Igor Roncevic is a Lecturer in Computational and Theoretical Chemistry, focusing on interdisciplinary research spanning materials science, organic chemistry, and theoretical physics. His work contributes to UN Sustainable Development Goals through innovations in molecular design and energy-related materials. Research Interests Computational modeling of porphyrin-based systems and nanomaterials Electronic and structural characterization of antiaromatic and aromatic compounds Energy levels and charge transfer dynamics in molecular systems Development of novel carbon allotropes and their applications Recent Research Trends Roncevic’s articles emphasize porphyrin nanorings, cyclocarbon stabilization, and bistable electronic states. His work explores quantum interference phenomena, phase transitions in liquid metals, and photoswitchable molecular arrays. These studies bridge theoretical predictions with experimental validation, often using density functional theory (DFT) and advanced spectroscopic techniques. Advising Roncevic is currently accepting PhD students interested in computational chemistry and nanomaterials. He collaborates with international teams across Europe and the US, focusing on projects funded by grants in materials science and energy research.
Chunlin Xu is a Professor in the Faculty of Science and Engineering at Åbo Akademi University, leading the Laboratory of Natural Materials Technology. His research focuses on developing sustainable materials from biorefinery feedstocks, with significant contributions to lignin valorization, nanocellulose engineering, and bio-based coatings. Current affiliations include principal investigator roles in major EU and national projects advancing circular bioeconomy solutions. Xu's research spans Lignin chemistry and nanoparticle formation Nanocellulose-based hydrogels and composites Biomaterials for packaging and medical applications Photosynthetic biohybrid systems for chemical production Machine learning applications in biorefining His work demonstrates strong alignment with UN Sustainable Development Goals, particularly for sustainable materials and clean water technologies. Analysis of Xu's 2025 publications reveals dominant trends in Advanced lignin modification for additive manufacturing Multi-functional hemicellulose derivatives for emulsion stabilization Scalable production of bio-based barrier coatings Nanocellulose integration in environmental remediation These works emphasize practical applications in packaging, agriculture, and water treatment while maintaining strong fundamental science. Scientific recognition includes: Chancellor’s Prize (2023) for renewable materials innovation Election to Swedish Academy for Engineering Sciences in Finland (2023) Xu directs substantial research funding through projects like S2B (EU-funded solar butanol production) and CIMANET (doctoral network for circular materials). His laboratory hosts numerous academic visitors and collaborates internationally across Europe. The research group operates within Åbo Akademi's Natural Materials Engineering ecosystem, with facilities for advanced biopolymer characterization and processing. Current activities include organizing the European Workshop on Lignocellulosics and Pulp while developing next-generation biohybrid systems for sustainable chemical production.
Ronald Smaldone is an Associate Professor in the Department of Chemistry and Biochemistry within the School of Natural Sciences and Mathematics at the University of Texas at Dallas. He leads an active research laboratory focused on advanced materials, particularly nanoporous polymers with diverse applications in energy, medicine, and catalysis. His educational background includes a B.S. from the University of Michigan, Ann Arbor (2003), a Ph.D. from the University of Illinois, Urbana-Champaign (2008), and postdoctoral training at Northwestern University (2012). Smaldone's research is centered on organic and materials chemistry, specifically designing porous polymers with high surface areas for functional applications. These materials exhibit sponge-like behavior at the molecular level, enabling the capture, storage, and release of small molecules. This work bridges synthetic chemistry with practical engineering challenges in sustainable energy and biomedical systems. The scientific output from his lab demonstrates a strong trend in developing stimuli-responsive, crystalline organic frameworks with tailored porosity, indicating deep engagement in next-generation material design. Doctoral New Investigator - American Chemical Society [2013] While specific details about student advising and grant funding are not provided in the available text, the presence of an active research lab and recent faculty appointment suggest ongoing mentorship and external support. His lab website indicates a structured research group environment. The Smaldone Lab operates as a dynamic research team dedicated to innovation in polymer science, utilizing advanced synthetic and analytical techniques to explore the fundamental properties and real-world applications of porous organic materials.
Vittorio Scardaci is a Lecturer in Physical Chemistry at the Department of Chemistry, University of Catania. With a PhD in Engineering from the University of Cambridge (2009), his career spans academic research and industrial R&D at Hewlett-Packard Ireland (2008-2013) before returning to academia in 2018. His work focuses on carbon nanomaterials , plasmonic nanoparticles , and photonic composites , with over 50 peer-reviewed publications (h-index 27) and 2 patents. His recent research includes graphene oxide reduction , metallic nanowire networks , and ultrafast laser applications . Publications highlight plasmonic sensing , nanoparticle aggregation , and photonic device integration of nanomaterials. He is co-inventor of transparent conductive films and optical saturable absorbers . Scardaci's work intersects material synthesis , optical characterization , and applied device fabrication . He collaborates with international institutions and contributes to projects in nanostructured materials for sensors and photonic systems . His expertise spans chemical processing , nanotube-polymer composites , and laser-materials interaction .
Lisa Gillie is a Senior Lecturer in the Department of Physical and Life Sciences within the School of Applied Sciences at the University of Huddersfield. She is also a member of the Centre for Functional Materials, where she conducts research in solid-state inorganic chemistry and crystallography. She is actively involved in teaching Inorganic and Physical Chemistry and welcomes PhD students in her research area. Her research focuses on functional metal oxide materials, particularly those derived from the perovskite structure. Key interests include the synthesis and structural characterization of transition metal oxides, the evolution of crystal structure in layered perovskites, and the role of defects and composition in determining material properties. She applies advanced techniques such as neutron powder diffraction, Rietveld analysis, and density functional theory (DFT) to investigate these systems. Recent publications (2022–2025) highlight a strong focus on cerium oxide (ceria), including its defect structure, surface reactivity, and applications in environmental and biomedical contexts such as arsenate adsorption and reactive oxygen species scavenging. Her work increasingly involves computational modeling and high-throughput methods, reflecting a trend toward integrating simulation with experimental characterization. Lisa Gillie has an extensive publication record, with 41 research outputs and an h-index of 15 (Scopus), and she actively participates in academic conferences, delivering oral and poster presentations. She collaborates widely, particularly with researchers in computational materials science. PhD Supervision: Yes, accepting new students Major Collaborators: Marco Molinari, David Cooke, Khoa Ta She is a key contributor to research aligned with UN Sustainable Development Goals, particularly in clean energy and sustainable materials. Her lab and research team focus on functional materials with applications in catalysis, energy, and environmental remediation.
Daniel Aili is a Professor and Head of Unit at Linköping University, affiliated with the Department of Physics, Chemistry and Biology within the Faculty of Science and Engineering. His research focuses on the design and development of functional nanoscale materials for biomedical applications, particularly through molecular self-assembly processes. PhD in Molecular Physics, Linköping University (2008) MSc in Engineering Biology, Linköping University (2003) Postdoctoral training at Nanyang Technological University, Singapore (2010–2011) Postdoc in Prof. Molly Stevens' lab, Imperial College London, UK (2009–2010) His research interests lie at the intersection of soft materials, nanotechnology, and biomedicine. He specializes in creating bioresponsive and biointeractive materials using self-assembly techniques. His work spans biosensors, drug delivery systems, regenerative medicine, and wound healing technologies. A key focus is on hydrogels and bioinks that mimic the extracellular matrix, enabling 3D and 4D bioprinting of tissue-like structures. Recent publications highlight advancements in nanocellulose-based wound dressings with infection-sensing capabilities, controlled antimicrobial release, and high-density biofabrication for skin regeneration. These studies reflect a strong trend toward translational biomaterials that bridge fundamental science with clinical applications, particularly in diagnostics and regenerative therapies. Daniel Aili has received numerous scientific honors, including: ERC Consolidator Grant Wallenberg Academy Fellow (with prolongation) Future Research Leader by the Swedish Foundation for Strategic Research AkzoNobel Nordic Prize for Surface and Colloid Chemistry (2012) Ingvar Carlsson Award (2012) Arnbergska Prize from the Royal Swedish Academy of Sciences (2013) He leads the Laboratory of Molecular Materials and has secured major grants from the Knut and Alice Wallenberg Foundation, the Swedish Foundation for Strategic Research (SSF), and the European Commission (Horizon 2020). He mentors several PhD students and contributes to large collaborative projects such as the SSF MED-X initiative HEALiX. His lab develops innovative materials that can grow artificial tissues, test cancer drugs, and create smart wound dressings that detect infection—contributing significantly to reducing animal testing and advancing personalized medicine. Daniel Aili’s research group operates within the interdisciplinary research environment Advanced Functional Materials (AFM) at Linköping University. The team combines expertise in biophysics, bioengineering, polymer chemistry, and materials science to push the boundaries of biomimetic material design. Their work on dynamic hydrogels and modular bioinks enables real-time control over cell behavior and tissue formation, positioning them at the forefront of next-generation regenerative therapies.
Arthur HG David is a CNRS researcher at the Institut des sciences chimiques de Rennes, University of Rennes, France, where he has been employed since 2024. His research is centered on mechanically interlocked molecules, nanographenes, chirality, and organic optoelectronic materials. Education: PhD in Chemistry, University of Granada, Spain (2020) Master's in Molecular Chemistry, University of Rennes 1, France (2016) Bachelor's in Chemistry, University of Rennes 1, France (2014) His research interests include the synthesis and study of rotaxanes, catenanes, curved polycyclic aromatic hydrocarbons, and nanographenes, with a strong focus on chiroptical properties and circularly polarized luminescence. He has conducted postdoctoral research at Northwestern University under Prof. J. Fraser Stoddart and at the University of Angers under Dr. Philippe Blanchard and Dr. Antoine Goujon. His recent publications (2023–2025) span high-impact journals and cover themes such as stimuli-responsive luminescent materials, dynamic covalent synthesis, supramolecular nanostructures, and mechanically interlocked systems. These works highlight interdisciplinary advances in organic materials, photophysics, and molecular design. Scientific Awards and Recognition: Multiple articles highlighted as HOT PAPER in Angewandte Chemie and Chem. Sci. Featured in ChemistryViews, Chemical & Engineering News, and Nature Synthesis α-ʟ-cyclodextrin recognized as C&EN Molecule of the Year 2024 Work highlighted in honor of Sir Fraser Stoddart Arthur HG David has advised no publicly listed students but has collaborated extensively with leading researchers in supramolecular chemistry. His work is supported by CNRS and prior institutional affiliations. He is involved in advanced materials research, particularly in the development of chiral optoelectronic systems and dynamic molecular architectures. Laboratories and Research Teams: He is affiliated with the Rennes Institute of Chemical Sciences and has previously worked in research groups at the University of Granada, University of Angers, and Northwestern University, contributing to international collaborations in supramolecular and materials chemistry.
Karin Wang is an Assistant Professor in the Department of Bioengineering at the College of Engineering, Temple University. Her research integrates principles from tissue engineering, biomaterials science, soft matter physics, and cell biology to develop innovative model systems that investigate cell and matrix dynamics in health and disease. Her research interests center on cell and matrix mechanobiology , focusing on how mechanical forces regulate cell-matrix interactions. Key areas include structure-function relationships , collective migration , extracellular matrix remodeling , and tissue-engineered model systems . Her lab specifically investigates the role of fibronectin in growth factor immobilization, cell adhesion, and migration dynamics. The recent publications reflect a strong trend in both fundamental mechanobiology and translational bioengineering. Her earlier work emphasizes fibronectin's role in cancer and wound healing, while recent collaborative publications highlight advanced nanoparticle and lipid-based delivery systems for mRNA and siRNA, particularly targeting bone, lung, and spleen. This suggests an evolving research program bridging mechanistic insight with therapeutic innovation. NSF DGE GK-12 Teaching Fellowship NIH NCI F32 Postdoctoral Fellowship Dr. Wang teaches undergraduate and graduate courses such as The Bionic Human , Introduction to Bioengineering , and Mechanobiology . While specific advisees are not listed, she leads the Wang Mechanobiology Lab , where she mentors students in interdisciplinary research. Her collaborations with prominent researchers like Mitchell, Fischbach, and Gourdon suggest strong grant funding and team-based science. Future work is likely to expand on mechanobiological insights to develop novel biomaterials and targeted therapies. Her lab, the Wang Mechanobiology Lab , focuses on engineering reductionist models to probe how fibronectin regulates cell behavior through mechanical cues. The lab employs interdisciplinary tools from bioengineering and physics to uncover drivers of physiological and pathological processes.
Abdullah A. A. Ahmed is an Associate Professor in the Department of Physics at Thamar University, Yemen. He earned his Ph.D. from Universiti Putra Malaysia (UPM) in 2012 and served as a postdoctoral fellow there before returning to Yemen in 2013. He has been actively contributing to materials science research, particularly in nanomaterials, optoelectronics, energy storage, and hydrogen storage applications. Ph.D.: Universiti Putra Malaysia (UPM), 2012 Postdoctoral Fellowship: Universiti Putra Malaysia Appointment: Assistant Professor, Thamar University (2013) Promotion: Associate Professor (2019–2020) Dr. Ahmed's research spans advanced materials for energy and medical applications. His work includes the development of biopolymer electrolytes for supercapacitors, DFT studies on perovskite materials, photocatalytic nanocomposites, and nanomaterials for anticancer therapy. He frequently employs techniques such as co-precipitation, electrodeposition, and spectroscopic analysis. His recent publications (2021–2025) show a strong trend toward sustainable energy materials, including hydrogen storage in perovskite hydrides, supercapacitors using biopolymers, and photocatalytic nanocomposites for environmental remediation. There is also a growing interest in biomedical applications of nanomaterials and brain interfacing technologies. Dr. Ahmed serves as a Review Editor for Frontiers in Chemistry in the field of Medicinal and Pharmaceutical Chemistry, contributing to peer review and academic discourse. He has advised graduate students such as Annas Al-Sharabi and Ahmed Al-osta, both affiliated with Thamar University. While no specific grants are mentioned, his extensive publication record suggests active research funding and collaboration. His work is conducted within a collaborative network involving researchers from Malaysia, Saudi Arabia, India, and other international institutions, focusing on cutting-edge materials for energy, environment, and health applications.
Noelia Dominguez Falcon is a Lecturer in Biomedicine at the School of Biological Sciences, University of East Anglia (UEA), where she joined in September 2022 after completing her PhD and serving as a senior research associate. Her academic journey began with a BSc in Marine Biology from the Catholic University of Valencia, followed by an MRes in Biomedicine from the Polytechnic University of Valencia, and culminated in a Doctor of Science in Tissue Engineering and Regenerative Medicine from UEA. She also holds a PgCert in Higher Education Practice and is a Fellow of the Higher Education Academy. Bachelor of Science, Marine Biology – Catholic University of Valencia (2012) Master of Research, Biomedicine – Polytechnic University of Valencia (2014) Doctor of Science, Tissue Engineering and Regenerative Medicine – University of East Anglia (2020) PgCert Higher Education Practice – University of East Anglia (2023) Her research focuses on tendon biology and regenerative medicine, particularly the use of stem cells, 3D printing, and biomaterials to engineer artificial tendon constructs. She investigates cellular signaling, tenogenic differentiation, and the role of growth factors such as BMP-12 and TGF-β1 in tendon regeneration. Her work integrates polymer chemistry, material science, and cell biology to develop innovative medical implants. The recent publications highlight a strong trend in regenerative biomaterials, especially in tendon and bone tissue engineering, with applications in stem cell differentiation and gene regulation. Her work spans from fundamental cell biology to applied biomaterial design, with a focus on translational outcomes. Her scientific achievements have been recognized through several awards: UEA Engagement Award (2022) for excellence in public engagement via her podcast “I belong here” Part of winning team for UEA Innovation and Impact Award (2020) Finalist in Biorender Graphical Abstract Contest (2020) 3rd prize in UEA 3-Minute Thesis Competition (2021) 2nd prize for best oral presentation at Postgraduate Education Conference (2019) She actively mentors students through research projects and teaches across multiple modules in Biomedicine and Biological Sciences. She also leads public engagement initiatives, notably founding and hosting the “I belong here” podcast, which profiles female scientists globally and promotes diversity in STEMM. She has delivered outreach talks at schools and universities and has been featured in BBC Radio Norfolk, Hello Bio, and UEA’s Equality and Diversity blog. Her administrative roles include Deputy Senior Advisor, Social Media Officer, and membership in several school committees focused on wellbeing, equality, and international teaching. She leads a public engagement lab through her podcast initiative and collaborates with interdisciplinary teams across UEA, including in the School of Pharmacy. Her outreach efforts form a key component of her scholarly profile, extending her impact beyond traditional research outputs.
Arnau Carne Sanchez is a researcher in the Department of Chemistry. He serves as Principal Investigator for the active project LiMOPs: Porous liquids to capture and convert CO₂ (2025–2027). His research focuses on metal-organic polyhedra (MOPs), metal-organic frameworks (MOFs), and their applications in catalysis, material science, and surface engineering. Key areas include designing porous materials, functionalizing surfaces via click chemistry, and developing recyclable catalytic systems. His work contributes to UN Sustainable Development Goal 13 (Climate Action) through CO₂ capture technologies. Collaborations span material characterization (e.g., crystal structures deposited at the Cambridge Crystallographic Data Centre) and interdisciplinary partnerships in catalysis and nanomaterials. Recent publications highlight advancements in oligomeric porous cages, meltable MOPs for mixed-matrix composites, and post-synthetic aerogel modifications. His research bridges fundamental chemistry with applied materials innovation.
Mohammadbagher Fathi is a Research Fellow in Geometallurgy/Engineering Geology at the University of Tasmania's School of Natural Sciences, part of the CODES (Centre for Ore Resource Engineering) research group. He holds a PhD in Mining & Mineral Processing from Amirkabir University of Technology, Iran, and previously served as an Assistant Professor at Urmia University's Mining Engineering Department from 2012 to 2022. His research focuses on hydrometallurgy, separation technologies, and mineral processing, with a particular emphasis on critical minerals recovery and sustainable processing methods. He is a key researcher in the Regional Research Collaboration (RRC) project's Element 2: Pathways to Production of Critical Minerals. Education: PhD in Mining & Mineral Processing, Amirkabir University of Technology, Iran Research Interests: Critical minerals recovery (e.g., rhenium, tungsten, cobalt) Hydrometallurgical and physical beneficiation techniques Adsorption and ion-exchange processes Flotation optimization and machine learning-driven process modeling Environmental sustainability in mineral processing Grants & Collaborations: Lead researcher in the $3.5M Australian Government-funded 'Regional Research Collaboration' project (2022–2027), collaborating with industry and government partners to advance critical metals production. Supervision: Current doctoral supervision includes projects on critical metal potential in Tasmanian deposits (e.g., Arthur River Magnesite, Kara W deposit). Labs/Teams: Member of CODES at the University of Tasmania, specializing in ore resource engineering and critical minerals research.
Andrew P. Murray is a Professor and Director of Mechanical Engineering Graduate Programs in the Department of Mechanical and Aerospace Engineering at the University of Dayton's School of Engineering. He has been a full-time faculty member since 1997 and leads the Design of Innovative Machines Lab (DIMLab), focusing on machine design and kinematic synthesis theory. Ph.D. in Engineering, University of California, Irvine (1996) M.S. in Engineering, University of California, Irvine (1993) B.S. in Mechanical Engineering, Rose-Hulman Institute of Technology (1989) His research spans machine design, kinematics, robotics, and biomechanics , with applications in continuum robots, assistive tricycles for FES-stimulated riders, variable-geometry dies, and strain-energy mechanisms. He employs advanced geometric and computational methods to solve complex motion synthesis and mechanism design problems. His collaborative work includes long-standing partnerships with Dave Myszka and researchers at the Laboratoire d’Informatique, de Robotique et de Microélectronique in Montpellier, France. The recent trend in his publications (2016–2024) reflects a strong focus on kinematic synthesis of planar and spatial mechanisms , particularly four-bar and six-bar linkages, with increasing emphasis on biologically inspired and medical applications such as FES cycling and continuum robotics. His work combines theoretical rigor with experimental validation, often published in top-tier journals like the ASME Journal of Mechanisms and Robotics and IEEE Robotics and Automation Letters . His scientific honors include: ASME Fellow (2014) A.T. Yang Memorial Award in Kinematics (2023) University of Dayton Alumni Award for Faculty Teaching (2013) Best Paper Award, ASME Mechanisms and Robotics Conference (2006) Multiple teaching excellence awards from student organizations Dr. Murray has advised numerous students and mentored research in the DIMLab. He has secured research grants supporting innovation in mechanical design and has served in key academic roles, including General Program Chair for the ASME International Design Engineering Technical Conferences (2010) and Associate Editor for the ASME Journal of Mechanisms and Robotics since 2009. He teaches graduate and undergraduate courses such as Theory of Machines, Kinematics of Mechanisms and Robots, and Computational Methods for Design. He directs the Design of Innovative Machines Lab (DIMLab) , which fosters interdisciplinary research in mechanism design, combining theoretical development with practical prototyping and application in assistive technology, aerospace, and manufacturing.
Shuiqin Zhou is a Professor in the Department of Chemistry at the College of Staten Island, City University of New York (CUNY). She earned her Ph.D. from The Chinese University of Hong Kong and conducted postdoctoral research at SUNY Stony Brook. She joined CSI in 2002 as an Associate Professor and was promoted to Professor in 2008. Her research is centered on the design and application of responsive nanomaterials for biomedical use. Education: Ph.D., The Chinese University of Hong Kong M.S., Xiamen University, China B.S., Xiamen University, China Her research interests focus on nanomaterials for biosensing, bioimaging, and drug delivery . She specializes in glucose-sensitive nanoparticles, hybrid nanogels, carbon dots, magnetic nanoparticles, and self-regulated insulin delivery systems. Her work integrates polymer chemistry, materials science, and nanotechnology to develop smart, multifunctional platforms for medical applications, particularly in diabetes and cancer therapy. Her recent publications (2023–2024) continue to explore catalytic microgels, yolk-shell structures, and carbon-based nanozymes, demonstrating sustained research activity and leadership in functional nanomaterials. The articles highlight trends toward multifunctional, biocompatible, and stimuli-responsive systems with applications in environmental catalysis, cancer therapy, and biosensing. She has published over 116 papers in high-impact journals such as Chemical Society Reviews , ACS Applied Materials & Interfaces , and Advanced Functional Materials . Her collaborative work includes extensive co-authorship with researchers in nanomedicine and materials chemistry. Advising and Grants: While specific student names and grants are not listed in the provided text, her extensive publication record and leadership in research suggest active mentorship of graduate students and postdoctoral researchers. Her work likely involves funding from federal and private sources supporting nanotechnology and biomedical research. Labs and Teams: She leads a research group at CSI focused on the synthesis and characterization of responsive hybrid nanomaterials, utilizing techniques such as light scattering and X-ray scattering for nanostructure analysis.
Arthur P Baddorf is a Senior Research Scientist at the Scanning Tunneling Microscopy Group within the Center for Nanophase Materials Sciences (CNMS) at Oak Ridge National Laboratory (ORNL). With over 35 years of experience in nanoscale materials research, he specializes in surface/interface physics , electron excitations , and quantum material synthesis . Education: B.A. in Math and Physics from Wheaton College (1980), Ph.D. in Physics from University of Pennsylvania (1987) His research focuses on atomic-scale property mapping using advanced microscopy techniques like scanning tunneling microscopy (STM) and atomic force microscopy (AFM) . Key areas include ferroelectric switching , 2D material assembly , and energy transport mechanisms at the nanoscale. Recent publications highlight work on quantum material creation , defect-engineered catalysts , and intercalation dynamics in MXenes . His group operates over 15 high-precision microscopes for atomic-level analysis. Scientific Awards : Fellow of the AVS (2017) Cosslett Award (2008) ORNL Team Accomplishment Award (2006) ORNL Science and Technology Award (2006) He serves on multiple advisory committees including the µAtoms EFRC (2023-present) and the Nanomaterials Editorial Board (2020-present), while also contributing to instrumentation patents related to semiconductor compositions and ferroelectric memory devices.
