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R. J. Dwayne Miller serves as University Professor in both the Department of Chemistry and Department of Physics at the University of Toronto. He also holds significant international appointments as Co-founding Director of the Max Planck Institute for the Structure and Dynamics of Matter in Hamburg, Germany, and previously directed the Max Planck Group at Centre for Free Electron Laser Science/DESY. His research focuses on understanding molecular reaction dynamics with particular emphasis on the connection between chemistry driving biological functions and the highly optimized structures in biological systems. Miller received his B.Sc. Honours from the University of Manitoba (1974-1978) under Professor Bryan R. Henry, followed by a Ph.D. from Stanford University (1978-1983) with Professor Michael D. Fayer. After a NATO Science Fellowship at Université Joseph Fourier (1983-1984), he began his academic career at the University of Rochester, progressing from Assistant Professor to full Professor before joining the University of Toronto in 1995, where he was promoted to University Professor in 2007. Professor Miller's research spans three interrelated areas: energy transduction in biological systems; interfacial structure and reaction dynamics; and high-order nonlinear laser spectroscopies as probes of liquid and protein 'memory' functions. His group has pioneered the development of ultrabright electron sources that enable direct observation of atomic motions during chemical reactions - creating what they call 'atomic movies.' This groundbreaking work accomplished one of science's dream experiments by bringing the chemist's collective thought experiment of chemistry to direct observation. Their research has challenged established paradigms, particularly in quantum biology where they demonstrated that nature exploits dissipation rather than avoiding it to direct energy transport in photosynthesis. Analysis of Miller's recent publications reveals a consistent progression from fundamental studies of energy transport to practical applications. His group has evolved their electron diffraction techniques to achieve unprecedented spatial and temporal resolution, enabling observation of atomic motions during barrier crossing in catalysis and resolving full enzymatic cycles. A significant trend is their development of serial electron diffraction methods requiring only nanograms of material, which could revolutionize structural biology and chemical synthesis by enabling 'lab on a chip' approaches with orders of magnitude higher throughput. Fellow of the Royal Society (2023) Fellow of the Royal Society of Canada Fellow of the Chemical Institute of Canada Fellow of the Optical Society of America Fellow of the Royal Society of Chemistry European Physical Society Prize for Laser Science A.P. Sloan Fellowship Camille and Henry Dreyfus Fellowship Guggenheim Fellowship Humboldt Award Presidential Young Investigator Rutherford Medal in Chemistry CIC Medal McNeil Medal for Science Promotion Professor Miller has secured substantial funding for his innovative research in ultrafast science, leading to numerous technological breakthroughs. His group has developed the Picosecond Infrared Laser (PIRL) technology, which enables minimally invasive surgery with intact molecular signatures for guidance and scar-free healing. This technology has been successfully applied in stapes surgery for hearing loss recovery and in treatments for glaucoma. His work on six-wave mixing spectroscopy has opened new avenues for investigating intermolecular forces that determine the dynamic structure of liquids and proteins. The Miller Group is housed in the Lash Miller Chemical Laboratories at the University of Toronto, where they maintain state-of-the-art instrumentation they've developed. Their labs include ultrabright electron sources sufficient to 'light up atomic motions' and observe chemistry at the atomic level. The group is working toward establishing the Centre for Atomically Resolved Dynamics to promote collaborative research. They maintain strong international connections, particularly with the Max Planck Institute in Hamburg, reflecting Miller's dual appointments in Canada and Germany.

• Physical Chemistry
• Molecular Reaction Dynamics
• Ultrafast Spectroscopy
• +4 more

Aldo H. Romero is the Eberly Family Distinguished Professor of Physics and Astronomy at West Virginia University, where he serves as Director of Research Computing . His research integrates computational materials science, artificial intelligence, and high-performance computing to advance understanding of condensed matter systems, including strongly correlated materials, 2D materials, and magnetic compounds. Education : Ph.D. in Physics and Chemistry from University of California, San Diego (1998) Awards : Eberly Family Distinguished Professorship Romero’s group specializes in Density Functional Theory (DFT) , Dynamical Mean Field Theory (DMFT) , and machine learning for materials discovery. They develop open-source tools like PyProcar , MechElastic , and ABINIT , focusing on properties such as electronic structure, elastic behavior, and magnetic interactions. Recent work explores chiral materials , AI-driven optimization , and high-throughput computational methods for material design. Key trends in publications include studies on chiral symmetry in kagome lattices, machine learning for material properties, symmetry-based structure prediction, and DFT+DMFT analysis of correlated systems. Collaborations span Germany, France, China, Spain, and Italy, with applications in energy storage, quantum technologies, and spintronics. Scientific contributions encompass: Development of Fireball and ABINIT codes Machine learning for Hubbard U parameter optimization Chiral material discovery via symmetry arguments Pioneering work on 2D Rashba systems Labs and teams include: AI WVU Discussion Group (founded by Romero) West Virginia University Computational Materials Group Collaborative efforts with international institutions Grants and proposals highlight initiatives like the NSF & NVIDIA Open Multimodal AI Infrastructure (OMAI) program and Spencer Foundation support for AI in education. The group works with over 20 graduate students and 4 postdoctoral researchers, emphasizing interdisciplinary training and global collaboration.

• Condensed Matter Physics
• Computational Materials Science
• Artificial Intelligence in Materials Discovery
• +11 more

Jasper Postema is a doctoral candidate at Eindhoven University of Technology (TU/e), specializing in Applied Physics and Science Education within the Coherence and Quantum Technology department. He is part of the KAT-1 project on Rydberg Atom Quantum Computing and Simulation. Postema holds a Bachelor's and Master's degree in Applied Physics from TU/e, with additional studies in theoretical physics at Radboud University focusing on general relativity and quantum gravity. His research focuses on quantum error correction protocols for neutral atom quantum computers, analyzing error channels, and exploring CSS codes derived from algebraic geometry. Research Interests: Quantum error correction codes (e.g., CSS codes, algebraic geometry codes) Neutral atom quantum computing architectures Quantum algorithms for chemistry and time series analysis Multi-qubit interaction engineering Key Contributions: Developed hybrid quantum singular spectrum decomposition for time series analysis Explored entangled photon production via nonlinear Compton scattering Investigated logical qubit fidelities in neutral atom quantum systems Postema contributes to the KAT-1 project, a collaboration involving researchers from TU/e and international partners, focusing on advancing neutral atom quantum technologies.

• Quantum Computing
• Quantum Error Correction
• Neutral Atom Physics
• +3 more

Brian T. Cunningham is a distinguished academic holding multiple professorships and leadership roles at the University of Illinois at Urbana-Champaign. He serves as the Intel Alumni Endowed Chair in Electrical and Computer Engineering (ECE), Program Leader at the Cancer Center at Illinois, and Professor in departments including Bioengineering, Micro and Nanotechnology Lab, Biomedical and Translational Sciences, Nutritional Sciences (Affiliate), Chemistry, and the Beckman Institute for Advanced Science and Technology. He also directs the Center for Genomic Diagnostics at the Carl R. Woese Institute for Genomic Biology. His research focuses on advanced biosensor technologies, photonic crystal engineering, and nanotechnology-driven diagnostics. Key areas include photonic crystal-enhanced fluorescence, label-free detection systems, and portable point-of-care devices. His work integrates photonics, plasmonics, and DNA-based nanostructures for ultrasensitive viral and molecular diagnostics. Notable honors include AAAS Fellow (2016), AIMBE Fellow (2013), and IEEE Fellow (2012). He leads interdisciplinary teams in the Micro and Nanotechnology Lab and collaborates across engineering, biomedical, and genomic fields to advance diagnostic tools for healthcare and biomedical research. Research Themes: Photonic crystals, biosensors, nanotechnology, medical diagnostics, and DNA-based nanodevices. Labs/Initiatives: Micro and Nanotechnology Lab, Center for Genomic Diagnostics, Personalized Nutrition Initiative. Technology Highlights: PRAM (Photonic Resonator Absorption Microscopy), DNA NanoGripper, and smartphone-linked diagnostic platforms.

• Photonics
• Biosensors
• Nanotechnology
• +3 more

Jamshed Anwar is Professor and Chair in Computational Chemistry at Lancaster University's Department of Chemistry, where he leads the Chemical Theory and Computation Research Group. His research spans computational chemistry, molecular simulation, and pharmaceutical sciences, with significant contributions to understanding molecular assemblies, nucleation processes, and drug delivery systems. His research interests focus on developing fundamental understanding of organic molecular assemblies through computer modeling and simulation. Key areas include self-assembly, phase transformations, crystal nucleation and growth (particularly how these processes can be modulated), nanocrystals, phase transformations in crystals, biological membranes, protein aggregation, and drug delivery systems. His work aims to develop predictive approaches for optimizing the macroscopic properties of chemical and pharmaceutical systems, reducing experimental effort through rational design. His recent publications demonstrate strong activity in computational pharmaceutical sciences, with research spanning molecular dynamics simulations of drug delivery systems, protein aggregation studies relevant to neurodegenerative diseases, force field development, and thermodynamic calculations of crystal properties. The research shows consistent focus on applying computational methods to solve pharmaceutical and materials science challenges. Jinnah Award 2009 Pfizer Award 1999 R. P. Scherer Award 1986 Fellow of the Royal Society of Chemistry Fellow of the Royal Pharmaceutical Society of Great Britain Fellow of Sidney Sussex College, University of Cambridge Visiting Professor of the Chinese Academy of Sciences Visiting Professor of the Shanghai Institute of Materia Medica Professor Anwar actively hosts academic visitors and participates in university events, as evidenced by his hosting of researchers like Jan Verlet, David Brook, and Eric Borguet between 2016-2022. His research group is multidisciplinary, welcoming researchers from chemistry, chemical engineering, physics, and pharmaceutical sciences backgrounds. He previously served as Director of Research for the School of Pharmacy at University of Bradford and has held positions at King's College London, University of Pennsylvania, AMOLF in the Netherlands, and Cambridge University. His laboratory, the Chemical Theory and Computation Research Group, focuses on molecular modeling of pharmaceutical systems, with particular emphasis on nucleation processes, membrane interactions, and drug delivery mechanisms. The group maintains strong international collaborations, as indicated by his visiting professorships in China and numerous co-authored publications with international researchers.

• Computer modelling and simulation
• Molecular simulation
• Self assembly
• +7 more

John McFerran is an Associate Professor in the School of Physics, Maths and Computing at the University of Western Australia (UWA). He holds roles including Masters/PhD supervisor, lecturer, researcher, and Academic Conduct Advisor. His research focuses on optical frequency synthesis (frequency combs), optical atomic clocks, and laser spectroscopy, with a particular emphasis on ytterbium-based clocks and tests of the Standard Model via isotope shift measurements. He has developed a cold atom optical clock at UWA and led projects such as the ARC Future Fellowship (2012–2016) and the ARC Centre of Excellence for Engineered Quantum Systems (2018–2019). Education & Previous Positions: PhD in Physics from UWA (2003) Postdoctoral Researcher at Observatoire de Paris (France), XLIM Institute (France), and Durham University (UK) Guest Researcher at NIST Boulder (USA) and LNE-SYRTE (France) Teaching: Courses include Atomic Physics (PHYS3001), Frontiers of Modern Physics (PHYS3012), Electromagnetism (PHYS2001), and Physics Bridging (PHYS1030). Research Projects: Developing ultracold ytterbium optical lattice clocks Measuring isotope shifts and nuclear parameters in ytterbium King plot analyses for Standard Model tests Awards: ARC Future Fellowship (2012–2016) Scientific Mobility Travel Award (France, 2013) Grants & Funding: ARC Centre of Excellence for Engineered Quantum Systems (2018–2019) A Southern Hemisphere Ground Station for Atomic Clock Ensemble in Space Mission (ARC, 2011–2016) Labs & Teams: Leads the Atomic Clock Lab (www.atomicclocklab.net), focusing on precision measurement technologies and quantum systems.

• Optical Atomic Clocks
• Frequency Synthesis
• Laser Spectroscopy
• +5 more

Paul Low is a Professor and Head of School in the School of Molecular Sciences at the University of Western Australia (UWA). He holds titles including FRSC, FRACI, and CChem, and has held previous academic positions such as Professor of Chemistry at Durham University, UK. His research focuses on organometallic chemistry and molecular electronics, with particular emphasis on single-molecule junctions, quantum interference effects, and nanotechnology applications. Education B.Sc (Double Major in Chemistry) from University of Adelaide (1992) B.Sc(Hons) from University of Adelaide (1993) PhD in Inorganic Chemistry from University of Adelaide (1997) Research Interests Professor Low’s work explores molecular electronics, organometallic complexes, and quantum interference in molecular systems. He investigates novel materials for electronics applications, including molecular wires, conductance modulation, and device fabrication. His research integrates experimental and computational methods to understand electronic properties at the molecular scale. Grants & Collaborations ARC Discovery Projects (2019–2022): Molecular transistors and radical-based components for electronics ARC Future Fellowship (2012–2016): Molecular electronics platforms Collaborations with global institutions on projects like gold-graphene heterojunctions and CO₂ foundries Awards H.G. Smith Memorial Medal (2020) Friedrich Wilhelm Bessel Research Award (2015) Teaching & Outreach He teaches undergraduate courses in chemistry and mentors students through UWA’s scholarship programs. His outreach initiatives engage Indigenous youth in science through workshops like ‘Molecules, Models, and Morsels’. Labs & Teams His group collaborates with surface scientists, microscopists, and theoreticians to advance molecular electronics. Projects include building large-scale molecular junction arrays and developing CO₂ capture technologies.

• Organometallic Chemistry
• Molecular Electronics
• Quantum Interference
• +3 more

Behnaz Bagheri is an Assistant Professor in the Department of Applied Physics at Eindhoven University of Technology (TU/e). Her research focuses on multiscale modeling of electronic excitations in soft matter and plasma interactions with biological surfaces. She employs computational quantum chemistry, molecular dynamics, and fluid-type models, with applications in medicine, agriculture, and public health. BSc and MSc in Physics/Condensed Matter Physics from Isfahan University of Technology (2009–2011) Postgraduate Diploma, ICTP (2012) PhD at University of Waterloo/Perimeter Institute (2012–2017) Postdoc at Centrum Wiskunde & Informatica (2017–2020) Her research interests span plasma-biological interfaces, non-thermal atmospheric pressure plasmas, and computational modeling of polymeric systems. Key topics include photoionization effects, lipid bilayer oxidation, and hydrogen peroxide solubility in water. Recent work emphasizes plasma applications for medical and environmental solutions. Bagheri has contributed to 15+ peer-reviewed articles (2016–2025), including studies on plasma dynamics, molecular interactions, and plasma-liquid interfaces. She actively organizes plasma-related conferences and teaches courses on Electrodynamics and Quantum Physics at TU/e. Her work aligns with UN Sustainable Development Goals related to health, clean water, and innovation. Collaborations include international teams studying plasma chemistry and biomedical applications.

• Multiscale Modeling
• Plasma Physics
• Computational Quantum Chemistry
• +4 more

Yasin Ekinci is Head of the Laboratory for X-ray Nanoscience and Technologies at Paul Scherrer Institute (PSI), leading 6 research groups with approximately 70 scientists. He oversees three synchrotron beamlines at SLS and an X-ray free-electron laser beamline at SwissFEL. His research spans EUV lithography, nanoscale patterning, metrology, and nanofluidics, with strong industrial collaborations in semiconductor manufacturing. Education includes a BSc in Physics (Middle East Technical University), MSc in Engineering Sciences (University of De Montfort), and PhD from Max-Planck Institute. Research focuses on developing world-record resolution photolithography (6nm half-pitch) and novel nanofluidic devices for biomedical applications. Recent work advances ultra-high-resolution lithography techniques and materials, with publications demonstrating innovations in resist chemistry, mask inspection, and nanoscale patterning. Research domains include materials science, optical engineering, and semiconductor physics. Awards include the Young Investigator Award (2009) and SPIE Fellowship. Manages an 8M CHF annual budget, supervises MSc/PhD students, and serves on editorial boards and conference committees.

• Nanoscience
• EUV Lithography
• Metrology
• +4 more

Theresa Windus is a Distinguished Professor and Department Chair at Iowa State University's Department of Chemistry. She leads the Windus Group, which develops computational models to solve environmental and energy challenges, with research focusing on high-performance computing, software interoperability, heavy metal systems, and quantum chemistry methods. Her group specializes in massively parallel algorithms for state-of-the-art computational resources. Her research spans multiple disciplines including: Scalable ab initio Monte Carlo methods GPU implementations of quantum integrals Exascale computing development (NWChemEx project) Rare earth element extraction Aerosol nucleation modeling Her recent publications explore computational chemistry software sustainability, GPU-accelerated quantum chemistry, nanopore modeling, and rare earth element extraction. She has mentored numerous graduate students including Alex, Erin, Daniel Turley, and Zach who received prestigious scholarships.

• High Performance Computing
• Computational Chemistry
• Software Interoperability
• +3 more

David Binks is a Professor in the Photon Physics Group at The University of Manchester, part of the Photon Science Institute (PSI). He leads the 'Photonics Materials and Devices' theme within PSI, aligned with the Henry Royce Institute's 'Atoms to Devices' strand. His work focuses on quantum-structured semiconductors, including quantum dots, GaN quantum wells, and 2D materials. He has published over 100 journal articles and contributed to books on photorefractive polymers and laser technology. Education: PhD in Physics (1998, University of Manchester), BSc (Hons) in Physics (1992, University of Manchester). Collaborations: Advanced Photonics Research Institute (South Korea), University of Cambridge, Nanoco Technologies, University of Salford, and University of Leeds. Research Interests: Photophysics of nanostructures, solar cells, LEDs, and quantum materials. His work aligns with UN SDGs related to sustainable energy and innovation. Supervision: 18 PhD and 11 MSc students completed, currently supervising 2 PhD students on nanoparticle photophysics and 2D materials. His research explores light-matter interactions for device applications, combining physics with chemistry/materials science. Recent projects include cubic GaN quantum wells for high-brightness LEDs and spin-photon interfaces in quantum dots. Labs/Teams: Leads the Photon Physics Group and contributes to the Henry Royce Institute's materials innovation initiatives.

• Quantum Physics
• Semiconductor Materials
• Nanoparticle Research
• +5 more

Dr. Nick Clark is a Researcher in the Condensed Matter Physics Group at the University of Manchester , focusing on advanced nanofabrication and computational data analysis for 2D materials. His work bridges solid-state physics with machine learning, particularly through the National Graphene Institute. Expertise: Complex nanofabrication, 2D material membranes, electron microscopy (TEM/STEM), optical/electronic characterization Techniques: In-situ imaging, deep learning data analysis, multidimensional dataset processing Current research explores van der Waals heterostructures , ferroelectric 2D interfaces , and liquid-phase atomic dynamics . Recent publications address stability of metal-organic frameworks, twist domain imaging, and metallized silicon nitride membranes for clean assembly. His work contributes to UN Sustainable Development Goals through 2D material innovation.

• Solid-state Physics
• Nanofabrication
• Two-dimensional Materials
• +9 more

Lambert Theisen is a PhD student and Researcher at RWTH Aachen University's Applied and Computational Mathematics (ACoM) department. He holds a BSc (2014–2018) and MSc (2018–2019) in Computational Engineering Science from RWTH Aachen. His research focuses on PDE eigenvalue problems, asymptotic analysis, directional homogenization, and numerical methods for rarefied gas dynamics. He has held research roles at RWTH Aachen, the University of Stuttgart's NMH/IANS, and ABB Corporate Research. His research spans computational fluid dynamics, domain decomposition methods, and preconditioning techniques for eigenvalue algorithms. Notable contributions include finite element solvers for electrolyte models and FEniCS-based simulations of rarefied gas flows. His work often integrates advanced mathematical frameworks with high-performance computing. Teaching roles include assistantships for courses like 'Mathematical Aspects in Computational Chemistry' and 'Higher Mathematics for Engineers.' His publications are tracked via ORCid and emphasize scalable eigensolvers, mesh generation, and tensorial methods. He maintains a personal website at thsn.dev for research updates.

• Partial Differential Equations (PDEs)
• Numerical Analysis
• Computational Fluid Dynamics
• +5 more

Lixin Lu is a Researcher (Postdoctoral Scholar) in the Department of Chemistry at Stanford University, affiliated with the School of Humanities and Sciences. Their work focuses on theoretical and computational chemistry, particularly in developing advanced electronic structure methods and applying them to study molecular dynamics, spectroscopy, and materials science. They are part of affiliated programs including CMAD (Center for Molecular Analysis and Design), ChEM-H (Chemistry, Engineering & Medicine for Human Health), and SSRL (Stanford Synchrotron Radiation Lightsource). Research interests include relativistic quantum chemistry, X-ray spectroscopy, ultrafast phenomena, and computational modeling of molecular systems. Their contributions span multiconfiguration methods, ab initio dynamics, and the analysis of radiation effects in materials. Theoretical frameworks developed by Lu address challenges in high-performance computing and accurate description of molecular excitations. Affiliations with SSRL and ChEM-H highlight collaborative efforts in experimental-theoretical interfaces, such as attosecond X-ray spectroscopy and liquid-phase dynamics. Lu’s work bridges computational innovation with cutting-edge experimental techniques to uncover fundamental insights into chemical and physical processes at the molecular level.

• Theoretical Chemistry
• Computational Chemistry
• Quantum Chemistry
• +3 more

Dr. Allan L.L. East is a Professor in the Department of Chemistry and Biochemistry at the University of Regina, Canada. He holds a B.Sc.(Hons) from Brock University (1989) and a Ph.D. from Stanford University (1994). His postdoctoral work included research at the Australian National University, National Research Council, and University of Akron. His research focuses on computational and theoretical chemistry, particularly in ionic liquids, acid catalysis, and conductivity mechanisms. He leads the Regina Computational Chemistry Laboratory, addressing challenges in molecular dynamics simulations, reaction mechanisms, and material science applications. Education: B.Sc.(Hons) 1989, Brock University (Stuart Rothstein) Ph.D. 1994, Stanford University (Wesley Allen) Research Interests: Computational Chemistry, Physical Chemistry, Quantum Chemistry, Ionic Liquids, Reaction Mechanisms, Acid Catalysis, Molecular Dynamics His research group has made breakthroughs in understanding conductivity maxima in molten salts, ion pairing in protic ionic liquids, and acid-catalyzed reactions. Courses taught include Computational Chemistry (CHEM 461), Physical Chemistry (CHEM 250/251), and advanced topics like Ionic Solutions (CHEM 857AH). Dr. East’s work bridges theoretical predictions with experimental insights, particularly in environmental and energy-related chemistry. His laboratory develops novel computational methods for predicting molecular behavior in complex environments, such as solvation effects and ion transport dynamics. Collaborations include studies on CO₂ capture and fuel cell technologies. The lab emphasizes practical applications of theoretical models to real-world chemical challenges, including industrial catalysis and material design.

• Computational Chemistry
• Physical Chemistry
• Quantum Chemistry
• +7 more