Find Academic Supervisors

• Biomedical Instrumentation
• Single-cell Biophysics
• Nanotechnology
• +4 more

Dr. David Martinez Martin is a Senior Lecturer in Biomedical Engineering at the University of Sydney's School of Biomedical Engineering, where he serves as Deputy Director of Sydney Microscopy & Microanalysis (SMM) and Co-Chair of the Sensors and Diagnostics cluster within the NanoHealth Network. He holds a PhD in Physics from the Autonomous University of Madrid (Summa Cum Laude) and a BSc/MSc from the University of Valladolid, where he received the University Medal for outstanding academic achievement. Dr. Martinez-Martin is the co-founder of the Sydney Innovation Program, fostering interdisciplinary solutions at the intersection of law, science, and technology. His research focuses on developing novel instrumentation to study cellular biophysics, particularly real-time cell mass dynamics in health and disease. Key innovations include the patented inertial picobalance technology for single-cell mass measurement. Research themes span nanotechnology, scanning probe microscopy, and bionanotechnologies, with applications in cancer, diabetes, and cardiovascular disease diagnostics. His work bridges molecular biophysics, biomedical engineering, and materials science. Analysis of recent publications (2017-2024) reveals consistent focus on: (1) Advanced microscopy techniques like atomic force microscopy for nanoscale biological imaging, (2) Single-cell biophysical analysis including mass fluctuation studies, and (3) Diagnostic technology development for medical applications. His articles frequently appear in high-impact journals including Nature, Nature Nanotechnology, and Nature Communications. Awards and honors include: World Intellectual Property Organisation (WIPO) distinction (2022) University of Sydney Research Accelerator Prize (2020) Alberto Elzaburu Innovation Award (2018) Spanish Physicists' Excellence Award (2016) EMBO Long-term Fellowship (2012-2014) Royal Spanish Academy of Doctors Research Award (2012) Dr. Martinez-Martin leads the Strategic Research Partnership with Bruker, establishing Australia's first nanomedicine facility. He has secured significant grants including AUD$2.2M from the Swiss Technology Commission (2018) and AUD$150,000 SOAR funding (2020). He mentors PhD and Master's students in cell biophysics and diagnostic technology development, though specific advisees are unnamed in source materials.

• Materials Science
• Nanotechnology
• Electron Microscopy
• +5 more

Dr. Levi Tegg is a Researcher at the University of Sydney, affiliated with the Australian Centre for Microscopy and Microanalysis and the Net Zero Institute. His academic background includes a BSc (Hons) and PhD from the University of Newcastle. He specializes in advanced microscopy techniques to study material microstructures, particularly ferroelectric materials and nanoporous metals. His research focuses on linking microstructural properties to real-world applications such as energy storage and photovoltaics. Current projects include domain structure analysis in ferroelectrics, cryogenic atom probe tomography workflows, and hydrogen-embrittlement in alloys. Education: BSc (Hons) in Materials Science and Physics from the University of Newcastle (2020 PhD). Research interests span materials characterization via electron microscopy, powder diffraction, and plasmonics. He collaborates with institutions like Sydney Nano and the Australian Microscopy and Microanalysis Society (AMMS). Key projects include studying relaxor ferroelectrics' domain structures, nanoporous metals for energy applications, and optimizing atom probe tomography techniques. He advises PhD student Nathan Brichta on relaxor ferroelectric crystal characterization. Affiliations: Member of Sydney Nano Institute, Net Zero Initiative, AMMS, and Australian Nanotechnology Network. His work bridges fundamental material science with applied technologies, emphasizing interdisciplinary collaboration.

Kelly GaffneyView profile

Associate Professor

• Ultrafast Chemistry
• X-ray Laser Spectroscopy
• Chemical Dynamics
• +3 more

Kelly Gaffney is an Associate Professor of Photon Science at Stanford University, with a courtesy appointment in the Department of Chemistry. She leads a research team focused on femtosecond-resolution measurements of chemical dynamics using ultrafast x-ray lasers, such as the LCLS at SLAC National Accelerator Laboratory. Her work bridges ultrafast optical laser science and x-ray spectroscopy to observe chemical reactions at the atomic scale. Education: PhD in Chemistry from the University of California, Berkeley (2001). Research interests include non-equilibrium dynamics of electronic excited states, light-driven catalysis, and the development of ultrafast x-ray techniques. She has pioneered studies on transition metal complexes, solvation dynamics, and molecular structural changes using femtosecond x-ray scattering and spectroscopy. Affiliations include the Stanford Synchrotron Radiation Lightsource (SSRL), the Center for Molecular Analysis and Design (CMAD), and ChEM-H (Chemistry, Engineering & Medicine for Human Health). Her research integrates experimental and theoretical approaches to uncover design principles for novel photocatalytic systems. Key contributions include real-space observations of transition metal complex dissociation, picosecond spin transitions in nanomaterials, and the application of resonant inelastic soft x-ray scattering to probe electronic structure dynamics. Collaborations focus on advancing x-ray free electron laser (XFEL) technology for chemical dynamics studies.

Philip BucksbaumView profile

Professor

• Attosecond Science
• Strong-Field Physics
• Ultrafast Molecular Dynamics
• +3 more

Philip Bucksbaum is the Marguerite Blake Wilbur Professor of Natural Science at Stanford University with joint appointments in Photon Science, Applied Physics, and Physics. He directs the Stanford PULSE Institute, pioneering research using X-ray free-electron lasers to study femtosecond-scale molecular dynamics. His research spans attosecond electron imaging, strong-field laser-matter interactions, and molecular movie techniques capturing chemical reactions. Recent work includes breakthroughs in measuring attosecond delays in molecular ionization and probing electronic coherence. Bucksbaum has received the Norman F. Ramsey Prize and serves on multiple national science advisory boards. He previously served as President of the American Physical Society and Optical Society.

Martin SiliesView profile

Professor

• Photonics
• Nano-Optics
• Ultrafast Lasers
• +7 more

Prof. Dr. Martin Silies holds the position of Professor für Optoelektronik at the University of Applied Sciences Emden/Leer, within the College of Engineering (Technik Department). His research focuses on advanced optical technologies including nano-optics, photonics, ultrafast laser systems, and optical transistor development. Key projects include the BMBF-funded 'HIL4PhotonSwitch' (plasmonic transistor fabrication) and 'tubLan Q.0' (quantum information transmission). BMBF Projects: Photonics transistor fabrication, quantum communication systems Main Research Areas: Ultrafast lasers, plasmonic nanostructures, 2D material optoelectronics Recent work emphasizes quantum coherence in single-photon sources, exciton dynamics in 2D heterostructures, and advanced fabrication techniques using helium-ion lithography. His publications span over two decades with contributions to ultrafast microscopy, nonlinear optics, and nanoscale light-matter interactions. Notably, Prof. Silies leads initiatives in photonics circuitry and has pioneered room-temperature polariton lasing systems. His lab conducts cutting-edge research at the interface of nanotechnology and quantum optics, leveraging state-of-the-art fabrication and characterization tools. Collaborations include interdisciplinary projects integrating biological fluorescent proteins with photonic systems.

Byung KimView profile

Professor

• Biophysics
• Condensed Matter Physics
• Nanotechnology
• +3 more

Byung Kim is a Professor in the Department of Physics at Boise State University, with affiliations in the Graduate Program in Biomolecular Science and the Biomedical Engineering graduate program. His research focuses on biophysics and condensed-matter experiments, particularly investigating self-assembled water chains in biomolecular interactions using cantilever-based optical interfacial force microscopy (COIFM). He develops COIFM biosensors for proteomic screening and explores humidity-dependent structural transitions in nanoscopic systems. Kim holds a Ph.D. in Physics from Seoul National University. His work bridges physics and biology, emphasizing nanoscale phenomena such as interfacial water dynamics, phase transitions, and sensor technology. His recent publications (2022) highlight experimental and theoretical advances in understanding water chain self-assembly, entropy-driven forces, and long-range condensation effects. Kim’s research also involves advanced atomic force microscopy (AFM) techniques, including high-speed imaging, force-feedback systems, and nanomechanical characterization of soft materials. His lab, located in Science Bldg Room 414, focuses on interdisciplinary applications of microscopy to biomolecular and biomedical challenges.

Mihail BogojeskiView profile

Researcher

• Geometric Deep Learning
• Quantum Chemistry
• Computational Biology
• +3 more

Dr. Mihail Bogojeski is a postdoctoral researcher at the Technical University of Berlin , affiliated with the Machine Learning Group and the Berlin Institute for the Foundations of Learning and Data (BIFOLD) . His research focuses on advancing machine learning techniques for applications in the physical sciences and medical sciences , particularly in quantum chemistry , computational biology , brain-computer interfaces , and sequential data analysis . B.Sc. in Software and Information Engineering (2014), Vienna University of Technology M.Sc. in Computer Science (2017), TU Berlin Ph.D. in Computer Science (2023), TU Berlin His research integrates geometric deep learning with quantum chemistry to develop models for predicting electronic structure of molecular systems and electron densities . Recent work includes equivariant neural networks for molecular wavefunction prediction, generative time-series models for industrial aging processes, and explainable AI frameworks for catalyst discovery. Publications highlight his expertise in machine learning , quantum chemical accuracy , and multimodal data augmentation . His 15 most recent articles focus on machine learning applications in chemistry , neuroscience , and industrial process modeling , with subfields such as generative models , equivariant networks , density functional theory , and neural signal processing .

Kritagya Raj UpadhyayView profile

Assistant Professor

• Cybersecurity
• Blockchain and Smart Contracts
• Artificial Intelligence
• +4 more

Dr. Kritagya Raj Upadhyay is an Assistant Professor in the Department of Computer Science at Middle Tennessee State University (MTSU). Specializing in Blockchain and Smart Contracts , Cybersecurity , Artificial Intelligence , Data Cooperatives , and Metaverse , his research focuses on developing architectures and algorithms that address uncertainty, trust, privacy, and security in emerging technologies. Research Interests: Blockchain for Trusted Artificial Intelligence Smart Contracts Security and Scalability Data Cooperatives for Privacy Protection Metaverse Threat Modeling Fuzzy Logic in Legal Contract Interpretation Recent Publications demonstrate expertise in blockchain applications, metaverse security, and AI integration across diverse domains. His work spans Smart Contract Vulnerability Detection , Legal Contract Automation , and Secure IoT Systems . Scientific Awards : MTSU Data Science Institute Seed Grant ($5,000) - 2024 Best Research Paper Award - IEEE TPS-ISA 2023 Outstanding Ph.D. Student Award - University of North Texas 2023 NSA Innovation Award - 2021 Dr. Upadhyay mentors graduate students like Samir Poudel (Second Best Poster Awardee 2023) and teaches courses including Blockchain and Smart Contracts , Secure Software Systems , and Computer Science I at MTSU.

Kendra Letchworth-WeaverView profile

Associate Professor

• Computational Physics
• Renewable Energy Technology
• Solid-Liquid Interfaces
• +3 more

Kendra Letchworth-Weaver is an Associate Professor in the Department of Physics & Astronomy at James Madison University (JMU), where she has been since 2018. Her research focuses on computational modeling of solid-liquid interfaces critical to renewable energy technologies, including batteries and water filtration systems. She leverages JMU's high-performance computing resources and open-source software to study atomic-scale phenomena at material surfaces. Dr. Letchworth-Weaver earned her Ph.D. in Theoretical Physics from Cornell University (2016) and a BS in Physics & Mathematics from The College of William and Mary (2007). Her work bridges computational physics with experimental validation, particularly through X-ray reflectivity analysis and density functional theory (DFT). Research Interests: Computational modeling of electrochemical interfaces Materials for energy storage and sustainability Interfacial structure prediction using joint density functional theory (JDFT) Surface science and catalysis Development of computational tools for materials characterization Key Research Trends in Articles: Her publications emphasize computational-experimental synergy, advancing understanding of complex interfaces in energy systems. Recent work includes optimizing strontium titanate surfaces for heteroepitaxy, validating interfacial models via X-ray data, and developing machine learning approaches for materials discovery. Education-focused papers address diversity and inclusion in physics education. Labs & Resources: Her research uses JMU's Madison Accelerator Lab and high-performance computing cluster, complemented by collaborations in theoretical physics and computational chemistry. She actively contributes to open-source software like JDFTx.

Joseph OrgelView profile

Professor

• Structural Biochemistry
• Biomedical Engineering
• Neuroscience
• +6 more

Joseph Orgel is a Professor of Biology and Biomedical Engineering at Illinois Institute of Technology (IIT), with affiliate appointments in the Stuart School of Business. He holds roles as Associate Director of the NIH-funded BioCAT facility and Sector Editor for PLoS ONE. His research focuses on structural biochemistry, collagen mechanics, and pathological tissue mechanisms, with collaborations on Alzheimer’s disease, traumatic brain injury, and heart disease. He leads the Orgel Lab, employing advanced techniques like X-ray diffraction and molecular modeling to study extracellular matrix (ECM) organization. Education: B.Sc. (Hons) and Ph.D. from the University of Stirling. Professional affiliations include the American Chemical Society, American Society for Matrix Biology, and National Museum of Health and Medicine (Chicago Board Member). Awards include NSF CAREER (2007), Coleman Foundation Fellowships (2015-2019), and Dean’s Excellence Awards (2006, 2010). Research emphasizes collagen’s role in disease and regeneration, with recent work on nanoscale tissue visualization (sub-1 nm resolution), immune interactions with collagen fibrils, and mechanical loading effects. His lab’s interdisciplinary approach integrates biophysics, biochemistry, and computational modeling. Publications span over 60 peer-reviewed articles in journals like International Journal of Molecular Sciences , Scientific Reports , and PLoS ONE , focusing on collagen structure-function relationships, amyloid fibril formation, and ECM dynamics. He also contributes to education initiatives, including the IIT Empowerment, Leadership, and Mentorship (ELM) Program.

• Materials Science
• Nanotechnology
• Electron Microscopy Techniques
• +4 more

Dr. Ian MacLaren is a Reader in Physics & Astronomy at the University of Glasgow's School of Physics and Astronomy. His research focuses on advanced electron microscopy techniques, including quantitative electron energy loss spectroscopy (EELS) and 4D scanning transmission electron microscopy (STEM), applied to study nanoscale materials such as functional oxides, high-strength steels, optical coatings, and mineral structures. He leads the Materials Sciences Applications section for the journal Microscopy and Microanalysis . His work emphasizes structural and chemical characterization at atomic resolution, with applications in energy, aerospace, and gravitational wave physics. Research Interests: Dr. MacLaren’s expertise spans electron microscopy innovations, including DualEELS, ultra-high energy loss spectroscopy, and fast pixelated detector technologies. His studies address challenges in nanomaterials, thin film engineering, and defect analysis, with a focus on materials for high-precision applications like gravitational wave detectors. Recent projects include analyzing domain structures in ferroelectric materials, bubble formation in metals, and strain effects in nanomaterials. Publications & Trends: His 166+ publications (2000–2025) highlight advancements in microscopy techniques and material characterization. Key themes include optimizing EELS for high-energy losses, developing 4D-STEM for dynamic imaging, and studying defects in functional oxides and alloys. Recent work emphasizes compressive sensing for faster, lower-dose imaging and correcting EELS artifacts for accurate chemical analysis. Labs & Teams: Collaborates with international groups on structural and chemical nanocharacterization. Active in open-source software development for electron microscopy data analysis, advancing tools like Atomap for atomic resolution imaging.

• Serial Crystallography
• X-ray Free-Electron Lasers (XFELs)
• Structural Biology
• +5 more

Assoc. Prof. Nadia Zatsepin is an Associate Professor at Swinburne University's School of Science, Computing and Emerging Technologies. She leads research on serial crystallography using XFELs and synchrotrons to study biomolecules at atomic resolution. Her work focuses on membrane proteins, structural dynamics, and drug discovery. Zatsepin holds an ARC Future Fellowship and has pioneered techniques like viscous jet delivery and time-resolved XFEL methods. Education: PhD in X-ray physics (Monash University, 2011). Postdoctoral work at Arizona State University (2011–2015) and senior roles at La Trobe University and the ARC Centre for Advanced Molecular Imaging before joining Swinburne in 2024. Research interests include XFEL applications, microcrystallography, radiation damage mitigation, and structural analysis of medically relevant proteins. Key projects involve studying cytochrome c oxidase, chloride pumps, and GPCRs. Publications span crystallography instrumentation, protein dynamics, and structural biology. Awards include the ARC Future Fellowship. Active in supervising PhD students and leading grants like 'Developing serial crystallography for room temperature structure & dynamics.' Labs/Teams: Zatsepin Lab (https://sites.google.com/view/zatsepinlab). Collaborations include international XFEL facilities and structural biology networks.

Ivo RietveldView profile

Assistant Professor

• Physical Chemistry
• Pharmaceutical Sciences
• Crystallography
• +5 more

Dr. Ivo Rietveld is an Assistant Professor at the University Paris Descartes since 2007, with an HDR (Habilitation to Direct Research) obtained in 2010 on 'Influence of pressure on the stability of molecular solids'. His research focuses on chemical and physical stability of drugs , phase behavior of drug mixtures , X-ray powder diffraction , and thermodynamic phase diagrams . He also investigates electrospray deposition for thin film applications and dendrimer-based materials for biomedical use. Education: PhD (Leiden University, 2000), followed by postdoctoral research at TU Delft (Netherlands), University of Pennsylvania (USA), and Kyoto University (Japan). His expertise includes thermal analysis (DSC/TG) , crystal structure resolution , and solid-state characterization . Teaching: Leads courses in physical chemistry , thermodynamics , and pharmaceutical analysis for pharmacy students, including development of a second-year physical chemistry curriculum. Research Trends: His publications span polymorphism studies , pressure-temperature phase diagrams , and electrospray-based material fabrication . Recent work emphasizes resolving stability hierarchies of drug polymorphs under high-pressure conditions and developing bionanocomposites for tissue engineering. Grants & Collaboration: Active in European-Japanese consortia for thin film technology and French pharmaceutical solid-state research projects. Organized conferences like the 2016 Joint European days on Equilibrium between Phases (JEEP) and delivered keynote lectures on polymorphism analysis under pressure.

Aurelio Arenas Dalla-VecchiaView profile

Associate Professor

• Electronics
• Control Systems
• Nanotechnology
• +3 more

Aurelio Arenas Dalla-Vecchia is an Associate Professor at the University of Murcia, affiliated with the Faculty of Chemistry and the Department of Electromagnetism and Electronics. His research focuses on control systems, nanotechnology, renewable energy, and instrumentation. He has been involved in projects like the development of flexible electronics and solar energy systems, as well as interdisciplinary work in biomedical engineering and sensor technology. Education: Doctorate from the University of Murcia (1994), with a thesis on tunneling microscopy applied to plastic metalization processes. Research interests include advanced control strategies for systems with delays, thermal performance analysis of solar receivers, and biocompatible materials. His publications span applications in energy systems, biomedical devices, and educational technology, emphasizing practical instrumentation and automation. Notable projects include the DIANA nanoscience group and contributions to sensor-based experiments using gaming hardware like the Nintendo Wii remote. His work bridges theoretical control systems with real-world applications in renewable energy and materials science.

Wen LiView profile

Professor

• Ultrafast molecular dynamics
• High harmonic generation
• Attosecond spectroscopy
• +3 more

Wen Li is a Professor in the Department of Chemistry at Wayne State University, affiliated with the College of Liberal Arts and Sciences. His research focuses on ultrafast molecular dynamics, high harmonic generation, and attosecond spectroscopy, utilizing attosecond pulses to study electron dynamics in physics, chemistry, and biology. He holds a B.S. from Peking University (2000) and a Ph.D. from Stony Brook University (2006), followed by a research role at JILA (2006-2009). His research projects include HHG probes for molecular dynamics, attosecond pulse generation, and electron correlation dynamics. Notable contributions include a Science -published study on electron rearrangement and a 2017 PNAS article on methyl azide dynamics. His work bridges experimental and theoretical methods, advancing understanding of multi-electron dynamics and nonadiabatic coupling. Recent publications (2017-2024) explore topics like 3D ion momentum imaging, carrier-envelope phase control, and Coulomb explosion dynamics. He teaches advanced courses such as CHM7430 (Chemical Kinetics) and CHM5550 (Physical Chemistry Laboratory). His lab develops innovative imaging techniques and collaborates on projects funded by grants, including a study on quantum tunneling kinetics. Li's experimental innovations include the 'time-to-brightness converter' and multi-mass 3D imaging systems, enabling unprecedented insights into femtosecond and attosecond phenomena. His work provides benchmarks for theoretical models in multi-electron systems and complex molecular processes.