Prof. Ralph Claessen is the Head of Chair for Experimental Physics IV at the University of Würzburg, Germany. His research focuses on experimental condensed matter physics, with expertise in electronic structure analysis of complex solids, surfaces, and interfaces. He leads a team investigating topological and strongly correlated quantum materials, epitaxial thin film growth, and advanced spectroscopic techniques like synchrotron-based electron and x-ray spectroscopy. His group explores phenomena such as spin-charge separation in quasi-one-dimensional conductors, topological edge states, and the interfacial properties of oxide heterostructures. Recent work includes developing momentum microscopy techniques at synchrotron facilities, studying graphene-intercalated quantum spin Hall systems, and advancing epitaxial growth methods for novel 2D materials. Key research directions include stabilizing high-temperature quantum spin Hall insulators, understanding chirality in kagome metals, and characterizing atomic-scale structures of nanowires. Claessen’s lab collaborates on cutting-edge instrumentation, such as hybrid photoelectron momentum microscopes, to probe electronic properties with unprecedented spatial and momentum resolution. His team also investigates memristive effects in oxide heterostructures and the electronic response of materials under extreme conditions. Ongoing projects aim to bridge theory and experiment through advanced spectroscopic and microscopy techniques, targeting applications in quantum computing and spintronics.
Professor Yiu-Wing Mai is a University Chair and Professor of Mechanical Engineering at The University of Sydney, affiliated with the School of Aerospace, Mechanical and Mechatronic Engineering. He is a globally recognized authority in fracture mechanics and advanced materials science, with contributions spanning four decades. His research focuses on nanocomposites, electromagnetic materials, and fracture mechanics models for composites and ceramics. Mai has pioneered methods for strengthening and toughening materials, including the crack-wake bridging model and essential work of fracture framework. His academic distinctions include Fellowships from the Royal Society, Australian Academy of Science, and Chinese Academy of Engineering. He has received prestigious awards such as the AA Griffith Medal (2016), AGM Michell Medal (2016), and ICCM21 Scala Award (2017). Mai’s work has practical applications in industries like green manufacturing and battery technology. Research interests include polymer nanocomposites, multifunctional materials (e.g., fire-retardant composites), and energy storage systems. His recent studies emphasize nanotechnology-driven advancements in Li-ion batteries and thermal management materials. Mai has authored over 500 publications and holds honorary professorships at institutions worldwide.
S.V. Sreenivasan is a Professor and holds the Cockrell Family Regents Endowed Chair #7 in Engineering at The University of Texas at Austin. He is a leading nanotechnologist specializing in high-throughput nanofabrication techniques for electronics, displays, and healthcare applications. As the Director of the NSF-funded NASCENT Center, he leads interdisciplinary research in nanomanufacturing systems. He co-founded Molecular Imprints Inc. and currently serves as Chief Technologist at Canon Nanotechnologies, Inc. His research focuses on scalable nanotechnologies, including molecular imprint lithography, metal-assisted chemical etching, and advanced 3D integrated circuits. He has authored over 130 papers and holds 100+ patents. His work emphasizes bridging academic innovation with industrial applications, particularly in semiconductor manufacturing and nanoelectronics. Dr. Sreenivasan has received prestigious awards such as the ASME Leonardo da Vinci Award (2009), TAMEST O'Donnell Award (2010), and election to the National Academy of Engineering (2021). He is a Fellow of the National Academy of Inventors (2016) and ASME (2020). His research groups develop novel fabrication methods like nanoshape imprint lithography and precision inkjet printing systems. Collaborations include Magic Leap and Canon, focusing on next-gen displays and semiconductor tools. He advocates for accessible nanotechnology through portable fabrication platforms.
Ibrahima Bah is an Associate Professor in the Department of Physics & Astronomy at Johns Hopkins University (JHU), affiliated with the Krieger School of Arts and Sciences. His research focuses on theoretical high-energy physics, cosmology, and string theory, particularly exploring holography and the interplay between quantum field theories, gravity, and black holes. He joined JHU in 2017 after completing a PhD at the University of Michigan (2012), followed by postdoctoral positions at the University of Southern California, the Institut de Physique Théorique in France, and the University of California, San Diego. Education: PhD in Physics & Astronomy, University of Michigan, Ann Arbor (2012) Bachelor's/Master's degrees (not explicitly stated in text) His research interests include supergravity, non-invertible symmetries, brane dynamics, and the geometric resolution of black hole singularities. He actively investigates quantum gravity via holographic duals of superconformal field theories (SCFTs) and the role of black holes in fundamental physics. Recent articles highlight work on higher condensation defects, geometric resolutions of Schwarzschild horizons, and non-BPS bubbling geometries. His contributions bridge string theory and gravitational phenomena, with implications for understanding quantum entanglement and spacetime structure. Bah has no listed advising grants or scientific awards in the provided texts. His work often involves collaborations on AdS/CFT correspondence and M5-brane configurations, contributing to the broader field of physical mathematics.
Professor Clare Peddie is a distinguished academic in the School of Biology at the University of St Andrews, with dual expertise in Marine Biology and cancer/physiological research. She holds a Professorial appointment and contributes to both teaching and research initiatives focusing on diving physiology, scientific diving methodologies, and the pedagogical value of fieldwork experiences. Her work emphasizes employability development through leadership training in fieldwork contexts. Her research spans marine ecology (particularly coral reef dynamics and benthic structure interactions) and medical physiology (including myelodysplastic syndromes and radiation-induced carcinogenesis). She has collaborated internationally on projects addressing educational internationalisation and interdisciplinary marine conservation efforts. Professor Peddie has authored/co-authored over 13 peer-reviewed publications across marine science, oncology, and educational policy. Her recent work explores coral trait plasticity and niche construction mechanisms, while earlier studies investigated cellular responses to radiation and genetic abnormalities in cancer models. She actively participates in academic leadership roles, including conference organisation and external examining.
Magnus O. Borgh is an Associate Professor in Physics at the University of East Anglia's School of Engineering, Mathematics and Physics. He is a member of the Centre for Photonics and Quantum Science and Quantum Matter, focusing on theoretical and computational physics in ultracold atoms, quantum optics, and topological phenomena in Bose-Einstein condensates. PhD in Physics, Lund University, Sweden Swedish Research Council Postdoctoral Stipend, University of Cambridge Leverhulme Early Career Fellowship, University of Southampton EPSRC Postdoctoral Fellowship, University of Southampton His research explores quantum fluids , particularly topological objects like vortices and defects in spinor Bose-Einstein condensates, and light-matter interactions at atomic scales. Recent projects include predicting 'superatom' behavior in cooperative light scattering, detecting phonon dynamics via photon responses, and describing spin-Alice rings with parallels to quantum-field theory. Key trends in his publications highlight topological defect structures (monopoles, Alice rings, vortices), quantum phase transitions , and non-Abelian symmetries in spinor systems. He investigates how discrete and continuous symmetries influence defect dynamics and applies theoretical models to experimental scenarios, often collaborating internationally. Swedish Research Council Postdoctoral Stipend Leverhulme Early Career Fellowship EPSRC Postdoctoral Fellowship Collaborative grants with institutions like University of Cambridge and University of Southampton Borgh supervises research projects and advises self-funded PhD candidates. He participates in school engagement lectures (e.g., Quantum Mechanics and Entanglement, 2023) and serves as an external examiner at Newcastle University. His work resides in the Centre for Photonics and Quantum Science , integrating computational methods with experimental collaborations.
Steven Yukl, MD is a Physician Scientist at the University of California, San Francisco (UCSF) and the San Francisco VA. His research focuses on understanding mechanisms of HIV latency and SARS-CoV-2 transcriptional regulation. He has conducted studies since 2005 on viral reservoirs, tissue-specific HIV persistence, and immune interactions. His work includes translational research on latency-reversing agents and antiretroviral therapy optimization. Education: MD from University of Michigan (2000), B.S. in Chemistry from Stanford University (1995). Residency in Internal Medicine/Pediatrics (Duke University, 2004) and Infectious Diseases Fellowship (UCSF, 2008). Research interests include HIV reservoir quantification, viral transcription dynamics, and host-pathogen interactions. His recent studies explore SARS-CoV-2 subgenomic RNA mechanisms and their impact on pathogenesis. Collaborations involve advanced transcriptomic and genomic approaches to dissect viral persistence and immune responses. Key contributions include developing novel assays to measure HIV transcription profiles and analyzing tissue-specific differences in viral latency. His work bridges basic science and clinical applications in HIV cure strategies.
Professor Adi Armoni is a theoretical physicist at the University of Swansea, holding a Personal Chair in Physics. He is affiliated with the Department of Physics within the School of Biosciences, Geography and Physics, part of the Faculty of Science and Engineering. His research focuses on the intersection of gauge field theories and string theory, particularly three-dimensional Quantum Chromodynamics (QCD3) and its realizations through string theory frameworks like brane configurations and holography. Key research areas include string theory, quantum field theory, and the application of holographic principles to understand QCD phenomena. He has been recognized with the PPARC senior fellow award, highlighting his contributions to theoretical physics. His work spans over two decades, with notable publications in high-impact journals such as Journal of High Energy Physics and Physical Review Letters . Professor Armoni's research explores advanced topics like dualities in 3D field theories, S-duality applications, and the vacuum structure of large-N QCD3 using holographic methods. He actively supervises PhD students in areas such as domain walls in QCD3 and gravitational wave cosmology. Awards: PPARC senior fellow award Supervision: Ongoing PhD projects on domain walls, dualities in field theories, and holography
Evelyne Knapp is a Researcher at the ZHAW School of Engineering, Zurich University of Applied Sciences, within the Organic Electronics & Photovoltaics research focus area. Her work centers on advanced materials science, semiconductor physics, and machine learning applications in energy systems. She has led major projects such as 'Uncertainty quantification in ML Prediction for PV Quality Assurance' and contributed to innovations in perovskite solar cell optimization, organic semiconductor characterization, and device simulation models. Her research interests span photovoltaic technologies, charge transport phenomena, and optoelectronic device development. Key areas include: Perovskite solar cell performance analysis and degradation mechanisms Machine learning-driven parameter extraction for semiconductor materials Electro-thermal modeling of organic light-emitting devices Frequency-domain analysis of large-area solar cells Knapp's publications (over 30 peer-reviewed articles) demonstrate expertise in device simulation, material characterization, and interdisciplinary approaches merging computational methods with experimental data. Recent work highlights include: Advancing ML techniques to identify limiting parameters in perovskite solar cells Developing inverse models for solar cell parameter estimation Quantifying charge transport dynamics in organic semiconductors Her contributions have been presented at leading conferences including the IEEE Photovoltaic Specialists Conference and the Society for Information Display Symposium.
Dr. Srikanthan Ramesh serves as an Assistant Professor in the School of Industrial Engineering and Management within Oklahoma State University's College of Engineering, Architecture and Technology. Since establishing the Advanced Materials and Additive Manufacturing Laboratory in August 2022, he has led interdisciplinary research at the intersection of materials science, physical phenomena, and advanced manufacturing technologies, with applications spanning healthcare, aerospace, and electronics sectors. His educational foundation includes a Ph.D. in Mechanical and Industrial Engineering from Rochester Institute of Technology (2022) and an M.S. in Industrial and Manufacturing Systems Engineering from Iowa State University (2017). This academic background enables his innovative approach to manufacturing science. Dr. Ramesh's research program focuses on biological and micro-scale additive manufacturing (bio-AM), specializing in biomaterial development for tissue engineering and regenerative medicine. His work integrates computational fluid dynamics, machine learning, and real-time process monitoring to achieve precise control over mechanical, biological, and electrical properties of manufactured structures. He develops experimental tools and process frameworks for droplet-based and extrusion-based AM systems, with particular emphasis on wound healing applications and space-compatible microelectronics. Analysis of his 14 publications from 2020-2025 reveals a strong trajectory toward AI-driven manufacturing solutions, with increasing emphasis on multi-objective Bayesian optimization for bioink design, aerosol jet printing process refinement, and bioprinted tissue construct development. His recent work demonstrates sophisticated integration of machine learning with physical manufacturing processes to solve complex biomedical challenges. His scientific recognition includes: Doctoral Dissertation Pitch Competition (Runner-up), IISE, 2021 Best Oral Presentation, Graduate Showcase, Rochester Institute of Technology, 2019 Gilbreth Memorial Fellowship, IISE, 2018-2019 Wakonse College Teaching Fellowship, Iowa State University, 2018-2019 Graduate Research Excellence Award, Iowa State University, 2017 Best Overall Oral Presentation, Nano@IAstate, Iowa State University, 2017 Dr. Ramesh currently leads significant research initiatives including as Principal Investigator for an NSF REU Site on Additive Manufacturing and Cybersecurity ($464,606, 2025-2028) and a NASA EPSCoR Travel Grant for aerosol jet printing in space missions (2024-2025). As Co-PI on an NSF grant for Privacy-aware Collaborative Design in additive biofabrication ($599,981, 2025-2028), he develops frameworks for mass personalization in medical applications while addressing data security challenges. These projects support his lab's mission to advance manufacturing science through rigorous experimentation and computational innovation. The Advanced Materials and Additive Manufacturing Laboratory operates as a collaborative hub where Dr. Ramesh directs research teams in developing novel biomaterials, optimizing printing processes, and creating functional prototypes for wound dressings, liver tissue models, and space-rated microelectronics. The lab's interdisciplinary approach combines expertise in materials characterization, computational modeling, and machine learning to push the boundaries of what's possible in additive manufacturing for critical applications.
Tarik Yefsah is a Researcher at the Physics department of École Normale Supérieure, affiliated with the Kastler Brossel Laboratory. His research focuses on quantum simulation, quantum gases, and many-body physics. He contributes to advancements in ultracold fermi gases and precision measurements in quantum systems. His work includes experimental and theoretical studies of correlated quantum systems, with a particular emphasis on imaging techniques and understanding collective phenomena in cold atom systems. Yefsah leads the Ultracold Fermi Gases Lab, exploring topics such as quantum correlations, superfluidity, and topological phases in ultracold matter. Recent research highlights include quantum gas microscopy of fermionic systems, in situ imaging of single-atom wave packets, and investigations into many-body localization transitions. His studies bridge fundamental physics with potential applications in quantum technologies and analog quantum simulation platforms.
Radu Grosu is a Professor at Technische Universität Wien (TU Wien), leading the Forschungsbereich Cyber-Physical Systems . His research focuses on Cyber-Physical Systems (CPS), Machine Learning, and autonomous robotics, with notable contributions to neural network architectures like Liquid Time-Constant Networks (LTC) and their applications in robotics and medical imaging. He is affiliated with the Network Lab and has supervised numerous PhD and Master's students, including Sebastian Michael Bittner, Daniel Scheuchenstuhl, and Sophie Neubauer. His work spans topics such as reinforcement learning, autonomous driving, and IoT ecosystems. Recent projects include developing robust AI systems for healthcare and robotics, such as tumor delineation using PET imaging and neuromorphic IoT architectures for smart villages. Grosu has published extensively on CPS, with over 146 contributions across peer-reviewed journals and conferences. His research emphasizes bridging theory and practice, addressing challenges in safety, scalability, and real-time control in autonomous systems. Key research interests include robotic perception, neural network robustness, and CPS/IoT integration. He has pioneered methods like DeepSTL for translating temporal logic requirements into neural network training objectives and developed frameworks like NimbleAI for neuromorphic sensing-processing systems. His team also explores distributed control algorithms for multi-agent systems, such as flocking drones and formation control using relative distance measurements. Recent work examines the generalization properties of deep filters in CNNs and quantum-classical reinforcement learning models for game AI. Grosu has advised over 20 students on topics ranging from deep learning in wafer defect analysis to bio-inspired neural circuits for auditable autonomy. His lab collaborates on interdisciplinary projects, such as applying AI to battery health estimation and prostate cancer diagnostics. He actively contributes to academic communities, editing special issues on AI in healthcare and CPS resilience, and has organized summer schools on CPS and IoT systems.
LLewelyn Roderick is a full professor at the Department of Cardiovascular Sciences , Faculty of Medicine, KU Leuven. He leads the Experimental Cardiology unit and contributes to doctoral committees and faculty governance. Research focuses on calcium signaling microdomains, epigenetic regulation of cardiac growth, and arrhythmogenesis mechanisms. Projects include studies on obesity-induced cardiomyocyte dysfunction, hypoxia sensitivity in cardiac cells, and DNA methylation in aging hearts. Current initiatives investigate connexin-43 hemichannels, neutrophil extracellular traps, and 3D cardiac models for drug discovery. His work spans fundamental cardiovascular biology and translational approaches, including collaborations on immune-monitoring technologies and cardiac progenitor cell metabolism. Teaching contributions include advanced courses on epigenetics and cardiovascular biology.
Petros Rakitzis is a Professor in the Department of Physics at the University of Crete and affiliated with the Foundation for Research and Technology - Hellas (FORTH) at the Institute of Electronic Structure and Laser (IESL). He received his B.A. in Physics and Chemistry from Cornell University (1992) and his Ph.D. in Physics from Stanford University (1997), focusing on atomic and molecular angular momentum in chemical reactions. Since 2001, he has progressed from Lecturer to Professor, securing the prestigious ERC Starting Grant in 2008. His research spans quantum angular momentum, spin polarization, photodissociation dynamics, and cavity-enhanced spectroscopy. Education: B.A. in Physics and Chemistry, Cornell University (1992); Ph.D. in Physics, Stanford University (1997) Rakitzis's work explores spin manipulation in particle beams, polarization phenomena in spectroscopy, and chirality sensing using parity-time-symmetric systems. His research has applications in nuclear fusion, laser-plasma acceleration, and quantum metrology. He leads the PREFER collaboration, focusing on polarization research for fusion experiments and reactors, and has developed techniques like signal-reversing cavity ring-down polarimetry for precision measurements. His recent publications highlight trends in spin-polarized hydrogen production, cavity-based chiral sensing, and parity nonconservation studies. These works intersect atomic physics, quantum optics, and nuclear fusion, with methodologies involving laser excitation, relativistic plasmas, and advanced spectroscopic techniques. Scientific Awards: ERC Starting Grant (2008) Rakitzis has contributed to experimental techniques and theoretical frameworks in spin polarization and photodissociation, securing grants and advancing polarized beam applications. His research impacts fusion energy, quantum sensing, and fundamental symmetry studies.
Professor James Durrant at Swansea University's School of Engineering and Applied Sciences is a leading expert in Materials Science and Engineering . Based at the SPECIFIC research center and collaborating with his team at Imperial College London, he spearheads the £7 million ‘Sêr Solar’ initiative focused on low-cost, large-area photovoltaic technologies . His work bridges fundamental research in organic solar cells and perovskite systems with industrial applications in the printed solar manufacturing sector. His research interests span the Charge carrier dynamics Stability mechanisms in solar cells Nonfullerene acceptor design Perovskite crystallinity control Interface engineering Environmental degradation pathways with a strong emphasis on translating scientific insights into scalable, sustainable solutions. Analysis of his recent publications reveals a focus on Nonfullerene organic photovoltaics Perovskite defect passivation Charge separation in low-driving-force systems Transparent solar technology Catalytic heterostructures Photostability under operational stress His work consistently addresses efficiency-stability trade-offs in emerging solar technologies. Professor Durrant supervises postgraduate research and has contributed to EngD and PhD programs , including projects on perovskite circular economy and organic photovoltaic scalability . His lab at Swansea's Bay Campus (Engineering East, A202) specializes in advanced photovoltaic characterization and development.
