Find Academic Supervisors

• Biomedical engineering
• Mechanical engineering
• Computational modeling
• +6 more

Dr. Mihai Dupac is a Professor in Engineering Design at Bournemouth University, with dual PhDs in Mathematics (West University of Timisoara) and Mechanical Engineering (Auburn University). He specializes in computational modeling, simulation in engineering, and robotics, focusing on nonlinear dynamics and bioengineering systems. His research includes work with NASA on levitated droplet metallurgy and collaborations with AECC, Bournemouth Hospital, and Hydreco Hydraulics. He has supervised six PhD students and authored over 100 publications and four engineering textbooks. Awards include being a Fellow of the Institute of Mathematics and its Applications (UK). Key roles: Principal Academic in Engineering Design, Deputy Leader (UOA) at Department of Design and Engineering Affiliations: Honorary Researcher at University of Craiova (2020-2021), Member of ASME and reviewer for Mathematical Reviews Research interests span computational methods, high-performance computing, and mathematical simulations applied to engineering and bioengineering. Notable projects include prosthetic foot dynamics, robotic manipulator control, and hydraulic valve systems. He has secured grants totaling over £500k and contributed to over 150 peer-reviewed outputs. Teaching focuses on Statics, Dynamics, and CAD tools. His work bridges academia and industry, with projects funded by organizations like Hydreco and NHS hospitals.

Gary SlaterView profile

Professor

• Air Traffic Management
• Aircraft Control Systems
• Satellite Formation Flight
• +5 more

Gary Slater is a prominent aerospace engineering researcher with an extensive publication record spanning several decades, demonstrating significant contributions to air traffic management systems, aircraft control, and satellite formation flight. His academic career shows progression from fundamental aircraft control systems in the 1970s-1980s to complex air traffic flow management problems in the 1990s-2000s. Dr. Slater's primary research areas include: Air Traffic Management and Flow Optimization Aircraft Control Systems and Flight Dynamics Satellite Formation Flight and Spacecraft Control Collision Avoidance Systems for aircraft and satellites Helicopter Flight Path Optimization Dynamic Scheduling Algorithms for congested airspace Analysis of his publication trends reveals consistent focus on optimizing air traffic systems, with particular emphasis on reducing flight delays, improving airspace capacity, and enhancing safety through advanced control algorithms. His later work (2003-2009) increasingly addresses satellite formation flight and collision avoidance, demonstrating cross-domain application of control theory principles. Dr. Slater has secured substantial research funding throughout his career, serving as Principal Investigator on numerous NASA grants through the Ohio Space Grant Consortium, as well as industry-funded projects with General Electric Company. His grant portfolio includes significant projects such as 'Collision Avoidance and Safe Mode for Satellite Formations,' 'Approaches to Multi-center Based Air Traffic Management,' and 'Transition to Superdensity Operations-2015 Timeframe,' totaling hundreds of thousands of dollars in research funding.

• Heat Transfer
• Internal Combustion (I.C.) Engines
• Torque Converters
• +4 more

Carl L. Anderson is a Professor at the Department of Mechanical Engineering, Michigan Technological University. He holds a Ph.D. from the University of Wisconsin - Madison. His research focuses on heat transfer, internal combustion engines, torque converters, and microwave telemetry techniques for automotive applications. Key research areas include spray impingement signatures in diesel engines, cavitation detection in torque converters, and piston heat transfer in two-stroke engines. He has developed innovative microwave telemetry systems for measuring temperature, pressure, and strain in rotating/reciprocating machinery. His publications emphasize automotive engineering challenges, including emission reduction strategies for snowmobiles and structural analysis of turbine blades. Research methods involve advanced instrumentation and computational modeling to address durability and thermal management issues in engine components.

Bhisham SharmaView profile

Associate Professor

• Acoustic Metamaterials
• Additive Manufacturing
• Elastic Wave Propagation
• +3 more

Bhisham Sharma is Associate Professor of Mechanical and Aerospace Engineering at Michigan Technological University, specializing in structural acoustics and advanced materials. Holding a Ph.D. in Aeronautics and Astronautics from Purdue University, he leads research at the intersection of structural mechanics, dynamics, and acoustics to develop safer, quieter engineering structures. Research programs focus on: Acoustic metamaterials and phononic crystals Additive manufacturing of functional materials Wave propagation in complex media Multiphysics modeling of material systems His publications demonstrate consistent innovation in acoustic material design, particularly through additive manufacturing techniques. Recent work explores triply periodic minimal surface structures, sustainable nanocellulose aerogels, and bio-inspired material systems for noise control applications. Current research translates fundamental discoveries into solutions for aerospace, automotive, and energy industries.

David HungerView profile

Researcher

• Molecular Magnetism
• Single-Molecule Magnets
• Quantum Information Science
• +3 more

David Hunger is a Post-Doctoral Researcher at the Institute of Smart Sensors, University of Stuttgart, working within the van Slageren Group since 2025. His research focuses on molecular magnetism and quantum materials, with a specialization in single-molecule magnets and spin dynamics. His educational background includes: PhD in Chemistry from the University of Stuttgart (2019-2025) Master of Chemistry from the University of Stuttgart (2016-2018), with thesis on "EPR Investigations in the Strong Coupling Regime" Bachelor of Chemistry from the University of Stuttgart (2013-2016), with thesis on "Magnetic and spectroscopic investigations of tetrahedrally coordinated transition metal complexes" Hunger's research centers on the electronic structure and magnetic properties of transition metal complexes, particularly cobalt(II), iron(II), and dysprosium(III) systems. He employs electron paramagnetic resonance (EPR) spectroscopy, magnetic susceptibility measurements, and quantum chemical calculations to investigate spin-phonon coupling, magnetic anisotropy, and quantum coherence in molecular systems. His work bridges fundamental quantum physics with materials design for next-generation quantum technologies. Analysis of his 15 most recent publications (2021-2025) reveals three dominant research thrusts: (1) radical-bridged dinuclear complexes for enhanced magnetic coupling, (2) fluorine-functionalized ligands to control spin crossover behavior, and (3) cobalt-based single-molecule magnets with tailored relaxation dynamics. His publications span high-impact journals including Nature Communications , ACS Central Science , and Inorganic Chemistry , demonstrating consistent contributions to molecular quantum magnetism. As a core member of the van Slageren Group at the Institute of Smart Sensors, Hunger contributes to experimental efforts in quantum memory development and molecular spin ensemble characterization. His laboratory work focuses on synthesizing coordination compounds and measuring their magnetic and spectroscopic properties at cryogenic temperatures.

Chris AntonopoulosView profile

Lecturer

• Dynamical Systems
• Chaotic Systems
• Computational Neuroscience
• +7 more

Dr. Chris Antonopoulos is a Lecturer in Applied Mathematics at the University of Essex, affiliated with the School of Mathematics, Statistics and Actuarial Science (SMSAS) and the Department of Mathematical Sciences. His research focuses on dynamical systems, chaotic systems, computational neuroscience, and complex networks, with particular emphasis on neural synchronization, network inference, and mathematical tools for analyzing brain dynamics. He holds a PhD from the University of Patras (2007), specialized in Hamiltonian systems and statistical mechanics. Key research areas include: Computational neuroscience: Development of mathematical tools to study neural synchrony, brain plasticity, and disorders like epilepsy. Network inference: Using mutual information and statistical tests to infer connectivity in systems like brain networks and financial markets. Nonlinear dynamics: Analysis of chaos, energy localization in Hamiltonian systems, and q-statistics in non-extensive systems. Applications: Modeling pandemic spread (e.g., SIR models for COVID-19), time-series forecasting, and machine learning integration. Professional affiliations include the Institute of Mathematics and its Applications (MIMA), London Mathematical Society (LMS), and status as a Fellow of the Higher Education Academy (FHEA). His work combines analytical and numerical methods, including Lyapunov exponents, bifurcation analysis, and SALI/GALI chaos indicators. Collaborations span interdisciplinary fields, from neuroscience to statistical physics.

Deborah O'ConnellView profile

Professor

• Low-Temperature Plasma Technology
• Plasma Medicine
• Environmental Plasma Applications
• +4 more

Prof. Deborah O'Connell is a Full Professor and Director of the National Centre for Plasma Science and Technology (NCPST) at Dublin City University (DCU). She holds a PhD from DCU and has held prestigious positions including Chair at the University of York (UK) and EU Marie Curie Fellowship at Queen’s University Belfast. Her research focuses on plasma-based technologies addressing global challenges in biomedical and environmental sectors, including plasma medicine, antimicrobial applications, and green chemistry solutions. Her work emphasizes atmospheric pressure plasmas, plasma activated liquids, and diagnostic techniques. She has pioneered advancements in plasma-jet design and reactive species control. Key achievements include the Quantemol database development and co-founding the International Conference on Data-Driven Plasma Science. Prof. O'Connell has received international recognition, including the EPS/IoP Crookes Prize (2018) and the IoP Hershkowitz Award (2013). She actively contributes to global plasma science through leadership roles in the International Plasma Chemistry Society and IUVSTA's Plasma Science & Techniques Division. Her interdisciplinary research integrates plasma physics, chemistry, and biology to advance therapies and sustainable technologies. Current work explores plasma applications in agriculture, cancer treatment, and environmental remediation.

Andreas KoutselosView profile

Professor

• Physical Chemistry
• Molecular Dynamics
• Ion Transport in Gases
• +4 more

Andreas Koutselos is a Professor of Physical Chemistry at the Department of Chemistry, National and Kapodistrian University of Athens. His research focuses on molecular dynamics, ion transport in gases and supercritical fluids, and computational modeling of chemical systems. He has contributed significantly to understanding electrostatic field effects on ions and biomolecules, as well as environmental applications like pollutant adsorption and photocatalysis. His academic career is marked by studies on gas-phase ion behavior, nonequilibrium thermodynamics, and the interplay between theoretical chemistry and experimental observations. Key research areas include peptide dynamics, ion mobility in supercritical fluids, and the development of novel computational methods for chemical systems analysis. Publications span over three decades, reflecting expertise in both foundational physical chemistry and applied environmental chemistry. Collaboration with international teams has advanced methodologies for simulating complex chemical phenomena, including ion dynamics under external fields and reaction mechanisms in catalytic systems.

Ali M. HamedView profile

Associate Professor

• Fluid mechanics
• Wall-bounded turbulence
• Environmental flows
• +7 more

Dr. Ali M. Hamed serves as Associate Professor of Mechanical Engineering and Thomas J. Watson Sr. and Emma Watson Day Department Chair at Union College's Department of Mechanical Engineering. Based in Steinmetz Hall 218D, he leads both departmental administration and an active research program in experimental fluid mechanics. His academic background includes: B.S., B.A. from Washington and Lee University M.S., Ph.D. from University of Illinois at Urbana-Champaign Dr. Hamed's research focuses on wall-bounded turbulence, environmental flows, renewable energy systems, and flow measurement techniques. His experimental work investigates turbulent boundary layers over complex surface topographies including 2D/3D roughness elements, canopy flows, and wavy walls. He has developed innovative flow control strategies using localized blowing and bio-inspired surface modifications. His laboratory utilizes advanced measurement techniques including particle image velocimetry (PIV) and volumetric particle tracking velocimetry in water channels and wind tunnels. His publication record shows consistent progression from fundamental turbulence studies toward practical applications in renewable energy. Recent work examines localized blowing for near-wake flow control, sheltering effects between roughness elements, and wind energy optimization through porous windbreaks and winglet designs. This research demonstrates increasing sophistication in experimental methods and application relevance. Dr. Hamed has secured significant research funding through: NSF ERI Grant NSF MRI Grant He actively mentors undergraduate researchers who co-author publications with him, demonstrating his commitment to integrating students into cutting-edge research. His outreach includes the Science and Technology Entry Program (STEP), where he introduces middle school students to fluid mechanics concepts. Dr. Hamed teaches core mechanical engineering courses including Fluid Mechanics, Heat Transfer, Thermodynamics, and Statics, connecting his research expertise with classroom instruction.

Jian-Qiao SunView profile

Professor

• Vibrations
• Controls
• Mechanical Systems
• +5 more

Jian-Qiao Sun is a Professor in the Department of Mechanical Engineering at the University of California, Merced. His research focuses on vibrations, controls, and mechanical systems, with a strong emphasis on nonlinear stochastic systems and neural network applications. He has contributed extensively to the development of neural network-based methods for analyzing complex dynamical systems, including stochastic responses and control strategies. His work spans areas such as energy harvesting, robotics, and structural dynamics. Dr. Sun's research interests include the analysis of systems under random excitation, such as Poisson and Gaussian noise, and the application of radial basis function neural networks (RBFNN) to solve problems in stochastic dynamics and control. He has also explored the use of machine learning techniques for predictive modeling in agricultural engineering, such as dust control during almond harvesting. His publications highlight advancements in optimal control, model reduction, and global analysis methods like the generalized cell mapping approach. He has developed innovative solutions for mechanical systems, including underactuated robots, vibro-impact systems, and high-speed train bogie stability. His lab's work integrates theoretical, computational, and experimental approaches to address challenges in mechanical and control engineering. Dr. Sun has led research on multi-objective optimization, flutter control of airfoils, and energy harvesting systems. His contributions emphasize practical applications, such as improving the efficiency of piezoelectric devices and enhancing robotics control through neural networks.

Ozgur KelesView profile

Assistant Professor

• Additive Manufacturing
• Materials Discovery
• Hierarchical Materials
• +6 more

Ozgur Keles is an Assistant Professor in the Department of Chemical and Materials Engineering at San José State University (SJSU), where he has worked since August 2015. He previously held a Lecturer and Senior Research Associate position at Illinois Institute of Technology from 2013 to 2015 after completing his Ph.D. in Materials Engineering at Purdue University (2013). His research focuses on developing AI-driven discovery machines for new materials, leveraging active learning and high-throughput methods to explore uncharted chemical and structural spaces. He investigates processing-structure-property-design (PSP-D) interrelationships in multi-functional materials, combining additive manufacturing with data-driven numerical approaches to control hierarchical structures from sub-nano to macro-scale. B.S. in Metallurgical and Materials Engineering from Middle East Technical University, Turkey (2005) M.S. in Metallurgical and Materials Engineering from Middle East Technical University, Turkey (2008) Ph.D. in Materials Engineering from Purdue University (2013) His research interests span artificial intelligence in materials discovery , graphene quantum dots in epoxy composites , sustainable design for smart cities , and virtual reality in engineering education . He uses molecular dynamics, finite element analysis, and vibration-assisted 3D printing to enhance mechanical reliability in composites. Recent projects include NSF CAREER grant-funded work on multi-scale mechanical behavior of quantum dot nanocomposites and an NEA grant for 3D printing cultural heritage artifacts . His publications highlight advancements in additive manufacturing , nanocomposite toughening , and machine learning for structural analysis . Notable contributions include studies on the effects of raster angle on 3D printed parts , thermal conductivity enhancement via GQDs , and stochastic fracture of porous composites . Scientific Awards: ASME Rising Star of Mechanical Engineering (2025) 2023 College of Engineering Award for Excellence in Scholarship 2019 Advisor of the Year at SJSU Keles collaborates extensively, securing grants such as the NSF MRI for a metal AM system and DOE PARC Xerox for ceramic alignment studies. His lab engages students in hands-on research, and he promotes engineering education through virtual reality modules .

Ganesh PokharelView profile

Assistant Professor

• Quantum Materials
• Condensed Matter Physics
• Solid-State Chemistry
• +3 more

Ganesh Pokharel, Ph.D., is an Assistant Professor of Physics at the University of West Georgia within the Dr. Perry College of Mathematics, Computing, and Sciences. His research focuses on quantum materials with applications in energy storage and magnetism, utilizing solid-state reactions and advanced characterization techniques. Prior to this role, he held postdoctoral positions at the University of California-Santa Barbara (UCSB) and completed his education at Tribhuvan University (Nepal), the University of Memphis, and the University of Tennessee-Knoxville. Dr. Pokharel has taught a wide range of physics courses at both high school and university levels, including introductory physics, experimental physics, and materials science. He actively mentors students in research programs such as the Quantum Foundry summer internship at UCSB, emphasizing hands-on experimental learning and integration of cutting-edge technologies into curricula. His research interests span the synthesis and characterization of magnetic materials, charge density wave phenomena in kagome metals, and topological electronic states. Recent work includes studies on Fermi surface reconstruction under pressure, nanoscale charge order visualization, and the interplay between electronic and structural phases in quantum materials. Dr. Pokharel’s advising and grant activities include coordinating mentorship programs for undergraduate researchers and contributing to initiatives in materials synthesis and high-pressure crystal growth. He is affiliated with laboratories exploring advanced materials characterization techniques and has collaborated on projects involving neutron scattering, angle-resolved photoemission, and in situ spectroscopic methods.

Sampada BodkheView profile

Associate Professor

• Advanced Manufacturing
• Multifunctional Materials
• Additive Manufacturing
• +7 more

Sampada Bodkhe is an Associate Professor in the Department of Mechanical Engineering at Polytechnique Montréal . She holds a Ph.D. in Mechanical Engineering from Polytechnique Montréal and a Post-Doctoral Researcher position at ETH Zurich. Her academic credentials also include a B.E. in Mechanical Engineering from Visvesvaraya Technological University, India, and an M.Tech. in Aerospace Engineering from IIT Kanpur, India. Research Leadership: Canada Research Chair in Advanced Manufacturing of Multifunctional Adaptive Structures Laboratory Leadership: Director of the Laboratory for Intelligent Structures (LIS), Co-director of the Safran Industrial Chair on Multifunctional Passive Acoustic Treatments (TAPPIS) Research Focus: Multifunctional materials, additive manufacturing, smart structures, composite materials design, and aerospace applications Publication Trends: Her work bridges 3D printing technology with multifunctional materials, emphasizing applications in aerospace, biomedical sensors, and adaptive structural systems. Key themes include piezoelectric material optimization, shape memory alloy integration, and sustainable polymer manufacturing. Academic Contributions: Supervised 3 Master's theses on composite consolidation, flexible piezoelectric sensors, and 3D printing of sensor-integrated polymers. Collaborates with research groups on smart composites and 4D printing technologies.

William Esco MoernerView profile

Professor

• Physical Chemistry
• Biophysics
• Single-Molecule Spectroscopy
• +5 more

W. E. Moerner is the Harry S. Mosher Professor of Chemistry and Professor by courtesy of Applied Physics at Stanford University. He has been a faculty member in the Department of Chemistry since 1997 and served as Department Chair from 2011 to 2014. Previously, he was a Distinguished Professor of Physical Chemistry at UC San Diego (1995-1997) and worked at IBM Research Division (1982-1995). Dr. Moerner received his educational training at Washington University (B.S. in Physics and Electrical Engineering, A.B. in Mathematics, all 1975) and Cornell University (M.S. 1978, Ph.D. 1982 in Physics). His academic journey has established him as a pioneer in single-molecule spectroscopy and super-resolution microscopy. Moerner's research focuses on pushing the boundaries of optical imaging beyond the diffraction limit. His laboratory develops and applies advanced microscopy techniques to study biological processes at the single-molecule level. Current research thrusts include super-resolution imaging using PALM/STORM and STED approaches, single-molecule tracking in complex cellular environments, precise 3D optical microscopy methods, and trapping of single photosynthetic biomolecules in solution. His work has applications in studying protein structures in bacteria, chromatin organization, regulatory proteins in primary cilia, and viral RNA imaging. Dr. Moerner's publications demonstrate a consistent trend toward increasingly sophisticated imaging techniques that reveal biological structures at the nanoscale. His work has evolved from foundational single-molecule detection to complex 3D super-resolution imaging applications in living cells, with particular emphasis on developing methods that overcome traditional optical limitations. Nobel Prize in Chemistry (2014) for development of super-resolved fluorescence microscopy Wolf Prize in Chemistry (2008) Irving Langmuir Prize in Chemical Physics (2009) Peter Debye Award in Physical Chemistry (2013) Member of the National Academy of Sciences Fellow of multiple scientific societies including American Physical Society and American Academy of Arts and Sciences Professor Moerner has mentored numerous students who have gone on to successful careers in academia and industry. His laboratory has received substantial research funding that has supported the development of innovative imaging technologies. The Moerner Lab maintains active collaborations with researchers across Stanford and internationally, particularly in the fields of structural biology and cellular imaging. The lab is known for its interdisciplinary approach, bringing together physics, chemistry, engineering, and biology to solve challenging problems in molecular imaging. The Moerner Laboratory, often referred to as the 'WEMPire,' is located in the Department of Chemistry at Stanford University. The lab has developed several innovative microscopy techniques including the ABEL trap for single-molecule analysis and TILT-3D for precise 3D imaging. The group maintains a strong collaborative culture and has produced numerous technological advances that have been adopted by researchers worldwide. Current research directions include further refinement of super-resolution techniques, application to viral infection studies, and development of new methods for studying protein dynamics in living cells.

• Composite Materials
• Topology Optimization
• Additive Manufacturing
• +3 more

Professor Liyong Tong is a Professor in the School of Aerospace, Mechanical and Mechatronic Engineering at the University of Sydney. He holds BSc and MEngSc degrees from Dalian University of Technology and a PhD from Beihang University. A Fellow of Engineers Australia (FIEAust) and Member of AIAA, his research focuses on advanced composite materials and computational optimization methods. Research Focus: Multiscale topology optimization of composite structures and metamaterials Additive manufacturing of functional composites and smart structures Machine learning applications in structural optimization Analysis and design of advanced composite materials and structures His recent publications demonstrate integration of machine learning with structural optimization, novel approaches for metamaterial design, and experimental validation of 3D-printed structures. Research trends show emphasis on computational efficiency in optimization algorithms and multifunctional material systems. Current Projects: Microcrack suppression in thermoplastic composites for cryogenic hydrogen storage (NSW Space Research Network) Mitigating micro-vibration in satellite devices using multiscale shear damping Development of novel algorithms for topology optimization of laminated composites