Dr. Maxim Igaev is a Principal Investigator in the Division of Computational Biology at the University of Dundee since October 2024. He previously held a Project Group Leader position at the Max Planck Institute for Multidisciplinary Sciences (Göttingen, Germany) from 2017 to 2024, where he focused on microtubule mechanics and cryo-EM methods. Education: PhD in Neurobiology and Biophysics (University of Osnabrück, 2016), MSc in Physics (Lobachevsky State University, 2012), BSc in Physics (Lobachevsky State University, 2010) Research Interests: His work centers on microtubule self-assembly , kinetochore-microtubule interactions , and stochastic force transduction in mitosis . He integrates multiscale simulations with microscopy and biochemistry to model chromosome segregation. Scientific Awards: Academy of Medical Sciences Springboard Award (2025) DFG Individual Research Grant (2017) Associate Member, Max Planck Research School (2023) Thesis Advisor, University of Göttingen (2023) Collaborations: Works with global institutions including the University of Göttingen and the SLS (School of Life Sciences) at Dundee. His 2024 projects include developing tailored modulators of spindle mechanochemistry for cancer therapy.
Yan Xia is an Associate Professor in the Department of Chemistry at Stanford University, School of Humanities and Sciences, where she conducts cutting-edge research in polymer chemistry and materials science. She currently teaches courses such as CHEM 121, CHEM 91, and CHEM 223, and supervises numerous independent research projects across undergraduate and graduate levels. Her research focuses on the design and synthesis of advanced polymeric materials with tailored mechanical, electronic, and environmental response properties. Key areas include mechanochemistry , degradable polymers , ladder polymers , stimuli-responsive hydrogels , and microporous membranes for gas separation. Her work integrates synthetic organic chemistry with polymer physics to create sustainable and functional materials. The most recent publications highlight a strong trend toward circular materials , with innovations in frontal curing , chemical recycling of thermosets , and ambient depolymerization . Other major themes include mechanophore design , force transduction in polymers , and high-performance gas separation membranes derived from rigid ladder architectures. Her research often bridges fundamental molecular insights with practical applications in energy and sustainability. Dr. Xia actively mentors students through directed research, Ph.D. supervision (MATSCI 300, CHEM 301), and advanced independent studies. She has secured continuous research activity as evidenced by her sustained publication output and course offerings. While no specific grants are listed, her program clearly supports extensive experimental and collaborative work. Her lab appears to focus on dynamic covalent systems , mechanoresponsive materials , and functional porous polymers , likely operating within interdisciplinary teams involving chemistry, materials science, and engineering disciplines at Stanford.
Molla Islam is an Assistant Professor in the Department of Biological Sciences at Schmid College of Science and Technology, Chapman University. His research focuses on the structure-property relationships of polymeric materials for biomedical applications, particularly designing micro/nanogels with controlled shape, size, and chemical/physical properties for drug delivery and sensing. Education: B.Sc. in Biological Sciences from Shahjalal University of Science and Technology M.Sc. in Biotechnology from Shahjalal University of Science and Technology Ph.D. in Materials Science from Carleton University Islam's work explores responsive polymeric systems for healthcare, emphasizing stimuli-sensitive materials and their applications in biosensing. His publications highlight advancements in nanogel synthesis, deswelling dynamics, and optical sensing devices. Key themes in his research include: Development of thermoresponsive and pH-sensitive micro/nanogels Photothermally driven optical property changes Structured materials for biosensing (DNA, RNA, proteins) Defect tolerance in microgel assemblies
Folkert de Vries is a Researcher at the Stratingh Institute for Chemistry within the Faculty of Science and Engineering at the University of Groningen . His work spans interdisciplinary areas of chemistry, focusing on electrochemistry, catalysis, and asymmetric synthesis. Research Interests: NMR Spectroscopy, Density Functional Theory, Spin State Analysis, Amino Acids Reactivity, and Metal-Ligand Cooperation. His recent publications highlight trends in Electrochemical Energy Engineering and Organic Catalysis , particularly in battery technology, polymerization mechanisms, and chiral amplification in water. Collaborative datasets (48 total) reflect contributions to crystal structure determination and computational modeling. Collaborators include Prof. Ben Feringa (University of Groningen), Prof. E. Otten (University of Groningen), and S. R. Harutyunyan (University of Groningen). Research outputs include 10 peer-reviewed articles and extensive data sharing via repositories like the Cambridge Crystallographic Data Centre.
Raffaele Ciardiello is a Fixed-term tenure-track assistant professor at the Department of Mechanical and Aerospace Engineering (DIMEAS) at Polytechnic University of Turin, where he is also a member of the Interdepartmental Center J-Tech@PoliTO. His contact information includes phone number +39 0110906913 and email raffaele.ciardiello@polito.it. His research interests focus on adhesive joints, composite material design, manufacturing and testing, reversible and/or separable adhesives, and static and dynamic testing of composite materials. His scientific disciplinary sector is IIND-03/A - Mechanical Design and Machine Construction within Area 0009 - Industrial and Information Engineering. Prof. Ciardiello's recent publications demonstrate a strong focus on sustainable composite materials, structural health monitoring, and advanced adhesive technologies. His work bridges fundamental materials science with practical applications in automotive and aerospace engineering, particularly in crashworthiness and structural integrity assessment. PLEIADES project (2025-2027) - Scientific Manager: Advancing aerospace composites through induction welding and new vitrimeric formulations enhanced by integrated photonic sensors Feasibility Study of Adhesive Joints for Aluminum Components Subject to Different Temperatures (2025-2026) - Scientific Director Support for characterization of green structural polymeric materials within the Byond project (2025) - Research group member He supervises PhD student Samuele Sampino in Mechanical Engineering (38th cycle, 2023-ongoing) and has filed multiple patents including a low-cost force sensor with interchangeable measuring unit, polymeric instruments for endodontic shaping, and an automated system for separating/bonding adhesives modified with electromagnetic nanoparticles.
Bodhisattwa Chaudhuri is a faculty member in the Department of Pharmaceutical Sciences at the University of Connecticut's School of Pharmacy. His research bridges computational modeling and pharmaceutical manufacturing, focusing on multiscale approaches to materials science, drug delivery, and process optimization. Education: B.E. in Chemical Engineering (Jadavpur University), M.S. in Chemical Engineering (Indian Institute of Science), Ph.D. in Mechanical Engineering (New Jersey Institute of Technology), Postdoctoral Training in Chemical and Biochemical Engineering (Rutgers University) His work integrates Molecular Dynamics (MD) and Discrete Element Method (DEM) simulations with Computational Fluid Dynamics (CFD) to address challenges in pharmaceutical systems. Key areas include: Aggregation behavior of viral vectors like AAV8 AI/ML applications for biopharmaceutical process prediction 3D printing of tablets and freeze-thaw stability of biologics Tribotechnical challenges in powder systems The 15 most recent publications highlight his focus on computational modeling (MD, CFD, DEM) for pharmaceutical processes, machine learning applications in stability prediction, and multiscale studies of drug delivery systems like lipid nanoparticles and polymeric micelles. His work spans both fundamental research and industrial translation. Contact: bodhi.chaudhuri@uconn.edu | Personal Website
Welcome to the spintronics and nanoelectronics research group led by Prof. Dr. Jairo Sinova at the Institute of Physics , Johannes Gutenberg University Mainz . The group specializes in condensed matter theory , focusing on spintronics and mesoscopic electronic transport . Their work explores the coupling of spin and charge degrees of freedom in materials, with major contributions to spin Hall effects and diluted magnetic semiconductor physics . Coordinates DFG-funded Priority Program on "Unconventional Magnetism" ERC Synergy Grant recipient for interdisciplinary organic spintronics collaboration Prominent publications in Nature Physics , Nature Electronics , and Physical Review journals Research philosophy emphasizes multi-scale modeling , from first-principles calculations to semi-classical simulations using software like VOTCA-STP , Quantum ESPRESSO , and ORCA . The group maintains collaborations with leading institutions including Cambridge University , Imperial College London , and Max Planck Institute for Polymer Research . Recent publications demonstrate expertise in: Molecular spin dynamics Spin-orbit coupling quantification Organic semiconductor modeling Antiferromagnetic-ferromagnetic hybrid systems Magnetic skyrmion stability analysis Spintronic interface optimization Scientific honors include: Alexander von Humboldt Professorship Leadership of DFG Priority Program (8M€ funding) ERC Synergy Grant coordination The group actively mentors students and early-career researchers, with several members receiving institutional recognition through: PhD thesis defenses (Tobias Wagner, V.K. Bharadwaj) Master thesis completions (Tobias Wagner, Bennet Karetta) Marie Skłodowska-Curie Fellowship (Pieter Gunnink) Operating in a state-of-the-art facility at Staudinger Weg 7, Mainz, the team combines theoretical physics with computational materials science to develop next-generation spintronic technologies.
Dr. James Hansell Adair is a Professor of Materials Science and Engineering, Biomedical Engineering, and Pharmacology at The Pennsylvania State University's College of Earth and Mineral Sciences. His research focuses on colloid and interfacial chemistry, material synthesis, and powder processing with applications in nanomedicine. With over 185 publications and twelve patents, Dr. Adair leads innovative work in nanoparticle drug delivery systems and nanograin materials development. Dr. Adair received his educational foundation at the University of Florida, earning his B.S. in Chemistry, followed by M.S. and Ph.D. degrees in Materials Science and Engineering. He furthered his expertise as a Fulbright Post-doctoral Fellow at the University of Western Australia in the Department of Soil Science and Plant Nutrition and the Royal Perth Hospital. Ph.D. in Materials Science and Engineering, University of Florida M.S. in Materials Science and Engineering, University of Florida B.S. in Chemistry, University of Florida Fulbright Post-doctoral Fellow, University of Western Australia (1981-1982) Dr. Adair's research spans multiple areas including 2D materials, additive manufacturing, biomaterials, ceramics, nanomaterials, and optical materials. His work particularly focuses on colloidal manipulation of nanoscale particulates (sub-50nm) for drug and bioimaging applications. He develops bioresorbable calcium phosphate, nanoporous silica, and calcium phosphosilicate particulates into which medically active substances including drugs, genetic material, peptides, proteins, and fluorescent molecules are captured. His team produces nanograin ceramics with grain sizes of 50-70 nanometers and nanograin metals at 20-40nm scale, with applications ranging from drug delivery to miniaturized surgical instruments. Dr. Adair's recent publications demonstrate a strong focus on nanomedicine applications, particularly in cancer treatment and cardiovascular disease. His work bridges materials science with biomedical applications, developing targeted nanoparticle systems for drug delivery, imaging, and disease monitoring. Key themes include VCAM-1 targeting for atherosclerosis, CCK receptor inhibition for pancreatic cancer, and reactive oxygen species-triggered drug release mechanisms. His research shows a clear trajectory toward increasingly sophisticated nanomedical applications with clinical relevance. Fellow, American Ceramic Society Fellow, World Academy of Ceramics Fellow, American Chemical Society Fellow, Materials Research Society Academician, Science Division of the World Academy of Ceramics (2005) International Men of Achievement (1996) Outstanding Collaborative Research Team (2015) Dr. Adair has secured significant research funding from the National Science Foundation and other agencies. His grants include projects on ceramic cellular contact-aided compliant mechanisms, electron energy loss imaging filters, and phase stability of inorganic materials. He has mentored numerous graduate students across Penn State's Intercollege Graduate Degree Program in Materials Science and Engineering, with many publications featuring student co-authors. His research group operates within the Particulate Materials Center, focusing on nanocolloids for medical applications. Dr. Adair leads research in the Particulate Materials Center at Penn State and is affiliated with multiple institutes including the Materials Research Institute (MRI), Penn State Cancer Institute, and One Health Microbiome Center. His collaborative work spans across disciplines, integrating materials science with biomedical engineering and pharmacology. He serves on the Faculty Senate and has held leadership positions in the American Ceramic Society, including past Chair of the Basic Science Division.
Paweł Łukasz Groch is an Assistant Professor at the University of Opole , affiliated with the Faculty of Chemistry and the Department of Chemical Technology and Polymer Chemistry . He works within Krystyna Czaja's Lab, focusing on polymer synthesis and characterization. His academic profile is verified via institutional email, reflecting active engagement in research and teaching. University of Opole (2014–2019), Ph.D. in Chemistry Wrocław University of Science and Technology (2013–2014), Chemistry studies University of Opole (2011–2013), Chemistry studies His research spans polymer chemistry , catalysis , and materials science , particularly ethylene copolymerization with silsesquioxane-based comonomers. Key areas include thermal stability, metallocene/post-metallocene catalysts, and POSS incorporation into polymer chains. Publications highlight copolymerization mechanisms, comonomer distribution effects, and advanced polymer architectures. Recent articles demonstrate expertise in hybrid polymeric materials , functional nanocarriers , and catalyst optimization . Collaborations include institutions like Wrocław University of Science and Technology and Polish Academy of Sciences, with citations from international researchers in polymer and materials science.
Professor Yordan T. Maksimov serves at Technical University - Gabrovo's Faculty of Mechanical Engineering within the Department of Materials Science and Mechanics of Materials. Holding full professorship since 2004 (previously Associate Professor since 1995), he specializes in mechanical engineering with focus on metal fatigue enhancement and surface engineering. His educational background includes mechanical engineering graduation (1985), Candidate of Technical Sciences (1990), and Doctor of Technical Sciences (2003). Research interests center on Mechanics of Materials , Surface Engineering , and Fatigue Durability Enhancement through patented metalworking methods. His work integrates CAE systems in continuum mechanics with experimental validation. Analysis of his 15 most recent publications (2022-2024) reveals dominant themes in surface integrity optimization (79%), fatigue-strength correlation (68%), and advanced burnishing techniques (100%), primarily using AISI 304/316 steels and aluminum alloys. His methodology consistently combines experimental testing with FEM modeling. Gold Medal, Brussels Inventions Exhibition (2011) Academician, Ukrainian Academy of Sciences (2013) Medal from Ukrainian Academy Presidium (2019) Multiple national invention awards (1984-2014) As principal investigator, he has directed 22 national and 5 European research projects while supervising 12 doctoral students to completion. His laboratory complex at the Intelligent Growth Center provides industrial metal testing services. Current work focuses on cryogenic-assisted burnishing and multi-objective process optimization for aerospace components.
Đorđe Janaćković is a Full Professor at the Department of Inorganic Chemical Technology within the Faculty of Technology and Metallurgy at the University of Belgrade. He was elected to this position on July 15, 2009, and has maintained an active research and teaching career since then. His office is located in the large building of TMF at room 002a, and he can be contacted via email at nht@tmf.bg.ac.rs or by phone at 011/3370489. Professor Janaćković's research focuses on the synthesis and characterization of modern ceramic materials, with particular emphasis on surface and sorption properties, sintering kinetics and mechanisms, phase transformations in ceramic materials, nanostructured ceramics, bioceramics, and building materials technology. His work bridges fundamental materials science with practical applications in biomedical engineering, dentistry, and construction industries. The analysis of his recent publications reveals a strong focus on hydroxyapatite-based biomaterials, particularly for dental and orthopedic applications. His research explores ion doping (Ag+, Cu2+, Zn2+, Sr2+), composite formation with other ceramics like zirconia, and the development of antimicrobial properties in bioceramics. The publications demonstrate expertise in advanced sintering techniques including microwave sintering and Spark Plasma Sintering, with applications ranging from dental inserts to bone substitutes. 2nd place in the competition for the best technological innovation in Serbia 2011 (team NANOFGM) Special award for the largest team in the competition for the best technological innovation in Serbia 2014 (team EKOARMATURA) Professor Janaćković has successfully mentored numerous students at all academic levels, from bachelor's to doctoral degrees, with a particular focus on biomaterials, ceramics, and nanotechnology. He has led and participated in numerous research projects, including EU-funded initiatives like NANOTECH FTM (FP7-REGPOT-2009-1) and domestic projects funded by the Ministry of Science and Technological Development of Serbia. His research has been supported by significant grants focusing on functional nanomaterials, bioceramics, and advanced ceramic processing techniques. He played a key role in establishing the Center for Nanotechnology and Functional Materials at the Faculty of Technology and Metallurgy, which was accredited as a Center of Exceptional Values in 2013. His professional activities extend beyond research to include editorial board membership for the Chemical Industry and Chemical Engineering Quarterly journal and leadership roles within the Serbian Chemical Society.
Miloš Petrović is an Associate Professor at the Department of General Technical Sciences, Faculty of Technology and Metallurgy, University of Belgrade. His primary expertise lies in Electrical Engineering , with teaching responsibilities spanning courses such as Technical Physics , Modern Measurements in Technology , and Electrical Engineering with Electronics . He was elected to this position on November 14, 2022, and maintains an active academic role with no indication of part-time status. His research focuses on interdisciplinary areas including: Materials Science : Nanocomposites (MXene, polymer blends), biomaterials for dentistry, and sustainable materials. Electronics & Measurement : Electrochemical synthesis, supercapacitors, and digital monitoring systems. Applied Physics : Technical physics, materials processing for optoelectronics, and intelligent systems. Recent publications (2024-2025) emphasize nanocomposite innovation , particularly in dental polymers, energy storage electrodes, and 3D-printed biomedical scaffolds, with recurring themes of MXene functionalization and mechanical/thermal property enhancement. He mentors graduate and undergraduate students, advising projects such as: Digital monitoring systems for water treatment (Nina Marković, 2024). Electrochemical synthesis of polyaniline electrodes (Jelena Gojgić, 2021). Radon exhalation studies (Marko Drašler, 2020). No scientific awards, grants, or laboratory affiliations are documented in available sources.
Professor Rowena Ball is a distinguished academic at the Australian National University (ANU) within the Mathematical Sciences Institute . Her work bridges applied mathematics , physical chemistry , and nonlinear dynamical systems , with groundbreaking contributions to the origin of life and Indigenous science . PhD (1997), BSc Hons I + University Medal (1993) from Macquarie University Awarded ARC Future Fellowship (2010–2016), Lagrange Fellowship (2005), and ARC Postdoctoral Fellowship (2000–2003) Key research areas include: Prebiotic Chemistry: Hydrogen peroxide-driven RNA replication, thermochemical oscillators, and polymer decomposition Indigenous Knowledge Systems: Decolonizing STEM curricula and mapping Indigenous agricultural patterns via satellite Thermodynamic Engineering: Endex calcium looping for CO2 capture and combustion efficiency optimization Her recent publications focus on anomalous thermal fluctuations , chiral symmetry in prebiotic molecules , and nonlinear feedback in biomass combustion . Scientific accolades include peer-reviewed recognition in Journal of the Royal Society Interface , Astrobiology , and Physical Chemistry Chemical Physics . Professor Ball actively supervises projects in: Mathematical modeling of Indigenous cultural practices Thermochemical systems for carbon sequestration Dynamical models of plasma turbulence and fusion energy
Leon Govaert is a Professor at the Eindhoven University of Technology in the College of Engineering , specifically the Mechanical Engineering department. He also holds a professorship in Mechanics of Polymeric Materials at the University of Twente 's Faculty of Engineering Technology , focusing on time-dependent failure of thermoplastic composites. His work centers on connecting microstructure to mechanical behavior in polymers and composites.
Nick Jaensson is an Assistant Professor in the Processing and Performance of Materials group within the Department of Mechanical Engineering at Eindhoven University of Technology (TU/e). He leads Group Jaensson and is affiliated with the Institute for Complex Molecular Systems (ICMS). His work bridges computational methods with experimental validation to advance understanding of soft materials and complex fluids. Jaensson earned his Master's degree in Biomedical Engineering from TU/e in 2012, followed by a PhD in Mechanical Engineering in 2016 with a thesis titled "Modeling interfaces and particles in viscoelastic fluids." After a year at DSM Materials Science Center, he conducted postdoctoral research at ETH Zürich before returning to TU/e as an Assistant Professor in mid-2020. His research focuses on the development and application of numerical methods for soft materials including suspensions, emulsions, and polymeric liquids. Key interests include interfacial rheology, non-Newtonian fluid mechanics, uncertainty quantification, and physics-informed machine learning. His work combines advanced computational modeling with experimental collaboration to gain fundamental insights into flow and transport processes within these materials, with applications ranging from microfluidics to large-scale industrial processing. Analysis of his recent publications reveals a strong emphasis on fiber orientation kinetics in polymer composites, viscoelastic flow modeling, and the integration of machine learning with physics-based models. His work spans both fundamental fluid dynamics and practical industrial applications, with particular attention to experimental validation of computational models. Jaensson contributes to several research projects including the Dutch Polymer Institute (DPI) Project No. 840 (ANGLE) and the DAMOCLES research project funded by the Eindhoven Artificial Intelligence Systems Institute. His work demonstrates strong industry-academia collaboration, particularly with companies involved in polymer processing and material science. As an educator, Jaensson teaches courses including Interfacial Transport Phenomena in Engineering Flows, Structure and Flow, Advanced Computational Continuum Mechanics, and Principles of Design and Programming. He leads research in the Processing and Performance group, focusing on computational methods for soft materials, with particular strength in connecting microstructural properties to macroscopic material behavior.
