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Monique McClainView profile

Assistant Professor

• Additive Manufacturing
• Energetic Materials
• 3D Printing
• +5 more

Monique McClain is an Assistant Professor of Mechanical Engineering at Purdue University's West Lafayette School of Mechanical Engineering. She joined Purdue in Fall 2021 after a postdoc at Oak Ridge National Laboratories. Her academic journey includes a Ph.D. and M.S. in Aeronautics and Astronautics from Purdue University (2020 and 2018) and a B.S. in Aerospace Engineering from UC San Diego. She has held internships at NAWCWD China Lake and NASA Marshall Space Flight Center through her National Science and Technology Graduate Fellowship (NSTRF). Her research focuses on advancing additive manufacturing techniques for energetic materials, dissimilar material printing, and quality control in high-temperature applications. Key areas include combustion dynamics, propulsion systems, and convergent manufacturing strategies. The McClain Team, emphasizing interdisciplinary collaboration, develops novel materials and processes for applications in aerospace and defense through projects like multi-formulation printing and anomaly detection in 3D printing. Research Highlights: Development of photopolymeric binders for solid propellant 3D printing Integration of ultrasonic vibrations for viscous material extrusion Anomaly detection in fused filament fabrication using machine learning Awards & Recognition: 2023 MIT Technology Review Innovators Under 35 AFOSR Young Investigator Program (YIP) FY23 Award 2021 AIAA Propellants and Combustion Best Paper Award Advising & Team: Supervises a dynamic team of PhD and MS students exploring topics like dissimilar material interfaces, real-time quality monitoring, and ceramic matrix composites. She prioritizes DEI initiatives and mentors students in technical communication and ethical engineering practices. Labs & Facilities: Leverages Purdue's advanced manufacturing facilities to conduct experiments in multi-material printing and combustion testing. Collaborates with industry partners to bridge academic research with practical applications.

• Active Matter
• Topological Insulators
• Nonlinear Dynamics
• +3 more

Vincenzo Vitelli is Professor in the Department of Physics and James Franck Institute at the University of Chicago. His research spans complex systems at the intersection of physics, engineering, and applied mathematics, including biophysics, active matter, machine learning, robotics, metamaterials, topological insulators, hydrodynamics, and soft materials. The Vitelli Group investigates phenomena arising from nonlinearities, disorder, and far-from-equilibrium dynamics using analytical and numerical approaches. Current projects explore nonlinear x-ray interactions, odd elastic properties, machine learning for physical systems, and topological mechanics. The group maintains active collaborations with multiple experimental teams. Vitelli has received several honors including being named a Fellow of the American Physical Society (2018) and Kavli Frontiers of Science Fellow (2015). He currently advises 8 PhD students and has mentored over 15 doctoral graduates. The group has received funding from multiple sources including the National Science Foundation and Department of Energy.

William H. GreenView profile

Professor

• Chemical Kinetics
• Molecular Simulation
• Combustion Chemistry
• +5 more

William H. Green is the Hoyt Hottel Professor in Chemical Engineering at MIT and holds the role of Postdoctoral Officer. His work focuses on computational methods in chemical reaction thermodynamics and kinetics, particularly in combustion chemistry and reaction mechanism generation. He leads the development of the Reaction Mechanism Generator (RMG) software, which aids in addressing questions about alternative fuels and reaction pathways. Education: Ph.D. in Chemical Engineering, University of California, Berkeley, 1988 B.A. in Chemistry, Swarthmore College, 1983 Research Interests: Dr. Green’s research spans computational modeling of chemical kinetics, molecular simulation, and free radical reactions. His group explores combustion chemistry, reaction mechanism automation, and the application of machine learning to predict chemical properties and reaction outcomes. Key areas include polymer fouling in distillation systems, decarbonization of transportation fuels, and solvent effects on reaction kinetics. Publications Trends: Recent work emphasizes multiphase systems, alternative fuel chemistry, and machine learning-driven predictions of thermodynamic and kinetic properties. Notable contributions include detailed kinetic models for fuels like RP-2 and studies on hydrogen carrier systems for long-haul trucking. Awards and Honors: AIChE’s R. H. Wilhelm Award (2019) Inaugural Fellow of the Combustion Institute (2018) AAAS Fellow (2016) C.M. Mohr Teaching Award (2006) Advising and Grants: While specific student advisees are not listed, his group’s work is supported by grants from agencies like the NSF, focusing on predictive kinetics and sustainable energy systems. Collaborations include projects on electrochemical systems and solid electrolyte interphase formation in lithium batteries. Labs and Teams: His research group develops and applies the RMG software package, a key tool for automated reaction mechanism generation used in academia and industry.

Travis SippelView profile

Associate Professor

• Energetic Materials
• Combustion Engineering
• Materials Science
• +4 more

Travis Sippel is an Associate Professor in the Department of Mechanical and Aerospace Engineering at the University of Missouri, Columbia. He previously held positions as an Assistant and Associate Professor at Iowa State University. His research focuses on energetic materials, including their synthesis, fabrication, and combustion, with an emphasis on developing 'smart' materials using microwave electromagnetic fields to enhance safety and utility. His work is funded by the DoD and DOE laboratories, and he has received Young Investigator Awards from AFOSR and DTRA. Education: B.S. in Mechanical Engineering (University of Kansas, 2007), M.S. and Ph.D. in Mechanical Engineering (Purdue University, 2009 and 2013). Research interests include microwave-enhanced combustion processes, nanoscale material synthesis, and advanced manufacturing techniques for energetic materials. His lab explores applications such as controllable propellant ignition, thermite reaction dynamics, and plasma-enhanced burning rates. Key achievements include innovations in porous propellant design, microwave-responsive binders, and additive manufacturing of energetic materials. His recent work emphasizes real-time control of energy output via electromagnetic fields. Awards and grants: AFOSR and DTRA Young Investigator Awards, funding from DoD/DoE laboratories. Labs: Energetic Materials Combustion Lab, focusing on experimental and computational studies of energetic material systems.

Martin JohnstonView profile

Professor

• Forensic Chemistry
• Supramolecular Chemistry
• NMR Spectroscopy
• +3 more

Dr. Martin Johnston Professor Martin Johnston is a distinguished academic in the Department of Chemistry at Flinders University, within the College of Science and Engineering. Specializing in forensic chemistry, supramolecular chemistry, and NMR spectroscopy, his research spans renewable energy, health, and defence applications. He holds leadership roles as HDR Coordinator and Manager of the Nuclear Magnetic Resonance Facility, overseeing state-of-the-art spectrometers. Notable achievements include finalist recognition in the SA Science Excellence Awards (2023, 2024) and a Dean’s Award for Teaching Excellence (2009). Education BSc (Hons I) in Chemistry, University of New England (1987) PhD in Supramolecular Organic Chemistry, University of New England (1994) Research Interests His work integrates organic synthesis, NMR methodologies, and interdisciplinary collaborations with institutions like Forensic Science SA and Defence Science and Technology Group. Key areas include supramolecular constructs, forensic analysis, and sustainable materials development. Recent projects include optimizing NMR facilities via ARC LIEF grants and exploring pyrethrin derivatives for pesticide applications. Awards & Grants Recipient of prestigious awards such as the Laporte Centenary Scholarship (1991) and the Dr. G.I. Feutrill Memorial Prize (1989). Secured significant grants, including $900,000 for NMR facility upgrades (2023) and collaborations on environmentally friendly propellants. Teaching & Leadership As an innovative educator, he pioneered lightboard technology for hybrid learning. Served in roles like Deputy Head of School and Research Leader at the Flinders Institute for Nanoscale Science and Technology. Collaborations International partnerships include Washington State University, University of Bologna, and the Netherlands Forensic Institute. Editorial board member for the journal Molecules (since 2019).

Min ZhouView profile

Professor

• Multiscale Modeling
• Fracture Mechanics
• Nanomaterials
• +6 more

Min Zhou is a Professor at Georgia Institute of Technology, holding a joint appointment in the School of Materials Science and Engineering and the School of Mechanical Engineering. He joined Georgia Tech in 1995 as an Assistant Professor and has since contributed extensively to research in material behavior across multiple scales. His work focuses on microstructure effects, nanoscale deformation, and multiscale modeling, using computational and experimental methods like finite elements and molecular dynamics. Education: Ph.D., Brown University, 1993 Sc.M., Brown University, 1990 M.S., Beijing University of Aeronautics and Astronautics, 1985 B.S., Taiyuan Heavy Machinery Institute, China, 1982 Research Interests: Dr. Zhou’s research spans biomolecular-solids, ceramics, composites, metals, and nanostructures. He investigates microstructure-driven phenomena in heterogeneous materials, energy dissipation in composites, and thermal-mechanical-chemical coupling. His experimental tools include laser interferometry and novel digital diagnostics, while computational approaches emphasize equivalent continuum models and multiscale simulations. Key Contributions: Recent work includes advancing microscale models for intergranular damage, detonation behavior in energetic materials, and piezoelectric/flexoelectric composites. He has developed an equivalent continuum framework linking molecular dynamics and continuum mechanics. Awards: American Society of Mechanical Engineers Fellow (2005) Woodruff School Faculty Fellow (2004–2008) Sigma Xi Georgia Tech Chapter Best Paper Award (2004) NSF Faculty Early Career Award (2000–2005) Advising & Grants: Current projects include NASA-funded research on metallic nanowires and Air Force-sponsored work on multifunctional energetic materials. He maintains a lab with advanced facilities like split Hopkinson pressure bars and torsion-compression testing systems. Labs & Teams: His research group focuses on dynamic material response and failure mechanisms, with collaborations in energy storage, nanomaterials, and bioinspired materials design.

Olivier MathieuView profile

Research Professor

• Combustion Chemistry
• Chemical Kinetics
• Pollutant Formation
• +3 more

Dr. Olivier Mathieu is a Research Professor in the Department of Mechanical Engineering at Texas A&M University's College of Engineering, specializing in combustion science. His work focuses on chemical kinetics, pollutant formation, and fire suppression technologies. Education includes a Ph.D. in Physical Chemistry – Applied Chemical Kinetics from University of Orléans (2006), M.A. in Chemical Kinetics from University P. and M. Curie (2003), and B.A. in Chemistry from University of Orléans (2001). Research expertise covers fundamental combustion chemistry with applications in energy conversion and safety engineering. Key research areas: High-temperature reaction kinetics Pollutant formation mechanisms Fire suppressant development Alternative fuel combustion Shock tube diagnostics Recent publications focus on ammonia combustion kinetics, battery safety, and chemical kinetic modeling. Major honors include the 2017 JSPS Fellowship and 2007 Paul Laffitte PhD Award. Affiliated with the Turbomachinery Laboratory and Petersen Research Group.

• Surface Chemistry
• Catalysis
• Ultrafast Electron Microscopy
• +4 more

Jonas Weissenrieder is a Professor in the Department of Physics of Light and Matter at the Royal Institute of Technology (KTH) , Stockholm. His academic roles include teaching and coordinating courses such as Analytical Methods and Instruments, Degree Project in Applied Physics, and Basic Physics. He actively contributes to research in surface chemistry, catalysis, and ultrafast electron microscopy, focusing on material dynamics, energy materials, and nanotechnology. His research interests span surface reactions, plasmonic phenomena, and energy storage systems. Notable contributions include studies on catalytic mechanisms (e.g., naphthalene decomposition on Fe surfaces), ultrafast spin dynamics, and MXene-based supercapacitors. He utilizes advanced techniques like ultrafast electron microscopy (UEM) and time-resolved spectroscopy to investigate material behavior at atomic and nanoscales. Dr. Weissenrieder’s work bridges fundamental physics and applied materials science, with applications in renewable energy, aerospace propulsion, and magnetic materials. His recent publications highlight innovations in nanomaterials, phase transitions, and high-pressure phenomena, reflecting his interdisciplinary approach to scientific inquiry.

Jeffrey BergthorsonView profile

Professor

• Combustion and Energy Systems
• Alternative Fuels
• Thermodynamics
• +4 more

Jeffrey Bergthorson is a Professor at McGill University's Department of Mechanical Engineering within the Faculty of Engineering. He holds the prestigious William Dawson Scholar title. His research focuses on combustion and energy systems, particularly alternative fuels like biofuels and metal-based energy carriers. He develops experimental, computational, and analytical models to study fuel ignition properties, combustion dynamics, and energy conversion systems. Current research includes hybrid flames combining solid and gaseous fuels, Stirling-engine burner technologies for biomass cogeneration, and metal-water reactions for hydrogen production. He teaches courses such as MECH 240 Thermodynamics 1 and MECH 652 Dynamics of Combustion. Key awards include the William Dawson Scholar distinction. His work spans computational fluid dynamics (CFD) simulations, laser diagnostics for NO measurements, and metal-LOX propulsion systems. Research labs are centered on alternative fuels and combustion innovation.

Michael ShelleyView profile

Professor

• Biophysics
• Fluid Dynamics
• Active Matter
• +6 more

Michael Shelley is the Lilian and George Lyttle Professor of Applied Mathematics at New York University and a Director at the Simons Foundation's Center for Computational Biology . He serves as Co-Director of NYU's Applied Mathematics Laboratory and Senior Research Scientist in Biophysical Modeling. Education: B.A. in Mathematics from the University of Colorado Ph.D. in Applied Mathematics from the University of Arizona His research bridges applied mathematics , biophysics , and fluid dynamics , with a focus on active matter , microscale propulsion , and biological transport networks . He develops computational models for self-propelled particles , viscoelastic flows , and cytoskeletal dynamics in systems ranging from Caenorhabditis elegans to liquid crystal elastomers . Notable scientific awards include: François Frenkiel Award (APS) Julian Cole Lectureship (SIAM) Fellow of American Physical Society Fellow of Society for Industrial and Applied Mathematics Member of American Academy of Arts and Sciences Member of National Academy of Sciences Shelley's work spans microswimmer dynamics , viscoelastic fluid modeling , and biological morphogenesis , often combining theoretical analysis with experimental validation in collaboration with physicists and biologists.

Liesbeth M.C. JanssenView profile

Associate Professor

• Soft Matter Physics
• Non-Equilibrium Systems
• Statistical Mechanics
• +5 more

Liesbeth M.C. Janssen is an Associate Professor at Eindhoven University of Technology, leading the Soft Matter and Biological Physics group and affiliated with the Institute for Complex Molecular Systems (ICMS). Her research focuses on non-equilibrium systems, including glass formation, active materials, and bio-inspired matter, using theoretical and computational approaches. Academic Background: PhD in Theoretical Chemistry (cum laude, Radboud University Nijmegen, 2012); postdoctoral work at Columbia (2012–2015) and Düsseldorf (2015–2017). Research: Develops novel statistical physics frameworks for materials far from equilibrium, with applications in self-healing plastics, cancer research, and memory storage. Recent Publications integrate machine learning with soft matter dynamics, spanning topics like glass aging , active material design , and living matter modeling . Her work aligns with UN Sustainable Development Goals (SDGs) for smart and sustainable materials. Awards & Grants: NWO Vidi (2020) Mildred Dresselhaus Award (2015/2016) Alexander von Humboldt Fellowship (2016) DFG Research Grant (2018) European ITN Grant (2019) Leadership: Chair of Soft Matter and Biological Physics (2022–now), KNAW Young Academy member (2020–), Heineken Young Scientists Awards jury (2024).

Marc MassotView profile

Professor

• Combustion
• Multiphase Flows
• Spray Dynamics
• +4 more

Marc Massot is a leading Professor and head of the Laboratory for Molecular and Macroscopic Energetics, Combustion . With a research portfolio spanning combustion, multiphase flows, and high-order numerical methods, he has published 49 peer-reviewed works since 2024 addressing polydisperse sprays, solid-propellant combustion, and advanced Eulerian/Lagrangian modeling. Research Interests: Multi-scale modeling of reacting sprays and solid propellant combustion High-order accurate numerical schemes for hyperbolic balance laws Eulerian multi-fluid and moment methods for polydisperse two-phase flows Experimental validation of numerical simulations in aeronautical and automotive burners Across his recent articles, Massot focuses on coupling large-eddy simulation with sophisticated spray models to predict flame–spray interactions in realistic engine geometries. His work systematically addresses size-distribution effects, evaporation, coalescence, and turbulent dispersion, while developing stable, high-order algorithms suitable for unstructured meshes and stiff chemistry. A common thread is the derivation of minimal yet accurate Eulerian closures from kinetic theory, validated against canonical experiments ranging from counter-flow spray flames to pulsed jet injection. These studies advance both fundamental understanding and engineering design tools for liquid-fueled propulsion and internal-combustion systems. Scientific Awards: No awards are mentioned in the provided text. Advising & Grants: No explicit list of students or funded projects is supplied, though the extensive co-authorship network indicates active mentoring of PhD students and post-docs such as Aymeric Vie, François Doisneau, Frédérique Laurent, and Lucie Fréret. Laboratories & Teams: Marc Massot leads the Laboratory for Molecular and Macroscopic Energetics, Combustion , whose research bridges fundamental combustion science and applied computational fluid dynamics for energy and propulsion applications.

Henriette S. JensenView profile

Senior Lecturer

• Environmental Engineering
• Microbial Ecology
• Water Quality
• +4 more

Dr. Henriette S. Jensen is a Senior Lecturer in the School of Chemical, Materials and Biological Engineering at the University of Sheffield. She holds a PhD in environmental engineering from Aalborg University (2008) and an MEng in environmental engineering (2005). Her research focuses on microbial and chemical processes in urban water systems, particularly hydrogen sulfide-induced corrosion, pollutant transport, and biofilm dynamics. Education: MEng in Environmental Engineering, Aalborg University (2005) PhD in Environmental Engineering, Aalborg University (2008) Research Interests: Microbial impacts on pollutant transformation Chemical interactions in urban water systems Corrosion mitigation in sewer infrastructure Pollutant removal technologies Publication Trends: Recent work explores sediment transport modeling, synthetic biology in water quality sensors, and food waste particle dynamics. 2020 studies focus on phosphate dosing effects on biofilms and micropollutant removal technologies. 2019-2016 publications address anaerobic digestion, stormwater biofilters, and microbial community variability. Contact: Email: h.s.jensen@sheffield.ac.uk Phone: +44 114 222 8254 Room D59, Sir Robert Hadfield Building

• Industrial Engineering
• Systems Theory
• Risk Management
• +4 more

Prof. Dr. Sinisa Cvetkovic is an Associate Professor at the Faculty of Technical Sciences and Informatics, International Slavic University 'Gavrilo Romanovich Derzhavin', teaching at campuses in Sveti Nikole and Bitola since 2018. His academic journey includes a PhD in Economic Sciences (2013), Master's in Public Sector Management (2010), and Mechanical Engineering degree (1992) from Skopje's Faculty of Mechanical Engineering. Education: Doctor of Economic Sciences (2013), Faculty of Economics, Skopje Master of Public Sector Management (2010), Faculty of Economics, Skopje BSc in Mechanical Engineering (1992), Faculty of Mechanical Engineering, Skopje Research Focus: His work bridges Industrial Engineering, Systems Theory, and Risk Management with practical applications in Occupational Health and Safety (OSH). Key interests include: Innovation performance metrics Knowledge-based economy transitions Occupational stress and musculoskeletal disorder prevention Eco-industrial park design Creative industries in economic growth Publications Trends: Over 15+ years, his research evolved from technological capability analysis in Balkan states (2011-2013) to systemic OSH improvements (2015-2017), later addressing creative industries (2019) and workplace ergonomics (2020-2021). Recent work (2021) explores preventive measures against musculoskeletal disorders and eco-industrial parks. Professional Roles: Concurrently serves as Director of the Mechanization Department at PE ViK Skopje since 2018, with a career spanning technical management (1992-2005) to ISO quality representation (2014-2017). His industry experience informs academic work on workplace safety and productivity optimization.

Roderick BoswellView profile

Professor

• Plasma Physics
• Space Propulsion
• Helicon Physics
• +3 more

Professor Roderick Boswell is a faculty member at the Research School of Physics, Australian National University. His research focuses on experimental plasma physics with applications in space propulsion systems. He leads investigations into plasma dynamics, thruster technologies, and complex plasma phenomena. Research interests center on helicon plasma sources, double layer formation, and magnetic field interactions in plasma systems. His recent work explores innovative propulsion methods and plasma-material interactions for aerospace applications. Recent publications demonstrate strong focus on micro-thruster development, plasma diagnostics, and spacecraft propulsion systems. Research combines theoretical modeling with experimental validation in specialized plasma facilities. Active in multiple collaborative projects including the Australian Plasma Thruster Project and radiofrequency plasma applications research. Leads a research group advancing plasma physics and space engineering capabilities.