جست‌وجوی استاد و پژوهشگر

Soichiro Tsujinoمشاهده پروفایل

استاد مهمان

• Ultrasound Mechano-Biology
• Acoustic Levitation
• Coherent Electron Source
• +۲ مورد دیگر

Soichiro Tsujino is a Senior Scientist at the Paul Scherrer Institute (PSI) and holds a Visiting Professor position at the Research Institute of Electronics, Shizuoka University, Japan, since April 1, 2025. His research spans Ultrasound Mechano-Biology , Acoustic Levitation , Coherent Electron Sources , Wavefront Engineering , and Vacuum Nanoelectronics . He specializes in integrating ultrasound and electron beam technologies for applications in Structural Biology , Microfluidics , and Nanoscale Imaging . His recent publications reflect a strong focus on acoustic manipulation for protein crystallography , including high-speed droplet mixing and electron beam interference control . Collaborations with institutions like Forschungszentrum Jülich, ESRF, and Swiss Nanoscience Institute highlight his interdisciplinary impact. 2025 : IEEE Transactions on Ultrasonics, Ferroelectrics, and Frequency Control (acoustic tweezing in microfluidics) 2024 : Japanese Journal of Applied Physics (electron beam control); Droplets (inertial mixing for crystallography) 2022 : Journal of Vacuum Science & Technology B (electron beam coherence); Scientific Reports (thin film levitation for structural studies) Dr. Tsujino has been recognized as a Top Reviewer in Applied Physics Letters (2018) and mentored PhD candidates like Shichao Jia (University of Basel, 2025), Pooja Thakkar (University of Basel, 2021), and Soheil Hajibaba (University of Zürich, 2024). Current grants include support from the Swiss National Science Foundation , Innosuisse , and the European Union's Horizon 2020 for projects combining acoustic levitation with synchrotron beamline technologies .

Matthias Nienhausمشاهده پروفایل

استاد

• Electric Drives
• Active Magnetic Bearings
• Sensorless Control
• +۷ مورد دیگر

Prof. Dr.-Ing. Matthias Nienhaus is a full Professor at Saarland University, serving as the Chair of Drive Technology within the Faculty of Engineering. He leads a research group focused on advanced drive systems, including active magnetic bearings, sensorless control, and electromechanical design. His teaching includes courses such as Drive System Technology - Components , and he supervises student theses in mechatronic systems. University: Saarland University School: Faculty of Engineering Position: Professor and Chair Holder Research Focus: Electric Drives, Magnetic Bearings, Sensorless Control His research interests lie in the development and optimization of mechatronic drive systems, particularly in the areas of active magnetic bearings (AMBs), sensorless position detection, and control strategies for electric motors. He investigates novel control methods such as sliding-mode and super-twisting control, as well as applications in Vernier motors and Foucault pendulum drives. His work integrates modeling, simulation, and experimental validation. The recent publications highlight a strong trend in control engineering for magnetic bearings, emphasizing robustness, sensorless operation, and optimization techniques. These works apply advanced control algorithms like particle swarm optimization and super-twisting sliding mode control to improve stability and performance in high-precision drive systems. Prof. Nienhaus actively supervises student research and final theses, guiding projects in areas such as torque motor test benches, electromagnetic actuators, and optimization of electric machines. While no specific grants are listed, his work implies ongoing research funding through university and likely national or industrial sources. He leads the Drive Technology research group (Lehrstuhl für Antriebstechnik) at Saarland University, which includes scientific staff and alumni working on cutting-edge topics in electric drives and mechatronics. The team utilizes simulation tools like Comsol Multiphysics and Ansys Maxwell, and develops embedded control systems for experimental validation.

• Physical Acoustics
• Functional Materials for Acoustics
• Contactless Micromanipulation with Acoustic Waves
• +۹ مورد دیگر

Diego Baresch is a researcher at the University of Bordeaux specializing in Physical Acoustics and Functional Materials for Acoustics . His work focuses on contactless micromanipulation using acoustic waves, ultrasonic imaging, and modeling of complex wave propagation. Key research areas: Opto-acoustics, Nanophononics, Picosecond Biophononics Projects: ANR, PEPR, CARNOT, European collaborations Techniques: Acoustic trapping, Radiation force, Wavefront engineering His recent articles (2013-2025) demonstrate expertise in acoustical tweezers , microbubble dynamics , and spin-orbital angular momentum conversion . Publications address challenges in soft solid rheology, particle manipulation, and wave propagation in complex media. The work spans biomedical applications (e.g., targeted drug delivery) and fundamental wave physics. Diego contributes to multidisciplinary teams including DYNAMICS Mechanics, corrosion, hydrogen and Multiscale Modeling and Behavior of Heterogeneous Materials . He is active in the Cluster of Platforms I2M , working on metrology and characterization technologies.

• Quantum Physics
• Quantum Computing
• Quantum Simulation
• +۵ مورد دیگر

Rainer Blatt is a University Professor at the University of Innsbruck , affiliated with the Department of Experimental Physics . He also contributes to research at the Institute for Quantum Optics and Quantum Information of the Austrian Academy of Sciences. His work focuses on quantum computing, quantum simulation, and quantum optics using trapped ions. Research Interests: Blatt specializes in advancing quantum technologies through trapped ion systems. His research encompasses quantum gate operations, entanglement engineering, and simulation of complex many-body physics. He explores error-corrected architectures and topological phases for scalable quantum computing. Recent Publications: His articles highlight a strong emphasis on trapped ion quantum processors, lattice gauge theories, and entanglement dynamics. Topics include fault-tolerant error correction, symmetry-protected phases, and suppression of spontaneous emission, reflecting cutting-edge contributions to quantum information science. Collaborations: Blatt is associated with the Department of Experimental Physics and the Institute for Quantum Optics and Quantum Information , both based in Innsbruck, Austria. His research integrates experimental and theoretical quantum technologies.

• Antimatter Research
• Quantum Optics
• Laser Cooling
• +۵ مورد دیگر

Giovanni Cerchiari is a researcher at the Department of Experimental Physics at the University of Innsbruck , focusing on experimental quantum and particle physics. His work bridges antimatter research, quantum optics, and advanced detection systems. Research Interests: Quantum control of spontaneous emission and entanglement Laser cooling of exotic particles like positronium and antiprotons Development of high-resolution detectors for particle annihilation Simulation of mixed plasma confinement for antihydrogen production Quantum optics with trapped ions and dipolar scatterers Gravitational studies of antimatter via the AEgIS experiment Article Trends: Giovanni Cerchiari's recent publications highlight advancements in antimatter experiments (e.g., AEgIS at CERN), quantum systems manipulation (e.g., spontaneous emission control), and detector technologies. His work spans theoretical simulations (e.g., plasma confinement) and experimental implementations (e.g., laser cooling, Moiré deflectometry), with a recurring focus on positronium and antihydrogen for fundamental physics tests like the Weak Equivalence Principle. Labs and Teams: He is actively involved in the AEgIS experiment at CERN, aiming to measure antimatter gravity, and contributes to quantum optics projects at the University of Innsbruck's Department of Experimental Physics. His collaborations include detector development and simulation studies for antimatter experiments.

Ignaas S.M. Jimidarمشاهده پروفایل

پژوهشگر

• Particle Assembly
• Microsphere Technology
• Surface Science
• +۵ مورد دیگر

Ignaas S.M. Jimidar is an active Researcher in the Mesoscale Chemical Systems group at the University of Twente's Faculty of Science and Technology. His work bridges materials science, microfluidics, and surface engineering with practical applications in chromatography and energy harvesting systems. With 36 research outputs between 2016-2025, he has established himself as a specialist in dry particle assembly techniques that eliminate traditional solvent-based approaches. Dr. Jimidar's research focuses on particle assembly , particularly solvent-free methods for organizing microspheres into ordered monolayers and arrays. His fingerprint analysis reveals dominant work in particle assembly (100%), microsphere technology (87%), and surface science (69%). Recent publications demonstrate increasing output, with 12 papers in 2022 and 6 in 2024, showing growing impact in the field. His work on triboelectric effects and vacuum-driven assembly represents a significant shift toward environmentally friendly fabrication methods that could revolutionize microfluidic device manufacturing. His notable scientific achievements include: 2018 MNE Micro-Nano Graph Contest - Third Place 2024 APS GSNP Image of the Month 2024 MSB Young Scientists Award (2nd place) Dr. Jimidar actively participates in the scientific community as Chair of the 99th ACS Colloids & Surface Science Symposium (2024-2025), previously served as a participant in the APS March Meeting 2023, and conducted visiting research at the University of Warwick in August 2022. His media presence includes three public engagement activities in 2024 discussing micro-and nanoparticle control for chemical analysis and solvent-free assembly techniques. The researcher maintains strong industry connections through applications in chromatography technology and energy harvesting devices.

• Astronomy
• Space Science
• Planetary Science
• +۳ مورد دیگر

Julia Martikainen is a researcher at the University of Helsinki specializing in planetary-system research within astronomy and space science. Her experimental work focuses on light scattering phenomena involving cosmic dust analogues, Martian dust aerosols, and regolith simulants, with consistent publications from 2016 to 2025 in journals including Astrophysical Journal and Astronomy and Astrophysics . She completed her Doctor of Science (PhD) at the University of Helsinki in 2021 with the thesis "Asteroid and meteorite compositional studies by modeling light scattering". Her core research domains include: Astronomy and Space Science Planetary Science Light Scattering and Polarimetry Cosmic Dust and Regolith Analogs Martian Atmosphere Characterization Experimental Astrophysics Optical Properties of Planetary Materials She develops instrumentation like acoustic levitators for dust suspension while advancing laboratory techniques for planetary surface simulation. Recent publications (2023-2025) demonstrate concentrated experimental work on Martian dust properties and cosmic dust analogues, generating critical scattering matrices and optical constants for mission data interpretation. This research bridges astronomy, atmospheric physics, and optical engineering through multinational collaboration. No scientific awards or fellowships are documented in available sources. She participated in the ERC Advanced Grant project SAEMPL (2013-2018) investigating electromagnetic particle scattering. Public records indicate no graduate student supervision. Her work operates within international networks connecting Finnish and Spanish research groups, utilizing specialized laboratories for light scattering experiments and planetary dust simulation.

Brian D'Ursoمشاهده پروفایل

دانشیار

• Levitated Optomechanics
• Quantum Optics
• Precision Measurements
• +۳ مورد دیگر

Brian D'Urso is an Associate Professor in the Department of Physics at Montana State University within the College of Letters & Science. His research focuses on precision measurements and quantum phenomena using levitated optomechanics. He leads the D'Urso Lab, which is part of both the Optical Technology Center (OpTec) and the Spectrum Lab at MSU. Dr. D'Urso received his B.S. in Physics from the California Institute of Technology in 1998 and his Ph.D. in Physics from Harvard University in 2003. His educational background provided the foundation for his current research in quantum optics and precision measurement systems. His primary research interests include levitated optomechanics, quantum optics, precision measurements, and atomic physics. The D'Urso Lab utilizes microparticles and nanoparticles levitated in magnetic, optical, and Paul traps under vacuum to make sensitive measurements with controlled coupling to the environment. Two specific research goals include fundamental tests of quantum mechanics and quantum gravity, and developing a new approach to precisely measuring the Newtonian gravitational constant G. Analysis of Dr. D'Urso's recent publications reveals a strong focus on levitated optomechanics systems, particularly using magneto-gravitational traps. His work spans both fundamental physics questions and practical instrumentation development. Key themes include particle trapping techniques, precision measurement methodologies, quantum measurement limits, and applications in gravitational physics. His research group has made significant contributions to understanding microsphere interactions, feedback cooling techniques, and accelerometer development using levitated particles. National Science Foundation (NSF) - Collaborative Research: Measuring G with a Levitated Test Mass Opto-Atomics Corporation (OPTATO) - Nanoparticle On-demand Loading System (Phase II) Montana State University II-VI Foundation Block-Gift Program Montana NASA EPSCoR program Dr. D'Urso actively mentors graduate and undergraduate students in his research group. Current graduate students include Cody Jessup, Connor Murphy, and Dakota Chapman. His former students have gone on to positions at institutions including AFRL (Albuquerque, NM), AdvR (Bozeman, MT), Green Bank Observatory (Green Bank, WV), and Kromek (Zelienople, PA). He also supports students applying for prestigious NSF Graduate Research Fellowships. The D'Urso Lab maintains strong connections with the broader scientific community through service activities including serving as a reviewer for journals such as American Journal of Physics, Nature Communications, and The Physics Teacher, as well as participating in NSF proposal review panels and conducting external tenure reviews for other institutions.

Erik Hendricksonمشاهده پروفایل

استاد

• Condensed Matter Physics
• Physics Education
• Elementary Particle Physics
• +۲ مورد دیگر

Erik Hendrickson is a Professor and Chair in the Physics and Astronomy Department at the University of Wisconsin-Eau Claire within the College of Arts and Sciences, where he has served since 1994. His career integrates teaching, research, and extensive science outreach. Education: Ph.D. in Condensed Matter Physics from Michigan State University (1994) M.S. in Physics from Michigan State University (1990) B.S. in Physics from University of Wisconsin-River Falls (1988) His research spans condensed matter physics (focusing on electride compounds), elementary particle physics through student-led cloud chamber projects, planetary science investigations of Europa's magnetic field, and innovative physics education methods. He co-founded Science Theatre during graduate studies, which earned the 1993 AAAS Public Understanding of Science & Technology Award for bringing science demonstrations to schools and public events. His publication record centers on electride research from 1996-1998, examining optical and electrical properties of sodium and potassium cryptate compounds. These studies contribute to material science understanding of novel electride systems and their spectroscopic behaviors. Scientific Awards: UWEC Excellence in Service Award (2011) Student Organization Advisor Awards (2003, 2013) UWEC Education Professor of the Year (2003, 2009) WAPT Excellence in Teaching Physics Award (2000) As faculty advisor for the Society of Physics Students and Sigma Pi Sigma (National Physics Honor Society), he mentors students through research collaborations like cloud chamber and acoustic levitator projects. He also serves as Secretary/Treasurer for the Wisconsin Association of Physics Teachers, demonstrating commitment to both institutional and professional service. He actively leads science outreach initiatives including Science Theatre demonstrations and anticipates expanded research capabilities in the new Science & Health Science Building opening Fall 2027.

• Quantum Optomechanics
• Levitated Nanoparticles
• Nanomechanical Systems
• +۳ مورد دیگر

Dr. Lorenzo Dania is a Researcher affiliated with the Professorship for Photonics at ETH Zürich, Switzerland. His research focuses on quantum optomechanics, levitated nanoparticles, and hybrid trapping systems. He has contributed to groundbreaking work on high-purity quantum systems at room temperature, ultrahigh-Q nanomechanical oscillators, and synergistic cooling techniques in Paul traps. His publications explore topics such as optical trapping, cavity optomechanics, and quantum feedback mechanisms. Dania's work bridges quantum physics and nanotechnology, advancing experimental platforms for precision measurements and hybrid quantum systems. Key research themes include the development of levitated nanoparticle systems, optimization of trapping environments (e.g., Paul traps), and the application of advanced detection methods like self-homodyne and interferometric techniques. His articles highlight innovations in mechanical resonators, thermal control, and multi-field interactions in quantum systems. Despite no listed awards or students, Dania’s contributions to nanomechanical and optomechanical research position him as a key figure in advancing quantum technologies.

Nancy Aggarwalمشاهده پروفایل

استاد

• Gravitational Wave Astronomy
• Astrophysics
• Particle Physics
• +۴ مورد دیگر

Dr. Nancy Aggarwal is a Professor in the Department of Physics at the University of California, Davis. Her research focuses on gravitational wave astronomy, dark matter detection, and experimental astrophysics. She is actively involved in collaborations such as LIGO, Virgo, IceCube, and ARIADNE, contributing to groundbreaking studies of compact binary mergers, axion clouds around black holes, and high-frequency gravitational wave detection using optical trapping technologies. Her work bridges quantum optics, cosmology, and particle physics, aiming to explore fundamental questions in astrophysics and dark matter. Key research areas include: Gravitational wave detection via novel methods like optical trapping of microdisks Searches for axion dark matter and primordial black holes Neutrino astrophysics using IceCube data Development of ultra-sensitive sensors for high-frequency gravitational waves Analysis of binary coalescence events in LIGO/Virgo data Her recent publications explore challenges in gravitational wave searches above 10 kHz, constraints on dark photon dark matter, and optimization of SQUID gradiometers for axion experiments. Dr. Aggarwal’s contributions have advanced both observational and theoretical frameworks in multi-messenger astronomy and quantum metrology.

• Machine Learning Security
• Privacy-Preserving AI
• Adversarial Machine Learning
• +۶ مورد دیگر

Prateek Mittal is a Professor in the Department of Computer Science at Princeton University's School of Engineering and Applied Science. His research spans multiple critical areas at the intersection of security, privacy, and machine learning, with a particular focus on developing robust and privacy-preserving AI systems. Dr. Mittal's research interests center on machine learning security and privacy, with specific expertise in adversarial machine learning, differential privacy, backdoor attacks and defenses, and network security. His work addresses fundamental challenges in ensuring that AI systems remain secure against sophisticated attacks while preserving user privacy. He has made significant contributions to certifiable defenses against adversarial examples, privacy-preserving machine learning techniques, and security mechanisms for large language models. His recent publications demonstrate a strong trend toward addressing emerging security challenges in large language models and foundation models, including privacy auditing, safety alignment, and robustness against novel attack vectors. His work shows increasing focus on practical applications of theoretical security concepts to real-world AI systems. Dr. Mittal has mentored numerous PhD students who have become active contributors to the security and machine learning research community. His lab has received significant research funding from various sources to support their innovative work at the security-privacy-ML intersection. He leads research efforts in multiple labs and collaborative projects focused on building trustworthy AI systems, with strong connections to both theoretical computer science and practical security applications. His team regularly publishes in top-tier venues including IEEE S&P, USENIX Security, NeurIPS, ICML, and ICLR.

• Vibration & Acoustics
• Mechanical Characterization
• Vibration/Noise Control
• +۸ مورد دیگر

Dr. Sebastian Oberst is an Adjunct Associate Professor at the School of Engineering and Information Technology at the University of New South Wales (UNSW) Canberra. His research focuses on vibration and acoustics, mechanical characterization, and vibration/noise control, with particular expertise in microvibrations related to insect communication. He has made significant contributions to the understanding of nonlinear time series analysis, chaotic dynamics, and statistical uncertainty analysis in mechanical systems. Dr. Oberst's primary research interests include: Stability behavior of deployable, flexible structures of nano-satellites Friction-induced vibrations & sound (e.g., automotive disc brake squeal) Vibrational communication in insects (e.g., ants, termites) Mechanical characterization and vibration/noise control Nonlinear time series analysis and chaotic dynamics Statistical and uncertainty analysis in vibration systems His recent publications demonstrate a strong focus on applying advanced signal processing techniques to vibration analysis, particularly in biological systems and engineered structures. Dr. Oberst has pioneered methods for analyzing microvibrations in insect communication and has made significant contributions to understanding brake squeal phenomena through nonlinear dynamics approaches. His work bridges the gap between theoretical vibration analysis and practical engineering applications. Dr. Oberst has secured significant research funding through multiple Australian Research Council grants and industry partnerships: Lead Chief Investigator for "Discovering how termites use vibrations to thrive in a predators' world" (ARC Discovery Project DP200100358, 2020-2022) Chief Investigator for "Metamaterials for control of acoustic radiation forces" (ARC Discovery Project DP200101708, 2020-2022) Chief Investigator for "National Laser-Based Non-Destructive Evaluation System" (ARC LIEF LE180100041, 2018) Lead Chief Investigator for "Bio-inspired vibration-reduction for sensing and detection" (NSW Department of Industry, 2020) Chief Investigator for "Enhanced detection, localisation and identification of sand-covered naval mines" (NSW Department of Industry, 2021) Dr. Oberst teaches across several engineering disciplines including Statics, Dynamics, Thermofluids, Introduction to vibration, Acoustics, Instrumentation, and Statistics. His research lab focuses on experimental and numerical vibration analysis, with particular emphasis on biological vibration systems and engineered mechanical structures. Current projects include developing micro-exciter devices to mimic insect vibration signals, analyzing termite nest morphology, and investigating acoustic radiation forces for contactless manipulation of objects.

Francis Robicheauxمشاهده پروفایل

استاد

• Atomic Physics
• Quantum Systems
• Quantum Computing
• +۶ مورد دیگر

Francis Robicheaux is a Professor of Physics and Astronomy at Purdue University, holding a Ph.D. from the University of Chicago (1991). He has held academic positions at Auburn University from 1993 to 2013, including roles as Alumni Professor and Professor of Physics. His research focuses on quantum systems, antimatter physics (via the ALPHA collaboration), ultracold plasmas, and Rydberg atoms. He has received prestigious awards, including the John Dawson Award and Fellow of the American Physical Society. Current funding includes NSF grants in Atomic Theory and Plasma Physics, as well as DOE and ONR support. His work combines theoretical modeling with experimental predictions, emphasizing computational methods. Education includes a B.A. (1985), M.S. (1986), and Ph.D. (1991) in Physics from the University of Chicago, plus studies at Louisiana State University. Research highlights include trapping antihydrogen and studying gravitational effects on antimatter. Collaborations involve CERN and institutions like the Joint Institute for Laboratory Astrophysics. His teaching excellence is recognized by awards from Auburn University and student groups. Awards: John Dawson Award (2011), APS Fellow (2001), NSF Young Investigator (1994–1999) Grants: NSF (Atomic Theory/Plasma Physics), DOE (Basic Energy Sciences), ONR (Nanoscale Physics), Sandia National Lab Labs/Teams: ALPHA Collaboration (CERN), Robicheaux Group (computational physics)

Sungkun Hongمشاهده پروفایل

استادیار

• Quantum Technologies
• Optomechanics
• Quantum Sensing
• +۴ مورد دیگر

Sungkun Hong is a Tenure-Track Junior Professor (Assistant Professor) at the Institute for Functional Matter and Quantum Technologies, University of Stuttgart. His research focuses on developing hybrid optical quantum device technologies, particularly leveraging optomechanical systems involving levitated nanoparticles and photonic crystal cavities. He leads the Hong Group, which explores quantum sensing, quantum information processing, and fundamental quantum physics at mesoscopic scales. Education details are not explicitly provided in the text, but his research career includes collaborations with institutions such as the University of Vienna and TU Delft, evident from co-authorships. His work emphasizes combining optical, solid-state, and mechanical systems to create novel quantum technologies. Research interests span quantum optomechanics, levitated nanoparticles, cavity quantum electrodynamics (cQED), and nanophotonic devices. The group actively seeks students and postdocs for projects involving optical trapping, microfabrication, and quantum control. Recent achievements include advancements in vacuum-based levitation platforms and enhanced optomechanical coupling. Key Projects: Quantum levitodynamics, optomechanical entanglement, and nanoscale magnetic imaging. Current Focus: Exploiting levitated dielectric particles for quantum sensing and probing quantum-classical boundaries. Lab activities include designing fiber-based optical tweezers, photonic crystal cavities, and nanofabricated optomechanical devices. The group collaborates internationally, as reflected in co-authored publications with institutions worldwide. Open positions are available for experimental and theoretical researchers in quantum technologies.