Professor Denis Doorly is a Professor of Fluid Mechanics in the Department of Aeronautics at Imperial College London's Faculty of Engineering. His research focuses on biomedical fluid mechanics, particularly respiratory and cardiovascular systems, with expertise in computational fluid dynamics (CFD) and aerosol transport. He has published extensively on nasal airflow modeling, cardiovascular MRI simulations, and aerosol dynamics in medical contexts. Key contributions include CFD cohort studies on nasal decongestion effects, benchmarking models for SARS-CoV-2 transmission, and ventilator strategies during the pandemic. Research interests span biological fluid mechanics, biomedical flows, and medical device design. His work integrates computational modeling with clinical applications, addressing issues like tracheal compression, myocardial perfusion, and aerosol extraction during surgeries. Collaborations include studies on isolated heart models and particle deposition in respiratory systems. Affiliations include the Biological Fluid Mechanics and Biomedical Flows groups at Imperial. His publications (139+ articles) highlight interdisciplinary applications of fluid mechanics to healthcare challenges.
Dr. Bin Zhu is a Research Fellow in the School of Mechanical Engineering Sciences at the University of Surrey, affiliated with the Centre for Engineering Materials. He obtained his PhD from the same institution, focusing on multiscale residual stress evaluation and mechanical property characterization using microscopy and large-scale facilities. His research develops techniques for harsh environments to enhance material longevity by managing manufacturing-induced residual stress, with applications in nuclear fusion components. Education PhD, University of Surrey (Research focus: Multiscale residual stress evaluation and mechanical property characterization) Research Focus Dr. Zhu's research centers on three interconnected areas: 1) Multiscale residual stress evaluation using advanced techniques like plasma-focused ion beam and neutron diffraction; 2) In situ mechanical testing under extreme conditions; and 3) Computational modeling for predicting stress distributions and material behavior. His work primarily addresses nuclear fusion reactor challenges, particularly laser-welded Eurofer97 steel components, where residual stress critically impacts structural integrity. Publication Trends Dr. Zhu's recent publications (2021-2025) demonstrate three key themes: 1) Advanced residual stress analysis in nuclear materials using machine learning, neutron imaging, and synchrotron techniques; 2) High-temperature mechanical performance of welded joints for fusion reactors; and 3) Biomimetic material characterization, including bioinspired composites and biological light-diffraction mechanisms. His methodologies consistently integrate multiscale experimental approaches with computational modeling.
Professor Robert Eason is a leading academic at the University of Southampton, specializing in photonics and laser technology. His research spans interdisciplinary areas combining Machine Learning , Medical Diagnostics , and Microfluidics . Research Interests : Eason focuses on AI-driven laser applications, including deep learning for phototherapy , autonomous laser machining , and low-cost paper-based diagnostic devices . His work bridges photonics with biomedicine and advanced manufacturing. Recent Publications : His 2025 article in Scientific Reports explores AI simulations for psoriasis treatment, while 2024-2022 works address laser-controlled microfluidics, deep learning in microscopy, and reinforcement learning for laser machining. Supervision : He supervises PhD student Georgia Mourkioti in laser-based research projects. External Roles : Eason has served as a speaker at international conferences including the International Symposium on Laser Precision Microfabrication (2018), LAISER (2019), and Deep Learning for Control of Light-Matter Interactions (2022).
Dr. Morten Ibsen serves as an Associate Professor at the University of Southampton's Optoelectronics Research Centre (ORC), a world-leading institution in photonics research. His academic profile demonstrates extensive involvement in cutting-edge optical technologies with significant contributions to fiber optics and laser systems. Dr. Ibsen's research focuses on advanced optical sensing technologies, particularly in fiber Bragg gratings, bi-doped fiber lasers, and optical refractometers. His work spans applications from environmental monitoring (heavy metal detection) to high-speed explosives diagnostics and navigation systems. The research demonstrates exceptional versatility across fundamental photonics and practical engineering applications. His publication record from 2018-2020 reveals consistent high-impact output in top photonics journals, with recurring themes in fiber laser development, optical sensor optimization, and novel measurement techniques. The research shows strong international collaboration patterns with institutions across Europe and Asia. Dr. Ibsen actively supervises PhD candidates including Robin Elliott and Sergei Shevtsov within the ORC's doctoral program. His research projects have attracted substantial funding from major organizations including the Royal Society, EPSRC, and the European Union's FP7 program. As a core member of the Fibre Bragg Gratings and Smart Lasers research groups, he contributes to the ORC's reputation as a global leader in photonics innovation. His experimental work bridges theoretical optics with practical engineering solutions for real-world sensing challenges.
William Wadsworth is Professor of Physics at the University of Bath, affiliated with the Centre for Photonics and Photonic Materials. His research focuses on photonic crystal fibres (PCFs) and hollow-core fibre technologies, with applications spanning quantum information, medical imaging, and fundamental metrology. Research Expertise Professor Wadsworth designs and fabricates microstructured optical fibres enabling unprecedented light control. His work centers on: Development of hollow-core anti-resonant fibres for deep ultraviolet guidance Supercontinuum generation across UV-to-infrared spectra Medical applications including UV light therapies and malaria diagnostics Quantum optical systems using alkali-metal vapours in fibres Research Impact His recent publications (2024-2025) demonstrate cutting-edge advances in hollow-core fibre technology for deep-UV applications and medical diagnostics. Key trends include resonance-free supercontinuum generation, integration of AI with photonics for malaria detection, and novel fibre designs enabling quantum applications. These innovations directly support UN Sustainable Development Goals in health and clean energy. Grants and Supervision Professor Wadsworth leads 24 research projects including: U-Care (2021-2026): Deep Ultraviolet Light Therapies (EPSRC) International Collaboration Awards (2020-2023): Clean Air (Royal Society) Plasmon-Enhanced Alkali-metal Vapours (2017): Quantum optical applications He has supervised 18 doctoral students and currently accepts new PhD candidates in photonics and fibre optics. Research Environment As core faculty in Bath's Centre for Photonics and Photonic Materials, he collaborates internationally with institutions in quantum optics, air pollution analysis, and medical instrumentation, maintaining active partnerships across Europe and Asia.
Prof. Julia Herzen holds the Associate Professorship of Physics in Biomedical Imaging at the Department of Physics , TUM School of Natural Sciences , Technical University of Munich . Her research focuses on advancing X-ray imaging techniques using synchrotron radiation and laboratory sources, with applications in medical diagnostics and tissue analysis. Position: Associate Professor Department: Physics School: TUM School of Natural Sciences University: Technical University of Munich Contact: julia.herzen@tum.de Her core research interests include: Quantitative multi-modal X-ray imaging (spectral & phase-contrast) 3D virtual histology of human tissue Breast cancer detection improvement Lung disease imaging (emphysema, pneumonia) X-ray phase-contrast tomography Dark-field imaging material decomposition Recent publications demonstrate expertise in dark-field imaging for lung pathology , phase-contrast CT for organoid visualization , and spectral X-ray applications in multi-material differentiation . Her team explores clinical translation of X-ray techniques for non-invasive diagnostics . She supervises PhD students and teaches Biomedical Engineering courses, including: Quantitative X-Ray Imaging (3 VI) Image Processing in Physics (2 VO) Biostatistics (2 VO) Advanced Lab Courses in X-ray Micro-CT
Tao Hou is an Assistant Professor in the Department of Computer Science at the University of Oregon, where he conducts research at the intersection of computational topology and machine learning. His academic journey includes a Ph.D. in Computer Science from Purdue University, a M.E. in Software Engineering from Tsinghua University, and a B.E. in Software Engineering from Beijing Institute of Technology. His research focuses on improving computational methods for topological data analysis, particularly through efficient algorithms for zigzag persistence and its applications across domains like neuroscience and materials science. Interdisciplinary applications in neuroscience (MICCAI 2024) and computational materials science (Comp. Mat. Sci. 2022) Developed open-source Python software packages for persistent cycle computation Contributed to advancements in zigzag persistence computational complexity Current research explores topological machine learning through projects like FastZigzag and LvlsetPersCyc . He teaches graduate courses on topological data analysis and algorithms theory, and actively seeks PhD students interested in combining mathematics with computer science.
Professor Bill O'Neill is a Fellow in Engineering at Downing College and holds the Professor of Laser Engineering position at the University of Cambridge. He leads the Centre of Industrial Photonics and focuses on cutting-edge laser-based manufacturing technologies. BSc (Essex) MSc (Essex) MA PhD (Imperial) His research spans high-power laser applications in materials processing, including aerospace alloys, medical alloys, ceramics, and polymers. He investigates ultra-short laser-matter interactions (femtosecond pulses) for thermal-free machining and nanofabrication techniques aimed at developing personal factory systems. Key projects include electron backscattered diffraction analysis (EBSD) validation of material responses and £10M UK research council-funded innovations. Publications highlight advancements in laser microstructuring, x-ray collimation, and cold gas dynamic spray technologies. His work trends toward precision manufacturing, materials science, and photonics applications. As head of the Centre of Industrial Photonics, O'Neill's team explores nanoparticle manipulation for on-demand fabrication of complex products, envisioning a future where desktop printers create micro/nano devices.
Tatiana Segura is a Professor of Biomedical Engineering, Neurology, and Dermatology at Duke University's Pratt School of Engineering, where she also serves as Co-director of the Center for Biotechnology and Tissue Engineering and MPI of the T32 Biotechnology Training grant. Her research focuses on designing biomaterials to promote endogenous repair through geometry design and delivery of genes, proteins, and drugs. She has made significant contributions to the development of microporous annealed particle (MAP) hydrogels and other biomaterial systems for tissue regeneration. B.S. in Bioengineering from University of California, Berkeley (1999) Ph.D. in Chemical Engineering from Northwestern University (2004) Professor Segura's research centers on biomaterials engineering for tissue repair and regeneration. Her lab designs innovative biomaterial interventions that promote brain plasticity after stroke, enable scarless healing in skin wounds, induce tolerance of transplanted skin, and promote constructive immune responses after biomaterial implantation. She pioneered the development of microporous annealed particle (MAP) hydrogels that have become widely adopted in regenerative medicine research. Her work uniquely bridges immunology, materials science, and clinical applications to create therapeutic biomaterials that harness the body's own healing capabilities. Her recent publications demonstrate a strong focus on spatial control of biomaterial properties, with emphasis on void space analysis, immune cell recruitment, and vascularization. The research shows a progression from fundamental biomaterial characterization to increasingly sophisticated therapeutic applications, particularly in stroke recovery and wound healing. Her work integrates proteomics, lipidomics, and advanced imaging to understand the molecular mechanisms underlying biomaterial-mediated tissue regeneration. Senior Member of the National Academy of Inventors (2023) Acta Biomaterialia Silver Medal (2021) Clemson Award for Contributions to Literature (2024) 15 d/e Plenary Award from AICHE Food, Pharmaceutical, and Bioengineering Division (2018) Fellow of the American Institute for Medical and Biological Engineers (2016) Professor Segura actively mentors the next generation of scientists, currently supervising 12 graduate students, 4 postdoctoral scholars, 2 master's students, 16 undergraduates, and other trainees. Her laboratory has been continuously funded since 2008 with multiple NIH grants, including her current role as MPI of the T32 Biotechnology Training grant. She has received substantial support from the NSF (including a CAREER award), American Heart Association, and American Society of Gene and Cell Therapy. Her Segura Lab operates as a multidisciplinary team comprising engineers, biologists, and clinicians working together to translate biomaterial discoveries into clinical applications. The lab's 'MAP' technology platform has enabled numerous collaborations across Duke and other institutions, focusing on brain repair after stroke, scarless skin healing, and immune-modulating biomaterials. The lab maintains strong industry partnerships to accelerate the translation of their biomaterial technologies into clinical use.
Dr. Neashan Mathavan is a Lecturer in the Department of Health Sciences and Technology at ETH Zürich, affiliated with the Institut für Biomechanik . His research focuses on musculoskeletal biomechanics, aging-related bone deterioration, and spatial omics approaches to study fracture healing and mechanoregulation. He has pioneered work on mouse models of premature aging (e.g., PolgA mice) to investigate sex-specific mechanisms of bone regeneration and frailty. Key areas include spatial transcriptomics, osteocyte function, and the role of mechanical loading in musculoskeletal repair. Dr. Mathavan’s research integrates advanced imaging techniques (e.g., spatial μProBe, super-resolution spatial transcriptomics) with biomechanical testing to elucidate molecular and structural changes in aging bones. His recent studies emphasize the interplay between mechanical signals and molecular pathways in bone regeneration, particularly in contexts like osteoporosis and osteoarthritis. He has also developed novel osteochondral explant models to study cartilage-bone crosstalk in osteoarthritis. His publications span 2009–2025, with a focus on translational studies linking mechanobiology to clinical outcomes. Notable contributions include investigating the efficacy of BMP-7 and zoledronate therapies in bone regeneration, as well as the role of IL-1β in osteochondral tissues. His work has implications for personalized therapies targeting musculoskeletal aging and degenerative diseases. Dr. Mathavan supervises PhD students like Riyin Tay, who explored palliative care for advanced dementia patients. He collaborates on grants involving biomechanical modeling, spatial omics, and transgenic mouse models. His laboratory at ETH Zürich’s Institut für Biomechanik is equipped for advanced imaging, mechanical testing, and molecular biology.
Nabil Bassim is an Associate Professor in the Department of Materials Science and Engineering at McMaster University and serves as Scientific Director of the Canadian Centre for Electron Microscopy (CCEM). His research focuses on advanced electron microscopy techniques, ion microscopy, nanofabrication, and beam-sample interactions, applied to nanomaterials, 2D materials, and structural materials like concrete and alloys. He holds a B.S. in Mechanical Engineering from the University of South Florida, and M.Sc. and Ph.D. degrees from the University of Florida. Research interests include: Development of novel electron/ion microscopy techniques Nanomaterial synthesis and characterization Beam-induced damage and doping mechanisms Structural materials analysis Machine learning optimization for microscale processes Recent publications demonstrate strong focus on semiconductor characterization, nanomaterials synthesis, and advanced microscopy techniques. Article trends highlight innovative approaches to nanoscale analysis, materials for energy applications, and correlative microscopy methods. As Faculty Lead for McMaster Engineering's Aerospace and Defense Initiative, Dr. Bassim coordinates interdisciplinary research. He co-founded the FIB-SEM User Meeting and teaches graduate courses in electron/ion microscopy characterization techniques.
Grey Clare is a Professor of Materials Chemistry at the University of Cambridge and holds an adjunct professorship at the State University of New York (SUNY) at Stony Brook. She is a Fellow of Pembroke College, Cambridge, and has led major research initiatives, including the Materials Research Interest Group at Cambridge (2010–2015) and the Northeastern Chemical Energy Storage Center (2009–2015). Her research focuses on NMR spectroscopy, energy storage materials, batteries, supercapacitors, and carbon capture technologies. Key contributions include pioneering work on lithium-ion battery electrodes, structural analysis of energy materials via NMR, and advancements in fuel cell and supercapacitor technologies. Clare has held leadership roles in academic and industrial collaborations, including directorships of DOE-funded energy storage centers. Her honors include the Davy Medal (2014), Fellowship of the Royal Society (2011), and multiple international awards for battery research and mentoring. Research Highlights: Development of advanced battery materials, in situ NMR techniques for energy systems, and structural insights into electrochemical interfaces. Awards: Over 20 prestigious awards, including the Royal Society Kavli Medal, Laukien Award, and multiple honorary PhDs. Leadership: Directed interdisciplinary energy storage initiatives, mentored numerous researchers, and contributed to global energy technology advancements.
Vanessa Wood is a Professor at ETH Zürich in the Department of Mechanical and Process Engineering. She specializes in understanding structure-performance relationships in complex, heterogeneous systems, particularly lithium ion batteries, using advanced imaging techniques like electron and x-ray microscopy to address performance limitations and guide material improvements. Research Interests: Investigating nanoscale structure and surface chemistry in battery materials Studying electrolyte infilling and lithium transport dynamics Developing computational methods for multiscale material analysis Integrating machine learning to overcome experimental challenges Designing volumetric imaging approaches for energy storage systems Research Affiliations: Affiliated with the Microstructure Physics and Alloy Design group and Interdepartmental & Partner Research Groups at ETH Zürich. Her work bridges experimental and computational disciplines to improve energy technologies.
Glaucio H. Paulino holds the Margareta Engman Augustine Professorship in Civil and Environmental Engineering at Princeton University, where he also serves as a Professor at the Princeton Institute for the Science and Technology of Materials (PRISM). His work bridges computational mechanics, topology optimization, and materials science. Paulino leads a research group focused on advancing structural design methodologies, fracture mechanics, and functionally graded materials. His team has pioneered polygonal finite elements and multiresolution topology optimization techniques, addressing challenges in mesh bias and computational efficiency. He has published over 240 peer-reviewed articles and mentored 19 PhD and 11 MS students. Notable contributions include the PPR cohesive model for fracture analysis and adaptive mesh refinement for dynamic simulations. Paulino's research extends to practical applications such as high-rise building design and sustainable construction materials. Awards include election to the European Academy of Sciences and Arts and ASME’s Melville Medal. Current projects involve functionally graded cement-based materials, extrusion processing, and digital image correlation for material characterization. His lab collaborates with industry partners like Skidmore, Owings & Merrill LLP to translate topology optimization into real-world engineering solutions. Paulino’s interdisciplinary approach integrates computational modeling with experimental validation, fostering innovations in civil infrastructure resilience.
Ethan A. Scott is a Research Assistant Professor in the Department of Mechanical and Aerospace Engineering at the University of Virginia. He holds a B.S. (2015) and Ph.D. (2021) in Mechanical and Aerospace Engineering from UVA, followed by a postdoctoral research associate position at Sandia National Laboratories. His research focuses on experimental techniques for analyzing heat and energy transfer in extreme material conditions, including micro- and nanoscale phenomena. He serves as Deputy Director of the EXSiTE Lab led by Professor Patrick Hopkins. Education: B.S., Mechanical Engineering, University of Virginia (2015) Ph.D., Mechanical and Aerospace Engineering, University of Virginia (2021) Postdoctoral Research Associate, Sandia National Laboratories (2021–2023) Research Interests: Ethan explores advanced thermal transport phenomena using electro- and optothermal methods. Key areas include micro/nanoscale heat transfer, microfabrication, and infrared thermal detection. His work addresses challenges in material size extremes (e.g., nanoscale thin films) and environmental extremes (e.g., high-energy ion irradiation effects). Publications: His recent work emphasizes thermal conductivity manipulation through ion irradiation, optothermal sensor development, and novel material characterization. Themes include defect engineering in crystalline systems and optimizing thin-film thermometry for high sensitivity. Awards: Editor’s Pick, Applied Physics Letters (2021) Nuclear Regulatory Commission Fellowship (2017) Labs & Teams: Deputy Director of the EXSiTE Lab, focusing on experimental studies of thermal and mechanical properties of materials under extreme conditions.
