Find Academic Supervisors

Zihe GaoView profile

Assistant Professor

• Optics
• Integrated Photonics
• Quantum Optics
• +5 more

Zihe Gao serves as a tenure-track Assistant Professor in the Department of Electrical and Computer Engineering at Auburn University's College of Engineering since August 2023, following postdoctoral research at the University of Pennsylvania and industry experience at Meta (Facebook Reality Labs). His academic foundation includes: PhD in Electrical and Computer Engineering, University of Illinois Urbana-Champaign (2018) MS in Physics, University of Illinois Urbana-Champaign (2012) BS in Physics, Nanjing University (2011) Dr. Gao's research integrates optics, microelectronics, and physics to develop programmable photonic systems. His work focuses on controlling collective behaviors in multi-element photonic systems for scalable integrated chips, with applications spanning dynamically steerable laser sources and reconfigurable quantum optical platforms . Key methodologies include non-Hermitian physics, topological photonics, and spin-orbit coupling engineering. Analysis of his 2023-2025 publications reveals dominant trends in non-Hermitian photonic switching , high-dimensional quantum state manipulation , and topological semiconductor laser arrays . His team pioneers lithography-free reconfigurable photonics and spin-orbit microlasers for quantum key distribution, demonstrating strong industry-academia translation from prior Meta work on AR/VR structured-light systems. His scholarly trajectory shows continuous progression from VCSEL array fundamentals (PhD under Prof. Kent Choquette) to quantum-topological photonics (postdoc with Prof. Liang Feng), now establishing independent research at Auburn with emphasis on integrated quantum-classical hybrid systems.

Edward V. DiBellaView profile

Professor

• Advanced MRI Imaging
• Positron Emission Tomography
• Image Processing
• +5 more

Edward V. DiBella, PhD, is a Professor in the Department of Radiology & Imaging Sciences at the University of Utah School of Medicine, where he serves as director of the Utah Center for Advanced Imaging Research (UCAIR). He holds adjunct faculty appointments in Bioengineering and is affiliated with the Center for Arrhythmia Research and Management (CARMA) and the Experimental Therapeutics Program in the Huntsman Cancer Institute. Dr. DiBella leads the Cardiovascular MRI Group, focusing on developing advanced imaging techniques for cardiac applications. Dr. DiBella's educational background includes a Master's degree from the University of Vermont and a PhD from the Georgia Institute of Technology, followed by postdoctoral training at the University of Utah Department of Radiology. His research spans over two decades of contributions to medical imaging science. His primary research interests center on improving MRI acquisition, reconstruction, and post-processing techniques, with particular emphasis on cardiac, cancer, and stroke applications. Dr. DiBella's work addresses fundamental challenges in medical imaging including motion artifacts, image reconstruction from undersampled data, quantitative perfusion analysis, and advanced techniques for cardiac imaging. His group has pioneered radial simultaneous multi-slice (SMS) approaches for myocardial perfusion MRI that enable whole-heart coverage without gating. Analysis of Dr. DiBella's recent publications reveals a strong focus on deep learning applications in MRI reconstruction, quantitative myocardial perfusion techniques, and advanced diffusion imaging for stroke recovery prediction. His work demonstrates a consistent trajectory toward more efficient, accurate, and clinically applicable imaging methods that address real-world challenges in cardiac MRI. Dr. DiBella has mentored numerous graduate students and postdoctoral researchers who have gone on to successful careers in academia and industry. His laboratory maintains active collaborations with cardiology, electrophysiology, and bioengineering departments, reflecting the interdisciplinary nature of modern medical imaging research. Current projects in Dr. DiBella's Cardiovascular MRI Group include Deep Learning for Radial SMS Reconstruction, Diffusion imaging for predicting stroke recovery, Quantitative myocardial perfusion, and Radial SMS for myocardial perfusion MRI. The group's work is particularly relevant to heart failure, coronary artery disease, and atrial fibrillation diagnosis and management, addressing the fact that heart disease remains the leading cause of death worldwide.

• Quantum Simulation
• Trapped Ion Systems
• Quantum Entanglement
• +5 more

Christian Roos is an Associate Professor at the Department of Experimental Physics , University of Innsbruck, Austria. His research focuses on quantum simulation, trapped ion systems, and quantum information processing. University: University of Innsbruck Department: Experimental Physics Rank: Associate Professor Roos's work explores quantum entanglement , many-body physics , and quantum metrology using trapped ions. His recent studies address dynamical phase transitions, thermalization with noncommuting charges, and large-scale entanglement. Key trends in his publications (2023–2025) include advancements in quantum simulation platforms, correlation spectroscopy , and multiqubit-enhanced sensing . Awards and student advising details are not explicitly mentioned in the provided data.

• Topological phases of matter
• Fractional Quantum Hall effect
• High temperature superconductors
• +6 more

Eduardo H. Fradkin is the Donald Biggar Willett Professor of Physics and Engineering at the University of Illinois at Urbana-Champaign, where he also serves as Director of the Institute for Condensed Matter Theory (ICMT). A Center for Advanced Study Professor, Fradkin has been a faculty member at Illinois since 1979, progressing from postdoctoral researcher to assistant professor (1981), associate professor (1984), and full professor (1989). His research spans the interface between quantum field theory and condensed matter physics, with particular focus on topological phases of matter, fractional quantum Hall effect, high-temperature superconductors, and strongly correlated systems. Fradkin pioneered the application of quantum field theory methods to condensed matter problems, including his groundbreaking work showing the smooth connection between Higgs and confinement phases in gauge theories, which remains fundamental to understanding gauge theory phases. His research has significantly advanced our understanding of electronic liquid crystal phases, pair density wave superconductivity, and intertwined orders in quantum materials. His recent publications reveal continued leadership in theoretical condensed matter physics, with 2023-2025 works exploring intertwined orders in high-temperature superconductors, topological aspects of pair density waves, quantum Hall nematics, and the physics of UTe 2 as a potential topological superconductor. These works demonstrate his ongoing contributions to understanding complex quantum phases and their experimental signatures. Fellow of the American Physical Society Member of the National Academy of Sciences Fellow of the American Academy of Arts and Sciences Eugene Feenberg Memorial Medal (2024) Simon Guggenheim Memorial Foundation Fellowship Donald Biggar Willett Professor of Physics Fradkin has mentored numerous graduate students who have become prominent physicists, including Matthew Fisher and Ana López. His theoretical frameworks have guided extensive experimental work in condensed matter physics worldwide. He directs the Institute for Condensed Matter Theory, fostering interdisciplinary research at the frontier of quantum materials. His influential textbooks, including "Quantum Field Theory, An Integrated Approach" (2021) and "Field Theories of Condensed Matter Systems" (2013), have shaped the education of generations of theoretical physicists.

Aleksey ChermanView profile

Assistant Professor

• Quantum field theory
• nuclear theory
• QCD
• +5 more

Aleksey Cherman is an Assistant Professor in the School of Physics and Astronomy at the University of Minnesota. His research focuses on theoretical aspects of quantum field theory, nuclear theory, and particle physics with particular emphasis on Quantum Chromodynamics (QCD). Cherman's research interests span quantum field theory, nuclear theory, QCD, particle theory, gauge theory, baryon physics, and fermion physics. His work particularly emphasizes the large N limit, confinement phenomena, and symmetry structures in quantum field theories. He investigates fundamental questions about the nature of strong interactions, string theory approaches to QCD, and non-perturbative methods in gauge theories. Analysis of his recent publications reveals a strong focus on confinement mechanisms, symmetry structures in quantum field theories, and the interplay between gauge theories and string theory. His work often explores the large N limit of QCD, 1-form symmetries, and non-perturbative aspects of quantum field theories. Recent research has particularly emphasized the connections between confinement, symmetry, and the structure of gauge theories in various dimensions. Simons Collaboration on Color Confinement and QCD Strings (2022-2026) As Principal Investigator of the Simons Collaboration on Color Confinement and QCD Strings, Cherman leads a major research initiative focused on understanding the fundamental mechanisms of color confinement in quantum chromodynamics and the string-theoretic approaches to describing QCD phenomena. His research program involves both analytical and numerical approaches to non-perturbative quantum field theory problems.

Praveen JainView profile

Professor

• Power Electronics
• Renewable Energy Systems
• Power Conversion
• +5 more

Praveen Jain is a Professor of Electrical and Computer Engineering at Queen's University, where he also serves as Director of the Centre for Energy and Power Electronics Research (ePOWER) and was a Tier 1 Canada Research Chair in Power Electronics from 2001 to 2022. His career spans over 35 years of groundbreaking contributions to power electronics technology and applications. Dr. Jain received his PhD from the University of Toronto in 1987. His research interests focus on power electronics and systems, with particular expertise in resonant power conversion, renewable energy integration, photovoltaic micro-inverters, and electric vehicle power systems. His work has significantly advanced the field through both theoretical contributions and practical implementations. His extensive publication record includes over 600 papers and more than 100 patents, reflecting his sustained innovation in power electronics. These publications demonstrate a strong trend toward renewable energy integration, particularly photovoltaic systems, electric vehicle applications, and advanced converter topologies that improve efficiency and power quality. 2021 IEEE Medal in Power Engineering 2017 IEEE Canada Electric Power Medal 2011 IEEE William Newell Power Electronics Award 2004 Engineering Medal of the Ontario Professional Engineers Fellow of the IEEE Fellow of the Royal Society of Canada Fellow of the Engineering Institute of Canada Fellow of the Canadian Academy of Engineering Dr. Jain has supervised over 100 graduate students, postdoctoral fellows, and power electronics engineers throughout his career. His industry engagement is exceptional, having founded two successful startups: CHiL Semiconductor (acquired by International Rectifier) and SPARQ Systems (listed on the TSX Venture Exchange in 2022). His research has been supported by significant industry partnerships and government funding, reflecting the practical impact of his work. As Director of the Centre for Energy and Power Electronics Research (ePOWER), Dr. Jain leads a vibrant research team focused on advancing power conversion technologies for renewable energy integration, electric transportation, and next-generation power systems. The center maintains strong industry partnerships and has produced numerous commercialized technologies.

• Partial Differential Equations
• High Performance Computing
• Discontinuous Galerkin Methods
• +3 more

Maurice S. Fabien is an Assistant Professor in the Department of Mathematics at the University of Wisconsin-Madison and a SIAM-MGB Early Career Fellow. In 2025, he will join MIT's Schwarzman College of Computing as an MLK Assistant Professor while on leave from UW-Madison. His research focuses on computational mathematics with specialization in partial differential equations, high-performance computing, and numerical methods including discontinuous Galerkin formulations and multigrid solvers. Research interests span: Development of structure-preserving discretizations for hyperbolic systems GPU-accelerated computational algorithms Hybridizable discontinuous Galerkin (HDG) frameworks Multiscale modeling in porous media and biomechanics Numerical analysis of nonlinear PDEs Publications demonstrate strong focus on: High-order methods for conservation laws Efficient solvers for elliptic/parabolic systems Applications in fluid dynamics and materials science GPU-based performance optimization Error analysis of energy-stable schemes Awards & Honors: SIAM-MGB Early Career Fellowship (2025) Research Team: Austin Anyanwu (Undergraduate) - Finite precision arithmetic Alexis Liu (Alumni) - GPU-accelerated elliptic solvers Patrick Li (Undergraduate) - GPU-based mesh refinement Neer Mehta (Alumni) - Adaptive mesh refinement algorithms Significant involvement since 2007 in STEM diversity initiatives focused on recruitment/retention of underrepresented groups in academia.

• Animal Behavior
• Behavioral Neuroscience
• Big Data
• +23 more

Dan Cox serves as Dean of Natural Sciences in The College of Liberal Arts and Sciences and Professor in the School of Life Sciences at Arizona State University. He holds a B.S. in Biology from Wake Forest University and a Ph.D. in Cell Biology from Duke University, where he was an NIH pre-doctoral fellow. His postdoctoral training included a Jane Coffin Childs Fellowship and HHMI Research Associate position at UCSF. His educational trajectory includes: B.S. magna cum laude with honors in Biology, Wake Forest University (1992) Ph.D. in Cell Biology, Duke University Medical Center (1999) Postdoctoral training: Jane Coffin Childs Fellow & HHMI Research Associate, UCSF (2000-2004) Cox leads an internationally recognized neuroscience research program focused on neuronal diversity, circuit construction, and neural mechanisms of behavior—particularly pain perception and sensory neuropathies. His expertise spans neurobiology, cell biology, genetics, and computational modeling, with emphasis on multimodal sensory processing and brain plasticity. His lab has maintained continuous NIH funding for 20 years. His recent publications reveal dual research thrusts: fluid dynamics studies on drag reduction in pipe flows (examining vortex dynamics, Reynolds number effects, and wall oscillation techniques) and genetic engineering work including CRISPR-Cas9 delivery systems for immune system gene screening. This combination reflects interdisciplinary collaboration across engineering and biological domains. Key recognitions include: NIH pre-doctoral fellowship Jane Coffin Childs Fellowship for Medical Research HHMI Research Associate appointment Cox demonstrates exceptional commitment to mentoring across career stages and advancing student success through innovative pedagogies. His leadership extends to directing research centers, imaging facilities, and graduate programs—including roles as Director of the Center for Neuromics and Neuroscience Institute at Georgia State University. His NIH-funded research supports extensive interdisciplinary collaboration and training initiatives. Throughout his career, Cox has cultivated collaborative research environments through leadership in core facilities and interdisciplinary clusters, notably directing the 2CI Neurogenomics Fellowship and Brains & Behavior initiatives. His current deanship emphasizes cross-college research integration within ASU's liberal arts framework.

• Bioenergy
• Biogas Technology
• Anaerobic Digestion
• +3 more

Andreas Lemmer serves as a Privatdozent (equivalent to Associate Professor) at the University of Hohenheim, where he holds a scientific staff position at the State Institute for Agricultural Engineering and Bioenergy. He actively teaches core courses including Fundamentals of Agricultural Engineering, Process Technology of Biogas Production and Utilization, and Project Design of Plants for Renewable Resources for the upcoming Winter Semester 2025/26. His research centers on advancing bioenergy systems through biogas optimization and renewable fuel production. Key focus areas include enhancing methane yield from challenging feedstocks like horse manure using mechanical pretreatment, developing machine learning models for anaerobic digestion stability prediction, and creating resource-efficient bio-LNG production chains. His work bridges agricultural engineering, environmental technology, and sustainable resource management with strong practical implementation in full-scale biogas facilities. Lemmer's recent publications demonstrate a clear trajectory toward industrial-scale bioenergy solutions, particularly in integrating agricultural residues into circular economy models and optimizing process economics for grassland biomass utilization. His work consistently addresses real-world implementation challenges in biogas technology and renewable fuel production chains. He leads significant research initiatives including the Hohenheimer Biogasforum 2023 and industrial research projects on bio-LNG/CNG production chains for bus operations using manure and organic residues. Current projects focus on resource-efficient bio-LNG production processes developed in collaboration with the State Institute for Agricultural Engineering and Bioenergy and the Field of Agricultural Engineering in the Tropics and Subtropics.

• Fluid Mechanics
• Environmental Fluid Mechanics
• Hydraulic Engineering
• +3 more

Hubert Chanson is Professor of Civil Engineering at the University of Queensland, Australia, where he has held a faculty position since 1990 after six years in industry. His work focuses on environmental fluid mechanics and hydraulic engineering through theoretical, experimental, and numerical approaches. His research centers on environmental fluid mechanics and hydraulic engineering , particularly flows around hydraulic structures, gas-liquid/solid-liquid two-phase free-surface flows, and turbulence in steady/unsteady open channels. He integrates computational modeling, laboratory experiments, and field observations to study natural disasters like tsunamis and thunderstorms, emphasizing forensic analysis of real-world events. Professor Chanson leads a research group of 5–10 members and has published over 1,250 peer-reviewed works, including two dozen books. He serves as Senior Editor for Environmental Fluid Mechanics and on editorial boards of International Journal of Multiphase Flow and Flow Measurement and Instrumentation . His conference leadership includes chairing the 34th IAHR World Congress (2011) and 22nd Australasian Fluid Mechanics Conference (2020).

Nicolás QuesadaView profile

Associate Professor

• Quantum Information
• Quantum Computing
• Quantum Optics
• +7 more

Nicolás Quesada is an Associate Professor in the Department of Engineering Physics at Polytechnique Montréal, where he holds the MEI Chair in Quantum Photonics. He serves as Director of COPL (Centre d'optique, photonique et laser) and is a member of INTRIQ (Institut transdisciplinaire d'informatique quantique). His research program focuses on quantum information, quantum computing, and quantum optics, with particular emphasis on photonic implementations of quantum technologies. Dr. Quesada earned his B.Sc. in Physics from Universidad de Antioquia in 2010, followed by M.Sc. and Ph.D. degrees in Physics from the University of Toronto. During his doctoral studies, he was awarded both Vanier and Stoicheff scholarships. Prior to joining Polytechnique Montréal, he worked at Xanadu Quantum Technologies as lead developer of the Strawberry Fields and The Walrus software libraries, where he led theoretical efforts demonstrating photonic quantum advantage. His research interests span quantum photonics, quantum computing, and quantum optics, with specific focus on Gaussian Boson Sampling, squeezed light generation, non-Gaussian light sources, and quantum benchmarking techniques. His group develops theoretical frameworks and computational tools for next-generation quantum light sources needed for fault-tolerant quantum computers, quantum communication networks, and quantum sensors. His work bridges theoretical quantum information science with practical photonic implementations. Analysis of his recent publications reveals a strong focus on advancing Gaussian Boson Sampling as a platform for quantum advantage, developing mathematical frameworks for quantum optics, and engineering practical photonic quantum devices. His work spans from fundamental quantum optics to applied quantum computing, with increasing emphasis on verification and benchmarking of quantum computational advantage. Dr. Quesada has received notable recognition including the Vanier Canada Graduate Scholarship and the Stoicheff Scholarship during his doctoral studies. His research has attracted significant funding, including a $6 million grant for quantum projects at Polytechnique Montréal announced in January 2025 and involvement in a $1.91 million NSERC quantum sensing project led by Professor Denis Seletskiy. He has supervised two Master's students to completion in 2024: Dalbec-Constant, N. who worked on photon counting from transition-edge sensors, and Zhao, J. who researched optimal pumps for spontaneous parametric down-conversion. His research group collaborates extensively with both academic and industry partners in the quantum technology sector. As Director of COPL, he oversees one of Canada's leading photonics research centers, facilitating interdisciplinary research across quantum optics, classical optics, and laser technologies.

• Solar Materials
• Electronic Structure Methods
• Photocatalysis
• +3 more

Julia Wiktor is an Associate Professor at the Department of Condensed Matter and Materials Theory at Chalmers University of Technology. She joined Chalmers in May 2019. Her academic journey includes a M.Sc. from Grenoble INP (France) and Gdańsk Technical University (Poland), followed by PhD studies on nuclear materials at CEA Cadarache (France), awarded by Aix-Marseille University in 2015. She completed a postdoctoral fellowship at École Polytechnique Fédérale de Lausanne (EPFL) in Switzerland, focusing on solar materials. Her research focuses on novel photoabsorbing materials for solar devices, leveraging advanced electronic structure methods to study atomic-scale phenomena impacting solar device efficiency. Key interests include perovskites, photocatalysts, and 2D materials. She has published extensively in top journals like Nano Letters , Advanced Materials , and ACS Energy Letters , with over 39 publications since 2019. Her work spans computational studies of charge localization, defect engineering, and device optimization. Wiktor leads projects such as "Harnessing Localized Charges for Advancing Polar Materials Engineering (POLARISE)" (2025–2029, EU-funded) and "Atomistic Design of Photoabsorbing Materials" (2020–2023, VR-funded). Her research bridges theory and application, addressing challenges in renewable energy and materials innovation.

Michele RuggeriView profile

Assistant Professor

• Numerical Analysis
• Partial Differential Equations
• Materials Science
• +6 more

Michele Ruggeri is an Assistant Professor of Numerical Analysis (RTD-B) at the Department of Mathematics, University of Bologna, and an Honorary Lecturer at the University of Strathclyde, UK. His research focuses on numerical analysis of partial differential equations in materials science and engineering, including liquid crystal theory, micromagnetism, nonlinear elasticity, and spintronics. He is also active in developing numerical methods for uncertainty quantification and model order reduction. Education: PhD in Technical Mathematics (TU Wien, Austria), Laurea Magistrale in Mathematics (University of Pavia, Italy), and a Diploma in Science and Technology from Scuola Universitaria Superiore IUSS, Italy. He holds a Fellowship (FHEA) from Advance HE and a PGCert in Learning & Teaching in Higher Education from the University of Strathclyde. His work emphasizes finite element methods and their applications, with contributions to computational micromagnetics and software development (e.g., Commics). He is affiliated with the (AM)² Research Center on Applied Mathematics and ARCES at the University of Bologna. Awards: Fellowship (FHEA), Advance HE, UK. Key Projects: Development of numerical methods for micromagnetic simulations, uncertainty quantification in stochastic models. Contact: m.ruggeri@unibo.it

Paul FenterView profile

Adjunct Professor

• solid-liquid interfaces
• geochemistry
• energy storage
• +5 more

Paul Fenter is an Argonne Distinguished Fellow, Senior Physicist, and Group Leader for Interfacial Processes in the Chemical Sciences and Engineering Division at Argonne National Laboratory, with an Adjunct Professor appointment in Earth and Environmental Sciences. His research leverages synchrotron X-ray techniques at the Advanced Photon Source to probe solid-liquid interfaces across energy, environmental, and geological systems. Fenter earned his Ph.D. in Physics from the University of Pennsylvania (1990) and B.S. in Physics from Rensselaer Polytechnic Institute (1984). His foundational work bridges experimental physics with practical applications in mineral-water interactions and electrochemical processes. His research portfolio demonstrates sustained innovation in interfacial science, with recent publications (2024-2020) focusing on coherent X-ray imaging of interfaces, ion adsorption dynamics at mineral surfaces, and hydration layer structures. These studies integrate synchrotron techniques with computational modeling to address challenges in energy storage, geochemical cycling, and environmental remediation. Key themes include the atomic-scale characterization of electrochemical interfaces and real-time observation of interfacial transformations under operational conditions. Notable recognitions include: Bertram E. Warren Diffraction Physics Award (American Crystallographic Association, 2012) Argonne National Laboratory Board of Governors’ Distinguished Performance Award (2018) Fellow of the American Physical Society (2007) Fenter directed the DOE-funded Center for Electrochemical Energy Science (2014-2020), securing major research grants for energy storage innovation. His leadership in interfacial research has established critical methodologies for in situ characterization of buried interfaces, impacting fields from battery technology to subsurface contaminant transport. As Group Leader, he oversees a multidisciplinary team developing next-generation X-ray techniques for complex fluid-solid systems.

• Wireless Communications
• 5G/6G Networks
• Non-Orthogonal Multiple Access (NOMA)
• +8 more

Leila Musavian is a Professor of Wireless Communications at the University of Surrey's Department of Electrical and Electronic Engineering within the Faculty of Engineering and Physical Sciences. She is a leading researcher in next-generation wireless communication systems with a focus on 5G/6G technologies, particularly in the areas of non-orthogonal multiple access (NOMA), energy harvesting communications, physical layer network coding, and ultra-reliable low-latency communications (uRLLC). Her research has significant implications for vehicular networks, IoT applications, and future wireless infrastructure. Her research interests span multiple critical areas of modern wireless communications, including energy-efficient resource allocation, security in wireless networks, massive MIMO systems, and reconfigurable intelligent surfaces. She has pioneered work on the performance analysis of NOMA systems under statistical quality of service constraints, which has become increasingly important for emerging applications requiring ultra-reliable and low-latency communications. Her research bridges theoretical foundations with practical implementations, often incorporating machine learning techniques for optimization of wireless networks. Her publication portfolio shows a clear evolution toward cutting-edge topics in wireless communications, with recent focus on holographic beamforming via dynamic metasurface antennas, robotic wireless energy transfer, and deep reinforcement learning applications for vehicular optical camera communications. These works demonstrate her ability to identify and address emerging challenges in next-generation wireless systems, particularly those related to 6G technologies and beyond. Professor Musavian has successfully supervised numerous PhD students who have gone on to become active researchers in the field, with many continuing to collaborate with her on cutting-edge projects. Her research has been supported by significant grants from national and international funding bodies, though specific grant details are not visible in the current dataset.