Jose Manuel Vila Fungueirño is a Researcher at the University of Santiago de Compostela's Research Center in Biological Chemistry and Molecular Materials (CIQUS), affiliated with the MAT2 research group focusing on Condensed Matter & Functional Materials. He holds a PhD from the University of Santiago de Compostela (2016), specializing in the synthesis and properties of epitaxial oxide thin films via polymer-assisted deposition. His research interests encompass nanomaterials, catalysis, electrochemistry, and magnetic materials. Key topics include the design of hybrid catalysts for water splitting, plasmonic nanostructures, and functional thin films with tailored properties. He explores applications in energy storage, photocatalysis, and biomedical nanotechnology. His recent publications highlight advancements in nanointerface engineering for hydrogen evolution, core-shell plasmonic nanoMOFs, and magnetic hyperthermia materials. His work integrates experimental synthesis with theoretical modeling to optimize material performance at the nanoscale. No scientific awards or grants are explicitly listed in the provided materials. He advises no recorded students but contributes to CIQUS's interdisciplinary research initiatives.
Prof. Salih Uğur Bayça is a distinguished academic affiliated with Alanya Alaaddin Keykubat University's Rafet Kayış Faculty of Engineering, Department of Metallurgical and Materials Engineering. His research focuses on hydrometallurgy, boriding processes, corrosion resistance, ceramic engineering, and mineral processing. He has supervised key projects on alternative boron compounds for steel treatments and hydrogen storage in magnesium nanostructures. 2024–Present: Professor, Alanya Alaaddin Keykubat University 2014–2024: Assistant/Associate Professor, Kirikkale University 1998–2014: Doctor Lecturer, Celal Bayar University His publications (1997–2025) span boriding techniques , corrosion resistance , leaching kinetics , and ceramic material optimization . Recent works explore steel coating durability, radiation shielding with boronized alloys, and sustainable waste processing. He has edited Frontiers in Metals and Alloys (2024) and served on international symposium technical committees.
Jennifer Claire Heck is an Artistic Associate and Lecturer at Berlin University of the Arts (UdK Berlin), where she serves as an artistic assistant in the basic teaching program with Professor Susanne Lorenz in the School of Art. Her artistic practice centers on contemporary drawing, particularly large-scale graphite works that explore conceptual themes of memory, space, and materiality. Notable works include The Impossibility of Floating (graphite on paper, 100 x 150 cm) and pieces referencing specific locations through coordinates or titles like Cranley Gardens and 48°35'56.1"N 4°37'12.2"W . Her research interests encompass: Drawing and graphite techniques Conceptual approaches to spatial representation Memory and personal narrative in visual art Material exploration and perception Site-specific and location-based art practices Heck's portfolio demonstrates a consistent exploration of the relationship between physical spaces and emotional states, often using precise measurements or geographic coordinates as conceptual anchors. Her work bridges technical precision with conceptual depth, creating dialogue between concrete locations and abstract human experiences. As an educator, she contributes to foundational art education at one of Europe's leading arts institutions, working directly with Professor Susanne Lorenz to develop curriculum and mentor emerging artists in basic artistic techniques and conceptual development.
Mark Stockton is a Teaching Professor at Drexel University's Westphal College of Media Arts & Design and serves as Co-Director of the Pearlstein Gallery. Based in Philadelphia, he has established himself as a prominent contemporary artist whose graphite drawings have been exhibited nationally and internationally, including shows in Philadelphia, Los Angeles, New York, London, and Beijing. His educational background includes a BFA from Oregon State University (1996) and an MFA in Painting and Drawing from Syracuse University (2000). Since 2009, Stockton has been actively involved with Vox Populi, an independent arts organization, both as a contributing artist and board member. Stockton's artistic practice centers on contemporary drawing, often exploring themes of representation, celebrity culture, historical figures, and social commentary. His work frequently engages with American iconography and cultural narratives, as evidenced by his series on 1970s celebrities, his Whitman-related works, and politically charged pieces like 'Of Consequence' featuring Vladimir Putin. His technique primarily involves graphite on paper, creating large-scale, detailed drawings that challenge viewers' perceptions of fame, power, and historical memory. His recent exhibitions demonstrate a consistent engagement with contemporary issues through the lens of drawing and visual representation. From the '100 People' project to 'Present Tense: Drexel Art Now' (2023), his work continues to evolve while maintaining his distinctive approach to figurative drawing and conceptual exploration. Stockton's work is held in significant collections including the Pennsylvania Academy of Fine Arts and the West Collection. His 'The Poet in His Bedroom or Walt Whitman in repose amongst a chaos of papers in Camden in 1891' (2018-19) was commissioned for the Pennsylvania Academy of Fine Arts collection. As an educator, Stockton teaches design and drawing at Drexel University, mentoring emerging artists while maintaining his active studio practice. His dual role as practitioner and educator positions him at the intersection of academic and professional art worlds. His involvement with Vox Populi demonstrates his commitment to the broader Philadelphia arts ecosystem beyond the university setting. His studio practice often involves large-scale works, including pieces measuring up to 122" x 92", and incorporates various media beyond traditional drawing, including installation elements, publication design, and collaborative projects. His 'Some of Its Parts' (2019) collaborative installation with Nadia Hironaka, Matthew Suib, and Kelsey Halliday Johnson exemplifies his engagement with contemporary art practices beyond traditional drawing.
Prof. Marco Ricotti is a Professor at Politecnico di Milano specializing in nuclear engineering with core expertise in Thermal Fluid Dynamics (modelling & experimental), Passive Safety Systems, and Economics of Nuclear Energy. His research directly impacts Small Modular Reactor (SMR) development, nuclear safety validation, and decommissioning technologies. As a key contributor to the Consorzio Interuniversitario per la Ricerca TEcnologica Nucleare (CIRTEN), he supports the Italian National Repository of radioactive waste and participates in European initiatives like the TANDEM Euratom project. Ricotti's research program bridges fundamental thermal-hydraulic phenomena with practical nuclear applications. His work on passive safety systems includes experimental validation of decay heat removal mechanisms and two-phase flow behavior in compact heat exchangers. Economic analyses of SMRs, lead fast reactors, and hybrid energy systems form another critical pillar, addressing cost competitiveness and grid integration challenges. Recent efforts increasingly focus on nuclear decommissioning techniques for graphite-moderated reactors and space nuclear applications. Analysis of Ricotti's 2024-2025 publications reveals concentrated SMR research across three interconnected domains: thermal-hydraulic safety validation (35% of output), economic viability studies (30%), and innovative applications like space reactors and decommissioning technologies (35%). His work consistently emphasizes experimental verification of passive safety systems while exploring synergies between nuclear and renewable energy in multipurpose systems for decarbonization. No scientific awards were documented in the source material. Information regarding student advising or specific research grants was not provided in available records. Ricotti actively contributes to CIRTEN's mission supporting Italy's radioactive waste repository Technology Park, with emphasis on graphite decommissioning and thermal-hydraulic testing. His leadership in the TANDEM Euratom project shapes European SMR licensing frameworks, while collaborations with SIET laboratory advance suppression pool safety validation. Current efforts also integrate nuclear systems with phase-change materials for district heating and seawater desalination applications.
Robert J. Messinger serves as an Associate Professor within the Department of Chemical Engineering at the City College of New York (CCNY), part of the City University of New York (CUNY) system. His academic office is situated in Steinman Hall, Room 327, and he maintains professional contact via telephone at 212-650-8204 and electronic correspondence at rmessinger@ccny.cuny.edu. His position reflects substantial scholarly contributions to electrochemical engineering and energy storage research. Professor Messinger's research program centers on advanced battery systems including aluminum-sulfur, lithium-ion, and zinc-based chemistries, with particular focus on extreme-environment operation (high and low temperatures) and sustainable resource recovery. He employs nuclear magnetic resonance spectroscopy to investigate fundamental electrochemical mechanisms such as ion intercalation, electrodeposition, and interfacial phenomena. His work extends to rare earth element recycling using peptide-based surfactants and foam fractionation techniques, addressing critical challenges in energy storage sustainability and materials science. Analysis of his 2023-2025 publications reveals dominant research trajectories in electrolyte engineering for temperature-resilient batteries, mechanistic studies of multivalent-ion systems, and biomimetic separation methods for critical minerals. Key trends include the development of chloroaluminate and ionic liquid electrolytes, molecular-level characterization of electrode processes via NMR, and innovative approaches to rare earth element recovery that minimize environmental impact. His work consistently bridges fundamental electrochemistry with practical battery engineering applications. No scientific awards or major recognitions are documented in the provided source material. Similarly, details regarding graduate student mentorship, sponsored research grants, or laboratory infrastructure are absent from the available information.
Dr. Hanika Rizo is a researcher in the Department of Earth Sciences at Carleton University, part of the Faculty of Science. Her research focuses on the early geochemical evolution of the Earth, particularly processes occurring over 4 billion years ago, such as core formation and mantle evolution. She employs isotopic systems like 182Hf-182W to analyze mantle-derived rocks, emphasizing projects in the Saglek-Hebron Complex, Northern Labrador. Dr. Rizo teaches Geochemistry and Geochronology (ERTH 3003) and Advanced Isotope Geochemistry (ERTH 4803), and advises students in Chemistry and Earth Sciences programs. She is affiliated with the Herzberg Laboratories in Ottawa, Ontario. Her research team investigates rare pre-3.6 Ga mantle-derived rocks, including zircons older than 3.8 Ga. Key projects include understanding stagnant and mobile-lid tectonic regimes and abiotic carbon synthesis in Eoarchean metasedimentary rocks. She explores tungsten isotopes in plumes and mantle heterogeneity preservation through studies like the Onega Basin picrites and Pilbara Terrane basalts. Dr. Rizo’s work bridges geochemical analysis with field studies, addressing fundamental questions about Earth’s formation and early dynamics. She collaborates on projects involving Fe and S isotopes in ore deposits and dinosaur paleontology, showcasing interdisciplinary reach. No scientific awards are listed, but her contributions to mantle evolution and early Earth geochemistry are well-documented in peer-reviewed publications.
Nicolas J. Saintilan is an Assistant Professor in the Department of Geological Sciences at the University of Alabama. His research focuses on mineral resources and sulfide Re-Os geochronology, particularly addressing the geochemical controls on critical and strategic element deposits such as Cu, Co, V, Ge, Zn, and graphite. He explores the interplay between tectonic activity, sedimentary processes, and ore formation across diverse geological settings. Education : MSc Geology – Engineering, Polytechnical Institute Lorraine, France (2003–2006) MSc Exploration Geology, Rhodes University, South Africa (2007–2008) PhD in Earth Sciences, University of Geneva, Switzerland (2011–2015) Research Interests : Dr. Saintilan’s work integrates isotopic geochronology (Re-Os), geochemical analysis, and field-based studies to unravel the timing and mechanisms of ore formation. Key themes include: Mineral systems associated with supercontinent breakup and anoxic events Controls on cobalt, copper, and vanadium enrichment in sedimentary and metamorphic environments Methodological advancements in sulfide mineral analysis Linkages between magmatic-hydrothermal activity and ore genesis Publications Trends : His research spans global localities (Greenland, Morocco, USA, Sweden) and emphasizes interdisciplinary approaches. Recent work highlights: High-grade cobalt deposits in Morocco tied to supercontinent dynamics Re-Os dating of Paleoproterozoic Mississippi Valley-type deposits Development of precise analytical protocols for sulfide mineral characterization Labs/Teams : Collaborates extensively with international teams on projects combining fieldwork, lab analysis, and computational modeling to advance mineral exploration science.
Dr. Rou Wang is a Researcher at the University of Newcastle (Australia), affiliated with the School of Engineering and the Center for Ironmaking Materials Research (CIMR). She holds a Ph.D. in Chemical Engineering from the University of Newcastle, a Master of Engineering from Dalian University of Technology (China), and a Bachelor of Engineering from Taiyuan University of Technology (China). Her research focuses on advanced carbon materials for energy storage, fluidization behavior in ironmaking processes, and mitigating sticking issues in DRI production through coating materials. Her work integrates metallurgical processes with materials science, addressing challenges in sustainable iron production and battery technology. Key areas include optimizing carbon-based anodes using Victorian brown coal, developing N-doped porous carbons for high-rate energy storage, and exploring microwave-assisted synthesis of graphene composites. Dr. Wang has contributed to 12 peer-reviewed articles and a book chapter since 2019, with recent emphasis on reviews of coating materials in ironmaking and characterization techniques for battery materials. Her interdisciplinary approach bridges chemical engineering, materials science, and renewable energy applications.
Prof. Dong Hee Son is a Professor of Chemistry at Texas A&M University with joint appointments in Physics & Astronomy. He holds a BS and MS from Seoul National University, Korea, and a PhD from the University of Texas, Austin. His postdoctoral research at UC Berkeley focused on semiconductor nanostructures. His research explores semiconductor nanostructures for photonics, quantum information science, and photocatalytic systems. Education: PhD, University of Texas at Austin MS, Seoul National University BS, Seoul National University Research Interests: Semiconductor nanostructures and quantum dots Photonic materials and ultrafast optics Photocatalytic conversion and energy applications Defect engineering in perovskite materials Nanoelectronic and wearable sensor technologies Articles Trends: Recent work emphasizes quantum dot superlattices, hot electron generation for photocatalysis, and wearable nanogenerators. Key themes include defect passivation, plasmon dynamics, and light-induced magnetism in nanomaterials. Advising & Grants: No specific grants or advisees listed. Research focuses on collaborative projects in nanomaterials and energy. Labs/Teams: Active in interdisciplinary teams at Texas A&M, exploring quantum dot applications in photonics and energy storage.
Sara Lund is a researcher at Åbo Akademi's Faculty of Natural Sciences and Engineering, specializing in Molecular Science and Engineering. Her work focuses on graphene-based materials, cellulose nanocrystals, and sustainable energy technologies. Institution: Åbo Akademi School: Faculty of Natural Sciences and Engineering Department: Molecular Science and Engineering Research interests include: Graphene and composite films Biophotovoltaic device development Electrochemical charge transfer optimization Sustainable energy material synthesis Nanostructured electrode fabrication Publications highlight advancements in: Graphene-cellulose composite anodes Shear exfoliation techniques Electrospun nanofibers for bioelectronics Efficient charge transfer mechanisms Biocompatible electrode materials
Sally Clegg is a Lecturer at the University of Michigan's Stamps School of Art & Design and serves as the Student Exhibitions Coordinator. Her work spans sculpture, printmaking, and interdisciplinary art, focusing on the intersection of personal experience, philosophy, and feminist theory. MFA in Art, University of Michigan Stamps School of Art & Design (2020) BA in Art & English, Goucher College (2010) Semester abroad in Painting & Printmaking, Glasgow School of Art (2008) Clegg's research explores objectification, bodily agency, and the absurdity of human-thing relationships. She employs materials like silicone, found objects, and kinetic elements to interrogate feminist imagery and theoretical frameworks. Recent works like Being (Chelsea) and Proliferation IV (Wet Turtleneck Fountain) merge humor with critical discourse on identity and materiality. Selected scientific awards include the 2025 Summer Faculty Fellow, 2020 Elsie Choy Lee Scholar, 2018 Massachusetts Cultural Council Fellow, and 2020 Outstanding Student Achievement in Contemporary Sculpture Award. Her artworks are archived in permanent collections at Yale University, The New York Public Library, and the University of Michigan. Clegg's exhibitions span the U.S., Japan, and virtual platforms, often co-curated or juried.
Dr. Pelin Çağım Tokat Birgin is an Assistant Professor in the Department of Metallurgical and Materials Engineering , Faculty of Engineering , Kütahya Dumlupınar University , Türkiye. She earned both her M.Sc. (2015) and Ph.D. (2022) in Materials Science and Engineering from the same institution and has since held a full-time academic position combining teaching and research. Education Ph.D. in Materials Science and Engineering, Kütahya Dumlupınar University, 2016–2022 M.Sc. in Materials Science and Engineering (with thesis), Kütahya Dumlupınar University, 2015 Research Focus Her scholarly work revolves around powder metallurgy , metal-matrix composites (MMCs) , ceramic reinforcement , and tribology . She employs advanced processing techniques such as spark plasma sintering (SPS) to fabricate copper-, brass-, and aluminum-based composites reinforced with SiC, ZrO₂, TiO₂, graphite, CNTs, and graphene. Additional interests encompass thermoelectric nanoceramics , electrospun biopolymer nanofibers , and the characterization of copper-silicate pigments in traditional ceramics. Publications & Trends Since 2018 she has (co-)authored 14 peer-reviewed articles and several conference papers. The 2024–2025 output concentrates on hybrid-reinforced copper composites and stainless-steel matrix composites with nano-additives, reflecting a strategic shift toward lightweight, wear-resistant, and multi-functional materials for automotive and aerospace applications. Awards & Scholarships No awards or scholarships are listed in the provided records. Supervision & Grants She currently supervises two master’s theses exploring: Microstructure, tribology, and corrosion behavior of TiC/CNT/graphene-reinforced 316L stainless-steel composites (2025–ongoing) Performance of cement-based systems with various additives (2023–ongoing) She is the principal investigator on the 2024 TÜBİTAK project “Economical Production of TiC, CNT and Graphene Added Stainless-Steel Matrix Composites” and participates as researcher in the national “Boron-Based Advanced Ceramics Infrastructure” project. Laboratory & Team She conducts research within the university’s Metallurgical and Materials Engineering laboratories, utilizing powder processing, SPS, SEM/EDS, XRD, and tribological test equipment. Graduate students and external collaborators form her core research group.
Yu Liu is an Assistant Professor in the Department of Chemistry and Chemical Biology at the University of Maryland, College Park (UMD), where he leads the experimental Liu Lab. He joined the UMD faculty in Spring 2024 and established a state-of-the-art quantum measurement lab in the new chemistry building. His research focuses on advancing quantum science techniques to study chemistry at ultracold temperatures, leveraging laser cooling, optical trapping, and coherent control to create molecules in well-defined quantum states. These ultracold molecules enable high-resolution spectroscopic and reaction studies, with applications in quantum computation, material science, and fundamental chemical dynamics. Research Interests: The Liu lab explores ultracold reaction dynamics, particularly using lithium isotopes (e.g., 6Li and 7Li) to study reaction pathways, entanglement effects, and cluster assembly. They also develop hybrid ion-neutral traps to expand the range of chemically diverse species accessible at ultralow temperatures. These efforts aim to bridge gaps between theoretical predictions and experimental observations in quantum-controlled chemistry. Lab Activities: The lab actively recruits PhD students and postdocs with backgrounds in atomic/molecular optics (AMO) physics, physical chemistry, or related fields. Students are encouraged to apply to UMD’s Chemical Physics, Chemistry, or Physics graduate programs. The lab emphasizes interdisciplinary collaboration and cutting-edge experimental techniques, including laser systems, cryogenics, and quantum control methodologies. Awards and Grants: No scientific awards were explicitly mentioned in the provided text. Lab Infrastructure: The lab is equipped with advanced facilities for quantum measurement, including laser systems, vacuum chambers, and state-of-the-art detection instruments. Ongoing projects include studying isotope exchange reactions in ultracold lithium systems and developing hybrid traps for precision chemistry experiments.
Joseph Oghenevweta is an Honorary Fellow at the University of Wollongong (UOW) since 2022, affiliated with the Undefined Department and Faculty. His research focuses on advanced materials science, structural integrity, and sustainable composites. He has contributed significantly to understanding fatigue mechanisms in MEMS thin films, intermetallics, and refractory alloys, as well as cold spray processing techniques for aerospace applications. Key research areas include: (1) Fracture mechanics and crack propagation in metallic materials, (2) Synthesis of nanocrystalline materials via ball milling, (3) Development of eco-friendly composites using agricultural waste, and (4) Stress corrosion and thermal spray technologies. His work bridges fundamental material science with industrial applications in energy and aerospace sectors. Dr. Oghenevweta leads an Australian Research Council (ARC) Linkage Project (2024-2027) titled 'Advanced Refractory Alloy Components for Aerospace and Energy Sectors,' collaborating with researchers like Zhu H, Li H, and Moricca SS. His publications span over three decades, with notable contributions to Metallurgical and Materials Transactions A , Materials Science and Engineering A , and Composites Part B Engineering . He has pioneered studies on bio-composites using agricultural byproducts (maize stalk, coconut shell), demonstrating their potential as sustainable reinforcement materials. His recent work explores deformation mechanisms in cold-sprayed refractory metals and the role of oxide layers in coating integrity. Notable funding: $ AU [amount not specified] via ARC Linkage Project (2024-2027). His research emphasizes both material synthesis innovation and real-world industrial applications.
