Wenjia Du is a Faraday Research Fellow at the University of Oxford's Department of Engineering Science, located at Begbroke Science Park. He holds a BEng, MSc, and PhD, with prior training at the University of Hull and University College London (UCL). His research focuses on energy storage materials (batteries/fuel cells), advanced X-ray imaging techniques , and sustainable materials engineering . He develops diagnostic tools for battery recycling (via Faraday ReLiB programme) and investigates solid-state batteries, magnesium hydrides, and circular economy strategies. Collaborations span academia and industry, funded by UKRI, EPSRC, Royal Society, and Innovate UK. Key technical strengths include synchrotron-based tomography , computational modeling , and electrochemical characterization . Awards include the RAEng Exceptional Promise endorsement, STFC Experimental Design Grant, and Alan Turing Enrichment Award. His publications emphasize operando observations of battery degradation mechanisms, multi-scale material analysis , and novel alloy design . He is a member of the Royal Society of Chemistry (RSC) and UKRI Peer Review College.
Professor Simon Watkins is a faculty member at RMIT University's School of Engineering, specializing in Aerospace and Automotive Engineering. He holds the academic rank of Professor and leads the Micro Air Vehicles (MAV) Group. His roles include Program Leader for the Bachelor of Engineering (Automotive) and Visiting Professor at the University of Stuttgart. He has pioneered automotive engineering education in Australia and established RMIT Racing, which has achieved international acclaim in Formula Student competitions. His research focuses on MAV dynamics in turbulent environments, aerodynamics, and vehicle safety. Key achievements include developing fuel-saving truck aerodynamic devices, winning solar car competitions, and securing $2.649M in ARC funding. He has supervised over 20 PhD/MEng students and contributed to infrastructure like the Southern Hemisphere's largest wind tunnel. Research interests include turbulence mitigation for MAVs, bio-inspired flight systems, and urban wind dynamics. Awards include SAE International leadership roles and multiple grants. He advises on RMIT Racing and collaborates internationally, with projects funded by the USAF and industry partners.
Graham Dorrington is a Senior Lecturer in the School of Engineering at RMIT University, located at the Bundoora East campus. He has extensive industry experience with organizations including the European Space Agency (ESA-ESTEC), British Aerospace, and Southampton University. His research focuses on aerospace engineering, particularly lighter-than-air aircraft technology, aerospace propulsion systems, and bio-inspired systems. He has designed and tested ultra-light battery-electric airships for tropical rainforest exploration and contributed to planetary mission concepts for Venus and Titan. His research interests span aerobiology, biological flight, and sustainable aviation fuels. He holds former fellowships as an Alexander von Humboldt Fellow and ESA Research Fellow. Dorrington is open to supervising PhD students in aerospace design, flight performance analysis, and bio-inspired systems. His work includes projects like the AMSI Aerochute Pty Ltd's powered parawing-trike development and collaborations on lunar pit reconnaissance probes. Key projects include the design of FC-based propulsion systems for aircraft, thrust augmentation in scramjet nozzles, and smart tuft sensors for flow measurement. His publications address topics ranging from Venus atmospheric platforms to dragonfly flight mechanics. He actively participates in documentaries on aviation history and continues to explore interdisciplinary engineering challenges.
Joost Duflou is a Full Professor at the Department of Mechanical Engineering, KU Leuven, leading the Manufacturing Processes and Systems (MaPS) research group. He holds key roles including Head of the Division Industrial Management, Traffic and Infrastructure, and Head of the Subdivision Design Methodology and Life Cycle Engineering. His research focuses on sustainable manufacturing, laser cutting technologies, circular economy strategies, and bio-inspired design. He actively promotes interdisciplinary collaboration through affiliations like Leuven.AM (Additive Manufacturing Institute) and serves on institutional councils such as the Sustainability Council and Mechanical Engineering Department Council. His teaching encompasses courses like Ecodesign, Project Management, and Engineering Entrepreneurship. Recent projects emphasize intelligent CAD support for manufacturability, heavy-duty laser cutting efficiency, and recycling innovations for e-waste. He has published extensively on topics ranging from cranial implant forming to copper slag valorization, with a strong emphasis on environmental impact assessments and industrial symbiosis. Key Projects : Design for Manufacturing (2024-2028), Heavy-duty Laser Cutting (2022-2026), Circular Economy Business Models (2022-2025) Grants & Funding : Multiple EU and industry-sponsored projects totaling over €5M in recent years Labs/Teams : Leuven.AM Institute, MaPS Research Group
Ryan Hayward is the James and Catherine Patten Endowed Professor of Chemical and Biological Engineering and Department Chair at the University of Colorado Boulder. His research focuses on designing active polymer materials that respond dynamically to external stimuli, including light, temperature, and mechanical forces. Key areas include self-assembly of nanostructured materials, mechanics of soft active materials, and co-continuous phase formation in polymers. Education: B.S.E. in Chemical Engineering from Princeton University (1999), Ph.D. in Chemical Engineering from UC Santa Barbara (2004). His work bridges polymer chemistry, soft matter physics, and materials engineering, with applications in renewable energy, encapsulation, and smart materials. Research Group: Hayward Research Group (specializing in stimuli-responsive materials and nanocomposites) Key Technologies: Photomechanical actuation, ionoelastomer junctions, and co-continuous nanostructures Notable achievements include over 150 peer-reviewed publications, major awards like the NSF CAREER Award, and leadership roles in national research initiatives. His group collaborates on projects ranging from shape-programmable hydrogels to electro-adhesive systems. Awards include the Presidential Early Career Award for Scientists and Engineers (2010), Fellow of the American Physical Society (2018), and Blavatnik National Awards Finalist (2018). His research has been funded by the DOE, NSF, and industry partnerships.
Romeo Marian is an Associate Professor in Engineering at UniSA STEM, University of South Australia. He specializes in Robotics, Manufacturing Engineering, and Thermal Management. His research focuses on advancing technologies such as robotic flexible assembly cells, maintenance optimization for flow networks, and AI-driven educational frameworks. He is affiliated with the School of Engineering and the Australian Research Centre for Interactive and Virtual Environments. Research interests include flapping wing systems, digital twin applications, and sustainable manufacturing. His work addresses challenges in Industry 4.0, such as real-time robotic control and batch-size-of-one production models. Collaborations with the Defence Science and Technology Group highlight his contributions to defense-related systems. Dr. Marian has supervised research degrees and contributed to grants like the Australian Government Research Training Program. His labs and teams focus on experimental validation, including aero engine testing and thermoelectric cooling systems. Recent studies emphasize reliability-centered maintenance and AI ethics in education through frameworks like Cybertrainer.
Arian Aghilinejad is a Postdoctoral Scholar Research Associate in Aerospace at the California Institute of Technology, affiliated with the Graduate Aerospace Laboratories (GALCIT) within the Division of Engineering and Applied Science. His work focuses on biomedical engineering, cardiovascular systems, fluid dynamics, and machine learning applications in healthcare. Research interests include non-invasive cardiovascular monitoring, hemodynamic modeling of the circulatory system, and microfluidic technologies for circulating tumor cell (CTC) separation. He investigates mechanisms like aortic stretch/recoil dynamics, wave-pumping effects, and age-related changes in heart-aorta-brain coupling. His methods combine machine learning with traditional engineering approaches, such as Fourier-based analysis and fluid-structure interaction modeling. Recent work emphasizes translating non-invasive pressure measurements into clinical insights via spectral regression and hybrid machine learning techniques. He also develops patient-specific models for aortic dissection using MRI validation and deep learning. His studies explore longitudinal wave dynamics in compliant tubes and bio-inspired pumping mechanisms. Publications span cardiovascular disease prediction, CTC separation via microfluidics, and the role of vessel wall mechanics in energy transmission. He collaborates on lab-fabricated phantoms and in-vitro hemodynamic simulators to bridge engineering and clinical challenges.
Dr. Umit Koylu is a Professor in the Department of Mechanical and Aerospace Engineering at Missouri University of Science and Technology. He also serves as a Present Research Investigator at the Center for Research in Energy and Environment (CREE). His academic career spans over two decades, including prior roles as Associate Professor and Assistant Professor at Missouri S&T and Florida International University. Ph.D. in Aerospace Engineering, University of Michigan – Ann Arbor (1992) M.S. in Aerospace Engineering, University of Michigan – Ann Arbor (1989) B.S. in Aeronautical Engineering, Istanbul Technical University (1986) Dr. Koylu's research focuses on combustion processes , hydrogen technologies , and fuel cell modeling . His work addresses both conventional and alternative energy systems, with key contributions to soot characterization, clean coal technologies, and laser diagnostics for combustion diagnostics. Recent studies emphasize internal combustion engines fueled by hydrogen/diesel mixtures and PEM fuel cells with bio-inspired designs. His publications highlight trends in combustion diagnostics, soot morphology, hydrogen-fueled engines, and fuel cell optimization. Notable collaborations include work on electric vehicle acceleration strategies and NOx emission reduction techniques. Scientific awards include the National Science Foundation CAREER Award (1999) and multiple teaching honors from Missouri S&T and Pi Tau Sigma. Dr. Koylu is actively involved in professional societies such as the American Society of Mechanical Engineers (ASME) and the Combustion Institute.
Dr. Alper Celik is a Lecturer in Aerospace Engineering at Swansea University since December 2021, also holding an Honorary Lecturer position at the University of Bristol. He holds a BSc (2008), MSc (2011), and PhD (2017) from METU, Turkey. His expertise spans experimental aerodynamics, aeroacoustics, flow control, and biomimicry. His research focuses on rotor noise reduction, turbulence interaction, and acoustic metamaterials. He supervises multiple PhD students exploring topics like rotor-rotor interactions and bio-inspired flow control for urban air mobility. Education: BSc/MSc/PhD from Middle East Technical University (METU), Turkey. Research: Prior work includes postdoctoral research at University of Bristol (2017–2021) and roles at TUBITAK (2015–2017). Research Interests Dr. Celik investigates noise reduction techniques for rotorcraft and wind turbines, flow control using biomimetic approaches, and advanced acoustic liners. His work emphasizes experimental validation of novel configurations to mitigate aerodynamic noise. Publications Recent work addresses rotor noise in tandem systems, propeller noise under turbulent flow, and Helmholtz resonator designs for low-frequency attenuation. Over 20 peer-reviewed articles since 2016 reflect his focus on aeroacoustic optimization and flow dynamics. Awards & Grants While specific awards are not listed, his active supervision of multiple PhD projects indicates sustained research funding and institutional support.
Professor P. S. Krishnaprasad is a faculty member at the University of Maryland, holding positions in Electrical and Computer Engineering and the Institute for Systems Research. He leads the Intelligent Servosystems Laboratory and has joint affiliations with Applied Mathematics and Neuroscience programs. His research focuses on geometric control theory, robotics, and smart materials, with contributions to nonlinear systems, formation control, and biological signal processing. Elected an IEEE Fellow in 1990, he has received prestigious awards including the 2007 Hendrik W. Bode Prize. His work spans theoretical advancements and experimental robotics, emphasizing interdisciplinary applications. Education: Ph.D. in Electrical Engineering, Harvard University, 1977 Research Interests: Geometric control theory, robotics (mobile and collective systems), nonlinear dynamics, smart materials, semiconductor manufacturing, and biomimetic control strategies. His lab explores experimental implementations of theoretical concepts, such as motion camouflage and swarm behavior validation using Vicon motion capture systems. Key Awards: IEEE Bode Lecture Prize (2007) IEEE Fellow (1990) Grover E. Bell Award (2002, team) Outstanding Systems Engineering Faculty Award (1990-1991, 2008-2009) Advising & Grants: Guided notable students like Naomi Leonard (Bellman Award winner) and Fumin Zhang (IEEE Fellow). His grants include projects on smart materials, control networks, and semiconductor processing. Experimental work in ISL includes robotics, motor networks, and collective behavior validation. Lab & Teams: The Intelligent Servosystems Lab (ISL) focuses on mobile robotics, formation control, and smart material actuators. Current projects emphasize collective robotic systems and software for multi-agent coordination, supported by advanced motion capture infrastructure.
Dr. Fatemeh Hassanipour is an Associate Professor in the Department of Mechanical Engineering at the University of Texas at Dallas, affiliated with the Erik Jonsson School of Engineering and Computer Science. Her research focuses on heat transfer, fluid mechanics, and biomedical engineering applications, including energy conservation, bioengineering systems, and electronic cooling. She holds a Ph.D. in Mechanical Engineering from Southern Methodist University (2009) and a B.S. from the University of Tehran (1998). Her work integrates computational modeling, experimental analysis, and clinical collaboration, particularly in lactation physiology and breast cancer imaging. Notable contributions include bio-inspired cooling systems and the development of a breastfeeding simulator. Awards include the NSF CAREER Award ($500,000), ASME Young Engineer of the Year (2010), and UTD Faculty Diversity Award (2011). Key research areas span fluid-structure interaction in biological systems, thermal imaging for cancer detection, and phase change materials for energy storage. She collaborates with UT Southwestern Medical Center on thermal physiology studies and has pioneered computational tools for analyzing mammary ductal systems and infant feeding dynamics. Education: Ph.D., Mechanical Engineering, Southern Methodist University, 2009 B.S., Mechanical Engineering, University of Tehran, 1998 Awards: National Science Foundation CAREER Award Young Engineer of the Year (ASME) UT Dallas Faculty Diversity Award Grants: NSF Early Career Development Grant Oak Ridge Associated Universities Award Her lab develops innovative solutions in biomedical engineering, from modeling infant suckling mechanics to advancing thermal imaging techniques for early cancer detection. She emphasizes interdisciplinary approaches and mentorship, guiding students in research ethics and community engagement.
Shefford P. Baker is a Professor in the Department of Materials Science and Engineering at Cornell University's College of Engineering. He has been a faculty member since 1998, following a PhD from Stanford University and a research position at the Max-Planck-Institut für Metallforschung. He was a Visiting Professor at Université Paul Cézanne, Marseille, in 2006. His work bridges materials science, mechanics, and biological systems. Education: B.M. in Music, University of New Mexico, 1982 M.S. in Materials Engineering, Stanford University, 1988 Ph.D. in Materials Engineering, Stanford University, 1993 Baker's research focuses on the mechanical behavior of materials at the nanoscale, particularly in thin films and biological materials . His group investigates how microstructure, texture, and composition affect stress, deformation, and phase transformations in metallic thin films. He also explores the nanomechanical properties of bone, especially how aging and nutrition affect tissue mechanics. His methodologies combine experimental techniques (e.g., nanoindentation, synchrotron X-ray diffraction, TEM) with computational modeling (e.g., dislocation dynamics, multiscale simulations). His recent publications highlight a sustained focus on thermomechanical behavior , texture evolution , and interface mechanics in thin films, while also expanding into bio-inspired materials and energy materials . Trends include the use of advanced vapor deposition, metallic glass joining, and polymer interphases for next-generation devices. Scientific Awards: CAREER Award, National Science Foundation (1999) Robert and Vanne Cowie Excellence in Teaching Award, Cornell (1999) Outstanding Educator, Cornell University (2000) Sonny Yau '72 Excellence in Teaching Award, Cornell (2002) Outstanding Paper Award, Scripta Metallurgica and Materialia (1990) Baker has been actively involved in mentoring and curriculum development, having served as Director of Undergraduate Studies (2004–2010) and chair of the Engineering Curriculum Task Force. He has secured significant NSF and industry funding for his research. He is a highly engaged member of the Materials Research Society (MRS), having served as President in 2009 and in multiple leadership roles, including symposium organizer and board member. His lab conducts interdisciplinary research involving collaborations with biologists and engineers, focusing on both fundamental mechanics and applied materials challenges. He has contributed to science outreach, including the Nanoscale Informal Science Education (NISE) network.
Professor Daniele Dini is a leading academic in tribology and mechanical engineering at Imperial College London's Faculty of Engineering. As Vice-Dean (Research) and Professor of Tribology, he heads the Imperial College Tribology Group, one of the world's largest tribology research groups with 60+ researchers. His work spans advanced modeling strategies for tribological systems, with applications in materials science, biomechanics, and structural integrity. Key affiliations include the Energy Futures Lab, Institute of Chemical Biology, and Musculoskeletal Medical Engineering Centre. Education: M.Eng from Politecnico di Bari (2000), D.Phil from University of Oxford (2004). Research focuses on multiscale simulation techniques, including molecular dynamics and fluid mechanics solvers. Industrial collaborators include Afton Chemical, Bosch, and Rolls-Royce. Academic partnerships span institutions like MIT, Cambridge, and the University of Sao Paulo. Research interests emphasize bridging molecular-to-macroscopic scales, with projects in lubrication fundamentals, biomedical interfaces, and energy systems. Notable achievements include the 2016 EPSRC Established Career Fellowship and the 2012 Medal in Research Supervision. He serves as Assistant Editor of the International Journal of Solids and Structures and on editorial boards of Tribology International and others. Awards include the Tribology Trust Bronze Medal (2004), Jacob Wallenberg Award (2007), and multiple best paper prizes. His group's research addresses industrial challenges while advancing theoretical frameworks, with a focus on training next-generation tribologists through interdisciplinary training programs. Current projects involve brain interstitial transport modeling, nanocomposite hydrogels for cartilage repair, and radiation-resistant lubrication systems for high-energy environments. His work integrates computational innovation with experimental validation, exemplified by tools like the PAPRECA simulator for off-lattice kinetic Monte Carlo/molecular dynamics modeling.
Charles E. Sing is a Professor in the Department of Chemical and Biomolecular Engineering at the University of Illinois Urbana-Champaign. He holds the James M. and Karen S. Morris Faculty Scholar Professorship and leads the Sing Research Group. His work focuses on polymer physics, statistical mechanics, and computational modeling to design bio-inspired soft materials. Education : BSE/MS from Case Western Reserve University (2008), PhD from MIT (2012), and postdoctoral research at Northwestern University (2012-2014). Research Interests : Charge-driven polymer assembly, out-of-equilibrium polymer dynamics, brush-like polymer assembly, and coacervates. Collaborations include Profs. Diao, Rogers, Guironnet, and Schweizer to explore structural coloration, phase separation, and polymer network dynamics. His models bridge molecular-level mechanisms and macroscopic material properties. Awards : ACS PMSE Young Investigator (2020), AIChE 35 Under 35 (2020), NSF CAREER Award (2017), and the 2024 John H. Dillon Medal. Recognized for contributions to polymer physics and soft materials design. Labs/Teams : Director of Graduate Studies (2023–present), leading efforts to enhance graduate student experiences. Active in interdisciplinary collaborations across chemical engineering, materials science, and biophysics.
Associate Professor Danielle Joy Moreau is an academic at the School of Mechanical and Manufacturing Engineering, UNSW Sydney , specializing in experimental aeroacoustics. Her research focuses on understanding and controlling noise generated by turbulent flows in aerospace, naval, industrial, and medical systems. She holds an Associate Professor rank and is a recognized leader in noise control across multiple sectors. Education: PhD in Mechanical Engineering (2010), University of Adelaide BE (Mechatronic Engineering, First Class Honours) (2005), University of Adelaide Professional Roles: Chief Editor of Acoustics Australia (2022–2025) Editor of Applied Acoustics (2023–present) Board Member, International Commission for Acoustics (ICA) Research Interests: Her work addresses noise reduction in airframe components, UAV propellers, underwater vehicles, industrial machinery, and medical devices. Key areas include three-dimensional airfoil flow noise, bio-inspired quiet airfoil design, and ducted propeller noise. She collaborates internationally and has authored/co-authored two textbooks: Active Control of Noise and Vibration and Flow Noise: Theory . Awards & Recognition: Recipient of prestigious awards such as the NSW Young Tall Poppy Science Award (2016), ARC DECRA (2015), and the inaugural Australasian Fluid Mechanics Society Emerging Leader Award (2022). She is also a Fulbright Scholar (2013). Teaching & Supervision: Course convenor for MECH4305: Fundamental and Advanced Vibration Analysis and supervises PhD students in aeroacoustics. Current advisees include Justin Malkki (Drone propulsion noise) and Rowena Dixon (airfoil noise production). Labs & Teams: Leads a dynamic research group at UNSW’s Flow Noise Group , focusing on experimental and numerical projects in aeroacoustics. Collaborates with industry and academia globally on noise control technologies.
