Find Academic Supervisors

• Atmospheric Chemistry
• Aerosol Physics
• Environmental Science
• +3 more

Alexei Khalizov is an Associate Professor in the Department of Chemistry and Environmental Science at New Jersey Institute of Technology (NJIT). His research focuses on atmospheric aerosol physics, nanoporous media mechanics, and environmental mercury chemistry. He leads multiple National Science Foundation-funded projects including studies on soot restructuring, mercury speciation, and confined fluid dynamics. Collaborations span institutions globally, emphasizing interdisciplinary approaches to climate-relevant processes. Research interests include: 1) Atmospheric Soot : Aging mechanisms, optical properties, and climate impacts; 2) Nanoporous Media : Fluid behavior in confined spaces and ultrasonic characterization; 3) Mercury Chemistry : Atmospheric transformation pathways and speciation analysis. His work bridges experimental techniques (AFM, ultrasonics) with computational modeling (discrete element methods). Recent publications highlight advancements in soot aggregate mechanics ( Journal of Aerosol Science ), mycelium biomaterials ( ACS Applied Bio Materials ), and mercury heterogeneous reactions. Over 30 NSF grants and 84+ peer-reviewed articles underscore his contributions to aerosol science. Media engagements include coverage of wildfire pollutants and sustainable material innovations. Advising responsibilities include mentoring graduate students in experimental aerosol physics and computational modeling. Current projects explore: NSF-CAREER: Molecular mechanisms of atmospheric mercury (2016-2021) Soot restructuring in nanoporous environments (2024-2026) Compressibility of nanopore-confined liquids (2021-2025) Labs and facilities include NJIT's Aerosol Physics Lab and collaborations with advanced microscopy centers.

Reyes GarciaView profile

Associate Professor

• Structural Engineering
• Sustainable Concretes
• FRP Composites
• +4 more

Reyes Garcia is an Associate Professor in Structural Engineering at the University of Warwick (UK). He holds a 5-year Degree in Civil Engineering from the University of Michoacan (Mexico), an MSc in Earthquake Engineering and Engineering Seismology from the ROSE School (Italy) and University Joseph Fourier of Grenoble I (France), and a PhD from the University of Sheffield (UK). His expertise spans structural and sustainable concretes, FRP composites for construction, seismic retrofitting, and earthquake engineering. He has coordinated large-scale EU-funded projects exceeding £10M and authored over 100 publications. Research interests include structural concrete, rubberized concrete, FRP composites, seismic strengthening, and humanitarian engineering (e.g., refugee shelters). He is a Visiting Professor at Walailak University (Thailand) and serves as Associate Editor of ICE Structures and Buildings . His work emphasizes sustainable construction materials and disaster-resilient infrastructure. Key contributions include large-scale shake table tests in Europe, development of FRP-confinement models, and guidelines for composite reinforcements. His articles focus on recycled aggregate concrete, seismic retrofitting techniques, and computational models for material behavior. He actively reviews grants and manuscripts for international journals and conferences. Grants and collaborations include multi-partner EU projects and leadership in UK/Thailand initiatives. His teaching covers Civil Engineering Materials, Earthquake Resilient Structures, and Advanced Structural Analysis. He mentors PhD students in sustainable concretes, construction waste, and earthquake engineering.

Timothy John PedleyView profile

Professor

• Fluid Dynamics
• Biomechanics
• Micro-organism Suspensions
• +3 more

Timothy John Pedley is a Professor in the Department of Applied Mathematics and Theoretical Physics (DAMTP) at the University of Cambridge. His research focuses on fluid dynamics, biomechanics, and the behavior of micro-organism suspensions. He has contributed to understanding collapsible channel flows, collective behavior of swimming algae, and hydrodynamic interactions in biological systems. Key research areas include high-Reynolds-number flows, microbial swimming dynamics, and fluid-structure interactions in biological contexts. His work bridges applied mathematics with biophysical phenomena, particularly in aquatic locomotion and suspension instability. Publications highlight studies on Volvox carteri’s metachronal waves, fish maneuvering models, and stability analysis of complex fluid systems. Pedley’s research often involves interdisciplinary approaches, combining experimental observations with theoretical modeling.

• Condensed Matter Physics
• Quantum Physics
• Numerical Methods in Physics
• +4 more

Guillaume Roux is an Associate Professor at the Laboratoire de Physique Théorique et Modèles Statistiques (LPTMS) within Université Paris Saclay. His research focuses on strongly correlated systems, quantum liquids, and numerical methods like DMRG. He holds a 2014 Habilitation (HDR) and a 2007 PhD from Université Paul Sabatier Toulouse III, with postdoctoral work at RWTH Aachen under Ulrich Schollwöck. Research interests include cold atoms in optical lattices, quantum quenches, and fermionic systems. Key methods involve exact diagonalization and renormalization group techniques. Over 50 peer-reviewed articles explore viral capsid assembly, phase separation, and biomolecular condensates, often using advanced microscopy and single-molecule tracking. Recent work (2023-2025) emphasizes antiviral mechanisms disrupting HBV capsids, viral nucleocapsid dynamics via fluorescence microscopy, and bioinspired nanocapsule engineering. Active in microfluidic self-assembly strategies and polymer membrane design for drug delivery systems. Laboratory affiliations include LPTMS and collaborations with Institut de Physique Théorique (RWTH Aachen). No listed awards, but sustained publication record indicates impactful contributions to theoretical physics and biophysics interfaces.

• Sustainable Soil Management
• Phosphate Fertilization
• Agricultural Waste Management
• +3 more

Inge Regelink is a Researcher at Wageningen University & Research, specializing in Sustainable Soil Use. Her work focuses on optimizing nutrient management practices, particularly phosphate fertilization, and evaluating the agronomic effectiveness of organic residues like digestate. She leads long-term field trials analyzing soil health and phosphorus dynamics across grassland and arable systems. Key projects include the Long-term phosphate fertilization trials (since 2013) and NitriNure (2025–2029), exploring nutrient recovery technologies. She has authored over 70 publications on topics such as digestate utilization, struvite application in maize, and indicators for soil phosphate status. Regelink actively engages with policymakers and the agricultural sector through expert commentary on waste management solutions for manure surplus issues. Her collaborative efforts span international projects like SYSTEMIC, developing circular economy models for anaerobic digesters. She presents findings at academic conferences and professional seminars, emphasizing practical applications of research in sustainable agriculture.

Haran GiladView profile

Professor

• Nanophotonics
• Protein Folding
• Super-Resolution Microscopy
• +6 more

Prof. Gilad Haran is a Full Professor in the Chemical and Biological Physics Department at the Weizmann Institute of Science, Israel. He served as Dean of the Faculty of Chemistry (2012–2018) and Director of the Dwek School of Chemical Research (2008–2010). His research focuses on single-molecule biophysics, nanophotonics, and protein dynamics, employing advanced spectroscopic techniques like fluorescence and Raman scattering. He holds prestigious positions such as the Hilda Pomeraniec Memorial Professorial Chair and has been recognized with major awards including the American Chemical Society Nakanishi Prize (2023) and the European Research Council Advanced Grant (2017). Education: PhD in Chemical Physics (1993, Weizmann Institute), postdoctoral training at the University of Pennsylvania (1994–1998). His academic progression includes Senior Scientist (1998–2005), Associate Professor (2005–2011), and Full Professor (2011–present). Research Interests: Single-Molecule Biophysics: Dynamics of proteins in action, including enzyme catalysis and molecular machines like ClpB. Nanophotonics: Surface plasmon excitations, quantum dot-light emission interactions in nanocavities. Super-Resolution Microscopy: 3D localization of T-cell receptors and membrane protein organization. His work bridges chemical physics and biology, with a focus on real-time molecular processes. Key Achievements: Pioneered methods in single-molecule FRET for studying protein dynamics. Discovered ultrafast dynamics in AAA+ protein disaggregases. Advanced plasmon-exciton coupling studies in nanophotonic systems. Grants & Awards: Over 10,000 citations, H-index 53. Major grants include ERC Advanced Grant (2017) and Israel Science Foundation Breakthrough Grant (2022). Honors include Fellowships from the Royal Society of Chemistry and Biophysical Society. Labs/Teams: Leads a multidisciplinary group at Weizmann, integrating spectroscopy, nanotechnology, and computational modeling to study molecular mechanisms at the single-particle level.

Matthew SpenkoView profile

Professor

• Robotics
• Soft Robotics
• Autonomous Systems
• +3 more

Matthew Spenko is a Professor of Mechanical and Aerospace Engineering and Interim Department Chair at Illinois Institute of Technology's Armour College of Engineering . He co-leads the CARNATIONS UTC and leads the Welcome to the Jungle team in the XPRIZE Rainforest competition. Ph.D. in Mechanical Engineering from MIT, 2005 M.S. in Mechanical Engineering from MIT, 2001 B.S. in Mechanical Engineering from Northwestern University, 1999 His research focuses on robotics and soft robotics , including gecko-like adhesives for climbing robots, navigation integrity for autonomous vehicles, and granular-based soft robots for ecological applications. He explores robot mobility in challenging environments, transitioning from climbing robots to multimodal systems (flying/terrestrial) for rainforest biodiversity monitoring. Recent publications highlight advancements in navigation safety for autonomous systems, self-assembling robots , and electrostatic adhesives . Key trends include integrating SLAM with integrity monitoring , developing multi-modal transportation robotics , and enhancing safety protocols for urban autonomous vehicles. Dean’s Award for Excellence in Research, Armour College of Engineering, 2022 MMAE Excellence in Research Award, 2018 IIT/Bauer Family Excellence in Undergraduate Teaching Award, 2014 Best Paper, Planetary Rovers Session, Int. Society of Terrain-Vehicle Systems, 2011 Intelligence Community Postdoctoral Fellowship, 2005-2007 Spenko collaborates with institutions like Purdue University on ecological projects and mentors teams in competitions. He integrates educational initiatives through specialized courses on navigation and autonomous systems within CARNATIONS.

• Biophysics
• Structural Biology
• Neuroscience
• +4 more

Prof. dr. Jelle Hendrix is a Senior Lecturer at Hasselt University's Faculty of Medicine and Life Sciences, Department of Neuroscience. He leads the Dynamic Bioimaging Lab and manages the Advanced Optical Microscopy Center core facility. His research focuses on advanced optical imaging techniques to study molecular mechanisms in neuroscience and structural biology, particularly protein dynamics and biomolecular interactions. He serves as Deputy Ombudsman and sits on the Examination Board for the Bachelor of Medicine program. Research interests span multiple biophysical domains: Single-molecule fluorescence microscopy for structural biology Protein conformation dynamics in neurodegeneration Biomolecular condensate characterization G-protein coupled receptor mechanisms Advanced microscopy method development Microfluidic approaches for protein interaction studies His publication portfolio reveals strong emphasis on single-molecule imaging techniques applied to membrane proteins, neurodegenerative mechanisms, and receptor dynamics. Recent work demonstrates growing interest in integrating computational approaches with experimental biophysics to study protein phase separation and its role in disease pathologies. Current research projects include: Flanders BioImaging (2023-2026): Integrated biological imaging services MULTISCALE Optical Imaging Core (2022-2026): Nanoscale to centimeter microscopy infrastructure Structuromics@UHasselt (2025-2030): Biomolecular assembly platform INSITE (2024-2027): Liquid protein condensate framework He currently advises 9 PhD students working on projects ranging from tauopathy mechanisms to real-time structural biology of membrane proteins. His Dynamic Bioimaging Lab develops novel methodologies for studying biological systems at unprecedented spatiotemporal resolutions.

Manuel MontañoView profile

Associate Professor

• Environmental Chemistry
• Nanoanalysis
• Nanogeochemistry
• +4 more

Manuel Montaño is an Associate Professor at Western Washington University's Department of Environmental Sciences. His work focuses on nanogeochemical processes, environmental nanotechnology, and contaminant fate/transport. He holds a PhD and BSc in Applied Chemistry and Chemistry from the Colorado School of Mines. His research explores nanoparticle behavior in environmental matrices, including nanopesticides, engineered nanomaterials, and natural colloids. Education: PhD in Applied Chemistry, Colorado School of Mines BSc in Chemistry, Colorado School of Mines Research Interests: Nanotoxicity and environmental nanomaterial interactions Single-particle ICP-MS method development Natural nanogeochemical systems Plastic additive leaching from nanocomposites Phytoremediation of mining contaminants Key Contributions: Pioneered advanced analytical techniques for nanoparticle characterization in environmental systems. Work emphasizes bridging nanotechnology applications with environmental stewardship through rigorous method development and field-scale studies. Labs/Teams: Leading initiatives at Western Washington University to integrate colloid science and geochemistry into environmental problem-solving. Collaborates internationally on instrumentation advancements like ICP-TOF-MS systems.

Richard TaylorView profile

Research Fellow

• Nanophotonics
• Biological Nanotechnology
• Optical Microscopy
• +4 more

Richard Taylor is a Research Fellow at the Max Planck Institute for the Science of Light, specializing in nanophotonics and interferometric scattering microscopy (iSCAT). He holds a Master's (1st Class Honors) in Physics from the University of Birmingham (2009) and a PhD from the University of Cambridge (2013), where his doctoral work focused on plasmonic nanoparticles and led to a patent for plasmonic junctions in surface-enhanced spectroscopy. Since 2013, he has worked in Prof. Vahid Sandoghdar's group, developing iSCAT microscopy for live-cell applications and became a Humboldt Postdoctoral Fellow in 2015. His research interests include visualizing nanoscale biological dynamics, particularly membrane organization and cellular function. He has pioneered tools like nanofluidic delivery systems for precise molecular manipulation in live cells. His work bridges plasmonics, microscopy innovation, and single-molecule biophysics. Education: BSc (Hons), Physics, University of Birmingham, 2009 PhD in Nanophotonics, University of Cambridge, 2013 Key research contributions include high-precision protein tracking, iSCAT microscopy development, and SERS-based analysis of nanoparticle clusters. He co-organized the inaugural international workshop on iSCAT microscopy in 2020, advancing scientific outreach and collaboration. Awards: Humboldt Postdoctoral Fellowship (2015) Grants/Advising: Not explicitly listed; focus on experimental and theoretical nanoparticle systems. His lab develops microscopy tools for studying biological systems at unprecedented spatiotemporal resolution, with applications in biophysics, nanomedicine, and materials science.

Richard M. McLaughlinView profile

Professor

• Fluid Dynamics
• Stratified Flows
• Turbulence
• +3 more

Richard M. McLaughlin is a Professor in the Department of Mathematics at the University of North Carolina at Chapel Hill, where he served as Mathematics Chair from 2013 to 2023. His academic career spans positions at the University of Utah and NSF postdoctoral work following his PhD training. His educational background includes a PhD in Applied Mathematics from Princeton University (1989-1994) and a BS in Mathematics from the University of Arizona (1986-1989). Early education was completed at Amphitheater High School and various elementary/junior high institutions in Arizona. McLaughlin's research centers on fluid dynamics with emphasis on stratified flows, turbulence, and passive scalar transport. His work bridges theoretical mathematics with experimental validation, particularly in geophysical and environmental contexts. Key themes include symmetry breaking in pipe flows, vortex dynamics in stratified media, and boundary effects on chemical transport in microfluidic systems. The research demonstrates strong interdisciplinary connections between mathematical theory, laboratory experiments, and real-world applications in oceanography and environmental science. His publication trends reveal consistent focus on stratification phenomena across multiple scales - from microfluidic systems to oceanic processes. Recent work increasingly integrates experimental validation with rigorous mathematical analysis, particularly in particle transport through sharp density interfaces and asymmetric concentration distributions in bounded flows. Milton van Dyke APS DFD Gallery of Fluid Motion (2015) for work on dense vortex rings in stratification McLaughlin leads the UNC Fluids Lab, which conducts experimental and theoretical research on stratified fluid phenomena. His work includes field campaigns such as the Himalayan Goyko Lake study examining extreme depth fluctuations. The lab utilizes both computational modeling and hands-on experiments, including APS-featured videos on falling spheres and fractal fingering. Current research directions involve marine snow settling dynamics, porous particle transport, and enzymatic activity enhancement at stratified layers.

Melissa OmandView profile

Associate Professor

• Observational Oceanography
• Physical-Biological Interactions
• Submesoscale Processes
• +3 more

Melissa Omand is an Associate Professor of Oceanography at the University of Rhode Island, specializing in physical oceanography and biogeochemical processes. Her work focuses on observational techniques to study carbon export, submesoscale dynamics, and the development of low-cost ocean instruments. She leads research on mechanisms driving the biological pump and has contributed to major field campaigns like EXPORTS and S-MODE. Education : Ph.D., Physical Oceanography, Scripps Institution of Oceanography (2004–2011) B.Sc. (Honors) in Physics, University of Guelph (1999–2003) Research Interests : Dr. Omand develops novel instrumentation to quantify carbon fluxes and study physical-biological interactions. Her projects include deploying MINION floats, GelCam sediment traps, and advancing airborne remote sensing for submesoscale processes. She explores how eddies, turbulence, and stratification influence nutrient distribution and plankton dynamics in coastal and open-ocean environments. Articles Trends : Her recent work emphasizes interdisciplinary methods, combining Lagrangian floats, DNA sequencing, and holographic imaging to track carbon pathways. Key themes include salp-mediated carbon export, impacts of extreme weather on ocean biogeochemistry, and advancing open-source ocean technologies. Publications span from submesoscale dynamics to instrument calibration and virtual reality applications in ocean education. Grants & Collaboration : PI on NSF CAREER grant for sensor development Co-lead on Twilight Zone Observation Network project Contributions to multi-institutional EXPORTS and S-MODE initiatives Labs/Teams : Affiliated with URI's Graduate School of Oceanography (GSO), leading teams in ocean technology and biogeochemical process studies. Collaborates with Scripps, NOAA, and international groups on field deployments and data synthesis.

• Biopharmaceuticals
• Pharmaceutical Science
• Drug Formulation
• +3 more

Ambrose Hayden is a Lecturer in the Department of Science at the Technological University of the Shannon (SETU), affiliated with the Pharmaceutical and Molecular Biotechnology Research Centre. His research focuses on biopharmaceutical formulation, excipient effects, and advanced drug delivery systems. He holds two Master's degrees: one in improving drug solubility via cyclodextrin complexes (2006) and another in FTIR/ATR spectroscopy analysis of chlorinated compounds (1999). His work bridges analytical chemistry and pharmaceutical science, emphasizing protein stabilization and formulation optimization. Key research areas include recombinant protein pharmacology, excipient interactions, and spray-drying technologies for biologics. Recent studies investigate arginine hydrochloride's role in protecting Olipudase alfa during manufacturing and apply multi-angle light scattering for biopharmaceutical evaluation. His 2021 review on drying technologies highlights innovations in genetic disorder therapies. Publications span peer-reviewed journals like International Journal of Pharmaceutics and AAPS PharmSciTech , with notable citation impact and reader engagement on platforms like Mendeley. Collaborations involve multidisciplinary teams addressing challenges in formulation science and biopharmaceutical production.

• Human Dynamics
• Gender Inequality
• Socioeconomic Inequalities
• +7 more

Mariana Macedo is an Assistant Professor in Data Science at Northeastern University London, affiliated with the CoMENS Faculty and the Data and AI department. She holds a PhD in Computer Science from the University of Exeter (2022), and B.Sc./M.Sc. degrees in Computer Engineering from the University of Pernambuco (2016/2017), with additional studies at Pace University through Brazil’s Scientific Mobility Program. Her research focuses on Human Dynamics, Gender/Socioeconomic Inequalities, and Data-Driven Applications within Complex Systems. Her work explores mechanisms perpetuating inequality in academia and mobility, leveraging swarm intelligence and optimization techniques. Notable projects include developing digital platforms like MonProgramme2022.org and Brazucracia.org to analyze public policy engagement, and contributing to Pantheon.world’s collective memory studies through interactive games. Her recent publications (2023-2025) investigate gender disparities in scientific rankings, urban mobility patterns, and algorithmic innovations in swarm intelligence. She actively promotes diversity in tech through initiatives like Women in Network Science and outreach programs encouraging underrepresented groups to pursue computer science. Macedo’s academic contributions span interdisciplinary collaborations across Europe and Latin America, reflecting her commitment to bridging computational methods with societal challenges. Her work emphasizes ethical data usage, policy informatics, and equitable access to education.

Claudio MazzoleniView profile

Professor

• Atmospheric Sciences
• Climate Science
• Aerosol Physics
• +4 more

Claudio Mazzoleni is a Professor of Physics and Director of the Atmospheric Sciences Ph.D. Program at Michigan Technological University (MTU). He leads the Environmental Optics Laboratory, focusing on aerosol impacts on climate and air quality. His work integrates instrumentation development, field studies, and global data analysis to quantify aerosol optical properties, cloud interactions, and climate model improvements. He holds a PhD in Atmospheric Sciences and has conducted extensive research at remote sites like the Pico Mountain Observatory in the Azores. His research emphasizes aerosol aging processes, light absorption enhancements, and fractal aggregate structures in wildfire emissions. Key projects include the 2CLOUDPHYS convection-cloud chamber and PSR-EBL lidar technology for black carbon measurement. Research highlights include studies on tar ball particles' radiative forcing, soot compaction through cloud processing, and the climatic role of free tropospheric aerosols. His work bridges laboratory experiments, field campaigns (e.g., ACORES, ACE-ENA), and numerical modeling to address gaps in understanding aerosol-climate interactions. His lab collaborates globally on campaigns like the LAACI experiment and develops novel instruments for aerosol characterization. Current efforts focus on advancing climate model accuracy through precise aerosol property measurements and cloud-aerosol interaction studies.