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.
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.
Michael Fairclough is an Honorary Lecturer (Teaching & Research) in the Division of Informatics, Imaging & Data Sciences. He holds a PhD in PET Radiochemistry for the Investigation of Pain and Inflammation. His research focuses on medical imaging techniques, pharmacology, and cancer biology, contributing to UN Sustainable Development Goals through advancements in diagnostics and drug development. Key research areas include PET radiochemistry, drug delivery systems using ultrasound-activated microbubbles, and metabolic pathways in melanoma progression. His work spans preclinical models of neurodegenerative diseases like Huntington's and oncology applications, leveraging radiopharmaceuticals and advanced imaging technologies. Notable contributions include developing reproducible radiochemical methods and investigating therapeutic strategies to enhance drug efficacy while reducing toxicity. He is affiliated with the Christabel Pankhurst Institute and contributes to the Digital Futures research beacon.
Jan D'hooge is a full Professor at the Faculty of Medicine, KU Leuven, heading the Cardiovascular Imaging and Dynamics unit within the Department of Cardiovascular Sciences. He is a member of the iSi Health Institute for Physics-based Modeling and Leuven.AI Institute for Artificial Intelligence, and serves on the Faculty Council of Medicine and Departmental Council for Cardiovascular Sciences. His research focuses on cardiovascular imaging through echocardiography and ultrasound techniques, specializing in shear wave elastography for myocardial stiffness assessment, high-frame-rate cardiac mechanics imaging, and AI integration in medical diagnostics. He actively explores nanodroplet technologies for super-resolution ultrasound and radiation therapy applications. Recent publications (2025) demonstrate strong trends in ultrasound shear wave imaging for cardiac tissue characterization, natural shear wave analysis for hemodynamic assessment, and development of flexible ultrasound arrays for surgical guidance. These works consistently integrate AI for image analysis and simulation while advancing nanodroplet applications in diagnostics and therapy. He supervises PhD students including N. Burman. Current research is funded by multiple grants: SQUARE: Quantitative assessment of regurgitation in super-resolution echocardiography (2025-2029) Quantification of whole heart function from 2D echocardiographic sequences (2025-2029) AI in pelvic floor imaging for improved diagnostics (2024-2027) Cardiac Active Shear Wave Imaging for non-invasive tissue stiffness assessment (2024-2028) He leads the Cardiovascular Imaging and Dynamics unit which collaborates with iSi Health and Leuven.AI on physics-based modeling and AI for healthcare. The unit pioneers research in cardiac mechanics, ultrasound technology development, and image-guided interventions through advanced imaging facilities.
Dr. Peter Glynne-Jones is an Associate Professor in Mechatronics at the University of Southampton, UK. He leads the Mechatronics theme within the Mechanical Engineering undergraduate program and supervises research projects at all academic levels. His research focuses on acoustic manipulation of microscopic particles , ultrasonic wave physics , and microfluidic systems for disease detection . He develops advanced imaging technologies for human cells and ocean plankton, and explores the intersection of science/engineering with the arts . Recent publications highlight expertise in ultrasound-responsive microbubbles , acoustic-Raman platforms , and ocean sensing technologies , with applications spanning biomedical engineering , microbial biotechnology , and environmental monitoring . Scientific awards include recognition as an IET Scholar and founding the Acoustofluidics Society to foster global research collaboration. He supervises PhD student Anthony James Willis Lindley and contributes to EPSRC-funded projects such as "Ultrasonic cell handling" and "High-Throughput Optical Blood Imaging."
Georg Schmitz is a full Professor of Medical Technology at Ruhr-Universität Bochum, leading the Medical Engineering department within the Faculty of Electrical Engineering and Information Technology. He holds a Dr.-Ing. from Ruhr-Universität Bochum (1995) and previously worked at Philips Research (1995-2001) before academic roles at University of Applied Sciences Koblenz (2001-2004) and his current position since 2004. He served as Dean of the Faculty (2009-2012) and is a Senate member since 2014. Research Focus: Ultrasound imaging innovations including contrast media detection, nonlinear reconstruction methods, and photoacoustic imaging. Societies: Senior IEEE member, Acoustical Society of America, VDE, and key roles in global ultrasound societies (WFUMB, EFUSUMB, DEGUM). Editorial Roles: Associate Editor for IEEE Transactions on Ultrasonics and Editorial Advisory Board member for Ultrasound in Medicine and Biology. His work bridges biomedical engineering and clinical applications, with over 150 publications since 2000. Recent research emphasizes super-resolution ultrasound microscopy, deep learning in imaging, and novel beamforming techniques. Active in international conferences as program chair (e.g., 2017 IEEE International Ultrasonics Symposium). Key Projects: Development of ultrasound localization microscopy (ULM), motion correction algorithms, and microbubble tracking systems. Collaborations in cancer imaging, vascular characterization, and therapeutic ultrasound applications.
Dr. François Yu is a Professor at the University of Montreal, affiliated with the Department of Radiology, Radiation Oncology and Nuclear Medicine at the Faculty of Medicine. He leads the Theranostic Microbubble Laboratory at the Centre de recherche du CHUM (CRCHUM), focusing on developing targeted therapies against cancer using ultrasound-activated microbubbles. His work integrates biomedical engineering, oncology, and imaging technologies to enhance drug delivery, immunotherapy, and radiotherapy efficacy. Education: BEng in Electrical Engineering (École Polytechnique Montréal, 2001) and PhD in Biomedical Engineering (University of Montreal, 2010). Research interests include microbubble-mediated therapeutics, vascular physiology, and translational medicine. He has secured funding from agencies like the Canadian Institutes of Health Research (CIHR), Fonds de recherche du Québec (FRQS), and MITACS, supporting projects in cancer therapy and imaging. Research emphasizes theranostics combining diagnostic and therapeutic functions, with applications in oncology and cardiology. Key projects involve improving targeted drug delivery via microbubbles, enhancing immunotherapy through ultrasound activation, and optimizing radiotherapy using microbubble-sensitized tumor responses. His lab collaborates with multidisciplinary teams across CRCHUM and the Réseau de Bio-Imagerie du Québec. Current research includes studying microbubble-induced nitric oxide release for vascular targeting, developing nanotechnology-based drug transport systems, and exploring marine-derived hemoglobin extracts for anticancer therapy. He actively recruits graduate students and postdoctoral fellows with expertise in molecular biology, biomedical engineering, or pharmaceutical sciences.
Rosa Tamara Branca is a Professor at the University of North Carolina at Chapel Hill, leading the Branca Lab. Her research focuses on advancing nuclear spin dynamics and magnetic resonance imaging (MRI) techniques to enhance diagnostic capabilities. She specializes in hyperpolarization methods, low-field MRI systems, and the development of innovative imaging tools for clinical applications. The lab is located in Marsico Hall within the Biomedical Research Imaging Center. Her work integrates physics, engineering, and medicine to improve MRI sensitivity and specificity, particularly through reducing reliance on bulky superconducting magnets. Key areas include xenon-129 MRI, brown adipose tissue imaging, and contrast agent development. She actively seeks students interested in spin physics and biomedical engineering. Publications highlight contributions to ultra-low field NMR, hyperpolarized gas applications, and thermometry. Research emphasizes translating lab innovations into clinical tools for metabolic disorder diagnosis and imaging precision. The lab’s projects often involve interdisciplinary collaborations and open-source hardware development for cost-effective medical solutions.
Nobuo Maeda, Ph.D., P.Eng., is an Associate Professor in the Department of Civil and Environmental Engineering at the University of Alberta. His research focuses on phase transitions, nucleation phenomena, gas hydrates, and flow assurance in petroleum systems. He holds professional affiliations with the American Chemical Society, Society of Petroleum Engineers, and other industry organizations. Maeda earned his Ph.D. in Physical Sciences and Engineering from the Australian National University (2001), MSc in Materials Science from JAIST (1997), and BEng in Applied Physics from Tohoku University (1992). His honors include an Australian Research Council Future Fellowship (2010) and an Honorary Fellowship from the University of Melbourne (2012). Research interests span nucleation of ice and gas hydrates, wax deposition, surface interactions, and colloidal systems. Current projects investigate nucleation mechanisms in clathrate hydrates and ice, with applications in energy systems and environmental engineering. His work integrates experimental methods like high-pressure calorimetry and microfluidic systems to study hydrate formation dynamics. Teaching responsibilities include PET E 484 (Oil and Gas Property Evaluation) and PET E 668 (Flow Assurance), emphasizing investment decision-making, flowline risk factors, and multiphase flow analysis. Recent publications explore microbubble-enhanced water treatment, adsorption mechanisms at oil-water interfaces, and CO₂ hydrate dissociation in electrolytes. Maeda's expertise is reflected in over 150 peer-reviewed articles and collaborations across academia and industry. His lab develops novel inhibitors for flow assurance and studies nanobubble stability in confined geometries, contributing to both theoretical and applied energy solutions.
Yi Liao is a Professor at the Florida Institute of Technology within the College of Engineering and Science, Department of Chemistry and Chemical Engineering. His research focuses on the design, synthesis, and characterization of photosensitive molecules and materials, particularly metastable-state photoacids and carbon monoxide releasing molecules (PhotoCORMs). Email: yliao@fit.edu Office: F.W. Olin Physical Sciences, Room 310 His work spans applications in vascular tissue engineering, energy-efficient carbon dioxide capture, and biomedical systems. Recent publications highlight advancements in visible-light-activated materials, reversible proton transfer mechanisms, and ultrasound-responsive microbubbles for therapeutic delivery. Key research themes include: Development of metastable-state photoacids with extended proton dissociation lifetimes Integration of PhotoCORMs into electrospun scaffolds for antibacterial vascular grafts Multi-stimuli responsive systems combining light and thermal activation Computational and experimental characterization of photoreactive materials
Bat-El Pinchasik is a Professor at the School of Mechanical Engineering within Tel Aviv University's Iby and Aladar Fleischman Faculty of Engineering. She leads the Pinchasik Lab, focusing on biomimetic systems and interfacial phenomena. Education: Ph.D. in Physics from Max Planck Institute of Colloids and Interfaces and University of Potsdam M.Sc. in Polymer Science from Max Planck Institute (joint program with Berlin universities) Dual B.Sc. in Materials Engineering and Physics from Technion University Research Interests: Her work bridges biomimetics, interfacial science, and materials engineering, with emphasis on: Bio-inspired robotics (e.g., insect locomotion, underwater adhesion) Wetting phenomena and droplet dynamics Nanoscale fluid interactions for fog harvesting and energy applications Publication Trends: Recent articles (2015-2022) demonstrate a strong focus on nature-inspired solutions, including microbubble-controlled robotics, insect biomechanics, and adaptive wetting surfaces. Her interdisciplinary approach combines soft matter physics, microfluidics, and biological principles. Laboratory: Directs the Pinchasik Lab specializing in bio-inspired interfacial phenomena and micro-scale robotics.
Prof. Tali Ilovitsh is a Senior Lecturer at the Department of Biomedical Engineering , Tel Aviv University , affiliated with The Iby and Aladar Fleischman Faculty of Engineering . She specializes in developing non-invasive medical ultrasound technologies for diagnostics, monitoring, and therapy. Education: B.Sc., M.Sc., and Ph.D. in Electrical Engineering from Bar Ilan University (2010-2016). Postdoctoral Training: University of California Davis (2016-2018) and Stanford University School of Medicine (2018-2019). Her research focuses on ultrasound therapy and imaging , particularly therapeutic ultrasound coupled with microbubbles for drug delivery, gene therapy, and blood-brain barrier opening. She also explores 3D ultrasound, super-resolution imaging, and optically-inspired ultrasonic techniques to overcome imaging limitations. Notable contributions include advancements in ultrasound-mediated cytokine transfection for tumor treatment, microbubble dynamics, and phase retrieval imaging methods. Her work combines engineering, physics, biology, and medicine. The Ilovitsh Lab at Tel Aviv University develops technologies for non-invasive ultrasound surgery , gene delivery , and targeted therapy , with applications in brain disorders and cancer treatment.
Dr. Dong Liu is a Professor in the Department of Mechanical & Aerospace Engineering at the University of Houston, where he has held faculty positions since 2007 (Assistant Professor: 2007–2013; Associate Professor: 2013–2020; Professor: 2020–present). He directs the Microscale Thermal Transport Laboratory and serves as Associate Editor for the ASME Journal of Thermal Science and Engineering Applications (2023–present). His academic credentials include a Ph.D. in Mechanical Engineering from Purdue University (2006), and M.S./B.S. degrees in Thermal Engineering from Tsinghua University. Liu's research focuses on interdisciplinary thermal-fluid sciences, including: Phase change heat transfer (boiling, Leidenfrost phenomena) Micro/nanofluidic systems for energy conversion Electrowetting-enabled thermal management Optofluidic and photothermal technologies Multiphase flow dynamics in advanced materials Applications span electronics cooling, renewable energy, and biomedical devices. His recent publications (2017–2023) demonstrate consistent innovation in heat transfer enhancement, with themes including electrowetting-modulated boiling, laser-driven microfluidics, plasmonic thermal control, and nanoscale thermometry. Over 60% of articles involve experimental validation of novel concepts for industrial thermal management. Awards & Leadership: ASME Fellow (2024) Director of Graduate Studies (2020–present) Chair of multiple faculty search committees (Thermal Science, 2014–2023) As Director of Graduate Studies, Liu oversees academic programs and advises students in thermal sciences. He holds patents for microfluidic pumping systems and neural scaffold alignment technologies. His laboratory collaborates with national institutes and industry partners on next-generation thermal management solutions.
