Find Academic Supervisors

Aurel BulgacView profile

Professor

• Nuclear Theory
• Quantum Many-Body Systems
• Theoretical Physics
• +3 more

Aurel Bulgac is a Professor in the Department of Physics at the University of Washington, part of the College of Arts & Sciences. His research focuses on quantum many-body nuclear physics, nuclear theory, and superfluid systems. He specializes in time-dependent density functional theory (TDDFT) and its applications to nuclear fission, vortex dynamics in superfluids, and cold atomic gases. Affiliations: Nuclear Theory Group, Department of Physics, University of Washington Research Interests: Exploring the dynamics of strongly interacting fermionic systems, including nuclear fission processes, vortex behavior in superfluids, and quantum turbulence. His work combines advanced computational methods like quantum Monte Carlo and high-performance computing to model complex phenomena such as neutron star crust dynamics and unitary Fermi gases. Key Contributions: Developed frameworks for real-time simulations of nuclear fission, quantized vortices, and superfluid turbulence. His research bridges nuclear physics, condensed matter, and quantum many-body theory, with applications to neutron stars and cold atoms. Scientific Awards: Fellow of the American Physical Society, APS Outstanding Referee Grants & Advising: Leads projects supported by initiatives like the UNEDF collaboration, focusing on computational nuclear physics. Advises students on topics spanning nuclear dynamics and quantum simulations. Active in developing numerical tools like the LISE and W-SLDA packages for simulating fermionic systems. Labs/Teams: Member of the Nuclear Theory Group at UW, collaborating internationally on projects involving fission dynamics, vortex physics, and computational methods.

Magnus O. BorghView profile

Associate Professor

• Theoretical Physics
• Computational Physics
• Ultracold Atoms
• +5 more

Magnus O. Borgh is an Associate Professor in Physics at the University of East Anglia's School of Engineering, Mathematics and Physics. He is a member of the Centre for Photonics and Quantum Science and Quantum Matter, focusing on theoretical and computational physics in ultracold atoms, quantum optics, and topological phenomena in Bose-Einstein condensates. PhD in Physics, Lund University, Sweden Swedish Research Council Postdoctoral Stipend, University of Cambridge Leverhulme Early Career Fellowship, University of Southampton EPSRC Postdoctoral Fellowship, University of Southampton His research explores quantum fluids , particularly topological objects like vortices and defects in spinor Bose-Einstein condensates, and light-matter interactions at atomic scales. Recent projects include predicting 'superatom' behavior in cooperative light scattering, detecting phonon dynamics via photon responses, and describing spin-Alice rings with parallels to quantum-field theory. Key trends in his publications highlight topological defect structures (monopoles, Alice rings, vortices), quantum phase transitions , and non-Abelian symmetries in spinor systems. He investigates how discrete and continuous symmetries influence defect dynamics and applies theoretical models to experimental scenarios, often collaborating internationally. Swedish Research Council Postdoctoral Stipend Leverhulme Early Career Fellowship EPSRC Postdoctoral Fellowship Collaborative grants with institutions like University of Cambridge and University of Southampton Borgh supervises research projects and advises self-funded PhD candidates. He participates in school engagement lectures (e.g., Quantum Mechanics and Entanglement, 2023) and serves as an external examiner at Newcastle University. His work resides in the Centre for Photonics and Quantum Science , integrating computational methods with experimental collaborations.

• Fluid Dynamics
• Hydrodynamic Instability
• Turbulence
• +5 more

Devesh Ranjan is the Grainger Dean of the College of Engineering at the University of Wisconsin-Madison, appointed in June 2025. He oversees one of the nation's top engineering institutions with 8 departments, 220 faculty, and $120M+ annual research expenditures. Previously, he was Professor and School Chair at Georgia Tech (2014-2025) and held faculty roles at Texas A&M University (2009-2014). His research centers on fluid dynamics, turbulent mixing, and energy systems in extreme environments. Education: Ph.D. in Mechanical Engineering, University of Wisconsin-Madison (2007) M.S. in Mechanical Engineering, University of Wisconsin-Madison (2005) B.E. in Mechanical Engineering, National Institute of Technology-Trichy, India (2003) Research Focus: Ranjan's interdisciplinary work explores power conversion, supersonic/hypersonic flows, hydrodynamic instabilities, and granular thermal energy transport. His lab employs advanced experimental diagnostics and numerical modeling to study turbulence, mixing phenomena, and renewable energy applications. Publications: Recent articles (2023-2025) emphasize turbulent flow analysis, granular dynamics for solar storage, Rayleigh-Taylor instabilities, and supercritical fluid behavior. Methodologies combine high-fidelity simulations with cutting-edge experimental techniques like multi-tracer PLIF and shock tube studies. Awards & Honors: 2023: ASME Gustus L. Larson Memorial Award, USG Executive Leadership Fellow 2021: Inaugural Ring Family Chair (Georgia Tech) 2020: Diversity & Inclusion Fellow 2019: NAE Global Grand Challenges Summit Invitee 2018: Provost Teaching Fellow, Markstein Paper Award 2016: DOE Early Career Award, NAE Frontiers Symposium 2013: NSF CAREER, AFOSR Young Investigator Fellow: ASME, Governor’s Teaching Fellows Leadership: Mentored award-winning students (e.g., 2016 Best M.S. Thesis advisor) and secured major grants including DOE/NSF awards. Directed interdisciplinary initiatives at Georgia Tech spanning pediatric tech, brain imaging, and advanced manufacturing.

• Theoretical Condensed Matter Physics
• Low dimensional quantum spin systems
• Frustrated magnets
• +2 more

Dr. Kingshuk Majumdar is a Professor in the Department of Physics at Grand Valley State University within the College of Liberal Arts & Sciences. His academic journey began with a Ph.D. from the University of Florida in 1999, followed by M.S. and B.S. degrees from Indian institutions. Dr. Majumdar's research interests are centered on Theoretical Condensed Matter Physics, specializing in low-dimensional quantum spin systems and frustrated magnets. He also explores Quantum Information Science and Quantum Computing, contributing to the understanding of quantum spin dynamics and phase transitions. His scholarly publications reflect expertise in spin-wave theory, magnetic phase diagrams, and quantum fluctuations. The articles span topics such as Heisenberg antiferromagnets, bilayer magnetism, and quantum critical points, indicating a strong focus on theoretical modeling of magnetic and quantum systems. NSF-MRI Award ($97,383) to acquire a HPC Cluster at GVSU XSEDE Award: 50,000 CPU supercomputing hours Regional Michigan Science Olympiad Service Award Kavli Institute of Theoretical Physics (KITP) Scholar Award Cottrell College Science Award from Research Corporation Award for paper presentation in the Graduate Student Forum, University of Florida Outstanding Academic Achievement Award by an International Student, University of Florida Dr. Majumdar mentors undergraduate researchers, guiding projects on quantum spin systems, thin film conductivity, and spin-wave analysis. He also serves as a referee for American Physical Society (APS) and Institute of Physics (IOP) journals, contributing to the academic community through peer review and grant evaluation.

Gang-Ding PengView profile

Professor

• Photonics
• Optical Fiber Communications
• Nonlinear Optics
• +5 more

Professor Gang-Ding Peng is a leading academic in photonics and optical communications at the School of Electrical Engineering and Telecommunications , University of New South Wales (UNSW). With over three decades of experience, his research focuses on silica and polymer optical fibers, fiber lasers, sensors, and photonic signal processing. Education: B.Sc. in Physics (1982, Fudan University), M.Sc. in Applied Physics (1984), Ph.D. in Electronic Engineering (1987, both Shanghai Jiao Tong University) Career: Lecturer at Shanghai Jiao Tong (1987-1988), Postdoctoral Fellow at Australian National University (1988-1991), UNSW Faculty since 1991, Queen Elizabeth II Fellow (1992-1996) Research Interests: Specialized in specialty optical fibers, nonlinear optics, and photonic devices. His work spans: Silica and polymer fiber amplifiers/lasers Electro-optic and liquid-crystal-doped fibers Multi-core fiber Bragg grating systems Photonic crystal fiber sensing 3D-printed optical components Quantum and neuromorphic photonic applications Scientific Awards: Queen Elizabeth II Fellowship (1992-1996) Fellow and Life Member of OSA & SPIE Supervision: Active mentor in Bi/Er co-doped fibers, 3D-printed optical fibers, and fiber sensing technologies.

Riccardo BonazzaView profile

Professor

• Experimental Fluid Mechanics
• Impulsive Fluid Flows
• Shock-Interface Interactions
• +7 more

Riccardo Bonazza is a Professor in the Department of Mechanical Engineering at the University of Wisconsin-Madison, affiliated with the College of Engineering and the Nuclear Engineering & Engineering Physics program. His research focuses on experimental investigations of impulsive fluid flows, shock-interface interactions, and shock-driven mixing phenomena with applications in inertial confinement fusion, combustion systems, and aerospace engineering. Bonazza holds a PhD (1992) and MS (1985) from Caltech, and a Laurea in Mechanical Engineering (1983 cum laude) from Università di Ancona. His experimental work uses advanced techniques like planar Mie scattering, laser-induced fluorescence (PLIF), and particle image velocimetry (PIV) in the Wisconsin Shock Tube Laboratory. Key research areas include Richtmyer-Meshkov instability dynamics, shock-accelerated vortex rings, and reactive shock flows. His studies explore both detrimental mixing effects in fusion applications and beneficial mixing enhancement in supersonic combustion systems. Recent experiments involve shock-bubble interactions, reshock phenomena, and turbulent mixing quantification. Notable awards include the 2016 Leaders in Engineering & Diversity Scholar Award and 2011 Outstanding Instructor Award. His 2023 work includes novel bovine thermodynamic models and advanced shock tube diagnostics. Bonazza teaches courses in aerodynamics, gas dynamics, rocket propulsion, and independent research supervision. Key facilities: Wisconsin Shock Tube Laboratory. Active collaborations include CFD validation, laser diagnostics development, and multi-phase flow studies.

• Plasma Physics
• Space Physics
• Dusty Plasmas
• +3 more

Vikram Dharodi is a Researcher in the Plasma & Space Physics department at West Virginia University (WVU), affiliated with the Scime Group. His research focuses on dusty plasmas, ultra-cold plasmas, and magnetic reconnection phenomena. Key interests include plasma dynamics, shear instabilities, and coherent structure propagation in strongly coupled plasmas. Recent work includes studies on Kelvin-Helmholtz instability, vortex merging, and gravity-driven instabilities in dusty plasmas. He has contributed to numerical simulations of visco-elastic fluid models and explored plasma interactions via particle-in-cell methods. Collaborations include institutions like Michigan State University and Oak Ridge National Laboratory. Publications emphasize plasma physics applications, with notable contributions to understanding plasma behavior under rotational shear flows and compressible dust dynamics. His work bridges theoretical models with experimental validations, advancing plasma turbulence and transport studies.

Thorsten AckemannView profile

Professor

• Nonlinear Photonics
• Semiconductor Laser Dynamics
• Self-Organization
• +9 more

Thorsten Ackemann is a Professor of Nonlinear Photonics in the Department of Physics at the University of Strathclyde, United Kingdom. He has been a faculty member since 2005 and was promoted to full Professor in 2012. His research lies at the intersection of nonlinear optics, quantum optics, and complex systems, with strong affiliations to the Institute of Photonics and Quantum Sciences (IPaQS) and SUPA (Scottish Universities Physics Alliance). His research focuses on self-organization in light-matter systems, particularly in cold atoms and semiconductor lasers. Key themes include the formation of spontaneous patterns and phase transitions in cold atomic gases, simulation of condensed matter phenomena, realization of supersolids, and the study of solitons and structured light in vertical-cavity surface-emitting lasers (VCSELs). His work often bridges fundamental physics with technological applications in photonics and quantum technologies. The recent publications highlight a strong trend in quantum-enhanced interferometry, entanglement generation, optomechanical coupling, and complex soliton dynamics. These works reflect a deep engagement with quantum simulation, nonlinear feedback systems, and collective behavior in nonequilibrium systems. Fellow of the Institute of Physics (IOP), 2012 Fellow of the Optical Society (OSA), 2013 Professor Ackemann has led multiple research projects as Principal Investigator, including EU Horizon 2020 and Leverhulme Trust grants, often in collaboration with leading institutions across Europe and the US. He has supervised several PhD students and postdoctoral researchers, though specific names are not listed in the provided text. He is active in organizing international conferences and workshops, such as the ColOpt Winter School, and serves on professional committees. He is involved in several research groups and networks, including the Photonics Group at Strathclyde, and participates in large-scale collaborative efforts like the Stanford-Scotland Photonics Innovation Collaboration. His lab focuses on experimental and theoretical investigations of nonlinear optical phenomena, particularly in cold atom systems and semiconductor lasers.

• Aerospace Engineering
• Experimental Aerodynamics
• Supersonic Jets
• +6 more

Raffaello Mariani is an Associate Professor at the Royal Institute of Technology (KTH), affiliated with the AEROSPACE, MOVEABILITY AND NAVAL ARCHITECTURE school and the Aeronautical and Vehicle Engineering Unit. He holds a BSc in Aerospace Engineering from Embry-Riddle Aeronautical University (2003), an MEng in Experimental Methods from Old Dominion University (2005), and a PhD in Fundamental Fluid Dynamics from The University of Manchester (2012). His career includes roles at BMT FM, ONERA, and Nanyang Technological University before joining KTH in 2018. Research focuses on experimental aerodynamics, supersonic jets, shock wave dynamics, and UAV design. Key areas include wind tunnel testing techniques (e.g., rainbow schlieren), flow control strategies, and hybrid-electric propulsion systems for sustainable aviation. He leads the Green Raven project, developing a hydrogen-powered blended-wing-body UAV to combat climate change. Teaching responsibilities include courses like Advanced Topics in Aeronautics and Future Sustainable Aviation . Active in interdisciplinary collaborations, he integrates electrochemistry, mechatronics, and embedded systems into aerospace engineering solutions. Award-winning contributions include pioneering work on vortex ring interactions and supersonic jet noise mitigation. His recent studies explore bio-inspired wing designs and ground-effect aircraft optimization.

Bettina FrankView profile

Researcher

• Plasmonics
• Nanophotonics
• Topological Materials
• +3 more

Bettina Frank is a leading researcher in plasmonics and nanophotonics at the University of Stuttgart's 4th Physics Institute. Her work focuses on large-area and single-crystalline plasmonic systems, including topological plasmonic phenomena such as skyrmion bags and spin meron pairs. She specializes in advanced fabrication techniques like hole-mask colloidal nanolithography and investigates ultrafast dynamics of plasmonic fields using photoemission microscopy. Her research interests span topological photonics, metamaterials, and nanoscale light-matter interactions. Key contributions include the development of plasmonic moiré superlattices and the study of orbital angular momentum in nanoplasmonic systems. Frank's group explores applications ranging from high-precision plasmonic devices to quantum confined exciton-polaritons in 2D materials. Publications highlight breakthroughs in imaging plasmonic skyrmion dynamics with subwavelength resolution and understanding ultrafast plasmonic phenomena. Her work bridges fundamental physics with applied nanotechnology, demonstrating novel plasmonic systems for optoelectronic and sensing applications. Frank collaborates internationally, contributing to advancements in plasmonic vortices, quantum confined systems, and large-area nanofabrication methods. Her research has implications for next-generation photonics, quantum technologies, and nanoscale optoelectronics.

Qiang ZhangView profile

Senior Lecturer

• Gas Turbine Heat Transfer
• Aerodynamics
• Conjugate Heat Transfer
• +3 more

Dr Qiang Zhang is a Senior Lecturer at the School of Mathematics, Computer Science and Engineering at City, University of London. His career spans leading academic and research roles at the University of Michigan - Shanghai Jiao Tong University Joint Institute, University of Oxford, and the University of Utah. He holds a PhD in Mechanical Engineering (2005) and an MSc in Thermal Engineering (1996, 1993) from Dalian University of Technology. Key Affiliations : City, University of London (Reader, 2020–present; Lecturer, 2014–2020); University of Michigan - SJTU Joint Institute (Associate Professor, 2011–2014); University of Oxford (Research Staff, 2006–2011); University of Utah (Research Assistant Professor, 2005–2006). Research Interests focus on high-speed gas turbine heat transfer, aerodynamics, and cooling systems. He pioneered dynamic thermal management techniques like unsteady conjugate cooling and Turbo Heat Exchanger (patented 2022), which are transforming coolant efficiency in aerospace and electronics. His work bridges experimental methods (e.g., transient thermal measurements, wind tunnel development) with computational fluid dynamics (CFD) validation. Publications & Impact include over 95 documents with 2,365 citations and an h-index of 25. His 15 most recent articles (2009–2025) reveal a trend toward intermittent impingement cooling , ribbed/grooved surface optimization , and shock wave control . These span disciplines like mechanical engineering, fluid dynamics, and thermal systems design. Awards & Recognition : ASME Fellow (2019) Rolls-Royce Award to Inventors (2013) ASME Turbo Expo Best Paper Awards (2016, 2017) ASME Journal of Heat Transfer Outstanding Reviewer (2012) Oxford University Award of Merit Review (2007) Professional Contributions include editorial roles (ASME Journal of Thermal Science and Engineering Applications, Aerospace Special Issues) and committee membership in the ASME K-14 Heat Transfer division since 2011. He leads an EPSRC project on unsteady cooling mechanisms and is commercializing a patented Turbo Heat Exchanger through a spin-off company.

A. SameenView profile

Professor

• Aerospace Engineering
• Fluid Dynamics
• Computational Fluid Dynamics
• +4 more

Professor A. Sameen is a faculty member in the Department of Aerospace Engineering at the Indian Institute of Technology Madras (IIT Madras), where he has served as a Professor since 2018. His academic career is centered on theoretical and computational fluid dynamics, with a focus on complex flow phenomena. Education: Ph.D. from Indian Institute of Science, Bangalore (2005) Research Interests: Professor Sameen's research spans several key areas in fluid dynamics. His primary expertise lies in Stability, Transition and Turbulence and Computational Fluid Dynamics . He investigates vorticity dynamics including vortex breakdown and reconnections, vortex rings, and flow past bluff bodies. His work on turbulence encompasses scale space dynamics, compressible and rarefied flows, thermal convection, rotating and stratified flows, and magnetohydrodynamics. A significant portion of his research focuses on simulations of flow regimes beyond continuum, including solutions to the Boltzmann equation, rarefied flows, and quantum fluids. Publication Trends: Professor Sameen's recent publications (2021-2025) demonstrate a strong focus on advanced fluid dynamics phenomena. His work spans theoretical investigations of flow stability, computational modeling of complex vortex structures, and analysis of flow regimes where continuum assumptions break down. Key themes include vortex dynamics across different flow conditions, shock wave interactions at fluid interfaces, and the behavior of flows in rarefied conditions. His research increasingly integrates high-fidelity numerical methods with fundamental fluid mechanics principles to address challenging problems in aerospace engineering. Scientific Contributions: Development of multiple in-house computational codes for fluid dynamics simulations Contributions to understanding continuum breakdown in compressible flows Advancements in modeling vortex dynamics and breakdown phenomena Advising and Research Leadership: Professor Sameen has guided numerous doctoral students through their research, with recent theses focusing on global linear stability analysis, vortex dynamics, and computational fluid mechanics. He leads the Theoretical and Computational Fluid Dynamics Lab and is affiliated with the Institute of Eminence Center of Excellence - Geophysical Flows Lab at IIT Madras. His collaborative work spans multiple institutions and involves developing advanced numerical methods for fluid flow simulation. Research Infrastructure: Professor Sameen's laboratory utilizes several custom-developed computational tools, including the Unstructured 3D Gas Kinetic Method, Structured 2D Unified Gas Kinetic Method, high-order compact difference schemes, and specialized solvers for multiphase and magnetohydrodynamic flows. These tools enable his team to investigate fluid phenomena across a wide range of conditions, from continuum to rarefied regimes.

• Computational Fluid Dynamics (CFD)
• Flow Visualization
• Vortex Dynamics
• +5 more

Dr. Abbas Ghasemi is an Assistant Professor in the Department of Mechanical, Industrial, and Mechatronics Engineering at the University of Toronto. His research focuses on computational and experimental fluid dynamics with applications in health and sustainability. He holds a PhD from the University of Waterloo (2019), and degrees from the University of Tabriz (BSc 2005, MSc 2008) and University of Windsor (MASc 2012). Education : BSc, University of Tabriz (2005) MSc, University of Tabriz (2008) MASc, University of Windsor (2012) PhD, University of Waterloo (2019) Research interests include vortex dynamics, multiphase flows, pathogen transport modeling, and AI-driven epidemiology frameworks. His work bridges fluid physics with public health challenges, such as disease transmission modeling for mass gatherings (e.g., FIFA World Cup studies). He has published in Journal of Fluid Mechanics , Physics of Fluids , and Scientific Reports . Key achievements include NSERC Postdoctoral Fellowships (2021), a CFD Society of Canada award (2016), and impactful collaborations with MIT and the Fields Institute. His mission is to apply thermo-fluid dynamics principles to improve human health and environmental sustainability. Awards & Recognition : NSERC Postdoctoral Fellowships (2021) CFD Society of Canada Graduate Scholarship (2016) Featured article in Physics of Fluids (2016) He actively supervises students and collaborates internationally. Recent work includes agent-based modeling frameworks for pandemic preparedness and green energy solutions.

Juan M. LopezView profile

Professor

• Fluid Dynamics
• Rotating Flows
• Interfacial Hydrodynamics
• +5 more

Juan M. Lopez is a Professor in the School of Mathematical and Statistical Sciences at Arizona State University (ASU). His research spans two broad areas: rotation and buoyancy dominated flows, and interfacial hydrodynamics. His work has been consistently supported by the National Science Foundation (NSF) and NASA, with research grants extending through 2025. Ph.D., Monash University, Australia (1985) Professor Lopez's research focuses on fundamental fluid dynamics problems with applications in geophysics, aerodynamics, industrial processes, and biomedical contexts. His first research area examines rotation and buoyancy dominated flows, addressing transitions from laminar to turbulence and resolving complex bifurcational processes using direct numerical simulations and dynamical systems theory. His second research area investigates interfacial hydrodynamics, particularly the influence of surfactants and proteins that form amyloid fibrils at sheared interfaces, which has implications for neurodegenerative diseases like Alzheimer's and Parkinson's. His work bridges fundamental fluid dynamics with practical applications in biomedical research. His recent publications (2022-2025) demonstrate a continued focus on rotating flows, stratified systems, and interfacial phenomena. The research shows increasing emphasis on microgravity applications, protein aggregation at interfaces, and the mathematical analysis of wave phenomena in rotating systems. His work combines theoretical analysis, numerical simulation, and collaboration with experimental groups. Editorial Board Member, Proceedings of the Royal Society, Series A: Mathematical, Physical and Engineering Sciences Professor Lopez has advised nine Ph.D. students and two M.S. students throughout his career. His research has been supported by multiple grants from the National Science Foundation and NASA, with recent projects focusing on catastrophic transitions to turbulence in rotation-dominated flows, amyloid fibril formation in microgravity, and multiphase interfacial hydrodynamics. He maintains active research collaborations with institutions including Rensselaer Polytechnic Institute (RPI) and international partners. His laboratory work involves computational fluid dynamics simulations and collaborations with experimental groups studying fluid interfaces, particularly in microgravity environments aboard the International Space Station. His research has evolved to address increasingly complex biomedical applications while maintaining strong foundations in fundamental fluid dynamics principles.

• Theoretical Physics
• Nonlinear Optics
• Quantum Physics
• +3 more

Magnus Johansson is a Professor at Linköping University's Department of Physics, Chemistry and Biology (IFM), specializing in Theoretical Physics (TEOFY). His research focuses on nonlinear dynamics, topological edge states, and discrete nonlinear Schrödinger systems, with applications in quantum physics and condensed matter physics. Key research interests include topological insulators, soliton dynamics, and the interplay between nonlinearity and lattice structures. His work explores systems such as photonic lattices, Bose-Hubbard models, and waveguide arrays, with recent contributions in edge modes in nonlinear SSH lattices and breathers in nonlinear systems. Publications highlight studies on edge breathers, nonlinear gap modes, and instabilities in discrete systems. His research bridges theoretical physics with applications in optics and materials science, contributing to advancements in nonlinear photonics and quantum systems. Magnus holds the email magnus.x.johansson@liu.se and is affiliated with the Theoretical Physics division at IFM, Linköping University.