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Dingchang ZhengView profile

Professor

• Healthcare Device Innovation
• Wearable Sensors
• Bio-signal Processing
• +4 more

Dingchang Zheng is a Professor and Director of the Research Centre for Intelligent Healthcare. He specializes in medical device development, particularly in physiological measurements and bio-signal processing, with a focus on cardiovascular technologies, wearable devices, and IoT monitoring systems. His work addresses unmet clinical needs such as novel blood pressure measurement techniques and pre-term labor prediction. Education: PhD in Medical Physics from Newcastle University, UK. Research Interests: Healthcare device innovation, wearable sensors, bio-signal processing, computer modeling, and multidisciplinary collaboration across engineering, medicine, and industry. His work contributes to UN Sustainable Development Goals related to health and well-being. Awards: IPEM Martin Black Prize (2012) IET JA Lodge Award (2009) Grants & Projects: Principal Investigator on projects including: Development of a hearing aid IoT platform (2018–2020) Wearable respiratory rate device for infants (2018–2021) Uterine electrohysterogram system for preterm labor prediction (2016–2021) funded by the Bill & Melinda Gates Foundation Labs/Teams: Leads the Research Centre for Intelligent Healthcare, fostering international collaborations in China, Jordan, and Nigeria to advance healthcare technology adoption.

Chuang DengView profile

Associate Professor

• Materials Science
• Metallurgy
• Nanostructures
• +4 more

Dr. Chuang Deng is an Associate Professor in the Department of Mechanical Engineering at the University of Manitoba, part of the Price Faculty of Engineering. He holds a PhD in Materials Science from the University of Vermont and a BSc in Materials Physics from Fudan University. His research focuses on materials modeling and simulation, investigating processing-structure-property relationships in metallic materials, including grain boundaries, metallic glasses, and high entropy alloys. He leads the Laboratory of Nanoscale Materials and actively seeks graduate students for research in grain boundary dynamics and high-entropy steels. Dr. Deng's work spans atomic-scale simulations and machine learning to explore material behavior under various conditions. His current opportunities include two PhD positions for 2024 intake, emphasizing structural and thermodynamic studies of grain boundaries and high-entropy steel design. He has advised numerous students and collaborators, including postdocs and visiting scholars. His publications highlight contributions to understanding deformation mechanisms, grain boundary migration, and nanomaterials' mechanical properties. His research interests are reflected in recent publications on grain boundary stagnation, shear-coupled migration, and nanomaterials' energy absorption capabilities. Collaborations span institutions like the University of Pittsburgh and Zhejiang University. Dr. Deng teaches courses in materials science and engineering, including diffusion in solids and nanomaterials' physical properties.

• Renewable Energy
• Hydrogen Energy Storage
• Energy Systems Integration
• +3 more

Stephen Carr is a Lecturer in Energy Physics at the **University of South Wales**, part of the **Faculty of Computing, Engineering and Science**. He holds an MPhys in Physics from the University of Oxford (2004) and a PhD from the University of Glamorgan (2005), focusing on integrating renewable technologies into electricity networks. His research emphasizes hydrogen energy storage, renewable energy systems, and optimizing wind power integration. He has contributed to projects like the **CymruH2Wales initiative**, advancing hydrogen storage modeling and control. His work bridges theoretical research and practical applications in energy transition. **Research Interests**: Hydrogen production and storage technologies Wind power integration and grid stability Electrochemical systems for energy conversion Carbon capture and utilization **Key Publications**: His recent work addresses hydrogen recovery from industrial gases, electrolysis optimization, and hydrogen’s role in decarbonization. Earlier studies include solar-hydrogen systems, optimal hydrogen storage for wind grids, and adaptive power management strategies. **Labs/Teams**: Active in the CymruH2Wales energy storage project and affiliated with the **Baglan Energy Park** research facilities.

Marcus L. YoungView profile

Associate Professor

• Shape Memory Alloys
• Additive Manufacturing
• Hydrogen Embrittlement
• +3 more

Marcus L. Young is Associate Professor and Associate Department Chair in Materials Science and Engineering at the University of North Texas. His research focuses on advanced materials characterization and processing techniques. Research Focus: Primary interests include shape memory alloys, additive manufacturing, hydrogen effects on materials, and combinatorial materials processing. Recent work examines hydrogen compatibility in energy systems and fatigue mechanisms in high-temperature alloys. Recent Publications: Investigates material behavior under extreme conditions including hydrogen environments, fatigue cycling, and battery electrode optimization. Techniques include atom probe tomography and synchrotron radiation analysis.

Rohit KothariView profile

Researcher

• Thermal Energy Storage
• Packed Bed Systems
• Phase Change Materials
• +3 more

Rohit Kothari serves as a Researcher in the Department of Civil and Mechanical Engineering at the Technical University of Denmark (DTU), contributing to sustainable energy solutions through advanced thermal systems research. His work directly supports UN Sustainable Development Goals in clean energy infrastructure. His core expertise spans Thermal Energy Storage Systems , Packed Bed Modeling , and Phase Change Material Applications , with specialized focus on Numerical Heat Transfer Analysis and Battery Thermal Management . Research methodologies emphasize computational fluid dynamics and transient thermal modeling to optimize energy storage efficiency, particularly in molten salt systems and metal foam composites. Recent publications (2024-2026) reveal concentrated research on thermal instability mitigation in high-temperature storage, constrained melting phenomena in PCM capsules, and battery thermal management under extreme discharge conditions. Key trends include computational optimization of fin geometries for melting enhancement and cold packed-bed heat transfer prediction. Kothari actively contributes to three major energy projects: Best4Grid (Nordic vehicle-grid integration), LAES-Egypt (cryogenic storage for Egypt), and GridScale (large-scale power-to-power storage). These initiatives involve cross-institutional collaboration with industry partners to develop grid-stable renewable energy solutions.

• Materials Science
• Geochemistry
• Mineral Physics
• +3 more

Dr. Renelle Dubosq is a Researcher at the Max Planck Institute for Sustainable Materials, affiliated with the Department of Microstructure Physics and Alloy Design. Her research focuses on advancing nanoscale analysis techniques, particularly atom probe tomography, to study deformation mechanisms in minerals, fluid inclusion behavior, and geochemical processes. She explores topics such as high-pressure metamorphic systems, cryogenic material behavior, and crystal plasticity in geological materials. Her work integrates experimental methods with computational modeling to understand microstructural evolution in minerals like garnet, mica, and pyrite under extreme conditions. Key themes include trace element mobility during deformation, the role of fluid inclusions in material hardening, and the application of correlative microscopy in nanogeology. Recent studies highlight her contributions to understanding deformation-induced chemical changes in white mica, the coherent solvus of alkali feldspar, and the mechanics of water ice at cryogenic temperatures. Her research bridges materials science and geology, offering insights into Earth's structural and chemical dynamics at the nanoscale. Dr. Dubosq has published extensively on atom probe tomography applications, metamorphic processes, and nanomechanical testing. No scientific awards are listed, but her work is recognized for its technical innovation and interdisciplinary approach.

Rebecca McElroyView profile

Research Fellow

• Astrophysics
• Active Galactic Nuclei (AGN) Feedback
• Galaxy Evolution
• +4 more

Dr. Rebecca McElroy is a Vice-Chancellor's Postdoctoral Research Fellow in the School of Mathematics, Physics and Computing at the University of Southern Queensland. Her research focuses on active galactic nuclei (AGN) feedback mechanisms, galaxy evolution, and star formation processes in nearby galaxies. She is a core contributor to major international surveys including the Close AGN Reference Survey (CARS) and the PHANGS (Physics at High Angular resolution in Nearby GalaxieS) project, which utilize multi-wavelength observations to study galaxy dynamics and interstellar medium interactions. McElroy holds a PhD from the University of Sydney (2018), preceded by a BSc (2013) and GDipSc (2014), also from Sydney. She has affiliations with the Centre for Astrophysics and the Institute for Advanced Engineering and Space Sciences. Her work emphasizes high-angular resolution studies of AGN-driven outflows, molecular cloud lifecycle analysis, and environmental dependencies in star-forming regions. Recent research highlights include discovering parsec-scale multi-phase outflows in super-Eddington AGN and tracking dramatic variability in changing-look AGN like Mrk 1018. Her publications span 20+ peer-reviewed articles in journals like Astronomy & Astrophysics, Astrophysical Journal, and Monthly Notices of the Royal Astronomical Society. Key themes include AGN-jet interactions, star formation efficiency calibration, and resolving metallicity variations in galactic disks. McElroy's collaborative projects leverage advanced facilities like MUSE, ALMA, and Hubble Space Telescope data to advance understanding of galaxy evolution processes.

• Solar Energy Engineering
• Renewable Energy
• Thermochemical Processes
• +4 more

Philipp Haueter is a Researcher at ETH Zürich's Institute for Energy and Process Engineering, within the Department of Mechanical and Process Engineering. He works as part of the Professorship for Solar Energy Engineering under the research group of Professor Aldo Steinfeld (emeritus), focusing on solar thermochemical processes for renewable fuel production. Dr. Haueter's research expertise spans multiple critical areas of solar energy conversion: Solar reactor design and optimization for high-temperature applications Thermochemical redox cycles for splitting H2O and CO2 Concentrated solar power systems and optical design Hydrogen production via steam-gasification of carbonaceous materials Solar-driven production of carbon-neutral aviation fuels High-temperature heat recovery techniques His recent work has been pivotal in advancing solar fuel technology from laboratory concepts toward industrial implementation. The 2022 Nature paper on 'Drop-in Fuels from Sunlight and Air' demonstrated the first complete production chain for carbon-neutral aviation fuels directly from atmospheric components using solar energy, while the Joule publication detailed a functional solar tower fuel plant for kerosene production. These contributions represent significant milestones in making solar fuels commercially viable. Dr. Haueter's research has been supported by major funding initiatives including European Commission projects (agreement numbers 832535, 654408, 320541) and Swiss National Science Foundation grants (162435), focusing on 'Towards Efficient Production of Sustainable Solar Fuels' and 'SUN-to-LIQUID' initiatives. His collaborative work extends to international partners in Spain and across ETH Zürich departments, demonstrating strong interdisciplinary research capabilities.

Hisham AliView profile

Assistant Professor

• Hypersonics
• Magnetohydrodynamics
• Plasma Physics
• +3 more

Hisham Ali is an Assistant Professor in the Department of Aerospace Engineering Sciences at the University of Colorado Boulder (CU Boulder), affiliated with the Aerospace Mechanics Research Center (AMREC). He holds a PhD and MS in Aerospace Engineering from Georgia Institute of Technology (2019 and 2015) and a BS from the University of Alabama (2013). His research focuses on hypersonics, magnetohydrodynamics (MHD), plasma physics, planetary entry systems, and aerocapture technologies for space exploration. Education: PhD, Aerospace Engineering, Georgia Tech, 2019 MS, Aerospace Engineering, Georgia Tech, 2015 BS, Aerospace Engineering, University of Alabama, 2013 Ali’s research explores MHD drag modulation for planetary entry missions (e.g., Neptune aerocapture), plasma wind tunnel development, and energy harvesting during atmospheric entry. His work aims to reduce mission costs, enhance spacecraft efficiency, and enable human exploration of outer planets. Key projects include tabletop-scale plasma tunnel facilities and RF/MW instrumentation suites for hypersonic flow studies. He has received prestigious awards such as the NASA Space Technology Research Fellowship (2013) and the Barry M. Goldwater Scholarship (2012). His contributions span academic and industrial roles, including postdoctoral research at Georgia Tech and a position at The Aerospace Corporation. Ali advises graduate students in CU Boulder’s Aerospace Engineering program and collaborates on grants focused on hypersonic aerodynamics and MHD systems. His laboratory (AER0 369) integrates experimental and computational approaches to advance space exploration technologies.

David MarshallView profile

Research Professor

• Materials Science
• High Temperature Materials
• Ceramic Composites
• +3 more

David Marshall is a Research Professor in the Department of Aerospace Engineering Sciences at the University of Colorado Boulder and a Member of the National Academy of Engineering. He holds adjunct roles at the University of California, Santa Barbara, and has extensive industry experience with Teledyne Scientific and Rockwell International. His research focuses on high-temperature structural materials, ceramic composites, and advanced material characterization techniques. Marshall has pioneered work in oxide-oxide composites, thermal barrier coatings, and morphing ceramic components for aerospace applications. Education: PhD in Physics, Monash University, Australia (1975) BSc (Hons. I) in Physics, Monash University, Australia (1971) Research Interests: Design of materials for extreme thermal environments Modeling mechanical responses of ceramic composites Development of aerospace-grade ceramic matrix composites (CMC) In-situ X-ray tomography for material failure analysis High-temperature oxidation and thermal protection systems Awards: Member, National Academy of Engineering (2007) World Academy of Ceramics (2004) Fellow of the American Ceramic Society (1990) Grants & Labs: Director, Aerospace Mechanics Research Center (AMREC) at CU Boulder Leader of projects in hypersonic materials and morphing structures Collaborations with NASA, DoD, and industry partners on advanced propulsion systems Key Contributions: Pioneered integral textile ceramic composites, developed flash sintering techniques, and advanced understanding of ceramic interphases for high-temperature applications.

Jason VoorneveldView profile

Assistant Professor

• Ultrasound Velocimetry
• Blood Flow Dynamics
• Medical Imaging
• +2 more

Jason Voorneveld is an Assistant Professor in Cardiology at Erasmus University Medical Center, specializing in ultrasound velocimetry and blood flow dynamics. His research focuses on developing advanced ultrasound technologies for cardiovascular assessment, with expertise in high-frame-rate imaging, contrast-enhanced ultrasound, and microbubble characterization. Research directions include: Non-invasive blood pressure measurement techniques High-speed 3D ultrasound probe development Microbubble mechanics for contrast imaging Validation of echo-particle image velocimetry Voorneveld earned his PhD from Erasmus MC in 2019 after completing his Master's in Biomedical Engineering at the University of Cape Town. His research contributions have been recognized with multiple awards including the Dekker Postdoc Fellowship and PhD Cum Laude distinction.

Zach HowardView profile

Research Fellow

• Cognitive Workload Management
• Human Factors
• Cognitive Modeling
• +3 more

Zach Howard is an Adjunct Research Fellow at the University of Western Australia's School of Psychological Science, where he contributes to the Human Factors and Applied Cognition lab. Previously, he held positions at the University of Newcastle and Hunter New England Health. His research focuses on cognitive workload management, decision-making under time pressure, and modeling human behavior through response times and neurological measures. Howard holds a Doctor of Philosophy in Cognitive Psychology (University of Newcastle, 2020) and a Bachelor of Science (Honours Class I) in Psychology (University of Newcastle, 2014). His work has direct applications in defense, law enforcement, and human-machine interfacing, addressing critical decision-making in high-stress environments. Key research interests include cognitive architecture, situation awareness in control rooms, and the implications of workload on performance. He has received awards such as the Defence and Research Teams initiative (2021) and the Raine Medical Foundation Collaboration Award (2020). His projects include grants from the Australian Research Council and the Defence Science and Technology Group, focusing on real-time workload measurement and human-machine teaming. Howard's publications span cognitive modeling, sensor integration in submarines, and neurological dysfunction analysis. He collaborates internationally, contributing to advancements in applied cognition and ergonomics.

Patricia NievaView profile

Professor

• MEMS
• Sensors Technology
• Energy Storage
• +3 more

Patricia Nieva is a Professor and Deputy Chair at the University of Waterloo. She specializes in microelectromechanical systems (MEMS), advanced sensor technologies, and energy storage solutions. Her research focuses on developing innovative MEMS-based sensors for harsh environments, fiber optic monitoring systems for lithium-ion batteries, and thermal management in microelectronic devices. She leads the Sensors and Integrated Microsystems Laboratory, advancing interdisciplinary applications in material science and nanotechnology. Her academic career includes full-time faculty roles and administrative contributions through the Faculty administration at Waterloo. Key research interests include MEMS fabrication, sensor integration, battery diagnostics, and material characterization under extreme conditions. Over 20 years of publications demonstrate expertise in microcantilever sensors, thermal stress regulation, and electrochemical systems. Patricia’s work bridges fundamental material science with practical engineering applications, addressing challenges in energy storage, environmental monitoring, and biomedical sensing. Her recent articles highlight advancements in fiber optic battery monitoring and novel Bluetooth-enabled occupancy systems. Awards and recognitions are not explicitly listed, though her extensive publication record underscores significant contributions to the field.

• Plastics Engineering
• Ceramic Injection Molding
• Mechatronics Integration
• +4 more

Professor Bruno Bürgisser holds a full professorship at the Fribourg School of Engineering and Architecture (HES-SO), leading the Institute for Applied Plastics Research (iRAP). With 20 years of industrial experience and 10 years in academia, his expertise spans plastics processing, ceramic injection molding (CIM), and mechatronics integration through overmolding. He specializes in developing innovative manufacturing solutions for industries such as medical devices and high-end consumer products. His research focuses on optimizing plastic and ceramic manufacturing processes to enhance efficiency and reduce costs. Notable projects include the Assytronic initiative, which explores integrating sensitive electronic components into plastic products via injection overmolding, supported by eight industry partners. He also leads the CIM++ project, advancing ceramic molding techniques with variotherm control systems. Recent articles highlight energy efficiency in plastics production, sustainable materials substitution, and advanced CIM applications in automotive and luxury sectors. His work emphasizes collaboration between academia and industry, addressing challenges like dynamic stress management during overmolding and improving process monitoring through sensor technology. Bürgisser actively contributes to the Swiss Plastics Cluster and collaborates with companies like Phonak and Fischer Connectors. His iRAP institute provides cutting-edge facilities for R&D in plastics and ceramics, supporting industrial innovation.

• Refrigeration Systems
• Thermodynamics
• Ejector Technology
• +3 more

Krzysztof Banasiak is an Adjunct Associate Professor in the Department of Energy and Process Engineering at NTNU. His research focuses on advanced refrigeration systems, particularly CO2-based cycles and ejector technologies. He leads projects in thermodynamics, heat pump optimization, and low-GWP refrigeration solutions for diverse applications like particle physics detectors (CERN), electric vehicles, and tropical supermarkets. Key contributions include spray-ejector condensers for negative-CO2-emission power plants, krypton-based cooling systems for high-energy physics detectors, and multi-ejector CO2 systems for supermarkets in extreme climates. His work integrates experimental prototyping, CFD modeling, and exergy analysis to improve energy efficiency and sustainability. Publications span topics such as transcritical CO2 cycles, thermal power plant efficiency, and refrigeration system innovation. Collaborations include CERN and industry partners like SINTEF. Current research emphasizes climate-resilient thermal management and carbon-neutral energy systems.