Find Academic Supervisors

Vasileios PaschalidisView profile

Assistant Professor

• Gravitational Physics
• Theoretical Astrophysics
• Numerical Relativity
• +5 more

Vasileios Paschalidis is an Assistant Professor in the Department of Astronomy and Department of Physics at The University of Arizona . He serves as one of the 5 core faculty members in the Theoretical Astrophysics Program and leads research at the intersection of gravitational physics and theoretical astrophysics , with a focus on compact object binaries and multimessenger astronomy . Department of Astronomy, The University of Arizona Department of Physics, The University of Arizona Theoretical Astrophysics Program, The University of Arizona His research investigates strong-field gravitation through simulations of black hole-black hole , neutron star-neutron star , black hole-neutron star , and white dwarf-neutron star binaries. Key areas include gravitational wave modeling , electromagnetic signatures , neutrino emissions , and equation of state constraints for nuclear matter. Recent work explores eccentric mergers in globular clusters , spin-flip mechanisms in X-shaped radio galaxies, and planet formation around pulsars . The 15 most recent publications highlight his expertise in numerical relativity , general relativistic MHD , and radiation transport . These works examine charged black hole mergers , ultrarelativistic particle dynamics , accretion disk variability , and novel periodicities in jet power from binary black hole systems. His simulations underpin gravitational wave detection by LIGO/Virgo/KAGRA and future missions like eLISA .

• Theoretical Fluid Mechanics
• Continuum Mechanics
• Kinetic Theory
• +4 more

Roger E. Khayat is a Professor in the Department of Mechanical & Materials Engineering at Western University, Canada. He holds a Ph.D. in Chemical Physics (1989), M.Eng in Civil Engineering (Applied Mechanics) (1982), and B.Eng (Honours) in Mechanical Engineering (1980) from McGill University. His research focuses on theoretical fluid mechanics, non-Newtonian flows, and thermal convection, with significant contributions to chaos theory in complex fluids and polymer processing. Education: B.Eng (Honours) - Mechanical Engineering, McGill University (1980) M.Eng - Applied Mechanics, McGill University (1982) Ph.D. - Chemical Physics, McGill University (1989) Research Interests: Theoretical fluid mechanics of Newtonian and complex fluids Non-Newtonian fluid dynamics Thermal convection and stability analysis Micro/nano-scale heat transfer Hydraulic jump phenomena Viscoelastic flow modeling Publications: Over 150 journal papers in Journal of Fluid Mechanics , Physics of Fluids , Physical Review Letters , and other top-tier journals Recent work explores supercritical fluid dynamics, viscoelastic jet spreading, and gravity's role in hydraulic jumps 15 most recent articles emphasize transient flow behavior, thermal convection in non-Fourier fluids, and free-surface stability Academic Leadership: Full Professor at Western University (2003–present) Associate Chair (2003–2005) Former Research Officer at NRC Industrial Materials Institute (1989–1997) Supervision: Supervised ~50 graduate researchers Advisees include S.F. Asokanthan, Ralph O. Buchal, Louis M. Ferreira, and others Technical Expertise: Boundary element methods Spectral perturbation techniques Nonlinear stability analysis Finite amplitude convection modeling

Rebecca G. MartinView profile

Associate Professor

• Accretion Theory
• Protoplanetary Discs
• Planet Formation in Binaries
• +5 more

Rebecca G. Martin serves as an Associate Professor in the Physics and Astronomy Department at the University of Nevada, Las Vegas. Previously, she held prestigious postdoctoral fellowships including a Sagan Fellowship at JILA, University of Colorado, Boulder for three years and a Giacconi Fellowship at the Space Telescope Science Institute in Baltimore for three years. Her academic journey began with a PhD completed in 2009 at the University of Cambridge, UK, under the supervision of Professor Jim Pringle. Her educational background includes doctoral studies at the University of Cambridge, where she developed expertise in theoretical astrophysics with a focus on accretion disc theory. Prior to her PhD, though specific details aren't provided in the text, she would have completed undergraduate and possibly master's level studies in physics or astronomy that prepared her for advanced research in astrophysical dynamics. Dr. Martin's research centers on theoretical astrophysics, particularly examining how star and planetary systems form and why supermassive black holes grow in galactic centers. She employs both analytic and numerical methods in gas dynamics to investigate these processes. Her work spans several key areas including accretion theory , where she studies angular momentum transport in discs from planetary to galactic scales; protoplanetary discs , focusing on dead zones and gravo-magneto disc instabilities that explain FU Orionis outbursts; planet formation in binary systems , investigating how misaligned discs undergo Kozai-Lidov oscillations; and Be/X-ray binaries , where she explains Type II X-ray outbursts through disc eccentricity driven by Kozai-Lidov mechanisms. Analysis of her 15 most recent publications reveals a consistent focus on disc dynamics across various astrophysical contexts. Her work increasingly addresses complex multi-body systems including triple star configurations and polar-aligned circumbinary structures. The research demonstrates strong theoretical foundations with practical applications to observed astronomical phenomena, particularly in explaining unusual orbital configurations and outburst mechanisms. Recent publications show growing interest in gravitational wave sources through black hole binary mergers and applications to newly discovered exoplanet systems with unusual orbital geometries. Sagan Fellow at JILA, University of Colorado, Boulder Giacconi Fellow at Space Telescope Science Institute Dr. Martin's research program has been supported by prestigious fellowships that recognize exceptional promise in astronomical research. Her work bridges theoretical modeling with observational astronomy, contributing significantly to our understanding of disc dynamics across multiple scales. While specific grant details aren't provided, her extensive publication record in high-impact journals suggests substantial research funding supporting her theoretical investigations. She contributes to the academic community through her research mentorship, though specific student advising details aren't mentioned in the provided text. Her research appears to be conducted primarily through theoretical modeling and computational analysis rather than laboratory-based work. She collaborates extensively with researchers including Stephen H. Lubow, with whom she has numerous co-authored publications addressing disc dynamics across various astrophysical contexts. Her work connects with broader research communities studying exoplanet formation, binary star systems, and high-energy astrophysical phenomena.

Ali Bahadır OlcayView profile

Professor

• Fluid Mechanics
• Thermodynamics
• Heat Transfer
• +3 more

Prof. Dr. Ali Bahadır Olcay, currently serving at Yeditepe University's Faculty of Engineering, has held academic positions including Associate Professor (2019), Doctoral Lecturer (2013), and Assistant Professor (2007-2010) at institutions like Doğuş University and University of Wisconsin-Platteville. His research spans Fluid Mechanics, Thermodynamics, and Biomechanics, with notable work on vortex ring dynamics, heat exchanger optimization, and cerebral aneurysm hemodynamics. PhD in Mechanical Engineering (2007, Southern Methodist University) MS in Mechanical Engineering (2000, Southern Illinois University) BS in Mechanical Engineering (1999, Middle East Technical University) His scientific contributions include 15+ major publications on Computational Fluid Dynamics (CFD) applications in mechanical systems and biomedical contexts, focusing on Lagrangian Coherent Structures (LCS) for flow analysis. His research integrates thermodynamic principles with practical engineering solutions for heat transfer, propulsion systems, and medical device evaluation. Prof. Olcay has received multiple awards, including the Pioneer Undergraduate Research Fellows (PURF) and Scholarly Activity Improvement Fund (SAIF). He has advised 19 graduate students (15 Master's, 4 Doctoral) and managed 6 significant research projects, notably TÜBİTAK 1001 and SAN-TEZ grants. His full academic profile includes leadership roles in Turkish Student Association and Graduate Student Council.

Alessandro MassarottiView profile

Associate Professor

• Planetary Science
• Astrophysics
• Geophysics
• +2 more

Alessandro Massarotti is an Associate Professor of Physics and the Chair of the Physics & Astronomy Department at Stonehill College, where he also directs the Earth & Planetary Sciences Program. His research spans planetary science, astrophysics, and theoretical physics with significant computational modeling expertise. His educational background includes: B.S. in Physics from the University of Rome 'La Sapienza' Ph.D. in Physics from the University of Chicago Massarotti's primary research focuses on rocky planet evolution across solar system bodies and exoplanets, developing computational models to simulate planetary interiors under extreme conditions. He investigates Earth's continental crust formation, water cycling, and magnetic field generation, while comparing divergent evolutionary paths of Mars and Venus. His astrophysics work examines red giant stars, binary systems, and black holes, with notable findings on stellar rotation transfer during red giant phases and planetary ingestion phenomena. He also explores quantum gravity foundations, challenging point-particle models through spin-based space-time discretization theories. His publication record (1989-2022) reveals consistent interdisciplinary work connecting planetary science, stellar astrophysics, and cosmology through computational modeling and observational data analysis, with recent emphasis on exoplanet characterization and high-energy astrophysical systems. No scientific awards were documented in the source material. Massarotti teaches core physics courses including Quantum Mechanics, Statistical Physics, and Semiconductor Materials, while mentoring students through research projects involving computational modeling of planetary systems and stellar phenomena. His departmental leadership shapes curriculum development in physics and planetary sciences. He directs a computational research group developing state-of-the-art planetary evolution models, analyzing data from observatories like Hubble and Chandra, and investigating tidal interactions in binary star systems, with ongoing projects focused on exoplanet interior dynamics and stellar evolution mechanisms.

• Control Systems
• Wind Energy
• Aerospace Engineering
• +3 more

Morten Dinhoff Pedersen is an Associate Professor in the Department of Engineering Cybernetics at NTNU. He holds a MSc in Engineering Cybernetics from NTNU and a PhD focused on wind turbine modeling and control systems. His research spans control systems, wind energy, aerospace engineering, and biomedical applications such as surgical simulation and tissue mechanics modeling. He has authored/co-authored over 20 publications since 2012, including doctoral dissertations and peer-reviewed articles in journals like Wind Energy Science and Computer Methods and Programs in Biomedicine . His work often integrates advanced control theory with real-world applications in energy systems and medical devices. Research Interests Advanced control systems for wind turbines and multirotor systems Biomedical engineering applications in surgical robotics and haptic feedback Nonlinear modeling and system identification in aerospace and mechanical systems Recent publications emphasize multirotor system optimization, real-time tissue modeling for surgery, and inflow dynamics analysis for turbines. Grants & Advising Advises PhD candidate Finn Matras (2025 dissertation) Collaborates with interdisciplinary teams in biomechanics and renewable energy Teaching Course responsibilities include TTK4123 (Methods of Engineering Cybernetics) and TTK4111 (Control Systems)

• Solid State Ionics
• Ionic Conduction at Interfaces
• Ionomers
• +2 more

Philippe Knauth serves as Professor of Materials Chemistry at Aix Marseille University, conducting research at the MADIREL laboratory (UMR 7246) and co-leading the International Laboratory "Ionomer Materials for Energy" (LIME). His academic career centers on advanced materials development for electrochemical energy systems, with institutional affiliations focused on solid-state ionics and sustainable energy solutions. Knauth's research expertise spans Solid State Ionics, Ionic Conduction at Interfaces, Ionomers, Nanostructured and Composite Materials, and Materials for Batteries and Fuel Cells. His work emphasizes fundamental interfacial phenomena in ion-conducting materials, particularly addressing challenges in ionic mobility, membrane stability, and electrode-electrolyte interactions. This research drives innovation in next-generation energy storage and conversion devices through molecular-level material design. Analysis of Knauth's 15 most recent publications (2023-2025) reveals three dominant research thrusts: (1) Development of anion exchange ionomers and membranes with enhanced alkaline stability for fuel cells, (2) Engineering of carbon quantum dot-based electrocatalysts for oxygen reduction, and (3) Design of protective ionomer layers for battery electrodes. His publications consistently integrate nanomaterials synthesis, electrochemical characterization, and device integration, with growing emphasis on sustainable materials derived from biomass. No scientific awards were documented in the source materials. Information regarding student advising, research grants, or teaching responsibilities was not provided in the available documentation. Knauth maintains active research operations through the MADIREL laboratory at Aix Marseille University and the International Laboratory LIME, which facilitates Franco-international collaboration on ionomer materials. His team specializes in electrochemical synthesis, membrane characterization, and nanomaterials engineering for energy applications, with infrastructure supporting thin-film deposition, electrochemical testing, and materials analysis.

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.

Dave FarsonView profile

Associate Professor

• Laser Materials Processing
• Welding Engineering
• Materials Joining
• +3 more

Dave Farson is an Associate Professor at Ohio State University in the Department of Materials Science and Engineering. He leads research in laser materials processing and materials joining, spanning industrial welding applications to nanoscale surface modification. His work bridges theoretical and applied domains, supported by his roles at the Edison Joining Technology Center. B.S. and M.S. in Welding Engineering from Ohio State University Ph.D. in Electrical Engineering with minors in welding engineering, digital systems, and mathematics from Ohio State University His research interests focus on laser materials processing, additive manufacturing, and welding engineering. Key subfields include weld pool dynamics, microstructure control in nickel alloys, electrospun tissue scaffolds, and femtosecond laser micromachining for biomedical applications. His 15 most recent articles highlight advancements in nitrogen transport modeling, surface tension control, and hybrid laser-arc welding defect mitigation. AF Davis Silver Medal Award McKay-Helm Award Lumley Research Award (2007) Fellow of Laser Institute of America (1997) Fellow of American Welding Society (2011) Ranked in the top 2% of scientists worldwide by Elsevier (2021) He has contributed to the Laser Institute of America's Handbook of Laser Materials Processing as co-editor and served on editorial and committee roles for the American Welding Society. His work at the Edison Joining Technology Center drives innovation in welding and biomedical material processing.

Tom QuinnView profile

Professor

• Astrobiology
• Cosmology
• Exoplanets
• +5 more

Tom Quinn is a Professor in the Department of Astronomy at the University of Washington, Seattle. He leads the N-body Shop, which focuses on cosmological simulations of structure formation and planet formation. His research spans Galactic dynamics, exoplanets, and computational astrophysics. He is affiliated with the UW Astrobiology Program and chairs the Solar System Working Group. Education background details are not explicitly provided in the sources, but his expertise suggests advanced training in astrophysics and computational methods. Research Interests: Quinn's work centers on N-body simulations of galaxy formation, planet formation processes, and the dynamics of solar system bodies. He develops software for projects like the Sloan Digital Sky Survey and contributes to gravitational wave astronomy studies. Teaching includes graduate courses on Stellar Dynamics, Magneto-Hydrodynamics, and Numerical Methods for Astrophysics, along with undergraduate cosmology and numerical methods courses. Advising and grants: No specific grant details provided, but his involvement in large collaborations like AGORA indicates significant research funding. Labs/Teams: Leads the N-body Shop at UW, collaborates with the AGORA and Romulus simulation projects. Future work includes improving models of gravitational wave signals from supermassive black hole binaries and studying dwarf galaxy evolution.

Lawrence WidrowView profile

Professor

• Galactic Dynamics
• Dark Matter
• Cosmology
• +2 more

Lawrence Widrow is a Professor in the Department of Physics, Engineering Physics & Astronomy at Queen's University, where he leads research in theoretical astrophysics and cosmology. He earned his PhD from the University of Chicago under Michael Turner and held postdoctoral positions at Harvard-Smithsonian Center for Astrophysics and Canadian Institute for Theoretical Astrophysics. Research focuses on galactic dynamics, dark matter, and cosmic structure formation. Key contributions include: Galactoseismology (studying galactic disk perturbations via SEGUE/Gaia data), equilibrium modeling of the Milky Way, orbital torus imaging techniques, dark matter substructure analysis, and simulations of disk-halo interactions. Recent work explores pulsar-based dark matter detection, phase mixing theory, and fuzzy dark matter dynamics. Methodological innovations include the GalactICS code for equilibrium initial conditions, discrete spectral analysis of phase space, and MilkyWay@home distributed computing for stream reconstruction. No scientific awards, students, or laboratory affiliations are detailed in the provided information.

Truell HydeView profile

Professor

• Complex Plasma Physics
• Astrophysics
• Space Physics
• +4 more

Dr. Truell Hyde is a Professor of Physics and Director of CASPER (Center for Astrophysics, Space Physics and Engineering Research) at Baylor University. He holds a Ph.D. in Physics from Baylor University (1988) and has over four decades of academic and research leadership experience. His roles include Vice Provost for Research (2001–2018) and Director of the Baylor Research and Innovation Collaborative (2009–2018). Education: Ph.D. - Physics, Baylor University, 1988 M.S. - Physics, Baylor University, 1980 B.S. - Physics and Mathematics, Southern Nazarene University, 1978 His research focuses on experimental and theoretical studies of complex plasmas, space physics, and astrophysical phenomena. Key areas include dusty plasma dynamics, lunar dust mitigation, hypervelocity impact studies, and protoplanetary disk evolution. He has led numerous grants totaling over $20M, including NASA-funded projects on lunar surface electrostatics and dusty plasma simulations. His awards include the NASA Group Achievement Award (2022) for lunar dust research. He advises over 30 graduate students and collaborates internationally on facilities like the ISS-based PK-4 experiment. Current teaching includes Space Plasma Physics and Astrophysics graduate courses. Labs/Teams: CASPER Hypervelocity Impacts & Dusty Plasma Lab (HIDPL) Baylor Research & Innovation Collaborative (BRIC) International Space Station (ISS) PK-4 Collaboration

Mathioudakis KonstantinosView profile

Professor

• Gas Turbine Engineering
• Turbomachinery Diagnostics
• Fluid Dynamics
• +7 more

Professor Mathioudakis Konstantinos holds a prestigious position at the School of Mechanical Engineering, National Technical University of Athens (NTUA), leading the Laboratory of Thermal Turbomachines. His academic journey includes a Doctorate in Applied Sciences from the Catholic University of Leuven (Belgium) with highest distinction, alongside advanced studies from the Von Karman Institute and NTUA. He has over 35 years of professional experience in academia and industry, including roles as Secretary General for Energy (2009–2015) and professorships since 1990. His research focuses on gas turbine performance optimization, turbomachinery diagnostics, and energy systems, with notable contributions to fault detection algorithms, combustion chamber modeling, and alternative fuels. Key areas include aero-engine preliminary design, marine propulsion systems, and solar hybrid technologies. He has authored over 150 peer-reviewed papers and received multiple awards, including best paper honors from ASME and ImechE. Education: PhD in Applied Sciences (1985), Catholic University of Leuven Fluid Dynamics Diploma (1981), Von Karman Institute Mechanical Engineering (1980), NTUA Awards: ASME Best Paper Awards (2012, 2004, 2003, 2002) PE Publishing Award (2004) Outstanding Service Award (ASME, 2002) Professor Mathioudakis has pioneered diagnostic methodologies combining probabilistic reasoning and neural networks, enhancing fault localization accuracy. His work on transient modeling and steady-state diagnostics improves engine operability and maintenance strategies. He actively contributes to international committees, including leadership roles in ASME’s Controls and Diagnostics Committee. Current duties include coordinating Erasmus programs and advising on propulsion systems for next-generation aircraft. His lab develops tools for turbine disk design, contra-rotating propeller modeling, and solar hybrid gas turbines, bridging academic research with industrial applications.

• Asteroid mineralogy
• Planetary science
• Space weathering
• +5 more

Thais Mothe-Diniz is a Researcher and Adviser at the Faculty of Natural Sciences, NTNU, holding roles such as Research Adviser in the NV Faculty Administration and Admin Coordinator for the FME-Hydrogeni Project. She specializes in asteroid mineralogy and surface composition, with expertise in EU project management. Her research focuses on asteroid family dynamics, spectroscopic analysis, and planetary science. PhD in Astronomy (2002, mineralogy of small planets) MSc in Astrophysics (1998, Celestial Mechanics) Bachelor in Pure Mathematics (1994, Maxwell's equations) Research interests include asteroid mineralogy, space weathering processes, and the structural analysis of asteroid families. She has extensive experience in coordinating international projects like REVITALISE and SisAl Pilot, and manages NTNU's collaborations with institutions like Jotun and the Paris Observatory. Publications span asteroid taxonomy, volatile detection (e.g., ice on 24 Themis), and compositional studies of basaltic asteroids in the outer main belt. Her work bridges observational astronomy and planetary formation theories, with contributions to missions like NASA's Dawn targeting Ceres and Vesta. Notable competencies include certified conflict mediation (Red Cross), project leadership, and technical skills in Linux/macOS systems.

• Computational Social Science
• Epidemiology
• Complex Systems
• +3 more

Jan E. Snellman is a Visiting Professor in the Department of Computer Science at Aalto University, actively collaborating with Professor Maarit Korpi-Lagg's research group and Kimmo Kaski's team. His current position as a faculty visitor involves interdisciplinary computational research at the intersection of social science, epidemiology, and complex systems. Snellman's research spans two distinct eras: recent work (2017-2024) focuses on computational social science with applications in epidemic modeling and socio-economic dynamics, while earlier research (2009-2015) centered on astrophysical hydrodynamics and turbulence. His current interests integrate network science, game theory, and agent-based modeling to analyze pandemic-socioeconomic feedback loops, regional vulnerability, and social structure formation. Analysis of his 2022-2024 publications reveals a concentrated effort on spatially explicit epidemic modeling, particularly examining how regional socio-economic disparities influence disease spread and vice versa. This work employs hybrid methodological approaches combining computational social science with public health analytics, often featuring country-specific case studies like Spain. His research demonstrates increasing sophistication in modeling bidirectional relationships between pandemics and socio-economic systems. Snellman maintains active research collaborations within Aalto University's computational science ecosystem, contributing to projects that bridge computer science methodologies with real-world social and public health challenges through the Korpi-Lagg and Kaski research groups.