جست‌وجوی استاد و پژوهشگر

• Electron Microscopy
• Nanomaterials Characterization
• Heterogeneous Catalysis
• +۵ مورد دیگر

Dr. Thomas Slater is a Lecturer in the School of Chemistry at Cardiff University, specializing in electron microscopy of nanomaterials and heterogeneous catalysts. His research focuses on determining atomic structures of materials using aberration-corrected scanning transmission electron microscopy, with particular expertise in 3D imaging techniques and in-situ analysis of catalytic processes. Appointed Lecturer at Cardiff University (2022) Former Electron Microscopy Scientist at ePSIC, Diamond Light Source (2018-2022) PhD in Electron Microscopy of Nanomaterials from The University of Manchester (2015) Dr. Slater's research interests center on electron microscopy techniques for characterizing nanomaterials and catalysts at atomic resolution. He develops methods for 3D imaging of nanoparticles, studies catalysts under reaction conditions using in-situ techniques, and advances image processing algorithms for electron microscopy data analysis. His work bridges materials science, catalysis, and computational analysis, with applications in energy conversion and environmental technologies. His recent publications demonstrate a strong focus on nanomaterials characterization, catalytic processes, and advanced microscopy techniques. The articles span diverse areas including 3D nanoparticle reconstruction, in-situ reaction monitoring, machine learning applications in microscopy, and the development of novel catalysts for energy applications. A notable trend is the integration of multiple characterization techniques to gain comprehensive understanding of material properties at multiple scales. Developed software package "ParticleSpy" for segmenting electron microscopy images Contributed to widely-used software packages like "Hyperspy" for electron microscopy analysis Dr. Slater supervises several postgraduate students including Ella Kitching, Oliver McHugh, Joshua De Boer, and Sana Khalid. His research group works closely with the electron microscopy facilities at Cardiff University and maintains collaborations with other institutions including Diamond Light Source. Current projects focus on advancing 3D imaging techniques for nanomaterials and understanding catalytic processes at the atomic scale under realistic reaction conditions.

Matthias Müllerمشاهده پروفایل

پژوهشگر

• Quantum Physics
• Quantum Computing
• Quantum Optimal Control
• +۳ مورد دیگر

Matthias Müller is a researcher at the Research Center Jülich GmbH , specifically affiliated with the Peter Grünberg Institute in the Quantum Control (PGI-8) department. His work focuses on quantum optimal control, spintronics, and quantum computing technologies, with a particular emphasis on diamond-based quantum systems and Rydberg atom applications.

Matthias Schmelzمشاهده پروفایل

پژوهشگر

• Superconducting Quantum Circuits
• Josephson Junctions
• Quantum Computing Hardware
• +۳ مورد دیگر

Matthias Schmelz is a researcher at the Leibniz Institute of Photonic Technology, working in the Quantum Circuits group under the Research Department Quantum Systems. His work focuses on the development of superconducting quantum circuits and cryogenic electronics, with a particular emphasis on Josephson junction fabrication, SQUID-based readout systems, and wafer-scale integration for scalable quantum technologies. Key research contributions include the design of adiabatic quantum flux parametrons (AQFP), development of high-inductance cryogenic current comparators (CCC), and optimization of microwave SQUID multiplexer (µMUX) architectures for terahertz security cameras. His projects involve collaborations with institutions like CERN and GSI Darmstadt, addressing challenges in millikelvin thermalization, noise reduction, and quantum device characterization. Recent publications highlight advancements in cross-type Josephson junction fabrication, controllable mode coupling in coplanar waveguides, and hybrid NbN-Al quantum technologies. These works span journals including Physical Review B and IEEE Transactions on Applied Superconductivity , with applications in quantum computing, particle beam diagnostics, and high-sensitivity optical sensor readouts.

John Ellisمشاهده پروفایل

استاد

• Surface Physics
• Fracture Mechanics
• Microstructure
• +۲ مورد دیگر

Professor John Ellis serves as Professor of Surface Physics in the Department of Physics at the University of Cambridge, affiliated with the Surfaces, Microstructure and Fracture Group (SMF Group) at the Cavendish Laboratory. His office is located in Room 427C at JJ Thomson Avenue, Cambridge, CB3 0HE, United Kingdom. His research centers on Surface Physics and Fracture Mechanics , with specific expertise in material Microstructure analysis. The SMF Group employs advanced methodologies including atom scattering techniques at the Cambridge Atom Scattering Centre, investigating phenomena such as ice formation dynamics and real-time atomic behavior in 2D nanomaterials. Current initiatives include PhD projects for 2025 entry focusing on surface and nano-science applications. The research group maintains specialized facilities for surface characterization and fracture analysis, with documented case studies on thermal processes in material formation and atomic-scale observation techniques. Ongoing activities encompass virtual open days for prospective students and development of novel instrumentation for surface science research.

Tom Staceمشاهده پروفایل

استاد

• Quantum Error Correction
• Quantum Devices
• Condensed Matter Physics
• +۵ مورد دیگر

Professor Tom Stace is a Professor in the School of Mathematics and Physics at the University of Queensland and serves as Deputy Director of the ARC Centre of Excellence for Engineered Quantum Systems (EQUS). His research focuses on quantum error correction, quantum device physics, and precision quantum sensing, with applications in building practical quantum technologies. Professor Stace completed his PhD at the Cavendish Laboratory, University of Cambridge, UK, on quantum computing. He conducted postdoctoral research at the Department of Applied Mathematics and Theoretical Physics at Cambridge and Queens' College, Cambridge. Since 2006, he has held various ARC research fellowships, most recently an ARC Future Fellowship (2015-2019). Professor Stace's research spans two primary areas: Quantum Error Correction and Quantum Devices . In quantum error correction, his group develops theoretical frameworks including topological codes, holographic codes, and foliated codes to enable large-scale quantum computers. In quantum devices, his research focuses on solid-state and atomic systems for qubits, circulators, microwave systems, and quantum sensors. His work has significant implications for quantum computing, precision metrology, and quantum sensing applications. Analysis of Professor Stace's recent publications reveals a strong focus on practical implementations of quantum error correction codes, particularly tensor network approaches, and the development of superconducting devices including circulators and qubits. His research bridges theoretical quantum information science with experimental quantum engineering, with increasing emphasis on machine learning applications for quantum systems and precision measurement techniques. Professor Stace has received significant recognition for his research: ARC Future Fellowship (2015-2019) Inventor on 4 provisional patents Deputy Director of ARC Centre of Excellence for Engineered Quantum Systems Professor Stace actively supervises PhD students in quantum error correction and quantum device physics. His research has been supported by multiple ARC grants including the ARC Centre of Excellence for Engineered Quantum Systems (EQuS), Cluster-State Quantum Error-Correction Based on AdS/CFT, and Quantum-Assisted Sensing. He has also secured international funding from organizations including the United States Asian Office of Aerospace Research and Development. Professor Stace leads research within the ARC Centre of Excellence for Engineered Quantum Systems (EQUS), collaborating with researchers across Australia and internationally. His group works on both theoretical frameworks for quantum error correction and practical implementations of quantum devices, particularly superconducting circuits and systems that break time-reversal symmetry for applications in quantum computing and sensing.

Uwe Hübnerمشاهده پروفایل

استاد

• Materials Science
• Nanotechnology
• Electrocatalysis
• +۱۲ مورد دیگر

Dr. Uwe Hübner is a Professor and Head of Department at the Leibniz Institute of Photonic Technology (IPHT), leading the Competence Center for Micro- and Nanotechnologies. His work bridges nanomaterial synthesis, quantum device fabrication, and optical biosensing, with recent publications spanning electrocatalysis, superconducting resonators, and X-ray imaging. His research interests focus on micro/nanofabrication techniques for quantum and optical devices photocatalytic materials for environmental remediation label-free biosensors and impedance circuit design high-harmonic generation for sub-nanometer imaging Recent publications highlight his contributions to porous platinum layers for CO2 electroreduction cross-type Josephson junctions for scalable quantum computing imaging diffractometric biosensors with single-image readout soft X-ray coherence tomography in the water window These works emphasize interdisciplinary applications of materials science, quantum physics, and environmental engineering. Labs and teams include the Competence Center for Micro- and Nanotechnologies at IPHT, collaborating with international institutions on quantum devices, metamaterials, and advanced fabrication methods like grayscale electron beam lithography.

Mario Zieglerمشاهده پروفایل

پژوهشگر

• Nanotechnology
• Plasmonics
• Photocatalysis
• +۳ مورد دیگر

Mario Ziegler is a Researcher at the Leibniz Institute for Photonic Technology (Leibniz-IPHT) , where he contributes to the Competence Center for Micro- and Nanotechnologies and the Work group Microsystem and Nanotechnology . His work bridges advanced fabrication techniques with applications in quantum devices, environmental science, and space technology. His research interests include: Nanowire-based plasmonic lasers for nanophotonic circuitry Photocatalytic materials for UV-driven dye degradation Superconducting circuits and Josephson junctions for quantum computing Metasurface engineering for ultrafast laser pulse shaping Robust coatings for space applications Recent publications highlight his focus on hybrid plasmonic-photonic systems, scalable fabrication technologies, and material optimization. His team uses techniques like metastable atomic layer deposition, nanomanipulation-assisted optical characterization, and microlensing gas phase electrodeposition to address challenges in device performance, environmental remediation, and space-grade materials. Collaborators include Uwe Hübner, Ronny Stolz, Matthias Schmelz, and other researchers at Leibniz-IPHT and partner institutions. His work on self-assembled nanowire lasers and cross-type Josephson junctions reflects his role in advancing quantum and optoelectronic technologies. Contact: mario.ziegler@leibniz-ipht.de

Alex Woodمشاهده پروفایل

مدرس

• Organic semiconductors
• Thermoelectric materials
• Charge transport in conjugated polymers
• +۳ مورد دیگر

Dr Alex Wood is a faculty member in the Department of Sociology at the University of Cambridge, situated within the School of the Humanities and Social Sciences. His current academic rank is Lecturer and he holds an active role in the department’s teaching and research community. Research interests inferred from his recent publications centre on experimental condensed-matter physics and organic electronic materials, with emphasis on charge-transport phenomena in conjugated polymers, perovskite semiconductors, carbon-nanotube networks and thermoelectric energy conversion. Methodologically, his work employs conductive atomic-force microscopy, Hall-effect measurements and electrochemical gating to unravel nanoscale transport mechanisms. Across 2020-2025 he has co-authored twelve peer-reviewed articles that collectively map the evolution of organic semiconductor doping strategies, the role of structural and dynamic disorder on carrier mobility, and design rules for enhancing thermoelectric figures of merit in polymer-based composites. These studies provide quantitative insights into how tie-chain engineering, counter-ion selection and processing conditions modulate electrical and thermal conductivity. At present no students, funded grants, scientific prizes or laboratory webpages are disclosed in the provided material, and no contact e-mail address is listed.

• Urban Analytics
• Smart Charging Systems
• Electric Vehicle Infrastructure
• +۵ مورد دیگر

Dr. Pieter Bons serves as a Senior Lecturer at the Faculty of Technology, Hogeschool van Amsterdam, where he teaches Applied Mathematics and Data Science. His academic work spans urban analytics, smart charging systems, and geospatial modeling, with significant contributions to electric vehicle infrastructure and climate adaptation research. His research focuses on applying data science to urban challenges, particularly in smart charging for electric vehicles and neighborhood typology classification . Bons specializes in extracting actionable insights from complex urban datasets while addressing critical issues like data bias, quality, and privacy. His work bridges theoretical data science with practical urban applications, notably through projects like the Rijkswaterstaat charging infrastructure study and nationwide neighborhood typology mapping. Recent publications reveal a clear trajectory from fundamental physics (2010-2017) to applied urban analytics (2020-present), with current work emphasizing energy grid optimization through smart charging AI-driven climate adaptation tools geospatial analysis for urban planning His fingerprint analysis highlights strong connections to Smart Charging (95%), Public Charging Stations (36%), and Electric Vehicles (54%). Award highlights: HvA onderzoeksprijs 2021 for collaborative urban research Nominatie KennisDC Parel 2023 for innovation in zero-emission infrastructure Bons actively enhances data literacy across the faculty through educational initiatives like Data Studio, integrating students into real-world research cases. His activities include stakeholder presentations for Rijkswaterstaat, knowledge clips on neighborhood typologies, and academic talks on walkability and zero-emission corridors. He contributes to datasets like the Wijktypologie Buurtniveau 2023, supporting national climate adaptation efforts. His work occurs at the intersection of urban planning, energy systems, and AI, with current projects focusing on balancing urban energy grids through flexible EV charging and developing nationwide neighborhood classification systems for climate resilience.

Maroun Fouadمشاهده پروفایل

عضو هیئت علمی

• Electrochemistry
• Nanomaterials
• Thin Films
• +۹ مورد دیگر

Maroun Fouad is a CNRS Research Director and Head of the Electrochemistry and Thin Films group at the Laboratory of Condensed Matter Physics, École Polytechnique, France. He leads research on nanoscale electrochemical processes in thin oxide films and their atomic-scale properties. His work integrates electrochemistry, materials science, and surface physics. His research focuses on understanding the fundamental aspects of electrochemical deposition and dissolution of ultra-thin oxide films. Using advanced techniques such as scanning probe microscopy, X-ray diffraction and absorption, and in-situ magnetic measurements, he correlates electrochemical behavior with atomic-scale structure. His work has significant implications for energy materials, electrocatalysis, and functional nanomaterials. The recent publications reveal a strong trend in operando characterization of electrocatalytic materials, particularly cobalt oxides for oxygen evolution, and the role of atomic-scale environments in bimetallic systems and de-alloying processes. His work bridges electrochemistry with solid-state physics and materials engineering. Leadership and Institutional Roles: Head of Electrochemistry and Thin Films group (since 2017) Responsible for scanning probe and electron microscopes (since 2007) Elected representative on École Polytechnique Administration Council (since 2011) Member of scientific committees (e.g., Journées Surfaces Interfaces) Teaching and Outreach: Previously taught Master’s courses in Nanosciences at University Paris-Sud (2010–2017) Exercise teacher in Quantum Mechanics and Statistical Physics at École des Mines de Paris (2008–2015) Active participant in Science Festivals at École Polytechnique, educating the public on energy, crystallography, and NMR He has been involved in organizing seminars and laboratory outreach, contributing to both academic training and public engagement in science.

Thomas Barthelمشاهده پروفایل

استادیار مدعو

• Quantum Condensed Matter Physics
• Strongly Correlated Quantum Systems
• Nonequilibrium Quantum Dynamics
• +۱۲ مورد دیگر

Thomas Barthel is an Adjunct Assistant Professor of Physics at Duke University and a Manager of Research Development at the National Quantum Laboratory, University of Maryland . He is affiliated with the Duke Quantum Center and the Pratt School of Engineering . PhD from Rheinisch-Westfälische Technische Hochschule Aachen (Germany) (2009) Research Interests: Dr. Barthel specializes in quantum condensed matter physics and tensor network states for simulating strongly correlated quantum systems . His work spans nonequilibrium dynamics , entanglement scaling , driven-dissipative systems , and stochastic network dynamics with applications to epidemic modeling and quantum computation . He develops entanglement renormalization algorithms like Trotterized MERA to achieve quantum advantage for critical systems. Publications: Recent work focuses on proving the absence of barren plateaus in tensor network optimization, scaling of contraction costs for MERA, and non-Gaussian phase transitions in dissipative quantum models. His tensor network methods enable simulations of quantum criticality and entanglement evolution in large systems. Scientific Awards: Borchers Medal (2010) Schöneborn Prize (2005) Springorum Medal (2005) Doctoral and Student Scholarships from Studienstiftung des deutschen Volkes Advising & Grants: Dr. Barthel advises students in quantum simulation and network dynamics . He has secured NSF and NIH grants for epidemic risk analysis and quantum material studies , alongside IonQ quantum computing credits and Department of Energy funding.

• Polymer nanocomposites
• Materials engineering
• Biomaterials
• +۳ مورد دیگر

Dr. Grant Edwards is a Teaching Professor at the School of Civil Engineering within the Faculty of Engineering, Architecture and Information Technology at the University of Queensland. He is an affiliate of the Centre for Advanced Materials Processing and Manufacturing (AMPAM) and has contributed to research in polymer nanocomposites, biomaterials, and industrial material processing. Bachelor of Business (Administration), University of Queensland Bachelor of Engineering, University of Queensland Bachelor of Small Business Management, University of Queensland Doctor of Philosophy, University of Queensland His research focuses on materials engineering , particularly in polymer nanocomposites , biodegradable materials , and mechanical property optimization . Projects include graphene-enhanced coatings, nanocellulose-reinforced polymers, and synthetic clay processing for industrial applications. Funding has been received from the CRC for Polymers , Innovation Connections , and UniQuest Pty Ltd . Dr. Edwards has served as an associate advisor for PhD projects related to crosslinked polyester coatings and biomedical nanocomposites, collaborating with professors such as Darren Martin and Lisbeth Grøndahl. He is affiliated with the Australian Research Council Training Centre for Bioplastics and Biocomposites and has published extensively in journals like Materials Chemistry and Physics and Acta Biomaterialia .

• Frequency Metrology
• Primary Frequency Standards
• Cold Atom Physics
• +۲ مورد دیگر

Giovanni Antonio Costanzo is an Associate Professor at the Department of Electronics and Telecommunications (DET) of Politecnico di Torino. With expertise in Frequency Metrology and Primary Frequency Standards , his research focuses on atomic frequency standards using cold atoms and optical fiber link dissemination . Costanzo leads research projects such as YTRO - Ytterbium Trap Reference Oscillator (2007-2010, Scientific Director) and Control Electronics for Optical Links (2011-2013). His teaching portfolio includes Measurement Systems and Sensors (Electronic Engineering, 2019-2025) and Instrumentation and Control in Transportation Systems (Mechanical Engineering, 2024-2025). His recent publications (2020-2023) span topics including optical lattice clocks , coherent fiber links , and laser noise characterization , reflecting interdisciplinary work in quantum optics , telecommunications , and electronic design . He also contributes to UTC time scale generation algorithms and multi-disciplinary educational projects combining photonics and electronics.

Gareth Conduitمشاهده پروفایل

استاد

• Strongly correlated electron systems
• Machine learning for materials discovery
• Machine learning for drug discovery
• +۵ مورد دیگر

Gareth Conduit is a Professor-level Research Fellow in the Theory of Condensed Matter Group at the Cavendish Laboratory, University of Cambridge, and a Fellow of Gonville and Caius College. He leads a multidisciplinary programme that couples condensed-matter theory with modern machine-learning methodology to accelerate the discovery of functional materials and pharmaceuticals. Education & Affiliations: Fellow of Gonville and Caius College, Cambridge Research Fellow, Theory of Condensed Matter Group, Cavendish Laboratory, University of Cambridge Research Interests: Conduit’s work spans two major themes. The first is strongly correlated quantum matter , where he employs quantum Monte-Carlo techniques to explore itinerant ferromagnetism, superconductivity and few-fermion systems, often in collaboration with ultracold-atom experiments. The second is AI-driven materials & drug discovery , where his group develops the Alchemite™ probabilistic deep-learning platform to impute sparse, noisy experimental data and design new alloys, superalloys, concrete formulations and therapeutic candidates. Projects have led to the experimental validation of five proprietary alloy families and are now commercialised through the spin-out Intellegens . Publication Trends: His 2022-2025 output demonstrates a strategic shift toward large-scale, multi-task deep learning deployed on industrial data sets—ranging from 3-D woven composites and superalloy microchemistry to concrete strength and nicotine pharmacokinetics—while maintaining foundational contributions to quantum many-body theory and metamaterial design roadmaps. Scientific Awards: No awards are listed in the supplied material. Funding & Commercial Impact: Conduit has secured substantial industrial funding ( Rolls-Royce, Johnson Matthey, AstraZeneca, Unilever, etc.) to translate AI predictions into certified materials and drug candidates. The Alchemite engine is now embedded in industrial R&D workflows for aerospace alloys, battery electrodes and pharmaceutical formulations. Teams & Facilities: He leads an active research group within the TCM theory division, maintains close ties with the Cavendish’s ultracold-atom experimental programme, and collaborates globally through the OPTIMADE consortium for materials data interoperability.

Martin Heinrichمشاهده پروفایل

پژوهشگر

• Mechanical Engineering
• Fluid Dynamics
• Multiphase Flow Simulation
• +۳ مورد دیگر

Dr.-Ing. Martin Heinrich is a researcher at the Institute of Mechanics and Fluid Dynamics within the Faculty of Mechanical, Process and Energy Engineering at Technical University Bergakademie Freiberg . His work focuses on numerical flow simulation and computational fluid dynamics. Education: Diploma in Mechanical Engineering (2011), TU Bergakademie Freiberg (grade: 1.3) Doctorate in Mechanical Engineering (2016), TU Bergakademie Freiberg (summa cum laude) Martin Heinrich's research spans numerical simulation of multiphase flows , atomization of molten metals and water jets , and surface structuring using laser beams . He has conducted research stays at the University of Toronto (2019, 2017) and Amirkabir University of Technology (2018). His 15 most recent publications (2013–2025) include work on air sampling in closed environments , fluid-structure interaction , CFD software development , and laser-induced surface structuring , with a focus on computational methods like OpenFOAM and ANSYS CFX. Key awards: Summa cum laude doctorate in Mechanical Engineering (2016) He has collaborated with researchers such as Prof. Rüdiger Schwarze , Prof. Kinnor Chattopadhyay , and Dr. Hossein Khaleghi . His work includes grants for multi-scale modeling and fluid dynamics software tools .