaterials. His research interests include: Photonics and integrated photonic circuits Phase change materials (e.g., GST, Sb2Se3) for optical switching and memory Orbital angular momentum and optical vortex beams Metasurfaces and spatially variant photonic crystals Infrared detection using hyperdoped silicon Ultrafast and real-time spectroscopy GeSn-based optoelectronic devices His recent publications (2023–2025) demonstrate a strong focus on reconfigurable optical devices, tunable mid-infrared filters, quantum photonic transceivers, and advanced spectroscopy techniques. The work leverages machine learning, nanofabrication, and novel materials to enable next-generation photonic systems for communication, imaging, and sensing. Key themes include energy efficiency, ultrafast response, and chip-scale integration. Scientific awards are not listed in the provided text. Dr. Agha advises graduate students and likely leads a research group involved in experimental and theoretical photonics. His work is supported by grants related to materials development, optical device engineering, and quantum technologies, though specific grants are not listed. He collaborates across engineering and physics disciplines, particularly in the development of hybrid photonic systems. His research is conducted within advanced photonics and nanofabrication laboratories at the University of Dayton, focusing on optical characterization, device testing, and materials synthesis.

Stepanov Igor BorisovichView profile

Professor

• Radiation interaction with matter
• Condensed matter physics
• Charged particle accelerators
• +3 more

Stepanov Igor Borisovich is a Doctor of Technical Sciences and Deputy Vice-Rector for Science and Strategic Projects at Tomsk Polytechnic University (TPU). With over 30 years of service, he has held key positions including Professor at the Department of Experimental Physics (2014-2016), Director of the Research School of High-Energy Physics (2017-2018), and Vice-Rector for Research and Innovations (2018-2020). His academic journey includes graduating with honors from TPU's Physics and Engineering Faculty in 1993, earning a PhD in 1999, and a Doctorate in 2011, both specializing in charged particle beam physics. Research Interests: His work spans radiation-matter interactions , condensed matter physics , particle accelerator design , and ion-plasma material modification . He develops technologies for radiation sources, surface engineering, and plasma diagnostics, with applications in materials science and nuclear engineering. Scientific Publications: Recent works focus on advanced betatron designs for high-resolution imaging (2017-2018), plasma-deposited coatings for tribological applications (2016-2017), and innovations in ion beam sources and diagnostics (2014). His publications consistently address precision instrumentation and materials enhancement. Awards and Honors: Honorary Worker of Science and Technology of the Russian Federation (2015) Gold/Silver medals: International Salon of Innovations (x2), High Technologies Exhibition Certificates of Honor: Ministry of Education (2011), Tomsk Region (2017), Tomsk City (2008) Anniversary medals: 400 Years of Tomsk (2004), 100 Years of TPU (2000) Teaching and Mentorship: Supervised postgraduate, bachelor's, and master's students at TPU. Co-authored two textbooks on physics and plasma applications. Laboratory Leadership: Headed the Center for Measuring Material Properties (2002-2011) and contributed to the Nuclear Physics Research Institute , driving advancements in ion-beam processing and non-destructive testing.

Rebecca RubyView profile

Associate Professor

• Equine Medicine
• Veterinary Science
• Neonatal Foal Care
• +3 more

Dr. Rebecca Ruby is an Associate Professor in the Department of Veterinary Science at the University of Kentucky's Martin-Gatton College of Agriculture, Food and Environment. She serves as Residency Coordinator at the Veterinary Diagnostic Laboratory and contributes to equine neonatal medicine. Education: DVM (Massey University, 2011), MS (University of California-Davis, 2006), BS (University of California-Davis). Her research focuses on equine neonatology , particularly gastrointestinal pathologies , infectious diseases , and critical care diagnostics . Key areas include sepsis scoring systems, antibiotic toxicity, and abdominal wall defects in mares. Recent publications examine acute hepatitis in foals , congenital skin disorders , and abdominal wall rupture complications in pregnant mares. She also contributes to chapters on equine embryology and digestive system development. Grants include Nocardioform placentitis research and advanced diagnostic training programs for food animal veterinarians.

Mekhail AnwarView profile

Associate Professor

• Bioengineering
• Radiation Oncology
• Integrated Circuit Design
• +5 more

Mekhail Anwar, MD, PhD is an Associate Professor at the University of California, San Francisco (UCSF) in the Department of Radiation Oncology. His work bridges bioengineering and integrated circuit design to develop novel solutions for cancer treatment , particularly in precision radiotherapy . Dr. Anwar is a core member of the UC Berkeley and UCSF Bioengineering group , combining expertise from both institutions. Dr. Anwar’s research focuses on miniaturized radiation detection , intraoperative imaging , and label-free biosensing using computer chip technology . His innovations include millimeter-scale dosimeters , chip-scale imagers , and ultrasonic backscatter implants for real-time monitoring in oncology. NIH DP2 New Innovator Award (2020) AACR-Novocure Career Development Award (2019) NIH Trailblazer Award (2019) New Directions in Prostate Cancer Research Award (2018) His lab ( Anwar Lab ) develops implantable sensors , wireless imaging systems , and single-cell characterization tools to enhance cancer diagnostics and treatment precision.

• Environmental Sensing
• Neuroengineering
• Liquid Metal Materials
• +3 more

M. Rashed Khan is an Assistant Professor at the University of Nevada, Reno's Institute of Neuroscience, specializing in environmental sensor development and neuroengineering. His research bridges materials science and biomedical applications through innovative liquid metal technologies and computational modeling. Dr. Khan's primary research focuses on Environmental Sensing and Neuroengineering . In environmental work, he pioneers liquid metal thin films and ionogels for real-time PFAS detection in water, with patent-pending technologies enabling on-site monitoring in Northern Nevada. His neuroengineering research develops patient-specific computational models using medical imaging and finite element analysis to optimize drug diffusion in heterogeneous brain tissue, advancing convection-enhanced delivery for neurological therapies. Recent publications (2024-2025) reveal a strategic shift toward field-deployable environmental sensors and clinically translatable brain models. His PFAS detection systems integrate microfluidics and quartz sensors for rapid water testing, while neuroengineering work combines MRI data with in vitro validation to address tissue heterogeneity—demonstrating convergence of environmental health and neurological therapeutics through soft materials innovation. Dr. Khan directs the Khan Lab , which develops soft materials for health and water technologies . Current projects include engineering low-cost PFAS sensors for community water systems and creating 3D synthetic brain platforms to study molecular dispersal. The lab's interdisciplinary approach merges liquid metal fluidics, hydrogel engineering, and computational modeling to solve critical challenges in environmental safety and neurological treatment.

MUSTAFA TAHSIN GULERView profile

Associate Professor

• Microfluidics
• Biosensors
• Biomedical Engineering
• +1 more

Mustafa Tahsin Guler, born in Ankara in 1984, serves as Associate Professor in the Department of Physics at the Faculty of Engineering and Natural Sciences. He resided in Istanbul until 2000 and holds a Bachelor's degree in Physics from Gazi University (2008) alongside a 2015 PhD specializing in microfluidic biosensors. Education: Bachelor of Science in Physics, Gazi University, 2008 Doctor of Philosophy in Microfluidic Biosensors, 2015 Research Interests: Dr. Guler's work centers on microfluidic systems for biosensing applications, integrating physics principles with biomedical engineering to develop lab-on-a-chip diagnostic devices. His expertise spans the miniaturization of biological assays, sensor surface functionalization, and fluid dynamics optimization for point-of-care medical testing. This research bridges fundamental physical sciences with translational healthcare solutions, emphasizing portable, cost-effective diagnostic platforms for resource-limited settings and personalized medicine initiatives. Scientific Awards: No scientific awards specified in source material Advising and Grants: Available documentation provides no details regarding graduate student supervision, research funding, or grant acquisitions. His biosensor specialization suggests potential involvement in biomedical instrumentation projects, though specific initiatives remain unreported. Labs and Teams: No information about laboratory facilities, research teams, or collaborative networks was included in the provided institutional profile.

• Neuropharmacology
• Analytical Chemistry
• Liquid Chromatography
• +7 more

Ann Van Eeckhaut is a Professor in the Department of Pharmaceutical and Pharmacological Sciences at the Faculty of Medicine and Pharmacy, Vrije Universiteit Brussel. With an h-index of 25 and over 2681 citations, she leads significant research in neuropharmacological analysis methods, specializing in the development of miniaturized liquid chromatography techniques for neurotransmitter and drug analysis in biological samples. Her research expertise spans: Neurochemical and neuropharmacological analysis requiring sensitive methods for low-concentration compounds Development of miniaturized LC methods coupled to fluorescence, electrochemical, and MS/MS detection Quantification of neuropeptides in microdialysis samples using Nano LC-MS/MS Metabolite profiling for biomarker discovery in drug-resistant epilepsy Enantioselective analysis of neuro- and gliotransmitters Recent publications demonstrate her leadership in advancing analytical techniques for brain metabolomics, with increasing focus on 3D printing for sample preparation devices and natural compounds for neurodegenerative disease treatment. Her work bridges analytical chemistry, neuroscience, and translational pharmacology, with particular emphasis on Parkinson's and Alzheimer's disease therapies. Scientific recognition includes: Project grant from Wetenschappelijk Fonds Willy Gepts (WFWG) in December 2021 for epilepsy biomarker research Dr. Van Eeckhaut actively supervises graduate research with 31 theses completed under her guidance. She leads multiple significant research projects including FWOSB173 (2024-2028) on ADHD medication during pregnancy, FWOAL1076 (2023-2026) on brain metabolomics, and VLIR418 (2022-2027) on levodopa-rich biomass for neurodegenerative diseases. Her research group maintains extensive collaboration networks across neuroscience and analytical chemistry disciplines. Her laboratory specializes in developing cutting-edge analytical methods for neurochemical analysis, with particular focus on volume-limited samples and high-throughput requirements for modern pharmacological research.