جستجوی استاد راهنمای دانشگاهی

Ngoc T. Bui is an Assistant Professor in the Department of Sustainable Chemical, Biological and Materials Engineering at the University of Oklahoma. He holds a Ph.D. in Chemical Engineering from the University of Connecticut (2014), an M.S. in Textile Engineering from Chonnam National University (2007), and a B.S. in Chemical Engineering with a minor in Organic Chemistry from HoChiMinh City University of Technology (Vietnam). His research focuses on the water-energy-environment nexus, developing advanced functional materials and membranes for sustainable separations, environmental remediation, and renewable energy applications. Dr. Bui's work integrates physics, chemistry, and engineering to study nanomaterials' physicochemical properties and their transport behaviors. His lab designs membranes and adsorbents from nanoscale building blocks, focusing on energy-efficient wastewater treatment from oil and gas industries and converting pollutants into valuable commodities. Key projects include bioinspired supramolecular complexes for heavy metal removal, carbon nanotube-based breathable protective fabrics, and adsorptive membranes for precision ion separation. His research outputs span over 30 peer-reviewed articles, patents on nanoporous membranes and adsorptive technologies, and contributions to textbooks like Desalination: Water from Water and Desalination 2nd Edition . Collaborations with Lawrence Berkeley and Livermore National Laboratories highlight his expertise in applied nanotechnology and sustainable engineering. Dr. Bui's lab emphasizes translational research through systems-level assessments, aiming to transform water, energy, and environmental landscapes. Current efforts include granulation technologies for nutrient recovery and fluidized-bed systems for industrial wastewater treatment.

• Water-energy-environment nexus
• Sustainable separations
• Advanced functional materials
• +۳ مورد دیگر

Dr. Cameron Shearer is an ARC Externally-Funded Research Fellow in the School of Physics, Chemistry and Earth Sciences at the University of Adelaide. He holds a PhD from Flinders University (2012) and has held postdoctoral and research roles at institutions including the University of Münster (Germany) and industry collaborations with Membrane Systems Australia. His research focuses on photocatalytic materials for environmental remediation and renewable energy, particularly addressing persistent organic pollutants and hydrogen production via photocatalytic water splitting. He has developed novel perovskite-based photocatalysts and co-catalyst strategies to enhance efficiency while reducing costs. Key areas of expertise include: Design of perovskite materials (e.g., SrTiO₃, NaTa₂O₃) for light-driven pollutant degradation Hydrogen production through optimized metal oxide photocatalysts Industry partnerships for scalable PFAS remediation solutions Nanomaterial synthesis (graphene, MXene, carbon nanotubes) His work emphasizes translating lab-scale innovations into real-world applications, with a strong focus on sustainability and environmental impact mitigation. While no specific awards are listed, his research has been supported by ARC grants and industry collaborations.

• Photocatalysis
• Environmental Remediation
• Renewable Energy
• +۲ مورد دیگر

Norbert Linke is an Adjunct Assistant Professor in the Department of Physics at the University of Maryland , affiliated with the Joint Quantum Institute . His research focuses on experimental quantum computing with trapped atomic ions, emphasizing quantum information processing, quantum algorithms enhanced by machine learning, quantum simulation, and quantum networking using entangled photons. He holds a Dipl. Phys. from the University of Ulm (2007) and a D.Phil. in Atomic & Laser Physics from the University of Oxford (2013), where he worked under David Lucas. Before joining UMD, he conducted postdoctoral research at Oxford. Education: Bachelor's (Dipl. Phys.): University of Ulm, Germany (2007) Doctorate (D.Phil.): University of Oxford, U.K. (2013) Research Interests: Quantum algorithms with machine learning integration Quantum simulation of complex systems (e.g., quantum chromodynamics) Quantum networking via Sr+ ion-photon entanglement Development of robust quantum hardware (e.g., 3D monolithic traps) His recent work explores quantum advantage in finance, blind calibration of quantum computers, and optical control of qubits. The lab emphasizes scalable architectures and hybrid analog-digital simulations. While no scientific awards are explicitly listed, his contributions to trapped-ion systems and quantum networking are widely recognized in the field. Norbert advises researchers at the Joint Quantum Institute and collaborates on grants related to quantum computing hardware and algorithms. His team’s lab focuses on advancing ion-trap technology and explores future applications in quantum communication and computation.

• Quantum Computing
• Quantum Information Science
• Quantum Networking
• +۳ مورد دیگر

Steven Rolston is a Professor & Chair of the Department of Physics at the University of Maryland, College Park. He is a Fellow of the Joint Quantum Institute (JQI), American Association for the Advancement of Science (AAAS), American Physical Society (APS), and the Optical Society of America (OSA). He earned his B.S. from Wesleyan University (1980) and Ph.D. from Stony Brook University (1986). His research focuses on atomic, molecular, and optical (AMO) physics, with emphasis on quantum science and technology, including ultracold plasmas, quantum information, and optical lattices. He leads the Rolston Research Group, supervising graduate students and postdoctoral researchers in cutting-edge quantum experiments. Recent work includes developing methods for non-destructive photon counting, recognized by the 2023 UMD Quantum Invention of the Year Award. He teaches advanced quantum physics courses (Physics 401/402) and contributes to initiatives like the NSF Quantum Leap Challenge Institute. Education: B.S., Wesleyan University (1980); Ph.D., SUNY Stony Brook (1986) Affiliations: JQI, Quantum Technology Center Research interests span quantum technologies, ultracold matter, and photon interactions. His group's innovations include tailoring photon interactions for quantum applications, as highlighted in recent breakthroughs like 'two photons company, three’s a crowd' phenomena. Awards include the Kirwan Undergraduate Education Award for teaching excellence. Awards: AAAS Fellowship, APS Fellowship, OSA Fellowship Advising and mentorship: Directs a dynamic group of graduate students and postdocs, including alumni like Jonathan Hoffman (now at DARPA). Collaborates on grants and interdisciplinary projects, such as quantum simulation initiatives. Lab facilities include state-of-the-art quantum optics setups at the UMD Department of Physics.

• Atomic, Molecular & Optical Physics
• Quantum Science and Technology
• Quantum Information
• +۳ مورد دیگر

Anthony Rizzo is an Assistant Professor of Engineering at Dartmouth College, leading the Rizzo Integrated Photonic Systems Laboratory. His research focuses on integrated photonics, quantum photonics, and neuromorphic photonics, with applications in high-speed data communication, quantum computing, and energy-efficient systems. He holds a PhD in Electrical Engineering from Columbia University (2022), an MS from Columbia (2019), and a BS in Physics from Haverford College (2017). His work has been funded by organizations such as the Toyota Research Institute and the U.S. Army Research Laboratory. Key research areas include silicon photonics for ultra-low energy optical interconnects, photonic-electronic integration, and novel photonic materials like aluminum nitride. Notable achievements include the first demonstration of a Kerr comb-driven silicon photonic link and advancements in 3D photonic integration for terabit-scale data links. His lab explores applications in quantum sensing, neuromorphic computing, and visible wavelength photonics for atomic systems. Funding Sources: Toyota Research Institute, U.S. Army Research Laboratory, Thayer School of Engineering, AIM Photonics Courses Taught: ENGS 23 (Distributed Systems and Fields), ENGS 60 (Solid-State Electronic Devices) Recent publications highlight breakthroughs in ultra-low loss waveguides, scalable photonic linear neurons, and energy-efficient modulators. His work bridges fundamental photonics research with practical applications in next-generation communication and computing systems.

• Integrated photonics
• Quantum photonics
• Neuromorphic photonics
• +۴ مورد دیگر

Prof. Hartmut Wittig is a Full Professor at the Institute of Nuclear Physics, Johannes Gutenberg University Mainz since 2005. He leads the Cluster of Excellence PRISMA+ (Precision Physics, Fundamental Interactions and Structure of Matter). His research focuses on Lattice QCD, hadron structure, and precision calculations of the muon's anomalous magnetic moment. Wittig holds a PhD from the University of Hamburg (1992) and habilitation in theoretical physics (1998). He has held positions at the University of Southampton (1992–1995), DESY-Zeuthen (1995–1996), and the University of Oxford (1996–2000 as PPARC Advanced Fellow). His research interests include lattice QCD applications to hadron spectroscopy, muon g−2, and precision electroweak observables. Notable achievements include pioneering work on the hadronic vacuum polarization contribution to the muon’s magnetic moment and advancing machine learning techniques in lattice calculations. He has advised over 20 PhD students, many focusing on lattice QCD and precision physics. Awards include CERN Scientific Associate (1999/2000) and a teaching award from Mainz University (2013). Wittig’s lab contributes to global initiatives like the FLAG (Flavour Lattice Averaging Group) and collaborates on projects such as the Muon g−2 experiment. His work bridges theoretical calculations with experimental precision demands in particle physics.

• Lattice QCD
• Hadron structure and spectroscopy
• Muon anomalous magnetic moment
• +۳ مورد دیگر

Thomas Bilitewski is an Assistant Professor at Oklahoma State University, specializing in quantum many-body physics and quantum simulation. His research bridges atomic, molecular, and optical physics with condensed matter theory, focusing on systems like ultracold gases, spin lattices, and synthetic dimensions. Geometric frustration and disorder in spin liquids Pauli blocking effects in 2D Fermi gases Quantum chaos and butterfly effect in phase transitions SU(N) symmetric Fermi gases and their thermodynamics Dipolar molecules for quantum metrology Floquet-engineered systems and heating suppression Synthetic dimensions with long-range interactions His recent publications highlight universal phenomena in nonequilibrium systems, including ergodicity breaking, topological phases in Bose-Hubbard ladders, and interaction-induced soliton dynamics. He develops theoretical frameworks for experimental observables in cold atom systems, with a focus on spin squeezing, false-vacuum decay, and tunable pair creation mechanisms. Key collaborations include experimental groups at JILA (University of Colorado Boulder) and Max Planck Institute for the Physics of Complex Systems (Dresden). Current work addresses quantum chaos in classical systems, artificial gauge fields, and disorder-stabilized flat bands.

• Quantum Many-Body Physics
• Quantum Simulation
• Condensed Matter Theory
• +۹ مورد دیگر

Kirsten Andrea Schnorr is a Researcher at the Paul Scherrer Institute (PSI) in Switzerland, working within the Center for Photon Science and Laboratory for Femtochemistry. She joined the SwissFEL team in 2018 to develop the Maloja endstation for atomic, molecular, and non-linear physics, leading its design, construction, and operational commissioning for cutting-edge XUV/X-ray experiments. Her educational background includes: PhD in Physics (2014), Ruprecht Karl University Heidelberg, completed at the Max Planck Institute for Nuclear Physics under PD Dr. Robert Moshammer; thesis focused on XUV pump-probe experiments of electron rearrangement and interatomic Coulombic decay in diatomic molecules. Schnorr's research centers on photo-induced ultrafast relaxation mechanisms in atoms, molecules, and nanoparticles using time-resolved techniques at Free-Electron Lasers and High Harmonic Generation sources. She pioneers multi-color pump-probe schemes with ultrashort X-ray pulses to steer non-local decay processes like Interatomic Coulombic Decay and Electron Mediated Decay, enabling real-time observation of electron dynamics and proton transfer in molecular systems. Her publication trends (2025-2020) reveal dual expertise in fundamental molecular dynamics and instrumental innovation. Key themes include proton transfer in water dimers (Science Advances 2023), Coulomb explosion in iodinated compounds (2025), and engineering breakthroughs like compact gas attenuators (2023) and polarization control systems (2024), frequently published in Physical Review Letters, Nature Communications, and Journal of Synchrotron Radiation. Scientific awards: Peter Paul Ewald Fellowship from the Volkswagen Foundation (2015), supporting her research on non-linear relaxation processes at UC Berkeley's Physical Chemistry Department under Prof. Stephen Leone. No formal advisees or student supervision are documented. The Volkswagen Foundation fellowship served as her primary grant, funding postdoctoral work on real-time relaxation studies; no additional grants are specified. Her instrumental leadership at SwissFEL suggests mentorship of junior scientists, though no individual students are named. Schnorr directs the Maloja instrument at SwissFEL while contributing to the ATHOS beamline development. She collaborates extensively with PSI's detector teams (e.g., JUNGFRAU advancements) and international groups like UC Berkeley's Physical Chemistry Department, driving initiatives in ultrafast beamline technology and molecular dynamics experiments.

• Ultrafast Science
• Atomic Physics
• Molecular Physics
• +۶ مورد دیگر

MP Gururajan is a Professor in the Department of Metallurgical Engineering and Materials Science at the Indian Institute of Technology Bombay (IIT Bombay), where he has been serving since May 2021. He previously held the positions of Associate Professor (2016–2021) and Assistant Professor (2009–2016), indicating a long-standing and active academic career at IIT Bombay. B.Sc (Physics), Madras University, 1994 M.Sc (Materials Science), Anna University, Madras, 1996 M.Sc. (by research), Indian Institute of Science, Bangalore, 1999 Ph.D., Indian Institute of Science, Bangalore, 2006 His research focuses on computational modeling of microstructural evolution, employing both atomistic (Monte Carlo, molecular dynamics) and continuum (phase field modeling) approaches. Key areas include phase transformations, deformation mechanisms, materials mechanics, and thermodynamics. His work bridges theoretical modeling with experimental validation in metallic systems. The selected publications reflect a consistent focus on phase field modeling, interfacial phenomena, and microstructure evolution under various thermomechanical conditions. Topics such as precipitate growth, grain boundary grooving, strain effects, and anisotropy are recurrent, demonstrating deep expertise in multiscale materials simulation. No scientific awards or fellowships are mentioned in the provided text. Prof. Gururajan leads an active research group (CMEGAT IITB) and has secured funding from national agencies including the Department of Science and Technology (DST), Defence Research and Development Organisation (DRDO-SASE), and industrial partners like Tata Steel and GE. Collaborative IMPRINT projects with TCS and GE Global Research highlight his engagement in indigenous software development and life prediction methodologies for advanced alloys. He maintains a research group website and is involved in both teaching and research supervision at IIT Bombay. His lab focuses on computational materials engineering, with emphasis on predictive modeling of microstructure and mechanical behavior.

• Computational Materials Science
• Microstructural Evolution Modeling
• Phase Field Modeling
• +۶ مورد دیگر

Dr. Thomas Gruber is an Academic Director at the Institute for Astronomical and Physical Geodesy, Technische Universität München (TUM), where he leads research in high-resolution Earth gravity field modeling and satellite gravimetry. He is actively involved in major international projects including ESA’s GOCE, MAGIC, and QSG4EMT, as well as DFG-funded initiatives like NEROGRAV and UPLIFT. His work bridges theoretical geodesy with practical Earth observation applications. His primary research interests include: High-resolution gravity field modeling Satellite and quantum gravimetry Time-variable gravity and geophysical mass transport Sea level studies and altimetry Geodetic SAR for height system unification Future gravity mission concepts His recent publications focus on next-generation satellite missions, quantum sensors, and the integration of satellite and terrestrial gravity data. Trends indicate a strong emphasis on improving temporal and spatial resolution of gravity field models, with applications in climate monitoring, hydrology, and oceanography. He plays a key role in defining Essential Geodetic Variables (EGVs) and advancing global geodetic infrastructure through GGOS. Scientific contributions include leadership in: Development of global gravity models (e.g., XGM, GOCO) GOCE mission data processing and validation ESA and DFG project coordination International collaboration through IAG and GGOS He advises doctoral and master’s students and participates in national and international grant-funded research. He leads or contributes to teams working on: Gravity field combination and error modeling Quantum sensor simulation (CARIOQA-PMP) Geodetic SAR applications Sea level and mass transport analysis

• High resolution Earth gravity field modeling
• Satellite gravimetry
• Time-variable gravity field analysis
• +۱۳ مورد دیگر

Michael Friedlander is a Professor of Computational Mathematics at the University of British Columbia (UBC), holding joint appointments in the Departments of Computer Science and Mathematics. He serves as Director of the UBC Institute of Applied Mathematics and is a Sauder School Distinguished Scholar. His research focuses on optimization theory, algorithms, and applications, particularly in convex optimization, first-order methods, and machine learning. Friedlander is a SIAM Fellow (2024) and has received multiple teaching awards, including the 2013 UBC CS Teaching Award. Education: PhD (2002) in Operations Research from Stanford University; BA (1993) in Physics from Cornell University. Research Interests: Friedlander’s work spans computational optimization, including first-order methods, gauge duality, federated learning, and applications in signal processing and quantum computing. His contributions include SPGL1, a widely used convex optimization solver, and foundational work on atomic decomposition and polar alignment in structured optimization. Key Contributions: His research bridges optimization with practical applications, such as compressed sensing and data science. Notable areas include dual methods for federated learning, low-rank spectral optimization, and algorithms for sparse recovery. He has advised numerous PhD students, including work on topics like gauge duality and federated learning contribution valuation. Awards & Honors: SIAM Fellow (2024) 2013 UBC CS Department Teaching Award CACS Outstanding Young Researcher Prize AI & Statistics 2009 Best Paper Award Advising & Grants: Supervised over 20 graduate students and postdocs. Active in grant-funded research, including projects on optimization algorithms and their industrial applications. Collaborates with institutions like Pacific Institute for Mathematical Sciences (PIMS) and the Data Science Institute at UBC. Labs & Affiliations: Affiliated with the Institute for Computing, Information and Cognitive Systems (ICICS), Data Science Institute, and Quantum Computing Research Cluster at UBC. Leads interdisciplinary efforts in applied mathematics and computational science.

• Convex Optimization
• Machine Learning
• First-Order Methods
• +۳ مورد دیگر

Ryan Wagner is a Research Assistant Professor in the School of Mechanical Engineering at Purdue University. He holds a B.S. (2008) and Ph.D. (2014) in Mechanical Engineering from Purdue University, with a minor in Physics. His research focuses on nanotechnology, microscopy, metrology, and dynamics, with applications in optomechanics and micro/nanotechnology. He has held postdoctoral positions at the National Institute of Standards and Technology (NIST) and Asylum Research, specializing in atomic force microscopy (AFM) instrumentation and optomechanical force standards. Education: B.S. in Mechanical Engineering, Purdue University (2008) Ph.D. in Mechanical Engineering, Purdue University (2014), Thesis: Advanced AFM Techniques for Cellulosic Nanomaterials Research Interests: Nanomechanics and optomechanics AFM-based material characterization Development of force/mass standards using optical cavities Biomedical applications of nanotechnology Articles Trends: Recent work emphasizes optomechanical systems, precision measurements in AFM, and interdisciplinary applications in biomedicine and materials science. Publications span Nature , Proceedings of the National Academy of Sciences , and Optics Express . Awards: National Research Council Postdoctoral Fellowship (2014) Office of Naval Research Summer Faculty Fellowship (2021) Charles C. Chappelle Fellowship (2009) Advising/Grants: Active in mentoring graduate students and securing grants for interdisciplinary projects. His lab focuses on applying vibration dynamics to multiphysics problems in collaboration with industry and national labs. Labs/Teams: Leads research in optomechanical force standards and AFM instrumentation development at Purdue’s School of Mechanical Engineering.

• Nanomechanics
• Optomechanics
• Scanning Probe Microscopy
• +۵ مورد دیگر

Professor Vladan Vuletic is the Lester Wolfe Professor of Physics at the Massachusetts Institute of Technology (MIT), affiliated with the Research Laboratory of Electronics (RLE) and the MIT-Harvard Center for Ultracold Atoms. His work focuses on experimental atomic physics, particularly quantum optics and many-body quantum systems. Education: Diplom in Physics (1992, Ludwig-Maximilians-Universität München), Ph.D. in Physics (1997, summa cum laude, LMU München) Research interests include: Entanglement of many-body systems to surpass the standard quantum limit in measurements Spin squeezing for enhanced atomic clock precision Photon-photon interactions via strongly coupled atom-cavity systems Quantum simulation and computation with cold atoms His publications demonstrate expertise in quantum nonlinear optics, cavity quantum electrodynamics, and precision metrology. Recent work explores topological charge vectors in quasicrystals (2025), atom-by-atom assembly techniques (2016), and single-atom nanophotonic switches (2014). Scientific Recognition: Named AAAS Fellow (2023) Current research involves experimental implementations of quantum phase switches, all-optical transistors, and quantum simulators with cold atom arrays. He leads a research group within MIT's Department of Physics and is associated with multiple quantum science initiatives.

• Quantum Optics
• Quantum Computing
• Precision Measurements
• +۶ مورد دیگر

Dr. Sen Wang is a Postdoctoral Fellow in the School of Chemistry and Physics at Queensland University of Technology (QUT), Faculty of Science. His research focuses on mineralogy and mineral processing, with applications in building materials development and mineral-based catalysts. Dr. Wang earned his PhD from QUT in 2023. Prior to that, he completed his Master's degree from China University of Mining and Technology (Beijing) in 2018, and his Bachelor's degree from the same institution in 2014. Dr. Wang's research specializes in the structures and properties of minerals, with a focus on designing mineral-based materials for practical applications including sustainable concrete, clay bricks, fire-resistant gypsum boards, and high-performance catalysts. He has actively collaborated with Queensland's building materials industry for five years, implementing quality control strategies and facilitating technology transfer. His research outputs have been disseminated to 22 brickmaking factories worldwide, demonstrating significant practical impact. Dr. Wang's publication record shows expertise across mineral processing, materials science, and environmental applications. His work demonstrates consistent focus on clay minerals and their applications in construction materials, with significant contributions to understanding thermal behaviors during brick firing. More recently, his research has expanded into catalysis and nanomaterials for environmental applications, showing increasing interdisciplinary reach. Dr. Wang has secured over AUD $120k in grants and awards, including: QUT Early Career Researcher Ideas Scheme (Australia, 2024) The Clay Minerals Society Student Research Grant (USA, 2023) The Clay Minerals Society Student Travel Award (USA, 2022) Chinese Government Award for Outstanding Self-financed Students Abroad (China, 2022) Dr. Wang has authored 19 research articles in top-tier peer-reviewed journals since 2016, with one first-author paper achieving ESI's top 1% highly cited paper in Engineering. His work has accumulated over 700 citations on Google Scholar, with both h-index and i10-index standing at 17. He is currently accepting research students for Honours, Masters, and PhD study, indicating his active role in mentoring the next generation of researchers. Dr. Wang is affiliated with the Centre for Materials Science at QUT and serves on the Editorial Boards of Green and Smart Mining Engineering (KeAi, China) and the International Journal of Materials Science and Applications (Science PG, USA). His membership in The Clay Minerals Society (USA) demonstrates his standing in the mineralogy research community.

• Mineralogy
• Mineral Processing
• Building Materials
• +۳ مورد دیگر

Thomas Carroll is a Professor of Physics in the Department of Physics and Astronomy at Ursinus College. He is actively engaged in research and teaching, leading a lab focused on quantum mechanical interactions in strongly interacting systems using Rydberg atoms. He collaborates with Bryn Mawr College and mentors numerous undergraduate students in both experimental and computational projects. Education: B.S., University of Richmond Ph.D., Bryn Mawr College Carroll's research lies at the intersection of experimental and computational atomic physics, focusing on strongly interacting quantum systems , thermalization and localization , and Rydberg atom dynamics . His work explores how quantum systems exchange energy and simulate condensed matter phenomena using analog quantum computing approaches. The exaggerated properties of Rydberg atoms allow precise control via electric fields, enabling novel studies in quantum control and field ionization. His lab combines magneto-optical trapping at microkelvin temperatures with advanced computational modeling on a dedicated supercomputer. His recent publications (2004–2024) reveal a consistent focus on dipole-dipole interactions, quantum control, and state-selective detection in Rydberg systems. Trends include the use of genetic algorithms for quantum control, imaging energy transfer, and exploring quantum scars and thermalization. These works span theoretical simulations and experimental validations, often involving undergraduate co-authors. Carroll has successfully involved students in presenting research at major national conferences such as DAMOP and meetings of the American Physical Society, held in cities including Atlanta, Tucson, Madison, and Anaheim. His students have contributed significantly to publications and presentations, reflecting a strong mentorship culture. His lab at Ursinus includes a small atomic physics facility and a state-of-the-art supercomputer for modeling quantum systems. The group participates in an NSF-funded collaboration with Bryn Mawr College, where students attend joint meetings and conduct collaborative research during the summer.

• Strongly interacting quantum systems
• Rydberg atoms
• Quantum mechanics
• +۷ مورد دیگر