Find Academic Supervisors

• Analytical Chemistry
• Biophysics
• Environmental Chemistry
• +4 more

Mark Bier is a Research Professor and Director of the Center for Molecular Analysis in the Department of Chemistry at Carnegie Mellon University (CMU). He holds a Ph.D. from Purdue University (1988) and has been affiliated with CMU since 1996, progressing from Assistant to Associate Research Professor before becoming a Research Professor in 2010. His work focuses on mass spectrometry instrumentation development, including superconducting tunnel junction (STJ) cryodetection for heavy ion analysis and environmental applications like water quality monitoring. Research interests include nanoparticle analysis (e.g., Au clusters, viral particles), biomacromolecular complexes, and advancements in mass spectrometry detectors. Notable contributions include co-inventing the linear quadrupole ion trap (1995), now widely used, and developing the Virtual Mass Spectrometry Laboratory (VMSL) for education. He leads a dynamic research group with over 30 publications since 2000, addressing topics from environmental chemistry to bioanalytical methods. Awards include recognition for his patent on the linear ion trap. His lab collaborates on projects like the CO₂ Fence art installation to raise climate awareness and develops portable MIMS probes for fieldwork. Teaching includes courses on mass spectrometry fundamentals and instrumental analysis. Key achievements: Highest molecular weight mass spectra for polystyrene (2.2 MDa) and bacteriophage HK97 (13 MDa), STJ-based viral particle detection, and real-time biomolecule monitoring via micro-reactors. His work bridges academia and industry, with applications in virology, polymer science, and environmental protection.

Jörn DunkelView profile

Professor

• Biological Physics
• Active Matter
• Soft Matter
• +4 more

Jörn Dunkel is the MathWorks Professor of Mathematics and Professor of Applied Mathematics at the Massachusetts Institute of Technology (MIT), where he has been faculty since 2013. He holds appointments in the Department of Mathematics, with research spanning biological physics, active matter, and nonlinear dynamics. His work integrates theoretical modeling, computational approaches, and collaborative experiments to study complex systems across scales. Education: Dr. rer. nat. in Physics, Universität Augsburg (2008) Dipl. Math & Dipl. Phys, Humboldt-Universität zu Berlin (2004-2005) Visiting Student, University of Oxford (2000-2001) Research Focus: Dunkel's group develops mathematical frameworks for biological and soft matter systems, with emphasis on: emergent order in active materials; topological methods in biophysics; nonequilibrium statistical mechanics; and hydrodynamic theories of living systems. Recent breakthroughs include programmable active matter, topological control of biological networks, and entropy dynamics in living cells. Publication Trends: His 15 most recent works (2021-2024) reveal strong focus on: 1) Mechanobiology of cellular structures (membranes, nuclei), 2) Collective dynamics in active matter and biofilms, 3) Topological analysis of biological organization, and 4) Machine learning approaches for complex systems modeling. These consistently bridge mathematical theory with experimental biophysics. Awards & Honors: Schmidt Science Polymath Award (2023) Complex Systems Scholar Award, McDonnell Foundation (2016-2020) Alfred P. Sloan Research Fellowship (2015-2017) Gustav Hertz Prize, German Physical Society (2011) Multiple MIT-specific research and teaching awards Research Infrastructure: Leads the Physical Mathematics Group at MIT, collaborating with experimental labs worldwide. Regular group meetings (Thursdays) and seminar series (Physical Mathematics Seminar Tuesdays) anchor interdisciplinary research in mathematical biophysics.

Carsten MehringView profile

Adjunct Associate Professor

• Fluid Dynamics
• Combustion Engineering
• Computational Fluid Dynamics (CFD)
• +3 more

Carsten Mehring is affiliated with the University of Stuttgart as part of the Institute team, holding a contact address at Böblinger Str. 72 in Stuttgart. His academic career includes roles such as Adjunct Associate Professor (2013–2018) at the University of California, Irvine, and Adjunct Professor (2005–2006) at the University of San Diego. He has extensive industry experience, including Engineering Manager positions at Parker Aerospace and UTC Aerospace Systems, focusing on combustion and CFD/thermal analysis. Education highlights include a Ph.D. in Mechanical and Aerospace Engineering from UC Irvine (1999), an M.Sc. in Mechanical Engineering from UC Irvine (1995), and a Dipl.-Ing. in Aerospace Engineering from Universität Stuttgart (1993). He also holds management certifications from MIT and UC San Diego. His research interests span fluid dynamics, combustion, multiphase flows, and thermal systems. Notable contributions include studies on liquid sheet instability, aerosol dispersion, and heat exchanger optimization. Recent publications (2020–2025) emphasize CFD modeling, aerosol dynamics, and advanced atomization techniques. Dr. Mehring has been recognized with eight US patents, the Artur Fischer Inventor Prize, and multiple industry awards. His work bridges academia and industry, with patents addressing inerting systems, fuel injectors, and microfluidic devices.

Rebecca BrannonView profile

Professor

• Computational Solid Mechanics
• Plasticity Modeling
• Poroelasticity
• +7 more

Rebecca Brannon is a Professor in the Department of Mechanical Engineering at the University of Utah, specializing in computational solid mechanics and constitutive modeling. She holds a PhD in Engineering Mechanics from the University of Wisconsin, Madison (1992), an MS from the same university (1988), and a BS in Mechanical Engineering from the University of New Mexico (1987). Her research focuses on improving the accuracy, stability, and efficiency of plasticity models, damage mechanics, poroelasticity, and advanced numerical methods like the Material Point Method (MPM). Key contributions include mesoscale validation techniques, constitutive model development (e.g., ARENA and Kayenta), and tensor analysis frameworks for engineering applications. Her work bridges theory and application, addressing challenges in shock physics, rock mechanics, and biomedical engineering (e.g., ceramic hip prosthesis wear). She has pioneered methods for uncertainty quantification in damage models, verification frameworks for computational mechanics, and visualization tools for tensor fields. Notable projects include modeling hypervelocity impact, blast effects on geologic materials, and analyzing deformation-induced anisotropy in porous media. Brannon has led interdisciplinary initiatives, such as the ONR MURI project on soil blast modeling, and contributed to software development (e.g., CTH and Uintah-MPM). Her expertise spans experimental validation (using XCT data), numerical algorithm design, and thermodynamic consistency in constitutive equations. Her research underscores the importance of rigorous validation and the integration of micro-scale heterogeneity into macro-scale models.

• Cybernetics
• Computational Architecture
• Digital Twins
• +7 more

Liss C. Werner is a computational design researcher at Dessau International Graduate School of Architecture , focusing on the intersection of cybernetics, architecture, and digital systems. Her work explores bio-computational reactors, digital twins for buildings, and slime mold-based architectural models. She contributes to urban planning through GIS-based tools and investigates historical cybernetic principles in design. Key Research Areas: Cybernetics, computational architecture, bio-digital integration, digital twins, and urban systems. Collaborations: Projects with scholars in Germany, Austria, and Sweden, including studies on microbial fuel cells and particle physics applications. Theoretical Contributions: Extended Gordon Pask's Conversation Theory into architectural design, proposed 'sixth ecology' frameworks, and critiqued bio-digital fantasies in design. Tools & Methods: Uses Python OpenCV, Grasshopper/Rhinoceros, Arduino-Uno, and parametric CAD environments for bio-reactor monitoring and urban optimization. Publications: 15 recent works cover topics from digital infrastructure in the Anthropocene to cybernetic feedback mechanisms in architecture, with a focus on adaptive geometries and human-machine co-evolution.

Dayakar PenumaduView profile

Professor

• Civil Engineering
• Environmental Engineering
• Materials Science
• +12 more

Dayakar Penumadu is a Professor in the Department of Civil and Environmental Engineering at the University of Tennessee, Knoxville (UT), where he has been a faculty member since 2001. He holds the Fred N. Peebles Professorship and the Institute for Advanced Materials and Manufacturing (IAMM) Chair of Excellence, a joint position with Oak Ridge National Laboratory. He served as Department Head from 2007 to 2014. His research spans multiple domains in civil and materials engineering. Key areas include: Carbon fiber reinforced polymeric composites and sandwich structures Environmental degradation and multi-scale mechanics Non-invasive characterization using neutron and X-ray tomography and diffraction Mechanics of multi-phase and granular materials Direct Numerical Simulations in porous media His recent publications reveal a strong focus on advanced characterization techniques such as neutron diffraction and X-ray tomography applied to composites, metals, and granular materials. Themes include structural health monitoring, fire damage effects, composite manufacturing, and micromechanical modeling. He frequently collaborates with national labs and industry partners. Notable scientific recognitions include: Fred N. Peebles Professorship Institute for Advanced Materials and Manufacturing (IAMM) Chair of Excellence Penumadu has secured research funding from major agencies including the National Science Foundation, Office of Naval Research, Department of Energy, Defense Threat Reduction Agency, General Motors, Entergy Corporation, National Nuclear Security Administration, and the Tennessee Department of Transportation. He has advised numerous students and leads a vibrant research group focused on next-generation materials and structural systems. He is actively involved in experimental and computational research with applications in transportation, energy, and defense sectors.

• Nano- and micro-particle transport
• Surface interactions in porous media
• Trace element biogeochemistry
• +5 more

William Johnson is a Professor in the Department of Geology & Geophysics at the University of Utah's College of Engineering, with a 30-year track record in colloid transport research and trace element biogeochemistry. He directs advanced facilities including ICP-MS and light scattering laboratories while maintaining active collaborations in environmental engineering, hydrology, and contaminant dynamics. Current research focuses on multi-scale colloid transport mechanisms in porous media Investigates mercury and selenium cycling in aquatic systems like Great Salt Lake Develops groundwater remediation strategies for mining-impacted environments His recent publications demonstrate theoretical advances in colloid filtration theory, including interception history models and nanoscale heterogeneity impacts. Over $5M in research grants from NSF, EPA, and state agencies support his work on contaminant transport, with particular emphasis on mercury isotope tracing and polymer-modified remediation materials. Mentoring 12 PhD and 34 MSc students, he maintains active teaching roles in graduate geochemistry and contaminant hydrology courses. Fundamental contributions to non-exponential transport behavior Established mercury source apportionment frameworks for saline lakes Developed lateral channel filtration for placer mining mitigation His research website (www.wpjohnsongroup.utah.edu/research.html) provides additional details about current projects and instrumentation capabilities.

Ralf SeemannView profile

Professor

• Fluid Interfaces
• Wetting Phenomena
• Microfluidics
• +7 more

Prof. Dr. Ralf Seemann is a full Professor in the Department of Physics at Saarland University, affiliated with the Faculty of Natural Sciences and Technology. He leads the research group focused on the geometry of fluid interfaces, conducting experimental studies on wetting, microfluidics, and wet granular media. His research interests lie at the intersection of soft matter physics and interfacial phenomena. Key areas include switchable wetting on structured surfaces, discrete microfluidics, and the mechanical behavior of fluid-saturated granular systems. The group employs a suite of advanced experimental techniques such as atomic force microscopy (AFM), optical and fluorescence microscopy, micro-particle image velocimetry (PIV), and X-ray computed tomography. The laboratory is equipped with state-of-the-art instrumentation, including high-speed cameras (Photron Fastcam SA3, PCO Dimax HS, PCO Panda 4.2), a 3D X-ray system with sub-micron resolution, a Bruker Dimension Icon AFM, and a DaVis-based PIV system with a DPSS laser. These tools enable high-resolution imaging and quantitative flow analysis in complex fluid systems. Prof. Seemann is actively involved in teaching, offering tutorial positions for undergraduate courses such as 'Technical Physics' and 'Mathematical Complements to Experimental Physics I'. He welcomes students interested in pursuing bachelor’s or master’s theses in his lab, indicating an ongoing role in academic supervision.

• Fluid Mechanics
• Thermal Sciences
• Heat Transfer
• +4 more

K. Siddiqui is a Professor in the Department of Mechanical & Materials Engineering at Western University. His research focuses on the intersection of thermal sciences and fluid mechanics, particularly interfacial fluid dynamics and heat transfer in engineering and environmental applications. He leads a state-of-the-art lab equipped with Particle Image Velocimetry (PIV), Laser Induced Fluorescence (LIF), High Speed Imaging, and Infrared Thermal Imaging systems. Ph.D., University of Toronto B.Eng., N.E.D. University of Engineering and Technology, Pakistan Research interests include: Interfacial Fluid Dynamics Heat Transfer in Renewable Energy Systems Turbulent Flow Analysis Mixed Convection in Thermal Systems Wind Energy and Environmental Aerodynamics Phase Change Materials (PCM) for Energy Storage Recent publications span topics such as aerodynamics of micro-corrugated wings, turbulent boundary layers, and geothermal energy utilization. Articles highlight applications in wind turbines, solar collectors, and multiphase flow systems. Scientific Awards: Fellow, American Society of Mechanical Engineers (ASME) Fellow, Canadian Society for Mechanical Engineering (CSME) CFI Leaders Opportunity Fund Award Petro-Canada Young Innovators Award NSERC Post-Doctoral Fellowship Ontario Graduate Scholarship University of Toronto Fellowship

Tobias BarskeView profile

Professor

• Conversation Analysis
• Institutional Talk
• Grammar and Interaction
• +4 more

Tobias Barske serves as Assistant Dean in the School of Humanities and Global Studies and is a Professor of German Applied Linguistics at the University of Wisconsin Stevens Point, where he teaches German language, culture, pragmatics, and foreign language teacher education courses while coordinating the foreign language teacher education program. His academic credentials include: Ph.D. in German Applied Linguistics from the University of Illinois at Urbana-Champaign M.A. in Germanic Languages and Literatures from the University of Illinois at Urbana-Champaign Certificate of Advanced Study in Second Language Acquisition and Teacher Education Professor Barske's research centers on micro-analytic approaches to language interaction , specializing in conversation analysis of institutional settings with emphasis on social role construction, embodied actions, and linguistic particles. His foundational work examines how participants co-construct roles in German business meetings, while current research investigates pragmatic functions of modal particles ("ok", "so", "genau") in German discourse. He integrates these insights with second language acquisition theory, famously asserting that "the most effective way to acquire a language is if you are willing to make mistakes and learn from them". His sole documented publication applies conversation analytic methodology to German business meetings, revealing how linguistic tokens index social roles through embodied actions. This work establishes his consistent focus on interactional micro-structures within institutional contexts. His scholarly recognition includes: Academic Staff Excellence University Award (2023) University Excellence in Teaching Award (2009) As coordinator of the foreign language teacher education program, Professor Barske shapes pedagogical training while maintaining active professional engagement through board memberships in the American Association of Teachers of German and American Suzuki Foundation. His conference presentations at national venues like the National Communications Association demonstrate ongoing scholarly contribution to applied linguistics and language pedagogy.

Marcelo H. KobayashiView profile

Professor

• Computational Fluid Dynamics
• Fluid Mechanics
• Multidisciplinary Design Optimization

Marcelo H. Kobayashi is a Professor in the Department of Mechanical Engineering at the University of Hawaii at Manoa . He holds dual PhDs in Mechanical Engineering (1994) and Mathematics (2003) from the Technical University of Lisbon/IST, Portugal. His research spans Computational Fluid Dynamics (CFD) , Fluid Mechanics , and Multidisciplinary Design Optimization (MDO) , integrating advanced numerical methods and genetic algorithms to solve complex engineering problems in aerospace, biomechanics, and defense applications. CFD: Stream function methods, finite volume schemes for Navier-Stokes equations, and Padé approximations. Fluid Mechanics: Stokes flows, particle dynamics in rotating systems, and acoustic wave propagation in shear layers. MDO: Hybrid genetic programming for metamaterials, cellular division optimization for control surfaces, and bio-inspired designs for micro aerial vehicles. His recent publications reflect the application of evolutionary algorithms , topological optimization , and aeroelastic modeling to challenges in air vehicle design , thermal management , and biological systems . He has led projects funded by AFOSR , NSF , and US Army , including grants for tsunami debris impact analysis and nanosat thermal control systems. As Director of the Hawaii Open Supercomputing Center , he contributes to computational research infrastructure. His teaching includes graduate courses in Computational Fluid Dynamics , Numerical Methods , and Advanced Aerodynamics .

• Multiphase Flows
• Combustion
• Droplet Vaporization
• +6 more

Professor Eva Gutheil is a distinguished academic at the Interdisciplinary Center for Scientific Computing (IWR) at the University of Heidelberg, where she leads a prominent research group focused on multiphase flows and combustion processes. Her work spans technical combustion systems, atmospheric processes, and biofluid mechanical applications, making significant contributions to both fundamental understanding and practical engineering solutions. Her research interests encompass multiphase flows , combustion processes , droplet vaporization , laminar spray flames , PDF methods , and flamelet modeling . Professor Gutheil's work addresses critical challenges in energy production efficiency, stability, safety, and pollutant emissions across various technical combustion systems including internal engine combustion, industrial furnaces, and gas turbine combustion. Her research extends to atmospheric processes like ozone depletion and biofluid mechanical applications such as particle dispersion in human airways and blood flow in cerebral aneurysms. Analysis of her recent publications reveals a strong focus on computational modeling of complex flow phenomena, with increasing attention to bioreactor hydrodynamics, atmospheric chemistry applications, and advanced nanoparticle synthesis techniques. Her work demonstrates a consistent trajectory toward more sophisticated modeling approaches that integrate multiple physical phenomena across different scales. Professor Gutheil has mentored numerous PhD students and research assistants, as evidenced by the extensive list of current and former group members. Her research group includes specialists in computational fluid dynamics, combustion modeling, and atmospheric chemistry applications. The research group operates within the Interdisciplinary Center for Scientific Computing at the University of Heidelberg, utilizing advanced computational resources for modeling and simulation of complex flow phenomena. Their work bridges fundamental fluid dynamics with practical applications across energy systems, environmental science, and biomedical engineering.

• Digital Rock Physics
• Computational Pore-Scale Physics
• Tomographic Imaging
• +9 more

Professor Christoph Arns is a full Professor at the University of New South Wales (UNSW) School of Engineering, specializing in Mineral and Energy Resources Engineering. He has been at UNSW since 2008 and has held the position of full Professor since 2014. Currently, he leads the Geoenergy and Geostorage discipline within the school. Prior to joining UNSW, he was a research fellow at the Australian National University from 2001-2008. Professor Arns obtained his Dipl. Phys. from RWTH Aachen, Germany in 1996 and his PhD in Petroleum Engineering from UNSW Sydney in 2002. His academic background combines physics and petroleum engineering, creating a unique interdisciplinary perspective for his research. His primary research focus is on Digital Rock Physics, where he has pioneered computational pore-scale physics based on tomographic images. He specializes in integrating 3D tomographic imaging technology with NMR techniques for petrophysical applications, with particular emphasis on heterogeneity analysis. His work spans multiple sub-disciplines including pore-scale modeling, digital core analysis, rock physics, reservoir characterization, and Minkowski functionals for structural analysis. Professor Arns has developed the MPI-parallel software package 'morphy' for computational physics operating on segmented tomographic images, which includes sophisticated NMR response modeling, electrical property calculations, permeability estimation, elastic moduli determination, and morphological property analysis. His research has substantial industry relevance, as evidenced by his role as a founding member of Digital Core Pty Ltd, an ANU/UNSW spin-off that was sold to FEI for $76 million in 2014 and is now part of ThermoFisher. He has received significant research support through three successive Australian Research Council (ARC) fellowships. His scholarly contributions are reflected in numerous publications spanning from 2000 to 2025, with recent work focusing on advanced computational methods, machine learning applications in rock physics, and detailed analysis of fluid-rock interactions at the pore scale. Professor Arns maintains active leadership roles in multiple professional societies including Interpore (lifetime member, former council chair 2016-2019), Society of Core Analysts (Australasia Regional Director since 2016), Society of Petrophysicists & Well Log Analysts, Society of Exploration Geophysicists, and Society of Petroleum Engineers.

Fatemeh KalantarifardView profile

Lecturer

• Micro and Nano-scale Optical Trapping
• Fluorescent Microscopy
• Raman Spectroscopy
• +7 more

Fatemeh Kalantarifard is a Lecturer at Özyeğin University's Graduate School of Science and Engineering, specializing in optical trapping and quantum sensing. Her research intersects physics, biomedical optics, and quantum technologies, with a focus on nanodiamond-based sensing and intracellular dynamics. Doctorate: Physics/Optics Trap and Optical Sensing, Bilkent University (2019) Master's: Applied Physics, Payam E Nour University (2006) Bachelor's: Applied Physics, Shiraz University (1996) Her work explores micro/nanoscale optical trapping , fluorescent microscopy , and Raman spectroscopy , particularly for biomedical applications. Recent studies involve NV center quantum sensing, optical tweezer design, and intracavity trapping systems. Her publications (2007–2025) demonstrate sustained expertise in optical manipulation, with a 2023 Roadmap for optical tweezers indicating leadership in field development. Articles highlight interdisciplinary trends merging quantum physics, biophysics, and laser engineering.

• Mechanical Engineering
• Aerospace Engineering
• Machine Design
• +3 more

Burak Şahin is an Assistant Professor at Gaziantep University , affiliated with the Faculty of Aeronautics and Astronautics and the Department of Aeronautics and Astronautics Engineering . He holds a Ph.D. in Mechanical Engineering from Gaziantep University (2019) and has previously served as a Research Assistant at the same institution (2012-2021). Research Interests : Mechanical Engineering, Aerospace Applications, Surface Treatment Technologies (Flow Peening/GOV), Gear Design and Stress Analysis, Finite Element Modeling, Additive Manufacturing, Textile Material Testing. His work focuses on enhancing material performance through advanced surface treatments (e.g., Inconel 718, Ti-6Al-4V) and developing automated testing devices for carpets and gears. Key trends include: 1) Surface modification of aerospace alloys (2024-2023); 2) Automated carpet resilience testing systems (2021-2023); 3) Gear stress reduction via asymmetric design and FEA (2017-2018). Students supervised include Murat Kalak (2022: Ti-6Al-4V flow peening) and Mustafa Sait Koca (2022: Inconel 718 flow peening). Projects : 1) Development of special surface design methods for asymmetric spur gears (2014-2017); 2) Functional Carpet Static Loading Device (TUBITAK 1005, 2019-2021). Patents : Co-inventor of TR 2016 05214 B for a multi-sample static loading carpet test device.