Meng Li is a Staff Scientist at the Center for Functional Nanomaterials within Brookhaven National Laboratory, specializing in in-situ environmental Transmission Electron Microscopy (E-TEM) and related applications. She holds a Ph.D. in Materials Science and Engineering from Xi'an Jiaotong University, China, and a B.E. in Mechanical Engineering from the same institution. Postdoctoral research at the University of Pittsburgh focused on in-situ ETEM studies of copper oxidation and catalytic mechanisms. Research Interests: Meng Li's work centers on advancing atomic-scale understanding of gas-solid reactions in catalysts and corrosion processes. She develops MEMS-based holders for in-situ TEM Data analysis pipelines for operando studies Hardware/software for environmental TEM (gas-cell, liquid-cell, heating, electrical biasing) targeting catalysis, corrosion, and energy materials. Scientific Contributions: Her publications span 2016–2025 and emphasize operando TEM techniques for studying oxidation dynamics, alloy stability, nanowire growth, and battery materials. Key trends include Integration of machine learning with first-principles calculations Environmental cell applications for real-time reaction monitoring Thermal and mechanical behavior of nanomaterials Metal-semiconductor interface analysis Laboratory Affiliations: Meng Li is affiliated with the Center for Functional Nanomaterials at Brookhaven National Laboratory, where she focuses on analytical (S)TEM techniques and MEMS device innovation for in-situ experiments.
Bo Jiang is a Postdoctoral Fellow in the Department of Chemistry at the University of Oslo's Faculty of Mathematics and Natural Sciences, where he conducts research in the Electrochemistry Research Group. His work bridges fundamental materials science with practical applications in energy technologies. Dr. Jiang's research interests span multiple domains of advanced materials, with particular focus on: Electrochemistry and solid-state ionics Energy storage materials for batteries (potassium-ion and magnesium systems) Lead-free ferroelectric and piezoelectric materials Perovskite oxide materials and their structural properties Nanostructured electrode materials for electrochemical applications Analysis of Dr. Jiang's publication record (2016-2025) reveals a consistent research trajectory focused on structure-property relationships in functional materials. His work shows increasing sophistication in combining computational methods with experimental validation, particularly in understanding local structural disorder in complex materials. The publications demonstrate strong international collaboration and a focus on both fundamental mechanisms and practical applications in energy technologies. Dr. Jiang's research program addresses critical challenges in sustainable energy technologies, with particular emphasis on developing alternatives to lithium-ion battery systems and lead-based piezoelectrics. His work on potassium-ion battery materials and lead-free ferroelectrics positions him at the forefront of environmentally conscious materials development. As a Postdoctoral Fellow, Dr. Jiang actively contributes to the research ecosystem at the University of Oslo, collaborating with senior researchers like Professor Sverre Magnus Selbach while developing his independent research profile. His work demonstrates the capacity for both theoretical insight and practical materials development.
Erdmann Spiecker is a Professor in the Department of Materials Science at Friedrich-Alexander University Erlangen-Nuremberg (FAU). His research focuses on micro- and nanostructure analysis of materials, with expertise in electron microscopy, thin film technology, and catalytic material design. Key Research Areas: Nanotechnology, Photocatalysis, Surface Engineering, and Analytical Electron Microscopy. Notable Techniques: Correlative X-ray and electron tomography, 4D-STEM, Raman spectroscopy. Material Systems: Transition metal dichalcogenides, Ga–Pt liquid metal catalysts, TiO2 nanotubes, superalloys. His recent work explores stability mechanisms in organic photovoltaics, defect analysis in 2D materials, and hierarchical pore networks for catalysis. Articles highlight applications in renewable energy, alloy microstructures, and precision nanofabrication.
Prof. Dr. Uwe Bovensiepen is a Professor at the University of Duisburg-Essen's Faculty of Physics, where he leads the research group on Ultrafast Phenomena in Solids and at Interfaces . His research investigates microscopic interaction mechanisms between charge, lattice, and spin degrees of freedom in condensed matter, with emphasis on energy transfer and transport in nanostructures. Key areas include femtosecond electron dynamics, magnetization processes, and laser-driven phenomena, often studied using advanced techniques like time-resolved photoelectron spectroscopy and X-ray absorption. Research interests span ultrafast dynamics in correlated materials, heterostructures, and surfaces, with focus on: Femtosecond spin currents and magnetization dynamics Element-specific analysis via ultrafast X-ray spectroscopy Hot electron relaxation in metallic nanostructures Laser-induced phase transitions and solvation dynamics His recent publications demonstrate strong trends in ultrafast spectroscopy of quantum materials (e.g., NiO, FePt, TaS 2 ), development of table-top X-ray sources, and spatiotemporal electron transport. Work frequently involves collaborations with facilities like the European XFEL and employs methods ranging from MeV electron diffraction to nonlinear magneto-optics. Prof. Bovensiepen advises a large cohort of doctoral and master's students, with current projects funded by the German Research Foundation (DFG) through collaborative initiatives like SPP 1840 Quantum Dynamics in Tailored Intense Fields and CRC 1242 Non-Equilibrium Dynamics of Condensed Matter . Laboratories under his supervision include dedicated setups for time-resolved photoelectron spectroscopy, high-power laser systems, and ultrafast electron diffraction.
Professor Richard Kramer Campen leads the Chemical Physics of Interfaces Group at the University of Duisburg-Essen , focusing on experimental studies of interfacial processes in the Faculty of Physics, Experimental Physics department. His research bridges ultrafast spectroscopy, electrochemistry, and nonlinear optics to understand charge transfer mechanisms at solid/liquid interfaces, particularly for energy conversion applications like water splitting. Research Interests : Ultrafast electron transfer processes Nonlinear optical spectroscopy (SFG, SHG) Interfacial dynamics in electrochemical systems 2D material-substrate interactions Dielectric screening effects on electronic structure Photocatalytic energy conversion Scientific Awards : ERC SOLWET Grant for studying electron transfer across solid/liquid interfaces Advising & Grants : Hosts PhD students (Tao Yang, Zhipeng Huang, Lars Philipp Pötters, Yuke Yang, Furong Yan) and postdocs. Leads femtoelectrochemistry projects including the ERC-funded SOLWET initiative. Labs & Collaborations : Collaborates with international teams on energy material interfaces, including researchers from China, USA, Brazil, and Taiwan. Maintains state-of-the-art nonlinear optical and optoelectronic spectroscopy facilities.
Dafei Yuan is a Postdoctoral Scholar at the Robert Mehrabian College of Engineering , University of California, Santa Barbara, affiliated with the Segalman Lab . His research focuses on organic semiconductors, thermoelectric materials, and polymer design for electronic applications. Research Interests Organic Electronics Thermoelectric Energy Conversion Conjugated Polymer Synthesis Charge Transport Optimization Nanoscale Material Engineering Publications (Selected Trends) : Recent work explores n-type polymer semiconductors , polymorph control in organic crystals , and interfacial doping techniques to enhance electrical conductivity and stability. Key themes include molecular architecture, heavy atom effects, and aggregation behavior in organic thermoelectrics and light-emitting transistors. Laboratory Affiliation : Works at the Segalman Lab, focusing on advanced materials for sustainable electronics and energy applications.
Johan Alauzun serves as a Lecturer at the University of Montpellier, affiliated with the Charles Gerhardt Institute (ICGM - UMR5253), where he develops functional hybrid nanomaterials through advanced sol-gel chemistry and surface modification techniques. His academic credentials include a Doctorate in Chemistry (2005) and Habilitation to Direct Research (HDR, 2018), both from the University of Montpellier. Postdoctoral training spanned McMaster University (biomaterials), University of Lyon 1 (porous ceramics), and CPE Lyon (catalysis). Alauzun's research focuses on hydrolytic/non-hydrolytic sol-gel processes for synthesizing porous hybrids, mixed oxides, and nanoparticles, with emphasis on self-assembly and nanostructuring. His work bridges materials science , catalysis , and energy applications , particularly in CO 2 capture and battery technologies. Analysis of his 2022-2025 publications reveals dominant trends in phosphonate-based hybrid materials (e.g., titania-bisphosphonates, oxo-phosphonates) and borocarbonitrides , demonstrating innovations in porous material design for catalytic epoxidation, hydrogen storage, and electrochemical systems. Based at the Charles Gerhardt Institute, Alauzun collaborates internationally with researchers in Canada, France, and beyond, leveraging the institute's multidisciplinary infrastructure for advanced materials synthesis and characterization.
Professor ÖMER FARUK BAKKALOĞLU is a faculty member at Gaziantep University in the Faculty of Engineering , Department of Physics Engineering . With a Ph.D. from the University of Liverpool (1990-1992) and prior degrees from Atatürk University , his career spans over three decades in academia. Academic Leadership : Head of Department (2001-2003) and Dean (2003-2004) at Gaziantep University. Research Focus : Semiconductor physics, thin film technology, magnetoresistance, and electrochemical deposition. His research involves empirical modeling and characterization of semiconductor interfaces, with notable work on Schottky diodes and electrodeposited alloys . Recent publications (2021-2022) explore temperature-dependent electrical properties and magnetic behavior in Cu/n-Si and Fe-Zn systems. Scientific recognition includes the 1992 RSC Mössbauer Group Oral Presentation Award . He has supervised theses on alloy corrosion and microstructure.
Oliver Kröcher is an Adjunct Professor at the École Polytechnique Fédérale de Lausanne (EPFL) within the School of Basic Sciences (SB) , specifically in the Institute of Chemical Sciences and Engineering (ISIC) and the SCGC-ENS group. His research focuses on heterogeneous catalysis for environmental and energy applications, including emission control, NOx and N2O abatement, methane oxidation, and CO2 utilization. He also contributes to educational initiatives, such as Catalysis for emission control and energy processes .
Daniel Sinnett is a Full Professor in the Department of Pediatrics at the Faculty of Medicine, University of Montreal, and an Accredited Professor in the Department of Biochemistry and Molecular Medicine. He serves as Head of the "Viral, Immune and Cancer" Research Axis and Co-Head of the "Cancers and Viral Diseases" Center of Excellence at CHU Sainte-Justine. His research focuses on the transcription factor ETV6 in childhood leukemogenesis, genetic determinants of pediatric leukemia, and long-term treatment effects in leukemia survivors. Accreditations: University of Montreal Research Axes: Immune diseases and cancers, Cancers: mechanisms, new therapies, and prognostic determinants His research integrates Genomics , Epigenetics , and Bioinformatics to understand pediatric cancer mechanisms. Recent work includes lncRNA and circRNA biomarker discovery epigenetic profiling for risk stratification immune landscape characterization in solid tumors Scientific Awards include: Member, Canadian Academy of Health Sciences (2022) FRSQ National Researcher (2006-2011) André Dupont Young Researcher Award (2004) Quebec Cancer Council Merit Award (2003) As a mentor, he has supervised over 30 graduate students and postdoctoral fellows, including 8 PhD candidates. His grant portfolio includes 24 awards (2010-2015) from organizations like CIHR, Terry Fox Research Institute, and Canadian Foundation for Innovation. He directs the François-Karl Viau Research Chair in Pediatric Oncogenomics and leads the Applied Genetic Medicine Network (RMGA) in Quebec.
Dr. Chuyen Pham is a senior electrocatalysis and nanomaterials chemist serving as Team Leader of "Catalyst Synthesis" at the Helmholtz Institute Erlangen-Nürnberg for Renewable Energy (HI ERN), an institute of the Helmholtz-Zentrum Berlin (HZB), located in Nuremberg, Germany. His research concentrates on the design and scalable synthesis of advanced electrocatalysts and functional nanomaterials. Core areas include: Highly active and stable platinum-, iridium-, ruthenium-based catalysts for solid-electrolyte membrane fuel cells and CO₂/water electrolysers. Core–shell architectures (e.g., TiO₂@IrOₓ, IrOₓ@TiO₂) engineered to reduce noble-metal loading while enhancing activity and durability. Carbon-supported non-noble systems (NiRu/C, MoSₓ) for cost-effective hydrogen evolution in anion-exchange membrane electrolysers. Functional nanomaterials enabling next-generation Li–S batteries and other advanced energy-storage technologies. Across more than 25 peer-reviewed publications since 2017, his work demonstrates a consistent trajectory toward lowering critical-material content, improving catalytic efficiency, and bridging fundamental surface-science insights to real device performance. Recent articles emphasize scalable wet-chemical and photodeposition routes, ink–electrode correlations, and full-cell validation under industrially relevant conditions. Laboratory & Team: Dr. Pham leads the “Catalyst Synthesis” group within the Electrocatalysis division at HI ERN, housed in Building HIERN-Auf-AEG, Room 0224. The team focuses on rational catalyst design, in-house synthesis, and collaborative testing within the institute’s broader research portfolio on renewable energy conversion and storage.
Dr. Naoto Tanibata is an Assistant Professor at Nagoya Institute of Technology, affiliated with the Department of Life and Applied Chemistry in the Graduate School of Engineering. He also holds a concurrent position at Kyoto University's Catalyst & Battery Elemental Strategy Unit. His research focuses on developing advanced materials for next-generation energy storage systems, particularly solid-state batteries. Dr. Tanibata received his academic training at Osaka Prefecture University: PhD in Engineering (2014-2017) Master of Engineering in Material & Chemical Engineering (2012-2014) Bachelor of Engineering in Applied Chemistry (2008-2012) Dr. Tanibata's research centers on advanced battery materials , with particular expertise in all-solid-state batteries using chloride and other novel electrolytes. His work combines computational materials science with experimental electrochemistry to develop high-energy-density storage solutions. Recent projects have focused on: Design principles for high-voltage chloride-based electrodes using HSAB theory Amorphization strategies for enhancing anion redox reactions Machine learning approaches for battery material discovery and optimization Deformability properties of solid electrolytes to prevent lithium dendrite formation His publication record demonstrates a strong focus on overcoming key challenges in solid-state battery technology, particularly addressing issues of ionic conductivity, interfacial stability, and high-voltage operation. Recent work has increasingly incorporated advanced simulation techniques and machine learning to accelerate materials discovery. Dr. Tanibata has received numerous awards for his contributions to battery research: Battery Technology Committee Award (2024) for 'Redox-level tuning for high-potential chloride electrodes' Best Oral Presentation Award (2024) from the Ceramic Society of Japan ECS Japan Branch Young Researcher Special Award (2024) Multiple Young Research Innovator Encouragement Awards Dr. Tanibata leads multiple research projects funded by prestigious organizations including the Japan Society for the Promotion of Science (JSPS), Fujikura Foundation, and Naito Science and Technology Promotion Foundation. His current research focuses on: Redox-level design for high-energy-density chloride electrodes (JSPS Grant 24K17755, 2024-2029) Establishing design guidelines for high-deformability materials for all-solid-state batteries Verification of amorphization-based anion redox utilization for microgrid applications At Nagoya Institute of Technology, Dr. Tanibata leads research within the Department of Life and Applied Chemistry, focusing on the rational design of solid-state battery materials based on solid-state chemistry principles. His work bridges fundamental materials science with practical battery applications for electric vehicles and grid-scale storage.
Thomas Zawodzinski holds the prestigious Governor's Chair in Electrical Energy Storage with a joint appointment at the University of Tennessee, Knoxville and Oak Ridge National Laboratory (ORNL). He serves in the Department of Chemical and Biomolecular Engineering at UT and the Division of Materials Science and Technology at ORNL. Previously, he was the F. Alex Nason Professor of Engineering at Case Western Reserve University, Director of the Case Advanced Power Institute, and the Ohio Eminent Scholar in Fuel Cells. Earlier in his career, he served as Team Leader for Fuel Cells in MST-11 at Los Alamos National Laboratory for 13 years. Dr. Zawodzinski earned his Ph.D. in Chemistry from SUNY/Buffalo, focusing on electrochemical devices for energy applications, including fundamental and applied studies of batteries and fuel cells, applications of NMR methods to study transport and structure in device components, preparation of advanced functional materials, and development of molecular device concepts. His research spans multiple energy storage technologies with particular expertise in metal air batteries, redox flow batteries, fuel cells, and membranes. Current research directions include electrolytes and composite electrodes for fuel cells, fundamentals of energy storage materials and systems, water management in fuel cells, and application of NMR to chemical engineering problems. His work at LANL also included lithium batteries, preparation of new electrolytes, studies of transport and electrode materials, self-assembled monolayers for device preparation, and sensors for chemical/biological agents. Analysis of Dr. Zawodzinski's publication record reveals a strong focus on solid-state electrolytes, particularly sulfide-based materials for batteries, and continued work on redox flow battery systems. His research spans fundamental material characterization to practical battery component development, with emphasis on mechanical properties, ion transport, and electrochemical stability across multiple energy storage technologies including lithium batteries, zinc-based systems, and various fuel cell configurations. ECS Energy Technology Division Research Award (2016) Royal Academy of Engineering Fellowship (2015) Poly Fellow (2015) Ohio Eminent Scholar in Fuel Cells Dr. Zawodzinski has secured significant research funding through Department of Energy projects, including leading a DOE Fuel Cell Project. His professional service includes membership on the International Advisory Board for the Journal of Power Sources and extensive conference organization including the Asilomar Conference on Advances in Polymers for Fuel Cells. He has served as Discussion Leader for the Fuel Cell Gordon Conference multiple times and co-organized numerous ACS and Electrochemical Society symposia. He leads the Energy Storage and Conversion Group within the Chemical Transformations Section of ORNL's Chemical Sciences Division, focusing on developing advanced materials for next-generation energy storage technologies with applications ranging from grid-scale storage to portable power systems.
Professor Tanniemola B Liverpool is a Professor of Theoretical Physics in the School of Mathematics at the University of Bristol. His research focuses on the physics of active matter, soft condensed matter systems, and the interface between physics and biology. With over 107 publications and leadership of multiple research projects including EPSRC-funded initiatives, he maintains a prominent position in theoretical physics and applied mathematics. Professor Liverpool's research interests span several interconnected fields: Active matter systems and their non-equilibrium statistical mechanics Theoretical modeling of biological processes including cell migration and tissue mechanics Soft condensed matter physics with emphasis on colloidal systems and gels Hydrodynamics of active suspensions and active fluids Theoretical approaches to wound healing and epithelial morphogenesis Analysis of Professor Liverpool's recent publications reveals a strong focus on active matter systems, particularly examining how microscopic activity translates to macroscopic properties. His work bridges fundamental theoretical physics with biological applications, especially in understanding collective cell behavior. A significant portion of his recent work investigates the rheology of active systems, chiral crystallization phenomena, and the physics of wound healing in epithelial tissues. His research increasingly incorporates computational approaches including machine learning for analyzing complex biological systems. Professor Liverpool has received research funding from major organizations including EPSRC, with projects such as 'From interparticle forces to macroscopic yielding of soft amorphous solids' and international collaborations with Japan. His research output demonstrates significant recognition in the field with publications in high-impact journals including Nature Chemistry. As Principal Investigator on multiple projects and with supervised work listed for 6 students, Professor Liverpool maintains an active research group. His work involves interdisciplinary collaboration across physics, mathematics, and biology, with particular emphasis on the theoretical foundations of active biological matter.
MARIA Sébastien is a Lecturer at Aix-Marseille Université, affiliated with the Organic Radical Chemistry and Specialty Polymers Team (CROPS). His research focuses on controlled radical polymerization techniques to synthesize functional copolymers with applications in energy storage (e.g., lithium batteries) and electronics (e.g., conductive inks, 3D chip insulation). He leads the 'Materials and Processes' operational group at the Carnot Star Institute. Role: Lecturer Institution: Aix-Marseille Université Team: CROPS Email: sebastien.maria@univ-amu.fr Research Interests include polymer synthesis for energy and electronic applications, particularly solid electrolytes for lithium batteries and dispersion of conductive inks. His work emphasizes well-defined macromolecular architectures and their electrochemical properties. Scientific Contributions span solid polymer electrolytes, SnSb anode optimization, conformal polymer coatings for electrical contacts, and advanced block copolymer systems. Publications highlight innovations in battery materials, electrochemical impedance spectroscopy, and nanocomposite synthesis. Labs/Teams: Organic Radical Chemistry and Specialty Polymers Team (CROPS) and the Carnot Star Institute's 'Materials and Processes' group.
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