Jemma Brown is an academic affiliated with King's College London, where she contributes to research in medical imaging and biomedical engineering. She holds a Master of Research in Medical Imaging (King's College London, 2016) and a Master of Physics from the University of Oxford (2015). Her work focuses on super-resolution ultrasound imaging, microbubble/nanodroplet contrast agents, and 3D printing for medical device validation. She has co-authored numerous peer-reviewed articles on topics such as immune ageing, post-COVID-19 recovery, and ultrasound imaging innovations. Her research aligns with UN Sustainable Development Goals related to health and well-being. Education: Master of Research (Medical Imaging), King's College London (2016); Master of Physics, University of Oxford (2015) Research Interests: Super-resolution imaging techniques, medical ultrasound advancements, microbubble dynamics, and translational medical technologies. Her recent work includes developing cardiac phantoms for interventional simulations and studying immune responses in severe COVID-19 cases. She collaborates widely, contributing to large-scale studies like the PHOSP-COVID cohort analysis.
Dr. Vassilis Sboros is an Associate Professor at Heriot-Watt University's School of Engineering & Physical Sciences and an Honorary Fellow at the University of Edinburgh. His research bridges physics, engineering, and life sciences, focusing on ultrasound imaging, microvascular flow dynamics, and microbubble mechanics. He leads projects on super-resolution ultrasound imaging for cancer detection and cardiovascular applications. **Education and Career**: He has held roles including BHF Intermediate Basic Science Research Fellow (2007–2011) and Research Fellowships at the University of Edinburgh (2003–2012). His work contributes to UN Sustainable Development Goals in health and innovation. **Research Interests**: Microvascular imaging biomarkers, ultrasound contrast agents, and in vivo preclinical imaging. His lab develops algorithms for super-resolution imaging and vascular-specific ultrasound techniques. **Awards**: BHF Intermediate Basic Science Research Fellowship (2007–2011). His work has produced over 100 publications, emphasizing medical imaging advancements and translational research.
Ruth Catharina de Lange Davies is Professor of Biophysics at the Norwegian University of Science and Technology. Her research specializes in ultrasound-mediated drug delivery systems, particularly nanoparticle transport mechanisms in tumors and advanced imaging techniques for real-time therapeutic monitoring. Core research domains: Ultrasound-enhanced drug delivery using microbubbles Acoustic Cluster Therapy (ACT) development Intravital multiphoton microscopy techniques Nanoparticle-tissue interactions Hydrogel transport dynamics Her recent publications demonstrate innovative approaches to overcoming biological barriers in drug delivery. Studies utilizing high-speed optical characterization reveal how microbubble composition affects ultrasound-triggered drug release, while intravital microscopy work visualizes real-time drug extravasation dynamics. Molecular dynamics simulations complement experimental findings on ultrasound-enhanced diffusion mechanisms. Davies' team investigates tumor-specific responses to ultrasound interventions, noting significant variations in vascular effects depending on tumor type and microbubble characteristics. This work informs precision applications of acoustic therapies in oncology.
Dr. Michael Gray is a Senior Research Fellow in Clinical Therapeutic Ultrasound at the University of Oxford's Institute of Biomedical Engineering. He leads the BUBBL group's Phase-1 clinical trial for ultrasound-mediated targeted drug delivery in liver cancer. Previously, he spent 23 years at Georgia Tech in roles such as research engineer and principal investigator, focusing on submarine sonar, cetacean tissue characterization, and non-destructive evaluation. His research spans three core areas: clinical trials of ultrasound drug delivery, cavitation monitoring for treatment guidance, and multi-modal devices for drug delivery using sound, magnetism, and light. **Research Groups**: Drug & Vaccine Delivery. Awards : 2024/25 MPLS Award for Outstanding Research Supervision Teaching : B17: Biomedical Fluid Mechanics Biomedical Ultrasound Coursework Module Labs/Teams : BUBBL Group (Biomedical Ultrasound and Bubble-based Therapies) Drug & Vaccine Delivery Research Group Advising/Grants : Dr. Gray has supervised multiple clinical trials and collaborative projects, including the Phase I TARDOX trial for thermosensitive liposome drug delivery. His work integrates engineering and medicine to advance non-invasive therapeutic solutions.
Sara Keller is a Research Fellow and Postdoctoral Research Assistant in the Department of Engineering Science. She holds a PhD in Bioengineering from the University of Washington (2021) and a BME from Vanderbilt University (2016). Her research focuses on ultrasound-guided therapies, particularly using microbubbles for targeted drug delivery and biofilm treatment. She joined the BUBBL group in 2021, specializing in cavitation activity analysis and medical acoustics. Her work spans biofilm disruption, cancer treatment monitoring, and preclinical safety studies in porcine models. Key contributions include developing acoustic devices for cell strain quantification and investigating nonlinear echoes from microbubbles. She collaborates on projects like intracranial hemodynamics modeling in sickle cell anemia and optimizing ultrasound-mediated drug delivery systems. Her recent articles emphasize therapeutic efficacy, safety protocols, and translational applications of ultrasound technologies. Research interests include advancing diagnostic tools through cavitation monitoring and enhancing drug penetration in solid tumors. Advising and grants: No formal advisees listed; current role focuses on postdoctoral research. Active in the BUBBL group for collaborative biomedical engineering projects.
Alberto Aliseda is the PACCAR Professor in Engineering and Department Chair of Mechanical Engineering at the University of Washington. His primary research focuses on fluid mechanics, particularly multiphase flows with applications in energy, environmental, and biomedical systems. He has pioneered experimental and computational studies on bubble dynamics, droplet atomization, and cardiovascular hemodynamics. His work bridges fundamental fluid mechanics with practical engineering challenges, such as improving flow diverting stents for aneurysms and optimizing marine energy converters. Education: Ph.D. in Mechanical Engineering, University of California, San Diego (2004) M.S. in Mechanical Engineering, University of California, San Diego (2000) B.S./M.S. in Aerospace Engineering, School of Aeronautics (ETSIA), Universidad Politécnica de Madrid (1998) Research Interests: Multiphase flow dynamics in turbulent environments Biomedical applications: cerebral aneurysms, cardiovascular stents, and microbubble imaging Environmental flows: gas-liquid interactions in oceans and clouds Energy systems: atomization in combustion and marine current turbines His lab employs advanced experimental techniques like PIV, LDA, and radiography, complemented by high-fidelity CFD modeling. Scientific Awards: US Geological Survey Director's Award (2010) NSF CAREER Award (2008) La Caixa Foundation Fellowship (1999-2001) Advising & Grants: Active grants focus on LVAD thrombogenicity, cerebral hemodynamics, and multiphase flow modeling Collaborations with industry and clinical partners on stent design and medical device optimization His research team has developed novel patient-specific models for aneurysm treatment and LVAD optimization. Labs & Teams: MEB 306 Multiphase & Cardiovascular Flow Lab Interdisciplinary projects with UW Medicine, Blue Origin, and Kennedy Space Center
Professor Terry Piva is a faculty member at RMIT University's School of Health & Biomedical Sciences, holding the rank of Professor since 2025. He has held previous roles including Associate Professor (2006–2024) and Senior Lecturer (2003–2005). His research focuses on cancer cell biology, signal transduction, nanotoxicology, and natural products, with over 80 peer-reviewed articles and 130 conference abstracts. Key projects include investigating cannabis extracts as anticancer agents, ultrasound-enhanced radiation therapy, and plant-derived compounds for eye health. Piva has received awards such as the 1994 Visiting Research Fellowship and the 1988 D.B. Duncan Memorial Training Fellowship. His research interests span UV radiation effects on skin cells, growth factor signaling in melanoma, FLASH radiation impacts, and nanoparticle toxicity. He has supervised numerous research projects, including studies on cannabinoid anticancer properties and lutein benefits in macular degeneration. Piva is also active in educational development, serving as a reviewer for Cell Biology textbooks and contributing to curriculum design. He holds editorial roles at journals like Frontiers in Cell and Developmental Biology and has assessed grants for bodies like the National Health and Medical Research Council. Awards highlight his contributions to biomedical research, including teaching accolades like the 2023 Vice-Chancellor’s Citation for Outstanding Contributions to Student Learning. His work bridges basic science and clinical applications, emphasizing translational research in oncology and therapeutics.
Dr. Antonios Pouliopoulos is a Lecturer in Therapeutic Ultrasound at King’s College London, affiliated with the School of Biomedical Engineering & Imaging Sciences and the Department of Surgical and Interventional Engineering. Prior to this role, he served as a postdoctoral research scientist and associate research scientist at Columbia University’s Ultrasound Elasticity Imaging Laboratory from 2017 to 2021. He holds a B.Sc. in Physics (2011) from Aristotle University of Thessaloniki, an M.Sc. in Nanotechnology and Regenerative Medicine (2013) from University College London, and a Ph.D. in Bioengineering (2017) from Imperial College London. His research focuses on targeted drug delivery via ultrasound, microbubble dynamics, ultrasound therapy monitoring, and clinical translation of therapeutic ultrasound. He has been awarded multiple scientific honors and acts as a reviewer for 25 peer-reviewed journals. Dr. Pouliopoulos has mentored over 80 students across various academic levels, emphasizing outreach and community education in scientific research. His research interests span therapeutic ultrasound applications, including blood-brain barrier opening, focused ultrasound for neurological disorders, and nanoparticle-enhanced drug delivery. He leads projects such as “Activatable nanoparticles for brain tumour drug delivery” and “Focused ultrasound-mediated enhancement of blood–brain barrier permeability for brain tumor treatment,” funded by organizations like the ARIA Precision Neurotechnologies Programme, Action Medical Research, and the Little Princess Trust. His work integrates advanced imaging techniques, including passive acoustic mapping and elasticity imaging, to improve ultrasound therapy precision and safety. Notable Projects: Activatable nanoparticles for brain tumour drug delivery (2023–2027) FOCUSED ULTRASONIC NEURO-IMMUNO-MODULATION FOR DEPRESSION TREATMENT (2025–2026) Mapping of antibody and liposome permeability into the brain post-FUS treatment (2022–2023) Dr. Pouliopoulos’ publications highlight advancements in real-time passive acoustic mapping, functional connectivity alterations in non-human primates, and viscoelastic material characterization. His contributions bridge engineering and medicine, aiming to translate ultrasound-based therapies into clinical practice for conditions like Alzheimer’s disease and diffuse midline glioma.
Frits Mastik is a Researcher in the Department of Neurosciences at Erasmus University Medical Center (Erasmus MC), specializing in advanced ultrasound imaging technologies for clinical applications. His work bridges engineering and medical diagnostics with a focus on real-time brain and cardiovascular monitoring. His research spans Medical Ultrasound, Intravascular Ultrasound, Functional Ultrasound (fUS), and Neuroimaging, with significant contributions to Ultrasound Transducer Development and Motion Compensation Algorithms. Current projects emphasize Elastography and Ultrasound Contrast Agents for improved tissue characterization during surgical procedures. Recent publications reveal a dominant trend in functional ultrasound for intraoperative neuroimaging, particularly integrating fUS with fMRI and electrocorticography during awake brain tumor resections. His team pioneers mobile brain imaging systems using acoustically optimized skull implants, enabling monitoring in freely moving subjects while exploring contrast-agent dynamics through ultra-high-speed camera systems. Collaborations span neurosurgeons, biomedical engineers, and neuroscientists across Erasmus MC, with co-authorship on translational projects involving skull implant technology and motion artifact correction for surgical applications.
Klazina Kooiman is an Associate Professor in the Department of Cardiology at Erasmus MC, where she leads research in ultrasound-mediated therapies, microbubble technology, and targeted drug delivery. Her work bridges biomedical engineering and clinical cardiology, focusing on innovative methods to enhance therapeutic efficacy using acoustic agents. Her research interests center on microbubble dynamics , sonoporation , and contrast-enhanced ultrasound . She investigates how engineered microbubbles can be used to locally deliver drugs to endothelial tissues and tumors, leveraging ultrasound to trigger controlled permeabilization of cell membranes. Her lab employs advanced techniques such as confocal microscopy and acoustic characterization to study microbubble behavior under physiological conditions. The recent publications highlight a strong focus on monodisperse microbubbles , phospholipid coatings , and ultrasound-responsive drug carriers . These studies span from fundamental physics of bubble oscillations to translational applications in cardiovascular disease and oncology, indicating a cohesive research trajectory aimed at clinical translation of acoustic therapeutics. Kooiman has supervised multiple research projects, as indicated by her supervised work record. Though specific awards and grants are not listed, her consistent high-impact publications in journals like ACS Applied Materials and Interfaces and Journal of Controlled Release reflect recognition in her field. She collaborates extensively with experts in ultrasound physics, biomaterials, and cardiovascular biology. Her research group is actively involved in developing next-generation ultrasound contrast agents and therapeutic microbubbles. The team explores both soft- and hard-shelled microbubble systems, aiming to optimize stability, targeting, and bioeffects for safe clinical application.
Subhrokoli Ghosh is a Research Fellow in the Bio- and Nanophotonics group at the Department of Microsystems Engineering (IMTEK), Faculty of Engineering, University of Freiburg, Germany. He joined the group in October 2020 after completing his dual-degree PhD in Physics at the Indian Institute of Science Education and Research (IISER) Kolkata. His educational background includes schooling and college studies in Siliguri, India, followed by an Integrated PhD program (2012-2020) at IISER Kolkata where he earned dual degrees in Physics. Ghosh's research centers on understanding molecular-scale friction using Optical Tweezers (OT) technology. He manipulates trapped probes along surfaces and tracks position fluctuations at MHz rates, building on his doctoral work studying microbubbles in OT. His work bridges Nanophotonics , Biophysics , and Microsystems Engineering , contributing to fundamental molecular interaction studies within the Rohrbach group's framework. He is affiliated with University of Freiburg's research clusters including BrainLinks – BrainTools, BIOSS, FRIAS, and PlanOS, which focus on interdisciplinary applications in neurotechnology and advanced materials.
Dr Ahmed Ismail is a Lecturer in Fluid Dynamics at the School of Engineering and Materials Science, Queen Mary University of London (QMUL). He is affiliated with the Centre for Sustainable Engineering and the Centre for Intelligent Transport, where he serves as Research Seminars Coordinator. He holds leadership roles including Chair of the PGT Examination Board and leads a research group focused on microfluidics and electrohydrodynamics. He received his BSc in Mechanical Engineering from the University of Helwan, Cairo (2009), followed by an MSc (2014) and PhD (2016) in Fluid Mechanics from the University of Seville, Spain, under the FPI scholarship. After a postdoctoral year at Seville, he joined QMUL as a PDRA in 2017 and was appointed Academic Fellow and Lecturer in 2019. He is a Fellow of the Higher Education Academy (FHEA). His research centers on multiphase flows at micro-scale , including capillary jets, microdroplets, electrohydrodynamics, and micro-encapsulation . He employs high-speed imaging, dimensionless analysis, scaling laws, and numerical simulations to address industrial challenges in 2D/3D printing, additive manufacturing, and drug delivery . Keywords include Electrospray, Direct Printing, Microfluidics, Drops & Bubbles, and Capillary Jet. His recent publications reveal a strong trend in controlled droplet and jet dynamics , with applications in high-resolution printing, bio-fabrication, and microencapsulation . He develops scaling laws to predict jet breakup and droplet formation, enabling optimization of printing processes. His work bridges experimental observation with theoretical modeling, particularly in electrified jets, cavity collapse, and liquid-liquid electrospraying . Dr Ismail has secured significant research funding, including a KTP project with Innovate UK (£276,771, 2025–2027) and an EPSRC grant (£296,834, 2022–2024) on Electro-Collapse Jetting for next-generation printing technologies. KTP Archipelago 10144476 (Innovate UK, £276,771, 2025–2027) Electro-Collapse Jetting: Towards the Next Generation of Printing Technologies (EPSRC, £296,834, 2022–2024) He advises multiple PhD students working on hydrodynamic printing, droplet disintegration, droplet impact control, and electric propulsion . His lab focuses on translating fundamental fluid dynamics into sustainable engineering solutions, particularly in intelligent transport and digital manufacturing. He teaches EMS503U Applied Fluid Mechanics and mentors students in experimental and theoretical aspects of fluid dynamics.
Dr. Saikishan Suryanarayanan is an Assistant Professor in the Department of Mechanical Engineering at the University of Akron . Previously, he served as a Research Associate and Lecturer at the Department of Aerospace Engineering & Engineering Mechanics at The University of Texas at Austin. Education : Ph.D. in Engineering Mechanics (Jawaharlal Nehru Centre for Advanced Scientific Research, 2015), M.S. in Mechanical Engineering (Texas A&M University, 2009), B.E. in Mechanical Engineering (Anna University, 2007) His research focuses on Thermal-Fluid Sciences , Computational Fluid Dynamics , Transition and Turbulence , and Flow Control , with funding from the Air Force Office of Scientific Research and National Science Foundation . Recent work demonstrates how engineered surface textures can mitigate roughness-induced boundary layer transitions, improving aircraft and wind turbine efficiency. Key trends in his publications include: Control of turbulent boundary layers via surface textures and shielding strips DNS analysis of vortical structures and pressure fluctuations Development of physio-cyber data assimilation for vortex modeling Applications to aerodynamics and renewable energy systems He teaches courses such as Fluid Mechanics I and Dynamics of Viscous Flow I .
Hao Zeng is an Associate Professor (tenure track) at Tampere University, specializing in Materials Science and Environmental Engineering . He holds a PhD in Photonics from the University of Florence, focusing on tunable photonics and light-driven soft robotics. Research Focus: Light-responsive soft materials, liquid crystal elastomers, actuation engineering, and programmable robotics Key Collaborators: Arri Priimagi, Hongguang Guo, Quan Yang Scientific Trends: His work bridges photonics, soft robotics, and smart materials, with recent publications on underwater actuation, shape memory polymers, and self-oscillatory systems. Articles highlight applications in micro/nano-scale actuation, adaptive optics, and biomimetic designs. Awards: Academy Research Fellow
Peter Weinberg is a Professor of Cardiovascular Mechanics in the Department of Bioengineering at Imperial College London, Faculty of Engineering. He is based at the Royal School of Mines on the South Kensington Campus and can be contacted at p.weinberg@imperial.ac.uk. His research is centered on the biomechanics of cardiovascular diseases, particularly atherosclerosis and heart failure. He leads a research group focused on fluid dynamics, endothelial function, and advanced ultrasound imaging techniques. Education: Natural Sciences, University of Cambridge (Scholarship recipient) DIC, MSc, PhD in Physiological Flow Studies, Imperial College London Lady Davis Postdoctoral Fellowship, Technion – Israel Institute of Technology His research interests lie at the intersection of biomedical engineering, cardiology, and biomechanics . He investigates how hemodynamic forces such as wall shear stress influence endothelial permeability and atherosclerosis development. A major focus is on transcytosis of LDL , disturbed blood flow patterns , and non-invasive detection of heart failure using B-mode ultrasound and wave intensity analysis. His lab develops novel ultrasound imaging methods, including super-resolution techniques using nanodroplets and microbubbles, and coherence-based beamforming for 3D vascular mapping. His recent publications (2021–2025) demonstrate a strong trend toward advanced ultrasound diagnostics and molecular mechanobiology . The articles span from computational beamforming improvements to in vivo validation of endothelial activation pathways. Key themes include ultrasound velocimetry , macromolecule transport , shear stress modeling , and early disease detection . The work combines engineering innovation with deep biological inquiry, aiming to translate biomechanical insights into clinical tools. Scientific Awards and Honors: Fellow, Royal Microscopical Society Ordinary Member, The Physiological Society Member, British Atherosclerosis Society Committee Member, London Microcirculation Group Committee Member, British Society for Cardiovascular Research Committee Member, British Atherosclerosis Society Lady Davis Fellow Peter Weinberg has held key leadership roles in the Department of Bioengineering, including Director of Postgraduate Studies (Research) , Director of Research , and Academic Line Manager . He led the department’s efforts in the Research Assessment Exercise 2008 and Research Excellence Framework 2014. He founded and served as president of the Bioengineering Society (now BioMedEng), and was Associate Editor of the journal Atherosclerosis . He has organized major conferences such as the joint British Society for Cardiovascular Research and British Atherosclerosis Society meeting, and chaired BioMedEng18, attracting over 500 delegates. He has secured research grants, though specific details are not listed in the text. He leads a research laboratory in the Department of Bioengineering at Imperial College London, focusing on cardiovascular mechanics . The lab website details ongoing projects in ultrasound imaging, endothelial mechanobiology, and atherosclerosis modeling. The team uses a combination of computational modeling, in vitro bioreactors, and in vivo imaging to study vascular function and disease progression.
