Dr. Liuliu Han is a Researcher and Project Group Leader at the Max Planck Institute for Sustainable Materials, leading the Department of Microstructure Physics and Alloy Design. His work focuses on designing multifunctional high-entropy materials, advancing sustainable material design through artificial intelligence, and studying microstructure-mechanical property relationships in advanced alloys. He spearheads the 'De magnete - Designing Magnetism on the atomic scale' initiative, exploring novel magnetic materials with exceptional mechanical performance. His research integrates experimental techniques like atom probe tomography with computational methods for predictive material design. Key research areas include high-entropy alloy development, magnetism optimization, and thermodynamics-guided alloy discovery. Dr. Han’s team employs machine learning to enhance material sustainability, optimize microstructural features, and balance mechanical properties such as strength and ductility. His group also investigates nanostructured magnets, Widmanstätten precipitates, and thermal stability in high-performance materials. Dr. Han’s address is at the Max Planck Institute for Sustainable Materials in Düsseldorf, Germany. He actively publishes in top-tier journals and collaborates internationally. Contact details include liuliu.han@... and professional links to Google Scholar and LinkedIn.
Jonathan Dong is an Associate Professor in the School of Civil and Mechanical Engineering at Curtin University, part of the Faculty of Science and Engineering. He holds positions in the Office of the Provost and is based at the Curtin Perth campus. His academic qualifications include a BSc and MSc from Tianjin and a PhD from Florida State University. His research focuses on advanced materials, including hybrid composites, nanocomposites, and manufacturing processes. Teaching areas include materials design, manufacturing system modeling, and metrology. Dr. Dong has authored numerous publications on composite materials, nanotechnology, and additive manufacturing applications.
Dr. Mosayeb Davoudi Kashkouli serves as a Lecturer in Engineering Technologies at the University of the West of England, affiliated with the Department of Engineering Design and Mathematics within the Faculty of Environment and Technology. His interdisciplinary work bridges artificial intelligence, mechanical engineering, and biomedical innovation through active collaborations with Airbus UK, Bristol Robotic Laboratory, and healthcare manufacturing networks. His educational foundation includes: PhD in Mechanical Engineering Master's in Data Science Research focuses on AI-driven engineering solutions with emphasis on: Predictive maintenance systems using machine learning for Remaining Useful Life (RUL) forecasting Biomedical applications including nano/micro materials design for wound care and prosthetics via 3D/4D printing Computer vision techniques for real-time object detection and video inpainting Redistributed manufacturing in healthcare ecosystems Publication trends reveal a strategic pivot from mechanical engineering (2014-2019 pressure vessel creep analysis) to contemporary AI/computer vision research, exemplified by 2024 work on synthetic data for low-resolution object detection. This evolution demonstrates increasing focus on machine learning applications for industrial and healthcare challenges. Current funding includes leadership of a New Starter Researcher Development Scheme project (2023-2026) on predictive maintenance. Key collaborations span: Airbus UK for industrial applications Big Data Enterprise and Artificial Intelligence Laboratory for algorithm development Redistributed Manufacturing in Healthcare Network (RiHN) Bristol Robotic Laboratory (BRL) for robotics integration He actively contributes to the Big Data Enterprise and Artificial Intelligence Laboratory and Bristol Robotic Laboratory, driving projects that merge robotics, AI, and healthcare innovation through interdisciplinary team structures focused on intelligent manufacturing systems.
Imen HNID is an Associate Professor at Polytech Lille and the Institut d’Électronique, de Microélectronique et de Nanotechnologie (IEMN) in Lille, France. She teaches physical chemistry of materials and leads research in nanoscience, molecular electronics, and nanotechnologies, including the project Evolving electronic transport in molecules/nanoparticles networks (EVOLMONET) . Her work employs scanning probe microscopy (Conducting-AFM) and focuses on surface functionalization, electronic properties of photoactive molecules, and nanoscale device engineering. Education PhD in Nanosciences, Materials, Surfaces – University of Paris (2017–2021) MSc in Inorganic Chemistry – Molecules, Surfaces, Nano-objects – University of Paris Saclay (2016–2017) Engineering Degree in Analytical Chemistry & Instrumentation – University of Tunis-El Manar (2012–2016) Research Focus Her investigations span: Scanning probe microscopy for electronic characterization Design of light-responsive molecular switches and junctions Self-assembled monolayers for nanodevices Coordination chemistry in molecular wires Terahertz-scale molecular electronics Publication Trends Recent articles emphasize molecular junctions , terahertz devices , and photoactive switches , with innovations in ON/OFF ratio optimization, electronic transport in diarylethene systems, and nanoscale characterization techniques. Her work consistently bridges synthetic chemistry with device physics. Awards 2nd PhD Thesis Award (René Dabard – ENSCR 2022) Best PhD Thesis Prize (SCF-IdF 2022) Research Scholarship (Tunisian Ministry of Education, 2016) Affiliation & Team She collaborates within the NCM research group at IEMN, specializing in nanoscale materials and electronic devices.
Delphine Cabaret is a Professor of Physics at Sorbonne University, Faculty of Science and Engineering, working at the Institute of Mineralogy, Physics of Materials and Cosmochemistry (IMPMC). She is affiliated with Section CNU 28 and maintains her office at Campus Pierre et Marie Curie, 4 place Jussieu, Paris. Her research focuses on core-level excitation spectroscopies including X-ray absorption spectroscopy (XAS), X-ray Raman scattering (XRS), and related techniques. She investigates electronic structural properties of paramagnetic 3d impurities in large gap insulators, structural properties of oxide glasses and minerals, and the impact of quantum thermal fluctuations of nuclei on spectroscopic measurements. Her work involves both experimental studies at synchrotron facilities and theoretical modeling. Prof. Cabaret's recent publications demonstrate her expertise in analyzing temperature effects on multipole contributions in core-level spectroscopies, X-ray Raman scattering applications, and high-pressure studies of spin crossover phenomena. Her research bridges experimental spectroscopy with advanced computational methods to understand materials at the atomic level. Best poster award at XAFS-2018 conference Best poster award at XAFS-X conference (Chicago, 1998) She actively supervises research and has presented her work at numerous international conferences. Her teaching responsibilities include coordinating the Master's program in Materials Science and Nano-objects (Nanomat), teaching crystallography and diffraction techniques, and developing educational resources including a SPOC (Small Private Online Course) on geometric crystallography.
Dr. Chengcheng Tao is an Assistant Professor in the School of Construction Management Technology within Purdue University's Polytechnic Institute. She holds a Ph.D. in Civil Engineering from the University of Florida and previously served as an ORISE Postdoctoral Research Fellow at the DOE National Energy Technology Laboratory. Her research spans sustainable construction materials, rheology of non-Newtonian fluids, and AI-driven infrastructure resilience. Dr. Tao's research focuses on sustainable construction materials and manufacturing, rheology of non-Newtonian fluids (including fresh cement, concrete, and liquid epoxy), multi-functional infrastructure materials, hazard-resilient infrastructure, computational mechanics of materials, and AI-driven multi-objective optimization. Her work integrates computational modeling with experimental validation to address critical challenges in infrastructure sustainability and resilience, particularly in flood-prone regions and pipeline systems. She leads the Sustainable Infrastructure and ManUfacturing Lab (SIMULab) at Purdue. Her publication portfolio demonstrates strong focus on infrastructure resilience modeling, cement rheology, and AI applications in civil engineering. Recent work shows increasing integration of machine learning with traditional computational mechanics, particularly in pipeline rehabilitation, flood resilience, and sustainable cement manufacturing. Key publication venues include Applied Energy, Structures, Construction and Building Materials, and Fluids. National Academies of Sciences, Engineering, and Medicine - Gulf Research Program Early-Career Research Fellow (2023-2025) American Chemical Society - Petroleum Research Fund Doctoral New Investigator Award (2023) Purdue Polytechnic Institute Outstanding Faculty in Discovery Award (2023-2024) SCMT Outstanding Faculty in Discovery Award (2022-2023 & 2023-2024) Illinois-Indiana Sea Grant Faculty Scholars Award (2022) DOE ORISE Postdoctoral Fellowship (2018-2021) Dr. Tao has secured significant research funding as PI or Co-PI from NSF, USDOT, DOE, ACS, NASEM, IISG, and INDOT. Current projects include multi-objective optimization of precast concrete, flood resilience modeling for Great Lakes infrastructure, and AI-assisted sustainable cement manufacturing. She serves as a panel reviewer for NSF, DOE, and NCHRP, and as guest editor for multiple journal special issues. Her professional service includes voting membership in ACI Committees 135, 238, and 241, and participation in ASCE, AIChE, and SPE working groups focused on cementing challenges. Dr. Tao leads the Sustainable Infrastructure and ManUfacturing Lab (SIMULab), which develops data-driven approaches for infrastructure resilience. The lab focuses on integrating computational mechanics with machine learning for infrastructure assessment, developing sustainable construction materials using industrial byproducts, and creating physics-based models for hazard resilience. Current projects involve Great Lakes dredged material utilization, pipeline rehabilitation technologies, and AI-driven cement manufacturing optimization.
Chenyu Wen is an Assistant Professor at the Department of Electrical Engineering; Solid State Electronics , Uppsala University . His research focuses on: Solid-State Nanopores DNA Sequencing Technologies Signal Processing Algorithms Wearable Electronic Sensors His recent work explores neuromimetic tactile systems and machine learning applications for nanopore sensing. Key collaborations include researchers like Shiyu Li , Zhen Zhang , and Shi-Li Zhang . Publications span high-impact journals including Science , Nature Nanotechnology , and ACS Nano .
Armin Knoll is a Research Staff Member at IBM Research Europe - Zurich, Switzerland, where he has been working since 2006. He specializes in nanofabrication and thermal scanning probe lithography, with significant contributions to the development of probe-based data storage technologies, including the well-known 'Millipede' project and subsequent 3D nanofabrication using heatable probes. Dr. Knoll earned his Diplom degree in Physics from the University of Würzburg, Germany, in 1998, followed by a PhD summa cum laude from the University of Bayreuth, Germany, in 2004. His doctoral thesis focused on 'Equilibrium and Dynamic Phase Behavior in Thin Films of Cylinder Forming Block Copolymers' under the supervision of Professor G. Krausch. Armin Knoll's research primarily centers around nanofabrication techniques, particularly thermal scanning probe lithography (t-SPL). His work spans multiple disciplines including nanotechnology, materials science, and molecular systems. He has made significant contributions to probe-based data storage , 3D nanofabrication , and more recently, chemical computing systems. His research often involves the precise manipulation of materials at the nanoscale, with applications ranging from data storage to molecular computing. Analysis of Dr. Knoll's recent publications reveals a strong focus on advancing thermal scanning probe lithography techniques while expanding into chemical computing and nanofluidic systems. His work shows a clear progression from fundamental nanofabrication methods toward more complex systems that integrate biological components and chemical reaction networks. The interdisciplinary nature of his research bridges physics, chemistry, materials science, and engineering, with increasing emphasis on creating functional nanoscale systems for information processing. European Research Council (ERC) award for project entitled 'Topographically guided placement of asymmetric nano-objects' (2012) Best Paper Award in 2010 of the IBM materials research community (MRC) (2011) IBM Research Division Accomplishment 2010 for 'Probe-based Nanopatterning' (2010) Research Division Award for 'Probe-based Nanopatterning' (2010) IBM Research Division Accomplishment 2009 for 'Designing Polymers to Enable Nanoscale Thermo-Mechanical Data Storage' (2009) Dr. Knoll has been actively involved in mentoring and collaborative research, supervising two postdoctoral students and a PhD student since 2007. His work has received significant external recognition and funding, including the prestigious ERC award in 2012. He has collaborated extensively with external industry partners, particularly in the development of the 'Millipede' project for probe-based data storage. His research has also attracted attention from major scientific journals, with publications in Science, Advanced Materials, and other high-impact venues. At IBM Research Europe - Zurich, Dr. Knoll co-leads the '3D nanofabrication using heatable probes' project, building on expertise from the earlier 'Millipede' project. He works closely with collaborators including Heiko Wolf and Robert Lovchik, developing advanced nanofabrication techniques with applications across semiconductors, artificial intelligence, quantum computing, and hybrid cloud technologies. His current research directions include chemical computing systems that use complex chemical networks as information-processing units.
Peter Janssen is a Full Professor at KU Leuven's Faculty of Medicine, affiliated with the Department of Neuroscience. He leads the Neurophysiology Research Group at the Laboratory for Neuro- and Psychophysiology and holds memberships in interdisciplinary institutes including the KU Leuven Brain Institute (LBI), Institute for Artificial Intelligence (Leuven.AI), and Institute for Integration of Micro- and Nano-scale Technologies (LIMNI). His administrative roles include membership in the Faculty Council of Medicine and Departmental Council of Neurosciences. His research focuses on: Neural mechanisms of visual perception and action processing Intracortical brain-machine interfaces for visual prosthetics Neurophysiology of primate frontal and parietal cortices High-resolution neural implants and stimulation techniques Epileptic network dynamics using multimodal intracranial recordings Current projects include developing flexible retinal implants for vision restoration (2025-2028), decoding neural activity for navigation (2022-2026), and studying mirror neuron connectivity in primates (2023-2027). He teaches advanced courses including Neurophysiology (E0E76A), Consciousness and Sleep (E0N60A/U00L9A), Neuroscience (E05Y5A), and Nervous System Morphology/Pathophysiology (E0I69A). As primary supervisor, he mentors PhD candidates in neuroprosthetics, brain-machine interfaces, and neural coding research. Recent student projects involve intracortical visual prostheses, action observation in motor cortex, and human intracranial decoding. His laboratory utilizes cutting-edge techniques including intracortical recordings in primates, human electrocorticography, high-density electrode arrays, and AI-driven neural modeling.
Delacroix Simon is an Assistant Professor in the Chemistry Department at Ecole Polytechnique and IP Paris, affiliated with the Laboratoire de Physique de la Matière Condensée (PMC). He has been serving in this role since December 2023, focusing on innovative materials synthesis and nanomaterial discovery. His educational background includes a Master of Science from both Ecole Normale Supérieure de Cachan and Sorbonne University (2016), and he is a laureate of the chemistry agrégation (2015). He completed his PhD in 2019 under the supervision of Clément Sanchez, David Porthault, and Yann Le Godec, working on the synthesis of boron-rich nanoparticles at high temperature and pressure. Subsequently, he conducted postdoctoral research at the Max Planck Institute of Colloids and Interfaces in Potsdam under Markus Antonietti, where he developed ultrafast laser carbonization techniques for sensor applications. Ecole Normale Supérieure de Cachan – MSc Sorbonne University – MSc Chemistry Agrégation – 2015 PhD – 2019, Collège de France / Sorbonne University / IMPMC Simon Delacroix's research is centered on the synthesis of nanostructured thin films using methods such as molten salts and laser irradiation. He is pioneering a high-throughput laser synthesis approach integrated with machine learning to accelerate the discovery of novel nanomaterials. His work spans functional nano-objects, photoactive materials, and advanced characterization techniques. His research group, part of the Solid State Chemistry team at PMC, contributes to interdisciplinary efforts in materials science and condensed matter physics. Although no publications are listed in the scraped text, his research trajectory indicates a strong focus on experimental physical chemistry, materials innovation, and the development of smart synthesis platforms combining laser processing and data-driven discovery. He has received research support through the Saint-Gobain chair on innovative materials (2022), which enabled his transition to an independent research position. While no formal advisees are listed, he is embedded in a vibrant research environment with doctoral and postdoctoral researchers in the Solid State Chemistry group. Delacroix is based at the PMC laboratory, located at Ecole Polytechnique in Palaiseau, France, with office 05-3067A in aisle 5, 2nd floor. His work contributes to the broader mission of Ecole Polytechnique and IP Paris in advancing cutting-edge materials science through interdisciplinary collaboration and technological innovation.
Dr. Julien RG Navarro is a Research Fellow at the University of Hamburg's Institute of Wood Sciences (Department of Wood Physics), within the Faculty of Mathematics, Computer Science and Natural Sciences. He joined in 2019, following positions in wood chemistry (2017-2018) and research roles at the Royal Institute of Technology (KTH) and Stockholm University in Sweden. Research Focus: Navarro specializes in biopolymer engineering, cellulose nanofibril modification, composite reinforcement, and 3D printing of biomaterials. His work integrates nanoparticle synthesis (gold nanostructures) with applications in luminescent materials and surface functionalization. Key methodologies include twin-screw extrusion, injection molding, and thin-film production. Publications: His recent articles (2013-2018) emphasize nanocellulose platforms , plasmonic nanoparticle engineering , and hybrid materials for biosensing . Trends include fluorescence labeling, toxicity assessments of nanomaterials, and advanced optical characterization techniques. Additional Roles: Navarro lectures on project management and fiber-based products, contributing to academic training and applied materials science.
Prof. Dr. Norbert Hofmann is a Lecturer in thermo-mechanical and casting simulation at the Institute of Thermal and Fluid Engineering within the School of Engineering and Environment at the University of Applied Sciences and Arts Northwestern Switzerland (FHNW) . His career spans over 25 years of research and teaching in computational mechanics and advanced manufacturing processes. Roles : Lecturer, Researcher, Conference Organizer Expertise : Numerical simulation, casting optimization, thermal analysis Collaborations : Swiss Nanoscience Institute, ETHZ, international automotive/energy sectors Research Interests focus on: Thermo-mechanical simulation of industrial casting processes Advanced solidification modeling with finite element methods Process optimization using automated systems Thermal management in electronics packaging Microspecimen mechanical testing at extreme temperatures Publication Trends show consistent contributions to casting technology innovation, spanning from aerospace turbine blades (1990s) to modern nanoscale bonding applications. His work bridges computational modeling with experimental validation across disciplines. Scientific Awards : Best Paper Award (2000) for innovative casting process development Outstanding ranking for thermophysical property data contributions As educator, he has mentored numerous students in Computational Mechanics and Advanced Manufacturing through hands-on simulation projects. His research has been supported by collaborations with ABB Turbo Systems AG , Honda Research Center , and Ford Research Center . Labs & Teams : Active participant in the Final COST526 Workshop and APOMAT research consortium. Maintains close ties with Foundry Center FHNW and Swiss NanoScience Institute at Basel University.
Dr. Gonçalo Dias Pereira Guiomar is a Lecturer at ETH Zürich's Department of Computer Science, affiliated with the ETH AI Center. His research focuses on interdisciplinary nanoscience, combining chemistry, physics, and biology to develop smart, multifunctional materials. Key areas include biomimetic systems, polymer scaffolds, quantum electronic structures, and nanoscale self-organization. Education background not explicitly stated in provided texts. Research emphasizes 'bottom-up' approaches to create materials with adaptive properties, such as self-assembling polymeric films, functionalized polymers for optoelectronics, and biohybrid systems inspired by cellular mechanisms. His work bridges disciplines like materials science and biotechnology, particularly through the Leipzig School of Natural Sciences (BuildMoNa) graduate program, which trains doctoral candidates in molecular and nano-object assembly. Publications are documented in annual reports (2008–2023), reflecting contributions to nanomaterials, catalytic systems, and biodegradable polymers. Current projects explore applications in regenerative medicine, semiconductor integration, and spintronics devices. Awards: None explicitly mentioned in provided texts. Advising and training are central to his role, overseeing doctoral candidates in interdisciplinary nanoscience through BuildMoNa. His lab facilities include advanced microscopy, laser manipulation tools, and polymer synthesis infrastructure. Labs/Teams: Active in the ETH AI Center and collaborates with Universität Leipzig’s nanobiology initiatives, focusing on biomimetic material design and smart molecular systems.
Bertan Beylergil is an Associate Professor at Alanya Aladdin Keykubat University, Faculty of Engineering, Department of Mechanical Engineering , with a career spanning 20 years in composite materials research. His work focuses on enhancing mechanical and thermal properties of fiber-reinforced polymers for aerospace and automotive applications. Education: PhD in Mechanical Engineering (2017), Izmir Institute of High Technology Master in Mechanical Engineering (2010), Niğde University BSc in Mechanical Engineering (2006), Dokuz Eylul University Research Interests include: Design of composite materials with tailored thermal conductivity Fracture toughness enhancement via nanofibers and 3D printing Surface modification techniques for adhesive bonding Multi-scale integration in thermoplastic and thermoset composites His work addresses critical challenges in aerospace structural repair and hydrogen storage systems through innovative nanoparticle and interlayer technologies. Scientific Contributions span 15 recent publications analyzing: Hexagonal boron nitride (h-BN) reinforced epoxy composites (2025) Mechanical behavior of nano-calcite particle composites (2024) Plasma-activated composite bonding systems (2023) Key methodologies involve experimental validation, finite element modeling, and advanced manufacturing techniques like fused deposition modeling.
Bruno Chaudret is a Research Professor at INSA Toulouse and Director of the Laboratory of Physics and Chemistry of Nano-Objects (UMR 5215), a joint research unit of INSA Toulouse, CNRS, and Université Paul Sabatier. He holds the prestigious rank of Director of Research at CNRS in the Exceptional Class and has been a member of the French Academy of Sciences since 2005. His leadership extends to serving as President of the Scientific Council of CNRS since 2010 and holding multiple administrative roles including membership on the Administration Council of INSA-Toulouse and Paris-Tech University. His educational foundation includes: 1975: Engineer from École Nationale Supérieure de Chimie de Paris 1977: Ph.D. from Imperial College London under Nobel laureate Sir Geoffrey Wilkinson 1979: Doctorat d'État from Université Paul Sabatier Toulouse under R. Poilblanc Chaudret's research program fundamentally bridges organometallic chemistry with nanotechnology, specializing in the synthesis and characterization of magnetic nanoparticles, quantum dots, and dihydrogen complexes. His work demonstrates exceptional translational impact through applications in catalysis, sensor development, and nanomaterials engineering. The interdisciplinary nature of his research connects fundamental molecular chemistry with cutting-edge nanoscience and materials engineering. With over 370 refereed journal publications and 16 patents (including 7 international extensions), his scholarly output shows consistent innovation in nano-object fabrication and functionalization. His patent portfolio has yielded industrial applications, demonstrating practical implementation of his scientific discoveries. His major recognitions include: CNRS Silver Medal (1997) - France's highest scientific honor Geoffrey Wilkinson Prize from the Royal Society of Chemistry (2008) Grand Prix Pierre Süe from the French Chemical Society (2010) Seaborg Lectureship at UC Berkeley (2002) Humboldt-Gay-Lussac Award (2006) Chaudret has trained 36 PhD students and 7 co-tutelle theses across international institutions including Berlin, Essen, Amsterdam, and Caracas, while mentoring 26 postdoctoral fellows. His leadership in research administration includes directing major laboratories and shaping national science policy through roles on the Chemistry Committee of France's National Research Agency. He directs the Laboratory of Physics and Chemistry of Nano-Objects, a premier interdisciplinary research center integrating physics, chemistry, and materials science approaches to nanostructure development. The laboratory maintains extensive international collaborations and has established itself as a European leader in nanomaterials synthesis and characterization.
