Christopher Pickles is a Professor in The Robert M. Buchan Department of Mining at Queen's University (Smith Engineering). His research focuses on applying new energy sources like plasmas and microwaves in extractive metallurgy, particularly in drying, heating, and smelting applications. He has pioneered studies on microwave interactions with minerals, lateritic ores, and EAF dust. Education: PhD, M.A.Sc., and B.A.Sc. in Metallurgical Engineering from the University of Toronto. He joined Queen's University in 1982 after post-doctoral research. His work includes carbothermic reduction of laterite ores, thermodynamic modeling of pyrometallurgical processes, and waste processing innovations. Research highlights: Developed microwave-assisted metallurgical techniques for resource recovery, studied nickel extraction from silicate laterites, and analyzed hydrogen reduction kinetics. Awards include ISS-AIME Iron & Steel Professorship (1992-1995) and CIM Fellowship (2002). Awards: ISS-AIME Iron & Steel Professorship (1992–1995), CIM Fellowship (2002) Key Projects: Microwave processing of ores, EAF dust treatment, thermodynamic modeling of reduction roasting Labs/Teams: Active in Queen's Mining research groups, collaborating on projects involving microwave metallurgy and sustainable resource processing. No listed advisees are explicitly mentioned in the provided data.
Joseph Bramante is an Assistant Professor of Physics at Queen’s University, with a joint appointment at the Arthur B. McDonald Canadian Astroparticle Physics Institute. He holds a visiting fellowship at the Perimeter Institute for Theoretical Physics. His research focuses on dark matter, the early universe, and fundamental physics puzzles such as dark matter’s nature, baryon asymmetry, and the Higgs mass hierarchy problem. He explores novel detection methods for dark matter, including underground experiments like SNO+ and PICO, and has contributed to projects like the Future Circular Collider feasibility study. He earned a BA in Liberal Arts from Sarah Lawrence College (2007) and a PhD in theoretical physics from the University of Hawaii (2013). His postdoctoral work included stints at the University of Notre Dame and Perimeter Institute. Current research emphasizes multiply interacting massive particles (MIMPs) and dark matter’s role in astrophysical phenomena like supernovae. Bramante collaborates with experimentalists to design innovative detection strategies, such as using superheated liquids and scintillator doping. His theoretical contributions span cosmology, particle physics, and quantum gravity interfaces. He advises three postdoctoral researchers and actively engages in cross-disciplinary projects at Queen’s and the McDonald Institute. Notable venues for his work include the Journal of Cosmology and Astroparticle Physics and the Future Circular Collider conceptual design reports.
Ali Serol ERTÜRK is an Associate Professor at Adiyaman University's Faculty of Pharmacy, Department of Analytical Chemistry. He holds a Ph.D. in Analytical Chemistry from Yıldız Technical University (2010–2014), an M.S. from Süleyman Demirel University (2007–2009), and a B.S. from Boğaziçi University's Integrated BS/MS Program in Teaching Chemistry. His research focuses on cutting-edge developments in chemistry and materials science, including dendrimer chemistry, nanomaterial synthesis, catalysis, green chemistry techniques, and pharmaceutical applications. He has authored over 50 peer-reviewed articles, with recent work emphasizing electrochemical sensors, nanocatalyst design, and environmental remediation. Teaching responsibilities include courses such as Analytical Chemistry, Biostatistics, Chromatographic Methods, and Graduation Projects. Professional achievements include ISO 21001:2018 certification in educational quality management and leadership roles in academic administration. His lab specializes in synthesizing functional nanomaterials and exploring their applications in energy, healthcare, and environmental sustainability. Collaborations with international researchers and industry partners underscore his commitment to interdisciplinary innovation.
Selçuk POYRAZ is an Associate Professor at Adıyaman University's Department of Textile Engineering, Faculty of Engineering. He holds a Ph.D. and M.S. from Auburn University (USA) and a B.S. from Çukurova University. His research focuses on nanomaterial synthesis, conducting polymers, and microwave energy applications in energy storage and functional textiles. He has authored 22 peer-reviewed articles and contributed to 12 conference proceedings. Awards include Auburn University's Best International Graduate Student Award and a postdoctoral fellowship from Alabama EPSCoR. Education: Ph.D. (Polymer Engineering, 2014), M.S. (Polymer Engineering, 2010), B.S. (Textile Engineering, 2007) Research: Specializes in microwave-assisted synthesis of nanomaterials for energy storage and biomedical applications Awards: Multiple international and national grants/bursaries totaling over $165,000
Runa Berg Østby is an Associate Professor at the Department of Nursing, Health and laboratory science at Høgskolen i Østfold (HiOFS). Her academic background includes a PhD in organic chemistry from The Norwegian University of Life Sciences (NMBU). She collaborates with Professor Yngve Stenström's research group at NMBU and participates in the Methods of Teaching for Student Active Learning (UMSAL) research group. Her research interests focus on organic chemistry synthesis of biologically active compounds (e.g., pheromones and pharmacological agents), analytical quality management in healthcare laboratories, and innovative methods like microreactor technology and microwave-assisted synthesis. She teaches courses in statistical analysis, medical biochemistry, and laboratory quality systems. Her publications span organic synthesis methodologies, natural product chemistry, and flow chemistry applications. Notable works include studies on lignan/terpenoid accumulation in Norway spruce and dibromocyclopropanation reactions using flow systems.
Thomas Roth is an Assistant Professor of Electrical and Computer Engineering at Purdue University , specifically within the Elmore Family School of Electrical and Computer Engineering . His research focuses on quantum and classical electromagnetic systems, with expertise in multiscale modeling and applied electromagnetics. He holds a Ph.D. in Electrical Engineering from the University of Illinois at Urbana-Champaign (2020), following B.S. and M.S. degrees from Missouri University of Science & Technology and Illinois, respectively. Education: B.S. in Electrical Engineering, Missouri University of Science & Technology, 2015 B.S. in Computer Engineering, Missouri University of Science & Technology, 2015 M.S. in Electrical Engineering, University of Illinois at Urbana-Champaign, 2017 Ph.D. in Electrical Engineering, University of Illinois at Urbana-Champaign, 2020 Research Interests: Roth’s work bridges quantum mechanics and electromagnetic theory, emphasizing computational methods for superconducting circuits and quantum devices. His lab develops numerical frameworks for modeling transmon qubits, Josephson parametric amplifiers, and multiphysics systems. Recent efforts include analytical solutions for multi-qubit interactions and robust finite-element methods for quantum systems. Publications: His 2024-2025 work highlights advancements in quantum full-wave solutions, parametric amplifiers, and hybrid modeling techniques. Key themes include improving numerical stability for quantum systems and exploring dielectric loading for optical qubits. Awards/Grants: No specific awards listed, but his work aligns with emerging quantum engineering priorities at Purdue. Lab/Teams: His research group focuses on computational quantum electromagnetics, collaborating on projects involving superconducting circuits and quantum device optimization.
Richard Brutchey is a Professor in the Department of Chemistry at the University of Southern California, leading the Brutchey Group since its establishment in 2007. His research focuses on chimie douce materials synthesis to address challenges in catalysis, energy storage/conversion, and sustainability. He was recently named a Fellow of the Royal Society of Chemistry (FRSC) for his contributions to chemistry. Department of Chemistry, University of Southern California Brutchey Group (2007–present) Research interests include: Catalytic materials for CO 2 conversion Band gap engineering of semiconductor nanocrystals Thermoelectric material optimization Thiol-amine solvent systems for solution processing Machine learning-aided synthesis optimization Microwave-assisted colloidal chemistry Scientific awards: Fellow of the Royal Society of Chemistry (FRSC) Publications demonstrate expertise in nanoparticle catalysis (CO 2 hydrogenation), perovskite nanocrystal engineering (CsPbBr 3 ), high-throughput synthesis methods, and phase control in semiconductor materials. His work bridges materials chemistry with applied sustainability through scalable manufacturing techniques.
Professor Zhigang Chen is a Capacity Building Professor of Energy Materials at Queensland University of Technology (QUT), holding appointments in the Faculty of Science and School of Chemistry & Physics. He serves as founding director for the ARC Research Hub in Zero-emission Power Generation for Carbon Neutrality (ZeroPC), Academic Research Lead, and ARC Future Fellow. Previously, he held professorships at the University of Southern Queensland (USQ) and University of Queensland (UQ), where he was an ARC Australian Postdoctoral Fellow, QLD Smart Future Fellow, and Honorary Professor. His research program spans sustainable functional materials, thermoelectrics, advanced manufacturing, and advanced microscopy for energy applications. Professor Chen's research focuses on developing high-performance thermoelectric materials for energy conversion and waste-heat recovery through nanostructure engineering and band engineering. His work has led to world-record figure of merit (ZT) in several thermoelectric systems. He has pioneered cost-effective manufacturing processes like solvothermal and microwave-assisted methods for low-toxic thermoelectric materials achieving energy-conversion-efficiency above 15%. His research integrates advanced microscopy techniques to establish structure-property links in energy materials, resulting in significant scientific breakthroughs. His publications demonstrate a strong focus on sustainable energy materials, particularly thermoelectrics, with recent work emphasizing flexible thermoelectric devices, hybrid photovoltaic-thermoelectric systems, and novel material systems like SnTe-based compounds. The research spans fundamental materials science to practical applications, with increasing attention to industry implementation and commercialization potential. Many publications address the challenge of balancing high thermoelectric performance with cost-effective manufacturing. Fellow, Royal Society of Chemistry QUT Research Excellence Award, 2023 ARC Future Fellowship (Level 3) 2022 Clarivate Web of Science Highly Cited Researchers 2020-2021 USQ Research Excellence Award 2020 Mendeley Global Top 2% Researcher 2019-2023 Professor Chen has secured approximately A$50 million in research funding as lead Chief Investigator or Chief Investigator, including 7 ARC Discovery grants (5 as lead CI), 2 ARC Research Hubs, 4 ARC Linkage grants, and numerous industry investments from HBIS groups, NQ Minerals, Cook Medicals, BHP Billiton, and Defense Science and Technology Group. He has successfully supervised numerous HDR students and established significant research collaborations with institutions including CalTech, UCLA, and Shanghai Institute of Ceramics. His research program maintains strong industry connections focused on practical applications of energy materials. Professor Chen leads multiple research initiatives including the ARC Research Hub in Zero-emission Power Generation for Carbon Neutrality (ZeroPC) and has established advanced materials characterization facilities at QUT. His research team collaborates with international partners at CalTech, UCLA, and Chinese Academy of Sciences, maintaining a strong focus on translating fundamental materials research into practical energy solutions with commercial potential.
Professor Jean Daniel COISSON is an Associate Professor at the University of Eastern Piedmont 'Amedeo Avogadro', Department of Pharmaceutical Sciences. His research focuses on food chemistry, bioactive compounds, and functional foods, with particular emphasis on phenolic extracts from agricultural by-products (e.g., cocoa, rice, berries). He leads projects like VITADWASTE (vitamin D3 from fish waste) and AGRIHEALTH (agricultural by-product utilization). His work contributes to UN SDGs related to sustainable food systems and health. Key projects include: VITADWASTE: Developing vitamin D3 nutraceuticals from fish waste. AGRIHEALTH: Enhancing human health and plant defense via agrifood by-products. Research interests span antioxidant activity, phenolic compound bioaccessibility, and innovative food processing techniques. He has over 345 publications, emphasizing topics like microwave-assisted extraction, spray-dried microparticles, and bioactive peptide development. Collaborations involve institutions in Italy and abroad, focusing on enology, nutraceuticals, and sustainable ingredient production. No scientific awards are explicitly listed, but his extensive publication record reflects sustained research impact. His lab focuses on translating agricultural by-products into functional ingredients, with applications in both food and pharmaceutical sectors.
Prof John Leis is a Professor of Electrical Engineering at the University of Southern Queensland (USQ), affiliated with the School of Engineering. He holds qualifications including a BEng (1987), MEngSc (1990), and PhD (1999) from DDIAE and Queensland University of Technology (QUT). His research focuses on signal processing, biomedical engineering, aerospace systems, and sensor technologies. Key areas include gas detection (e.g., methane, ethylene), biomedical imaging (CT-guided biopsies), and aerospace icing prevention. He has supervised doctoral research on dual-camera infrared guidance systems for medical procedures. Recent work involves noncontact ice accretion detection in turbofan engines and microwave-based liquid water sensing. Prof Leis has authored books on MATLAB-based signal processing and contributed to over 70 peer-reviewed publications since 2002. His collaborations span aerospace, biomedical, and environmental domains. Education: BEng in Electrical Engineering (DDIAE, 1987) MEngSc (QUT, 1990) PhD in Engineering (QUT, 1999) Research interests emphasize practical applications of signal processing in engineering systems, including: Photonics and laser-based sensing Embedded system optimization Medical device development Aircraft safety technologies Notable innovations include lock-in amplifier algorithms, photoacoustic gas detectors, and 3D biopsy guidance systems. Publications span aerospace, biomedical, and electrical engineering journals (e.g., IEEE Transactions, Journal of Spacecraft and Rockets). His work often addresses real-time measurement challenges in industrial and medical contexts. Collaborations with colleagues like Dr. Buttsworth and Dr. Saleh have produced advanced sensor solutions for aviation and environmental monitoring. Current projects likely continue in icing prevention, biomedical imaging, and signal processing algorithm development.
Yutian Wen is an Assistant Research Professor in the Department of Physics & Astronomy at the University of Notre Dame. Their research focuses on quantum systems, including quantum memory, spintronics, superconducting circuits, and nanomechanical oscillators. Wen's work bridges quantum physics with engineering applications, such as quantum computing and nanotechnology. They are affiliated with the College of Science and are based at Nieuwland Science Hall, Notre Dame, IN. Key research interests include developing quantum technologies using bismuth dopants in silicon, optimizing photon absorption in spin memories, and leveraging ultra-low-noise SQUID amplifiers for quantum dot readout. Their contributions span theoretical and experimental advancements in quantum control, microwave physics, and nanoscale systems. Wen's publications reflect a trajectory toward scalable quantum systems and precision measurements. While no awards are explicitly listed, their active publication record indicates significant contributions to quantum science. No advising or grant details are provided in the text.
Hongwan Liu is an Assistant Professor at Boston University, specializing in cosmology, astroparticle physics, and high-energy physics. Their research focuses on uncovering physics beyond the Standard Model by exploring connections between microscopic particle interactions and large-scale cosmic phenomena. They hold a Ph.D. in Physics from the Massachusetts Institute of Technology (MIT). Research Interests: Hongwan's work bridges particle physics and cosmology, particularly investigating how unseen forces and particles at microscopic scales affect cosmic structures. Key areas include dark matter physics, cosmic microwave background (CMB) analysis, early universe dynamics, and the interplay between exotic energy injections and cosmological observations. They employ both theoretical frameworks and computational simulations to explore these topics. Publications Trends: Recent work emphasizes constraints on dark photon dark matter using Lyman-α forest data, CMB spectral distortions from light dark matter, and synergies between cosmic microwave background and big bang nucleosynthesis. Their research also develops tools like LINX for precision cosmology and explores observational signatures of dark matter in radio and 21-cm signals. Labs & Collaboration: Affiliated with Boston University's cosmology group, Hongwan collaborates on projects involving hydrodynamical simulations, dark matter detection strategies, and interdisciplinary methods combining astrophysics with particle physics.
Adrienne L. Erickcek is a Professor in the Department of Physics at the University of North Carolina at Chapel Hill (UNC-Chapel Hill). She holds a Ph.D. in Physics from the California Institute of Technology (2009), an MASt in Applied Mathematics and Theoretical Physics from the University of Cambridge (2004), and an A.B. in Physics from Princeton University (2003). Her research focuses on theoretical cosmology, including dark matter, early Universe phenomena, dark energy, and alternative gravity theories, with a particular emphasis on using cosmological observations to probe inflation, dark matter distribution, and gravitational lensing effects. Key research areas include: Substructure formation from reheating processes Gravitational lensing by dark matter subhalos Asymmetric inflation and cosmic microwave background asymmetries Solar system tests of modified gravity theories (e.g., f(R) gravity, Chern-Simons gravity) Her work has explored the implications of early Universe dynamics on dark matter substructure, gravitational lensing signatures of dark matter, and constraints on gravity theories from astrophysical and cosmological data. Collaborators include prominent researchers such as Neil Barnaby, Sarah Shandera, and Marc Kamionkowski. Erickcek has advised at least one student, Fangda Li, and her contributions include over a decade of academic service at UNC-Chapel Hill, progressing from Assistant Professor (2013–2019) to Associate Professor (2019–2024) before her current rank. She is affiliated with institutions like the Canadian Institute for Theoretical Astrophysics and the Perimeter Institute for Theoretical Physics through her postdoctoral work. Her research also intersects with observational efforts, such as leveraging astrometric surveys (e.g., Gaia) and gravitational wave detection (e.g., LISA) to test cosmological models. Presentations and technical papers span topics ranging from chameleon gravity to ultra-compact minihalos (UCMHs) and SMBH mergers.
Gabriel Aeppli is Full Professor at ETH Zurich's Department of Physics and Professor of Physics at EPFL, concurrently serving as Head of the Photon Science Division at Paul Scherrer Institut (PSI). He oversees 300+ staff and major facilities including SwissFEL and Swiss Light Source, managing a CHF 350M annual budget. His MIT education includes: BSc in Mathematics & Electrical Engineering MSc in Electrical Engineering PhD in Electrical Engineering His research integrates nanotechnology, photon science, and quantum engineering to address biomedical diagnostics and quantum information processing. Key projects develop optical/microwave tools for drug-target binding assays and THz-controlled quantum systems in silicon. Research emphasizes specificity, quantitative precision, and scalable implementations for practical applications. Recent publications (2016-2019) demonstrate cross-disciplinary innovation in non-destructive imaging, quantum state control, viral detection lasers, and nanomaterial interfaces, bridging physics, engineering and biomedicine. Major scientific honors include: Oliver Buckley Prize (APS) Neel Medal/IUPAP Magnetism Prize Royal Society Fellowship National Academy of Sciences membership He directs PSI's Technology Transfer initiatives and co-founded London Centre for Nanotechnology. Institutional roles encompass ETH Domain data science coordination and senior recruitment at PSI.
Prof. Dr. Markus Niederberger is a Full Professor in the Department of Materials at ETH Zürich, leading the Laboratory for Multifunctional Materials. He previously held roles as Assistant Professor (2007–2011), Associate Professor (2012–2016), and served as Director of Studies for the Department of Materials (2019–2023). Born in Stans, Switzerland, he earned his diploma (1996) and PhD (2000) in Chemistry from ETH Zurich under Prof. Reinhard Nesper. Postdoctoral work included a Swiss National Science Foundation fellowship at the University of California, Santa Barbara (2001–2002), followed by group leadership at the Max Planck Institute of Colloids and Interfaces (2002–2006). His research focuses on nanoparticle synthesis, aerogels for photocatalysis, flexible batteries, corrosion-resistant polymers, and luminescent materials. He holds the Fellow of The Royal Society of Chemistry and has received awards such as the Spark Award 2023 , Golden Owl of the VSETH (2013 and 2017), and recognition as one of the Top 100 Materials Scientists from 2000–2010 . His lab develops advanced materials for energy storage (e.g., transient zinc-ion batteries), environmental applications (e.g., photocatalytic water purification), and functional composites. Research emphasizes scalable synthesis, hierarchical structuring, and multifunctional properties.
