جست‌وجوی استاد و پژوهشگر

Tirthak Patelمشاهده پروفایل

استادیار

• Quantum Computing
• High-Performance Computing (HPC)
• Quantum Machine Learning
• +۳ مورد دیگر

Tirthak Patel is an Assistant Professor in the Department of Computer Science at Rice University and Director of the Positive Technology Lab. His research focuses on systems-level challenges at the intersection of quantum computing and high-performance computing (HPC), emphasizing reliability, performance, and energy efficiency trade-offs. He holds a PhD from Northeastern University (2023) and prior degrees from Northeastern and the University of Toronto. Education: PhD in Computer Engineering, Northeastern University (2023) MS in Electrical and Computer Engineering, Northeastern University (2019) Bachelor of Applied Science in Electrical Engineering, University of Toronto (2017) His research explores quantum system software, compiler design for neutral atom quantum architectures, and quantum machine learning. Notable contributions include frameworks like PARALLAX (compiler for neutral atom quantum computers) and GEYSER (compilation for neutral atom systems). He prioritizes open-source tools and reproducible research. Research Trends in Publications: Recent work emphasizes quantum noise utilization, quantum GANs, and compiler optimizations for NISQ-era hardware. He also addresses challenges in hybrid quantum-classical systems and quantum cloud security (e.g., OpaQue for program obfuscation). Awards: 2024 ACM SIGHPC Doctoral Dissertation Honorable Mention 2021 ACM-IEEE CS George Michael HPC Fellowship 2024 Rice Outstanding Undergraduate Research Mentor Award Advising & Grants: While specific grant details aren't listed, his work is supported by open-source contributions and industry collaborations. He advises students through Rice's Quantum Computing programs and teaches courses like COMP 448/558: Quantum Computing Algorithms. Labs & Teams: Directs the Positive Technology Lab, focused on advancing quantum computing systems through interdisciplinary approaches. Collaborates with industry partners and international conferences as a TPC member for venues like SC, ISCA, and ICCAD.

Sarah Shanderaمشاهده پروفایل

استاد

• Gravity and Cosmology
• Particle Physics
• Quantum Systems
• +۳ مورد دیگر

Sarah Shandera is a Professor of Physics at Pennsylvania State University and Director of the Institute for Gravitation and the Cosmos. She holds a Ph.D. in Physics from Cornell University (2006) and a B.S. from the University of Arizona (2001). Her research focuses on gravitational physics, cosmology, and quantum systems, particularly exploring how quantum phenomena like open quantum systems and dissipative dark matter relate to early-universe dynamics. She has pioneered work on gravitational wave signatures of subsolar-mass black holes and the interplay between quantum information and cosmological evolution. Shandera has received the Gordon and Betty Moore Foundation Award (2020) and the C.I. Noll Teaching Award (2019). She has been a Visiting Fellow at the Perimeter Institute since 2015 and holds a Robinson-Appel Humanitarian Award (2005). Her research group investigates dark matter interactions, quantum thermodynamics, and non-equilibrium systems. She collaborates with institutions like LIGO/Virgo on gravitational wave analyses and leads the CMB-S4 consortium’s efforts to constrain primordial gravitational waves. Her lab and team include assistant Courtney L. Shaffer, and she actively contributes to initiatives addressing systemic inequities in academia through models like RASE (2021).

David Mooreمشاهده پروفایل

دانشیار

• Nuclear Physics
• Particle Physics
• Dark Matter Detection
• +۳ مورد دیگر

David Moore is an Associate Professor of Physics at Yale University, affiliated with the Department of Physics. His research focuses on experimental nuclear and particle physics, including neutrinos, dark matter, and gravity studies. He earned his BS from Yale (2006) and PhD from Caltech (2012), followed by a postdoctoral fellowship at Stanford before joining Yale in 2016. He leads the nEXO experiment to detect neutrinoless double-beta decay and develops optically levitated microsphere sensors for precision measurements. His work bridges quantum mechanics and high-energy physics, with applications in dark matter detection and gravitational physics. Education: BS in Physics and Mathematics (Yale, 2006), PhD in Physics (Caltech, 2012). Research Interests: Experimental nuclear/particle physics, neutrino properties, dark matter detection, precision force measurements, and quantum sensing. Current projects include the nEXO experiment and the SIMPLE (Search for new Interactions in Microsphere Levitation) initiative. His group explores optomechanical systems for detecting sub-attoNewton forces and quantum-limited measurements in nanoscale mechanics. Key Projects: nEXO: Seeks to detect neutrinoless double-beta decay with a sensitivity of 10²⁸ years. SIMPLE: Uses levitated microspheres to search for new fundamental interactions. Optomechanical sensors: Develops tools for dark matter detection and quantum measurement. Awards: Alfred P. Sloan Research Fellowship (2018) NSF Early Career Award (2017) Lee Grodzins Postdoctoral Award (2015) Mitsuyoshi Tanaka Dissertation Award (2013) Grants & Advising: Recipient of the NSF Career Award supporting optomechanical research. His lab hosts graduate students and postdocs in experimental physics, though specific student names are not listed. Collaborates on large-scale detector projects like the EXO-200 and future kiloton-scale xenon detectors. Labs & Teams: Housed at Wright Laboratory and affiliated with the Yale Quantum Institute (YQI), fostering interdisciplinary research in quantum technologies and precision measurement.

Li Heمشاهده پروفایل

پژوهشگر

• Nuclear Materials
• Electron Microscopy
• Ion Irradiation
• +۴ مورد دیگر

Li He serves as an Assistant Scientist in the Department of Nuclear Engineering and Engineering Physics within the University of Wisconsin-Madison's College of Engineering. Her research expertise centers on advanced electron microscopy characterization of radiation-damaged nuclear materials, with emphasis on defect dynamics in silicon carbide and metallic glasses under ion irradiation. Education: Ph.D. in Material Science and Engineering, University of Virginia, School of Engineering and Applied Science (December 2009) M.S. in Microelectronics and Solid-State Electronics, University of Electronic Science and Technology of China (June 2000) B.S. in Electronic Materials and Components, University of Electronic Science and Technology of China (July 1997) Research Focus: Dr. He specializes in transmission electron microscopy (TEM/STEM) techniques for analyzing ion and neutron irradiation damage in nuclear structural materials. Her work bridges fundamental defect physics with practical applications in reactor materials, particularly investigating swelling mechanisms in stainless steels, atomic-scale defect evolution in silicon carbide, and medium-range order in metallic/molecular glasses. Key innovations include electron correlation microscopy for supercooled liquid dynamics and quantitative temperature mapping in TEM. Publication Trends: Her 2013-2017 publications reveal consistent focus on radiation effects in nuclear materials, with methodological emphasis on advanced electron microscopy. Dominant themes include defect cluster kinetics in covalent materials, in-situ characterization of glassy systems, and quantitative analysis of irradiation-induced swelling. The work demonstrates strong interdisciplinary connections between nuclear engineering, materials physics, and microscopy technique development. Scientific Recognition: Best paper award in the Microscopy and Microanalysis Journal (2015) Research Infrastructure: As technical contact for UW-Madison's Ion Beam Laboratory, she directs ion irradiation and surface analysis projects supporting nuclear materials research. Her experimental work integrates aberration-corrected scanning transmission electron microscopy with in-situ irradiation and heating capabilities to probe dynamic structural changes at atomic resolution.

• Solar Physics
• Astrophysics
• Magnetic Field Analysis
• +۳ مورد دیگر

Juan Sebastian Castellanos Duran is a researcher affiliated with the University of Göttingen, focusing on solar physics and magnetic field dynamics in sunspots and the solar atmosphere. His work spans observational studies, instrumentation development, and data analysis for missions like SUNRISE III and Solar Orbiter. Research Interests: Solar magnetism, sunspot structure, spectropolarimetric inversion techniques, chromospheric and photospheric dynamics, magnetic field evolution during solar flares. Key Contributions: Led studies on counter-Evershed flows, superstrong magnetic fields in light bridges, and novel data reduction pipelines for space-borne instruments. Collaborative Involvement: Participated in major solar missions, including Solar Orbiter and SUNRISE III, contributing to instrument calibration and multi-wavelength data synthesis. Publication Trends: Recent work emphasizes depth-dependent magnetic inversions, fine-scale field polarity in plages, and transverse wave dynamics in fibrils, reflecting a transition from flare studies to high-resolution solar atmosphere modeling.

Servaas Kokkelmansمشاهده پروفایل

استاد

• Quantum Computing
• Ultracold Quantum Gases
• Quantum Materials
• +۳ مورد دیگر

Servaas Kokkelmans is a Full Professor leading the Coherence and Quantum Technology group in the Department of Applied Physics at Eindhoven University of Technology (TU/e). He also serves as Scientific Director of the Center for Quantum Materials and Technology Eindhoven (QT/e) , co-founded the Eindhoven Hendrik Casimir Institute , and is a key figure in quantum research. His academic journey includes a PhD from TU/e (2000), postdoctoral work at JILA (USA) and Laboratoire Kastler Brossel (France), and faculty positions at TU/e since 2004. Research Focus: His work centers on strongly-interacting quantum gases, neutral atom quantum computing, and ultracold atomic physics. Specific areas include Feshbach resonances, Efimov physics, quantum simulations, and quantum material development. Awards & Grants: Notable recognitions include the NWO Vici Award (2015) and Teacher Award of Appreciation (2021) . His research has been supported by grants such as the Coherence and Quantum Technology initiative and the Eindhoven University of Technology Fund for Excellence (2010) . Education: MSc (1996) and PhD (2000) in Physics from TU/e Leadership roles: Founded QT/e (2018), became Full Professor (2023) Current Activities: Teaches Quantum Optics and Quantum Information , Ultracold Quantum Physics , and Hybrid Quantum Computing . His lab focuses on advancing quantum technologies through experimental and theoretical studies of ultracold atoms and quantum materials.

• Materials Science
• Computational Materials Modeling
• Thermodynamic Properties
• +۷ مورد دیگر

Pavel Korzhavy is a Professor of Materials Technology at KTH Royal Institute of Technology, specializing in computational modeling of disordered crystals and their thermodynamic properties using quantum mechanics principles. His research focuses on industrially relevant materials like metals and ceramics at elevated temperatures, particularly in the context of phase separation, corrosion mechanisms, and grain boundary dynamics. He leads the ExpSkills-REM project on rare earth magnet value chains under EIT RawMaterials and serves as KTH's representative in EIT RawMaterials and ERMA. He is also on the editorial board of the Journal of Nuclear Materials. His teaching roles include course responsibilities for Functional Materials (MH2300) and Materials Properties I (MH2056). Research interests span atomistic simulations of oxidation processes, solute effects in alloys, and first-principles modeling of thermal properties. His work integrates molecular dynamics, density functional theory, and Monte Carlo methods to study material behavior under extreme conditions. Recent projects emphasize predictive modeling for industrial applications in corrosion resistance, high-temperature stability, and magnetic material optimization. Publications highlight breakthroughs in understanding phase separation suppression in stainless steels via magnetic fields, hydrogen diffusion pathways in copper, and oxidation mechanisms of aluminum alloys. His collaborative efforts with European innovation networks aim to bridge academic research with industrial needs in raw materials and advanced manufacturing.

• Material Mechanics
• Lithium-ion Batteries
• Strain Gradient Plasticity
• +۳ مورد دیگر

Peter Gudmundson is a Professor of Material Mechanics at KTH Royal Institute of Technology since 1992. His research focuses on mechanical degradation mechanisms in lithium-ion batteries and strain gradient plasticity theories. He currently chairs the board of the Mechanics and Materials Design (MMD) center and the Wallenberg Wood Science Center (WWSC). He serves as a board member of Akademiska Hus AB and chairs the Future Research Leader program at the Swedish Foundation for Strategic Research (SSF). Dr. Gudmundson holds an MSc (1979) and PhD (1982) in Engineering Physics and Solid Mechanics from KTH. He served as KTH President (2007–2016), Head of the Department of Solid Mechanics (1993–2005), and has extensive industrial experience as a research engineer, consultant, and CEO. His research interests span energy storage materials, advanced mechanical modeling, and composite materials. Key contributions include predictive models for battery electrode mechanics and strain gradient plasticity theories for small structural scales. Collaborations involve professors Per-Lennart Larsson and Jonas Faleskog. Awarded the H.M. The King's Medal (2011) and a Fellowship from the University of Tokyo (2013), he actively participates in academic governance and national committees, including the Royal Swedish Academy of Engineering Sciences (IVA).

Ananya Renuka Balakrishnaمشاهده پروفایل

استادیار

• Materials Science
• Mechanics
• Battery Technology
• +۵ مورد دیگر

Dr. Ananya Renuka Balakrishna is an Assistant Professor in the Materials Department at the University of California, Santa Barbara (UCSB), within the College of Engineering. Her research focuses on the intersection of mechanics and materials science, specifically understanding how microstructure, instabilities, and material constants influence physical properties. She develops continuum theories and computational models (e.g., phase-field, molecular dynamics) to design materials with extended lifespans and enhanced functionality, targeting applications in batteries, magnetic materials, and light-interactive molecular crystals. Education: D. Phil in Solid Mechanics and Materials Engineering, University of Oxford B. Tech in Mechanical Engineering, National Institute of Technology Karnataka, Surathkal Research Interests: Her work integrates mechanics and materials science to address challenges in energy storage and functional materials. Key areas include: - Battery Materials: Optimizing intercalation compounds and electrode designs for enhanced cycle life and reduced degradation. - Magnetic Materials: Investigating hysteresis, domain dynamics, and microstructural compatibility for soft magnet applications. - Photomechanical Materials: Designing light-responsive crystals with programmable mechanical responses. Publications: Her recent work emphasizes finite deformation modeling in battery electrodes, lattice compatibility in intercalation compounds, and hysteresis reduction in magnetic systems. These studies highlight her focus on bridging scales—from atomic to continuum—using advanced computational tools. Grants & Advising: While specific grant details are not provided, her research aligns with sustainability goals under initiatives like Energy Earthshots. She advises graduate students in materials modeling and interdisciplinary design, though no named advisees are listed. Labs & Teams: Her research group collaborates with experimentalists and theorists to advance materials discovery. Core facilities used include UCSB’s Materials Research Lab and computational resources for phase-field simulations.

Mingwei Zhangمشاهده پروفایل

استاد

• Materials Science and Engineering
• High-Entropy Alloys
• Creep Behavior
• +۳ مورد دیگر

Mingwei Zhang is a Professor in the Department of Materials Science and Engineering, specializing in advanced metallic materials and their mechanical behavior under extreme conditions. His recent achievements include receiving the 2024 Early Career Research Award from the Department of Energy. His research focuses on high-entropy alloys, creep behavior, and deformation mechanisms in refractory and multi-principal element alloys. Notably, his work explores how processing methods (e.g., additive manufacturing) influence material properties. Key research interests include tensile creep analysis, fracture resistance, and microstructural characterization of alloys such as NbTaTiHf, CrCoNi, and CrMnFeCoNi. His studies often involve advanced techniques like nanoindentation and electron diffraction to understand atomic-scale phenomena. Awards: Early Career Research Award from Department of Energy (2024) Advising and Grants: No specific details provided in the text about students or grants. Labs/Teams: No lab affiliations explicitly mentioned, though his research likely involves collaboration with materials characterization facilities.

Yuting Luoمشاهده پروفایل

استادیار

• Energy Storage
• Electrochemistry
• Solid-state Ionics
• +۳ مورد دیگر

Yuting Luo is an Assistant Professor in the Department of Materials Science and Engineering at Johns Hopkins University (JHU) and a core faculty member of the Ralph O’Connor Sustainable Energy Institute (ROSEI). She joined JHU in January 2024, following a postdoctoral fellowship at the University of Illinois Urbana-Champaign. She holds a PhD in Chemistry from Texas A&M University (2022) and a BS in Chemistry from Nankai University (China). Her research focuses on designing multi-scale materials for energy storage applications, including solid-state batteries, water treatment, and wearable devices. Key areas include understanding the interplay between chemical, electrochemical, and mechanical properties of materials. Her work emphasizes atomistic to 3D architectural design to enhance functional performance. Collaborations include Argonne and Brookhaven National Labs for synchrotron X-ray characterizations. Her research vision centers on enabling a sustainable energy future through advanced materials science. Current projects bridge atomic-level design principles with practical applications in energy transition and human health technologies. Luo’s group actively explores novel materials for next-generation electrochemical storage systems, employing cutting-edge techniques like operando synchrotron analysis and machine learning-driven data analytics. Her interdisciplinary approach addresses challenges in battery longevity, thermal stability, and fast-charging capabilities.

Philip Salmonمشاهده پروفایل

استاد

• Condensed Matter Physics
• Materials Science
• Neutron Diffraction
• +۱۳ مورد دیگر

Philip Salmon is a Professor in the Department of Physics at the University of Bath, with strong affiliations to the Centre for Networks and Collective Behaviour, the Water Innovation and Research Centre (WIRC), the Centre for Nanoscience and Nanotechnology, and the Condensed Matter Physics CDT. His research focuses on the atomic-scale structure and dynamics of disordered materials, particularly liquids and glasses, using neutron and x-ray scattering techniques. BSc in Physics, University of Bristol (1981) PhD in Physics, University of Bristol (1986) – Thesis: The Structure and Dynamics of Aqueous Solutions His research spans materials such as network glass formers, ionic liquids, aqueous solutions, and rare-earth doped glasses. He investigates structural transformations under pressure, coordination environments, and network polymerization, aiming to uncover the fundamental mechanisms behind glass formation and to develop functional materials for photonics and energy storage. His work integrates experimental scattering data with computational modeling. The recent publications highlight a consistent focus on high-pressure structural changes in amorphous silicates and aluminosilicates, densification mechanisms in silica, and the behavior of ionic and aqueous systems. These studies employ neutron and x-ray diffraction, often combined with empirical potential structure refinement and molecular dynamics, to reveal atomic-scale insights. The research has broad implications in geophysics, materials engineering, and energy technology. He has received no explicitly mentioned scientific awards in the provided text. Philip Salmon is actively involved in supervising doctoral students and has led or participated in numerous research projects, including EU-funded initiatives like InnovaXN. He collaborates extensively with international institutions and has presented as an invited or keynote speaker at major conferences such as the Physical Society of Japan Annual Meeting and the Ceramic Society of Japan Fall Meeting. His research is supported by significant external funding and has resulted in over 150 research outputs. He is a key investigator in projects related to the structure of optoelectronic and high-refractive-index glasses, and his team generates open datasets for public access. He leads experimental campaigns at neutron and synchrotron facilities, contributing to the advancement of scattering methodologies in materials science.

Marina Šekutorمشاهده پروفایل

پژوهشگر

• Organic Chemistry
• Supramolecular Chemistry
• Materials Science
• +۵ مورد دیگر

Marina Šekutor is a Senior Research Associate at the Laboratory of Synthetic Organic Chemistry within the Division of Organic Chemistry and Biochemistry at the Ruđer Bošković Institute (Croatia). She holds a Ph.D. in Organic Chemistry (2013) and a B.Sc.Eng. in Chemistry (2008) from the University of Zagreb. Her research focuses on synthetic organic chemistry, particularly diamondoid derivatives and their applications in supramolecular systems, materials science, and biomedical technologies. She has led numerous projects funded by national and international grants, including work on self-assembly mechanisms in ultracold environments and nanostructured materials. Her notable achievements include the Vladimir Prelog Award (2019), the City of Zagreb Science Award (2025), and multiple institute-level recognitions for impactful publications. She teaches advanced organic chemistry courses at the University of Zagreb and Josip Juraj Strossmayer University of Osijek. As an editorial board member of Communications Chemistry and Croatica Chemica Acta , she actively promotes chemical research. Her work spans lab-scale synthesis, theoretical modeling, and interdisciplinary collaborations in nanotechnology and medicinal chemistry. Key research themes include: (1) Design of diamondoid-based ligands and catalysts; (2) Supramolecular architectures using cucurbiturils and host-guest systems; (3) Sustainable synthesis methods for complex organic compounds; (4) Interfacial self-assembly phenomena on material surfaces. Recent work highlights include attomolar binding constants in host-guest systems and direct measurements of polymorphic transitions under mechanochemical conditions.

Margaret Martonosiمشاهده پروفایل

استاد

• Computer Architecture
• Quantum Computing
• Power-Efficient Systems
• +۳ مورد دیگر

Margaret Martonosi is the William M. Addy ’82 University Professor of Computer Science at Princeton University, a position she has held since 1994. Her research focuses on computer architecture, with significant contributions to both classical and quantum systems. She has led major initiatives such as co-founding the ACM CARES movement and served as Director of the NSF Directorate for Computer and Information Science and Engineering (CISE) from 2020 to 2024. Her work emphasizes power-efficient designs, quantum hardware/software co-design, and scalable hybrid computing frameworks. Her academic leadership includes roles in broadening participation in computing through the Computing Research Association (CRA-W) and mentorship recognized by awards like the ACM Frances E. Allen Award. She has authored over 200 papers, with impactful contributions in security (e.g., SoCurity frameworks), quantum architectures (e.g., ARQUIN, HetArch), and heterogeneous computing (e.g., DCRA chiplet systems). Her recent research addresses challenges in quantum-classical integration and post-Moore’s Law computing paradigms. Publications highlight innovations like TensorQC for hybrid quantum-classical systems and CutQC for distributed quantum circuit optimization. Her NSF leadership shaped federal computing research priorities, emphasizing quantum science, AI, and cyberinfrastructure. She maintains active roles in technical societies and serves on non-profit boards focused on advancing computing equity and accessibility. Key grants include the $115M quantum science center (with Princeton’s electrical engineering collaboration) and EPiQC (Enabling Practical-Scale Quantum Computation). Her lab develops tools like MosaicSim for agile hardware-software co-design and RTLCheck for verifying hardware consistency models. Leadership Roles: NSF CISE Director (2020–2024), ACM CARES Co-founder, CRA-W Board Key Projects: Quantum-Supercomputing Integration, Power-Efficient Architectures, Formal Verification Frameworks Recent Focus: Quantum Benchmarking (SuperMARQ), Edge Computing Security, Chiplet-Based Systems

Bernd Dammannمشاهده پروفایل

دانشیار

• High-Performance Computing
• Scientific GPU Computing
• Parallel Programming
• +۳ مورد دیگر

Bernd Dammann is an Associate Professor in Scientific Computing at the Technical University of Denmark (DTU) , Department of Applied Mathematics and Computer Science. In parallel he serves as Scientific Lead & Architect in the DTU Computing Center (DCC) and co-founded DTU’s GPUlab in 2007, giving him dual roles in both academic research and institutional HPC services. Education Dipl.Phys. in Statistical Physics, University of Mainz, 1992 PhD in Physical Chemistry, DTU, 1996 Research interests Over almost three decades Dammann has focused on computational methods for large-scale scientific problems. His core expertise lies in: High-Performance Computing and parallel programming paradigms (OpenMP, MPI, GPU) Scientific GPU computing and many-core architectures Application tuning and performance optimization for heterogeneous systems Uncertainty quantification, Monte-Carlo methods, and real-time control applications in biomedicine (diabetes technology) Ultrasound beamforming and advanced imaging techniques Publication trends His 34 publications (1996-2025) trace a clear evolution from theoretical physics and surface-science simulations to GPU-accelerated engineering and biomedical systems. Recent work clusters around real-time biomedical control (artificial pancreas, virtual clinical trials) and high-resolution ultrasound imaging, all leveraging GPU acceleration and high-performance computing to achieve real-time performance. Scientific awards & recognition Contributor to 1 patent family and widely downloaded technical reports (>10 k downloads for OpenCL tutorial) Consistently high citation counts on key optimization and control papers (e.g., 93 citations for 2014 Management Science article) Teaching, supervision & grants He teaches or co-teaches multiple DTU courses: High-Performance Computing , Large-scale Computations , Python & HPC , Mathematical Software , and HPC with FORTRAN . While individual students are not named, his role in GPUlab and DCC implies ongoing PhD and MSc supervision, and his projects list six active collaborations including EU and national HPC infrastructure grants. Labs & teams Dammann co-founded GPUlab (2007) and presently leads the HPC architecture team in the DTU Computing Center , a central facility supplying cluster resources to the entire university.