جست‌وجوی استاد و پژوهشگر

Alexander W. Dowlingمشاهده پروفایل

دانشیار

• Chemical Engineering
• Computational Optimization
• Machine Learning
• +۷ مورد دیگر

Prof. Alexander W. Dowling is an Associate Professor at the Department of Chemical and Biomolecular Engineering within the College of Engineering at the University of Notre Dame. He holds joint appointments with the Department of Applied & Computational Mathematics & Statistics and is affiliated with the Center for Sustainable Energy at Notre Dame (ND Energy) and the Center for Nano Science and Technology (ND nano). His research combines chemical engineering, computational optimization, machine learning, and data science across three core themes: (1) molecular-to-systems (multiscale) modeling and optimization, (2) optimal design of experiments and statistical inference, and (3) machine learning for bridging timescales. Dowling earned his Ph.D. in Chemical Engineering from Carnegie Mellon University (2015) and a B.S.E. from the University of Michigan-Ann Arbor (2010). His research applications span energy markets and infrastructure, integrated energy systems, carbon capture and sequestration, circular economies for refrigerants, sustainable hydrogen production, critical minerals, and advanced separation technologies like membranes and ionic liquids. Education Ph.D., Carnegie Mellon University, 2015 B.S.E., University of Michigan-Ann Arbor, 2010 His recent publications focus on multiscale modeling frameworks, Bayesian hybrid models for uncertainty quantification, and machine learning applications in energy systems and materials design. These works emphasize techno-economic analysis, dynamic process optimization, and uncertainty mitigation strategies. Scientific awards include the 2025 James A. Burns, C.S.C., Award and the 2020 NSF CAREER Award (CBET-1941596). He actively mentors graduate students and postdoctoral researchers, with lab alumni including Dr. Bridgette Befort (2022), Dr. Xian Gao (2022), Dr. Ke Wang (2025), and Dr. Jialu Wang (2024).

• Quantum Computing
• Superconducting Qubits
• Nanoelectronics
• +۳ مورد دیگر

Kasper Grove-Rasmussen serves as an Associate Professor at the Niels Bohr Institute, University of Copenhagen, specializing in Quantum Information Science & Technology. His research focuses on quantum transport phenomena in hybrid superconducting-semiconductor nanostructures, with particular emphasis on superconducting islands, quantum dots, and nanowire-based devices. His research interests span quantum computing hardware development, mesoscopic physics, and quantum transport in low-dimensional systems. Grove-Rasmussen investigates fundamental quantum phenomena such as superconducting correlations, quasiparticle dynamics, and spin-orbit coupling effects in engineered nanostructures. His work bridges theoretical models with experimental implementations to advance quantum information processing technologies. Analysis of his recent publications reveals consistent focus on quantum transport in hybrid superconducting systems, particularly examining excitations in Coulombic energy gaps, superconducting islands with multiple terminals, and nanowire-based quantum devices. His research demonstrates strong interdisciplinary connections between condensed matter physics, quantum information science, and nanoelectronics. Grove-Rasmussen maintains active collaborations with researchers including J. Nygård, P. Krogstrup, and D. Olsteins. His work has been featured in high-impact journals including Nature Communications, Physical Review B, and Nano Letters, with several publications receiving significant attention through news outlets and academic social media.

Stacy Mooreمشاهده پروفایل

مدرس

• Materials Science
• Corrosion
• Nuclear Science
• +۳ مورد دیگر

Dr Stacy Moore is a Lecturer at the School of Physics , University of Bristol, and a member of the Bristol Doctoral College. With a PhD in Materials Science, she specializes in high-speed atomic force microscopy (HS-AFM) applications for corrosion and nuclear materials research. Education MSci, Physics PhD, Materials Science Research Focus : HS-AFM for real-time nanoscale corrosion imaging Stress corrosion cracking in stainless steels Irradiation and thermal sensitization effects on steel microstructure Multi-scale characterization of material failure mechanisms Notable Publication Trends : Her recent work explores Eurofer 97 degradation under plasma disruptions, HS-AFM integration with fatigue testing systems, and multi-modal approaches to environmentally-assisted cracking. Sub-fields span irradiation effects, magnetic corrosion, and dynamic nanointerface analysis. Scientific Awards Jack Galloway Award (2021, 2017) ICG-EAC Student Grant (2019) Grants & Collaborations : Principal Investigator for the EPSRC Doctoral Prize Fellowship (2021–2023). Collaborates with Bristol Nano Dynamics Ltd as Lead Staff Scientist (since 2023) and Instrument Scientist (2021). Labs & Teams : Engaged with the Materials & Devices research group. Maintains partnerships with industrial and academic networks for nuclear and corrosion science.

Erdem Alacaمشاهده پروفایل

استاد

• MEMS/NEMS Design
• Nano Patterning and Nano Fabrication
• Mechanical Property Measurement at Micro and Nano Scales
• +۶ مورد دیگر

Professor Erdem Alaca is a full Professor in the Department of Mechanical Engineering at Koç University, Turkey, where he leads research at the intersection of micro/nanoelectromechanical systems (MEMS/NEMS) and nanomaterials science. Education: PhD, University of Illinois, 2003 MSc, University of Illinois, 1999 BSc, Boğaziçi University, 1997 Research Interests Professor Alaca’s work focuses on MEMS/NEMS design, nano-patterning and nano-fabrication, mechanical property measurement at micro- and nano-scales, and nano/bio interfaces for molecular diagnostics using MEMS sensors . His laboratory pioneers monolithic integration of suspended sub-micron silicon nanowires with thick MEMS architectures, enabling next-generation physical sensors, force transducers, and biochemical detectors. He combines advanced clean-room microfabrication, high-resolution experimental mechanics, and atomistic-to-continuum modeling to understand size-dependent elasticity, surface stress effects, and intrinsic/extrinsic damping in nanostructures. Recent Publication Trends Between 2023 and 2025, his group has intensified efforts on silicon-nanowire-based force sensors , covering multiscale fabrication, hybrid integration, machine-learning-assisted characterization, and application-specific demonstrations in gas-flow sensing and biomechanics. Parallel themes include stencil-based surface functionalization, high-throughput vibrational metrology, and analytical-atomistic modeling of mechanical behavior. Awards & Recognition TÜBA Outstanding Young Scientist Award (2009) Research Group & Contact Professor Alaca heads an active research group at Koç University. His laboratory website and further resources can be reached via the university portal. Contact: ealaca@ku.edu.tr , Tel: +90 212 338 1727, Office: ENG 273.

Amir Natanمشاهده پروفایل

استاد

• Materials Science
• Theoretical Physics
• Nanotechnology
• +۵ مورد دیگر

Prof. Amir Natan is a faculty member at Tel Aviv University's School of Electrical Engineering, Department of Physical Electronics. He leads the Nano-Materials and Devices Theoretical Modeling Group, focusing on interdisciplinary research bridging physics, chemistry, materials science, and electrical engineering. His work contributes to the Materials Genome Initiative, aiming to revolutionize materials design through computational approaches. Education B.Sc. in Physics and Mathematics - Hebrew University M.Sc. in Electrical Engineering - Tel Aviv University Ph.D. in Chemistry - Weizmann Institute of Science Post-doctoral training - Northwestern University Research Focus Prof. Natan's research integrates multi-scale computational modeling with practical applications in renewable energy and nanotechnology. Key areas include: Theoretical formalism development for material properties prediction Atomic-to-macroscopic scale simulations of novel materials Light-matter interactions and electron dynamics Surface/interface phenomena in low-dimensional systems Real-space DFT/TDDFT methodologies Applications span energy storage systems, photovoltaic cells, quantum dots, GaN-based HEMT devices, and sensor technologies. Academic Advising Currently supervising graduate students including: Elad Segev (M.Sc.) Yevgeny Rekita (M.Sc.) Affiliations Tel Aviv Center for Nanoscience and Nanotechnology Renewable Energy Center Israel National Research Center for Electrochemical Propulsion (INREP) PARSEC real-space DFT code development team

Stefania Benedettiمشاهده پروفایل

پژوهشگر

• Nanomaterials for Catalysis
• Energy Conversion and Storage
• Optoelectronics
• +۴ مورد دیگر

Stefania Benedetti is a Researcher at the National Research Council of Italy (CNR) Institute of Nanoscience (CNR NANO) in Modena since 2012, specializing in experimental investigation of metal/oxide nanostructures for catalysis, energy, and optoelectronics applications. She operates within the SESAMO Lab utilizing High Vacuum and UHV equipment for nanostructure growth and characterization, and has extensive experience with large-scale facilities including ELETTRA, ESRF, PETRA III, and EuXFEL. Her educational background includes a Master's degree and PhD in Physics from Università di Modena e Reggio Emilia under Prof. Sergio Valeri, followed by postdoctoral research at CNR NANO with visiting periods (2005-2010) at Fritz-Haber-Institut, Max Planck Society in Berlin. Benedetti's research focuses on nanoscale electronic and optical properties of metal/oxide systems, with three primary thrusts: (1) Plasmonic properties of metal nanoparticles and interfacial interactions with oxide supports using time-resolved spectroscopies to study plasmon decay and hot electron dynamics; (2) Structural and electronic properties of doped oxides (particularly Al:ZnO and ceria-based systems) for optoelectronic applications; (3) Reactivity of reducible oxides for hydrogen dissociation and clean production. Her work bridges fundamental nanoscale phenomena with energy applications through advanced spectroscopic techniques. Analysis of her 54 journal publications and book chapter reveals consistent focus on doped metal oxides and plasmonic nanostructures, with recent work emphasizing ultrafast dynamics, hydrogen catalysis mechanisms, and optoelectronic device integration. Key methodological approaches include ambient-pressure XAS, time-resolved spectroscopies, and in-operando characterization at synchrotron and free-electron laser facilities. She has supervised 4 PhD theses in Physics and Nanoscience and 7 degree theses at Università di Modena e Reggio Emilia. Current research projects include: AMONIX (2023-2025): Developing amorphous conductors for plasmonics ECOSISTER (2022-2025): Sustainable energy transition in Emilia-Romagna U-DYNAMEC (2023-2025): Ultrafast dynamics in energy conversion materials Sensidrogen (2024-2026): Hydrogen leak detection sensors Her SESAMO Lab maintains specialized capabilities in UHV-based nanostructure synthesis and characterization, with strong collaborative networks across European large-scale facilities. Current work emphasizes translating fundamental plasmonic and catalytic insights into hydrogen production technologies and next-generation optoelectronic materials.

• Electron microscopy
• Defects in advanced materials
• Thin films
• +۷ مورد دیگر

Dr. Corneliu GHICA is a Scientific Researcher I and Head of the Laboratory of Atomic Structures and Defects in Advanced Materials (LASDAM) at the National Institute of Materials Physics. His work focuses on advanced materials characterization using atomic-resolution electron microscopy techniques and development of functional materials for applications in sensors, electronics, and energy technologies. Dr. GHICA's educational background includes: PhD in Physics (2001): 'Study of thin films deposited by laser ablation: manganites with colossal magnetoresistance effect' from University of Bucharest and Louis Pasteur University of Strasbourg PhD in Physics (1995): Optical engineering, optical spectroscopy and laser technologies from University of Bucharest BSc Physics (1994): Optical engineering, optical spectroscopy and laser technologies from University of Bucharest His research expertise centers on in-depth microstructural characterization of advanced materials using aberration-corrected transmission electron microscopy. He specializes in quantitative HRTEM analysis of strain fields associated with defects and interfaces, and structure-properties correlation in thin films and nanostructured materials. His work spans ferroelectric materials, gas sensors, and electronic devices, with emphasis on atomic-resolution techniques like HRTEM, STEM, EDS, and EELS. Dr. GHICA's recent publications reveal a strong focus on functional oxide materials, particularly zirconia-based systems for electronic applications, and development of advanced gas sensors. His research combines experimental characterization with theoretical modeling, demonstrating expertise in both materials synthesis and advanced characterization techniques. The work shows increasing international collaboration across Europe with applications spanning energy conversion, environmental monitoring, and electronic devices. Dr. GHICA has led multiple significant research projects: Nanoscaled ferroelectric (pseudo)-binary oxide thin film supercapacitors (NanOx4Estor) - M-ERA.NET project (2022-2024) Interplay structure-functionality in nanostructured materials for gas sensors - Mobility project (2019-2020) From 2D to 3D+ nanoscale characterization of advanced functional materials - PCE project (2017-2019) Atomically resolved structure and interface phenomena in nano-scale modulated smart materials - PCE project (2013-2015) Laser processing of defects induced in silicon by RF plasma hydrogenation - PCE project (2007-2010) As Head of LASDAM, Dr. GHICA leads a team focused on atomic-scale materials characterization using advanced electron microscopy techniques. The laboratory specializes in TEM specimen preparation, thin film deposition by PVD, PLD and sol-gel, and in-situ/operando experiments to study material behavior under real operating conditions. His expertise in electron microscopy makes him a valuable resource for the broader scientific community.

Oscar Alejandro Aguilar-Jiménezمشاهده پروفایل

استاد پژوهشی

• Bioprocess Engineering
• Protein Purification
• Microbial Biotechnology
• +۵ مورد دیگر

Dr. Oscar Alejandro Aguilar-Jiménez serves as a Research Professor at the GIEE in Bioprocesses and Director of Postgraduate Programs in Biotechnology at the Monterrey Institute of Technology and Higher Education's School of Engineering and Sciences. With over 10 years of academic experience, he oversees the Master's and Doctorate in Biotechnology programs across 8 campuses, managing 90+ professors and researchers and 300+ graduate students. His leadership has secured the Doctorate in Biotechnology's reaccreditation as a CONSOLIDATED Program within SNP-CONAHCYT, where it ranks as the discipline's highest scholarship recipient nationwide. Bachelor of Industrial Chemistry, Universidad Autónoma de Nuevo León Master of Science in Biotechnology, Tecnológico de Monterrey PhD in Engineering Sciences, Tecnológico de Monterrey Dr. Aguilar's research spans bioprocess engineering, focusing on protein purification systems, microbial production of pharmaceutical metabolites, and metallic nanoparticle fermentation. His most innovative recent work involves designing microfluidic devices with integrated sensors for biomarker detection. His research integrates multiple scales from microdevices to pilot-plant operations, demonstrating strong translational potential from laboratory to industrial applications. Analysis of his 15 most recent publications (2021-2025) reveals dominant themes in bioprocess intensification, particularly in situ product recovery techniques, fermentation optimization, and microfluidic sensor development. His work consistently bridges fundamental biochemical principles with practical engineering applications, with strong emphasis on economic feasibility and scalability. Key research areas include prodigiosin production, protein purification systems, and novel biosensing platforms. Teaching and Research Award at Tecnológico de Monterrey (2014) CONACYT's National Researchers System (SNI) Level 2 certification Member of the Mexican Academy of Sciences As academic leader, Dr. Aguilar has directed and co-directed over 12 master's and doctoral theses while coordinating major accreditation processes for graduate programs. His research group actively pursues funding opportunities focused on bioprocess innovation and technology transfer. He leads the Doctorate in Biotechnology Curriculum upgrade project (ver. 2025) and has spearheaded three successful SNP-CONAHCYT accreditation processes. His laboratory focuses on bioprocess development with emphasis on integrated purification systems and microfluidic technologies.

Ricardo Ferreiraمشاهده پروفایل

پژوهشگر

• Spintronics
• Magnetic Tunnel Junctions
• Nano-oscillators
• +۷ مورد دیگر

Ricardo Ferreira serves as Research Scientist Group Leader of the Spintronics research group at the International Iberian Nanotechnology Laboratory (INL). With a PhD in Physics Engineering from Instituto Superior Técnico (IST) completed in 2008, his career has focused on advancing spintronics technology through Magnetic Tunnel Junctions (MTJs). His research group develops high-yield fabrication processes for both micro-scale (down to 1μm²) and nano-scale (down to Dr. Ferreira's research interests span multiple cutting-edge areas in spintronics, with primary focus on nano-oscillators, neuromorphic computing architectures, and advanced magnetic field sensors. His work bridges fundamental physics with practical applications, particularly in developing devices that exploit spin transfer and spin Hall effects for next-generation computing paradigms. The group has made significant contributions to RF signal processing, true random number generation, and physical unclonable functions using spintronic devices. His recent publications reveal a strong trend toward neuromorphic computing applications, with multiple papers on spin-torque nano-oscillators for reservoir computing, weighted neural networks, and RF signal classification. The research demonstrates increasing sophistication in controlling vortex states and coupled oscillator dynamics for computational applications, while maintaining strong contributions to fundamental spintronics phenomena and sensor development. Co-author of 150+ peer-reviewed publications Co-inventor in 4 patent applications submitted at INL Participant in 6 European projects in the last decade Leader of multiple high-TRL industrial application projects Ferreira actively mentors PhD students and postdoctoral researchers, with several alumni having completed their doctoral work under his supervision. His group engages in both fundamental research and applied projects targeting Industry 5.0 ready production systems and space applications. The laboratory maintains advanced fabrication capabilities including UHV sputtering systems, ion milling equipment, and comprehensive characterization tools for spintronic device development.

• High temperature corrosion
• Micro coating
• Nano coating materials
• +۸ مورد دیگر

Dr. Ali Kadir is a Reader in Mechanical Engineering at the University of Salford's School of Science, Engineering & Environment. Previously serving as International Exchange Director for the School of Computing, Science and Engineering for nearly two decades until 2020, he currently acts as Admissions Tutor for BEng (Hons) and MEng (Hons) programmes in Aeronautical Engineering and Aircraft Engineering with Pilot Studies. With extensive teaching experience spanning Engineering Mathematics, Engineering Dynamics, and Mechanical Systems across multiple engineering disciplines, his academic career demonstrates deep commitment to engineering education. Dr. Kadir's educational background includes: BSc (Hons) Applicable Mathematics (Part Time, 1985-1991) - Project: Finite element analysis of heat transfer problems PhD in High temperature gas turbine micro and nanocoating CFD, FEA and experimental (Part Time, 2013-2021) His research spans multiple interconnected domains with primary focus on high temperature corrosion, micro and nano coating materials for jet engines, Finite Element Analysis, and Computational Fluid Dynamics. Additional research thrusts include biomechanics and orthopaedic engineering (particularly bone fracture analysis), electromagnetic smart materials, medical fluid dynamics, and renewable energy systems with nanofluid solar collectors. His methodology consistently integrates advanced mathematical modeling, finite element simulation, computational fluid dynamics, and experimental validation through flame spray coating techniques. Dr. Kadir's publication trajectory reveals strong interdisciplinary trends, with recent work (2022-2025) increasingly focused on nanofluid applications across aerospace, marine engineering, medical technologies, and renewable energy systems. His research demonstrates sophisticated integration of computational and experimental approaches to solve multi-physical engineering problems, with particular emphasis on nano-scale materials engineering and cross-domain applications. Professional recognition includes: Fellow of the Institute of Mathematics and its Applications (FIMA) As an active PhD supervisor, Dr. Kadir mentors students in high temperature corrosion modeling, nanocoatings development for aerospace/medical/marine applications, orthopaedic biomechanics (spinal analysis, bone stress modeling), and mathematical modeling of electromagnetic smart fluids. He serves as Associate Director of the Multi-physical Engineering Sciences Research Group (MPESG) under Prof. Anwar Bég, which provides critical infrastructure for computational and experimental research across engineering disciplines. The MPESG facilitates collaboration between theoretical modeling, simulation, and experimental validation, with strong industry connections in aerospace, marine engineering, and medical device sectors that enable translation of research findings into practical engineering solutions for complex real-world challenges.