Find Academic Supervisors

Jim O. VigoreauxView profile

Professor

• Muscle Biology
• Molecular Biomechanics
• Insect Flight Muscle Research
• +3 more

Jim O. Vigoreaux is the Breazzano Family Green and Gold Professor in the Department of Biology within the College of Arts and Sciences at the University of Vermont. His research program focuses on fundamental mechanisms of muscle biology using insect flight muscle as a model system, with particular emphasis on protein structure-function relationships and biomechanics. His educational background includes a Ph.D. from the University of Oklahoma Health Science Center (1987) followed by research associate training at the Massachusetts Institute of Technology (1987-1991). Vigoreaux's research spans five interconnected domains: Novel muscle protein characterization : Discovery and analysis of projectin (invertebrate titin homolog) and flightin Integrative muscle biology : Multi-scale investigation from molecular changes to whole-organism locomotion Thick filament biomechanics : Structural properties defining muscle type differences and disease states Muscle energetics : Supramolecular enzyme complexes in energy metabolism Myosin regulatory light chain function : Pleiotropic effects on contractile regulation and behavior His recent publications (2006-2017) reveal consistent focus on Drosophila flight muscle proteins, with increasing emphasis on evolutionary conservation, phosphorylation dynamics, and biomechanical consequences of mutations. Key recurring themes include flightin's role in thick filament stability, regulatory light chain's impact on power output, and metabolic organization in muscle cells. Vigoreaux leads a collaborative research program with extensive multi-institutional partnerships, as evidenced by co-authorship patterns showing consistent collaboration with Maughan, Reedy, Irving, and others across decades of work. His lab maintains active research in protein biochemistry, genetic manipulation, and biomechanical analysis of muscle systems. The Vigoreaux lab operates within the Marsh Life Science building at UVM, utilizing specialized equipment for muscle fiber mechanics, protein analysis, and Drosophila genetics. His work bridges molecular biology, biophysics, and evolutionary studies to address fundamental questions in muscle function.

Leora Dresselhaus-MaraisView profile

Assistant Professor

• Sustainable materials processing
• Ironmaking
• Metal 3D printing
• +3 more

Leora Dresselhaus-Marais is an Assistant Professor at Stanford University with appointments in the Department of Materials Science & Engineering, Mechanical Engineering (by courtesy), and Photon Science at SLAC National Accelerator Lab. Her research focuses on modernizing 19th-century materials processing methods through multiscale characterization and modeling, targeting sustainability in steelmaking, metal 3D printing, and critical material extraction. PhD, Physical Chemistry, MIT (2017) BA & MSc, Chemistry, University of Pennsylvania Her work develops ultrafast X-ray microscopy tools (100 fs resolution) to study defect dynamics across length scales—from atomic bonds to blast furnaces. Key projects include sustainable hydrogen-based ironmaking, transonic dislocation propagation in diamond, and mesoscale characterization of additive manufacturing processes. Recent publications highlight operando imaging of laser powder bed fusion, dark-field X-ray microscopy innovations, and defect-driven material behavior under extreme conditions. She received the AFOSR YIP Award (2023) and Stanford fellowships including Gabilan, Terman, and Precourt Center appointments. Advisor to 11 doctoral students Principal Investigator at Stanford PULSE Institute Develops multimodal ultrafast microscopes

Daniel KöhnView profile

Professor

• Tectonics
• Structural Geology
• Fault Network Analysis
• +3 more

Daniel Köhn is a Professor at the Friedrich-Alexander University Erlangen-Nuremberg, affiliated with the GeoZentrum Nordbayern under the Professorship for Tectonics. His work focuses on structural geology, deformation mechanisms, and permeability evolution in rocks, with significant projects funded by the EU, DFG, DAAD, and BMFTR. Position: Professor for Tectonics Institution: Friedrich-Alexander University Erlangen-Nuremberg Department: Professorship for Tectonics, GeoZentrum Nordbayern Location: Schlossgarten 5, 91054 Erlangen, Germany His research spans tectonic processes, fault network analysis, and hydrothermal systems, utilizing multi-scale modeling and field studies. Current projects include EU-funded initiatives on critical metal deposits and international virtual academic collaborations. His publications highlight work on stylolites, deformation bands, and fluid flow in carbonate reservoirs. Recent trends in his publications emphasize fracture network dynamics, permeability modeling, and diagenetic processes. Collaborative efforts with institutions like Max Planck and DAAD underscore his interdisciplinary approach. No explicit scientific awards or honors are mentioned in the provided texts.

Norman O BirgeView profile

Professor

• Mesoscopic Physics
• Superconductivity
• Spin-Triplet Supercurrent
• +4 more

Norman O Birge is a Professor in the Department of Physics & Astronomy at Michigan State University's College of Natural Science, concurrently serving as Interim Associate Dean of Budget, Planning, Research, and Administration. His research focuses on mesoscopic physics, particularly spin-triplet superconductivity in ferromagnetic/superconductor hybrid systems and their applications in cryogenic memory technology. His academic background includes: A.B. in Physics from Harvard University (1979) Ph.D. in Physics from the University of Chicago (1986) Birge's research explores quantum phenomena at submicron scales where conventional physics breaks down. His group confirmed theoretical predictions of spin-triplet electron pairs in superconductor/ferromagnet hybrids—a breakthrough enabling phase-controllable Josephson junctions. Current work optimizes these effects for energy-efficient supercomputing memory, leveraging ferromagnetic spin valves and synthetic antiferromagnets. The group also investigates high-order noise correlations using Josephson junctions as detectors and nonequilibrium transport in carbon nanotube systems. Analysis of his 15 most recent publications (2022-2025) reveals consistent focus on engineering Josephson junctions with ferromagnetic barriers for cryogenic memory applications. Key trends include optimizing spin-triplet supercurrents through interface engineering, exploring 0-π transitions using synthetic antiferromagnets, and characterizing critical current behavior in complex magnetic systems. Collaborations with Northrop Grumman aim to integrate these devices into practical superconducting computing architectures. Birge actively mentors seven graduate students and postdoctoral researchers, including recent Ph.D. graduates Joseph A. Glick and Bethany Niedzielski. His group utilizes advanced fabrication facilities including multi-gun sputtering systems for creating hybrid nanostructures. Current projects involve developing phase-controllable Josephson junctions for non-volatile cryogenic memory, with support from industry partnerships focused on next-generation supercomputing. The Birge group operates specialized laboratories featuring: 5-gun sputtering system with load lock and ion mill 7-gun deposition chamber for complex heterostructures Sample tilt/spin capabilities for anisotropic studies Co-sputtering for alloy barrier engineering These facilities enable precise fabrication of superconductor/ferromagnet multilayers critical to their research on quantum devices.

Steven ArtandiView profile

Professor

• Telomere biology
• Cancer biology
• Stem cell function
• +4 more

Steven Artandi, MD, PhD serves as the Laurie Kraus Lacob Director of the Stanford Cancer Institute, the Jerome and Daisy Low Gilbert Professor of Medicine and Biochemistry at Stanford University, Senior Associate Dean for Cancer Programs for Stanford School of Medicine, and Chief Cancer Officer for Stanford Health Care. His academic appointments include Professor in Medicine (Hematology) and Biochemistry, and membership in Bio-X, the Maternal & Child Health Research Institute (MCHRI), and the Stanford Cancer Institute. Dr. Artandi's research focuses on telomeres and telomerase, exploring their critical roles in cancer development, aging, and stem cell function. His laboratory investigates how telomere shortening influences disease processes and how telomerase, beyond its role in telomere elongation, regulates stem cells. His work has revealed novel mechanisms by which telomerase endows cells with immortal growth properties and how developing cancers overcome critical barriers during carcinogenesis. His research spans molecular, cellular, and organismal levels, employing diverse genetic and biochemical approaches to understand telomerase function. His recent work demonstrates catalytic-activity-independent roles for TERT in stem cell competition, TERT's contribution to tissue regeneration after radiation damage, and advanced methods for telomere measurement that distinguish healthy aging from disease. His research has significant implications for understanding cancer origins, developing regenerative therapies, and creating clinical biomarkers for aging and disease. Outstanding Investigator Award from the National Cancer Institute Fellow, American Association for the Advancement of Science (AAAS) (2008) Elected Member, American Society for Clinical Investigation (2008) Elected Member, Association of American Physicians (2015) Member, American Association for the Advancement of Science (2019) Dr. Artandi actively mentors students across multiple programs, serving as Med Scholar Project Advisor, Doctoral Dissertation Reader, Postdoctoral Faculty Sponsor, and Doctoral Dissertation Advisor. He is involved in numerous grant-funded research projects focused on telomere biology, cancer development, and stem cell function. His laboratory collaborates extensively with other researchers at Stanford and beyond, contributing to large-scale projects like the Tabula Sapiens single-cell atlas. The Artandi Laboratory maintains active research programs investigating telomerase function in various tissue contexts, stem cell dynamics, and cancer development mechanisms. The lab employs cutting-edge techniques including lineage tracing from the Tert locus, single-cell analysis, and advanced genomic approaches to study telomere biology in health and disease.

Michael MillsView profile

Professor

• Materials Science and Engineering
• Metallurgy
• High-Temperature Alloys
• +5 more

Michael Mills is a Professor and Chair of the Department of Materials Science and Engineering at Ohio State University , where he also holds the Taine G. McDougal Professorship in Engineering . His career spans academic and industrial research, including appointments at Sandia National Laboratories and École Polytechnique Fédérale de Lausanne. Education: Ph.D. in Materials Science and Engineering from Stanford University (1985) Mills' research focuses on the interplay between microstructure and mechanical properties of materials, particularly high-temperature alloys , superalloys , and additive-manufactured metals . His team leverages advanced microscopy at the Center for Electron Microscopy and Analysis (CEMAS) to study deformation mechanisms in systems like BCC-superalloys , Ni-based superalloys , and high-entropy alloys . Recent publications highlight trends in phase transformations , deformation twinning , and creep behavior across materials such as refractory alloys , shape memory alloys , and additive-manufactured NiTi . His work emphasizes multi-scale characterization and thermodynamically driven design frameworks. Scientific Awards Taine G. McDougal Professorship in Engineering Honorary Doctorate from Ruhr University, Bochum, Germany (2022) Heyn Memorial Medal from German Materials Society (2021) Oleg D. Sherby Award (2019) Alexander von Humboldt Research Award (2019) College of Engineering Faculty Mentoring Award (2019) Fellow, The Minerals, Metals & Materials Society (2015) Fellow, American Society for Metals (2011) Alexander Von Humboldt Research Fellowship (1996) Mills has mentored junior faculty and led peer mentorship initiatives. He serves as Chair of his department and contributes to global research through leadership roles, including organizing international conferences and grants for additive-enabled oxide dispersion strengthened superalloys .

• Timber Engineering
• Wood Mechanics
• Structural Engineering
• +5 more

Thomas K Bader is Professor in Building Technology and Head of the Department of Building Technology at Linnaeus University's Faculty of Technology. His academic career spans from doctoral research at Vienna University of Technology to his current leadership position, with expertise bridging theoretical mechanics and practical timber engineering applications. Professor in Building Technology since July 2019 Associate Professor in Building Technology (specialized in Structural Engineering) since September 2016 Habilitation in Mechanics of Materials and Structures from TU Wien Professor Bader's research focuses on the mechanical behavior of timber structures, with particular emphasis on wood mechanics across multiple length scales. His work integrates experimental characterization with numerical simulation to advance understanding of timber as a structural material. Key research areas include dowel-type connections in timber structures, cross-laminated timber systems, and the mechanical properties of wood under various loading conditions including compression perpendicular to grain and rolling shear. His publication record demonstrates consistent research productivity with numerous high-impact publications in leading engineering journals. The research trajectory shows increasing focus on sustainable timber construction, with recent work examining the relationship between structural engineering design and carbon footprint in multi-story CLT buildings. His research has evolved from fundamental wood mechanics to comprehensive structural systems analysis. Professor Bader leads multiple research groups including Composite Elements and Hybrid Structures, Connections in Timber Structures, Cross-Laminated Timber research, and the Linnaeus University Centre for Competitive Timber Structures. His current research projects address resource efficiency in timber construction, competitive advantages of CLT systems, and moisture-dependent properties of South Swedish hardwoods. As an educator, Professor Bader teaches advanced structural engineering courses, particularly Conceptual Structural Design in the Master's program in Sustainable Structural Engineering. He has supervised numerous bachelor's, master's, and doctoral students, with a teaching philosophy focused on increasing engineers' knowledge of timber as a structural material to fully exploit its potential in construction applications.

• Thin-walled Structures
• Marine Technology
• Structural Mechanics
• +5 more

Jani Romanoff is a Professor in the Department of Energy and Mechanical Engineering at Aalto University's School of Engineering, specializing in thin-walled structures across marine, architectural, and microelectronic applications. His research uniquely integrates multi-scale mechanics to develop sustainable material solutions for visible structures like ships and bridges, as well as microscopic applications in microelectronics. Professor Romanoff's work centers on the mechanics of thin-walled structures, with a distinctive focus on length-scale interactions often overlooked in conventional engineering. This approach enables innovative sustainable material utilization across diverse applications, from passenger ship design to microelectronic components. His expertise spans marine technology, structural mechanics, fatigue analysis, and vibration dynamics, with significant contributions to lightweight structural design and sustainable engineering practices. Analysis of his 15 most recent publications (2023-2025) reveals a dominant focus on cruise ship engineering, particularly laminated glass units, passenger satisfaction, and structural integrity of thin-walled components. Key trends include computational modeling of welding distortions, application of machine learning for deformation prediction, and sustainability-driven design optimization. His work consistently bridges theoretical mechanics with practical marine applications, emphasizing environmental impact reduction through material efficiency. Professor Romanoff's accolades include: Aalto Education Impact Award (2018) for establishing the Marine Technology study program SNAME Honorable Mention for Vice Admiral EL Cochrane Award (2018) for research on steel sandwich panel joints Aalto School of Engineering Teaching Award (2012) for Shipbuilder's Portfolio and Toolbox Special Recognition Award for Research Excellence (2014) As leader of the Marine and Arctic Technology research group, he directs collaborative international projects focused on structural innovation in marine engineering. His work integrates teaching with cutting-edge research, evidenced by multiple education awards and active supervision of student projects in marine technology. The Marine and Arctic Technology research group under Professor Romanoff pioneers advanced structural analysis techniques for extreme environments, with current projects addressing green transition in cruise shipping, multi-scale modeling of composite structures, and human-centered design of passenger vessels. The group maintains strong industry partnerships with major shipbuilders and classification societies.

Sebastian MühlbauerView profile

Researcher

• Neutron Scattering
• Magnetic Materials
• Superconductivity
• +3 more

Sebastian Mühlbauer is a senior staff scientist at the Heinz Maier-Leibnitz Zentrum (MLZ) in Garching, Germany, specializing in neutron scattering techniques. He is affiliated with the New Materials WG 1 under the Functional Magnetic Materials theme as a LINXS Fellow. Research Interests: Studies superconducting vortices, long-range incommensurate magnetic structures, and skyrmion lattices using neutron diffraction, small-angle neutron scattering (SANS), and ultra-small-angle neutron scattering (USANS). Expertise in dynamic neutron techniques like stroboscopic SANS, TISANE, neutron spin echo, and spectroscopy for analyzing material dynamics across timescales from seconds to milliseconds. Focuses on multi-length-scale characterization, bridging atomic to micrometer regimes.

Stuart CampbellView profile

Professor

• Cardiac Biomechanics
• Genetic Heart Disease
• Computational Modeling
• +3 more

Dr. Stuart Campbell is a Professor of Biomedical Engineering at Yale University, leading the Integrative Cardiac Biomechanics Lab. His work bridges computational and experimental approaches to study genetic heart diseases, focusing on multi-scale models integrating genomic, functional, and anatomical data. He develops high-throughput instrumentation to characterize cardiac cells and improve therapeutic strategies. Education: B.S. from Washington State University and Ph.D. from the University of California, San Diego. His research emphasizes understanding mechanisms behind hypertrophic/dilated cardiomyopathy and arrhythmogenic conditions, leveraging tissue engineering and in vitro models. Key interests include cardiac biomechanics, myofilament dynamics, and engineered heart tissues. His lab explores therapies targeting sarcomere dysfunction, with recent work on Tropomyosin mutations and mitochondrial protein regulation. Awards: NSF CAREER Award (2017), Stewart Whitman Award (2011), American Heart Association Fellowships (2008-2012) Grants: Focus on computational modeling, engineered tissues, and genetic heart disease mechanisms. His lab’s work spans from molecular mechanisms to organ-level modeling, with applications in drug development and precision medicine.

Christian AppelView profile

Research Fellow

• Small-Angle X-ray Scattering
• X-ray Imaging
• Ptychography
• +5 more

Christian Appel is a Research Fellow at the Paul Scherrer Institut (PSI) within the Coherent X-ray Scattering Group, leading projects and providing operational support at the cSAXS beamline of the Swiss Light Source (SLS). He holds a prestigious Marie Sklodowska-Curie Research Fellowship under the 3i scheme and collaborates internationally with institutions including Chalmers University of Technology and MAX IV Laboratory. His educational background includes: B.Sc. in Physics, Technical University Darmstadt (2012) M.Sc. in Physics, Technical University Darmstadt (2014), focusing on structural/rheological properties of amphiphilic macromolecules using Langmuir and X-ray surface scattering Ph.D. in Soft Matter Physics at TU Darmstadt under Prof. Bernd Stühn, utilizing scattering and imaging techniques for nanomaterial characterization Appel's research centers on multi-scale structural analysis using advanced X-ray techniques including SAXS imaging (2D/3D), ptychographic nanotomography, and X-ray fluorescence. His work investigates hierarchical structures in energy conversion systems, biomedical applications, and functional materials, with current emphasis on polymer electrolyte fuel cell catalysts spanning nano-to-millimeter scales. He pioneers correlative multi-modal imaging to map chemical and structural properties across length scales. His scientific recognition includes the Marie Sklodowska-Curie Research Fellowship (3i scheme). Appel leads independent projects within the CXS group, develops novel coherent X-ray imaging techniques, and facilitates knowledge transfer through international collaborations. His team-based work at the cSAXS beamline integrates computational and experimental approaches to solve interdisciplinary challenges in materials science.

Abhishek SharmaView profile

Assistant Professor

• Materials Science
• Metallurgy
• Additive Manufacturing
• +5 more

Abhishek Sharma is a Research Assistant Professor in the Department of Materials Science and Engineering at the University of North Texas. His work focuses on advanced materials processing and characterization, particularly in additive manufacturing and high entropy alloys. Research Interests : Abhishek’s research explores additive manufacturing techniques , microstructural evolution in high entropy alloys , phase transformations in titanium and niobium alloys , and mechanical property optimization through chemical ordering . His studies often integrate advanced fabrication methods with multi-scale characterization. Recent Publications : His 2023-2025 articles emphasize improving strain hardening and magnetic properties in additively manufactured alloys, understanding deformation mechanisms in BCC and FCC structures, and designing novel refractory high entropy alloys with enhanced phase stability. Contact : Abhishek.Sharma@unt.edu

• Nanomechanical Instrumentation
• Extreme Nanomechanics
• Materials Science
• +3 more

Dr. Sung-Gyu Kang is an Assistant Professor at Gyeongsang National University's School of Materials Science and Engineering, leading the Multiscale Structural Materials Lab (MSML). His academic journey includes postdoctoral research at the Max-Planck-Institut für Eisenforschung (Germany) and Seoul National University (Korea), alongside roles as a Researcher at Seoul National University and the Korea Institute of Science and Technology. His research focuses on nanomechanical instrumentation, extreme nanomechanics, and structural materials design. Education: PhD in Materials Science and Engineering (2013–2019), Seoul National University Bachelor of Science in Materials Science and Engineering (2008–2013), Seoul National University Research Interests: Kang’s work spans advanced materials characterization, high-temperature energy materials, and nanoscale mechanical behavior. He develops novel instrumentation for extreme nanomechanical testing and explores multi-variant material systems for engineering applications. Labs & Teams: He directs the Multiscale Structural Materials Lab (MSML), dedicated to advancing materials science through interdisciplinary research at multiple length scales.

Katarzyna MakasewiczView profile

Researcher

• Biophysics
• Biochemistry
• Nanotechnology
• +3 more

Katarzyna Makasewicz is a Researcher at the Institute of Chemical Biology (ICB) at ETH Zurich, Switzerland, working under Prof. Paolo Arosio. Her research focuses on understanding biomolecular interactions, particularly protein-membrane dynamics and phase separation processes. She holds a B.Sc. (2016) and M.Sc. (2017) in Nanotechnology from Lodz University of Technology, Poland, where she specialized in polymeric nanoparticle synthesis using ionizing radiation. During her M.Sc., she conducted a research internship at the University of Palermo, Sicily. She completed her Ph.D. in Physical Chemistry at Lund University (Sweden, 2018–2022), studying α-synuclein’s role in lipid membrane interactions, supervised by Prof. Emma Sparr and Prof. Sara Linse. Her postdoctoral work at ETH Zurich investigates rheological properties of protein droplets and aging processes in biomolecular condensates. Her research interests span biophysics, biochemistry, and nanotechnology, with a focus on protein aggregation mechanisms, membrane remodelling, and the functional implications of biomolecular condensates. Techniques employed include microfluidics, small-angle scattering, and fluorescence microscopy. She has contributed to understanding how environmental factors modulate protein behavior in cellular contexts, with implications for neurodegenerative diseases and material science. Notable projects include analyzing α-synuclein’s cooperative binding to lipid vesicles and the formation of multi-compartment condensates through aging processes. Her work bridges fundamental biophysical studies with applications in nanomedicine and disease modeling.

• Macromolecular Chemistry
• Light-Induced Chemistry
• 3D Printing Materials
• +5 more

Christopher Barner-Kowollik is a Distinguished Professor and Deputy Vice Chancellor (Research) at Queensland University of Technology (QUT), holding a professorship in Materials Science and Engineering within the School of Chemistry & Physics. His research focuses on macromolecular photochemistry, light-driven 3D printing, and soft matter materials. He leads the Macroarc Soft Matter Materials Laboratory, a global leader in photochemical macromolecular research, and oversees over 20 PhD students and postdoctoral researchers. Education & Career : PhD in Chemistry (Göttingen University, Germany). Previously led the Centre for Advanced Macromolecular Design at the University of New South Wales (2000–2008) and served as Head of School at Karlsruhe Institute of Technology (KIT, Germany, 2008–2017). Established QUT’s Soft Matter Materials Lab in 2017. Research Interests : Pioneering precision photochemical transformations using multi-color light, light-driven 3D printing methodologies, and action-plot analysis of photochemical reactivity. Key areas include dynamic covalent chemistry, light-responsive polymers, and advanced soft matter materials. Publications & Impact : Over 780 peer-reviewed articles (46,000+ citations). Notable works include studies on photoswitchable polymers, visible-light reactive nanoparticles, and multi-wavelength 3D printing. Awards & Fellowships : Centenary Prize (Royal Society of Chemistry, 2023), Fellow of the Australian Academy of Science, Helmholtz Association’s Erwin Schrödinger Award, and multiple national/international medals. Editor-in-Chief of Polymer Chemistry (2013–2020). Grants & Funding : Secured >$50M in funding from ARC, Helmholtz, German Research Council, and industry partnerships. Leads projects on photoresists for 3D lithography, advanced polymer inks, and light-induced macromolecular design. Labs & Collaborations : Coordinates the Macroarc Lab, fostering international collaborations in polymer science and materials engineering. Active in regulatory policy for plastic recycling and sustainable materials.