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Daniel McGinnisView profile

Associate Professor

• Aquatic greenhouse gas transport
• Limnology
• Lake management and restoration
• +4 more

Professor Daniel McGinnis is the Director of the Department F.-A. Forel for Environmental and Aquatic Sciences at the University of Geneva. He holds an Associate Professor position and specializes in limnology, aquatic biogeochemistry, and the dynamics of greenhouse gas emissions in aquatic systems. His research focuses on methane transport, lake stratification, and the interplay between physical and biogeochemical processes in water bodies. McGinnis earned his Ph.D. in Civil Engineering from Virginia Tech (2003), followed by postdoctoral work at Eawag (Switzerland). He has extensive professional experience, including roles at the Leibniz-Institute of Freshwater Ecology (Germany), University of Southern Denmark, and GEOMAR (Germany). His work spans field studies in rivers, lakes, and marine environments, with notable projects in the Danube River, Lake Baikal, and Arctic regions. Key research interests include methane dynamics, aquatic eddy correlation techniques, sediment-water interactions, and the impact of climate change on aquatic systems. McGinnis has supervised several Ph.D. students, focusing on topics like methane fluxes and lake restoration. He has led numerous scientific cruises and expeditions, including studies in Greenland and the North Sea. His publications highlight advancements in understanding methane emissions from lakes and rivers, the role of submerged macrophytes, and the paradox of methane production in oxic waters. McGinnis actively collaborates on interdisciplinary projects, integrating field observations, modeling, and cutting-edge analytical techniques to address global environmental challenges.

• Food Science
• Fluid Dynamics
• Biological Fluids
• +4 more

Carlos Corvalan is an Associate Professor in Food Science and holds a courtesy appointment in Mechanical Engineering at Purdue University's Department of Agricultural & Biological Engineering in West Lafayette, Indiana. His research focuses on fluid dynamics, interfacial flows, biological fluids, and microfluidics, with applications in food science and engineering. He leads studies on surfactant dynamics, rheological modeling, and machine learning-driven approaches to food systems. His work bridges engineering principles with food technology, emphasizing sustainable agricultural practices and advanced processing techniques. Contact: corvalac@purdue.edu, Office NLSN 2241. Research interests include the mechanics of complex fluids, microbubble behavior in food systems, and the development of predictive models for food quality and safety. Recent work explores machine learning applications in texture perception and oxidation kinetics. Corvalan's publications span over 50 peer-reviewed articles from 2000 to 2025, covering topics from non-Newtonian fluid mechanics to food processing innovations. His research has contributed to improving food safety protocols and sustainable agricultural technologies. Notable contributions include studies on surfactant-laden bubble interactions, microfluidic applications in food texture analysis, and the use of essential oils as biocidal agents. His interdisciplinary approach integrates mechanical engineering principles with biological systems, addressing challenges in food processing, preservation, and environmental sustainability. No specific grants or awards are listed in the provided materials.

Andreas PolletView profile

Lecturer

• Microfluidics
• Organ-on-a-Chip Technology
• Mechanobiology
• +2 more

Andreas Pollet is a University Lecturer in the Computational and Experimental Mechanics (CEM) research group and a researcher in the Microsystems group at Eindhoven University of Technology (TU/e). He combines teaching and research, focusing on microfluidics, organ-on-a-chip technology, mechanobiology, and regenerative medicine. His work emphasizes recreating functional human tissues in microfluidic devices for applications like drug development and disease modeling. Academic Background Bachelor and PhD in Biomedical Engineering (TU/e) Postdoctoral research at Sanquin Research (Bone Marrow-on-Chip project) Research Pollet’s research bridges engineering and biology, with contributions to hydrogel-based tubular organ-on-a-chip models, ultrasound imaging systems for vascular validation, and microbubble dynamics in medical diagnostics. His work aims to improve physiological accuracy in in vitro models and advance biomedical technologies. Key Projects LOCATE project (microvasculature modeling) Bone marrow-on-chip for platelet formation studies Labs & Affiliations Eindhoven MedTech Innovation Center Group Den Toonder (TU/e)

• Biomedical Engineering
• Noninvasive Medical Technologies
• Focused Ultrasound Therapy
• +5 more

Dr. James Choi is an Associate Professor in the Department of Bioengineering at Imperial College London, affiliated with the Faculty of Engineering. His research focuses on noninvasive medical technologies, including focused ultrasound for drug delivery across the blood-brain barrier and wearable controllers for virtual/augmented reality. He leads the Noninvasive Surgical Microsystems (NSM) Lab, developing devices for microsurgery and medical monitoring. Education: PhD (Biomedical Engineering, Columbia University), MS (Biomedical Engineering, Columbia University), BSE (Computer Engineering, University of Michigan) Appointments: 2018–Present (Imperial College London), 2010–2013 (Postdoc at University of Oxford) Research interests include noninvasive microsurgery targeting Alzheimer’s, glioblastoma, and diffuse midline glioma, as well as smart wristbands for VR/AR hand tracking and haptic feedback. His work spans five interdisciplinary topics: hardware development, signal processing, tissue physics, biological responses, and clinical translation. Key awards include the 2022 Frederic Lizzi Award and the 2011–2012 Frederick V. Hunt Fellowship. His lab’s work is detailed at www.nsblab.org .

• DCE MRI
• MRI
• Magnetic Resonance Imaging
• +3 more

Xin Li, Ph.D., is an Assistant Professor at the Advanced Imaging Research Center, Oregon Health & Science University (OHSU). He also serves as a collaborative scientist in the Division of Reproductive Sciences at the Oregon National Primate Research Center. Dr. Li holds a B.S. from the University of Science and Technology of China (1989) and a Ph.D. from the State University of New York, Stony Brook (1999). His research focuses on dynamic contrast-enhanced (DCE) MRI, particularly investigating water exchange effects in clinical applications and physiological/pathological contexts. His work integrates advanced MRI techniques for disease diagnosis and therapy monitoring, including studies on glioma imaging, breast cancer response prediction, and cerebral blood flow dynamics. He has contributed to multi-center clinical trials and platform development for quantitative MRI analysis. Notable collaborations involve interdisciplinary teams in neurology, oncology, and biomedical engineering. Dr. Li’s research also explores novel imaging agents (e.g., ferumoxytol) and methodologies like metabolic activity diffusion imaging (MADI). His studies address critical challenges in image quantification, contrast agent behavior, and translational applications across cancer, neurology, and aging.

Hermann PavenstädtView profile

Professor

• Nephrology
• Cell Biology
• Medical Imaging
• +3 more

Prof. Hermann Pavenstädt is a faculty member at the University of Münster within the Department of Nephrology and Rheumatology , leading the Pavenstädt Lab . His research focuses on cell dynamics and imaging , particularly in renal and immunological contexts. He has contributed to understanding podocyte biology, endothelial dysfunction, and novel diagnostic imaging techniques for kidney diseases and transplant rejection. Key research areas include nephrology , cell biology , and medical imaging , with a focus on molecular mechanisms underlying kidney disease progression and therapeutic interventions. His work integrates experimental models, molecular biology, and advanced imaging technologies. Notable contributions include studies on Lasp1's role in arthritis, PET imaging for transplant rejection, and the impact of aldosterone antagonists on endothelial health. His articles highlight interdisciplinary approaches to kidney-related pathologies and translational medicine. Prof. Pavenstädt's team collaborates across departments in the Medical Faculty and participates in the Multiscale Imaging Centre , emphasizing innovative imaging solutions for clinical challenges. His lab's work bridges basic science and clinical applications, aiming to improve diagnostic and therapeutic strategies for renal and immunological disorders.

• Fluid Mechanics
• Bubble Dynamics
• Multiphase Flow
• +4 more

Rocío Bolaños Jiménez is the Director of the Doctoral School (Escuela de Doctorado) at the University of Jaén. Her work bridges experimental fluid mechanics and engineering education. She specializes in bubble dynamics, multiphase flow, and fluid mechanics phenomena, with a focus on bubble formation mechanisms, wall effects, and superhydrophobic substrates. Her research also extends to educational methodologies, including teamwork skills training and innovative teaching tools like QR codes in fluid mechanics laboratories. Her studies address practical applications such as biofuel physicochemical properties, industrial process control in coaxial jets, and mentoring programs for engineering students. She has published extensively on bubble behavior in diverse configurations, including vertical walls, planar co-flow systems, and submerged orifices. Experimental techniques like particle tracking velocimetry and numerical modeling are central to her research. Bolaños Jiménez has contributed to advancing both theoretical understanding and pedagogical practices in engineering education. Her work emphasizes translating experimental results into actionable insights for industry and academia.

Muhammad JunaidView profile

Visiting Professor

• Surface Science
• Materials Science
• Nanotechnology
• +5 more

Muhammad Junaid is a Visiting Faculty member in the Department of Applied Physics at Aalto University's School of Science, where he also holds a Doctoral Student position. His research focuses on surface science, nanotechnology, and soft matter physics, with particular expertise in wetting phenomena and liquid-repellent surfaces. Junaid holds a Dipl.ins. in electrical engineering (sähkötekniikka) with an award dated April 3, 2018. His academic journey reflects a transition from electrical engineering to advanced materials research. His primary research interests span Surface Science, Materials Science, Nanotechnology, and Soft Matter Physics, with specific focus on wetting phenomena, self-assembled monolayers, and superhydrophobic materials. Junaid's work investigates molecular-scale surface properties and their applications in advanced materials engineering. His fingerprint analysis shows strong activity in Surface Science (100%), Nanoparticle research (40%), Gold Nanoparticles (40%), and Self-Assembled Monolayers (40%). Analysis of Junaid's recent publications reveals a strong focus on surface wetting properties, liquid-repellent technologies, and nanoscale material characterization. His work bridges fundamental surface science with practical applications in biomedical engineering and advanced materials. Recent papers demonstrate increasing sophistication in characterizing and engineering surfaces at molecular scales, with his Nature Chemistry paper receiving 37 Scopus citations. Junaid has been actively involved in multiple research projects including LIBER/Ras (2022-2024), SuperRepel (2017-2022), 2D Layered Materials for Photonics (2016-2020), and GrapheneCore1 (2016-2018), demonstrating sustained research activity over more than a decade. He is a member of the Soft Matter and Wetting research group, collaborating with Professor R. Ras and other researchers on cutting-edge surface science projects. His work has attracted significant attention, with publications covered by numerous news outlets and referenced in patents, indicating substantial impact in his field.

• Cardiac Arrhythmias
• Neural Stimulation
• Bioinformatics
• +4 more

Alain Vinet is an Associate Professor at the Université de Montréal, affiliated with the Faculty of Medicine's Department of Pharmacology and Physiology. His research focuses on cardiac arrhythmias, neural stimulation, and bioinformatics, with expertise in signal modeling and statistical analysis. He is part of the CIUSSS Nord-de-l’Île-de-Montréal and the Centre de recherches mathématiques (CRM). Key research projects include mathematical modeling of cardiac automaticity and collaborative studies on stress and noise effects in tinnitus. He has advised numerous graduate students, including Feng Xiong, Sylvain Bouchard, and Brigitte Maillet. Major awards include the Prix Armand-Frappier (2009) and membership in the Ordre du Canada (2021). Vinet leads projects funded by FRQNT, FRQS, and CRSNG, investigating cardiac electrophysiology and biomedical data analysis. His work bridges clinical cardiology with computational modeling, contributing to arrhythmia prevention and treatment strategies.

• Medical Imaging
• Biomedical Engineering
• Materials Science
• +5 more

Caroline De Gracia Lux is an Assistant Professor in the Department of Radiology at UT Southwestern Medical Center, affiliated with the Translational Research in Ultrasound Theranostics program. She holds a Ph.D. in Chemistry from the University of Strasbourg and completed postdoctoral training at UCSD, focusing on biocompatible materials for theranostic applications. She also earned a Micro-MBA from UCSD’s Rady School of Management, emphasizing leadership and strategic communication. Her research integrates synthetic chemistry and formulation to develop advanced ultrasound contrast agents and nanomedicines for cancer imaging and treatment. Key areas include stabilizing low-boiling-point perfluorocarbon emulsions, activatable contrast agents, and multimodal imaging probes. Her work emphasizes translational applications, such as macrophage imaging via acoustic vaporization of nanodroplets and pH-responsive microbubble systems for targeted therapy. Education: Ph.D. in Chemistry, University of Strasbourg Micro-MBA (Rady School of Management, UCSD) Postdoctoral Training, UCSD (Polymeric Materials) Dr. Lux’s publications highlight innovations in nanodroplet emulsification, perfluorocarbon applications, and stimuli-responsive drug delivery systems. Her lab focuses on advancing ultrasound-based theranostics, with recent work exploring lipid microparticle phantoms for liver fat quantification and macrophage-stimulating perfluorocarbon emulsions. Key Contributions: Development of direct emulsification techniques for stable nanodroplets Design of pH-responsive microbubbles for ultrasound imaging Investigations into macrophage modulation via acoustic vaporization Her lab, the de Gracia Lux Lab, collaborates on cutting-edge projects at the intersection of chemistry, engineering, and clinical medicine, aiming to translate nanotechnology into clinical diagnostics and therapies.

• Chemical Engineering
• Multiphase Flow Technology
• Phase Separation
• +5 more

Dr Paul Russell is a Lecturer at Teesside University, specializing in chemical engineering and energy systems. His research focuses on multiphase flow technology, phase separation, and heterogeneous catalysis, with applications in hydrogen production and environmental engineering. He leads or co-leads multiple projects addressing decarbonization, cold agglomeration, and hydrogen fuel transition. Russell has contributed to over 46 research outputs, including studies on microbubble visualization, droplet dynamics, and heat transfer optimization. His collaborative work spans international teams across energy security, direct air capture, and SME innovation initiatives. Notable projects include the TVHIP (Tees Valley Hydrogen Innovation Project) and H2FOOD, targeting net-zero solutions. Russell has been involved in media outreach promoting hydrogen purification advancements and Teesside University's chemical engineering programs. His teaching contributions include leveraging Microsoft Office 365 for collaborative learning environments. Key research areas include fluid dynamics, material science, and sustainable energy systems. Russell has secured grants totaling millions in funding for projects addressing global energy challenges and industrial decarbonization.

Mark A. BordenView profile

Professor

• Colloid Science
• Ultrasound Imaging
• Theranostics
• +4 more

Mark A. Borden is a Professor at the University of Colorado Boulder, specializing in biomedical engineering with a focus on microbubble and nanodrop technologies for diagnostic and therapeutic applications. His work bridges colloid science, ultrasound physics, and biomedical innovation. Key research areas include oxygen delivery systems, targeted drug delivery, and image-guided therapy for diseases like cancer and acute respiratory distress syndrome (ARDS). He leads the Biomedical Engineering Program and has held roles on NIH review panels and international symposium committees. Awards include the NSF Career Award, NYSTAR James D. Watson Award, and multiple university service/research accolades. His lab has spun out companies Respirogen Inc. and Advanced Microbubbles LLC to commercialize medical technologies. Publications highlight innovations in endoskeletal droplet design, photoacoustic imaging, and microbubble-based therapies. Research emphasizes molecular-level interfacial phenomena and translational medical devices, with applications in oncology, neurology, and critical care.

Yifu DingView profile

Professor

• Polymer Science
• Membrane Technology
• Nanomaterials
• +3 more

Yifu Ding serves as Professor and Director of the MAST Center at the University of Colorado Boulder, where he maintains laboratory facilities in ECME 102 and an office in ECME 269A. His research program focuses on advanced polymer systems and membrane technologies, with particular emphasis on nanostructured materials for separation applications and energy-related processes. Dr. Ding's primary research interests center on polymer structure-dynamics relationships under confinement, fabrication of polymer-based nanostructures and nanocomposites, and development of smart materials including responsive surfaces and particles. His work investigates mechanical and viscoelastic properties of these materials through innovative characterization techniques, with applications spanning water treatment, gas separation, and hydrogen production. Recent publications demonstrate growing emphasis on surface patterning, nanofiller integration, and mechanical property enhancement in membrane systems. Analysis of his 2023-2025 publications reveals three dominant research thrusts: (1) Advanced membrane fabrication techniques including femtosecond laser ablation and 3D printing, (2) Nanoengineered materials for hydrogen separation featuring atomic-scale tuning and metal nanorod networks, and (3) Surface modification strategies for fouling mitigation in water treatment applications. His work increasingly integrates multi-scale characterization with computational modeling to establish structure-property-performance relationships. Scientific Awards: No specific awards were documented in the provided materials. Regarding academic advising and research funding, the available information does not specify graduate students, postdoctoral researchers, or grant details. His leadership of the MAST Center suggests involvement in collaborative research initiatives, though specific project details remain undocumented in the provided text. Dr. Ding directs the MAST Center and operates laboratory facilities focused on membrane characterization and nanofabrication. His research group employs techniques including nanoimprint lithography, electrochemical patterning, and advanced microscopy to develop next-generation separation membranes. Current work emphasizes practical applications in water sustainability and clean energy production, with strong industry relevance in environmental engineering sectors.

James L. ThomasView profile

Associate Professor

• Biophysics
• Condensed Matter Physics
• Membrane Dynamics
• +4 more

James L. Thomas is an Associate Professor and Associate Chair for Undergraduate Studies in the Physics and Astronomy Department at the University of New Mexico (UNM). He holds a PhD from Cornell University (1991) and specializes in biophysics and condensed matter physics, focusing on lipid membranes, ultrasound interactions, and molecular imprinting technologies. His research integrates optical and fluorescence techniques to study biological systems, including phospholipid layers, drug-delivery microbubbles, and protein dynamics. Key research projects include studying lipid-monolayer coated microbubbles in ultrasound, repulsive membrane protein interactions, and capillary wave diffraction. Thomas has advised numerous graduate and undergraduate students, including notable alumni like Hung-Yin Lin (Professor at National University of Kaohsiung) and Kathrin Spendier (Assistant Professor at University of Colorado Colorado Springs). His lab, located in PAÍS 2230, collaborates on interdisciplinary projects such as nanomaterials for biomedical applications and biofuel systems. Publications highlight advancements in molecularly imprinted polymers for biomarker detection (e.g., C-reactive protein, α-synuclein), ultrasound-mediated drug delivery, and nanotechnology-based sensors. His work bridges physics, chemistry, and biology, with applications in diagnostics, cancer therapy, and environmental monitoring. Thomas’s educational contributions include leading undergraduate and graduate programs, emphasizing lab-based learning and interdisciplinary research. He has contributed to NSF-funded initiatives like the IGERT program on nanotechnology and cell biology.

• Surface Chemistry
• Microdroplet Physics
• Bubble Dynamics
• +2 more

Xuehua Zhang is a Full Professor at the MESA+ Institute, specializing in the Physics of Fluids. Her research examines interfacial phenomena, microdroplet physics, and bubble dynamics with applications in energy and environmental technologies. Her work focuses on surface chemistry, fluid mechanics, and colloidal systems, with recent investigations into hydrogen production using microdroplets and advanced water treatment methods combining microbubbles with cold plasma technology. Recent publications demonstrate innovation in sustainable energy storage and water treatment technologies, with particular focus on microdroplet reactors for hydrogen production and plasma-based water purification systems.