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Dr. Abhendra K. Singh is an Associate Professor in the Department of Mechanical Engineering at Baylor University, where he leads research in advanced composite materials and structures. His work focuses on ceramic matrix composites, hypersonic materials, and damage mechanics, with extensive collaborations including NASA, U.S. Army, and aerospace industry partners. Education: Ph.D. in Mechanical and Aerospace Engineering, Syracuse University (2013) M.S. in Mechanical and Aerospace Engineering, Syracuse University (2009) B.Tech in Mechanical Engineering, Indian Institute of Technology Roorkee (2002) Research Interests: Dr. Singh specializes in the behavior of ceramic matrix composites under extreme conditions, hybrid composite design, and damage evolution mechanisms. His work addresses critical challenges in hypersonic applications through experimental and modeling approaches, emphasizing multifunctional material systems and environmental degradation effects. Publication Trends: His recent articles (2018-2025) predominantly explore high-temperature performance of oxide/oxide composites, damage tolerance under thermal/mechanical stress, and nanomaterial-enhanced polymers. Research shows increasing focus on hypersonic environment simulations and integrated thermal protection systems, with consistent emphasis on experimental validation and aerospace applications. Awards and Recognition: National Research Council Postdoctoral Fellowship (2015-2017) All University Doctoral Prize, Syracuse University (2014) Outstanding Graduate Student Award, Syracuse University Keynote Speaker at IIT Roorkee Ceramics Leadership Roundtable (2024) Advising and Collaborations: Dr. Singh mentors 4 doctoral candidates and 8 graduated Master's/undergraduate researchers. His lab receives funding from Spirit AeroSystems, U.S. Department of Defense, and participates in the University Consortium for Applied Hypersonics. Current projects include NASA-sponsored studies on thermal protection systems. Facilities: Leads the Composite Materials Research Lab at Baylor's BRIC facility, specializing in high-temperature testing, non-destructive evaluation, and plasma exposure simulations for aerospace materials.

• Ceramic Matrix Composites
• Emerging Materials for Hypersonic Applications
• Hybrid, Multifunctional Composite Structures
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Nicholas Kotov serves as the Joseph B. and Florence V. Cejka Professor of Chemical Engineering at the University of Michigan with joint appointments in Biomedical Engineering, Materials Science & Engineering, and Macromolecular Science & Engineering within the College of Engineering. His research laboratories are housed at the North Campus Research Complex (NCRC) in Ann Arbor, where he directs cutting-edge work at the intersection of nanotechnology and biomedicine. His academic foundation includes: M.S. in Chemistry from Moscow State University (1987) Ph.D. in Chemistry from Moscow State University (1990) Professor Kotov's research program centers on nanostructured materials for biological and medical applications, with particular emphasis on chiral nanomaterials and self-organizing colloidal systems. His group pioneers biomimetic approaches to material design, drawing inspiration from natural hierarchical structures. Current investigations focus on chiral quantum magnets, aramid nanofiber composites, and graph-theoretical frameworks for nanomaterial design. Recent publications demonstrate strong integration of machine learning with experimental nanofabrication, yielding breakthroughs in energy storage, biosensing, and optical devices with applications ranging from SARS-CoV-2 antivirals to terahertz radiation detection. Scientific Recognition: No major awards explicitly documented in source materials He mentors graduate researchers including Ji Young Kim and Terry Shyu, with projects spanning nanomedicine, energy storage, and advanced manufacturing. His lab maintains active industry partnerships and international collaborations, notably in African materials science capacity building. Current funding supports development of chiral optical devices, biomimetic scaffolds for tissue regeneration, and next-generation battery technologies. The Kotov Lab operates specialized facilities at NCRC B26-102S and 108S for nanomaterial synthesis, cryogenic electron tomography, and chiroptical characterization. Research teams integrate chemical engineering, materials science, and biomedical principles to create functional nanosystems with precise structural control.

• Nanomaterials
• Nanomedicine
• Self-assembly
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Rajendra K. Bordia is the George J. Bishop, III Chair Professor of Ceramics and Materials Engineering at Clemson University, where he previously served as Department Chair (2013–2019). He holds a B.Tech. from the Indian Institute of Technology Kanpur (1979), and M.S. and Ph.D. in Materials Science from Cornell University (1981, 1986). His research focuses on ceramics for energy, environmental, and medical applications, emphasizing sintering science, porous materials, and advanced composites. With over 170 publications and $40M in research funding, he is a Fellow of the American Ceramic Society and recipient of the Humboldt Research Award (2007) and Outstanding Educator Award (2012). Education: B.Tech., Mechanical Engineering, Indian Institute of Technology (1979) M.S., Materials Science and Engineering, Cornell University (1981) Ph.D., Materials Science and Engineering (minor in Solid Mechanics), Cornell University (1986) Research Interests: Ceramics for extreme environments and energy storage Nano/microstructure control in ceramics Porous and multilayered ceramic systems Polymers-derived ceramics and composites Professional Roles: Editor-in-Chief, Ceramics International Board Member, American Ceramic Society Academician, World Academy of Ceramics Awards Highlight: His recognition spans academic leadership (Marsha L. Landolt Graduate Mentor Award, 2007) and technical excellence (McQueen Quattlebaum Award, 2020).

• Ceramics
• Energy Storage Materials
• Advanced Materials Processing
• +7 more

Ramanan Krishnamoorti is a distinguished academic and administrator at the University of Houston (UH), serving as Vice President for Energy and Innovation, and holding professorships in Petroleum Engineering, Chemistry, and Chemical & Biomolecular Engineering. He leads the Cullen College of Engineering as a key figure in energy innovation and interdisciplinary research. Education: Ph.D. in Chemical Engineering, Princeton University (1994) B.Tech in Chemical Engineering, Indian Institute of Technology Madras (1988) Advanced studies in Materials Science (Cornell University) and Chemical Engineering (California Institute of Technology). Research Interests: Focuses on sustainable materials, polymer science, carbon capture technologies, and energy systems. His work bridges academia and industry, addressing challenges in decarbonization, nanocomposite materials, and energy workforce development. He explores innovative solutions for environmental sustainability through advanced materials and policy-driven initiatives. Leadership Roles: Chief Energy Officer at UH (2013–present) Interim Vice President/Vice Chancellor for Research & Technology Transfer (2015–present) Past Chair of the Chemical & Biomolecular Engineering Department (2008–2013) Associate Dean for Research in the College of Engineering (2005–2008) Key Contributions: His research spans polymer functionalization, direct air capture systems, and energy policy. Recent work emphasizes upcycling plastics, nanomaterials for thermal management, and microcredential programs to reskill the energy workforce. He collaborates across disciplines to advance sustainable energy paradigms and mitigate climate impacts. Labs & Teams: Leads interdisciplinary teams in the Cullen College, focusing on energy innovation and materials science. Collaborates with industry partners to translate research into practical applications, such as carbon capture technologies and advanced composites.

• Materials Science
• Chemical Engineering
• Petroleum Engineering
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Dr. Meisha L. Shofner is a Professor at the School of Materials Science and Engineering, Georgia Institute of Technology, with research focusing on processing-structure-property relationships in polymers and composites. Her work emphasizes scalable processing approaches for mechanical metamaterials, natural polymers, and nanocomposites. Her research interests include biomolecular-solids composites, nanostructures, polymers, and addressing challenges in energy, environment, infrastructure, and transportation. Current projects involve auxetic structures, tensegrity-inspired nanocomposites, polymer composites containing cellulosic nanomaterials, nanocomposites for space applications, polymeric materials for additive manufacturing, and membranes for separating black liquor. Dr. Shofner advises graduate students including Malik Blackman, Fariha Rubaiya, Emily Ryan, and Ide Onal. She directs the Shofner Lab which focuses on engineering polymer structure and function through processing-structure-property investigations.

• Polymers
• Composites
• Nanomaterials
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David B. Brown serves as Assistant Professor in the Department of Mechanical and Aerospace Engineering at the University of Virginia's School of Engineering and Applied Science, located in MEC Room 307 at 122 Engineer's Way, Charlottesville. Holding both B.S. and Ph.D. in Mechanical Engineering from Georgia Institute of Technology, his career includes thermal design work at Raytheon Intelligence and Space, followed by postdoctoral fellowships at UCLA and University of Michigan. Education: B.S., Mechanical Engineering, Georgia Institute of Technology Ph.D., Mechanical Engineering, Georgia Institute of Technology His research centers on experimental and theoretical studies of energy transport mechanisms across multiple length scales, with primary focus on thermal management for hypersonic vehicles and electronic systems. Key interests include two-dimensional material properties, thermal boundary conductance, and hypersonics, addressing critical challenges in aerospace thermal control and nanoscale heat transfer. Recent publications (2023-2025) demonstrate a clear trajectory toward hypersonic thermal management solutions, featuring integrated multimode cooling systems for high-speed leading edges and advanced plasma sheath modeling. Earlier work (2018-2019) established foundational insights into thermal transport at metal-2D material interfaces, while his initial research (2013-2015) developed thermoelectric generator technologies for on-chip cooling applications. Selected honors: University of California Chancellor’s Postdoctoral Fellowship (2021) IEEE ITherm Outstanding Paper Award (2018) Alfred P. Sloan Foundation Minority Ph.D. Fellowship (2015) National Science Foundation Graduate Research Fellowship (2013) Dr. Brown's research is supported by competitive federal fellowships and industry partnerships, with current projects focused on next-generation thermal management systems for hypersonic flight. He teaches MAE 2100 (Thermodynamics) and MAE 6100 (Thermomechanics), mentoring students in thermal-fluid sciences while advancing experimental methodologies for extreme environment applications. He leads an active research group at UVA developing novel thermal characterization techniques and computational models for energy transport in engineered systems, with particular emphasis on bridging nanoscale material properties to macroscopic thermal management solutions for aerospace and electronics industries.

• Thermal Management
• Hypersonics
• Energy Transport and Conversion
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Richard W. Neu is a Professor at the Georgia Institute of Technology's Woodruff School of Mechanical Engineering, with a courtesy appointment in the School of Materials Science and Engineering. He directs the Mechanical Properties Characterization Facility and leads the IMat Initiative's Materials in Extreme Environments research. His expertise spans mechanical behavior of materials under extreme conditions, including thermomechanical fatigue, creep, fretting fatigue, and additive manufacturing. He holds a Ph.D., M.S., and B.S. from the University of Illinois at Urbana-Champaign (1991, 1988, 1986). Neu's research focuses on predicting material degradation in harsh environments (e.g., aerospace, power generation, medical devices). Key areas include high-temperature materials, hydrogen energy infrastructure, and AI-driven materials modeling. His work is funded by industries and agencies like NASA and the U.S. Air Force. Scientific awards include ASTM Professor of the Year (2023), ASME Fellow (2017), and multiple best paper awards. His lab collaborators include institutions like Oak Ridge National Lab and Rolls-Royce. Current projects involve AI safety for infrastructure, high-throughput materials development, and microstructure-sensitive modeling.

• Mechanical Behavior of Materials
• Thermomechanical Fatigue
• Creep and Fatigue Analysis
• +7 more

Dr. Jun Wu is an Assistant Professor in the School of Molecular Sciences and School of Earth and Space Exploration at Arizona State University (ASU). His research focuses on mineralogy, crystallography, and high-pressure geoscience using transmission electron microscopy (TEM). He developed the HPTEM (high-pressure TEM) technique, enabling in-situ analysis of Earth's interior under extreme conditions. Dr. Wu collaborates on the Keck Foundation-funded project exploring Earth’s water origins and investigates nano-material synthesis and deep earthquakes. He holds a Ph.D. in Mineralogy from Johns Hopkins University and postdoctoral training under Prof. Peter Buseck at ASU. Education : Ph.D., Mineralogy, Johns Hopkins University. Research Interests : Dr. Wu’s work bridges geoscience and materials science through advanced TEM applications. His HPTEM technique uses carbon nanostructures to simulate Earth’s high-pressure environments, advancing understanding of planetary formation and deep Earth processes. He also explores nanomaterials synthesis and unresolved geological phenomena like deep earthquakes. Grants : Active funding from the Keck Foundation for origins-of-water research. Collaborative projects integrate experimental and computational approaches in Earth sciences. Labs/Teams : Engaged in cross-disciplinary teams at ASU’s School of Molecular Sciences and Earth and Space Exploration, leveraging cutting-edge microscopy facilities for high-pressure experiments.

• Mineralogy
• Crystallography
• High-Pressure Geoscience
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Yulong Huang is an Adjunct Assistant Professor of Research in the Department of Chemical and Biological Engineering and a Research Scientist in the Department of Mechanical and Aerospace Engineering at the University at Buffalo, State University of New York. His work focuses on advanced materials science, particularly magnetic materials, superconductivity, and nanomaterials with applications in energy, electronics, and biomedical systems. Research interests include molecular conductors, 2D materials, thermal insulation composites, and functional materials for wearable and flexible electronics. He has contributed to breakthroughs in lithium-ion battery technology, magnetic receptor studies, and high-temperature ceramic aerogels. Huang's interdisciplinary approach bridges chemical engineering, mechanical engineering, and applied physics. Key achievements include developing printable copper conductors, proton-controlled ferroelectrics, and pressure-tuned magnetic systems. His lab emphasizes scalable fabrication techniques for next-generation materials with tailored properties for extreme environments.

• Magnetic Materials
• Superconductivity
• Nanomaterials
• +3 more

Dr. Jean-Charles Stinville is an Assistant Professor in the Materials Science and Engineering Department at the University of Illinois at Urbana-Champaign (UIUC), where he also holds appointments in the Materials Research Laboratory. Previously, he served as a Specialist (2019-2021) and Associate Specialist (2015-2019) at the University of California Santa Barbara (UCSB). His research focuses on the mechanical and environmental performance of metallic materials for extreme applications, including cryogenic and high-temperature environments. He leads experimental developments in in-situ SEM mechanical characterization and materials informatics. Education: Ph.D., Solid Mechanics, Materials Science and Structures Mechanics (Ecole Nationale Supérieure de Mécanique et Aerotechnique / University of Poitiers, 2010) M.Sc., Materials Science and Mechanical Engineering (ISAE-ENSMA / University of Poitiers, 2006) M.Eng., Aeronautics, Computer Science, Materials Science, and Mechanics (ISAE-ENSMA, 2006) Research Interests: Materials Informatics Cryogenic Materials In-situ Characterization Deformation Processes High-/Low-Temperature Materials Sustainable Metallurgy Recent Research Trends: His work emphasizes high-throughput experimental methods and machine learning to predict material behavior. Recent studies focus on plastic localization in nickel-based superalloys, cryogenic performance, and microstructural heterogeneity analysis. Awards: 2024 National Science Foundation Career Award 2024 Kent D. Peaslee Junior Faculty Award 2024 Stanford/Elsevier World's Top 2% Scientists Teaching: Teaches courses including MSE 529 (Hard Materials), MSE 598 (Materials Informatics), and MSE 443 (Design of Engineering Alloys). Recognized with student excellence awards in 2023 and 2024. Labs/Teams: Leads the Stinville Research Group, focusing on experimental and computational approaches to materials design. Collaborates with UCSB and institutions globally via projects like AdvancedExperiment (YouTube) and ResearchGate.

• Materials Informatics
• Cryogenic Materials
• Deformation Processes
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Todd C. Hufnagel is a Professor of Materials Science and Engineering at Johns Hopkins University's Whiting School of Engineering. He serves as Associate Director of the Materials Science in Extreme Environments University Research Alliance (MSEE URA), a consortium addressing threats from chemical, biological, and nuclear weapons through material science research. His expertise includes structural materials, nanomaterials, X-ray scattering, and metals analysis. Dr. Hufnagel earned his BS in Metallurgical Engineering from Michigan Technological University (1989) and his MS and PhD in Materials Science and Engineering from Stanford University (1991 and 1995). He has been at Johns Hopkins since 1996. His research focuses on dynamic material behavior, fracture mechanics, and advanced imaging techniques like X-ray phase contrast imaging. Notably, he co-developed the AXIOM system, a cutting-edge tool for materials analysis, and contributed to the MSEE URA's mission to enhance material resilience in extreme conditions. His awards include the Whiting School of Engineering Teaching, Advising, and Mentoring Award. His work spans experimental and computational studies of metallic glasses, fracture processes, and parameter optimization for microstructural design. He collaborates widely, integrating data science tools like OpenMSIStream to streamline laboratory workflows.

• Structural Materials
• Nanomaterials
• X-ray Scattering
• +3 more

Georges Ayoub serves as Associate Professor and Director of the Human-Centered Engineering Design program within the Industrial and Manufacturing Systems Engineering department at the University of Michigan-Dearborn's College of Engineering and Computer Science. His research bridges fundamental materials science with industrial applications across automotive, aerospace, defense, and biomedical sectors. Dr. Ayoub's educational background includes: Ph.D. in Mechanics of Materials from University of Lille M.S. in Mechanical Engineering from University of Lille B.S. in Material Science for Mechanical Engineering from University of Rennes His research centers on predictive material modeling for manufacturing and in-service performance, with core expertise in fracture/fatigue of polymers/composites, welding, metal forming, and additive manufacturing. Current work integrates experimental characterization with multi-scale computational models to address challenges in extreme environments, cyclic loading, and microstructural evolution. Key applications target automotive lightweighting, energy systems durability, and biomedical material performance. Recent publications (2024) reveal three emerging trends: (1) Industry 5.0 digital twins for sheet metal processes, (2) dislocation-grain boundary interactions in advanced steels, and (3) strain hardening in ultrafine-grained metals. Earlier work (2010-2017) established foundational models for polymer visco-hyperelasticity, rubber fatigue, and dissimilar material welding - consistently emphasizing physically-based constitutive frameworks applicable to industrial design. Dr. Ayoub actively mentors 17 graduate students across PhD and Master's programs while securing significant funding from Qatar National Research Fund (QNRF), French Ministry of Higher Education, and Ford Motor Company. Current projects include fatigue life prediction of elastomers, thermoplastic cyclic behavior modeling, magnesium alloy superplasticity, and lithium-ion battery separator aging. He directs the Circular Materials and Advanced Manufacturing (CMAM) Lab, which pursues four integrated research thrusts: multi-scale material modeling, AI-driven manufacturing optimization, polymer/elastomer fatigue prediction, and plastic recyclability for circular economy. The lab maintains active collaborations with defense, energy, automotive, and biomedical industries.

• Materials Science
• Mechanics of Materials
• Fracture and Fatigue
• +8 more

James F. Wishart is a Distinguished Chemist and Director of the Molten Salts in Extreme Environments Energy Frontier Research Center at Brookhaven National Laboratory. He serves as Group Leader of the Electron- and Photo-Induced Processes (EPIP) Group within the Chemistry Division. His work focuses on radiation chemistry, ionic liquids, molten salts, and electron transfer processes, with applications in nuclear energy, sustainable chemistry, and advanced materials development. Education: S.B. in Chemistry, Massachusetts Institute of Technology, 1979 Ph.D. in Inorganic Chemistry, Stanford University, 1985 (with Henry Taube) Dr. Wishart's research spans multiple interconnected areas in physical and radiation chemistry. His primary focus is on understanding fundamental processes in ionic liquids and molten salts, particularly under radiation and extreme conditions. He investigates electron transfer mechanisms, radiation-induced reactions, and the physical chemistry of these media using advanced techniques including high-pressure studies and pulse radiolysis. His work has significant implications for nuclear energy applications, particularly in developing safer molten salt reactors and understanding materials behavior in extreme environments. He has pioneered new detection techniques in pulse radiolysis and developed novel accelerators for studying ultrafast phenomena. Analysis of Dr. Wishart's recent publications (2021-2023) reveals a strong focus on molten salt chemistry for nuclear applications, radiation effects in ionic media, and advanced characterization techniques. His research shows increasing emphasis on in situ and operando methods to study materials under extreme conditions, particularly using synchrotron-based techniques. The work bridges fundamental physical chemistry with practical applications in energy and nuclear technology, demonstrating consistent growth in complexity from molecular-level studies to system-level understanding of molten salt environments. Scientific Awards: Maria Sklodowska-Curie Medal, Polish Radiation Research Society (2019) 16th Conférence Jean Perrin Lecturer, Division de Chimie Physique of the Société Chimque de France (2017) 25th QUILL Lecturer, Queens University Ionic Liquid Laboratory, Belfast (2012) New York City Lewis Stokes Alliance for Minority Participation Keeper of the Alliance Flame (2010) DOE Office of Science Undergraduate Research Programs Outstanding Mentor Award (2006) Throughout his career, Dr. Wishart has been an active mentor, receiving recognition for his work with undergraduate researchers. He has secured significant funding through the Department of Energy, including leading the Molten Salts in Extreme Environments Energy Frontier Research Center. His collaborative approach is evident in the extensive co-authorship networks across his publications, working with researchers from multiple national laboratories, universities, and international institutions. He has organized numerous conferences and symposia, fostering community development in radiation chemistry and ionic liquids research. Dr. Wishart leads the Electron- and Photo-Induced Processes (EPIP) Group at Brookhaven National Laboratory, which operates the LEAF (Laser-Electron Accelerator Facility) picosecond pulse radiolysis facility. His team includes researchers specializing in radiation chemistry, physical chemistry, materials science, and nuclear engineering. The group collaborates extensively with other divisions at Brookhaven and with external partners on projects related to molten salt reactors, radiation effects, and sustainable chemistry applications.

• Radiation Chemistry
• Ionic Liquids
• Molten Salts
• +5 more

Steven K. Lower is a Professor at The Ohio State University with appointments spanning the School of Environment and Natural Resources, School of Earth Sciences, and Department of Microbial Infection and Immunity. His interdisciplinary research bridges environmental science, earth sciences, and medical microbiology, focusing on the molecular interactions between microorganisms and mineral surfaces. Dr. Lower's educational background includes a B.S. in Biology & Geology, an M.S. in Environmental Chemistry from Kent State University, and a Ph.D. in Microbiology & Mineralogy from Virginia Tech. His career path took him from an Assistant Professor position at the University of Maryland (2001-2003) to his current professorship at Ohio State University (2003-present). His research interests center on environmental mineralogy and chemistry, geological and environmental microbiology, and medical microbiology. Dr. Lower specializes in studying how bacteria interact with mineral surfaces at the nanoscale, with particular focus on magnetotactic bacteria that orient along Earth's magnetic field and pathogenic bacteria like Staphylococcus aureus that form biofilms on medical implants. His laboratory employs atomic force microscopy and other nanoscale techniques to measure the fundamental forces governing these interactions. Analysis of Dr. Lower's recent publications reveals a strong interdisciplinary trend spanning environmental science, medical microbiology, and biophysics. His work connects fundamental physical principles with practical applications in environmental remediation and medical device safety. The research consistently applies nanoscale measurement techniques to understand bacterial behavior in both natural and clinical settings, with particular attention to how bacteria form aggregates and adhere to surfaces. Dr. Lower's scientific achievements have been recognized with several prestigious awards: National Science Foundation CAREER Award PECASE Award (presented by President Obama at the White House) Kavli Fellow, National Academy of Sciences Department of Energy (DOE) Best Research Award Clinical Research Forum Outstanding Research Award As a principal investigator, Dr. Lower has secured research funding from the National Science Foundation (NSF), National Institutes of Health (NIH), and Department of Energy (DOE). His laboratory maintains active collaborations across disciplines, particularly with his brother Brian H. Lower, and focuses on understanding the molecular mechanisms of bacterial adhesion to both natural mineral surfaces and medical implants. The research has significant implications for developing strategies to prevent bacterial infections on medical devices and understanding microbial processes in environmental systems.

• Environmental Mineralogy
• Geological Microbiology
• Medical Microbiology
• +4 more

Yanliang Zhang is a Professor and the Advanced Materials and Manufacturing Collegiate Chair in the Department of Aerospace and Mechanical Engineering at the University of Notre Dame's College of Engineering. He directs the Advanced Manufacturing for Energy and Health (AMEH) Lab, where he leads cutting-edge research at the intersection of advanced manufacturing, energy conversion, and healthcare sensing technologies. His educational background includes: Ph.D. in Mechanical Engineering from Rensselaer Polytechnic University (2011) M.S. in Mechanical Engineering from Southeast University, China (2008) B.S. in Mechanical Engineering from Southeast University, China (2005) Professor Zhang's research spans multiple domains with a focus on thermal science and energy conversion . His work centers on developing innovative manufacturing techniques for functional materials and devices, particularly in the areas of thermoelectrics, flexible electronics, and advanced sensing systems. The lab employs an "Atomic to System Engineering" approach to bridge fundamental research with practical applications. Key research thrusts include: Additive manufacturing and scalable nanomanufacturing of functional materials Thermal and thermoelectric energy conversion, harvesting, and storage Advanced sensors for extreme environments and healthcare monitoring Autonomous materials discovery through high-throughput combinatorial methods Analysis of Professor Zhang's recent publications (2024-2025) reveals a strong emphasis on aerosol jet printing , thermoelectric devices , and machine learning-assisted manufacturing . His work demonstrates a progression from fundamental materials research toward integrated systems for energy conversion and healthcare applications. A notable trend is the increasing integration of AI/ML techniques with advanced manufacturing processes to optimize device performance and enable autonomous fabrication. Professor Zhang has received significant recognition for his work, including: International Thermoelectric Society 2020 Young Investigator Award His research program is supported by prestigious funding from the U.S. Department of Energy, National Science Foundation, and industry partners. Professor Zhang actively mentors the next generation of engineers through his laboratory, which includes postdoctoral researchers, PhD students, and undergraduate researchers working on diverse projects spanning from fundamental materials science to applied device engineering. The Advanced Manufacturing for Energy and Health Lab maintains strong collaborative ties with industry and national laboratories, facilitating the translation of research discoveries into practical applications. Current research directions include bioprinting, autonomous manufacturing systems, and next-generation thermoelectric technologies for energy harvesting and cooling applications.

• Thermal Science
• Thermal Energy Conversion
• Clean and Sustainable Energy Systems
• +9 more