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Zheng-Rong LuView profile

Professor

• Molecular Imaging
• Nanomedicine
• Drug Delivery
• +4 more

Zheng-Rong Lu is the M. Frank and Margaret Domiter Rudy Professor of Biomedical Engineering at Case Western Reserve University's Case School of Engineering and a member of the Cancer Imaging Program at the Case Comprehensive Cancer Center. He also holds roles as Faculty Director of the Case School of Engineering and maintains external appointments as a scientific leader in multiple biotechnology companies, including U.S. Motek and Molecular Theranostics LLC. Dr. Lu completed his PhD at the Chinese Academy of Sciences, followed by postdoctoral training at the University of Utah and Wuhan University. His research focuses on molecular imaging and drug delivery using nanotechnology, particularly biodegradable and organic nanomaterials. Key projects include developing MRI contrast agents for cardiovascular and cancer imaging, targeted nanoglobules, and therapies for retinal degeneration and cancer. His laboratory's work spans interdisciplinary applications such as nanomedicine, gene delivery, and theranostics (therapeutic + diagnostic agents). Recent advancements include targeted siRNA nanoparticles for cancer therapy and ECO lipid-based platforms for non-viral gene delivery in ocular diseases like Stargardt disease. External engagements include leadership roles in companies commercializing his research, such as developing contrast agents and therapeutic probes. His work emphasizes translational medicine, bridging lab innovations to clinical applications in oncology and retinal therapies. Notable contributions include pioneering fibronectin-targeted imaging probes for cancers and creating pH-sensitive lipid nanoparticles for efficient nucleic acid delivery. His research has advanced precision medicine via molecular imaging for disease monitoring and therapy assessment.

Sanjiv Sam GambhirView profile

Professor

• Molecular Imaging
• Radiology
• Cancer Early Detection
• +5 more

Sanjiv Sam Gambhir, MD, PhD, is a Professor in the Department of Radiology and Bio-X Program at Stanford University School of Medicine. He serves as Chair of the Department of Radiology and leads the Molecular Imaging Program at Stanford (MIPS), Precision Health and Integrated Diagnostics (PHIND) Center, and Canary Center for Cancer Early Detection. His research focuses on molecular imaging, cancer detection, and precision health. Gambhir holds academic appointments in Bioengineering and Materials Science & Engineering. He has pioneered innovations in PET/CT imaging, reporter gene systems, and immunoPET for monitoring immunotherapies. Education: PhD in Biomathematics (UCLA, 1990), MD (UCLA, 1993), BS in Physics (Arizona State University, 1983). Research interests include developing imaging agents for cancer, immune cell tracking, and non-invasive diagnostics. Over 100+ scientific awards highlight his contributions, including the J. Allyn Taylor Prize, IEEE Marie Sklodowska-Curie Award, and AAAS Fellowship. He has authored >1,500 publications and 100+ patents, including breakthroughs in reporter gene imaging and nanoparticle-based diagnostics. Leadership roles include Head of the Nuclear Medicine Division, Director of MIPS, and Chair of the Society of Chairs of Academic Radiology Departments. His work bridges academia and industry through advisory roles at institutions like the NIH, FDA, and global medical societies.

• Industrial Wireless Networks
• Cognitive Radio
• Deep Reinforcement Learning
• +7 more

Haibin Yu is a researcher active in computer science and industrial engineering domains, with a focus on Industrial Wireless Networks , Cognitive Radio , and Deep Reinforcement Learning . Their collaborative work spans institutions and disciplines, addressing challenges in Edge Computing , Digital Twin , and Blockchain applications. Research Interests : Yu's work intersects Industrial Wireless Networks , AI in Healthcare , Multi-Domain Recommendation Systems , and Wireless Sensor Networks . Their contributions include optimizing resource allocation, enhancing secure task offloading, and developing frameworks for edge computing in manufacturing. Article Trends : Recent publications emphasize 5G Networks , Industrial Automation , and Digital Twin-Driven Collaborative Scheduling , reflecting a shift toward Intelligent Manufacturing and Trustworthy Computing in industrial contexts. Collaborations : Yu frequently collaborates with researchers like Peng Zeng , Chi Xu , and Wei Liang , indicating a strong network in wireless and AI-driven industrial systems.

Amy SchaferView profile

Professor

• Psycholinguistics
• Spoken Language Processing
• Prosody and Intonation
• +5 more

Amy Schafer is a Professor in the Department of Linguistics at the University of Hawaiʻi at Mānoa. Her research focuses on psycholinguistics, spoken language processing, and the interplay between prosody/intonation and information structure (e.g., given, new, and focused information). She investigates these phenomena across adult, child, native, non-native, and bilingual populations, primarily in English, Korean, Japanese, and Austronesian languages. Education: PhD, University of Massachusetts–Amherst Her research extends to field psycholinguistics, particularly through the HALA Project, which examines early signs of language endangerment and attrition in heritage speakers. She co-founded the College of LLL’s Language Analysis and Experimentation Laboratories (LAE Labs) in 2001, providing facilities for experimental tasks like eye-tracking and discourse processing. Currently, she explores prosody, event structure, and referential processing in Japanese- and Korean-speaking English learners. Professor Schafer teaches courses such as LING 412 (Introduction to Psycholinguistics), LING 640Y (Graduate Psycholinguistics), LING 632 (Experimental Methods), and seminars on psycholinguistics and eye-tracking methods.

Ramesh C. BansalView profile

Professor

• Cardiology
• Internal Medicine
• Echocardiography
• +12 more

Ramesh C. Bansal is a Professor in the Cardiology Division of the School of Medicine. His academic and clinical work centers on cardiology, with a focus on echocardiography, coronary artery disease, and aortic dissection. Despite his medical appointment, a significant portion of his recent research output is in electrical engineering domains such as smart grids, renewable energy, microgrids, and power electronics, suggesting either interdisciplinary work or a data attribution anomaly. Education: MBBS, All India Institute of Physical Medicine & Rehabilitation, 1972 His research interests span both cardiology and energy systems. In cardiology, he has investigated left and right ventricular function in valvular disease and coronary anomalies. In engineering, his work includes optimization of PV systems, microgrid coordination, electric vehicle integration, and AI-based fault detection. This dual focus is highly unusual for a single academic and may indicate a name conflict. The recent publications (2024–2025) are predominantly in energy systems, focusing on optimization, smart grids, and renewable integration. Despite the medical appointment, the volume and technical depth of engineering work suggest a primary identity in power systems engineering, raising questions about data accuracy. No scientific awards are listed in the provided text. Dr. Bansal has served as Principal Investigator (PI) and co-investigator on multiple research projects, including studies on echocardiography contrast agents, pacemaker therapy, and non-invasive hemodynamic monitoring. Grants include industry-sponsored trials and internal observational studies, primarily in cardiology. No information is available on student advising or mentorship. There is no mention of specific laboratories, research teams, or collaborative groups in the text.

• Fluid Dynamics
• Biomedical Engineering
• Cardiovascular Systems
• +4 more

Pavlos Vlachos is a Professor of Mechanical Engineering at Purdue University, affiliated with both the Department of Mechanical Engineering and the Biomedical Engineering program. He holds an office in the MANN building and is part of the Moveable Dream Hire Committee. His research focuses on fluid dynamics, biomedical engineering, and cardiovascular systems, with applications in medical imaging, drug delivery systems, and computational modeling. His work combines experimental and computational methods to study intracardiac flow in congenital heart diseases, subcutaneous drug delivery mechanisms, and novel echocardiographic biomarkers for sepsis and heart failure. He has developed advanced imaging techniques like 4D flow MRI reconstruction and Doppler velocity analysis tools for clinical diagnostics. His projects often bridge engineering and medicine, addressing challenges in pediatric cardiology, nanomedicine, and biomaterials. Key contributions include computational models for autoinjector performance, non-invasive cardiac flow assessment, and machine learning approaches for echocardiogram analysis. He actively engages in educational initiatives integrating virtual and physical labs for fluid mechanics education, emphasizing hands-on learning through open projects and data-driven experiments. His research portfolio spans over 50 peer-reviewed articles between 2022-2025, with a focus on translational biomedical engineering. Collaborations involve multi-disciplinary teams from cardiology, bioengineering, and materials science. Current interests include optimizing subcutaneous injection systems, predicting sepsis outcomes via hemodynamic indices, and improving diagnostic accuracy through automated image segmentation.

Tyrone PorterView profile

Professor

• Biomedical Engineering
• Medical Imaging
• Ultrasound Technology
• +4 more

Tyrone Porter is the Department Chair and Professor in the Department of Biomedical Engineering at The University of Texas at Austin's Cockrell School of Engineering. He holds the Donald J. Douglass Centennial Professorship in Engineering. His research focuses on advancing ultrasound technologies for diagnostic and therapeutic applications, particularly in the context of drug delivery, immunomodulation, and the blood-brain barrier. Porter's work combines chemical and biomolecular engineering with acoustic systems to develop innovative solutions for medical challenges. The Porter lab's research includes ultrasound-programmable delivery systems, phase-shift nanoemulsions, and acoustically activated vesicles. His contributions span drug delivery mechanisms, neuroengineering, and biosensor development. Notable research trends in his publications include optimizing ultrasound-mediated therapies, exploring subharmonic bubble responses, and enhancing imaging resolution through novel contrast agents. His work frequently addresses translational applications in cancer treatment, neurological disorders, and vascular interventions. Porter has led initiatives in graduate acoustics education at UT Austin, emphasizing interdisciplinary training in biomedical engineering. While no specific awards are listed, his contributions to the field are evident through his prolific publication record and leadership roles. The Porter Lab collaborates on projects involving glymphatic system manipulation for drug delivery and non-thermal ablation strategies for brain tumors. Ongoing efforts include refining lipid-coated microbubble technologies and investigating the physiological impacts of anesthesia on therapeutic ultrasound protocols.

Thomas TruskettView profile

Professor

• Self-Assembly
• Complex Fluids
• Nanoparticle Suspensions
• +7 more

Thomas Truskett is a Professor and Dick Rothwell Endowed Chair in Chemical Engineering at The University of Texas at Austin, with a secondary appointment in Physics. He leads the Truskett Research Group, focusing on interfaces, complex fluids, and colloidal systems. His work bridges statistical mechanics, soft matter physics, and nanotechnology, with applications in biomedical imaging and materials science. Truskett holds a B.S. from UT Austin (1996), M.A. and Ph.D. from Princeton (1998, 2001), and has held academic roles since 2002. His honors include AAAS and APS Fellowships, the O’Donnell Engineering Award, and NIH/NRSA grants. Research Interests: Self-assembly of nanoparticles, confined liquids, protein solutions, and plasmonic materials. Key Contributions: Developing models for colloidal gels, nanoparticle assembly, and high-concentration antibody viscosity reduction. Grants & Funding: Extensive NIH, NSF, and industry support for projects on biodegradable polymersomes and plasmonic metamaterials. His group has advised over 40 PhD students and postdocs, many now in academia and industry. Notable alumni include Professors at Texas A&M and University of Washington, and R&D leaders at Bristol-Myers Squibb and Dow.

Songi HanView profile

Professor

• Magnetic Resonance Spectroscopy
• Quantum Spin Sensing
• Biophysics
• +4 more

Professor Songi Han is the Mark and Nancy Ratner Professor of Chemistry at Northwestern University, affiliated with the Chemistry of Life Processes Institute, International Institute of Nanotechnology, and Sustainability and Energy Institute. Her research focuses on quantum resonance sensing and understanding molecular interactions in water using advanced magnetic resonance techniques. She pioneered dynamic nuclear polarization (DNP) methods to enhance NMR sensitivity, enabling studies of hydration water dynamics on biomolecular surfaces and soft materials. Her lab explores protein assembly pathways, tauopathies, and engineered active surfaces. Education: Dipl.Chem.: RWTH Aachen University Dr.rer.nat.: RWTH Aachen University Affiliations: Chemistry of Life Processes Institute (CLP) International Institute of Nanotechnology (IIN) Paula M. Trienens Institute for Sustainability and Energy Her research integrates spin physics, instrument development, and biophysical chemistry to address challenges like visualizing molecular activity at interfaces and designing tools to study neurodegenerative diseases. Recent work includes uncovering water’s role in tau fibril formation and developing mini-prion models for Alzheimer’s disease studies. Awards: 2024 Bruker Prize Lecture (Royal Society Chemistry EPR) 2023 Callaghan Lecturer Prize (ISMAR) 2019 Biophysical Society Innovation Award 2008 Packard Fellowship Grants/Advising: NIH Innovator Award (2011) NSF CAREER Award (2006) Guides graduate students in biophysics and materials science Labs/Teams: Han Lab at Northwestern, leading projects in quantum sensing, protein assembly, and hydration-driven phenomena.

Ute LeonardsView profile

Professor

• Neuropsychology
• Human-Robot Interaction
• Visual Perception
• +4 more

Professor Ute Leonards is a Professor of Neuropsychology at the University of Bristol's School of Psychological Science. Her work focuses on how visual perception, human-robot interaction, and environmental design influence human behavior and cognition. She holds a Diplom in Biology (Dipl.Biol.) and a Dr. rer. nat. from Johannes Gutenberg University Mainz. Research Interests: Neuropsychological mechanisms of spatial interaction Human-robot collaboration ethics and design Visual perception impacts on gait and motion Joint attention dynamics in social contexts Therapeutic robotics and animal-assisted interventions Publications Trends: Her recent work explores how environmental patterns (floor designs, fractal properties) affect locomotion, the ethical implications of socially assistive robots, and the cognitive underpinnings of human interaction with artificial agents. She has pioneered studies on how visual discomfort from architectural features impacts movement and decision-making. Collaborations: Active in multi-disciplinary teams across psychology, robotics, and architecture. Co-developed the 'Couch to 5km' socially assistive robot prototype (2020). Involved in EU-funded projects on human-robot spatial interaction safety (2015-2021). Labs/Teams: Leads the Human-Robot Spatial Interaction Lab at Bristol, focusing on real-world testing of assistive robots. Collaborates with the Bristol Veterinary School on animal-human-robot interaction studies.

Daniel KimView profile

Professor

• Cardiovascular Imaging
• Medical Imaging
• MRI Technology
• +6 more

Summary of Daniel Kim Dr. Daniel Kim is a Knight Family Professor of Cardiac Imaging and Professor in Radiology at Northwestern University's Feinberg School of Medicine, with a courtesy appointment in McCormick School of Engineering. He serves as Associate Vice-Chair for Research in Radiology and directs the CTI Cardiovascular Imaging Lab. His work bridges engineering and medicine, focusing on advancing MRI technologies for cardiovascular applications. Education BS: Case Western Reserve University (1996) MS: University of Virginia (1998) PhD: University of Virginia (2003) Postdoc: NYU Cardiovascular Imaging (2006) Research Interests Dr. Kim's lab develops novel MRI technologies, including pulse sequences, image reconstruction methods, and AI-driven tools for cardiovascular applications. Key areas include coronary microvascular dysfunction in Long COVID, real-time cardiac imaging for device patients, and fibrosis quantification in atrial fibrillation. His work emphasizes clinical translation, with funded studies from NIH, AHA, and RSNA. Grants & Projects NIH/NHLBI: Precision MRI for left atrial fibrosis (2021–2026) RSNA: Racial disparities in coronary microvascular dysfunction (2023–2024) AHA: Real-time exercise cardiac MRI for mitral regurgitation (2023–2024) Labs & Affiliations He leads the Daniel Kim Cardiovascular MRI Lab, part of the Center for Arrhythmia Research and NUCATS Institute. The lab collaborates across disciplines to innovate imaging solutions for unmet clinical needs.

Thomas MeadeView profile

Professor

• Molecular Imaging
• Theranostics
• Inorganic Coordination Chemistry
• +5 more

Thomas J. Meade is the Eileen M. Foell Professor of Chemistry, Molecular Biosciences, Neurobiology, Biomedical Engineering, and Radiology at Northwestern University. He also serves as Director of the Center for Advanced Molecular Imaging. His research focuses on inorganic coordination chemistry applied to molecular imaging, theranostics, and electronic biosensors, with emphasis on transition metal complexes for MRI contrast agents and drug delivery systems. The Meade Lab develops advanced imaging probes for applications in cancer, neurodegeneration, and regenerative medicine. Key recent work includes self-immolative probes for β-galactosidase imaging and Gd(III)-Pt(IV) theranostic agents. Research interests span: Molecular imaging of gene expression and intracellular messengers Transition metal enzyme inhibitors Electronic biosensors for DNA/protein detection Theranostic nanoparticles for combined therapy and imaging Bioresponsive MR probes for real-time tracking Current projects emphasize: Senescence detection in osteoarthritis AAV gene therapy monitoring Targeted imaging of prostate cancer (PSMA) Nanoparticle-based MRI contrast agents Lab infrastructure includes facilities for organic/inorganic synthesis, X-ray crystallography, cell culture, and advanced imaging techniques. Group members engage in interdisciplinary collaborations across chemistry, engineering, and medicine.

Alan V. SahakianView profile

Professor

• Cardiac electrophysiology
• Irreversible electroporation
• RF ablation
• +4 more

Alan V. Sahakian is a Professor of Electrical and Computer Engineering and Biomedical Engineering (by courtesy) at Northwestern University's McCormick School of Engineering. He serves as Senior Advisor to the Dean and has held leadership roles including Chair of the Electrical Engineering and Computer Science Department (2011–2018). His research focuses on cardiac electrophysiology, biomedical device development, and beyond-CMOS logic systems. Education: Ph.D. in Electrical and Computer Engineering (University of Wisconsin-Madison, 1984), M.S. in Electrical Engineering (1979), and B.S. in Applied Science and Physics (1976). Research Interests: Cardiac arrhythmia monitoring, irreversible electroporation for cancer treatment, non-contact vital signs sensing via millimeter waves, and spintronic logic circuits. Recent Work: His lab develops bioresorbable cardiac pacemakers, transient wireless electrotherapy networks, and machine learning algorithms for atrial flutter classification. Recent publications span Nature Biotechnology , Science , and IEEE journals. Awards: IEEE Fellow, AIMBE Fellow, John A. Dever Professorship (2015–2018). His work bridges engineering and medicine, with over 100 patents and 200+ peer-reviewed articles. Grants & Labs: Funded by NIH, NSF, and industry partners. Directs the Biomedical Instrumentation Lab and collaborates with NorthShore University HealthSystem on clinical translations.

Simon TangView profile

Associate Professor

• Musculoskeletal Bioengineering
• Regenerative Medicine
• Bone Biomechanics
• +3 more

Simon Tang is an Associate Professor in Orthopaedics at Washington University in St. Louis, where he directs a research program integrating musculoskeletal bioengineering and regenerative medicine. His work addresses fundamental questions in tissue degeneration while developing therapeutic strategies for clinical translation. Primary research themes include: Mechanisms of intervertebral disc degeneration and regeneration Advanced glycation end-products in musculoskeletal tissues Bone quality assessment using novel imaging and biomechanical tools Tissue-level effects of aging and radiation His laboratory utilizes diverse methodologies including contrast-enhanced microCT, single-cell RNA sequencing, mechanical testing, and finite element modeling. Current projects explore TRPV4 modulation for disc protection and novel diagnostics for fracture risk assessment.

Walter ChapmanView profile

Professor

• Polymer Solutions
• Associating Fluids
• Confined Fluids
• +7 more

Walter G. Chapman is the William W. Akers Chair Professor of Chemical and Biomolecular Engineering at Rice University, where he also serves as Director of Undergraduate Studies. He holds a Guest Professorship at Hamburg University of Technology. Previously, he served as Associate Dean of Engineering for Energy Research, Chair of the Chemical and Biomolecular Engineering Department, and Director of the Energy and Environmental Systems Institute at Rice. His research focuses on molecular-level understanding of material properties using tools like molecular simulation, NMR, and statistical mechanics, with applications in polymer solutions, associating fluids, and energy materials. He developed widely-applied models such as the SAFT equation of state and iSAFT density functional theory. Dr. Chapman earned his B.S. in Chemical Engineering (Summa Cum Laude) from Clemson University in 1983 and Ph.D. from Cornell University in 1988. After postdoctoral work at Shell Development Company, he joined Rice in 1990. His honors include the Humboldt Prize, Donald L. Katz Award, and Clemson's Outstanding Young Alumni Award. Research interests include: Phase behavior of polymers and associating fluids NMR relaxation mechanisms in confined systems MRI contrast agent design Thermodynamic modeling for energy applications Gas hydrate formation and flow assurance Recent work advances molecular dynamics algorithms linking NMR relaxation to material properties, with breakthroughs in MRI contrast agent stability and shale nanopore characterization. His group collaborates on cryogenic membrane gas separation and CO₂ sequestration modeling. Awards: Humboldt Prize Donald L. Katz Award Outstanding Young Alumni (Clemson University) Multiple teaching awards His research group operates at the interface of theory and experiment, developing novel computational tools validated through advanced spectroscopy. Active in industry partnerships, his models are used in energy and materials sectors worldwide.