جست‌وجوی استاد و پژوهشگر

Dan O Popaمشاهده پروفایل

استاد

• Robotics
• Human-Robot Interaction
• Advanced Manufacturing
• +۵ مورد دیگر

Dan O Popa is a Professor and Endowed Chair of Advanced Manufacturing in the Department of Electrical and Computer Engineering at the University of Louisville. His research spans robotics, human-robot interaction, and advanced manufacturing, with a particular focus on applications in healthcare and assistive technologies. Dr. Popa's educational background includes: B.A. in Math, Computer Science & Engineering from Dartmouth College (1993) M.S. in Engineering from Dartmouth College (1994) Ph.D. in Electrical Computer & Systems Engineering from Rensselaer Polytechnic Institute (1998) Dr. Popa's research interests center around robotics and human-robot interaction, with a strong emphasis on practical applications in healthcare settings. His work explores how robots can assist in medical procedures, support patients with special needs (particularly children with autism spectrum disorder), and enhance manufacturing processes through advanced robotics and additive manufacturing techniques. He has made significant contributions to the development of tactile sensors for robotic skin, brain-computer interfaces, and social robots for therapeutic applications. His research often involves interdisciplinary collaboration between engineering, computer science, psychology, and medical professionals to create innovative solutions that address real-world challenges. Analysis of Dr. Popa's recent publications (2024-2025) reveals a strong focus on explainable AI for robotic systems, particularly in grasp failure prediction and human intent estimation. His work increasingly integrates multimodal sensing with machine learning to enhance human-robot collaboration in both manufacturing and healthcare contexts. There's a clear trajectory toward more personalized and adaptive robotic systems that can better understand human needs and respond appropriately, especially in medical applications like nursing assistance and autism intervention. Dr. Popa holds an Endowed Chair of Advanced Manufacturing, which represents a significant recognition of his contributions to the field. His research has been supported by various grants, including NSF awards such as "SCH: INT: Adaptive Partnership for the Robotic Treatment of Autism" and "MRI: Development of a Multiscale Additive Manufacturing Instrument with Integrated 3D Printing and Robotic Assembly." Dr. Popa has collaborated extensively across disciplines, particularly in his work with the NAO humanoid robot for autism intervention, which demonstrates his commitment to applying robotics to improve quality of life. He leads a research group focused on robotic systems, sensors, and human-robot interaction, with projects spanning from fundamental research in microrobotics to applied healthcare robotics.

Petra S. Dittrichمشاهده پروفایل

دانشیار

• Microfluidics
• Bioanalytics
• Lab-on-Chip Technology
• +۴ مورد دیگر

Petra S. Dittrich is an Associate Professor at the Department of Biosystems Science and Engineering, ETH Zürich, specializing in lab-on-chip technologies . Her interdisciplinary research combines microfluidics , chemical detection , and biological analysis to develop miniaturized devices for life sciences applications. She leads the Bioanalytics Group, focusing on single-cell analysis, artificial cells, and diagnostics. Education: Chemistry at Bielefeld University and Universidad de Salamanca (1993–1999) PhD: Max Planck-Institute for Biophysical Chemistry (2003) Her research interests span microfluidics , fluorescence spectroscopy , and bioanalytics . Recent publications highlight advancements in drug mixture analysis , biohybrid artificial cells , and ultrafast droplet formation for high-throughput assays. These works emphasize applications in pharmacology , infection modeling , and enzymatic kinetics . European Research Council (ERC) Starting Grant (2008) Analytica Forschungspreis (2010) Heinrich Emanuel Merck Award (2015) ERC Consolidator Grant (2016) She has mentored PhD students including Simon Berlanda and Maximilian Breitfeld , and her lab integrates microfabrication , cell immobilization , and TIRF/FCS detection for applications in diagnostics and biomedical engineering .

Eno Ebongمشاهده پروفایل

دانشیار

• Mechanobiology
• Vascular Biology
• Atherosclerosis
• +۷ مورد دیگر

Eno Ebong is an Associate Professor in the Department of Chemical Engineering at Northeastern University’s College of Engineering, with affiliations in Bioengineering and Biology. Her research focuses on endothelial cell mechanobiology, particularly the role of the glycocalyx in atherosclerosis, cancer metastasis, and neurodegenerative diseases. She employs advanced techniques like cryopreservation, TEM, fluorescence microscopy, and in vivo murine models to study glycocalyx structure-function relationships. Her recent publications highlight interdisciplinary work in nanomedicine , vascular inflammation , and substrate mechanics . Key projects include nanoparticle drug delivery targeting glycocalyx dysfunction, mechanotransduction in fibrotic environments, and glycocalyx restoration therapies. She received the CAREER: EMBRACE STEM grant in 2019 to integrate multicultural education with mechanobiology research. Prof. Ebong advises PhD and Master’s students, including Dr. Solomon Mensah, and collaborates with labs in cardiovascular and cancer research. Her lab also engages in STEM outreach , such as fifth-grade science experiments and Tucker Elementary School science fairs.

Sami Franssilaمشاهده پروفایل

استاد

• Microfabrication
• Nanotechnology
• MEMS
• +۷ مورد دیگر

Sami Franssila is a Professor in the Department of Chemistry and Materials Science at Aalto University, School of Chemical Engineering. He is also affiliated with the Microfabrication research group. His research spans advanced materials engineering, with a focus on micro- and nanofabrication technologies, surface science, and functional materials. Franssila earned his Doctoral degree in Natural Sciences from Helsinki University of Technology in 1995, a Licentiate degree from the University of Helsinki in 1990, and a Master’s degree from the same institution in 1986. His research interests include Microfabrication, Nanotechnology, MEMS, Microfluidics, Thin Film Technology, Superhydrophobic Materials, and Atomic Layer Deposition . His work often explores the design and application of nanostructured surfaces, particularly black silicon and biomimetic superhydrophobic materials, with applications in biomedical devices, energy, and environmental technologies. His recent publications (2024–2025) highlight advancements in nanojungle black silicon, air plastron stability in biofluids, and anisotropic wetting surfaces inspired by plant structures. These works demonstrate a strong trend toward biomimetic, durable superhydrophobic materials with real-world applications in challenging environments. Member of the Academy for Technical Sciences in Finland (2010) Teaching award based on student response (2009) Textbook of the year award from Helsinki University of Technology (2004) Franssila has supervised 16 theses and actively participates in academic service, including doctoral thesis oppositions, professorship evaluations, and conference organization. He has led major research projects such as N2PCON (EU Horizon Europe), CONNECT WP7, and ARMOR (Business Finland), securing funding from both national and international sources. He has also chaired the Micronano System Workshop and Superhydrophobicity and Wetting Symposium, demonstrating leadership in the research community. His research group collaborates widely across Europe and engages in interdisciplinary work linking materials science, engineering, and life sciences. The team focuses on translating fundamental surface phenomena into scalable technologies, with recent media attention on a revolutionary water-repellent 'armor' surface attracting over 100 companies.

Carlos Gonzalez Lopezمشاهده پروفایل

استادیار

• Polymer Science
• Rheology
• Polyelectrolytes
• +۳ مورد دیگر

Carlos Gonzalez Lopez is an Assistant Professor in the Department of Materials Science and Engineering at Pennsylvania State University's College of Earth and Mineral Sciences. Joined in 2024, he leads research on soft matter systems with a focus on polyelectrolytes, poly(ionic liquid) gels, and colloidal dispersions. His work bridges fundamental polymer physics with practical applications in industrial settings. PhD in Chemical Engineering, Imperial College London MSc in Experimental and Theoretical Physics, University of Cambridge Dr. Lopez's research program investigates the structure-property relationships in complex polymeric systems. His work combines advanced experimental techniques including rheology, neutron scattering, and microfluidics to understand fundamental mechanisms governing polymer behavior in solution. His expertise spans polyelectrolyte solutions, cross-linked poly(ionic liquids), polysaccharide rheology, and polymer-ion interactions, with applications ranging from industrial detergents to advanced materials design. Recent publications reveal a strong focus on polyelectrolyte behavior under varying ionic conditions, nanoparticle-polymer interactions, and the rheological properties of complex biopolymer systems. His work demonstrates consistent innovation in understanding how molecular structure translates to macroscopic material properties, with particular attention to electrostatic effects and chain conformation in solution. Julia Higgins Centenary Prize for PhD work at Imperial College, London Dr. Lopez's research has attracted significant attention, with publications in high-impact journals including Macromolecules, Angewandte Chemie, and Soft Matter. His work on polyelectrolyte solutions has established him as a rising expert in polymer physics, particularly in understanding how counterion effects influence polymer conformation and solution properties. He maintains active collaborations with researchers in Germany and the United States, continuing his interdisciplinary approach to soft matter research.

• Soft Matter Physics
• High-resolution Imaging
• Nano-science
• +۳ مورد دیگر

Professor Ashley Cadby is a faculty member in the School of Mathematical and Physical Sciences at the University of Sheffield, holding the position of Professor of Soft Matter Physics within the Department of Physics and Astronomy. Her research focuses on cutting-edge imaging techniques applied to biological systems. Her research interests center on Soft Matter Physics , High-resolution Imaging , and Nano-science , with particular emphasis on super-resolution microscopy techniques applied to biological systems. Her work bridges physics, biology, and nanotechnology to investigate cellular structures and processes at unprecedented resolution. Analysis of her recent publications reveals a consistent focus on developing and applying advanced imaging methodologies, particularly super-resolution and correlative microscopy techniques. Her research spans bacterial cell wall architecture, sperm biology, protein dynamics, and nanoscale biological structures, demonstrating interdisciplinary applications across microbiology, reproductive biology, and cellular biophysics. Professor Cadby contributes to teaching through undergraduate courses including PHY 101 Tutorials, PHY 113/114 Computing Laboratory, PHY 245 Materials, and specialized courses in Bio-Physics (PHY 411/412) and Mechanistic Biology (PHY 6120). As Biological Safety Officer and member of the IOP Nano-science group and PARC consortium, she maintains active professional engagement. She leads the Biological Physics Group research team, focusing on innovative imaging approaches to solve complex biological problems through physical methodologies.

Cari Dutcherمشاهده پروفایل

استاد

• Multiphase Flows
• Complex Fluids
• Interfacial Phenomena
• +۴ مورد دیگر

Cari Dutcher is a Professor in the Department of Mechanical Engineering and the Department of Chemical Engineering and Materials Science at the University of Minnesota's College of Science and Engineering. Her research focuses on complex fluids and multiphase flows, with current projects spanning atmospheric aerosols, agricultural sprays, and biomedical applications. Her research interests include Multiphase Flows , Complex Fluids , Interfacial Phenomena , Microfluidics , and Rheology . She employs macro- and micro-scale flow measurements and mathematical modeling to study systems such as aerosol suspensions, emulsions, foams, and polymeric solutions, with emphasis on dynamic surface tension, phase change, and surfactant transport mechanisms. Professor Dutcher leads the Multiphase Flows Research group supported by the dedicated Multiphase Flows Research Fund within the College of Science and Engineering. Her laboratory utilizes advanced microfluidic platforms and custom-built equipment including Taylor-Couette geometry for emulsion studies, focusing on experimental validation of polymer-particle interactions and encapsulation techniques for biomedical applications.

• Biochemistry
• Molecular Biology
• Aging Research
• +۳ مورد دیگر

Edgar Arriaga is a Professor in the Department of Chemistry at the University of Minnesota Twin Cities, serving as Associate Dean in the Graduate School. His research bridges chemistry, biology, and data science to advance aging research and biomedical technologies. Current projects focus on aging systems, mass cytometry, and dielectrophoretic organelle separation Collaborations include NIH NATIONAL INSTITUTE ON AGING and SPEER MEDICAL TECHNOLOGIES LLC Research Interests center on aging mechanisms, organelle dynamics, and analytical methodologies. His work integrates multi-omics approaches and mass cytometry for single-cell analysis, while developing dielectrophoretic devices for organelle separation. Key themes include cellular senescence , isoprenoid biochemistry , and nucleic acid aptamer engineering . Recent Publications (2022-2024) demonstrate expertise in: High-dimensional single-cell data analysis (CosTaL algorithm) Organelle separation using dielectrophoretic methods Aging systems characterization via mass cytometry Aptamer engineering for tumor targeting Metabolic pathway analysis in aging Grants from NIH and private industry (Speer Medical) highlight translational relevance in aging and diagnostic technologies.

• Acoustofluidics
• Medical Devices
• Micro/Nanofabrication
• +۴ مورد دیگر

James Friend is a Professor at the University of California, San Diego, holding dual appointments in the Department of Mechanical and Aerospace Engineering, Jacobs School of Engineering and the Department of Surgery, School of Medicine. He serves as the Stanford S. and Beverly P. Penner Endowed Chair in Engineering and leads the Medically Advanced Devices Laboratory in the Center for Medical Devices at UCSD. Prior to joining UCSD in November 2014, he spent 14 years as a faculty member in Japan and Australia, where he founded micro/nanofabrication facilities including the $45 million Melbourne Centre for Nanofabrication and served as inaugural director of RMIT University's $35 million MicroNano Research Facility. Jacobs School of Engineering, Department of Mechanical and Aerospace Engineering School of Medicine, Department of Surgery Stanford S. and Beverly P. Penner Endowed Chair in Engineering Director, Medically Advanced Devices Laboratory Professor Friend's research focuses on exploring and exploiting acoustic phenomena at small scales, primarily for biomedical applications. His work spans acoustofluidics, medical device development, micro/nanofabrication, and the application of surface acoustic waves for diagnostics, drug delivery, and therapeutic interventions. He has pioneered techniques for ultrasound neuromodulation, point-of-care diagnostics, and microscale fluid manipulation with applications in neurology, oncology, and pediatrics. His research bridges fundamental acoustic science with practical clinical solutions, emphasizing translational impact. His recent publications reveal a strong emphasis on advancing acoustofluidic technologies for biomedical applications. Key trends include developing point-of-care diagnostic platforms for neurodegenerative diseases, creating novel ultrasound-based neural modulation techniques, and engineering microscale propulsion systems. His work also explores fundamental aspects of acoustic wave behavior at micro and nanoscales, with applications ranging from cell manipulation to battery technology enhancement. The interdisciplinary nature of his research spans engineering, physics, neuroscience, and clinical medicine. AIAA Jefferson Goblet Student Paper Award and ASME Best Paper Award Multiple excellence awards from Monash Faculty of Engineering (2006, 2008, 2011) Future Leader award from Davos Future Summit (2008) Top 10 emerging scientific leader of Australia (2009) Top 50 papers of Applied Physics Letters past 50 years (2012) IEEE Carl Hellmuth Hertz Ultrasonics Award (2015) IEEE Fellow (2018) Highly cited author by Royal Society of Chemistry (2020) UCSD Distinguished Teaching Award (2021) Professor Friend currently supervises 7 PhD students and 1 post-doc in his Medically Advanced Devices Laboratory. Over his career, he has successfully completed 37 postgraduate students and supervised 23 postdoctoral researchers. His research has been supported by over $29 million in competitive grant funding, reflecting the significance and impact of his work. His laboratory operates at the intersection of engineering and medicine, with strong collaborations across disciplines to translate fundamental discoveries into practical medical solutions. The Medically Advanced Devices Laboratory, which Professor Friend leads, focuses on developing innovative medical devices that leverage acoustic phenomena. The lab has developed handheld acoustofluidic circuits, novel centrifugation and separation techniques using omnidirectional spiral surface acoustic waves, and acoustogeometric streaming technologies. Recent projects include superfast battery recharging systems using surface acoustic waves and point-of-care diagnostic platforms for Alzheimer's disease detection. The laboratory maintains strong industry and clinical partnerships to accelerate the translation of research into practical medical applications.

• Marine Biotechnology
• Infectomics
• Host-Pathogen Interactions
• +۷ مورد دیگر

Jonathan Hira is a Postdoctoral Researcher at Inland Norway University of Applied Sciences, specializing in marine bioprospecting and host-pathogen infectomics. His interdisciplinary work focuses on rapid diagnostics through advanced technologies such as microfluidics, flow cytometry, and next-generation sequencing (NGS). He has made significant contributions to microbial diagnostics, including the discovery of the pathogenic bacterial species Vibrio echinoideorum , identification of a cellular source for an anticardiotoxic drug, and development of a single-cell phenotypic method for antibiotic heteroresistance studies. He is also advancing laboratory automation using robotics and AI. Education: PhD in Natural Sciences (Marine Biotechnology) from UiT The Arctic University of Norway (2019), MSc in Molecular Medicine (Anti-cancer Drug Screening) from NTNU (2013), and MSc in Biotechnology (Computational Biology) from North South University (2010). Certifications: Single Cell RNA-Seq Analysis (University of Edinburgh), Hands-on Data Analysis for Metabolic Profiling (Imperial College London), R Programming AZ™ (Udemy), High Throughput Sequencing of Non-model Organisms (Nord University), and Foundation Course in University Pedagogy (UiT, 2024). Grant: Co-awarded 1.2 million NOK for the BacPac (Bacteria Capturing Programmable Artificial Cell System) project, collaborating with UiT and NCMM Oslo.

• Extracellular vesicle biology
• Neurodegenerative diseases
• Biomarker discovery
• +۵ مورد دیگر

Suman Dutta, M.Sc., Ph.D., is a Researcher at the Nuffield Department of Clinical Neurosciences (NDCN) at the University of Oxford, where he leads research in the Molecular Neurodegeneration Research Group. His academic journey spans multiple international institutions, including previous research positions at the University of California Los Angeles (UCLA), Mahidol University in Thailand, and Hallym University in South Korea. Dr. Dutta's research focuses on extracellular vesicle biology, particularly analyzing brain-derived blood exosomes in neurodegenerative diseases such as Parkinson's disease and Multiple System Atrophy. His work aims to isolate and characterize exosomes released by specific brain cells into the bloodstream and identify signature biomolecules that could serve as diagnostic tools. His current research specifically targets biomarker discovery for stratifying Parkinson's disease using EVs from iPSC-based models and patient samples. His publication record shows a strong focus on exosome-based biomarker development for neurodegenerative diseases, with recent work emphasizing α-synuclein pathology, novel detection methodologies like electrochemiluminescence ELISA, and the challenges of translating EV research into clinical diagnostics. His research bridges molecular neuroscience with practical diagnostic applications. Dr. Dutta's scientific contributions center on developing blood-based diagnostic approaches for neurodegenerative conditions, with particular emphasis on differentiating between similar disorders like Parkinson's disease and Multiple System Atrophy through exosome analysis. His work represents a promising avenue for non-invasive diagnostics in neurology. His research methodology combines advanced techniques including ultrasensitive electro-chemiluminescent ELISA, miRNA assays, mass spectrometry, lipidomics, and SIMOA technology to characterize exosomal cargo. This multidisciplinary approach positions his work at the intersection of molecular neuroscience, diagnostic technology development, and clinical neurology.

• Semiconductor Materials
• Nanomaterials
• Energetic Materials
• +۴ مورد دیگر

Professor Hüseyin Kızıl is affiliated with Istanbul Technical University as a faculty member in the Department of Metallurgical and Materials Engineering under the College of Engineering. His academic career spans over two decades, including administrative duties as Vice Rector (2020). Research Interests : Semiconductor Materials, Nanomaterials, Energetic Materials, MEMS/Microsystem Technologies, Additive Manufacturing, and Battery Materials development. His work focuses on advanced materials for energy storage (Li-ion/Sodium-ion batteries) and additive manufacturing of metal alloys. Scientific Awards : Technology Award, Elginkan Foundation (2012) Research Projects include: Development of Cobalt-Free Cathode Materials, Optimization of Copper Nanowire Synthesis, Additive Manufacturing of Aluminum Alloys, and Microfluidic Systems for Medical Applications. Recent Publications (2023-2025) cover: Fatigue analysis in metal alloys, pseudocapacitive sodium-ion storage, iron-doped anodes, nickel oxide nanofibers, and process-structure-property relationships in additive manufacturing. Keywords include Additive Manufacturing, Nanofibers, Electrochemistry, Composite Materials, Metal Alloys, and Microfluidics.

• Biomaterials
• Diabetes
• Immunoengineering
• +۷ مورد دیگر

Jessica Weaver is an Associate Professor in the School of Biological and Health Systems Engineering at Arizona State University. Her research focuses on integrating biomaterials, drug delivery, and tissue/immune engineering to develop functional, immune-protected cell therapies. She teaches courses in tissue engineering, regenerative medicine, and advanced biomedical topics while leading research on immunomodulatory biomaterials for diabetes treatment and islet transplantation. Education: PhD from the University of Miami. Research Interests: Weaver specializes in creating synthetic poly(ethylene glycol) hydrogels for cell encapsulation, engineering immunomodulatory strategies to eliminate chronic immunosuppression, and developing vascularized macroencapsulation devices for islet transplantation. Her work spans diabetes therapy, placental organoid engineering, and advanced biofabrication techniques. Publication Trends: Recent articles highlight innovations in injection-molded hydrogels for cell therapy geometries, oxygen-quantifying macroencapsulation devices, immune-tolerant placental cell transplantation, and PD-1 signaling modulation for autoimmune applications. Labs and Teams: Affiliated with Arizona State University's School of Biological and Health Systems Engineering, Weaver collaborates with interdisciplinary teams in biomaterials, immunology, and regenerative medicine at the Tempe campus.

Stephen Ebbensمشاهده پروفایل

مدرس ارشد

• Materials Science
• Active Matter
• Polymers
• +۶ مورد دیگر

Dr. Stephen Ebbens is a Senior Lecturer at the University of Sheffield within the School of Chemical, Materials and Biological Engineering. His research spans experimental materials science and active matter, with a focus on catalytic colloids , microfluidic devices , and high-value thin film coatings for healthcare and environmental applications. PhD in surface science from University of Durham (2000) Postdoctoral work in Physics Department (2008) and Chemical and Biological Engineering (2009) Established independent research group via EPSRC and University fellowships Research Themes: Active Matter: Autonomous micro-swimmers, boundary steering, gravitaxis, and bubble propulsion for targeted drug delivery and environmental remediation. Thin Film Coatings: Roll-to-roll slot die coating, machine learning optimization, and self-assembled structures for energy storage/generation. Scientific Contributions: Pioneering work on catalytic Janus motors, reactive inkjet printing of silk-based devices, and experimental characterization of colloidal motion. Key publications in Nature Communications , Advanced Functional Materials , and Physical Review E . Collaborations: Partnerships with industry (Ossila Ltd.) and academic institutions (Loughborough University, Kroto Centre for confocal microscopy).

• Pharmaceutical Physical Chemistry
• Drug Delivery Systems
• Hydrogels
• +۵ مورد دیگر

Per Hansson is a Professor at Uppsala University in the Department of Medicinal Chemistry; Pharmaceutical Physical Chemistry. His research focuses on pharmaceutical physical chemistry with emphasis on drug delivery systems, particularly hydrogels and microgels for controlled drug release applications. His laboratory is based at the Biomedical Center (BMC) in Uppsala, where he conducts research at the intersection of polymer science, physical chemistry, and pharmaceutical technology. Professor Hansson's research program centers on developing and characterizing advanced drug delivery systems that address key challenges in pharmaceutical formulation. His primary focus involves understanding the physical chemistry of drug-polymer interactions, particularly in polyelectrolyte systems. He has pioneered the use of small-angle and ultra small-angle X-ray scattering techniques to characterize pharmaceutical materials at the nanoscale. His work on hydrogels that mimic subcutaneous interstitial space has created more predictive models for studying peptide drug delivery. He has also developed innovative microfluidic platforms for investigating drug release mechanisms and peptide-polymer interactions. His research spans from fundamental studies of phase behavior in polymer-drug systems to applied research on specific delivery platforms for anticancer drugs and antidepressants. Analysis of Professor Hansson's recent publications (2020-2025) reveals a strategic evolution toward increasingly complex biomimetic systems and sophisticated characterization techniques. His current work demonstrates a strong emphasis on creating physiologically relevant models for subcutaneous drug delivery, with particular attention to peptide therapeutics. He has successfully integrated multiple advanced methodologies including X-ray scattering, FRAP analysis, and microfluidics to create a comprehensive understanding of drug transport and release mechanisms in complex biomimetic environments. His publications consistently address both fundamental physical chemistry questions and their practical pharmaceutical applications. Professor Hansson has made significant contributions to understanding how drug properties influence loading and release from microgel carriers, with particular insights into amphiphilic drugs and peptide therapeutics. His theoretical models of phase behavior in polyelectrolyte gels have advanced the field's understanding of responsive drug delivery systems. His work on drug-eluting beads has provided valuable insights into controlled release mechanisms for clinical applications.