Alice White is a Professor affiliated with the College of Engineering and Department of Mechanical Engineering at Boston University. She holds affiliations with the Division of Materials Science and the Photonics Center. Her research focuses on fabrication and packaging of optical and electronic devices, including novel optical devices for future exabit networks, additive manufacturing via high-resolution 3D printing, and silicon photonics integration using CMOS processes. Recent work includes neural interface devices and biocompatible microelectrodes. Education: PhD in Engineering from Harvard University. Professional roles emphasize interdisciplinary collaboration across materials science, photonics, and biomedical engineering. Research interests span optical device innovation, nanoscale fabrication, and biomedical microdevices. Recent publications highlight advancements in cardiac tissue engineering, programmable microrobots, and metamaterial scaffolds. Over 50 peer-reviewed articles demonstrate expertise in photonics, additive manufacturing, and biocompatible systems.
Dr. Rafael Nicolosi Libanori is a Lecturer and Senior Researcher at the Department of Materials (D-MATL) , ETH Zurich, Switzerland. He holds a PhD from ETH Zurich (2009–2013) under Prof. André R. Studart, focusing on bio-inspired composite materials processing. His research emphasizes bio-inspired composites , active/adaptive materials , and living materials , with applications in sustainability and biomedical engineering. He designs materials that mimic biological structures for enhanced mechanical performance and environmental adaptability. He teaches multiple courses at ETH Zurich, including Biological and Bio-Inspired Materials (co-lecturer), Bio-Inspired Active and Adaptive Materials , and Ethics and Scientific Integrity for Doctoral Students (MaP Doctoral School). His work bridges engineering and biology, aiming to create functional materials with self-healing properties and processable via advanced manufacturing techniques. Recent publications highlight innovations in 3D-printed silicone vitrimers for reprocessability, solar-driven CO2 splitting using hierarchically channeled ceria structures, and bone-inspired material systems. These studies address challenges in material durability, sustainability, and functional design through interdisciplinary approaches. Rafael collaborates with prominent researchers like Prof. André R. Studart and Prof. Aldo Steinfeld. His current role involves academic teaching and cutting-edge research within the Complex Materials group at ETH Zurich.
Brett G. Compton is a Joint UTK Associate Professor at the Department of Materials Science and Engineering, Tickle College of Engineering, University of Tennessee. His research focuses on additive manufacturing, composites, and advanced materials characterization. He specializes in polymer-derived ceramics, material extrusion processes, and hybrid manufacturing techniques. His work addresses challenges in sustainability, process optimization, and material performance in high-tech applications such as aerospace and energy systems. Research interests include: Additive Manufacturing (e.g., friction stir deposition, material extrusion), polymer and ceramic composites, and mechanical/thermal characterization of 3D-printed materials. He explores topics such as crosslinking control in thermosets, syntactic foams, and rotational direct ink writing for anisotropic properties. His studies also emphasize process modeling (e.g., thermal dynamics in printing) and material design for industrial scalability. Recent trends in his work highlight innovations in sustainable manufacturing, advanced composite architectures, and integration of hybrid manufacturing systems. His publications span conferences like IM²AM and journals focused on polymer science and ceramic materials. No awards or grants are explicitly listed in the provided text. Advising details and lab affiliations are not specified, though his research suggests involvement with labs focused on additive manufacturing and materials characterization.
Ester Abram is a Research Fellow at the Biophotonics and Medical Imaging research group within the Faculty of Science at Vrije Universiteit Amsterdam (VU Amsterdam). Her work bridges experimental physics and materials engineering, focusing on laser interactions with nanoscale metal systems for advanced fabrication and diagnostic applications. She completed her PhD in Optics, Physics, Nanolithography, and Imaging at the Advanced Research Center for Nanolithography (ARCNL) under the NWO-HTSM program, with research conducted from June 15, 2020, to January 1, 2025, and the degree awarded on June 20, 2025. Her doctoral work established foundational insights into light-matter interactions below ablation thresholds. Dr. Abram's research centers on pre-ablation laser processing of metal films , where she investigates optical, morphological, and structural changes induced by sub-threshold laser pulses. Key areas include ruthenium thin-film modification, plasmonic strain-wave generation, and diffraction-limit overcoming techniques. Her interdisciplinary approach combines ultrafast optics, materials characterization, and nanofabrication to develop novel nanolithography methods and optical sensors. Recent publications reveal consistent innovation in sub-diffraction laser patterning and pre-ablation optical diagnostics , with strong emphasis on ruthenium systems. Her work demonstrates how controlled laser fluence enables nanoscale feature creation without thermal damage, advancing applications in semiconductor manufacturing and biomedical imaging. As an active member of the Biophotonics and Medical Imaging group, she maintains critical collaborations with ARCNL and leverages NWO-HTSM grant support. Her research infrastructure includes advanced laser systems, optical reflectance setups, and nanofabrication tools for probing light-matter interactions at fundamental scales.
Robert Texidó Bartés is an Assistant Professor in the Department of Chemical Engineering and Materials Science at IQS School of Engineering, Universitat Ramon Llull. His research focuses on biomaterials, 3D bioprinting, wearable biosensors, and advanced material development for biomedical applications. Education: PhD in Chemistry and Chemical Engineering, IQS (2017) MSc in Chemistry and Chemical Engineering, IQS (2013) Industrial Engineer, IQS (2011) His research interests span biomaterials, 3D bioprinting, surface engineering, wearable biosensors, and drug delivery systems . He is actively involved in the GEMAT (Materials Engineering Group), contributing to innovations in functional materials for clinical use. His work integrates polymer science, nanotechnology, and biomedical engineering to develop solutions for tissue regeneration, disease monitoring, and surgical planning. The recent articles reflect a strong trend in advanced material fabrication , particularly in silicone-based 3D printing, responsive drug delivery systems, and flexible electronics . His publications emphasize translational research with applications in orthopedics, oncology, infectious diseases, and liver diagnostics . The interdisciplinary nature of his work bridges chemistry, engineering, and medicine. Scientific Contributions: Principal Investigator of PERSAM project on wearable biosensors Key researcher in 3DCartiBone and zwiRNA projects Active member of GEMAT research group CTO and co-founder of Tractivus SL He mentors students across Chemistry, Chemical Engineering, Biotechnology, and Bioengineering programs. His research is supported by grants from AGAUR and involves collaborations with clinical and industrial partners. He leads projects on clinical phantom development, transdermal delivery, and antibacterial nanomaterials . His lab focuses on innovative biomaterials for medical devices and regenerative medicine applications.
Lee E. Ohanian is a Professor of Economics at the University of California, Los Angeles (UCLA) and a Senior Fellow (adjunct) at the Hoover Institution. He also directs the Ettinger Family Program in Macroeconomic Research at UCLA and serves as associate director of the Center for the Advanced Study in Economic Efficiency at Arizona State University. He is a research associate at the National Bureau of Economic Research (NBER), where he co-directs the Macroeconomics across Time and Space initiative, and a fellow in the Society for the Advancement of Economic Theory. His research interests include Economic Growth, Macroeconomics, Economic Theory, and Public Policy , with a particular focus on economic crises and the impact of public policy on the economy. His work often analyzes US labor markets, budget and spending, monetary policy, regulation, and state and local economic issues, especially in California. The recent publications and research output of Lee Ohanian span macroeconomic theory, historical economic analysis, and contemporary policy issues. His work shows a strong trend toward analyzing the economic impact of regulation, housing policy, fiscal responsibility, and infrastructure projects, particularly as they relate to California's economic challenges. He frequently applies macroeconomic models to real-world policy failures and inefficiencies. Numerous teaching awards at UCLA Numerous teaching awards at the University of Rochester Ohanian advises the Federal Reserve Banks of Minneapolis and St. Louis and has previously advised other Federal Reserve banks, foreign central banks, and the National Science Foundation. He has testified before legislative committees and serves on the editorial boards of Econometrica and Macroeconomic Dynamics . He is a frequent media commentator, writing for outlets such as the Wall Street Journal, Forbes, and Investor’s Business Daily . He has held faculty positions at the Universities of Minnesota and Pennsylvania and earned his PhD from the University of Rochester and his undergraduate degree from UC Santa Barbara. Ohanian is a key participant in the Hoover Institution's Socialism and Free Market Capitalism: The Human Prosperity Project and is actively involved in public policy discourse through media appearances, podcasts, and policy briefings.
Larisa Florea is an Associate Professor in the School of Chemistry at Trinity College Dublin, where she leads an independent research group focused on advanced materials and soft robotics. She is also affiliated with the AMBER Centre, a Science Foundation Ireland research center for advanced materials and bioengineering. Her work integrates chemistry, engineering, and data science to develop next-generation responsive materials. Trinity College Dublin, School of Chemistry AMBER Centre (Advanced Materials and Bioengineering Research) Her research centers on stimuli-responsive polymers, 3D/4D printing via two-photon polymerization, microfabrication of smart actuators and sensors, and autonomous micro-vehicles. She develops materials that change shape, color, or function in response to light, temperature, chemicals, or pH, with applications in soft robotics, biomedical devices, and environmental sensing. Her recent publications reveal a strong trend in dynamic photonic structures, sugar-responsive hydrogels, and vapor-sensing microsystems. These works highlight her expertise in merging precision fabrication with intelligent material design. She frequently employs two-photon lithography to create microscale devices with sub-micron resolution, enabling applications in encryption, biosensing, and microfluidics. European Research Council Starting Grant (2018) IRC Laureate STG Award (2018) Invent Commercialisation Award, DCU (2016) Irish Research Council PhD Scholarship (2009) SFI UREKA Undergraduate Award (2008) Larisa Florea has successfully secured major grants, including an ERC Starting Grant and an IRC Laureate Award, to support her independent research. She actively mentors students and postdoctoral researchers, many of whom are co-authors on her high-impact publications. Her lab, the FloreaLab, fosters interdisciplinary collaboration and innovation in materials science. She leads a dynamic research team developing smart microstructures and soft actuators. Her lab utilizes advanced fabrication techniques such as two-photon polymerization and microfluidics to engineer responsive systems. The team collaborates with experts in data analytics, robotics, and bioengineering to push the boundaries of functional materials.
Ming Chen is an Assistant Professor at the University of Nevada, Reno, specializing in materials processing, physical metallurgy, and advanced characterization techniques. His research focuses on additive manufacturing of metals and ceramics, freeze-casting of porous materials, metallurgy for battery technology, and micro-/nano-scale mechanical testing using X-ray diffraction and tomography. Ph.D. in Materials Science from ETH Zurich (2020) M.Sc. in Physical Metallurgy and Materials Science from RWTH Aachen University (2015) B.Eng. in Metallurgical Engineering from University of Science and Technology Beijing (2012) His recent publications highlight breakthroughs in additive manufacturing (direct ink writing of high-entropy superalloy microlattices), thermoelectric materials (Yb14MnSb11 printing), and redox cycling resistance in Fe-W foams. Research trends include size-dependent material behavior, twin-boundary strengthening in magnesium alloys, and radiation effects on diamond structures. Chen actively seeks motivated students for Ph.D. positions, postdoctoral research, and summer internships, emphasizing collaboration through CV submission and reference provision. His laboratory integrates advanced fabrication techniques with synchrotron X-ray characterization to address challenges in energy materials, structural alloys, and nanoscale mechanics.
Alaa HASSAN is a Senior Lecturer at ENSGSI (École Nationale Supérieure de Géologie et Sciences de l'Ingénieur) within the INP Group in Nancy, France. Their research focuses on innovative design methodologies, additive manufacturing (particularly 3D printing), decision support systems, and the integration of information systems in industrial processes. They are part of the ERPI laboratory, contributing to projects like bioinspired materials, oil-water separation technologies, and metrology optimization. Hassan holds a PhD in Industrial Engineering (2010), a Master of Research in Mechanics and Applications (2006), and a Mechatronics Engineering degree (2000). Teaching responsibilities include courses such as Industrial Projects Management, CAD, Design Thinking, and Additive Manufacturing. They lead the development of XR-based educational tools (HELP-XR) and have contributed to frameworks for agile design thinking and customer journey mapping. Responsibilities also include managing industrial projects (AI1) and serving on the ERPI Laboratory Council. Research Highlights: 3D printing of superhydrophobic materials, metrology queue optimization, and bioinspired hydrophobic applications. Education: PhD (Industrial Engineering, 2010), Master in Mechanics & Design (2006), Mechatronics Engineer (2000). Key Projects: ERPI lab collaborations, HELP-XR tool development, and process optimization for additive manufacturing. Recent publications emphasize material-process interactions in 3D printing, agile design frameworks, and XR pedagogical tools. Hassan's work bridges engineering education and advanced manufacturing technologies, focusing on sustainability and industrial innovation.
Johnson Chung is a Research Fellow at the Intelligent Polymer Research Institute within the Australian Institute for Innovative Materials at the University of Wollongong. He has been in this position since 2023 and is actively involved in research related to biomaterials, tissue engineering, and 3D bioprinting. His work focuses on developing advanced materials and technologies for medical applications, particularly in cartilage regeneration and organ-on-a-chip systems. Dr. Chung's research interests span across multiple disciplines in biomaterials science and tissue engineering. His primary areas of focus include: Biomaterials development for medical applications Tissue engineering and regenerative medicine Hydrogels and 3D bioprinting technologies Drug delivery systems and nanomedicine Organ-on-a-chip models for disease research and drug testing Graphene-based materials for biomedical applications His recent publications demonstrate a strong focus on developing innovative solutions for tissue regeneration, particularly in cartilage and corneal applications. He has made significant contributions to the field of 3D bioprinting, developing new bioinks and printing techniques that maintain cell viability while creating structures with appropriate mechanical properties. His work on organ-on-a-chip systems, especially lung-on-a-chip models, has advanced our understanding of drug delivery and disease mechanisms. Dr. Chung is actively involved in supervising higher degree research students, currently guiding two PhD candidates working on decellularized extracellular matrix-based scaffolds for 3D bioprinting of cartilage and mechanically strong biomimetic aortic valve scaffolds. He has successfully supervised previous students who completed projects on bioinks for auricular cartilage reconstruction and 3D printed structures with biomimicry mechanical characteristics. His research is supported by multiple grants, including the significant "ARISTOCRAT" grant focused on cartilage-based stem cell therapies. He is part of the Intelligent Polymer Research Institute team, which focuses on developing advanced polymer-based materials for various applications, with a strong emphasis on medical and biological uses. His collaborative work spans across multiple disciplines, working with experts in materials science, biology, medicine, and engineering to develop innovative solutions for healthcare challenges.
Arun Arjunan is a Research Professor at the University of Wolverhampton’s Faculty of Science and Engineering. He serves as Director of the Centre for Engineering Innovation and Research (CEIR) and leads the Additive Manufacturing of Functional Materials (AMFM) research group. His expertise spans advanced additive manufacturing, metamaterials, and sustainable material development, with a focus on biomedical and environmental applications. He obtained a fully funded PhD in structural mechanics and vibro-acoustics, and earned the Senior Fellow of the Higher Education Academy (SFHEA) for his pedagogical leadership. His research emphasizes developing metamaterials with unique mechanical, acoustic, and biological properties. Key contributions include meta-biomaterials for tissue regeneration, infection-resistant implants, and Herschel Quincke-Arjunan waveguides for noise cancellation. The AMFM group integrates interdisciplinary specialists to innovate in 3D printing functional materials. The 15 most recent publications highlight his work in additive manufacturing across biomedical implants, water treatment, thermoelectrics, and sustainable infrastructure. Notable trends include sustainability in metal AM, bioprinting, and biochar-based solutions for contaminant removal. Scientific awards: GKN Award (2011) Vice Chancellor’s Award for Outstanding Research (2020) UK Engineering Innovation Award (2021) Blavatnik Awards Nominee (2019, 2020) THE ENGINEER UK Collaborate to Innovate Finalist (2021) Arun supervises PhD students and contributes to teaching via modules like Advanced FEA and Applied Stress Analysis. He is a member of the BSI standards committee for additive manufacturing and has secured major grants from Innovate UK, DfT, and the European Union.
Erdem Sahin is a Professor in the Department of Metallurgical and Materials Engineering at Muğla Sıtkı Koçman University's Faculty of Engineering. His research focuses on biomaterials, particularly calcium phosphate bone cements, composite materials, and magnesium alloys for biomedical applications. Education: Bachelor's Degree: Middle East Technical University - Faculty of Engineering - Department of Metallurgical and Materials Engineering (1998-2003) Master's Degree: Izmir Institute of Technology - Institute of Engineering and Science - Materials Science and Engineering (2003-2006) Doctorate: Izmir Institute of Technology - Institute of Engineering and Science - Chemical Engineering (2006-2013) Dr. Sahin's research interests center on the development and characterization of biomaterials for medical applications. His work primarily focuses on calcium phosphate bone cements, with particular emphasis on improving their injectability, setting kinetics, and mechanical properties. He has conducted extensive research on the effects of various additives (such as citric acid, NaCl, and polyacrylic acid) on cement properties. More recently, his research has expanded to include surface modification of magnesium alloys for biodegradable implants, direct ink writing of bioceramics, and the development of 3D-printed tissue engineering scaffolds. Analysis of his recent publications reveals a clear progression in his research focus. Early work concentrated on fundamental properties of calcium phosphate cements, while more recent publications demonstrate an expansion into advanced manufacturing techniques (particularly 3D printing/direct writing), surface engineering of metallic biomaterials, and the development of more complex composite systems. His work shows increasing interdisciplinary collaboration, with recent papers involving researchers from diverse fields including medicine, chemistry, and mechanical engineering. Dr. Sahin has been actively involved in research funding, serving as principal investigator on multiple projects including international collaborations. His teaching portfolio includes advanced courses in biomaterials, cementitious materials, suspension rheology, and various core materials engineering subjects.
Connor Armstrong is an Assistant Professor in the Department of Mechanical Engineering at the University of Texas at Dallas, affiliated with the Erik Jonsson School of Engineering and Computer Science. He leads the Materials Engineering & Advanced Manufacturing Lab, focusing on polymer systems, additive manufacturing, and AI/ML-driven material discovery. Ph.D. in Mechanical Engineering (Georgia Institute of Technology, 2023) M.S. in Mechanical Engineering (University of Maryland, 2019) B.S. in Mechanical Engineering (University of Maryland, 2017) Postdoctoral Research in Materials Science and Engineering (University of Illinois at Urbana-Champaign, 2025) Research Interests: His work bridges advanced manufacturing techniques with intelligent systems, emphasizing autonomous experimentation and 4D printing . Key areas include photopolymer optimization , fiber-reinforced composites , and thermoset ink development for ambient-temperature applications. Scientific Awards: Grainger Distinguished Postdoctoral Fellowship (2023) Georgia Tech Tower Award (2023) NSF Student Award for Solid Freeform Fabrication Symposium (2021) Georgia Tech Presidential Fellowship (2019) GEM Fellowship (2019) He actively mentors students in research and is currently accepting both undergraduate and graduate advisees for projects at the intersection of materials science and manufacturing innovation.
Dr. Simas Butkus is a Researcher at the Laser Research Center (LRC) , part of Vilnius University . His work focuses on femtosecond laser micromachining , laser light-matter interaction , and laser beam propagation effects , with applications in materials processing and biomedical engineering. Researcher at Vilnius University since 2014 Specializes in ultrafast laser technologies Research Interests include: Femtosecond laser ablation for metals and transparent materials Surface structuring and selective etching Advanced microfabrication techniques Laser processing of polymers and biocompatible substrates Pulse burst modulation for industrial applications Publications demonstrate expertise in laser-material interactions, spanning topics from high-precision stainless steel marking to 3D scaffold fabrication for medical use, with a focus on transparent materials and micron-scale structuring . Advising : Supervisor of PhD student Evaldas Kažukauskas Advisor for >10 theses
Dr. Darius Gailevičius is a Researcher at the Laser Research Center (LRC) , Vilnius University. His expertise lies in Photonics , Laser Physics , and Direct Laser Writing , with a focus on 3D Printing and Microfabrication of optical components. His research contributions include advancements in ultrafast laser lithography for optically resilient micro-optics, polarization-controlled 3D polymerization , and photonic crystal applications for spatial filtering. He has co-authored influential works on glass-ceramics and polymer-based regenerative medicine structures , with publications in journals like Materials , Advanced Optical Materials , and Optics Express . Dr. Gailevičius is affiliated with Vilnius University’s LRC, where he contributes to projects involving laser-assisted nanofabrication and optical material synthesis . His work intersects optical engineering and applied photonics , emphasizing precision manufacturing and material innovation.
