Find Academic Supervisors

• Pilot Wave Dynamics
• Fluid Dynamics
• Hydrodynamics
• +3 more

Anand Oza is an Associate Professor in the Department of Mathematical Sciences at the New Jersey Institute of Technology (NJIT) , within the College of Science and Liberal Arts . His research focuses on pilot-wave dynamics , fluid dynamics , and nonlinear systems , with particular emphasis on hydrodynamic quantum analogs, collective dynamics in fluid flows, and wave-particle interactions. He has secured significant grants, including awards from the Simons Foundation (2018–present) and the National Science Foundation (NSF) for projects like Modeling and Simulation of Interacting Wings (2021–2025). Key research areas include: Walking droplet behavior in pilot-wave systems Hydrodynamic interactions in flapping swimmers Microgravity studies of colloidal mixtures Biophysics of bird lung fluid dynamics Notable contributions include theoretical and experimental studies on capillary surfers, exponential mixing in pilot-wave systems, and vortex sheet simulations of flapping plates. His work has been featured in Physical Review Fluids , Nonlinearity , and Communications on Pure and Applied Mathematics . Media highlights include collaborations on bird respiratory systems with Prof. C. Frederick, explaining unidirectional breathing mechanisms in birds. Current projects explore collective dynamics in inertial fluid flows and phase transitions in microgravity environments. He teaches advanced applied mathematics courses at NJIT, including Partial Differential Equations and Linear Algebra .

Jessica Valle OreroView profile

Assistant Professor

• Biophysics
• Structural Biology
• DNA Dynamics
• +3 more

Jessica Valle Orero is an Assistant Professor at the American University of Paris (AUP) in the Department of Computer Science, Mathematics, and Environmental Science. She obtained her PhD in 2012 from the École Normale Supérieure de Lyon, followed by postdoctoral research at Columbia University and the École Normale Supérieure in Paris. Her research focuses on the physics of biomolecules, particularly DNA and protein dynamics, employing advanced techniques like neutron scattering and single-molecule magnetic tweezers. She has taught courses at institutions including Columbia University and AUP since 2022. Education: MSci Physics (UCL, 2008), PhD Physics (ENS Lyon/ILL, 2012) Postdoctoral experience: Fernandez Lab, Columbia University (2013–2017); Biophysics Lab, ENS Paris (2018–2022) Research interests include DNA fiber dynamics, protein folding mechanics, and the interplay between molecular and macroscopic scales. Her work bridges experimental and theoretical approaches, with contributions to understanding DNA glass transitions and mechanical protein aging. Current research is conducted at ENS Paris, focusing on biophysical mechanisms of biomolecular systems. Teaching spans applied statistics, environmental science, and foundational math courses at AUP. Over 30 peer-reviewed publications highlight her expertise in single-molecule biophysics and structural biology.

Mark L. AdamsView profile

Professor

• Sensors and Transducers
• Optics
• RF Devices
• +4 more

Mark L. Adams is a Professor and Godbold Professor in the Department of Electrical and Computer Engineering at Auburn University's Samuel Ginn College of Engineering. He serves as Director of the Alabama Micro/Nano Science and Technology Center (AMSTC) and leads the STORM Lab (Sensors, Transducers, Optics, RF and MEMS). His affiliations include the Auburn University Applied Research Institute (AUARI), where he contributes to defense-related projects like the $1.1M U.S. Army Redstone Test Center initiative. Adams holds a Ph.D. and M.S. in Electrical Engineering from Caltech and a B.S. from Auburn University. His research spans MEMS, quantum cryptography, RF devices, and wireless sensor networks, with recent work focusing on quantum encryption systems and atmospheric sensing platforms. Laboratory facilities include AMSTC's quantum fabrication capabilities and the STORM Lab's micro/nano fabrication resources. His publication trends reveal a strong emphasis on MEMS-based sensors (40% of recent work), quantum applications (25%), and aerospace instrumentation (20%). Key themes include microfabrication for cryogenic environments, vibration isolation techniques, and satellite communication systems. Notable projects include the Globalsense atmospheric monitoring network and quantum key distribution research explaining satellite-based encryption over 700-mile distances. As a mentor, Adams actively recruits undergraduate and graduate researchers through the STORM Lab, focusing on hands-on projects in sensor development. His lab collaborates with defense agencies via AUARI and participates in quantum infrastructure expansion through AMSTC. Current initiatives include enhancing quantum capabilities for the Alabama Micro/Nano Science and Technology Center and developing wireless head impact monitoring systems.

Trisha SainView profile

Associate Professor

• Multiscale and Multiphysics Modeling
• Polymer and Composite Materials
• Fracture Mechanics
• +6 more

Trisha Sain is an Associate Professor in the Department of Mechanical and Aerospace Engineering at Michigan Technological University. She earned her PhD in Civil Engineering (2008), MSc in Civil Engineering (2003), and BE in Civil Engineering (2001) from Indian institutions. Joined Michigan Tech in August 2016 Previous Assistant Professor at North Carolina A&T State University (2013-2016) Postdoctoral research at University of Michigan (2011-2013) and Technical University of Catalunya (2009-2011) Her research focuses on multiscale/multiphysics modeling of material behavior, including: Fracture, damage, and impact in polymers and composites Biomedical degradation of metallic implants Polymer curing process modeling Phase-field fracture analysis Uncertainty quantification in material models Current trends in her publications include: Developing phase-field models for complex crack propagation in composites Studying thermo-oxidative degradation of polymers Investigating 3D printed polymer architectures Analyzing chemically strengthened glass fracture Creating predictive models for polymer curing Understanding viscoplastic damage in semicrystalline polymers She is supported by grants from: Air Force Office of Scientific Research Army Research Office Her work combines computational modeling with experimental validation, focusing on predictive material behavior under various loading and environmental conditions.

• Material Science
• Metrology Systems
• Manufacturing Engineering
• +3 more

Bekim Gashi is an Assistant Professor at the CEES School of Engineering, specializing in measurement methods, metrology systems, and manufacturing engineering with a focus on sustainability. His research emphasizes advancing instrumentation for engineering systems, analyzing measurement systems' performance, and developing uncertainty budgets. He holds a PhD in Precision Machine Tools from Cranfield University (2009). Education: Doctorate in Precision Machine Tools (Cranfield University, 2005–2008). He serves as a Standard Committee Member at the British Standards Institute since 2017 and is an Associate Editor for the journal Measurement (2018–present). Research interests include polymer networks (epoxy, rubber), forensic materials, thermal analysis, and precision instrumentation. His work spans forensic applications like DNA-trapping coatings and high-temperature composite studies. Over 15 years, he has published on topics ranging from acoustic emission in composites to ISO standardization. His articles highlight trends in epoxy material science, forensic engineering, and metrology system optimization. Awards include an h-index of 64 and 4, citations. He advises PhD students and collaborates internationally on dimensional product specifications.

Fouad TeymourView profile

Professor

• Polymer Reaction Engineering
• Nonlinear Dynamics
• Biomedical Engineering
• +4 more

Fouad Teymour is the S.C. Johnson Professor of Chemical Engineering and Director of the Center for Complex Systems and Dynamics at Illinois Institute of Technology. He holds affiliations with multiple interdisciplinary centers, including the Pritzker Institute of Biomedical Science and Engineering. His research focuses on polymer reaction engineering, nonlinear dynamics, and biomedical applications of hydrogels. Education: Ph.D. (Chemical Engineering, University of Wisconsin-Madison, 1989); M.S. and B.S. (Cairo University, Egypt, 1982 and 1979). Research Interests: Hydrogel nanoparticles for drug delivery (e.g., sepsis prevention, biofilm suppression) Nonlinear polymerization modeling and high-temperature polymerization Agent-based systems for complex process control Biological engineering for food/energy security (e.g., algae photobioreactors) Publications: Over 80 peer-reviewed articles, emphasizing interdisciplinary applications of polymer science in healthcare, environmental engineering, and complex systems analysis. Collaborations: Active partnerships with clinicians and biomedical engineers on gut pathogen mitigation and biomaterials development. Labs/Teams: Leads the Polymer Reaction Engineering Lab and collaborates with the Center for Sports Innovation.

Suzana Petrović SavićView profile

Associate Professor

• Production Engineering
• Manufacturing Processes
• Tribology
• +3 more

Suzana Petrović Savić is an Associate Professor at the Department of Production Engineering, Faculty of Engineering, University of Kragujevac, Serbia. Her work integrates advanced manufacturing processes, materials science, and biomedical engineering with computational techniques like neural networks and machine learning. Her research focuses on optimizing machining processes, tribological behavior analysis, and biomechanical applications such as gait analysis and prosthetic design. Notable areas include abrasive waterjet machining, temperature prediction in milling, and AI-driven diagnostics for respiratory and musculoskeletal disorders. She also contributes to the development of smart healthcare technologies and IoT-enabled quality management systems. Recent studies emphasize interdisciplinary approaches, combining experimental mechanics with data-driven modeling. Her work spans from material characterization (e.g., dental ceramics, polymers) to clinical applications in orthopedics and neonatal care. Despite no awards listed, her publications reflect sustained contributions to production engineering and biomedical innovation. No formal advisee list or grant details are provided, but her involvement in laboratory activities related to the Faculty’s research centers is implied through her departmental affiliation.

Ilarion MihăilăView profile

Researcher

• Plasma Physics
• Laser Ablation
• Optical Diagnostics
• +4 more

Ilarion Mihăilă is a Scientific Researcher III at the Department of Exact Sciences and Natural Sciences, CERNESIM Center, Alexandru Ioan Cuza University of Iasi. He specializes in plasma physics, with expertise in plasma diagnostics, laser ablation, and thin film deposition. His work spans environmental, biomedical, and materials science applications. PhD in Physics (Plasma Physics), Faculty of Science and Engineering, Saga University, Japan Master’s and Bachelor’s in Physics (Plasma Physics), Faculty of Physics, Alexandru Ioan Cuza University of Iasi Research interests: Production and diagnosis of DC, AC, and RF plasmas (low pressure/atmospheric pressure), laser ablation for thin film deposition, mass spectrometry, and applications in pollutant destruction, biomedical treatments, and astrophysical carbon dust analogues. His studies explore plasma-seed interactions, flexible electronics substrates, and plasma-activated media in cancer therapy. Prominent article trends: Recent works focus on non-thermal plasma applications in agriculture (quinoa seed germination under saline stress), biomedical innovations (plasma-assisted chemotherapy), and materials science (surface relief gratings for flexible electronics). His plasma jet diagnostics and computational modeling address industrial and environmental challenges, while earlier studies emphasize magnetron sputtering, laser ablation, and fundamental plasma physics.

Britta TrappmannView profile

Professor

• 3D Tissue Engineering
• Biomaterials Science
• Cell-ECM Interactions
• +3 more

Prof. Dr. Britta Trappmann is a newly appointed Professor for Complex 3D Cellular Systems at TU Dortmund University since April 2023. Her position is affiliated with the Department of Chemistry and Chemical Biology and the Dortmund Life Science Center (DOLCE). She holds a PhD in Chemistry from the University of Cambridge (2011) and a diploma in Chemistry from TU Dortmund (2007). Her research focuses on 3D tissue models, artificial blood vessel development, cell-ECM interactions, and biomaterial design. Professional Journey: 2016-2023: Group Leader at Max Planck Institute for Molecular Biomedicine (Münster) 2013-2016: Postdoc at Boston University & Harvard Wyss Institute (USA) 2012-2013: Postdoc at University of Pennsylvania (USA) Research Highlights: Pioneering work on biomimetic hydrogels mimicking ECM properties Development of tunable materials for studying vascular formation Investigations into mechanotransduction mechanisms in endothelial cells Creation of ex utero embryo-trophoblast co-culture systems Publications Trends: Recent work emphasizes hydrogel-based models for angiogenesis and mechanobiology. Key themes include ECM design principles, force-regulated signaling pathways, and biomaterials enabling controlled cell behavior. Over 20 scientific articles published since 2010 span materials science, cell biology, and biomedical engineering disciplines. Lab & Collaborations: Leads the Complex 3D Cellular Systems group at TU Dortmund, focusing on interdisciplinary research combining chemistry, engineering, and biology. Active collaborations with Max Planck Institutes and institutions in the U.S. on regenerative medicine applications.

Alessandro SorrentiView profile

Lecturer

• Supramolecular Chemistry
• Organic Chemistry
• Colloid Chemistry
• +4 more

Alessandro Sorrenti is an Assistant Professor (Profesor Lector) in the Department of Organic Chemistry at Universitat de Barcelona (UB). He holds a PhD in Chemistry from the University of Rome 'La Sapienza' (2008) and has held postdoctoral positions at institutions including the Universitat de Barcelona, ETH-Zürich, and Strasbourg. His research focuses on supramolecular chemistry, non-equilibrium systems, and microfluidic technologies, particularly in self-assembled materials and dissipative systems. He leads the ChemInFlow group, advancing flow-based synthesis and non-equilibrium material design. Education: PhD in Chemistry (2008, Rome 'La Sapienza'), followed by postdoctoral training in Barcelona, Strasbourg (Marie Sklodowska-Curie Fellowship), and ETH-Zürich. Joined UB in 2020 after Dr. Puigmartí-Luis' ICREA Professor appointment. Research interests include: supramolecular polymers under non-equilibrium conditions, microfluidic nanoreactors, and biomimetic synthesis of porous materials. Recent work explores DNA-based systems and COF nanoparticles. His group emphasizes interdisciplinary approaches at the chemistry-engineering interface. Key contributions include pioneering studies on dissipative supramolecular systems and flow chemistry innovations. Collaborations span academic and industrial partners in Europe.

Jeffrey D. VarnerView profile

Professor

• Physicochemical modeling of signal transduction
• Molecular and Cellular Engineering
• Systems and Synthetic Biology
• +1 more

Jeffrey D. Varner is a Professor in the Department of Chemical and Biomolecular Engineering at Cornell University's College of Engineering. His research focuses on developing physiochemical modeling tools to rationally reprogram signal flow in human signal transduction networks. Research Focus: Creation of physiochemical models as hypothesis-generation engines for targeted reprogramming strategies in human signal transduction architectures. Applications in cancer research and therapeutic development. Educational Background: B.S. in Chemistry and Mathematics from Purdue University (1992), M.Sc. (1995) and Ph.D. (1997) in Chemical Engineering from Purdue University. Postdoctoral researcher at ETH-Zurich Department of Biology. Industry Experience: Former Scientist at Genencor International's Oncology unit, involved in discovery of novel cancer targets and preclinical/clinical studies of protein therapeutics. Awards and Honors: McNair Diversity Programs Undergraduate Research Mentorship Award (2014) Mr. and Mrs. Richard Tucker College of Engineering Teaching Excellence Award (2010) NSF Career Award (2009)

• Elastomer Technology
• Rubber Compounding
• Silica Fillers
• +3 more

Wisut Kaewsakul is an Assistant Professor specializing in Elastomer Technology and Engineering at the University of Twente. His research focuses on advancing rubber compounding techniques, particularly with silica-reinforced natural rubber for tire applications. He explores material degradation mechanisms during mixing, interfacial interactions between fillers and polymers, and sustainable tire development for extreme environments like Mars. Education details are not explicitly provided, but his extensive research output since 2011 indicates a strong academic background in polymer science and engineering. His research interests include silica-filler compatibility, rubber-silica silanization reactions, and self-healing modifiers for enhancing compound durability. Collaborations span global institutions, focusing on tire tread performance, polymer processing, and nanocomposite development. Key Research Areas: Low rolling resistance tire materials Silica-reinforced natural rubber compounding Self-healing elastomers Mars-optimized rubber formulations Antioxidant and stabilizer mechanisms Recent work emphasizes degradation mitigation during rubber processing, synergistic effects of hybrid fillers, and piezoelectric energy harvesting in tires. He has supervised 6 academic works and actively participates in international conferences, presenting findings on tire tread dynamics and material innovation. Notable contributions include studies on silica dispersion optimization, functionalized rubber-silica interfaces, and the role of additives like DPG in compound performance. His research bridges fundamental polymer science with applied tire engineering, aiming to improve material sustainability and mechanical efficiency.

Jeppe KariView profile

Associate Professor

• Biophysical Chemistry
• Biocatalysis
• Enzyme Kinetics
• +3 more

Jeppe Kari is an Associate Professor in the Department of Science and Environment Chemistry at Roskilde University. His research focuses on biophysical chemistry, particularly biocatalysis and interfacial enzyme kinetics. He aims to bridge inorganic heterogeneous catalysis and biocatalysis to advance heterogeneous biocatalysis as a field. His work emphasizes understanding enzyme behavior at solid-liquid interfaces and optimizing enzyme systems for industrial applications. Key research areas include enzymatic hydrolysis of cellulose, Sabatier principle applications, and computational methods for predicting enzyme activity. Collaborations span international institutions, as indicated by his network of external research partners. His publications highlight advancements in enzyme kinetics modeling, substrate interactions, and enzyme engineering. Notable contributions include studies on cellulase efficiency limitations, ITC analysis of polydisperse systems, and virtual bioprospecting of interfacial enzymes. Kari’s lab integrates computational and experimental approaches to address challenges in biocatalytic processes. Education: Holds an MSc and PhD in relevant fields (specific institutions not detailed in text). No awards or grants explicitly listed. Advises on projects related to cellulase optimization and enzyme kinetics. Maintains a research website at www.jeppekari.com .

Ismael Díez PérezView profile

Professor

• BioMolecular Electronics
• Nanochemistry
• Electrochemistry
• +3 more

Ismael Díez Pérez is a Professor of Nanochemistry and Head of the Department of Chemistry at King's College London. He also serves as Co-Director of the BiPAS CDT (Biological Physics Across Scales Centre for Doctoral Training) and Deputy Head of Department. His academic journey includes a degree in Chemistry from the University of Barcelona (2001), postdoctoral training at Arizona State University (Marie-Curie Fellowship), and senior research roles at the Institute for Bioengineering of Catalonia (IBEC). Education highlights: BSc Chemistry (University of Barcelona, 2001); PhD training at Lawrence Berkeley National Lab and University Pierre Marie-Curie, France. His research focuses on understanding bioelectricity mechanisms through single-molecule junctions, integrating molecular biology, magnetometry, and bioelectrochemistry. Key projects include studying electron pathways in redox proteins, spin-polarized transport in biological systems, and electrical transduction of enzymatic catalysis. Research Group: Díez Pérez Group Labs: London Centre for Nanotechnology Labs/Teams: BiPAS CDT, BBSRC-funded projects (BIO-CISS, Isma Diez Perez - NMES Chemistry 2), ERC Consolidator Award project His articles explore advanced electrochemical methods, catalytic systems, and molecular junction innovations. Recent work emphasizes piezoelectrostatic catalysis, spin-dependent transport in biomolecules, and applications in drug design. Scientific Awards: ISE Hans-Jürgen-Engell Prize (2008), ERC Consolidator Award (2017), Jaroslav Heyrovsky Prize (2016) Advising and grants: Supervises multiple postgraduate researchers in interdisciplinary chemistry projects. Leads prestigious grants including the EU's Fields4CAT (2019–2025) and BBSRC-funded BIO-CISS (2023–2026). His lab's work spans from foundational charge transport studies to applied innovations like smartphone-based biochemical assays.

• Materials Science
• Polymer Chemistry
• Biobased Materials
• +4 more

Dr. Thomas Kodger is an Associate Professor at Wageningen University & Research, leading the Physical Chemistry and Soft Matter laboratory. His research focuses on interdisciplinary material science, emphasizing applicable soft matter physics with a focus on sustainable biobased adhesives, photonic colorants, self-healing polymers, and nanomaterials for renewable energy. He joined WUR in 2017 and has collaborated on projects such as marine adhesive composites for ecological restoration and pest-resistant plant coatings. His work bridges fundamental and applied science, addressing environmental and agricultural challenges. Education & Teaching: He oversees MSc programs including internships and research practices in Physical Chemistry and Soft Matter, as well as courses on material design and research methods in soft matter. Research Interests: Kodger’s lab explores biobased materials, colloidal systems, and photonic structures. Key projects include developing biodegradable whitening agents as sustainable alternatives to titanium dioxide and creating adhesive solutions using plant-derived oils to combat pest insects. He also investigates the mechanical properties of meat analogues and 3D-printable polymer networks. Recent Grants: New NWO XS grant (2025): Seacrete project for oyster restoration MSCA ETN JDN Grant (2025): Sustainable agricultural materials Labs & Teams: His research group operates within the Physical Chemistry and Soft Matter subdivision, focusing on advanced characterization techniques like microfluidics and real-time imaging of material dynamics. Collaborations span institutions including Leiden University and industry partners.