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Aldo Stefano Spatafora SalazarView profile

Researcher

• Soft Matter Physics
• Colloidal Dynamics
• Superparamagnetic Materials
• +4 more

Aldo Stefano Spatafora Salazar is a Researcher in the Department of Chemical & Biomolecular Engineering at Rice University, affiliated with Prof. Sibani Lisa Biswal’s research group. He holds a B.S. in Biotechnology and Bioprocess Engineering from Tecnologico de Monterrey (2016) and a Ph.D. in Chemical and Biomolecular Engineering from Rice University (2023). Education : Ph.D., Chemical and Biomolecular Engineering, Rice University (2023) B.S., Biotechnology and Bioprocess Engineering, Tecnologico de Monterrey (2016) Research Interests : Focuses on elucidating dynamics and material properties of soft matter systems, including colloidal suspensions, emulsions, foams, and superparamagnetic colloids. His work integrates experimental and simulation approaches to develop micro-robots and stimuli-responsive materials. Current projects explore rotational dynamics under time-varying magnetic fields, hierarchical colloidal assemblies, and material response to external stimuli. Research Contributions : Recent articles emphasize magnetic field interactions, colloidal dynamics, and material characterization. Key themes include slow relaxation times, rotational behavior in complex fields, and paramagnetic chain coiling. Labs & Teams : Active member of the Biswal Research Group, collaborating on interdisciplinary material science projects.

Leo J. van IJzendoornView profile

Associate Professor

• Biosensing
• Biophysics
• Nanotechnology
• +3 more

Leo J. van IJzendoorn is an Associate Professor in Applied Physics and Science Education at Eindhoven University of Technology (TU/e), specializing in Particle-Based Biosensing and Biophysics. He co-leads the Molecular Biosensing for Medical Diagnostics group, a joint initiative between Applied Physics and Biomedical Engineering departments. His work focuses on biomolecule detection in complex environments using magnetic and non-magnetic particles, with applications in point-of-care diagnostics and continuous biomarker monitoring. Academically, he holds a combined Bachelor’s in Chemistry and Physics from Leiden University (1979), followed by a Master’s (1981) and PhD in Physics (1985) in Laboratory Astrophysics. He transitioned to TU/e in 1991 as an Assistant Professor, becoming Associate Professor in 1997. He co-founded the Molecular Biosensing group in 2004 and is a core member of TU/e’s Institute for Complex Molecular Systems. His research integrates thermal particle motion, magnetic actuation, and optical microscopy to study biomolecular interactions. Recent work emphasizes real-time biosensing systems and nanomechanical analysis via magnetic tweezers. Over 212 publications and 3,943 citations highlight his contributions to biosensing technologies and nanotechnology. No scientific awards are explicitly listed, though his work has garnered media attention, including coverage of lab-on-a-chip advancements and particle binding innovations. He has supervised 81 students and actively participates in interdisciplinary collaborations across chemistry, physics, and biomedical engineering.

Mercedes Velázquez SalicioView profile

Professor

• Colloid and Interface Chemistry
• Nanoparticle Films
• Graphene Synthesis
• +6 more

María Mercedes Velázquez Salicio is a full professor in the Department of Chemical Physics at the University of Salamanca since 2011. Her research focuses on colloid and interface chemistry, nanoparticle films, and advanced materials like graphene. She has led projects on self-assembled surfactant/polymer systems and participated in industry collaborations (e.g., Grupo Antolín) for graphene-based technologies. Education: PhD in Chemistry from the University of Salamanca (postdoc at the Centre for Structural Chemistry, Lisbon, 1987–1990). Prior roles include Associate Professor (1991–2011) and visiting positions at Universidad Complutense de Madrid. Key research areas include Langmuir-Blodgett film fabrication, CO₂ capture using graphene-based hybrids, and photoluminescence properties of nanomaterials. Her work bridges fundamental colloid science with applied nanotechnology for electronics and environmental applications. Recent projects involve synthesizing chemical graphene from nanofibers (GRAnPHTEC) and developing graphene-silver hybrids for automotive devices (DINNAMIC project). Publications emphasize structural characterization (Raman spectroscopy, neutron reflectivity) and functionalization of 2D materials. No scientific awards explicitly mentioned, but her sustained contributions reflect significant academic impact.

David López DíazView profile

Researcher

• Materials Science
• Nanotechnology
• Colloid and Interface Science
• +3 more

David López Díaz is a Researcher in the Physical Chemistry Department at the University of Salamanca. He completed his PhD studies on surface properties of Langmuir and Gibbs monolayers formed by surfactant-polymer mixtures. From 2008 to 2010, he was a postdoctoral researcher at the National Autonomous University of Mexico (UNAM), studying rheological properties of surfactant mixtures and synthesizing Janus particles. His research focuses on nanomaterials, graphene oxide, colloids, and surface chemistry, with applications in energy storage, CO₂ capture, and antibacterial agents. Key techniques include Langmuir-Blodgett deposition and advanced spectroscopic methods like Raman and neutron reflectivity. His work bridges fundamental material science with environmental and biomedical applications. Research interests include: nanocomposite design, interfacial phenomena, optoelectronic properties of nanoparticles, and CO₂ adsorption mechanisms. His work emphasizes understanding chemical composition effects on material behavior, particularly in 2D materials and surface-functionalized systems. Notable contributions include studies on graphene oxide film stability at air-water interfaces and the antibacterial potential of N-doped carbon nanoparticles. He has published extensively in journals like Coatings , Journal of Colloid and Interface Science , and ACS Applied Materials and Interfaces . Advising/Grants: No formal advisees listed, though contributions to collaborative research projects are evident. No grants explicitly mentioned in text.

Kara MakiView profile

Professor

• Mathematical Modeling
• Fluid Dynamics
• Biomedical Engineering
• +3 more

Kara Maki is a Professor in the School of Mathematics and Statistics at the Rochester Institute of Technology (RIT), serving as Director of the Applied and Computational Mathematics MS Program. She holds a BS from the University of New Hampshire and MS and PhD degrees from the University of Delaware. Her research focuses on mathematical modeling of fluid dynamics, particularly tear film dynamics, droplet evaporation, and interfacial phenomena. She has contributed to understanding biological systems like ocular surfaces and respiratory models, as well as engineering applications in microfluidics and materials science. Dr. Maki teaches advanced courses such as Mathematical Modeling I & II, Differential Equations, and supervises graduate research through capstone and thesis programs. Her work bridges applied mathematics with interdisciplinary fields, including collaborations on tear film mechanics, nanoparticle behavior, and viral infection modeling. She actively engages in educational outreach through programs like the SMASH Experience for Girls, promoting STEM education for underrepresented groups. Her publications span topics from evaporation-driven flows to contact lens mechanics, with notable contributions to the Journal of Engineering Mathematics, Journal of Aerosol Science, and Langmuir. While no formal awards are listed, her research has garnered attention for its practical implications in healthcare and engineering. Ongoing projects include computational modeling of biological systems and the development of low-cost microfluidic devices.

Michael CromerView profile

Associate Professor

• Fluid Dynamics
• Rheology
• Mathematical Modeling
• +7 more

Michael Cromer is an Associate Professor in the School of Mathematics and Statistics at Rochester Institute of Technology (RIT), within the College of Science. He holds a B.S. in Mathematics from York College of Pennsylvania (2005), and a Ph.D. and M.S. in Applied Mathematics from the University of Delaware (2011). His postdoctoral research included roles at the University of California, Santa Barbara (2011–2013) and the National Institute of Standards and Technology (2013–2014). His research focuses on the modeling, analysis, and simulation of complex fluids, including wormlike micellar solutions, polymer solutions, and colloidal dispersions, with applications in oil recovery, soft body armor, and materials processing. His work has been supported by NASA and the American Chemical Society. He teaches courses such as Calculus I, Differential Equations, and Undergraduate Research in Mathematical Sciences. Key research interests include fluid dynamics, rheology, mathematical modeling, partial differential equations, and numerical methods. Notable achievements include the University Dissertation Fellowship and a National Research Council Research Associateship. His studies explore phenomena like shear thinning, elastic instabilities, and concentration fluctuations in complex flows. His advising and grants highlight collaborations in interdisciplinary research, particularly in polymer and colloidal systems. He is actively involved in mentoring undergraduate and graduate students through capstone projects and research initiatives.

Joel KoplikView profile

Professor

• Fluid Dynamics
• Colloid Science
• Molecular Dynamics Simulation
• +3 more

Joel Koplik is a Professor of Physics at the City College of New York (CCNY), affiliated with the Levich Institute. His research focuses on fluid dynamics, colloid science, and molecular dynamics simulations, particularly investigating interfacial phenomena, nanoparticle behavior, and thermocapillary migration. Recent work explores active colloids, Janus motors, and self-propulsion mechanisms at fluid interfaces. Key research areas include the dynamics of droplets under electric fields, surfactant effects on interfacial deformation, and the hydrodynamic interactions of colloids in confined geometries. His studies often bridge nanoscale and macroscopic fluid behaviors, with applications in materials science and nanotechnology. Publications highlight advancements in understanding capillary bridges, thermocapillary migration in particle-laden systems, and the design of self-propelled nanomotors. Collaborative projects, such as the 2007 proposal on nanoparticle separation using patterned surfaces, underscore his interest in experimental and computational fluid dynamics. Awards and grants are not explicitly listed, but his extensive publication record reflects sustained contributions to interdisciplinary fluid mechanics and soft matter physics.

Fanni JuranyiView profile

Researcher

• Soft Matter Physics
• Materials Science
• Colloids
• +2 more

Dr. Fanni Juranyi is a Researcher and Leader of the Soft Matter group (acting interim) at the Paul Scherrer Institute (PSI), Switzerland. She is affiliated with the FOCUS division within the Laboratory for Neutron Scattering and Imaging. Her role involves leading research activities in soft matter systems, leveraging advanced scattering techniques. Institution: Paul Scherrer Institute (PSI) Division: FOCUS Department: Department of Soft Matter Her research focuses on soft matter physics, materials science, and interdisciplinary studies of complex systems such as colloids and polymers. She coordinates experimental and theoretical investigations, likely utilizing neutron and muon scattering methods available at PSI.

Herman OfferhausView profile

Professor

• Quantum Optics
• Photonics
• Optical Sensors
• +4 more

Herman Offerhaus is a Full Professor specializing in Adaptive Quantum Optics at the University of Twente. His research focuses on photonics, optical sensors, and quantum optics applications, with contributions to fiber-optic technologies, nanoparticle analysis, and environmental monitoring. He has published extensively in high-impact journals and presented at international conferences. His work addresses challenges in sensor design, computational modeling of optical systems, and interdisciplinary applications such as water quality analysis. Offerhaus has supervised 16 academic works (students' names not listed in provided data) and collaborates with institutions globally. Datasets from his projects are archived in the 4TU.Centre for Research Data. No scientific awards are explicitly mentioned in the provided texts. His activities include organizing workshops and contributing to academic discussions on topics like DWDM systems and nanoparticle characterization.

Pawel HawrylakView profile

Professor

• Quantum Theory
• Condensed Matter Physics
• Graphene
• +7 more

Pawel Hawrylak is a Full Professor and University Research Chair in Quantum Theory of Materials, Nanostructures and Devices at the University of Ottawa. He leads the Quantum Theory Group, focusing on computational design of materials at the nanoscale, including graphene, 2D crystals, topological insulators, and quantum devices. His work integrates quantum theory, nanoelectronics, spintronics, and photonics to advance quantum computing and nanotechnology. Education: Ph.D., Condensed Matter Theory, University of Kentucky (1984) M.Sc. (with Honours), Wroclaw University of Technology (1979) Research Interests: Theoretical condensed matter physics, quantum information, quantum dots, graphene, topological quantum matter, and nanoscale device design. His group develops tools like QNANO for atomistic simulations of nanostructures. Awards & Grants: Brockhouse Medal (2002), Humboldt Research Prize (2023, 1999) NSERC Strategic Grant (2018-2021), NRC IoT Challenge Program (2022-2025) Editorial roles at Physica Status Solidi , Solid State Communications Lab & Collaborations: The Quantum Theory Group operates a local Linux cluster (Zeus/Hercules) and collaborates with institutions globally. Key projects include quantum circuits in 2D materials, spin-based qubits, and quantum simulators.

Hans M. WyssView profile

Associate Professor

• Microfluidics
• Soft Matter
• Colloidal Suspensions
• +4 more

Hans M. Wyss is an Associate Professor in Microfluidics and Soft Matter at TU/e's Department of Mechanical Engineering. He leads a research group studying meso-scale materials such as colloids, emulsions, and hydrogels using microfluidics-based tools. His work explores mechanical properties, microgel dynamics, and phoretic forces, including groundbreaking insights into the 'exclusion-zone' effect. Wyss holds a PhD from ETH Zurich and a postdoc at Harvard. He collaborates with ICMS and international groups, and partners with FrieslandCampina and Wetsus. Current projects include indoor air quality monitoring (2023–2027). Courses taught include Experimental Soft Matter and Engineering Design. His research impacts UN SDGs related to health and innovation. Education: PhD (Materials Science, ETH Zurich), Experimental Physics (ETH Zurich) Research Themes: Hydrogel mechanics, soft material rheology, microfluidic tools Key collaborations include Zhejiang University and industry partners. Notable achievements include over 3,950 citations and 90+ publications. His lab focuses on translating fundamental insights into biomedical applications like glaucoma implants.

F.G. MugeleView profile

Professor

• Physics of Complex Fluids
• Surface Science
• Wetting
• +12 more

Prof. Frieder Mugele is a full Professor of Physics of Complex Fluids at the University of Twente since 2004. He leads a research group of ~25 members at the intersection of physics, chemistry, and technological applications, focusing on fluid dynamics at interfaces across molecular to macroscopic scales. Education: PhD in Physics (University of Konstanz, 1997) Postdoctoral: Lawrence Berkeley National Laboratory (Humboldt Fellow, 1998-1999) His research spans electrowetting, dynamic wetting, drop dynamics, two-phase microfluidics, AFM spectroscopy in fluids, nanofluidics, and optofluidics. Applications include inkjet printing, immersion lithography, and lab-on-a-chip systems. He collaborates with the MESA+ Institute and contributes to i-FIT training programs in fluid dynamics. Key Scientific Recognition: Humboldt Fellow The group combines fundamental studies (e.g., confined liquids, colloidal interactions) with applied projects in industrial and biomedical contexts. His work bridges experimental techniques with theoretical modeling of interfacial fluid behavior.

Mark StoykovichView profile

Teaching Professor

• Polymer Science
• Nanomaterials
• Engineering Analysis
• +2 more

Mark Stoykovich is a Senior Instructional Professor and Director of Undergraduate Studies at the University of Chicago's Pritzker School of Molecular Engineering. He holds a PhD in Chemical Engineering from the University of Wisconsin–Madison and BS degrees from MIT. His research integrates polymer science, nanomaterials, and engineering analysis. Research focuses on block copolymer self-assembly, nanofabrication techniques, and functional materials for applications in optics, electronics, and sustainable chemistry. Key areas include printed optical systems, enzyme recycling, and stretchable electronics. Publications demonstrate advancements in polymer-based nanotechnology, such as optically diffracting hydrogels for biosensing, ionic liquid-enhanced self-assembly, and pH-switchable supramolecular materials. Recent work emphasizes sustainable biocatalysis and defect engineering in electrolytes. No scientific awards or specific student advisees are noted. He directs undergraduate programs but has no stated part-time roles.

Ji-Hwan KangView profile

Assistant Professor

• Soft Active Materials
• Bio-Inspired Systems
• Smart Sensing/Actuating Platforms
• +5 more

Dr. Ji-Hwan Kang is an Assistant Professor in the Department of Chemical Engineering at California State University, Long Beach (CSULB), part of the College of Engineering. He holds a Ph.D. in Chemical & Biomolecular Engineering from Georgia Tech (2017) and completed a postdoctoral fellowship in Polymer Science & Engineering at the University of Massachusetts Amherst (2017–20). His research focuses on developing bio-inspired soft active materials for dynamically reconfigurable systems, including untethered soft robotics, mechanical logic gates, adaptive surfaces, and drug delivery platforms. This work integrates principles from materials science, nanotechnology, and mechanical engineering to create programmable deformation and instability mechanisms. Dr. Kang’s academic background includes pioneering studies on optofluidic encapsulation, photon upconversion systems, and hierarchical nanostructured energy devices. His recent advancements include shape-morphing materials with tunable mechanical properties for self-folding and light-driven motion. His publications span topics like 3D printing via photopolymerization, elastic origami mechanics, and luminescent solar concentrators. His research trends emphasize cross-disciplinary innovation in smart materials, with a focus on light-responsive systems and energy applications. While no awards are explicitly listed, his contributions to soft robotics and adaptive materials reflect significant scholarly impact. Advising and grant details are not provided in available texts.

Vikram JadhaoView profile

Associate Professor

• Nanoscale Self-Assembly
• Soft-Matter Simulation
• Biomimetic Materials
• +2 more

Vikram Jadhao develops computational models to design advanced soft materials with applications in nanomedicine and energy technologies. Education: Ph.D. in Physics, University of Illinois at Urbana-Champaign M.S. in Physics, University of Illinois at Urbana-Champaign B.S. in Physics, Indian Institute of Technology Kharagpur His research combines molecular simulation, machine learning, and theoretical modeling to understand self-assembly processes in polymers, colloids, and biomaterials. Current projects focus on programmable nanomaterials and responsive material systems inspired by biological mechanisms. Jadhao's lab creates open-source simulation tools that bridge microscopic interactions with macroscopic material properties. Collaborative projects with experimental groups validate computational predictions and advance applications in drug delivery and stretchable electronics.