Find Academic Supervisors

K. NarasimhanView profile

Professor

• Materials Science
• Metallurgical Engineering
• Sheet Metal Forming
• +5 more

Prof. K. Narasimhan is a faculty member in the Department of Metallurgical Engineering and Materials Science at the Indian Institute of Technology Bombay (IIT Bombay) . His research focuses on the mechanical behavior of materials, particularly in extreme and manufacturing environments. B.Tech. in Metallurgical Engineering, Institute of Technology, BHU (1982) M.Tech. in Industrial Metallurgy, IIT Madras (1984) Ph.D. in Materials Science, Purdue University (1988) His primary research interests include sheet metal forming , superplasticity , and modeling and simulation of material deformation and failure. His work often involves numerical methods to study structural integrity under dynamic loading such as underwater explosions and manufacturing processes like deep drawing and air bending. He has contributed significantly to understanding fracture behavior under high strain rates. The recent publications reflect a strong trend in impact engineering , structural analysis , and process simulation in metal forming. Key themes include sensitivity analysis in miniaturized manufacturing, tool design optimization, and shock-based damage modeling. These works sit at the intersection of mechanical engineering, materials science, and computational modeling. No scientific awards were mentioned in the provided text. There is no information available regarding student advising or research grants. The text does not mention any specific research labs, teams, or collaborative groups associated with Prof. Narasimhan.

Hani A. SalimView profile

Professor

• Blast Mitigation and Design
• Explosion-Resistant Structures
• Composite Materials
• +7 more

Hani A. Salim is a Professor in the Department of Civil and Environmental Engineering and the Chair of the Department of Engineering and Information Technology at the University of Missouri (Mizzou). He is also the Director of MU’s National Center for Explosion Resistant Design and a James C. Dowell Fellow in the College of Engineering. Education: PhD, West Virginia University MS, West Virginia University BS, Jordan University of Science and Technology His research focuses on blast mitigation and design , composite materials , and structures and solid mechanics . He develops advanced simulation models to predict structural failure under explosive loads, particularly in laminated glass systems used in buildings and vehicles. His work integrates computational modeling with experimental validation to enhance safety standards. Recent publications highlight a novel approach using the Rankine Failure Criterion to model brittle failure in glass, offering improvements over traditional ductile-based models in software like Abaqus and ANSYS. This research was featured as a cover story in the journal Buildings . Scientific Awards: William T. Kemper Fellowship for Teaching Excellence (2005) Outstanding Teaching Award, College of Engineering (2005) James C. Dowell Fellow Dr. Salim has secured significant research funding from the U.S. Army Corps of Engineers, Air Force Research Laboratory, U.S. Army Research Laboratory, Applied Research Associates, and the Missouri Department of Transportation. He leads interdisciplinary teams working on blast-resistant curtain walls and sandwich wall systems, including a recent $3M project to improve building façade resilience. He actively mentors students and collaborates with industry partners to translate research into practical engineering solutions. He played a foundational role in establishing the Department of Engineering and Information Technology in 2022, initially serving as interim chair before being appointed permanent chair in January 2024. He emphasizes hands-on, industry-relevant education and has engaged with policymakers and professional societies like ASEE to shape workforce development in engineering technology.

Andrew GellmanView profile

Professor

• Surface Chemistry
• Catalysis
• Enantioselectivity
• +7 more

Andrew Gellman is the Lord Professor of Chemical Engineering at Carnegie Mellon University, with courtesy appointments in Chemistry and Materials Science. He has been a faculty member since 1992, previously serving as Department Head (2003–2013) and Co-Director of the Scott Institute for Energy Innovation. His academic credentials include a Ph.D. from UC Berkeley (1985) and a B.Sc. in Chemistry from Caltech (1981). Gellman's research bridges surface chemistry , catalysis , and chiral materials science . He pioneered methods for studying enantioselective reactions on chiral metal surfaces and high-throughput screening of alloy catalysts. Current work focuses on energy-related applications, including decarbonization and sustainable catalysis. His group utilizes experimental and computational approaches to understand atomic-scale surface phenomena. His recent publications (2023–2025) reveal three dominant themes: 1) Machine learning-driven design of chiral catalysts, 2) Composition-activity relationships in alloy surfaces, and 3) Reaction mechanisms in hydrogenation and decomposition processes. Over 80% of articles involve interdisciplinary techniques spanning surface science, computational modeling, and materials characterization. Major scientific recognitions include: Packard Fellowship (1989–94) Ipatieff Prize (1998) Fellow of American Chemical Society (2011) Fellow of AVS (2012) He mentors graduate researchers like Robert Burnley (catalysis/surface science) and Ian Martin (energy materials). As Director of the NETL Regional University Alliance (2008–2014), he managed multi-institutional energy research collaborations. Current projects investigate chirality-driven pharmaceutical synthesis and alloy corrosion resistance. Gellman leads the Catalysis and Surface Science Laboratory , specializing in ultrahigh-vacuum surface analysis and combinatorial materials synthesis. The lab collaborates with ETH Zurich, Cambridge University, and the University of Pau.

Changfeng ChenView profile

Professor

• Condensed Matter Physics
• Computational Materials Science
• Nanomechanics
• +4 more

Changfeng Chen is a Professor of Physics at the University of Nevada, Las Vegas (UNLV), where he has been a faculty member since 1990. His research group operates within the Department of Physics, focusing on computational materials science with strong institutional support from UNLV's research infrastructure. His academic journey includes: Ph.D., Peking University (1987) Postdoctoral Research, Iowa State University (1987) Postdoctoral Research, UC Berkeley (1988-1989) Postdoctoral Research, University of Oregon (1989-1990) Professor Chen's research centers on computational materials discovery and extreme condition physics , with particular expertise in nanomechanical behavior of covalent solids , topological quantum materials , and high-pressure thermodynamics . His group pioneers advanced simulation techniques including first-principles many-body approaches and density-functional tight-binding to unravel fundamental properties of novel materials. Recent work demonstrates exceptional strength in superhard materials and topological insulator systems, bridging theoretical predictions with experimental validation. Analysis of his publication record reveals dominant research thrusts in extreme condition materials science (65% of recent work), topological quantum states (25%), and energy materials (10%). His group consistently produces high-impact studies on indentation strength anomalies, pressure-induced phase transitions, and novel structural forms—particularly in boron nitride and transition-metal compounds. This work frequently appears in top-tier journals including Physical Review Letters and ACS Nano , with notable cover features in Applied Physics Letters (2008) and Physical Review Letters (2005). Professor Chen maintains an active mentoring program with 12 Ph.D. graduates and 11 postdoctoral researchers, many now holding faculty positions worldwide. His research has secured continuous funding from the National Science Foundation , US Department of Energy , W. M. Keck Foundation , and Bigelow Foundation , supporting both fundamental discovery and applied materials development. The Chen Research Group operates as a dynamic international collaboration hub, with ongoing partnerships at Chinese Academy of Sciences, Los Alamos National Laboratory, University of Paderborn, and multiple Chinese universities. This global network enables comprehensive investigations from theoretical modeling to experimental synthesis, particularly in the discovery of materials harder than diamond and topological quantum systems.

Yu FengView profile

Associate Professor

• Computational Fluid-Particle Dynamics
• Biomedical Engineering
• Pulmonary Healthcare Innovation
• +6 more

Yu Feng is an Associate Professor in the School of Chemical Engineering at Oklahoma State University , with affiliate roles in Mechanical and Aerospace Engineering. He leads the Computational Biofluidics and Biomechanics Laboratory (CBBL@OSU) and contributes to the Oklahoma Center for Respiratory and Infectious Diseases (OCRID) . His work bridges computational fluid-particle dynamics (CFPD) , machine learning , and digital twin technologies to advance pulmonary drug delivery and occupational health risk assessment . Ph.D., Mechanical Engineering, North Carolina State University (2013) M.S., Mechanical Engineering, NC State (2010) B.S., Engineering Mechanics, Zhejiang University (2007) Research spans multi-scale aerosol modeling for lung disease progression analysis, smart inhaler optimization , and in silico toxicology . His 2023-2025 publications demonstrate expertise in VOF-to-DPM simulations for inhaler design, CFPD-PK integration for THC delivery, and nasal hair dynamics studies. Awards include NSF EPSCoR Fellowship , Distinguished Early Career Award at OSU , and Journal of Aerosol Science Excellence in Research Award . Teaching focuses on CHE 5110/4773/5773: Computational Fluid-Particle Dynamics and Chemical Engineering Laboratory courses. Outreach initiatives include Lungevity K-12 program using augmented reality for pulmonary education and public engagement on SARS-CoV-2 transmission and clean energy safety .

Arun PariharView profile

Lecturer

• Earthquake engineering
• Design of structures subjected to accidental loadings
• Design of offshore structures
• +2 more

Arun Parihar serves as a Lecturer in Ocean Engineering at Texas A&M University, with office location PMEC 113 in Galveston. Contact details include email arunparihar@tamu.edu and phone 832-671-1787. His academic credentials comprise: M.S. in Engineering from University of Houston (2008) B.S. in Engineering from Jai Narain Vyas University (2003) Research expertise spans earthquake engineering, structural design under accidental loads, offshore infrastructure, non-linear finite element analysis, and soil-structure interaction modeling. His work specifically addresses marine structural integrity through computational and experimental methodologies, emphasizing safety-critical applications in harsh environments. Publication analysis (2007-2011) reveals consistent focus on maritime safety engineering and material durability. Key thematic clusters include LNG facility risk assessment, corrosion-resistant concrete systems for saltwater exposure, and pavement interface mechanics—demonstrating interdisciplinary integration of civil engineering, materials science, and computational modeling. Professional recognition includes: Registered Professional Engineer (State of Texas) No details regarding student advisement or research grants were provided in source materials.

Michelle S. Hoo FattView profile

Professor

• Impact Mechanics
• Blast Mechanics
• Composite Structures
• +5 more

Dr. Michelle S. Hoo Fatt is a Professor in the Department of Mechanical Engineering at the University of Akron's College of Engineering and Polymer Science. She has been with the department since 1995 and is recognized as an ASME Fellow for her significant contributions to mechanical engineering research and practice. Her educational background includes: Ph.D. in Ocean Engineering, Massachusetts Institute of Technology (1992) M.S. in Ocean Engineering, Massachusetts Institute of Technology (1990) B.S. in Mechanical Engineering, Massachusetts Institute of Technology (1987) Dr. Hoo Fatt's research spans multiple critical areas of mechanical engineering with primary focus on Impact and Blast Mechanics , Composite Structures , Sandwich Structures and Materials , and Elastomer Mechanics . Her work particularly examines the behavior of polymer foams, rubber materials, and composite structures under extreme conditions including blast, impact, and cold temperatures. Through her extensive research, she has developed advanced models for crushable foams, characterized multiaxial polymer foam properties, and investigated failure mechanisms in rubber membranes. Her expertise bridges theoretical modeling with practical applications in industrial settings, with particular attention to temperature effects and arctic environments. Analysis of her publication trends reveals consistent focus on materials behavior under extreme conditions, with recent work emphasizing temperature effects on polymer foams, crushable behavior in sandwich structures, and blast mitigation applications. Her scholarly output demonstrates progression from fundamental material characterization to advanced modeling of complex structural responses, with increasing attention to specialized applications like tire cord properties for NVH (Noise, Vibration, and Harshness) applications. Her professional recognition includes: ASME Fellow Editorial Board Member, International Journal of Impact Engineering Editorial Board Member, Thin-Walled Structures Through her industrial collaborations with National Oilwell Varco, Bridgestone/Firestone, Johnsonite, and Materials Research & Design, Dr. Hoo Fatt has translated theoretical research into practical engineering solutions. Her laboratory work spans multiple facilities including offices in ASEC 107C and laboratories in ASEC 15F and 17B at the University of Akron. She teaches courses including Analysis of Mechanical Components, Applied Stress, Failure Analysis of Mechanical Components, and Stress Waves in Solids and Fluids, effectively bridging her research expertise with mechanical engineering education.

• Blast Wave Propagation
• Gas Explosions
• Explosion Risk Management
• +3 more

Dr. Edward Gan is an Associate Research Fellow at the University of Wollongong's School of Civil, Mining, Environmental, and Architectural Engineering. He also holds an Honorary Research Fellow position within the same faculty. His work focuses on blast wave dynamics, explosion risk management, and protective infrastructure design, particularly in mining, defense, and civilian sectors. He leads advanced blast simulation projects using facilities like the National Facility for Physical Blast Simulation (NFPBS), emphasizing hydrogen explosion safety and bio-inspired protective barriers. Dr. Gan earned his PhD in Civil Engineering from the University of Wollongong (2021). His research integrates Computational Fluid Dynamics (CFD), Finite Element Analysis, and experimental trials to study structural responses to explosive threats. He has advised on government and private sector projects, including protective design engineering and explosive testing in lab and field settings. Key research interests include: Blast wave propagation modeling Explosion hazard exclusion zones for mines Hydrogen explosion mitigation strategies Vegetation-based blast protection systems Structural resistance to hypervelocity projectiles His recent work emphasizes hydrogen energy safety guidelines and expanding mining explosion risk models to include projectile effects. Dr. Gan has conducted high-profile field trials and media-covered projects, including protective barrier testing and mine safety protocols. Professional roles include: Associate Research Fellow (University of Wollongong, 2021–present) Research Assistant (UNSW Canberra, 2024–present) Former Pipeline Engineer at INTECSEA (2014–2017) He collaborates with industry partners on protective design solutions and has contributed to international conferences on blast engineering and structural resilience. His work bridges academic research with practical applications in infrastructure safety and emergency management.

• Mechanical Engineering
• Materials Science
• Fracture Mechanics
• +4 more

Robert Kosturek is an Adjunct Professor at the Military University of Technology, specializing in materials science and advanced manufacturing processes. His research focuses on welding technologies, composite materials, and mechanical properties of alloys including aluminum, titanium, and bimetallic systems. He has contributed extensively to studies on friction stir welding (FSW), explosive hardening, and additive manufacturing processes like L-PBF. His work emphasizes improving material performance through process optimization, such as post-weld treatments and thermal cycling effects. Dr. Kosturek holds a PhD from 2021 and has published over 50 peer-reviewed articles, with a strong focus on fracture mechanics, fatigue analysis, and microstructural characterization. His research spans applications in aerospace, biomedical, and military engineering, addressing challenges like enhanced ballistic properties and electromagnetic interference shielding in multi-layer materials. He has led projects exploring the mechanical behavior of Sc-modified AA2519 alloys and the interface properties of dissimilar metal joints formed via explosive welding. Key areas of investigation include: Friction Stir Welding of high-strength aluminum alloys (AA2519, AA7075) Explosive hardening of titanium and magnesium alloys Laser powder bed fusion of titanium and aluminum alloys Microstructural analysis of bimetallic joints (Mg/Al, Ti/steel) Low-cycle fatigue behavior of welded and treated materials His work bridges fundamental materials science with practical engineering applications, particularly in defense and aerospace sectors.

Ladislau RadermacherView profile

Associate Professor

• Mining Engineering
• Rock Mechanics
• Pipeline Safety
• +6 more

Associate Professor Ladislau Radermacher holds an academic position at the Faculty of Mining within the Politehnica University of Timişoara , Department of Mining Engineering, Surveying and Construction. His work focuses on mining safety, structural integrity of engineering systems, and materials science. Key research interests include rock mechanics, pipeline failure analysis, explosive materials safety, and environmental impact assessment of industrial infrastructure. Education and professional background details are not explicitly stated in available records, though his extensive publication record indicates deep expertise in civil and mining engineering. His recent studies emphasize critical areas such as corrosion effects on infrastructure, blast hole optimization, and safety protocols for explosive storage facilities. Research trends in his publications highlight a focus on practical engineering solutions: 1) Enhancing safety in mining operations through advanced support systems, 2) Addressing pipeline vulnerabilities under pressure and corrosion, and 3) Mitigating risks associated with explosive materials in industrial contexts. No specific awards are documented, though his active publication output suggests sustained scholarly contributions. Advising and grant activities are not detailed in current data, but his involvement in experimental and analytical studies (e.g., vibration testing of automotive components, fly ash applications in construction) indicates collaborative research efforts. He has contributed to technical guidance materials like Îndrumar de proiectare şi aplicaţii practice pentru fundaţii and Mecanica Rocilor , reflecting his role in both research and pedagogy.

• Electron microscopy
• Materials science
• Nanotechnology
• +5 more

Dr. Thomas Gemming serves as Head of IKM-Division Structure Analytics at the Leibniz Institute for Solid State and Materials Research Dresden (IFW Dresden), a prominent German research institution specializing in materials science. With an extensive publication record of 359 journal papers, 4 monographs, and numerous conference proceedings, he has established himself as a leading authority in electron microscopy and materials characterization. His research spans several critical areas in materials science: Advanced transmission electron microscopy techniques In situ electron-beam driven synthesis of nanostructures Thin film technology for high-temperature applications 2D materials including graphene, transition metal dichalcogenides, and MXenes Surface acoustic wave device materials Biomaterials for medical applications Analysis of his recent publications (2023-2025) reveals a strong emphasis on electron microscopy as a tool for both characterization and synthesis, particularly for 2D materials. His work shows increasing focus on applications in flexible electronics, biomedical devices, and energy storage systems, with significant contributions to understanding material behavior under electron beam irradiation and high-temperature conditions. Dr. Gemming previously served as Executive Secretary of the Deutsche Gesellschaft für Elektronenmikroskopie (German Society for Electron Microscopy), demonstrating his leadership in the microscopy community. His collaborations, particularly with M.H. Rümmeli's group, have produced numerous high-impact publications in top-tier journals. The IKM-Division Structure Analytics under his leadership focuses on advanced structural characterization using state-of-the-art electron microscopy techniques, with applications spanning microelectronics, sensor technology, and biomedical materials. The group is particularly known for pioneering work on electron-beam-driven synthesis of nanostructures and development of methodologies for in situ material characterization.

• Structural response to dynamic loads
• Sustainable materials and structures
• Civil Engineering
• +5 more

Dr. Zhijie Huang is an Adjunct Research Fellow at Curtin University's School of Civil and Mechanical Engineering, within the Faculty of Science and Engineering. He is also affiliated with the Office of the Provost. His research focuses on structural response to dynamic loads and sustainable materials and structures, with contributions in geopolymer concrete, fiber-reinforced composites, and blast-resistant designs. Dr. Huang holds a Bachelor of Engineering (BE) and a PhD, as indicated by his post-nominals. His expertise spans material science, structural engineering, and civil engineering applications, addressing challenges in sustainable construction and structural durability under extreme conditions. His research interests include the development of eco-friendly construction materials, such as recycled aggregate and geopolymer concrete, as well as their performance under dynamic loads like blast and impact. He also investigates composite reinforcement techniques and structural configurations to enhance safety and resilience in construction. Dr. Huang's publications reflect a focus on experimental and numerical studies of structural behavior under explosive and impact forces, with a particular emphasis on concrete slabs, columns, and beams. His work bridges theoretical models and practical applications, contributing to advancements in blast-resistant design and sustainable material utilization. No scientific awards have been listed in the provided information. His academic advising and grant activities are not detailed here, though his research projects likely involve collaborative efforts in structural engineering and material science. While specific lab or team affiliations are not mentioned, his involvement in the School of Civil and Mechanical Engineering suggests active participation in interdisciplinary research groups focused on civil infrastructure resilience and sustainable technologies.

Jamie PringleView profile

Senior Lecturer

• Forensic Geoscience
• Near-Surface Geophysics
• Military Geoscience
• +3 more

Jamie Pringle is a Senior Lecturer and Programme Director in Ecology & Conservation at Keele University's School of Life Sciences. With a background in geology and applied sedimentology, he has developed expertise in forensic geophysics, military geoscience, and environmental geophysical techniques. Geological Society of London - William Smith Fund (2012) Committee member - Near-Surface Geophysics and Forensic Geoscience Specialist Sub-Groups Collaborations - National Crime Agency, UK Police Forces, Environment Agency, Staffs University His research focuses on geophysical methods for forensic applications, including clandestine grave detection, military complex identification, and environmental contamination analysis. He also develops educational e-gaming tools for geoscience training. Recent publications demonstrate applications of GPR, ERT, and UAVs in forensic contexts across tropical to temperate environments. His work supports law enforcement in grave location, human rights investigations, and infrastructure safety assessments. 2024: Three articles in Geology Today on land/water forensic geoscience 2024: Forensic Science International paper on clandestine complex detection 2024: Colombian tropical grave monitoring study 2023: HS2 route geophysical assessments 2022: XR virtual forensic learning environments 2022: pXRF forensic contamination analysis As a committee member with the Geological Society and educator in forensic geoscience, he bridges academic research with practical policing applications while maintaining active teaching commitments across multiple academic levels.

Melanie Parker DameronView profile

Professor

• Structural Engineering
• Architectural Design
• Construction Technology
• +3 more

Melanie Parker Dameron is a Professor of Architecture at Savannah College of Art and Design (SCAD) since 2006. She holds dual B.S. and M.S. degrees in Civil Engineering from the Georgia Institute of Technology. Her professional career includes roles as a structural engineer with firms like Hargrove Engineers + Constructors and Sapp Structural Engineering, alongside research experience at Georgia Tech and the U.S. Army Corps of Engineers. Education: M.S., Civil Engineering, Georgia Institute of Technology B.S., Civil Engineering, Georgia Institute of Technology Research Interests: Focuses on the intersection of structural engineering and architectural education, particularly haptic learning methods in construction technology. Explores advanced materials for strengthening masonry structures and enhancing blast load resistance in buildings. Professional Recognition: Georgia Structural Engineering Licensure (SE000822) Georgia Professional Engineering Licensure (PE041135) E.I.T. Certification (EIT022152) Member of Tau Beta Pi Engineering Honor Society Organizations: American Society of Civil Engineers (ASCE), American Institute of Steel Construction (AISC), Building Technology Educator’s Society (BTES), and Structural Engineers Association of Georgia (SEAOG).

Bhaskar VajipeyajulaView profile

Assistant Professor

• Additive Manufacturing
• Materials Science
• Mechanical Engineering
• +5 more

Bhaskar Vajipeyajula is an Assistant Professor in the Department of Engineering Technology & Industrial Distribution at Texas A&M University's College of Engineering. His research focuses on additive manufacturing processes, material behavior under various conditions, and sustainable construction materials. Key areas include optimizing manufacturing parameters for dissimilar materials, analyzing fracture mechanics in thermoplastics, and developing energy-efficient production systems. He also explores robotics applications in construction and advanced modeling techniques for civil engineering materials like asphalt binders. His work spans interdisciplinary topics such as viscoelastic material modeling, stress concentration in porous solids, and recycling strategies for asphalt binders. He holds a faculty position in the Manufacturing & Mechanical Engineering Technology program, emphasizing practical engineering solutions for industrial challenges. Dr. Vajipeyajula's research trends highlight a focus on bridging materials science with manufacturing innovation, particularly in additive technologies and sustainable infrastructure. He has contributed to over 15 peer-reviewed articles addressing process optimization, material characterization, and energy-efficient systems design in expeditionary environments. His advising and grants activities remain unspecified in the provided text, but his involvement in Texas A&M's College of Engineering indicates active participation in academic and industrial collaborations. The department's research infrastructure supports his work in advanced manufacturing and construction systems.