Khushwant Singh Chauhan is a Ph.D. Researcher at the University of Twente in the Department of Thermal and Fluid Engineering under the supervision of Dr. Abhishek Kumar Singh. His work focuses on high-temperature thermochemical energy storage for sustainability applications, particularly in heat and power generation using waste heat and renewable energy . Education: Ph.D. (2025–2029) - Thermal & Fluids Engineering, University of Twente M.Tech (2021–2023) - Mechanical Engineering, Indian Institute of Technology Ropar B.Tech (2016–2020) - Mechanical Engineering, Govt. Engineering College Ajmer His research interests include Thermochemical Energy Storage , Computational Fluid Dynamics (CFD) , Membrane Distillation , and the Energy-Water Nexus , with applications in Solar Energy , Clean Water Production , and Thermal Management . He has published work in journals like Energy Conversion and Management and presented at conferences including the Thermal and Fluids Engineering Conference (TFEC) . Scientific Awards: SURI 2022 Program at Arizona State University
Mirko Lobino is an Associate Professor at the University of Trento, affiliated with the Department of Industrial Engineering. His work bridges theoretical concepts and practical applications in quantum optics, photonics, and material science. Teaches Fisica 1 (PARI) and Fisica 2 Co-teaches Physics and Thermodynamics of Materials with Alberto Quaranta and Francesco Parrino Research interests focus on quantum information science, laser physics, and graphene-based materials for strain sensing. He develops programmable photonic circuits for quantum computing and investigates thermodynamic principles in material transformations. Recent publications highlight advancements in photon number detection, quantum system control, and squeezed light generation for quantum networks. His work involves collaborations with the Department of Mathematics and integrates ion traps, photonic waveguides, and machine learning for quantum technologies. He explores applications in wearable sensors, electrochemical biosensing, and high-temperature electronics.
Samuel A. Bryan serves as a Lab Fellow and Chemist at Pacific Northwest National Laboratory (PNNL), where he pioneers spectroelectrochemical sensor development for measuring chemical species in highly complex nuclear systems. His innovations have resolved critical Department of Energy safety issues, particularly regarding ferrocyanide concentration determination in nuclear waste and hydrogen flammability in Hanford waste tanks. Dr. Bryan earned his B.S. in Chemistry from Boise State University (1979), followed by M.S. and Ph.D. degrees in Inorganic Chemistry from Washington State University (1983, 1985). His educational background established the foundation for his expertise in complex chemical systems analysis. His research focuses on real-time spectroscopic monitoring methodologies for nuclear applications. Key contributions include developing the first-ever luminescence detection from technetium complexes, creating sensors for nuclear waste analysis, and establishing predictive models for hydrogen gas generation that continue to inform Hanford Waste Treatment Plant safety designs 25 years later. His work bridges fundamental chemistry with practical nuclear engineering solutions. Analysis of his recent publications reveals strong emphasis on multi-modal spectroscopy (Raman, UV-Visible, NIR) combined with chemometric analysis for nuclear applications. His research spans from fundamental sensor development to practical implementation in nuclear fuel recycling, waste treatment, and safeguards verification. Fellow of the American Chemical Society Chair of Richland Section of the ACS (1998 and 2004) Fitzner-Eberhardt Award for Outstanding Contributions to Science and Engineering Education PNNL Laboratory Director's award (2005) ACS ChemLuminary Award for Outstanding Performance by Richland Section (2004) Dr. Bryan's technical leadership extends to mentoring junior scientists and contributing to national initiatives in nuclear safeguards. His current research focuses on microfluidic sensor systems, multi-modal spectroscopy approaches, and advanced data analysis techniques for nuclear applications, continuing to address critical challenges in nuclear waste management and national security.
Brooks Paige serves as an Associate Professor in Machine Learning at University College London's Department of Computer Science, where he leads research at the intersection of artificial intelligence, computational biology, and environmental science. His work bridges theoretical machine learning with high-impact applications in drug discovery, genomics, and climate modeling. His research portfolio spans: Machine Learning (core methodology development) Artificial Intelligence (generative models and deep learning) Information Systems (data-intensive applications) Cognitive and Computational Psychology (human-AI interaction aspects) Analysis of his 56 publications (2021-2025) reveals a dominant focus on generative modeling for molecular design, particularly protein-ligand binding prediction and antibody-epitope analysis. His methodological innovations include Gibbs sampling variants, Gaussian processes on non-Euclidean domains, and active learning frameworks, applied across biomedical and environmental domains including Arctic sea ice forecasting and urban analytics. No scientific awards are documented in available sources. Similarly, student advisement records, research grant details, laboratory facilities, and collaborative team structures remain unspecified in the current dataset.
Dana Longcope is a Professor in the Department of Physics at Montana State University's College of Letters & Science, where he is a prominent member of the MSU Solar Physics Group, one of the world's most prominent producers of information about the Sun. His research focuses on solar physics, particularly the corona, solar flares, magnetic reconnection, and plasma physics. Longcope teaches advanced courses including PHSX 594 Sem: Heliophysics Journal Club, PHSX 565 Astrophysical Plasma Physics, and PHSX 520 Electromagnetic Theory. Ph.D. in Applied Physics from Cornell University (1993) B.S. in Applied and Engineering Physics from Cornell University (1986) Professor Longcope's research centers on the fundamental processes governing solar activity, with particular emphasis on magnetic reconnection in solar flares and coronal heating mechanisms. His work combines theoretical modeling with observational data to understand energy transport during solar eruptions, chromospheric condensation phenomena, and the three-dimensional structure of magnetic fields in active regions. He investigates how magnetic energy is converted to thermal and kinetic energy during solar flares, with implications for space weather prediction and fundamental plasma physics. His research has significant applications for understanding stellar atmospheres and plasma behavior under extreme conditions. The analysis of Longcope's recent publications reveals a consistent focus on magnetic reconnection as the fundamental driver of solar flare energy release. His work increasingly integrates multi-instrument observations with sophisticated theoretical models to examine the three-dimensional structure of flare-related phenomena. A notable trend is his growing involvement in major solar physics initiatives like the Daniel K. Inouye Solar Telescope (DKIST), reflecting his leadership role in shaping the future of solar observational capabilities. His research spans both theoretical developments in magnetic field modeling and practical applications for interpreting solar observations across multiple wavelengths. Arktowski Medal (2021) from the National Academy of Sciences Karen Harvey Prize (2003) from the AAS Solar Physics Division Presidential Early Career Award for Scientists and Engineers (PECASE) (2000) from the President of the United States Longcope has secured significant research funding from NASA and NSF for projects including Characterizing Dense Plasma Sheets Hosting Flare Reconnection, Using chromospheric and transition region signatures to measure properties of magnetic reconnection, and Underpinning the tempo-spatial structures of elementary bursts with high-resolution observations. He serves on numerous prestigious committees including the Astronomy and Astrophysics Advisory Committee (2025-2028), the External Advisory Board of the NSF EPSCoR consortium for Alabama, and the Solar and Space Physics Decadal Survey Steering Committee. His engagement extends to public outreach through guest speaking at venues including the Rotary Club, Gallatin Valley Friends of the Sciences, and Montana State University's public events. As a key member of the MSU Solar Physics Group, Longcope contributes to one of the world's leading solar research centers, which maintains extensive collaborations worldwide and operates cutting-edge facilities including the Space Science and Engineering Laboratory. The group's research spans from the solar surface through the chromosphere to solar wind and space weather, with significant contributions to missions like Yohkoh and the Interface Region Imaging Spectrograph (IRIS). Longcope's work is integral to the group's mission to understand solar variability and its impact on Earth's climate and technological systems.
Prof. Dr. Vera Krewald is a Professor for Quantum Chemistry at Technische Universität Darmstadt, Department of Chemistry. She leads a research group focused on theoretical and quantum chemistry approaches to understand electronic structures and properties of inorganic and transition metal complexes. Her work bridges computational methods with experimental spectroscopy to explore magnetic interactions, electron transfer processes, and catalytic mechanisms. Professor for Quantum Chemistry (W3) at TU Darmstadt (since 11/2023) Professor for Theoretical Chemistry (W2, tenure track) at TU Darmstadt (12/2018-10/2023) Research Group Leader at University of Bath (01/2017-11/2018) Prof. Krewald's research focuses on applying quantum chemistry methods to understand the electronic structure and functioning of inorganic complexes. Her group makes predictions about spectroscopic, magnetic, and other measurable properties of transition metal complexes, with particular interest in systems that exhibit unexpected properties, magnetic coupling, challenging molecular transformations, or promising catalytic activity. Key research areas include electron transfer processes, photophysics and photochemistry of transition metal complexes, nitrogen activation and splitting, oxygen reduction catalysis, and the development of theoretical methods like the Angular Overlap Model. Analysis of Prof. Krewald's recent publications reveals a strong focus on iron-based catalysis, particularly for energy-related applications like the oxygen reduction reaction in fuel cells. Her work frequently combines computational quantum chemistry with experimental spectroscopy, especially Mössbauer spectroscopy, to characterize active sites in catalysts. There's also significant emphasis on electron transfer processes, photochemical activation of small molecules like dinitrogen, and the development of computational tools for analyzing magnetic properties and metal-ligand bonding. 2022: Dozentenpreis from the chemical industry fund (Fonds der Chemischen Industrie) 2021: Award from the Dr. Hans Messer Stiftung for early career researchers 2021: ADUC Award from the German association of university professors in chemistry 2014: Otto Hahn Medal of the Max-Planck-Society 2013: Participant at 63rd Lindau Nobel Laureate Meeting 2008-2013: German National Academic Foundation fellowship Prof. Krewald leads a research group with 2 postdocs, 6 PhD candidates, and several B.Sc./M.Sc. students. Her group has secured funding from multiple sources including the DFG, Leverhulme Trust, Merck'sche Gesellschaft für Kunst und Wissenschaft e.V., NHR Verein e.V., and Deutsche Bundesstiftung Umwelt. She serves as vice-speaker of SFB 1487 "Iron, upgraded!" (2022-2025), demonstrating her leadership in coordinated research efforts. Her group actively collaborates with experimental researchers to elucidate reaction mechanisms and identify catalytically active species. The Krewald Research Group operates within the Department of Chemistry at TU Darmstadt, with strong connections to collaborative research centers including SFB 1487 "Iron, reimagined!", SFB 1633 "Pushing Electrons with Protons", and SPP 2491 "Interactive Switching of Spin States". The group is also involved in the Quantum Bio-Inorganic Chemistry Society, which Prof. Krewald co-founded and serves as Secretary General. Their work combines high-level quantum chemical calculations with experimental validation to address fundamental questions in inorganic chemistry and catalysis.
Juan Pablo Trelles is a Professor in the Department of Mechanical and Industrial Engineering at the Francis College of Engineering, University of Massachusetts Lowell. He serves as the Director of the Graduate Program in Energy Engineering and leads the Re-Engineered Energy Laboratory (REng|Lab), which focuses on developing renewable and sustainable energy solutions through fundamental and applied research. Dr. Trelles earned his educational credentials from prestigious institutions: a Ph.D. in Mechanical Engineering from the University of Minnesota (2007), an M.S. in Energy Engineering from the University of Massachusetts Lowell (2003), and a B.S. in Mechanical Engineering from Universidad Nacional de Ingeniería in Lima, Peru (2001). Before joining UMass Lowell in 2012, he worked as a Senior Software Engineer at Intel Corporation in Hillsboro, Oregon. His research focuses on devising concepts, methods, and devices for the direct use of solar energy and electrical energy in industrial processes, ranging from the synthesis of high-value chemicals and materials to the modification of materials and surfaces. A fundamental aspect of Trelles' research is the combination of experimental and computational approaches to achieve impactful understanding. His group develops strategies for solving transport problems at the core of most energy systems, which typically involve multi-scale and multi-physics phenomena. These methods have been applied to analyze diverse plasma flows, thermal systems, radiation transport, and multi-phase problems. Dr. Trelles' recent publications demonstrate a strong focus on plasma-based energy conversion technologies, particularly for CO 2 conversion, hydrogen production, and ammonia synthesis. His work bridges computational modeling with experimental validation, emphasizing sustainable chemical synthesis using renewable energy sources. Key research themes include solar-plasma reactors, non-thermal plasma applications, computational fluid dynamics of plasma systems, and waste-to-energy conversion processes. Scientific Awards Early Career Research Award (2017) - U.S. Department of Energy (DOE), Office of Science CAREER Award (2015) - U.S. National Science Foundation (NSF) Logic Technology Development Division Award (2011) - Technology Manufacturing Group, Intel Corporation Dr. Trelles has successfully advised numerous graduate students, with 11 PhD graduates and 3 Master's graduates to date, and currently mentors 4 PhD students. His laboratory, the Re-Engineered Energy Laboratory (REng|Lab), investigates processes based on concentrated solar energy and plasma technologies for sustainable chemical synthesis. Current projects include nonthermal plasma hydrogen production from polymeric waste, plasma catalysis for ammonia synthesis, solar-enhanced plasma-chemical synthesis, and modeling of atmospheric pressure columnar discharges.
Marti Roger is an Ordentlicher Professor (Full Professor) of Organic Chemistry and Process Chemistry at the University of Applied Sciences and Arts Western Switzerland (HES-SO), specifically at the Haute école d'ingénierie et d'architecture de Fribourg (HEIA-FR). He is a member of the ChemTech Institute of Chemical Technologies and holds a leadership role in research and education in sustainable chemistry. His academic career includes positions at ZHAW Winterthur/Wädenswil (2004–2009) and HEIA-FR since 2009. Education: B.Sc. in Chemistry from Technikum Winterthur and ETH Zurich, followed by a Ph.D. under Prof. Dr. D. Seebach at ETH Zurich. Postdoctoral research at Sandoz Pharma USA and industrial experience at Carbogen AG in pharmaceutical development and scale-up. Research focuses on synthetic organic chemistry, green chemistry, process development, and polymer science. Key projects include biodegradable facemasks (Public Mask project), smart hydrogels for tissue engineering, and sustainable biofuels from PHA. He leads or collaborates in HES-SO-funded projects addressing environmental challenges in materials and energy sectors. Teaching responsibilities include B.Sc. courses in organic chemistry (aromatic compounds, carboxylic acids, organometallic reactions) and M.Sc. courses in process chemistry and polymer applications. He emphasizes flow chemistry education and sustainable process design. Notable achievements include scaling up diformylxylose production from biomass, designing mini-CSTR reactors for oxidation reactions, and developing biodegradable polymers for medical use. His work balances academic innovation with industrial relevance, guided by life-cycle assessments for environmental impact minimization. Labs/Teams: Active in ChemTech Institute and collaborates with partners like Hepia, iTEC, and VS-Instituts. Projects span from bio-based materials to CO2-neutral fuels and eco-concretes.
Prafulla Salunke is an Assistant Professor in the Department of Dairy and Food Science at South Dakota State University (SDSU). He holds a B.S. and M.S. in Dairy Technology from Gujarat Agricultural University (1993–1996) and a Ph.D. in Biological Sciences focusing on Dairy Manufacturing from SDSU (2013). His academic responsibilities include teaching courses such as DS 492 (Multidisciplinary Project), DS 442 (Dairy Product Development), and DS 731 (Lab Techniques in Dairy Science). Salunke’s research focuses on cheese technology, dairy ingredient development, and enzyme applications. Specific interests include optimizing cheese functionality, developing novel dairy-based ingredients, and exploring enzyme-driven protein modifications. He has advised two doctoral, six master’s, and one undergraduate student. Professional affiliations include the American Dairy Science Association, Institute of Food Technologists, and Gamma Sigma Delta. He has held roles like advisor at the North Central Cheese Industry Association and PI of the Institute for Dairy Ingredient Processing at SDSU. His work experience includes R&D coordination at Saputo Cheese (2013–2021) and managerial roles at AmulFed Dairy and cooperative dairies in India (1993–2007). Salunke has published 20 peer-reviewed papers, 26 conference presentations, and six invited talks. His research spans cheese texture analysis, ingredient functionality, and dairy processing innovations.
María Eugenia Rabanal Jiménez is Associate Professor at Universidad Carlos III de Madrid and Deputy Director of the Álvaro Alonso Barba Institute of Chemistry and Materials Technology. Her research focuses on advanced materials synthesis and characterization, particularly nanostructured metal oxides for photocatalytic and biomedical applications. Primary research domains include: Design of ZnO-based nanostructures with controlled morphology Rare-earth doped materials for sensing and catalysis Electrospun nanocomposites for medical applications Metallurgical development of oxide dispersion strengthened steels Recent publications demonstrate strong emphasis on photocatalytic materials, with 12 of 15 articles (2020-2025) addressing ZnO modifications, degradation mechanisms, and catalytic efficiency enhancement through doping and defect engineering. She leads the Powder Technology research group and participates in multiple national projects on nanomaterials processing and sustainable material solutions for industrial applications.
Prof. Crispin H. W. Barnes is a Professor of Quantum Physics at the Cavendish Laboratory and Professorial Fellow of Girton College, University of Cambridge. He holds a PhD from Imperial College, London (1991) and has over 30 years of research experience in condensed matter physics and industrial collaboration. His work spans quantum device physics, environmental physics, and advanced materials research. He leads a materials growth facility with molecular beam epitaxy systems and a GPU-accelerated quantum computing simulation team funded by Hitachi Cambridge. His environmental group in Peru focuses on river contamination analysis using DNA assays and satellite imaging. Awards include the Brian Mercer Feasibility Award (2014) for magnetic microcarrier tag technology. He teaches quantum information and condensed matter physics at the undergraduate level. Education: PhD in Physics from Imperial College London (1991). Previous roles include Royal Society Postdoctoral Fellow at Simon Fraser University (Canada) and research scientist at RIKEN, Japan. Research interests include quantum computing algorithms, topological insulators, magnetic microstructures, and environmental impact studies in extreme environments. His labs specialize in thin-film fabrication, low-temperature measurements, and quantum device simulation. Current industrial collaborations involve Mursla Ltd, Cambridge Biomagnetics, and the National Physical Laboratory. Publications highlight quantum phase estimation optimization, environmental contamination analysis in Peru, and materials characterization of superconductors and nanomaterials. His work bridges theoretical quantum mechanics with applied technologies such as quantum sensors and eco-friendly materials recycling. Awards and grants include funding from Hitachi Cambridge for GPU server infrastructure and collaborative projects with Peruvian universities. His lab facilities include a cleanroom, molecular beam epitaxy systems, and quantum computing access via IBM.
Eric Collet is an Exceptional Class Professor at the University of Rennes and Senior Member of the Institut Universitaire de France (IUF). He leads the Materials and Light Department at the Institut de Physique de Rennes (IPR) and co-directs the CNRS-funded International Research Laboratory DYNACOM with Prof. S. Ohkoshi. His research focuses on ultrafast photo-induced phase transitions, spin crossover phenomena, and symmetry-breaking dynamics in functional materials, leveraging advanced techniques like femtosecond spectroscopy and X-ray free-electron lasers. Collet investigates coupled electronic-structural dynamics, elastic cooperativity, and light-driven phase transitions. His work bridges condensed matter physics, materials chemistry, and ultrafast science, with themes including: Ultrafast photo-switching of spin states Charge-transfer-driven lattice reorganization Non-equilibrium material responses Coherent structural control using light/THz excitation His publications emphasize ultrafast structural dynamics, spin crossover cooperativity, and photo-magnetic switching, frequently utilizing synchrotron/X-FEL facilities to resolve femtosecond-scale processes. Major scientific awards include: CNRS Silver Medal (2020) for research originality Louis Ancel Prize (2017) for condensed matter physics breakthroughs Alajos Kálmán Prize (2022) from the European Crystallographic Association Senior IUF Chair (2022–2027) He directs international collaborations (e.g., France-Japan DYNACOM) and oversees ANR/JSPS-funded projects. No student advisees are listed in available data.
Roland Balint is a Researcher at Abo Akademi University's Faculty of Natural Sciences and Engineering, specializing in Molecular Science and Engineering Technologies for sustainable future applications. His work focuses on thermal systems, material degradation, and sustainable energy infrastructure, particularly in recovery boiler and superheater engineering. He has contributed to studies on high-temperature corrosion, ash deposit behavior, and chemical changes in industrial systems. Research Interests: Balint's expertise spans thermal gradient effects, material phase transitions, and sustainable energy solutions. His work aligns with UN Sustainable Development Goals, addressing clean energy and responsible consumption patterns through advanced material analysis and process modeling. Publications: Recent work includes studies on laboratory-scale corrosion experiments (2025), aging behavior of superheater deposits (2025), and equilibrium modeling in recovery boiler systems (2024). His research emphasizes practical applications for improving industrial thermal systems' longevity and efficiency. Advising & Labs: No formal advisees listed, but collaborates closely with peers like Juha Niemi and Mikael Engblom on multi-institutional projects. Active in Turku Academy's energy systems research group.
David W. Hahn serves as the Dean of the College of Engineering at the University of Florida. With a distinguished career in engineering and applied physics, he has established himself as a leading expert in laser spectroscopy and thermal energy conversion technologies. Dr. Hahn's research spans multiple disciplines within engineering and physical sciences, with a primary focus on Laser-Induced Breakdown Spectroscopy (LIBS) and related analytical techniques. His work encompasses: Development and application of LIBS for materials analysis Thermal energy conversion and solar fuel production Plasma physics and laser-matter interactions Chemical analysis of complex materials including aerosols and energy storage systems Advanced spectroscopic techniques for security and environmental applications Analysis of Dr. Hahn's recent publications (2019-2025) reveals a consistent research trajectory centered around laser-based analytical techniques, particularly LIBS. His work demonstrates increasing sophistication in applying these methods to challenging problems in energy storage safety, environmental monitoring, and materials characterization. Notably, there's a strong emphasis on practical applications of fundamental spectroscopic principles, with numerous publications addressing real-world challenges in battery safety, explosive detection, and renewable energy technologies. Dr. Hahn has made significant contributions to the development of laser-based analytical methods, particularly in: Advancing LIBS for aerosol and particle analysis Developing novel approaches for solar thermochemical energy conversion Creating improved methods for chemical characterization of energy storage systems Applying spectroscopic techniques to security and defense applications Contributing to fundamental understanding of laser-matter interactions
Tian Li is an Adjunct Associate Professor at the Department of Energy and Process Engineering, Faculty of Engineering, Norwegian University of Science and Technology (NTNU). Based at the Varmeteknisk building on the Gløshaugen campus, Dr. Li is affiliated with the ComKin Group and has been actively involved in numerous research projects focused on biomass conversion and combustion technologies since 2011. Dr. Li's research primarily focuses on: Biomass gasification and combustion technologies Computational Fluid Dynamics (CFD) modeling of energy conversion processes Multiphase flow and reaction kinetics in thermochemical processes Turbulence modeling in combustion systems Development of simulation tools for bioenergy applications Over the past decade, Dr. Li has led or contributed to multiple significant research projects funded by the Norwegian Research Council and industrial partners, including BioCarbUp, GASPRO, GrateCFD, GAFT, BioCarb+, CenBio, and GasBio. These projects have focused on optimizing biomass conversion processes for sustainable energy production. Dr. Li's publication record shows consistent contributions to high-impact journals in the energy and combustion fields, with a strong emphasis on computational modeling approaches. The research demonstrates expertise in developing and validating models for biomass conversion processes, with applications ranging from industrial-scale biomass furnaces to fundamental particle-level phenomena. Dr. Li has developed significant expertise in various computational tools and programming languages: Software: OpenFOAM, ANSYS Fluent, ANSYS ICEM CFD, Star-CD, MFiX, CHEMKIN, LOGEsoft, LabVIEW Programming: C/C++, Python, Fortran, Matlab Through participation in major research centers like CenBio (Bioenergy Innovation Centre), Dr. Li has contributed to advancing Norway's bioenergy research capabilities and fostering collaboration between academia and industry in the sustainable energy sector.
