Find Academic Supervisors

• Semiconductor Materials
• Electrical Engineering
• Liquid Phase Epitaxy
• +2 more

Ali Abul-Fadl serves as a Part-Time Instructor in the Department of Electrical and Computer Engineering at North Carolina Agricultural and Technical State University, where he teaches core undergraduate courses including Electric Circuit Analysis II and Senior Design Projects since 2023. Education: Ph.D. in Electrical Engineering, University of Idaho (1976) M.S. in Electrical Engineering, University of Idaho (1971) B.S. in Electrical Engineering, University of Idaho (1969) Research Focus: Dr. Abul-Fadl specializes in semiconductor material science with emphasis on liquid phase epitaxy of III-V compounds , a critical technique for optoelectronic device fabrication. His doctoral research on current-controlled growth processes remains foundational for compound semiconductor development in high-speed electronics applications. Scientific Recognition: No formal awards or fellowships were documented in available sources. Academic Contributions: He actively mentors undergraduate students through Senior Design Project courses, guiding capstone engineering teams in practical circuit implementation and system integration. His teaching portfolio demonstrates sustained commitment to electrical engineering education despite part-time status.

David AttiaView profile

Researcher

• Supramolecular Polymer Chemistry
• Biomaterials
• Nanotechnology
• +5 more

David Attia is a postdoctoral researcher at Eindhoven University of Technology's College of Biomedical Engineering, specializing in the Department of Biomedical Materials and Chemistry. His work focuses on supramolecular polymers, biomaterials, and self-assembly mechanisms. Research interests include: Design of pH-responsive supramolecular polymers using ureido-pyrimidinone motifs and β-sheet peptides Self-assembly dynamics of cellulose nanocrystals and carbon nanotubes Chirality effects in nanomaterial organization Biopolymer-colloid interactions in aqueous systems Development of responsive biomaterials for biomedical applications His recent work explores: Hybrid pH-responsive supramolecular polymers Biopolymer-mediated nanomaterial assembly Colloid-polymer interactions in complex systems Email: d.r.attia@tue.nl

Mark McCreadyView profile

Professor

• Multiphase Fluid Flows
• CO2 Capture and Absorption
• Ionic Liquids
• +12 more

Mark McCready is a Professor in the Department of Chemical and Biomolecular Engineering and serves as the Senior Associate Dean for Research and Faculty Affairs in the College of Engineering at the University of Notre Dame. He has been a faculty member since 1984 and held the position of Department Chair from 1996 to 2012. Ph.D., University of Illinois, 1984 B.Ch.E., University of Delaware, 1979 His research focuses on multiphase fluid flows in confined geometries , CO2 absorption using ionic liquids , micro fuel cell technologies , and phase change processes . His work integrates fundamental fluid dynamics with practical applications in energy and environmental systems. Recent publications highlight a strong trend in carbon capture technologies , particularly using encapsulated ionic liquids, alongside contributions to molecular dynamics simulations for battery electrolytes and engineering education , especially in capstone design and international experiences. Fellow of the American Institute of Chemical Engineers (AIChE) McCready has advised numerous graduate students and led major research initiatives, including collaborations with NASA and development of innovative educational tools. His work in gas-liquid reactors , bubble nucleation , and transport phenomena has been supported by significant grants over decades. He has also contributed to curriculum development, including study abroad programs and electronic portfolios for student development. His research group has been involved in the design and simulation of micro-encapsulated systems for CO2 capture, molecular modeling of electrolytes, and experimental studies of two-phase flows in microgravity and confined geometries.

Maitreyee RoyView profile

Associate Professor

• Optical Physics
• Quantum Dots
• Contact Lens
• +6 more

Associate Professor Maitreyee Roy is a researcher at the School of Optometry and Vision Science, University of New South Wales (UNSW Sydney). She specializes in Optical Physics, Quantum Dots, 3D Optical Imaging, and Artificial Neural Networks with applications in biomedical instrumentation, nanophotonics, and optometry/ophthalmology. Her research includes: Developing novel imaging technologies like Full-Field Optical Coherence Microscopy Investigating blue-blocking lens effects on visual/non-visual systems Creating AI-driven ocular disease detection systems Visualizing tear film dynamics using non-toxic quantum dots 3D reconstruction of OCT images for glaucoma diagnosis Recent publications focus on machine learning applications for glaucoma staging, quantum dot tear film imaging, and 3D medical visualization techniques. She collaborates with international labs at UC Berkeley, Tokyo Tech, and Mexico's INAOE. Awards: NMI World Metrology Day Outstanding Achievement (2013, 2011) ProSciTech Trans-Tasman Award (2006) Fellow of Optical Society of America JSPS Invitation Fellowship (2004) She supervises postgraduate and undergraduate students in projects related to optical coherence tomography, artificial intelligence applications, and quantum dot bioimaging. Professional memberships include Optical Society of America, SPIE, and Australian Standards Committee for eye protection.

W. Todd FrenchView profile

Associate Professor

• Biofuels
• Microbial Lipid Production
• Wastewater Treatment
• +3 more

W. Todd French serves as an Associate Professor in the Department of Chemical Engineering at Mississippi State University's Bagley College of Engineering, specializing in sustainable biofuel production from waste streams and microbial systems. Education: Ph.D. in Chemical Engineering, Mississippi State University, 2000 M.S. in Chemical Engineering, Mississippi State University, 1996 B.S. in Chemical Engineering, Northeast Louisiana University, 1990 His research focuses on converting wastewater treatment byproducts and industrial waste streams into valuable biofuels through microbial lipid production. Key methodologies include pressurized CO2 cell disruption, optimization of lipid extraction from wet biomass, and thermodynamic characterization of lipid-gas interactions. His work bridges chemical engineering fundamentals with environmental sustainability, emphasizing: Industrial-scale lipid recovery from microalgae and activated sludge Economic viability of microbial biodiesel production Integration of wastewater treatment with renewable fuel generation Utilization of volatile fatty acids and brewery effluents as microbial feedstocks Analysis of his 2015-2020 publications reveals a consistent trajectory toward industrial implementation, with increasing emphasis on pretreatment techniques for wet biomass, solubility modeling of CO2 in lipids, and economic assessments of microbial biodiesel systems. His research demonstrates how wastewater treatment facilities can function as biorefineries. No scientific awards were documented in the provided materials. While specific advising details are absent, his extensive publication record with multiple co-authors indicates active mentorship of graduate researchers in chemical engineering and biofuels. His work shows strong interdisciplinary collaboration across environmental engineering and microbiology domains. Dr. French conducts research within Mississippi State's Chemical Engineering infrastructure, leveraging university resources for experimental validation of lipid extraction processes and microbial cultivation systems focused on sustainable energy solutions.

• Particle Physics
• Dark Matter Detection
• Neutrino Physics
• +3 more

Marco Pallavicini is a Full Professor at the University of Genoa's Department of Physics (DIFI), specializing in experimental physics of fundamental interactions. He is a key member of major international collaborations including Borexino, CUORE, DarkSide, DUNE, and ICARUS. His roles include participation in the Consiglio direttivo (Directors' Council) of DIFI. His research focuses on neutrino physics, dark matter detection, and advanced detector technologies. Notable projects include the DarkSide-20k dark matter experiment (focusing on cryogenics and argon purity), CUORE's search for neutrinoless double-beta decay, and DUNE's neutrino oscillation and proton decay studies at Fermilab. He also contributes to Borexino's analysis of solar neutrinos and astrophysical phenomena. Publications highlight innovations in liquid argon TPCs, neutron detection materials, and data-driven background modeling. His work spans experimental design, particle detection algorithms, and international accelerator collaborations such as Fermilab upgrades for DUNE. Awards: Not explicitly listed in provided texts. Teaching responsibilities include advanced courses on Classical Physics, Nuclear Physics, and Elementary Particle Physics at both undergraduate and graduate levels. Labs/Teams: Core member of DarkSide, DUNE, CUORE, Borexino, and ICARUS collaborations. Active in detector development for ton-scale liquid argon systems and cryogenic technologies.

Douglas StanfordView profile

Associate Professor

• Theoretical Physics
• Quantum Gravity
• Black Hole Information Paradox
• +4 more

Douglas Stanford is an Associate Professor of Physics at Stanford University, affiliated with the Stanford Institute for Theoretical Physics (SITP). His research focuses on theoretical physics, particularly in quantum gravity, black hole information paradoxes, and quantum chaos. He teaches advanced courses such as Quantum Field Theory II and supervises numerous doctoral and postdoctoral researchers. Research interests include AdS/CFT correspondence, holography, and the interplay between quantum mechanics and gravity. His work often explores black hole microstates, entanglement entropy, and the foundations of quantum field theory in curved spacetime. Notable contributions include studies on wormholes, quantum chaos in SYK models, and the application of random matrix theory to gravitational systems. His recent articles emphasize topics like bulk reconstruction, conformal symmetry in 2D geometries, and the dynamics of quantum information in black hole interiors. Dr. Stanford advises over 30 doctoral candidates and postdoctoral scholars, many of whom contribute to cutting-edge research in high-energy physics and quantum gravity. His lab is part of the broader theoretical physics community at Stanford, collaborating on initiatives such as the Snowmass Process for future research directions.

Vladlen ShvedovView profile

Researcher

• Nonlinear Optics
• Optical Vortices
• Liquid Crystals
• +3 more

Vladlen Shvedov is a Researcher at the Australian National University (ANU), affiliated with the ARC Centre of Excellence for Transformative Meta-Optical Systems and the Research School of Physics. His work focuses on advanced optics, nonlinear phenomena, and photonics. Key research areas include optical vortices, liquid crystals, metamaterials, and optical trapping technologies. He has contributed to projects such as photonics with structured light for applications in communication and nano-technologies (2016–2019). His research explores topics like laser-induced surface structures, phase change materials, and metasurface tuning using liquid crystals. Shvedov has published extensively, with notable contributions to optical solitons, ultrafast laser processing, and topological electromagnetic phenomena. His work bridges fundamental optics with applied technologies, including applications in materials science and nanophotonics. Shvedov's recent studies address tunable optoelectronic materials (Sb₂Se₃) and 3D metasurface modulation. He has also investigated vortex soliton dynamics in nematic liquid crystals and electromagnetic singularities. His research often involves collaborations on cutting-edge optical systems and their engineering applications.

Jared E. ToettcherView profile

Associate Professor

• Cell Signaling Pathways
• Optogenetics
• Systems Biology
• +6 more

Jared E. Toettcher is the Associate Professor of Molecular Biology and Deputy Director of the Omenn-Darling Bioengineering Institute at Princeton University. He holds additional faculty affiliations with the Department of Chemical and Biological Engineering and the Lewis-Sigler Institute for Integrative Genomics. Education: B.S. in Bioengineering, University of California, Berkeley (2004) Ph.D. from Massachusetts Institute of Technology (2009) Research Focus: The Toettcher Lab investigates how cells decode spatial and temporal signaling information to make critical decisions about growth, differentiation, and migration. Their work combines optogenetic tools (Phytochrome B/PIF6 system), high-resolution microscopy, and systems biology to study: Dynamic signal encoding in Ras/Erk pathways Spatiotemporal control of developmental processes Phase separation as a mechanism for cellular memory Cancer-related signaling pathway disruptions Synthetic control of metabolic and developmental systems Key Publication Trends: Recent work focuses on light-regulated systems for controlling signaling pathways (2023-2025), with particular emphasis on interferon receptors, embryonic symmetry breaking, and prime editing techniques. Earlier studies (2013-2018) established foundational optogenetic tools for studying Erk dynamics and metabolic flux control. Scientific Recognition: NSF CAREER Award (2018-2023) NIH New Innovator Award (2016-2021) Cancer Research Institute Fellow (2010-2013) MIT Presidential Fellow (2004) UC Berkeley Regents' Scholar (2000) Laboratory and Collaborations: The Toettcher Lab at Princeton University operates at the intersection of quantitative cell biology and engineering, with active collaborations across bioengineering, genomics, and developmental biology disciplines.

Trevor P. CreamerView profile

Professor

• Structural Biology
• Biophysics
• Intrinsically Disordered Proteins
• +5 more

Trevor P. Creamer is a Professor in the Department of Molecular and Cellular Biochemistry at the University of Kentucky, where he also serves as Associate Dean for Faculty Affairs in Basic Sciences and Director of Graduate Studies. His research focuses on intrinsically disordered proteins and their roles in cellular signaling, particularly through the calcineurin-calmodulin pathway. His educational background includes a Ph.D. in Physical Chemistry from the University of Western Australia, followed by postdoctoral training at Johns Hopkins School of Medicine, Washington University at St. Louis, University of North Carolina at Chapel Hill, and The Pennsylvania State University. Dr. Creamer's research interests center on the structural and biophysical properties of intrinsically disordered regions (IDRs) in proteins. He investigates how these dynamic regions regulate essential cellular processes, particularly through calcineurin, a phosphatase involved in memory, cardiac development, and immune responses. His work bridges structural biology, biophysics, and disease mechanisms, providing insights into Alzheimer’s, Down syndrome, and autoimmune disorders. His recent publications reveal a sustained focus on protein conformational dynamics, macromolecular interactions, and phase separation phenomena. The articles span topics from viral protein assembly to nuclear receptor ligand binding, indicating a broad yet cohesive research program in molecular recognition and disorder-to-order transitions. Research on calcineurin regulation and calmodulin interactions Studies on polyproline II helix formation and protein folding Investigations into viral membrane fusion and phase separation Dr. Creamer has held major academic leadership roles, including Director of Graduate Studies and Associate Dean, indicating active involvement in training and institutional development. While specific grants are not listed, his sustained publication record suggests ongoing funded research. He advises graduate students through the Molecular and Cellular Biochemistry program. He leads an active research laboratory at the University of Kentucky, focusing on protein dynamics and signaling mechanisms. The lab employs biophysical, biochemical, and computational approaches to dissect molecular interactions involving disordered protein regions.

Marcus HalikView profile

Professor

• Nanomaterials for Environmental Remediation
• Organic Electronics
• Perovskite Solar Cells
• +3 more

Prof. Marcus Halik is a full professor at the Department of Materials Science and Engineering , Friedrich-Alexander University Erlangen-Nürnberg. His research focuses on Nanomaterials for Environmental Remediation , Self-Assembled Monolayers (SAMs) , and Hybrid Photovoltaic Systems . He leads the OMD (Organic Materials and Devices) lab and has pioneered magnetic nanoparticle-based water purification methods. Key Research Areas: Nanoparticle surface engineering for pollutant removal Organic-inorganic heterojunctions in solar cells Advanced gas sensor design using functionalized nanowires Low-voltage organic electronic devices Notable Techniques: Self-assembly of phosphonic acid monolayers Area-selective nanoparticle deposition Magnetic separation systems Molecular dynamics simulations for surface analysis His recent publications highlight magnetic water cleaning agents for PCBs and nanoplastics, ligand engineering for perovskite solar cell stability, and supramolecular antimicrobial coatings . While no explicit scientific awards are listed, his work has been cited over 47,000 times (ResearchGate metrics). Collaborations with leading institutions like University of Tokyo and Swiss Federal Institute of Technology in Lausanne demonstrate his international impact.

• Artificial Photosynthesis
• Molecular Energy Conversion
• Radiation Chemistry
• +5 more

David Grills is a Senior Chemist at Brookhaven National Laboratory's Chemistry Division, specializing in electron- and photo-induced processes for molecular energy conversion and artificial photosynthesis. He leads research in transient spectroscopic techniques (UV-visible, time-resolved IR) to study catalytic mechanisms for CO2 reduction and H2 production. Ph.D., Inorganic Photochemistry, University of Nottingham (1999) B.Sc., Chemistry, University of Nottingham (1995) His research focuses on radiation and photochemistry of transition metal complexes in unconventional solvents like supercritical fluids and ionic liquids. Key areas include developing nanosecond time-resolved IR detection for pulse radiolysis and laser flash photolysis, with applications in solar fuels and small molecule activation. David's publications span CO2 reduction catalysis, radiation chemistry, and spectroelectrochemical methodologies. His work with the Department of Energy's CHASE hub involves hybrid molecule/material photoelectrodes for sunlight-driven liquid fuel generation. He also contributes to NSF and DOE workshops on CO2 utilization and nuclear energy research. F. S. Kipping Scholarship, University of Nottingham Zeneca Award, University of Nottingham University Exhibition/Boots Drummond Memorial Prizes He serves on the editorial board of the Journal of Saudi Chemical Society and co-organized an ACS symposium on green chemistry. His lab at Brookhaven employs advanced spectroscopic tools to investigate fast and ultrafast catalytic processes.

Nicholas BaileyView profile

Associate Professor

• Molecular Dynamics Simulations
• Glass-Forming Liquids
• Isomorph Theory
• +4 more

Nicholas Bailey is an Associate Professor in the Department of Mathematics and Physics (IMFUFA) within Roskilde University's Department of Science and Environment, Denmark. His research focuses on computational statistical mechanics of glass-forming systems, with particular expertise in isomorph theory and molecular dynamics simulations of metallic glasses and ionic liquids. His primary research interests center on hidden scale invariance in liquids, density scaling phenomena, and the thermodynamic-structural relationships in glassy materials. Bailey employs advanced molecular dynamics techniques to investigate melting curves, phase transitions in binary alloys like Cu-Zr systems, and the rheological behavior of amorphous materials under shear deformation. His work bridges fundamental statistical mechanics with practical materials science applications. Recent publications demonstrate strong focus on Isomorph invariance in sheared glassy systems (2023) Density scaling exponents from pair potentials (2014-2021) Melting curve predictions for metals (2024) Dynamic mechanical analysis of glass formers (2022) His research shows consistent methodology using GPU-accelerated molecular dynamics (RUMD software) across diverse material systems from metallic glasses to ionic liquids. As a project participant in the "Matter" research initiative (2017-2023), Bailey collaborated with leading physicists including J.C. Dyre and Kristine Niss. His speaking engagements include significant presentations on isomorph theory at international conferences in 2017 and 2009. Bailey maintains active research output with 46 publications including 42 journal articles, 3 working papers, and datasets archived on Zenodo. His work appears primarily in high-impact physics journals including Physical Review B, Physical Review E, and Journal of Chemical Physics.

Álvaro Rodríguez RivasView profile

Researcher

• Statistical Physics of Liquids
• Simple and Complex Liquids
• Phase Transitions
• +5 more

Álvaro Rodríguez Rivas is a Researcher at the Department of Physical, Chemical and Natural Systems at the University of Pablo de Olavide . He is affiliated with the Centro de Nanociencia y Tecnologías Sostenibles (CNATS) and part of the FISICA ESTADISTICA DE LIQUIDOS research group. His work focuses on statistical physics of liquids, phase transitions, and granular dynamics. 2008: BSc in Physics, University of Seville 2016: PhD in Colloid and Interface Science, University of Pablo de Olavide Dr. Rodríguez-Rivas specializes in Statistical Physics of Liquids , Phase Transitions , and Granular Media . His research spans simple fluid adsorption, critical phenomena, and active matter dynamics, with a strong computational focus on Monte Carlo and molecular dynamics simulations. Recent work examines biofilm growth and chiral flows in two-dimensional systems. The 15 most recent articles reflect trends in biofilm simulation , phase transitions in fluids , active matter , and granular convection . Key topics include computational modeling of bacterial interactions, critical point analysis in attractive fluids, and chiral symmetry in active disk mixtures. He has undertaken research stays at Imperial College London , Johannes Gutemberg University of Mainz , and Carlos III University of Madrid , and collaborates on projects related to soft matter and sustainable nanoscience.

• Hydrodynamics with application to physicochemical applications
• Filtration
• Water purification
• +4 more

Prof. Ian Griffiths is a Professor at the Mathematical Institute of the University of Oxford, located at the Andrew Wiles Building in Oxford (OX2 6GG). His contact details include phone +44 1865 615139 and ORCID profile https://orcid.org/0000-0001-6882-7977. His research focuses on industrial applications of fluid mechanics through the Oxford Centre for Industrial and Applied Mathematics. His primary research domains encompass: Hydrodynamics with application to physicochemical applications Filtration and water purification systems Glass manufacturing processes Slow viscous flow phenomena Surfactant-laden interfacial dynamics Advanced asymptotic analysis techniques Recent publications (2024-2025) demonstrate concentrated expertise in Hele-Shaw cell dynamics, bubble deformation mechanisms, and surface-tension-driven instabilities. His work bridges theoretical fluid mechanics with industrial applications in water treatment and materials science, consistently published in premier journals including Journal of Fluid Mechanics and Physical Review Fluids.