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Yifeng Zhang is a Professor at the Department of Environmental and Resource Engineering, Technical University of Denmark (DTU). His research focuses on advanced electrochemistry in environmental and resource engineering, including wastewater treatment, resource recovery, microbial electrochemistry, and sustainable carbon capture. He leads the Water Technology & Processes group and the DTU Microbes Initiative. Zhang holds a PhD from DTU (2012) and has secured over 60 million DKK in research funding, including the prestigious Carlsberg Foundation Distinguished Fellowship. His work contributes to UN SDGs related to clean water, affordable energy, and climate action. Education: Ph.D., Technical University of Denmark (2009–2012) M.Sc., Dalian University of Technology (2005–2009) Research Interests: Microbial electrochemistry Carbon capture and utilization Wastewater treatment and resource recovery Electrocatalysis and electrochemical sensors Environmental bioremediation Awards: James J. Morgan Early Career Award (ACS, Honorable Mention) Carlsberg Foundation Distinguished Fellowship World’s Top 2% Scientists His research has produced over 200 publications and 3 patents, with a focus on translating innovations into practical solutions. Current projects include microbial electrosynthesis for single-cell protein production, carbon capture via bioelectrochemical systems, and sustainable wastewater treatment technologies.

• Microbial Electrochemistry
• Carbon Capture & Utilization
• Wastewater Treatment
• +5 more

Yangchuan Xing is a Professor in the Department of Chemical and Biomedical Engineering at the University of Missouri, with an adjunct appointment in Mechanical and Aerospace Engineering (MAE). He holds a PhD from Yale University and a postdoctoral fellowship from Johns Hopkins University. His research focuses on advanced functional materials, electrocatalysis for fuel cells, and sustainable manufacturing of nanopowders. He has led over $5M in grants from NSF, DOE, and industry partners, and his work has been recognized with a named professorship (2025-2028). He teaches courses in transport phenomena, chemical reaction engineering, and process design. Education: PhD in Chemical Engineering, Yale University ME in Chemical Engineering, Chinese Academy of Sciences BE in Chemical Engineering, Northeastern University, China Research Interests: Dr. Xing’s work spans electrochemical energy storage systems (lithium-ion batteries, fuel cells), nanoparticle synthesis via flame spray pyrolysis, and nanocoating technologies for catalyst supports. He develops novel materials for CO₂ capture, optoelectronic devices using perovskite nanocrystals, and sustainable industrial processes. Key themes include defect engineering in materials and scalable production methods. Awards & Recognition: 2025: Named Professorship Appointment (University of Missouri) 2023: Engineering Faculty Award for Patented Technologies Lab & Collaborations: His laboratory focuses on material synthesis-structure-property relationships. Major collaborations include the Army Research Office (ARO) on battery materials and NSF-funded studies on perovskite optoelectronics. The 2023 lab renovation provided advanced characterization tools for nanoparticle research.

• Electrocatalysis
• Electrochemical Engineering
• Particle Technology
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SmartState Endowed Chair Professor at University of South Carolina directing Solid Oxide Fuel Cell Center. Associate Editor for Journal of Electrochemical Energy Conversion and Storage. Education: PhD Physical Chemistry (1992), University of Science and Technology Beijing; MS Physical Chemistry (1989), Northeastern University. Research focuses on solid oxide electrochemical systems including fuel cells, batteries, and gas separation membranes. Current projects include DOE-funded development of dynamic solid oxide fuel cells, stable critical materials for hydrogen production, and zinc-ion battery fundamentals. Author of foundational textbook on solid oxide fuel cell technology. Awards include Breakthrough Leadership in Research (2018) and multiple Siemens awards for industrial contributions. Supervised 30+ PhD students. Secured $15M+ research funding from NSF, DOE, DoD. Holds affiliate appointment in Chemical Engineering. Teaches mechanical engineering laboratories and advanced energy storage courses.

• Solid oxide fuel cells
• Energy storage batteries
• Gas separation membranes
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Dr Yagya Regmi is a Reader in Energy Conversion and Storage at Manchester Metropolitan University, affiliated with the Manchester Fuel Cell Innovation Centre and the Chemistry Department. His research focuses on developing advanced materials and electrochemical devices for renewable energy storage, including fuel cells, electrolysers, and redox flow batteries. He also investigates biomass conversion to value-added chemicals and techno-economic analysis of energy technologies. Education: BSc (2005) from Lyon College, Arkansas; PhD (2015) from University of Wyoming, USA. Postdoctoral experience at the University of Tennessee and Lawrence Berkeley National Lab. Current roles include leading research projects funded by EPSRC, Henry Royce Institute, and UK Catalysis Hub. His research interests encompass green hydrogen, electrocatalysis, fuel cell innovation, and sustainable energy technologies. He has contributed to the development of precious-metal-free catalysts and low-iridium electrolysers to reduce costs in green hydrogen production. Dr Regmi has advised 2 PhD students and 2 Postdoctoral Research Associates, and mentored numerous undergraduates. His lab focuses on nanomaterials synthesis and characterization, with a strong emphasis on applications for clean energy.

• Green Hydrogen
• Catalysis
• Electrochemistry
• +3 more

Zhenxing Feng is an Associate Professor in the School of Chemical, Biological, and Environmental Engineering at Oregon State University (OSU). He leads the Feng Research Group, focusing on energy storage and conversion systems, including lithium-ion batteries, aqueous metal-ion batteries, fuel cells, and electrocatalysts for water splitting and CO₂ reduction. His work integrates advanced synchrotron X-ray techniques for in situ, time-resolved studies of material behavior under operational conditions. Education: Ph.D. in Materials Science and Engineering, Northwestern University (2011) M.S. in Physics, McGill University (2006) B.S. in Physics, Peking University (2004) His research interests span thin film synthesis, electrochemical testing, and advanced X-ray characterization techniques such as surface X-ray diffraction, X-ray absorption spectroscopy, and imaging. He has received notable awards, including the 2023 ONR Summer Fellowship and the 2021 Action Research Scholar award. His group actively explores novel materials for sustainable energy systems and has published extensively on topics like solid-state battery interfaces and atomically dispersed catalysts. Recent projects include developing durable aqueous sodium-ion batteries, improving oxygen evolution reaction (OER) catalysts, and studying interfacial processes in energy storage devices using synchrotron-based methods. He mentors graduate and undergraduate students in experimental and theoretical aspects of materials science and electrochemistry. Feng collaborates with institutions like Argonne National Laboratory and MIT, contributing to initiatives in renewable hydrogen and energy storage. His lab emphasizes interdisciplinary approaches, combining computational modeling, synthesis, and advanced characterization to innovate in sustainable energy technologies.

• Energy Storage Systems
• Electrochemical Energy Conversion
• Catalysis
• +5 more

Dr. Venkat Bhethanabotla is a Professor and Director of the Materials Science and Engineering Program at the University of South Florida's College of Engineering. He holds a B.S. from Osmania University and a Ph.D. from Penn State University, both in Chemical Engineering. His research focuses on chemical/biological sensors, plasmonics, and catalysis, with emphasis on point-of-care biosensors, photocatalytic CO₂ conversion, and acoustic wave applications. Research highlights include development of SAW-based biosensors for protein biomarkers, plasmonic-enhanced fluorescence systems, and silica-supported perovskite catalysts for CO₂ conversion. He has pioneered techniques combining acoustic streaming with plasmonic effects for improved sensor performance. His work spans materials synthesis, computational modeling (DFT), and biomedical applications. Awards: Fellowships from AAAS, AIMBE, and AIChE Labs/Teams: Bhethanabotla Group (focusing on sensors, catalysis, and plasmonics) Over 150 publications span journals like IEEE Sensors, ChemSusChem, and ACS Applied Materials. Active in editorial roles (Associate Editor, IEEE Sensors Journal). Current projects include acoustic manipulation of lipid vesicles, electro-plasmonic neural stimulation, and additive manufacturing of optical interconnects.

• Sensors and Biosensors
• Catalysis (Photocatalytic/Thermochemical)
• Plasmonics
• +4 more

Dr. Kingsley Lau is an Associate Professor in the Department of Civil and Environmental Engineering at Florida International University (FIU). He joined FIU in 2012 after serving as a Corrosion Research Scientist at the Florida Department of Transportation (FDOT). He holds a Ph.D. in Civil Engineering from the University of South Florida (2010). His research focuses on infrastructure materials durability, specifically corrosion of engineering materials and durability of reinforced and prestressed concrete. Dr. Lau has authored/co-authored over 15 peer-reviewed manuscripts and conference papers, with recent work emphasizing coastal infrastructure resilience, corrosion monitoring systems, and microbiologically influenced corrosion (MIC). Dr. Lau’s research integrates advanced electrochemical testing, machine learning models for predictive coating analysis, and novel materials development. He has collaborated on critical projects such as the Port of Miami Tunnel corrosion monitoring system and corrosion mitigation strategies for Florida’s marine bridges. His work addresses challenges posed by rising sea levels, aggressive marine environments, and deficient post-tension grout in infrastructure systems. Key areas of expertise include: corrosion mechanisms in alkaline solutions, sulfate-induced steel corrosion, and durability assessment of UHPC (ultra-high-performance concrete) in accelerated bridge construction. His contributions bridge laboratory studies with field applications, aiming to enhance infrastructure longevity and safety in corrosive environments.

• Infrastructure Materials Durability
• Corrosion of Engineering Materials
• Durability of Reinforced Concrete
• +5 more

Anima Bose is an Associate Professor in the Department of Mechanical Engineering Technology at the University of Houston’s Cullen College of Engineering. She leads the Sustainable Energy Conversion and Storage Lab, focusing on renewable energy technologies, particularly fuel cell innovation and energy storage materials. Her research addresses challenges in catalyst cost reduction, water management in fuel cells, and oxidation-resistant materials. She holds a Ph.D. in Analytical Chemistry (Materials Engineering) from Kent State University, along with multiple M.S. degrees in Solid State Physics and a B.Sc. (Honors) in Chemistry. Her professional experience includes roles as Associate Professor at the University of Houston (2011–present), Research Assistant Professor at Ohio University (2008–2011), and Associate Director of Fuel Cell Initiatives at Northern Illinois University (2003–2008). She has collaborated with institutions like Argonne National Laboratory and the Liquid Crystal Institute. Bose is affiliated with the Electrochemical Society and American Chemical Society. Research interests span proton exchange membrane fuel cells, energy storage systems, and superconducting materials. Her lab has pioneered advancements in nano-catalysts, hydrophobic membrane engineering, and hybrid vehicle power distribution. Key innovations include boron-carbon meso-spheres for enhanced conductivity and siloxane polymer-based MEAs to mitigate water flooding. Lab Director: Sustainable Energy Conversion and Storage Lab Membership: Texas Center for Superconductivity, Advanced Materials Center Publications: Over 50 articles in journals like Journal of Power Sources and Journal of the American Chemical Society

• Renewable Energy
• Fuel Cell Technology
• Energy Storage Materials
• +3 more

Brian Willis is a Professor in the Department of Chemical & Biomolecular Engineering at the University of Connecticut’s College of Engineering. He holds a Ph.D. from MIT (1999). His research focuses on nanoscale materials, including epitaxial oxides on semiconductors, scanning tunneling microscopy, and electrocatalysis. He leads the Willis Lab, which develops advanced fabrication techniques like atomic layer deposition (ALD) for nanoscale devices. Education: Ph.D. in Chemical Engineering, MIT, 1999. Previous positions include Assistant Professor at the University of Delaware (2002–2008) and roles at Agere Systems and Bell Labs (1999–2002). Research Interests: Epitaxial oxide growth on semiconductors, molecular electronics, plasmonic nanostructures, and electrocatalyst durability for fuel cells. His work integrates experimental methods (e.g., STM, ALD) with theoretical models to advance nanoscale device design. Awards: 2007 2nd place in Nanotech Measurement Contest (with student R. Gupta), 2005 NSF Career Award, and 1992 Dow Award. His advising includes Ph.D. students Han Wang and Xiaoqiang Jiang. Professional Activities: Coordinator for AIChE Area 8E (2010), Session Chair for multiple AIChE National Meetings (2004–2008), and member of the Materials Research Society. Labs/Teams: The Willis Lab focuses on ALD innovation, plasmonic devices, and sensor arrays. Current projects include electronic nose technology and nanoscale rectennas for energy conversion.

• Nanotechnology
• Surface Science
• Electrochemistry
• +3 more

Dr. Heather Buckley is an Associate Professor in the Department of Civil Engineering at the University of Victoria. Her work focuses on developing greener technologies to improve environmental and public health through advancements in water quality monitoring, biofouling prevention, and resource recovery from industrial waste. She holds an MSc from the University of British Columbia and a PhD from UC Berkeley. Research interests include green chemistry applications in molecular sensors for water contaminants, safer alternatives to hazardous antimicrobials, and optimizing water treatment membranes. Her lab, the Green Safe Water Lab, addresses global water challenges by designing low-cost detection tools and sustainable waste management strategies. Her publications frequently explore biofouling prevention in reverse osmosis systems, fluoride sensor development, and the environmental impact of materials. Collaborations with communities and industries aim to create practical solutions for safer drinking water supply chains. Dr. Buckley advises a dynamic team of graduate and undergraduate researchers, including PhD candidates in civil engineering and chemistry. Her group has expanded significantly in recent years, with ongoing projects on antimicrobial copolymer nanoparticles and geochemical modeling of desalination processes. Labs/Teams: Green Safe Water Lab at UVic Engineering and Computer Science.

• Green Chemistry
• Environmental Engineering
• Water Quality Monitoring
• +3 more

Douglas Adamson is a Professor in the Department of Chemistry at the University of Connecticut. His research focuses on materials synthesis, particularly on well-defined polymers and graphene-based composites. He utilizes high vacuum anionic polymerization and self-assembly techniques to create advanced materials with applications in energy storage, sensing, and environmental remediation. Ph.D., University of Southern California B.S., University of Evansville Research interests include: Graphene and 2D nanosheet composites Anionic polymerization for precision polymer architectures Conductive hydrogels and foams Bio-mimetic material design Flame-resistant polymer systems Recent publications highlight work on graphene-stabilized polyHIPE foams, conductive hydrogels, and bio-inspired polymer synthesis. His group explores the interplay between material microstructure and macroscopic properties through experimental and computational approaches. Lab and team activities center on creating novel polymer templates and scalable methods for graphene exfoliation. Projects include mineral separation technologies, wearable sensors, and self-assembled 3D graphene architectures.

• Materials Synthesis
• Polymer Chemistry
• Graphene Applications
• +3 more

Carlo U. Segre is the Duchossois Leadership Professor of Physics and Professor of Materials Science and Engineering at Illinois Institute of Technology. He holds leadership roles as Director of the Center for Synchrotron Radiation Research and Instrumentation (CSRRI), Deputy Director of the Materials Research Collaborative Access Team (MRCAT), and Deputy Director of BioCAT. His research focuses on structural and electronic properties of complex materials, including superconductors, catalysts, and energy storage systems, utilizing advanced synchrotron-based techniques like X-ray diffraction and spectroscopy. Segre has contributed significantly to battery materials, catalytic systems, and nuclear materials characterization. He is also actively involved in the International Bridge Building Committee, organizing educational competitions for high school students. Education: B.S., University of Illinois, Urbana-Champaign Ph.D., University of California, San Diego Research Interests: Segre’s work spans advanced battery materials , in-situ catalytic studies , magnetoelectric perovskites , nanostructured steels , and x-ray optics development . His experimental methods include material synthesis, X-ray absorption spectroscopy, and resistivity/magnetic susceptibility measurements. He leads efforts in structural materials for nuclear reactors and energy storage innovation. Lab & Affiliations: He directs CSRRI and oversees MRCAT at the Advanced Photon Source (APS), advancing synchrotron instrumentation. His contributions bridge fundamental materials science with applied engineering challenges.

• Materials Science
• Condensed Matter Physics
• Energy Storage
• +3 more

Steven C. DeCaluwe is an Associate Professor in the Department of Mechanical Engineering at Colorado School of Mines, where he combines experimental and computational approaches to study clean energy systems. His research focuses on electrochemistry and interfacial processes in batteries (Li-ion, Li-O 2 , Li-sulfur) and fuel cells. He also serves as Director of Graduate Studies and chairs the university's Diversity, Inclusion, and Access Committee. PhD in Mechanical Engineering (University of Maryland, 2009) NRC Postdoctoral Fellowship at NIST (2009-2012) BS in Elementary Education and Mathematics (Vanderbilt University, 2000) DeCaluwe's work bridges advanced diagnostics (neutron scattering, operando XPS) with multiscale simulations to improve energy storage technologies. His research spans solid-electrolyte interphase formation , electrochemical degradation mechanisms , and materials optimization for sustainable energy . He advocates for open science practices and integrates conservation biology principles into engineering design. His recent publications demonstrate expertise in battery modeling, phase segregation in electrodes, and sustainability-driven materials selection. Key themes include parameter uncertainty quantification , interface stability , and multi-modal characterization of energy storage systems. NRC Postdoctoral Fellowship Associate Editor, ASME Journal of Electrochemical Energy Conversion and Storage Chair, Mechanical Engineering Diversity Committee Director, Rocky Mountain Environmental XPS Facility DeCaluwe actively mentors students through the CORES Research Group , emphasizing inclusive learning environments and growth mindsets. His service extends to organizing neutron scattering conferences and managing shared instrumentation facilities.

• Clean Energy Systems
• Electrochemistry
• Interfacial Processes
• +5 more

Tae Jin Kim is an Associate Professor in the Department of Chemical & Molecular Engineering at Stony Brook University . His research focuses on developing catalytic methodologies to control hydrocarbon-based reaction pathways, with a particular emphasis on biomass conversion to fuels and chemicals. He employs advanced techniques like in-situ/operando spectroscopy and Density Functional Theory (DFT) calculations to study catalyst active sites and reaction mechanisms. Education : Ph.D. in Chemical Engineering, Lehigh University (2007) M.S. in Chemical Engineering, Hong Ik University (1996) B.A. in Chemical Engineering, Hong Ik University (1994) Research Interests : Catalyst design for biomass valorization Heterogeneous catalysis and solid acid catalysts Computational modeling of catalytic processes Operando characterization techniques Environmental catalysis for pollutant degradation Key Projects : His work integrates experimental and computational methods to understand complex reaction pathways. Notable contributions include the development of ceria-supported metal-oxide catalysts via one-pot chemical vapor deposition (OP-CVD) and studies on boron nitride nanotubes (BNNTs) for catalytic applications. Collaborations with Argonne National Laboratory enhance his computational studies of catalytic systems. Labs & Teams : He leads a research group focused on catalytic innovation, with active projects in renewable energy and sustainable chemistry. The group collaborates with institutions like Argonne National Laboratory and UC Berkeley.

• Catalytic Reaction Engineering
• Biomass Conversion
• Heterogeneous Catalysis
• +3 more

Lior Sepunaru is an Associate Professor in the Department of Chemistry and Biochemistry at the University of California, Santa Barbara (UCSB), and a member of the Center of Polymers and Organic Solids. His research focuses on bioelectronics, single-entity electrochemistry, and nano-electrochemistry, with applications in enzyme catalysis, biosensor development, and liquid-liquid phase separation phenomena. He completed his postdoctoral studies at the University of Oxford and earned his Ph.D. from the Weizmann Institute of Science. Education: Ph.D., Weizmann Institute of Science (2014) Marie Curie Research Fellowship, University of Oxford Research interests include: Electrochemical analysis of biological droplets (coacervates) and their role in protocell-like systems Single-molecule electrocatalysis and nano-scale energy conversion mechanisms Biomolecule-mediated nanoparticle synthesis and characterization Electrochemical correlative microscopy for reaction dynamics Publications highlight advancements in electrochemical sensing, catalysis, and bio-inspired materials. His lab employs cutting-edge techniques such as liquid-cell TEM and impedimetric spectroscopy to bridge macroscopic and single-entity electrochemical phenomena. Advising and grants: Guides over 20 graduate students and postdocs in interdisciplinary projects Collaborates with groups in materials science, chemical engineering, and biomolecular science Labs/Teams: Director of the Electrochemistry Lab at UCSB, specializing in bioelectrochemistry and nanoelectrochemical systems.

• Bioelectronics
• Electrochemistry
• Nanotechnology
• +7 more