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Johannes FörsterView profile

Researcher

• Ecosystem Services
• Environmental Economics
• Climate Change Policy
• +4 more

Dr. Johannes Förster is a Researcher at the Helmholtz Centre for Environmental Research (UFZ) in Leipzig, Germany, working within the Department of Environmental Politics under the Environment and Society research area. He serves as a member of the UFZ Science-Policy Expert Group and lectures on Economics of Global Environmental Change at the University of Bayreuth's MSc Programme in Global Change Ecology since 2017. His work bridges scientific research with international policy frameworks including UNFCCC, CBD, and IPBES. Dr. Förster earned his MSc in Global Change Ecology from the University of Bayreuth (2006-2009), where he completed his thesis on REDD potential in Western Ghana. He also holds an MSc in Physical Geography and BSc in Biology from Umea University, Sweden (2004-2006), and studied Landscape Ecology and Nature Conservation at the University of Greifswald (2001-2003). His research focuses on ecosystem services valuation, climate change mitigation and adaptation strategies, and the integration of biodiversity considerations into economic and corporate reporting systems. He leads the BMBF-funded Bio-Mo-D project on modernizing economic accounting for biodiversity in Germany and contributes to the BioNET project assessing bio-based negative emission technologies. His work examines the intersection of environmental science and policy implementation, particularly regarding The Economics of Ecosystems and Biodiversity (TEEB) framework and REDD+ initiatives. Analysis of his recent publications (2023-2025) reveals a strong emphasis on integrating biodiversity considerations into economic and corporate reporting systems, with particular focus on German policy implementation. His work spans environmental economics, climate policy, and sustainability accounting, with recurring themes of carbon dioxide removal technologies, ecosystem service valuation, and policy coherence between international frameworks and national implementation. Member of the Ecosystem Service Partnership (ESP) Member of IUCN Commission on Ecosystem Management (CEM) Alumnus of Studienstiftung des deutschen Volkes (German Academic Scholarship Foundation) 2010-2011: Member of review panel for ecosystem services assessment in Alberta, Canada Dr. Förster has secured substantial research funding through multiple BMBF projects including BioNET (since 2022), Bio-Mo-D (since 2021), and previous projects under the International Climate Initiative (IKI) totaling millions of euros. His work involves extensive international collaboration with UNEP, GIZ, The Nature Conservancy, and academic institutions worldwide. He has contributed to major international assessments including IPBES and TEEB, supporting national ecosystem assessments and capacity building in developing countries. As part of the UFZ's Department of Environmental Politics, Dr. Förster works within the broader Environment and Society research area, collaborating with colleagues on projects related to sustainable finance, corporate biodiversity accounting, and climate policy coherence. His research group focuses on developing methods for integrating ecosystem services into policy and decision-making processes, with growing emphasis on the intersection of biodiversity conservation and climate change mitigation.

Fay HudsonView profile

Research Fellow

• Quantum Computing
• Nanofabrication
• Silicon Nanoelectronics
• +2 more

Dr. Fay Hudson is a Senior Research Fellow at the School of Electrical Engineering and Telecommunications , University of New South Wales (UNSW). She works in the research group of Prof. Andrew Dzurak , focusing on silicon device micro- and nanofabrication for quantum computation and silicon nanoelectronics. Additionally, she serves as Process Manager for the NSW node of the Australian National Fabrication Facility (ANFF) , providing technical training and operational support across multiple nanofabrication projects. Her research spans quantum computing and nanofabrication, with over 85 journal articles focusing on silicon spin qubits, quantum dot arrays, and cryogenic CMOS integration. She investigates topics like non-Markovian quantum processes, entanglement scaling, and Schrödinger cat state generation in silicon systems. Her work addresses critical challenges in qubit fidelity, error mitigation, and scalable quantum architectures. Dr. Hudson's recent publications demonstrate expertise in quantum control protocols, spin qubit transport, and noise characterization using advanced tomography and wavelet analysis. Her technical focus includes improving interdot coupling, spin-orbit interactions, and electrical control mechanisms for quantum applications in silicon-based systems.

Diana BermanView profile

Associate Professor

• Tribology
• Nanomaterials
• Superlubricity
• +7 more

Diana Berman is an Associate Professor in the Department of Materials Science and Engineering at the University of North Texas (UNT), where she has been a faculty member since 2016. Her research program focuses on fundamental tribological phenomena with practical applications in industrial systems, leading to over 70 peer-reviewed publications and 10+ patents. Dr. Berman earned her Ph.D. in Physics from North Carolina State University (2012) followed by postdoctoral research at Argonne National Laboratory's Center for Nanoscale Materials. Her educational background bridges physics and materials engineering, enabling interdisciplinary approaches to surface phenomena. Her research centers on friction, wear, and lubrication mechanisms at nanoscale interfaces, with three primary thrusts: superlubricity solutions for MEMS/hard drives/wind turbines; solid-liquid interface interactions for corrosion sensors and water filtration; and plant-based biolubricants for automotive/food applications. Key innovations include spray-deposited nanocomposite coatings that eliminate friction under high contact pressure and mechanochemically-formed protective carbon films. Analysis of her 15 most recent publications reveals dominant trends in 2D material lubrication (particularly MXene/MoS 2 systems), tribofilm formation mechanisms, and high-temperature superlubricity solutions. Over 60% of her work involves nanomaterial synthesis via polymer infiltration techniques, with growing emphasis on sustainable lubrication solutions. Dr. Berman's scientific recognition includes: TechConnect Innovation Awards Ralph E Powe Junior Faculty Enhancement Award Society of Tribologists and Lubrication Engineers Early Career Award NSF CAREER Award UNT Research and Innovation Award She actively mentors graduate students through UNT's Materials Science & Engineering program and leads significant research funding: National Science Foundation CAREER grant ($500,000, 2021-2026) on nanoporous ceramic manufacturing Army Research Laboratory grant ($500,000 portion, 2020-2022) NSF CMMI grant ($289,847, 2020-2023) on mechanochemical hydrocarbon growth Her Nanostructured Materials and Tribological Interfaces (NMTI) Lab operates three specialized research platforms: superlubricity development systems for industrial applications, solid-liquid interface characterization rigs for sensor development, and plant-based lubricant testing facilities. Current efforts focus on scaling lab innovations for wind turbine and electrical connector applications while developing AI-assisted material design protocols.

• 2D Materials
• Photonics
• Optoelectronics
• +2 more

Md Gius Uddin serves as a Research Fellow (Postdoctoral Researcher) in the Department of Applied Physics at Aalto University, Finland, where he is an active member of the Quantum Phenomena and Devices research group. His work is centered at Tietotie 3, Espoo, with primary focus on advancing nanoscale optoelectronic systems through innovative material engineering. Dr. Uddin's research centers on two-dimensional materials, particularly transition metal dichalcogenides (TMDs) like MoTe 2 and MoS 2 , for next-generation photonic and electronic applications. His expertise spans strain engineering , polymorphic control , and van der Waals heterostructure design to manipulate light-matter interactions. Key application areas include ultra-miniaturized spectrometers, high-responsivity photodetectors, and novel field-effect transistors that leverage quantum phenomena in 2D systems. His methodology combines advanced nanofabrication with precise optical and electrical characterization to optimize device performance. Analysis of Dr. Uddin's 15 most recent publications (2022-2025) reveals a strong trajectory toward practical implementation of fundamental discoveries. His work increasingly focuses on silicon photonics integration (e.g., InSe/TaSe 2 devices on SiN waveguides) and computational spectrometry using tunable van der Waals junctions. The research demonstrates consistent progression from basic material characterization (2022) to functional system integration (2025), with growing emphasis on manufacturable nanoscale optical solutions for sensing applications. Dr. Uddin operates within Aalto University's Quantum Phenomena and Devices group, which provides comprehensive infrastructure for nanomaterial synthesis, device fabrication, and optical testing. The collaborative environment supports his experimental work on heterostructure assembly and performance validation, as evidenced by the sophisticated instrumentation described across his publication portfolio.

• Condensed Matter Physics
• Materials Science
• Surface Science
• +2 more

Andrew Stollenwerk served as an Assistant Professor in the Department of Physics at the University of Northern Iowa (UNI) from 2009 to 2015. His research specializes in condensed matter physics and materials science, with a focus on low-dimensional systems and quantum phenomena at material interfaces. Research Focus: Dr. Stollenwerk investigates fundamental and applied aspects of nanoscale materials, particularly: Electronic/magnetic properties of 2D materials (MoS 2 , CrI 3 ) Quantum growth modes of metal films on semiconductors Surface engineering for ultra-flat nanostructures Spintronic device applications Theoretical modeling combined with experimental synthesis Publication Trends: Recent work (2022-2025) demonstrates consistent focus on: Controlling magnetic behavior in layered materials via metal deposition Atomic-scale characterization of metal/semiconductor interfaces Novel synthesis methods for atomically smooth thin films Emergent quantum phenomena in heterostructures Awards & Advising: No awards or student advisees are documented in available records. Collaborations: Involved in the collaborative grant "RUI: Patterned Doping of Layered Materials" (2023), indicating active participation in materials science research initiatives.

• Thin Film Solar Cells
• Photovoltaic Engineering
• Material Science
• +3 more

Dr Xiaolei Liu is a Researcher specializing in thin film solar cell technologies, currently based at Loughborough University. He holds a PhD in Photovoltaic Engineering from the University of New South Wales (UNSW), Australia, under Prof. Martin Green. His research focuses on CZTS, CIGS, and perovskite solar cells, with a particular emphasis on interface engineering and thin film deposition techniques. He has contributed to two patents and authored 11 peer-reviewed journal papers and five conference papers, including a highly cited review on kesterite solar cells in Progress in Photovoltaics . Dr Liu's academic journey includes a Research Associate role at University College London (2016-2017), where he explored advanced solar cell materials. His work has addressed challenges in improving device efficiency through innovations like ultra-thin Ag layers at interfaces and graphene integration in CZTS/Mo contacts. He received the Postdoctoral Writing Fellowship from UNSW's Faculty of Engineering in 2015. His research interests span photovoltaic engineering, material science, and renewable energy technologies. Key contributions include advancements in buffer layer materials (e.g., ZnO, SnO2), anti-reflection coatings, and band alignment optimization for CdSeTe/CdTe devices. Recent work focuses on achieving stable and efficient thin film solar cells through innovative fabrication techniques. Awards: Postdoctoral Writing Fellowship (UNSW Faculty of Engineering, 2015) His current research aims to advance thin film solar cell technologies for scalable and sustainable energy solutions.

Vinod MenonView profile

Professor

• Nano Photonics
• Micro Photonics
• Quantum Technologies
• +5 more

Vinod Menon is a Professor of Physics at the City University of New York (CUNY) and affiliated with the Center for Discovery and Innovation. His research focuses on advancing nano and micro photonics, quantum technologies, and 2D material systems. Key areas include exciton-polariton condensation, optoelectronic devices (e.g., OLEDs), and light-matter interactions in van der Waals magnets and layered materials. His work spans theoretical and experimental studies of photonic microcavities, meta-optical resonators, and engineered material systems. Notable contributions include achieving room-temperature polariton condensates in organic systems, optimizing plasmonic OLED efficiency, and exploring strain-engineered optical properties in 2D semiconductors like MoS₂. He has pioneered techniques like self-patterning of liquid metals for semiconductor performance enhancement and developed novel approaches to tune moiré superlattice potentials in twisted hexagonal boron nitrides. Research themes emphasize nonlinear optics, topological photonics, and quantum embedding studies in materials like WS₂. Recent efforts explore applications of van der Waals magnets for magneto-optical devices and neural computing with coherent laser networks. His lab works at the intersection of photonics, quantum materials, and nanotechnology to address challenges in next-generation optoelectronics and quantum information systems. Publications highlight breakthroughs in polariton condensation dynamics, defect engineering in layered semiconductors, and device-scale applications of 2D materials. While no specific awards are listed, his high-impact contributions suggest recognition in photonics and materials science fields. Ongoing projects include developing meta-optical systems for visible light applications and advancing quantum state engineering in photonic chips.

Patrick CullenView profile

Senior Lecturer

• Energy Storage
• Nanomaterials Synthesis
• Electrochemical Devices
• +3 more

Dr. Patrick Cullen is a Senior Lecturer in Renewable Energy at Queen Mary University of London, leading the Admissions for Chemical Engineering and Sustainable Energy Engineering. He holds roles as EDI Co-Lead and is affiliated with the Centre for Sustainable Engineering. His expertise lies in synthesizing nanomaterials for energy devices, including Li-ion batteries, Na-ion batteries, and hydrogen fuel cells, alongside developing operando techniques using neutron and synchrotron facilities. Educated at the University of Oxford (MChem, 2009) and University College London (PhD, 2015), he has held prestigious fellowships, including the EPSRC Doctoral Prize and RCUK EPSRC Innovation Fellowships. His research focuses on energy materials, catalysis, and sustainable technologies, with projects on CO₂ reduction, hydrogen storage, and advanced battery electrodes. His lab utilizes cutting-edge facilities such as air-free synthesis environments and neutron scattering at ISIS and Diamond Light Source. Recent grants include Innovate UK funding for sodium batteries and collaborations with industry on hydrogen evolution and redox flow batteries. Awards include recognition for his contributions to energy materials research. Cullen’s advising spans PhD projects on high-entropy alloys, electrocatalysts, and battery materials. His work bridges academia and industry, driving advancements in sustainable energy systems.

• Graphene
• Two-Dimensional Materials
• Topological Insulators
• +7 more

P. Bampoulis is a Researcher at the University of Twente within the Physics of Interfaces and Nanomaterials department. His work focuses on atomic-scale studies of 2D materials like graphene, MoS₂, and germanene, utilizing advanced techniques such as atomic force microscopy (AFM) and exploring topological insulator properties for quantum device applications. Research Focus : 2D materials, topological edge states, AFM-based characterization. Key Collaborations : H. J. W. Zandvliet, C. Morais Smith, M. Ezawa, and others. Research Interests : Study of humidity-driven interactions in 2D material systems. Realization of topological insulators in germanene nanoribbons. Chirality-induced magnetic polarization in supramolecular crystals. Room-temperature tunability of quantum edge states. Recent Article Trends : His publications emphasize experimental and theoretical advancements in topological insulators, surface science of 2D materials, and AFM-based manipulation, with a strong focus on applications in quantum electronics and nanoscale characterization. Scientific Awards : 2017: Prize for work on Enhanced Water Diffusion Between Graphene and Mica under Electric Fields . Activities : Active in conference presentations, including talks at NWO Physics (2024) and contributions to studies on confined ice melting, germanene termination, and twisted 2D material systems.

Rama VenkatView profile

Professor

• Electronic materials
• Sensors and devices
• Process and device modeling
• +5 more

Rama Venkat is a Professor in the Department of Engineering at the University of Nevada, Las Vegas. He holds a B.Tech. from the Indian Institute of Technology, Madras, and an M.S. & Ph.D. from Purdue University. His expertise spans electronic materials, sensors and devices, process and device modeling, and microelectronics. His research focuses on semiconductor materials, thermoelectric properties, and nanotechnology applications. Education: B.Tech., Indian Institute of Technology, Madras M.S. & Ph.D., Purdue University Research interests include molecular beam epitaxy (MBE) growth modeling, thin film materials, and energy-efficient optoelectronic devices. His work bridges theoretical modeling with experimental validation in semiconductor fabrication and device physics. Notable contributions address structural stability under high pressure, thermoelectric material optimization, and nanocrystal memory cell dynamics. Publications span topics from number theory algorithms to semiconductor device engineering, reflecting interdisciplinary strengths. His recent work emphasizes algorithmic solutions for mathematical conjectures alongside materials science advancements. No scientific awards are explicitly listed, but his extensive publication record indicates sustained research impact. He has advised no students listed here, and no grants are detailed in the provided information. Labs/teams: While not explicitly named, his affiliations suggest involvement with UNLV's engineering laboratories focused on nanomaterials and device fabrication.

Marina AntoniouView profile

Associate Professor

• Power Electronics
• Semiconductor Devices
• SiC Materials
• +4 more

Dr. Marina Antoniou is an Associate Professor in the School of Engineering at the University of Warwick, specializing in power semiconductor devices and wide bandgap materials. She holds a PhD, MEng, and BA from the University of Cambridge (Trinity College). Her research focuses on SiC-based power devices, aiming to enhance energy efficiency, reliability, and cost-effectiveness for applications in smart grids, automotive systems, and power electronics. She has secured significant grants, including a Royal Society Research Fellowship (£860k), and serves as Chair of the IEEE Electron Devices Society Power Devices & ICs Committee (2022–2023). Her editorial roles include Associate Editor for the IEEE Transactions on Electron Devices and Royal Society Philosophical Transactions A. Research Interests: SiC power devices, superjunction technology, high-frequency electronics, and radiation-hardened devices. Grants: Royal Society, EPSRC, and industry partnerships. Committees: IEEE IEDM, ISPSD, and IET PEMD Technical Network. Dr. Antoniou supervises four PhD students, with a focus on SiC device modeling and applications. She has authored five patents and over 50 peer-reviewed articles, contributing to advancements in power electronics reliability and performance.

• Micro-Nanoelectronics
• Semiconductor Physics
• Materials Science
• +5 more

Dimitrios Skarlatos is a Professor in the Department of Physics at the University of Patras, specializing in Micro-Nanoelectronics and Semiconductor Physics with applications in Microelectronics. His academic career spans over two decades, with progressive appointments from Assistant Professor to his current position as full Professor since August 2023. He maintains extensive research collaborations with institutions including EKETE Demokritos, international universities, and semiconductor research centers across Europe. Skarlatos earned his Doctoral Degree from the Department of Physics of the School of Sciences at Aristotle University of Thessaloniki in 2000, with a thesis on "The role of point and extended silicon defects in the operation of MOS transistors." Prior to this, he completed a Postgraduate Diploma in Condensed Matter Physics from the University of Crete (1993) and his undergraduate degree in Physics from the University of Athens (1990). His research focuses on Group IV semiconductor materials (Silicon, Strained Silicon, Germanium) for CMOS technology applications. Key areas include experimental study of extended defects, ion implantation and dopant diffusion/activation, MOS gate dielectric development, and novel memory device architectures (nanocrystal memories, MANOS, ReRAM). His work combines advanced cleanroom processing techniques with electrical characterization and simulation methods. Analysis of his recent publications reveals a strong focus on germanium-based semiconductor devices, with particular attention to dopant behavior, interface engineering, and memory applications. His research has evolved from traditional silicon processing to emerging germanium technologies and novel memory architectures, demonstrating consistent innovation in semiconductor materials science. Skarlatos has supervised 3 completed doctoral dissertations (with 1 in progress), 5 postgraduate theses, and 12 undergraduate theses. He has led multiple research projects including EU-funded initiatives (ESPRIT, GROWTH, IST) and national research programs (GGTE, HERACLES II), focusing on semiconductor front-end processes, memory technologies, and solar cell applications. His laboratory work involves advanced cleanroom processing (ALD, thermal processing, optical lithography), electrical characterization (C-V, G-V, I-V), and collaboration with TEM facilities. He maintains strong connections with semiconductor research centers including CEMES/CNRS in Toulouse and has extensive experience with TCAD simulation tools.

• Condensed Matter Physics
• Materials Science
• Thin Films
• +3 more

Nikolaos Xanthopoulos is an Associate Professor in the Department of Physics at the University of Patras, specializing in Condensed Matter Physics. He holds a prominent position within the School of Sciences and focuses on advanced materials research, particularly in thin films and nanomaterials. His work emphasizes atomic layer deposition (ALD), semiconductor interfaces, and electrical conduction mechanisms. Research interests include the synthesis and characterization of dielectric thin films (Al₂O₃, Ta₂O₅, ZrO₂), nanoparticle core/shell architectures, and their applications in electronics. He has extensively studied Ge/Si substrate interactions, plasma-synthesized nanoparticles, and XPS analysis for surface characterization. Publications span 1990–2022, with recent work focusing on graphene-based inkjet-printed heaters and ALD-grown thin films. His 2022 paper introduced flexible heaters using graphene inks, showcasing innovation in nanomaterial applications. Earlier contributions explored ALD process parameters for Ge substrates and nanocrystalline alumina thin films. No scientific awards are explicitly listed. Teaching responsibilities include physics laboratory courses (Mechanics, Fluid Mechanics, Demonstration Experiments) across multiple semesters. His research infrastructure leverages advanced characterization techniques like impedance spectroscopy and XPS. Laboratory affiliations include the Condensed Matter Physics Department at the University of Patras, with access to state-of-the-art materials characterization facilities.

• Nano-scale materials growth
• Nano-scale device fabrication
• Future MOS Transistors
• +3 more

Zhi David Chen is a Professor of Electrical Engineering at the University of Kentucky's Stanley and Karen Pigman College of Engineering, where he has held continuous faculty appointments since 1999 and currently serves as Associate Director of the Center for Nanoscale Science & Engineering. His career includes progression from Assistant Professor (1999-2004) to Associate Professor (2004-2009) before achieving full Professorship, with prior industry experience at Bell Laboratories. Education: Ph.D. in Electrical Engineering, University of Illinois at Urbana-Champaign (1999) M.S. in Electrical Engineering, University of Electronic Science & Technology (China) (1987) B.S. in Electrical Engineering, University of Electronic Science & Technology (China) (1984) Dr. Chen's research spans nano-scale materials growth, nano-device fabrication, MOS transistor development, gate dielectrics, and advanced sensors, with dominant focus on perovskite photovoltaics. His work addresses critical challenges in solar cell efficiency, environmental stability, and scalable manufacturing, pioneering innovations in lead-free alternatives, surface passivation, and ambient-air processing techniques. He explores novel nanomaterial architectures for next-generation semiconductor and optoelectronic applications. Analysis of his 2020-2024 publications reveals intense concentration on perovskite solar cell optimization (13 of 15 articles), featuring breakthroughs in tin-lead alloys, hysteresis reduction, and underwater module stability. Emerging themes include neuromorphic optoelectronic synapses for vision systems and terahertz communication technologies, demonstrating interdisciplinary expansion while maintaining core expertise in nanoscale device physics. Scientific Awards: No scientific awards were documented in the provided materials. Advising and Grants: While specific student names and grant details were absent from source materials, his sustained publication output and leadership role at the Nanoscale Science & Engineering Center indicate active research supervision and external funding. Labs and Teams: As Associate Director of the Center for Nanoscale Science & Engineering, Dr. Chen leads cross-disciplinary teams developing advanced semiconductor materials and devices, with particular emphasis on perovskite photovoltaics and nano-sensor technologies through collaborations with national laboratories and industry partners.

• Semiconductor Devices
• Electronics Engineering
• Materials Science
• +3 more

Olivier J. S. Ostinelli is a Researcher at ETH Zürich, affiliated with the Department of Information Technology and Electrical Engineering. He is part of the Millimeter-Wave Electronics Group, focusing on semiconductor device research, particularly in InP-based bipolar transistors and optoelectronic components. His work emphasizes high-frequency electronics, materials science, and device physics. After earning his Ph.D. from ETH Zürich in 2006, he has contributed extensively to advancements in double heterojunction bipolar transistors (DHBTs) and high electron mobility transistors (HEMTs). His research addresses crystal growth techniques, breakdown voltage optimization, and high-speed device performance. Key areas of investigation include: Impact ionization mechanisms in DHBTs Type-II band alignment effects Millimeter-wave and terahertz applications Photodiode design for high-speed communications Compact modeling for integrated circuit design His recent work highlights breakthroughs in achieving optimal breakdown voltages in scaled DHBTs and developing ultra-wideband photodiodes for 300 Gbps communication systems. Collaborations with academic and industry partners have driven innovations in semiconductor device fabrication and performance optimization. He has published over 50 peer-reviewed articles in top-tier journals like IEEE Transactions on Electron Devices and Journal of Lightwave Technology , focusing on semiconductor materials, device physics, and high-frequency electronics.