Pererik Andreasson is a Lecturer at the Academy of Information Technology , Halmstad University. His research focuses on 3D printing, materials science, electromagnetic compatibility testing, and wireless communication. Key contributions include optimizing 3D-printed radar lenses, advancing phase-change material characterization via femtosecond x-ray diffraction, pioneering augmented reality methods for electromagnetic field visualization, and developing substrate integrated waveguide antennas for IoT devices. 3D printing of optical components Dynamic processes in phase-change materials Augmented reality for electromagnetic testing IoT antenna design His recent work on frequency-adjustable SIW antennas (2024) and AR-based EMC visualization (2021) demonstrates cross-disciplinary innovation. While no scientific awards are documented, his 15+ publications since 2007 highlight sustained expertise in material science and wireless technologies.
Dr. Federico Javier Hernández serves as a Lecturer in Computational Chemistry at the Centre for Chemical Research within the School of Physical and Chemical Sciences at Queen Mary University of London. His expertise centers on computational photochemistry and photophysics, with emphasis on excited-state mechanisms in complex molecular environments including aggregates, organic crystals, and solution-phase systems. Hernández completed his undergraduate studies in Physical Chemistry at the University of Córdoba (UC), Argentina, followed by a hybrid experimental and theoretical-computational PhD in Chemistry jointly awarded by UC and the University of Quilmes under Professors Gustavo Pino and Juliana Palma. His doctoral research investigated photophysical and photochemical processes relevant to Atmospheric Chemistry and Biochemistry. His laboratory focuses on elucidating fundamental mechanisms behind phenomena such as aggregation-induced emission, radiative quenching, singlet fission, ultralong organic phosphorescence, charge/exciton transport, and thermally activated delayed fluorescence. These investigations employ advanced computational methodologies including plane-wave DFT, multiscale electronic structure methods (QM:QM' and QM:MM), nonadiabatic dynamics simulations (surface hopping and Ehrenfest dynamics), and machine learning integration for materials discovery. This work directly supports rational design of functional molecules for optoelectronic applications and energy storage/conversion technologies. Analysis of Hernández's 15 most recent publications (2022-2025) reveals consistent focus on nonadiabatic dynamics in condensed phases, excited-state mechanisms in molecular aggregates, and atmospheric reaction kinetics. Key trends include development of computational benchmarks for photochemical processes, application of machine learning to photodynamics, and investigation of polaritonic effects in vibrational spectroscopy. His work bridges theoretical chemistry with practical materials design for optoelectronics. No major scientific awards or fellowships are documented in the available information. While current PhD advisees are not listed, Hernández maintains an active research group within the Centre for Chemical Research. His collaborative network spans international institutions including University College London, University of Bristol, and University of Santiago de Chile. He contributes to academic instruction through CHE 209 – Introductory Programming for Chemists and leverages his ORCID profile (https://orcid.org/0000-0001-7497-9424) for scholarly identification. His research infrastructure integrates high-performance computing with data science approaches to tackle complex photochemical problems.
Assistant Professor in the Electrical and Computer Engineering Department at the University of Hawaii at Manoa's College of Engineering since January 2025. Teaches advanced solid-state devices and physical electronics courses. Research focuses on semiconductor detector development for radiation detection, photovoltaics, and quantum applications. Expertise includes silicon pixel sensors using atomic layer deposition for resistive/dielectric layers, precision timing sensors, and readout electronics characterization. Interdisciplinary work bridges particle physics, materials science, and electrical engineering. Radiochemistry & Inorganic Chemistry (BSc, University of Helsinki) Advanced Materials & Photonics (PhD, Helsinki Institute of Physics/Aalto University) Key contributor to ATLAS experiment upgrades and future ePIC/PIONEER experiments. Awards include Finnish Cultural Foundation Postdoctoral Scholarship for semiconductor sensor research. Active in interdisciplinary STEM collaboration across particle physics and engineering domains.
Dr. T. Serkan Kasırga leads the 2D & Strongly Correlated Materials Laboratory at Bilkent University's National Nanotechnology Research Center (UNAM). His research focuses on experimental solid-state physics, specializing in quantum phenomena in low-dimensional and strongly correlated materials. He directs multiple funded projects with €2M secured through 11 grants as Principal Investigator. Research Interests: The lab investigates four primary areas: (1) Novel quantum material discovery via real-time optical CVD, (2) Photoresponse mechanisms in low-dimensional systems using scanning photocurrent microscopy, (3) Classical/quantum phase transitions in correlated materials, and (4) Exciton dynamics in 2D transition metal dichalcogenides influenced by substrate engineering. Recent Publications Focus: Work from 2023-2024 demonstrates strong emphasis on synthesis innovations (CVD-grown nanomaterials), characterization of ionic/electronic behaviors in 2D systems, and applications in neuromorphic computing and energy conversion. Recurring themes include substrate engineering effects, doping-free device strategies, and advanced measurement techniques for nanoscale properties. Awards & Recognition: BAGEP Award (Science Academy of Türkiye, 2021) Research Infrastructure: The lab maintains capabilities in: Chemical vapor deposition (conventional/optical) 2D heterostructure fabrication Cryogenic electronic transport (1.6-400K) Scanning photocurrent microscopy Atomic force microscopy Clean-room nanofabrication access Advising & Funding: Currently supervises 2 graduate students and 1 postdoctoral researcher. Secured 11 external grants as PI since 2014 including active TUBITAK projects (2025, 2023). Total research funding exceeds €2M with additional infrastructure co-PI roles.
Vitor Duarte Fernandes Monteiro is a Senior Researcher and Invited Professor at the Industrial Electronics Department of the School of Engineering, University of Minho, Portugal. He is a member of the IE R&D Group at Centro ALGORITMI, where he conducts research in power electronics and energy systems. His work focuses on the intersection of power electronics, renewable energy integration, and electric mobility. Dr. Monteiro received his Ph.D. in Power Electronics and Energy Systems in 2016 and his M.Sc. in Industrial Electronics and Computer Engineering in 2010, both from the University of Minho, Portugal. His research interests span a wide range of topics in power electronics and energy systems, with particular focus on Power Electronics Converters, Digital Signal Control, Electric Mobility, Renewables, Hybrid AC/DC Grids, Power Quality, Power Conditioners, Solid-State Transformers, Energy Efficiency, Wireless Power Transfer, Railway Systems, Energy Storage Systems, and Smart Grid applications. His work emphasizes practical implementation and experimental validation of novel power electronic solutions for modern energy challenges. Analysis of Dr. Monteiro's recent publications (2023-2025) reveals a strong focus on advanced power converter topologies for renewable energy integration, electric vehicle charging infrastructure, and smart grid applications. His research shows a clear trend toward unified power quality solutions, bidirectional power flow control, and innovative approaches to hydrogen energy systems. The interdisciplinary nature of his work bridges traditional power electronics with emerging applications in transportation electrification and smart city infrastructure. Dr. Monteiro serves in several editorial capacities, demonstrating recognition by his peers: Associate Editor of the Journal IET Power Electronics Associate Editor of the Journal IEEE Latin America Transactions Topic Editor of the Journal MDPI Electronics Editorial Board Area Editor of the Journal EAI Endorsed Transactions on Energy Web Associate Editor of the IEEE Transportation Electrification Community eNewsletter Guest Editor for multiple journals including IET Power Electronics, Sustainability, and Energies As a Senior Researcher at Centro ALGORITMI, Dr. Monteiro leads research projects focused on power electronics applications for energy systems. His work involves close collaboration with industry partners and participation in European research initiatives. He mentors junior researchers and contributes to the development of innovative power electronic solutions with real-world applications. Dr. Monteiro is actively involved with the Group of Energy and Power Electronics (GEPE) at the University of Minho, where he contributes to both research and educational activities. His work with GEPE focuses on experimental validation of novel power electronic converters and their application to modern energy challenges including renewable integration, electric mobility, and smart grid technologies.
Heike Herper is a Researcher at the Department of Physics and Astronomy (Materials Theory) at Uppsala University . Her work focuses on computational studies of magnetic materials, particularly for permanent magnet applications and magnetocaloric systems, within the NOVAMAG EU project . Affiliation: Uppsala University, Materials Theory Email: heike.herper@physics.uu.se Research involves Density Functional Theory (DFT) calculations combined with Monte Carlo simulations to model finite temperature effects. Key projects include identifying non-hazardous permanent magnet alternatives, studying rare-earth materials, and developing electronic structure databases. Recent publications highlight her expertise in analyzing: Pressure-induced stacking faults in Gd (2024) Giant magnetocaloric effects in Mn,Fe NiSi (2024) Rare-earth-free magnets via high-throughput screening (2023) Magnetic phase diagrams of Heusler alloys (2022) Electronic structure of transition metal complexes (2020)
Angus Wilkinson serves as Professor and Associate Chair for Operations and Academic Programs at Georgia Institute of Technology, holding joint appointments in the School of Chemistry and Biochemistry (College of Sciences) and School of Materials Science and Engineering (College of Engineering). His research bridges inorganic chemistry and materials science with focus on functional materials. Education includes: B.A. in Chemistry from Oxford University (1988) D.Phil. in Chemistry from Oxford University (1992) Junior Research Fellowship at Christ Church, Oxford (1991-1993) Postdoctoral work at University of California Santa Barbara Wilkinson's research centers on low and negative thermal expansion materials , particularly fluorides and oxides with ReO 3 -type structures. His group develops synchrotron X-ray methods for in-situ studies under extreme conditions (high pressure/temperature), with applications in oil well cement hydration and gas-containing perovskites . Current work explores helium incorporation into crystal frameworks and thermal expansion control through structural modifications. The research combines materials synthesis at Georgia Tech with neutron scattering at HFIR/SNS facilities and X-ray studies at APS. Analysis of recent publications (2019-2025) reveals strong focus on gas-containing perovskites (particularly helium clathrates), thermal expansion engineering through anion interstitials, and high-pressure behavior of fluorides. Methodologically, the work integrates advanced scattering techniques with computational modeling and specialized sample environments. Awards include: NSF CAREER award (1996) Sigma Xi award for outstanding junior faculty research (1996) Linus Pauling Prize from American Crystallographic Association (1991) Wilkinson leads research utilizing major national facilities including Advanced Photon Source (APS), High Flux Isotope Reactor (HFIR), and Spallation Neutron Source (SNS). His group maintains active collaborations across materials characterization fields, with current projects examining cement hydration under oil well conditions and novel CO 2 adsorbents. As Associate Chair, he oversees academic operations while maintaining an active research program evidenced by consistent high-impact publications.
Takuya Nakanishi is a Professor and Senior Researcher at Waseda University's Comprehensive Research Organization, where he has been employed since July 2022. Previously, he held research positions at Waseda University's Research Organization for Nano & Life Innovation, National Institute for Materials Science (NIMS), and National Institute of Advanced Industrial Science and Technology (AIST). His academic journey began with a Doctor of Science degree from Hokkaido University. Dr. Nakanishi's research spans multiple disciplines at the intersection of nanotechnology, electrochemistry, and biosensing. His expertise includes nanomaterials characterization and synthesis, molecular recognition, surface science, and chiral analysis. A significant portion of his work focuses on developing innovative field effect transistor (FET) biosensors for detecting biomarkers, viruses, and other analytes with high sensitivity. His research has important applications in medical diagnostics, pharmaceutical development, and food safety. His publication record shows a clear progression from fundamental studies on chiral discrimination and surface electrochemistry to applied research on biosensors and nanomedicine. The most recent work demonstrates sophisticated integration of nanomaterials with biological systems for sensitive detection and therapeutic applications, particularly in cancer detection and treatment. His scientific achievements have been recognized with multiple awards: Poster Award at Chirality 2006 - 18th International Symposium on Chirality (ISCD-18) Best Poster Presentation Award at The 56th Annual Meeting of the International Society of Electrochemistry Poster Award at Chirality 2003 - 15th International Symposium on Chirality (ISCD-15) Dr. Nakanishi has been actively involved in numerous professional committees, including the Electrochemical Society of Japan, where he has served on Public Relations, Convention Planning, and Editorial committees. His research has secured significant funding for projects involving nanomaterials, biosensors, and electrochemical systems. He has also contributed to the development of magnetite nanoparticle-based cancer therapies and advanced sensor technologies for medical diagnostics. His laboratory work centers on nanoscale electrochemical systems, with particular emphasis on FET biosensors, chiral recognition interfaces, and magnetic nanoparticle applications. Current research directions include improving biosensor stability in biological environments, developing debonding-on-demand adhesives, and investigating chiral inversion mechanisms in pharmaceutical compounds.
Louk Rademaker is an Assistant Professor and SNSF Professor at the University of Geneva, affiliated with the Ecole de physique. His research focuses on theoretical quantum matter, especially strongly correlated systems, topological materials, and moiré systems such as twisted bilayer graphene and monolayer FeSe. He leads the Theory of Flat and Strange Quantum Matter group, integrating fundamental theoretical concepts with material science. His research interests include: Strong electron correlations and Mottness Strange metals and non-Fermi liquid behavior Topological quantum phenomena Spontaneous symmetry breaking Quantum transport and topological insulators Moiré superlattices in 2D materials The recent publications reflect a strong focus on symmetry-breaking physics, topological phases, and computational methods in condensed matter. His work bridges high-energy concepts with solid-state systems, particularly in low-dimensional and twisted materials. Notably, his pedagogical contributions include widely cited lecture notes on spontaneous symmetry breaking and density functional theory. His scientific awards include: SNSF Professor Ambizione Fellow Louk Rademaker has advised and collaborated with several researchers and has been involved in teaching advanced topics such as quantum transport and topological insulators at the Master’s level. He has also developed practical computational courses using Quantum ESPRESSO. His group organizes the Flat Club seminar series, fostering academic exchange in the field of flatband physics. He leads a research group focused on theoretical modeling of quantum materials, with ongoing work in correlated moiré systems and topological phases.
Ming Tang is an Assistant Professor in the Department of Chemistry at the College of Staten Island, City University of New York. His research focuses on the structure and function of membrane-associated protein complexes and aggregates, using solid-state nuclear magnetic resonance (NMR) as a primary tool. He investigates how proteins interact with lipids and cofactors within biological membranes, with implications for drug development, neurodegenerative diseases, and infectious conditions. PhD in Chemistry, Iowa State University, USA BS in Chemistry, Peking University, China His research interests are centered on structural biology of membrane proteins and protein aggregation . He employs advanced solid-state NMR techniques to elucidate atomic-level details of protein-membrane interactions, particularly in systems like antimicrobial peptides, amyloid fibrils, and redox enzymes such as DsbB. His work bridges biophysics, biochemistry, and pharmaceutical sciences. The trends in his publications from 2007 to 2018 show a consistent focus on developing and applying solid-state NMR methods to understand how membrane environments influence protein conformation, dynamics, and function. Key themes include peptide-membrane interactions, charge-transfer complexes, lipid-mediated structural changes, and the mechanistic basis of membrane-disrupting peptides. His work contributes to both fundamental science and potential therapeutic applications. Ming Tang has not been publicly associated with any specific scientific awards or fellowships in the provided text. He advises graduate students and leads the Ming Tang Research Group at CSI, focusing on biomolecular NMR and structural studies of membrane systems. While specific grants are not listed, his research program is likely supported by federal or institutional funding given the technical demands of NMR-based structural biology. He utilizes advanced NMR instrumentation, as indicated by references to solid-state NMR facilities. His laboratory, the Ming Tang Group, is engaged in cutting-edge biophysical research, likely involving close collaboration with other structural biologists and access to high-field NMR spectrometers. The group appears to be active in method development and application to biologically relevant membrane protein systems.
Andrea Boni is an Associate Professor in the Department of Information Engineering at the Faculty of Engineering, University of Parma, where he has been a faculty member since 1999. He leads the Analog IC Design research group and teaches core electronics courses including Analog Design, Amplifier Design, and Electronics 2 at both undergraduate and graduate levels. His research focuses on analog and mixed-signal integrated circuits, with emphasis on high-speed and ultra-low-power designs in CMOS and BiCMOS technologies. Key areas include Analog-to-Digital Converters (ADCs), low-voltage reference circuits, RF oscillators, frequency synthesizers, and their applications in wireless sensors, UWB radars, and RFID systems. The recent publications highlight a strong trend toward low-power, wireless, and intelligent sensing systems, particularly in structural health monitoring, precision agriculture, and food authenticity. These works reflect a convergence of analog circuit innovation with embedded intelligence and IoT applications. Dr. Boni serves on the technical committee of the Custom Integrated Circuits Conference and is a reviewer for IEEE Journal of Solid-State Circuits and IEEE Transactions on Circuits and Systems – II. He advises no listed students in the provided text and has not been awarded any scientific prizes mentioned. His group receives both public and private funding. He leads the Analog IC Design group, which has been active for over a decade in cutting-edge analog circuit research.
Dr. Indranil Bhattacharjee is a postdoctoral researcher at IMDEA Nanociencia since July 2022, affiliated with the Photophysics of Organic & Hybrid Supramolecular Nanosystems group. He holds a PhD in Photophysics and Material Chemistry from Shiv Nadar University (2018), where he studied under Dr. Debdas Ray. His research focuses on understanding the photophysics of donor-acceptor organic molecules, with applications in optoelectronics and energy conversion. Education: PhD in Photophysics and Material Chemistry, Shiv Nadar University (2014-2018) His work centers on the photophysics of donor-acceptor organic molecules, particularly charge transfer states and their role in photocatalysis. Using spectroscopic and computational methods, he investigates ultrafast transient absorption and optical limiting under weak irradiance. His research has implications for organic optoelectronic devices and energy conversion systems. Dr. Bhattacharjee's publications highlight advancements in room-temperature phosphorescence, symmetry-forbidden transitions, and dual emission mechanisms. His recent projects at IMDEA involve quantum mechanical calculations and state-of-the-art spectroscopic tools. Scientific Awards: Marie Skłodowska-Curie Actions COFUND fellowship under the IDEAL program (Grant agreement ID: 101034431) Dr. Bhattacharjee collaborates with Prof. Reinhold Wannemacher and Prof. Johannes Gierschner at IMDEA Nanociencia. His research is supported by the MSCA COFUND program, emphasizing the integration of experimental and computational approaches in nanomaterials science.
Assoc. Prof. Dr. Mariana Calin is a researcher at the Leibniz Institute for Solid State and Materials Research Dresden (IFW Dresden) in the Department of Chemistry of functional materials. With over 104 journal publications and 72 invited talks worldwide through 2025, she is a recognized expert in metallic biomaterials, particularly focusing on titanium-based alloys for medical applications. Her work bridges fundamental materials science with practical biomedical engineering challenges. Dr. Calin's research focuses on metallic materials for biomedical applications , with particular expertise in low modulus beta-type Ti-based alloys , biomaterials for hard-tissue implant applications , metallic glasses and nanostructured alloys , and ni-free Ti-based shape memory alloys . Her work addresses critical challenges in orthopedic and dental implants, particularly the mismatch between bone and traditional metallic implants, and the problem of implant-associated infections. She develops novel alloys with reduced elastic modulus to prevent stress shielding while incorporating antibacterial elements like gallium and copper. Analysis of Dr. Calin's recent publications (2020-2025) reveals a strong focus on gallium-containing titanium alloys with antibacterial properties, surface modification techniques for improved biocompatibility, and the development of metallic glasses for biomedical applications. Her research shows a clear trend toward creating 'smart' biomaterials that actively prevent infection while maintaining excellent mechanical properties for load-bearing applications. She has pioneered work on beta-type titanium alloys with gallium additions that demonstrate both antibacterial properties and suitable mechanical characteristics for orthopedic implants. Dr. Calin has been actively involved in significant European research projects including BIOREMIA (H2020-MSCA-ITN) - 'BIOfilm-REsistant Materials for hard tissue Implant Applications' and BioTiNet (FP7-MC-ITN) - 'Academic-Industrial Initial Training Network on Innovative Biocompatible Titanium-base Structures for Orthopaedics'. These projects have provided substantial funding for her research and supported numerous early-career researchers. She frequently collaborates with international institutions and industry partners to translate laboratory discoveries into potential clinical applications. At IFW Dresden, Dr. Calin works within the biomaterials research group, collaborating with scientists from various disciplines to develop next-generation metallic biomaterials. Her laboratory focuses on alloy design, processing (including additive manufacturing), comprehensive characterization, and biological testing of novel metallic biomaterials. Recent work has expanded into developing MRI-compatible metallic glasses with ultralow magnetic susceptibility, opening new possibilities for miniaturized implants that won't interfere with medical imaging.
Jason Kawasaki is an Assistant Professor in the Department of Materials Science & Engineering at the University of Wisconsin-Madison, College of Engineering. His research focuses on heteroepitaxy, Heusler compounds, magnetism, topological states, shape memory alloys, surfaces and interfaces, and advanced characterization techniques like MBE, STM, and ARPES. PhD, University of California-Santa Barbara (2014) BS, Princeton University (2009) His work explores strain and strain gradient engineering in quantum materials, remote epitaxy through graphene barriers, and synthesis of Heusler compounds with applications in superconductivity, flexomagnetism, and topological materials. Recent publications highlight trends in molecular beam epitaxy of oxide films, strain-gradient superconductivity, and graphene-based nanomesh synthesis. Awards include the 2024 Peter Mark Memorial Award, 2024 Vilas Associate Award, and multiple early-career recognitions from AVS, NSF, and DARPA. NSF CAREER Award (2018) DARPA Young Faculty Award (2019) AFOSR Young Investigator (2021) Kavli Postdoctoral Fellowship (2014) Materials Research Society Graduate Student Gold Award (2012) He teaches graduate courses in materials synthesis, surface properties, and research/thesis work. His lab emphasizes experimental techniques like MBE and STM for probing quantum and nanoscale phenomena.
Kumar Ankit is an Associate Professor of Materials Science and Engineering (MSE) and Graduate Program Chair in the School for Engineering of Matter, Transport and Energy at Arizona State University. His research focuses on computational materials science with emphasis on phase-field modeling of microstructural evolution in materials. He leads the 4D ICE (Laboratory for 4D Interface Control & Engineering) research group, which develops computational tools for discovering efficient processing routes for advanced materials synthesis. Education: Ph.D. (Dr.-Ing.) Summa Cum Laude, Mechanical Engineering, Karlsruhe Institute of Technology, Germany (2015) Integrated Dual Degree (B.Tech/M.Tech) Metallurgical Engineering, Indian Institute of Technology-BHU (2010) Dr. Ankit's research spans multiple domains of computational materials science, with particular expertise in quantitative phase-field modeling. His work integrates computational approaches with machine learning to address fundamental challenges in microstructure science and engineering. His group investigates phenomena including solidification, solid-state transformations, grain coarsening in multicomponent alloys, electromigration-induced damage, and self-organization in polymers and vapor-deposited films. A growing emphasis in his recent work involves developing data-driven emulators that can predict complex microstructural evolution more efficiently than traditional simulation methods. Analysis of Dr. Ankit's recent publications reveals a strong trend toward integrating machine learning with traditional computational materials science methods. His work increasingly focuses on developing data-driven approaches to model complex microstructural evolution, particularly in electromigration and phase separation phenomena. The research spans multiple disciplines including materials science, computational physics, and machine learning, with applications in semiconductor manufacturing, microelectronics reliability, and advanced materials processing. Scientific Awards: 2024 Wenner-Gren Fellow (Sweden) 2022 NSF Early Career Award (CAREER) 2022 Editors' choice award, Journal of Phase Equilibria and Diffusion 2018 Robert W. Cahn prize of Springer Nature and the Journal of Materials Science 2016 Early Career Investigator Award of the German Research Foundation (DFG) Dr. Ankit has successfully secured significant research funding including a $560,000 NSF CAREER award for studying pearlite discontinuities in eutectoid microstructures, a $5 million DOE Earthshots grant as co-PI for carbon-free steelmaking technology, and multiple NSF grants focused on electromigration and materials characterization. He mentors several PhD students who work on diverse research projects spanning computational modeling of electromigration, nanostructural self-assembly, and capillary-mediated interface phenomena. Dr. Ankit co-founded the MateriAlZ Seminar series with collaborators at ASU and the University of Arizona to promote student engagement and increase the visibility of Arizona universities in Materials Science and Engineering. Dr. Ankit directs the 4D ICE research laboratory, which focuses on developing computational tools for rapid discovery of time-, energy-, and cost-efficient processing routes for materials with tailored functionality. The lab's work lies at the intersection of phase-field modeling, machine learning, and high-performance computing. Current projects include investigating capillary-mediated solid-liquid interface energy fields (funded by NASA), electromigration-induced defects in electronic materials (funded by NSF), and nanostructural self-assembly in vapor-deposited films (funded by ASU College of Engineering). The lab maintains strong collaborations with researchers at national laboratories and in industry.
