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Victor Bong Nee ShinView profile

Senior Lecturer

• Nanoscale Heat Conduction
• Building Information Modelling
• Sustainable Built Environment
• +1 more

Dr. Victor Bong Nee Shin serves as Senior Lecturer at Swinburne University of Technology's Faculty of Engineering, Computing and Science (Sarawak Campus), specializing in nanoscale thermal physics and sustainable building technologies. His dual expertise bridges fundamental semiconductor research with practical Building Information Modelling applications for green construction. His educational credentials include: Bachelor of Engineering (First Class Honors) in Mechanical Engineering, Swinburne University of Technology PhD in Mechanical Engineering, Swinburne University of Technology (Thesis: 'Fundamental Study of Heat Transport by Phonons and Electrons in Semiconductors at Micro and Nanoscale') Research focuses on three interconnected domains: nanoscale heat conduction mechanisms in semiconductors, BIM-driven sustainable building assessment, and HVACR system optimization. His thermal physics work investigates phonon-electron interactions at micro/nanoscales using advanced Monte Carlo simulations, while his building engineering research develops practical BIM tools for water efficiency and Green Building Index certification in Malaysian contexts. This unique combination addresses both fundamental scientific questions and industry implementation challenges in sustainable construction. Publication analysis (2014-2020) reveals strong methodological continuity in computational thermal modeling, with increasing industry application focus post-2016. The research trajectory shows strategic evolution from pure nanoscale physics toward integrated BIM solutions for sustainable built environments, reflecting growing industry engagement. Key recognitions include: Highly Commended – Swinburne Vice-Chancellor’s Engagement Award (Industry Engagement) 2019 Best Paper Award in Physics and Materials Symposium, ICASIT 2015 Research leadership includes active supervision of postgraduate students and industry-collaborative projects funded through Swinburne's engagement initiatives. His CIDB BIM Trainer certification and MyCREST Facilitator qualification enable direct industry knowledge transfer. As ASHRAE Student Branch Advisor and IEM committee member, he maintains strong professional networks that inform both research direction and student opportunities. His work bridges academic research and industry practice through dual-track contributions: advancing fundamental understanding of nanoscale thermal transport while developing practical BIM applications for Malaysia's green building sector. Current initiatives focus on automating sustainability assessments through integrated digital workflows.

Su Hieng TiongView profile

Professor

• RF and Microwave Engineering
• Wireless Energy Harvesting
• Microwave Passive Devices
• +4 more

Professor Su Hieng Tiong serves as Dean and Professor of the Faculty of Engineering, Computing and Science at Swinburne University of Technology Sarawak Campus. With a PhD from the University of Birmingham and BEng (Hons) from Liverpool, he brings over 25 years of combined industry and academic expertise in electrical engineering. Education PhD in Electronic and Electrical Engineering, University of Birmingham, UK (2001) BEng (Hons) in Electrical Engineering and Electronics, University of Liverpool, UK (1994) Research Focus : Professor Su's work centers on RF and Microwave Engineering , with pioneering contributions to RF energy harvesting systems , compact multimode resonator filters , and substrate integrated waveguide technology . His research bridges theoretical microwave principles with practical implementations for next-generation communication systems, particularly addressing challenges in spectrum efficiency and rural connectivity. Publication Trends : Recent publications (2020-2022) demonstrate strategic expansion into real-world applications including TV white space antennas for rural Sarawak and cost modeling for internet infrastructure. Earlier work (2012-2015) established foundational innovations in multimode filter design, showing consistent progression from component-level research to system-level implementations. Research Leadership : Professor Su has secured major grants including Principal Investigator roles for Digital Sarawak's rural infrastructure project (2019-2021) and Ministry of Education's ultra-compact filter study (2011-2013). His active supervision of research students focuses on translating theoretical microwave concepts into deployable communication solutions.

Eran RabaniView profile

Professor

• Theoretical and computational chemistry
• Nanomaterials
• Quantum dots
• +7 more

Prof. Eran Rabani is a distinguished researcher and professor holding dual appointments at Tel Aviv University's School of Chemistry and the University of California, Berkeley's Department of Chemistry. At UC Berkeley, he holds the prestigious Glenn T. Seaborg Chair in Physical Chemistry and serves as a Faculty Scientist at Lawrence Berkeley National Laboratory. His research bridges theoretical chemistry, computational physics, and nanomaterials science, with significant contributions to understanding quantum phenomena at the nanoscale. Prof. Rabani earned his Ph.D. in Theoretical Chemistry from The Hebrew University in 1996, followed by postdoctoral research at Columbia University. His academic career progressed from Senior Lecturer to full Professor at Tel Aviv University, where he has maintained a continuous appointment since 1993. His educational background includes a summa cum laude B.Sc. from the Special Program "Amirim" at The Hebrew University. Rabani's research program centers on three interconnected pillars: Optoelectronic Properties of Nanomaterials , where his group develops computational models to describe exciton fine structure and phonon interactions in nanocrystals; Quasiparticle Dynamics , investigating electron transfer processes in nanoscale systems; and Stochastic Electronic Structure Methods , pioneering computational approaches that dramatically reduce the complexity of quantum simulations. His work combines theoretical innovation with practical applications in renewable energy, sensing technologies, and quantum information processing. Analysis of Rabani's recent publications reveals a strong emphasis on quantum confinement effects, exciton dynamics, and the development of stochastic computational methods that enable simulations of previously intractable systems. His research demonstrates increasing interdisciplinary collaboration, particularly with experimental groups working on quantum dots, perovskites, and other nanomaterials, with a clear trajectory toward solving real-world problems in energy conversion and quantum technologies. Prof. Rabani's contributions have been recognized with numerous prestigious awards: International Association of Advanced Materials Fellow (2023) Humboldt Research Award (2022) Vebleo Fellow for Prominence and Leadership in Science (2021) Glenn T. Seaborg Chair in Physical Chemistry (2017) Baker Symposium Speaker at Cornell University (2016) Kavli Frontiers of Science Alumni (2015) Marko & Lucie Chaoul Chair for Theoretical and Computational Nanoscience (2013) His research program is supported by substantial funding from major agencies including the National Science Foundation, Department of Energy, and Israel Science Foundation. Current grants (2021-2025) total over $2.5 million, focusing on semiconductor nanowires, computational materials science, and optoelectronic materials. As Director of The Sackler Center for Computational Molecular and Materials Science at Tel Aviv University, he leads a vibrant research group that bridges theoretical innovation with experimental validation. Prof. Rabani directs The Sackler Center for Computational Molecular and Materials Science at Tel Aviv University and has served in various administrative roles including Vice President for Research and Development. His research group maintains strong collaborations with experimentalists worldwide, creating an intellectual community focused on advancing fundamental understanding of nanoscale phenomena while exploring practical applications in energy, sensing, and quantum technologies.

Wiesław KordalskiView profile

Associate Professor

• Semiconductor Device Modeling
• MOS Transistor Modeling
• Magnetic Field Sensors
• +6 more

Dr. hab. inż. Wiesław Kordalski is an Associate Professor at the Department of Microelectronic Systems within the Faculty of Electronics, Telecommunications and Informatics at Gdańsk University of Technology. His academic career spans several decades, with documented teaching activities from at least 2002 through the 2024/2025 academic year. He maintains two institutional email addresses: wiekorda@pg.edu.pl and kord@eti.pg.edu.pl. His research interests focus on semiconductor device modeling, particularly MOS transistors, with emphasis on quasi-2D small-signal models, magnetic field sensors (MAGFETs), and parameter extraction methods. He has developed specialized expertise in non-quasi-static modeling of transistors for radio and microwave frequencies, with models verified up to 30 GHz. His work bridges theoretical modeling and practical implementation, addressing both fundamental semiconductor physics and engineering applications. Analysis of his publications reveals a consistent research trajectory centered on MOSFET modeling techniques, with particular focus on quasi-2D representations and non-quasi-static behavior. His work demonstrates progression from basic transistor modeling to more specialized applications like magnetic field sensors. The research shows strong methodological consistency, with recurring themes of physics-based modeling, experimental verification, and practical implementation considerations. Professor Kordalski teaches across multiple departments, primarily offering courses in Electronics, Electronic Circuits, and Electrical Engineering. His teaching portfolio includes courses for Mechanical Engineering, Mechatronics, and Medical and Mechanical Engineering programs, demonstrating interdisciplinary engagement. He has consistently taught these subjects since at least 2012, indicating substantial teaching experience and institutional commitment.

• Optimal Control
• Partial Differential Equations
• Optimization
• +5 more

Hannes Meinlschmidt is an Assistant Professor and Senior Scientist at the Chair for Dynamics, Control, Machine Learning and Numerics (Alexander von Humboldt Professorship) at Friedrich-Alexander University Erlangen-Nuremberg (FAU) since March 2021. He previously held a PostDoc position at the Radon Institute for Computational and Applied Mathematics (RICAM) in Linz, Austria, from September 2017. He obtained his Diploma (2011) and PhD (2017) in Mathematics from TU Darmstadt, supervised by Stefan Ulbrich. His research intersects optimal control, optimization, and PDE analysis with emphasis on: Regularity theory for elliptic/parabolic equations Control of nonlinear PDE systems Applications with nonsmooth data Variational methods for dynamic models His publications demonstrate expertise in mathematical analysis of physical systems, including semiconductor equations, thermistor control, and biological models. Work frequently addresses mixed boundary conditions, nonsmooth domains, and Hölder regularity. Teaching includes advanced mathematics courses such as: Optimization with PDEs Interpolation theory Partielle Differentialgleichungen I/II He leads research at the FAU DCN-AvH chair, contributing to PDE numerics and control theory.

Bill TumasView profile

Research Professor

• Materials design
• Catalysis
• Supercritical fluids
• +14 more

Bill Tumas serves as Associate Lab Director for Materials/Chem Science & Technology at the National Renewable Energy Laboratory (NREL), where he provides overall leadership, management, technical direction, and workforce development for materials, chemical, and computational science capabilities. With over 30 years of experience in national laboratories and industry, Dr. Tumas joined NREL in December 2009 as director of the Chemical and Materials Science Center after spending 17 years at Los Alamos National Laboratory. Dr. Tumas earned his Bachelor's degree in Chemistry from Ithaca College and his PhD in Chemistry from Stanford University. His educational background in chemistry forms the foundation for his extensive work in renewable energy research and development. His research interests span a broad spectrum of renewable energy technologies, with particular focus on photovoltaics and solar energy conversion, electrochemistry, hydrogen production, materials discovery, and energy storage. Dr. Tumas oversees NREL's solar, hydrogen and fuel cells, basic energy sciences, advanced computing, and ARPA-E programs, driving innovation across multiple energy technology domains. Analysis of his 24 research publications from 2001-2024 reveals a consistent focus on advancing materials science for renewable energy applications, with recent work emphasizing photovoltaics scaling, carbon cycle management, renewable hydrogen, and high-throughput materials discovery. His publications appear in high-impact journals including Nature Reviews Chemistry, Science, and Nature Materials, demonstrating the significance of his contributions to the field. Fellow of the American Association for the Advancement of Science Leader of two Energy Frontier Research Centers: Center for Next Generation of Materials Design and Center for Inverse Design Significant research impact with multiple highly cited publications As NREL's laboratory point of contact for the Office of Science's Basic Energy Sciences program, Dr. Tumas manages critical sponsor relationships and program execution. His leadership extends to creating numerous multi-institution and international collaborations that advance renewable energy research globally. Dr. Tumas's work bridges fundamental science with practical applications, addressing some of the most pressing energy challenges of our time. He leads the Materials, Chemical, and Computational Science division at NREL, which serves as a hub for innovative research in renewable energy materials and technologies. Under his direction, the division pursues cutting-edge research that spans from basic science to applied technology development, creating pathways for commercial implementation of advanced energy solutions.

• Nuclear Fusion
• Plasma Physics
• Radiation Detection
• +4 more

Gabriel Crosses is a Researcher in the Department of Physics "Giuseppe Occhialini" at the University of Milano-Bicocca, specializing in nuclear fusion diagnostics and radiation detection systems for tokamak reactors. His work focuses on developing advanced diagnostic tools essential for measuring and understanding plasma behavior in fusion experiments. Dr. Crosses' research interests center on radiation detection for fusion applications, with particular expertise in gamma-ray and neutron spectroscopy. He develops diagnostic systems including scintillation detectors, semiconductor-based neutron sensors, and proton recoil spectrometers. His work addresses critical challenges in measuring fusion power output, particularly for next-generation devices like ITER. Recent research incorporates machine learning techniques to improve diagnostic accuracy in complex fusion environments. His publication record shows consistent contributions to the field, with numerous articles in 2025-2026 focusing on detector development, plasma diagnostics, and analysis methods for major fusion facilities including SPARC, ITER, MAST-U, and JET. The research spans both theoretical modeling and experimental validation of diagnostic systems. Dr. Crosses collaborates extensively with international fusion research teams across multiple facilities. His work supports the development of reliable diagnostic tools necessary for advancing fusion energy research toward practical implementation.

• Numerical Mathematics
• Computational Physics
• Photonic Crystals
• +3 more

Sven Burger is a researcher at the Zuse Institute Berlin (ZIB) in the Department of Numerical Mathematics, specializing in advanced numerical simulation techniques for photonics and semiconductor applications. His research spans critical areas of computational science: Numerical Mathematics Computational Physics Photonic Crystals Finite Element Method Semiconductor Devices Optical Simulation Dr. Burger has successfully led German Research Foundation (DFG) projects including \"Finite-element simulation of parametric processes and radiation losses in photonic crystals\" (Priority Program) and \"Multi-dimensional modeling and simulation of electrically pumped semiconductor-based light sources\" (Collaborative Research Center), demonstrating expertise in modeling complex electromagnetic phenomena and optoelectronic systems through rigorous computational frameworks. His work focuses on developing high-accuracy simulation methodologies for next-generation photonic devices and semiconductor technologies, with emphasis on radiation loss analysis and multi-dimensional modeling of light-matter interactions.

• Computational Mathematics
• Numerical Analysis
• Quantum Mechanics
• +3 more

Frank Schmidt is a Professor at the Zuse Institute Berlin (ZIB), a leading non-university research institute for applied mathematics and computer science in Berlin, Germany. His work bridges computational mathematics with quantum physics and semiconductor engineering through advanced numerical methods. Primary Affiliation: Zuse Institute Berlin (Takustraße 7, 14195 Berlin) Academic Rank: Professor (Dr.-Ing. title indicating doctoral engineering degree) Institutional Context: ZIB operates within the Leibniz Association and maintains formal collaborations with Berlin universities including Freie Universität Berlin and Humboldt-Universität zu Berlin His research focuses on developing specialized boundary conditions for quantum systems and semiconductor simulations. Key projects include discrete transparent boundary conditions for time-dependent Schrödinger equations over unbounded domains, resonance calculations in open quantum systems, and multi-dimensional modeling of electrically pumped semiconductor light sources. This work demonstrates deep expertise in solving complex partial differential equations for quantum mechanical and optoelectronic applications. While specific lab infrastructure isn't detailed, his research sits at the intersection of computational mathematics and applied physics. The completed projects indicate sustained funding through DFG research grants and collaborative research centers, reflecting strong methodological contributions to numerical analysis in quantum systems. His work on semiconductor light sources suggests relevance to photonic device engineering and quantum technology development.

Radu DragomirView profile

Researcher

• Theoretical Physics
• Computational Physics
• Quantum Transport
• +4 more

Radu Dragomir is a Scientific Researcher at the National Institute of Materials Physics (NIMP) in Magurele, Romania, affiliated with the Laboratory of Theoretical Physics and Computational Modeling. His work bridges theoretical physics and computational modeling, focusing on quantum phenomena in nanoscale systems. His educational background includes: PhD in Theoretical Physics (2012–2016) from the University of Bucharest's Faculty of Physics, with a summa cum laude thesis on "Transport phenomena and exciton dynamics in optically active quantum dots" under Prof. Dr. Virgil Baran and Dr. Valeriu Moldoveanu. MSc in Computer Tomography (2009–2011) focusing on reconstruction algorithms. Undergraduate training at National Informatics College "Tudor Vianu" in mathematics and informatics. Dragomir's research centers on quantum transport , spin dynamics , and nanoelectromechanical systems , employing advanced methods like k.p theory and configuration interaction . His work reveals critical insights into spin-vibron coupling in single-molecule magnets, exciton dynamics in quantum dots, and quantum turnstile operations in NEMS. Key contributions include identifying Rabi oscillations as fingerprints of spin-vibron coupling and demonstrating how vibron-assisted transitions enable molecular spins to climb anisotropy barriers. Analysis of his 2014–2023 publications shows a consistent trajectory in quantum nanoscale physics, with increasing emphasis on hybrid quantum systems where mechanical, electronic, and spin degrees of freedom interact. His research has significant implications for quantum computing components and nanoscale sensor design. Scientific awards include: 2004: First mention (6th place) at National Physics Olympiad 2004: Qualification for IPHO training group 2004: 1st prize at National Physics Contest "Phi" 2004: 1st prize at Schwartz Physical Memorial Contest 2005: Mention (10th place) at National Physics Olympiad 2005: Qualification (5th place) for IPHO training group 2005: 2nd prize at Advertising Physics Contest No student advisement or grant information is documented in the provided materials. His current work within NIMP's Laboratory of Theoretical Physics and Computational Modeling involves collaborative projects on quantum transport simulations and spin dynamics modeling, often utilizing generalized master equation approaches for open quantum systems.

Robert HonkeView profile

Professor

• Materials Science
• Structural Mechanics
• Computational Fluid Dynamics
• +6 more

Prof. Dr. Robert Honke serves as Research Group Leader for System Simulation at the Institute for Hydrogen and Energy Technology (iwe) and sits on the Advisory Board of the Institute for Circular Economy of Bio:Polymers (ibp) at Hof University of Applied Sciences. His office is located in Building C, Room C117, with Wednesday office hours from 13:00-14:00. With over two decades of academic service since 2003, he bridges theoretical physics and practical engineering applications. Education: Physics studies at University of Regensburg Doctorate in Theoretical Physics (University of Regensburg) focusing on ab initio calculations of nonlinear vibrations on semiconductor surfaces Research Interests: Prof. Honke's work spans sustainable materials engineering and advanced simulation techniques. His primary focus areas include construction materials derived from biogenic residues, efficient thermal storage systems, control mechanisms for building energy management, and lightning strike damage simulation on composite structures. His research integrates computational physics with practical engineering challenges, particularly in aerospace and sustainable energy systems. The consistent thread through his career—from semiconductor surface physics to modern composite materials—demonstrates deep expertise in applying simulation methodologies to real-world structural and energy problems. Publication Trends: His recent publications (2015-2022) emphasize lightning protection for composite aerospace materials, thermal energy storage solutions, and biomass conversion technologies. Earlier works (1996-2002) established foundational contributions to surface physics, semiconductor vibrations, and satellite mirror design. Collectively, his research shows a strategic evolution from fundamental surface physics toward applied sustainable engineering, with computational modeling as the unifying methodology across all periods. Scientific Awards: No scientific awards were documented in the provided materials. Advising and Grants: Prof. Honke teaches core subjects in Master's programs for Composite Materials (structural mechanics) and Mechanical Engineering (CFD/FEM/Mathematics), maintaining strong industry connections from his prior Daimler Group experience. While specific student names and grant details aren't listed, his research group leadership indicates active supervision of graduate projects in simulation-based engineering. Labs and Teams: He directs the System Simulation research group at iwe, focusing on hydrogen technology applications, while contributing strategic guidance to ibp's circular economy initiatives for bio-polymers. These dual roles position him at the intersection of sustainable energy systems and advanced materials research within the university's engineering ecosystem.

• Superconductivity
• Nanotechnology
• Topological Physics
• +4 more

Prof. Dr. Vladimir M. Fomin serves as a Research Professor at the Institute for Integrative Nanoscience (IIN) within the Leibniz Institute for Solid State and Materials Research Dresden. His academic career spans over 15 years with extensive contributions to nanostructured superconductors and topological materials. His research focuses on geometric control of superconductivity in 3D nanoarchitectures , specializing in vortex dynamics, topological transitions, and quantum effects in curved nanostructures. Key areas include superconducting nanotubes, quantum rings, and phonon engineering in nanomembranes. His work bridges theoretical modeling with experimental nanofabrication techniques. Analysis of his 15 most recent publications (2023-2025) reveals dominant trends in topology-driven superconductivity and geometric manipulation of quantum states . The research consistently explores how curvature and topology affect vortex matter, with applications in superconducting electronics and quantum computing. Sub-fields prominently featured include vortex ratchets, Shapiro steps, magneto-polaron resonances, and microwave generation in nanoscale systems. His scientific impact is evidenced by 64 journal papers, 9 contributed book chapters, 95 invited talks across 15+ countries, and 5 monographs. Notable speaking engagements include keynote addresses at IEEE-NANO 2022, K. Alex Müller Workshop (2023), and international seminars from Moscow to Busan. Prof. Fomin actively supervises PhD projects in geometric control of superconductivity and collaborates globally with institutions including Universidad Autónoma de Madrid, Pusan National University, and Argonne National Laboratory. His research group develops advanced simulation frameworks for curved nanostructures while maintaining strong experimental partnerships for nanofabrication and characterization. He leads research on catalytic micro/nanoengines and superconducting vortex matter, with recent work focusing on reconfigurable 3D superconducting architectures and topological transitions in ac/dc-driven systems. Current projects involve quantum interference phenomena in non-ideal mesoscopic rings and phonon spectrum engineering in rolled-up nanostructures.