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Matthew Green is a tenured Professor in the Department of Chemical Engineering at Arizona State University , where he has been since 2014. He serves as Director of the Center for Negative Carbon Emissions and Associate Director of the Biodesign Center for Sustainable Macromolecular Materials and Manufacturing . Director, Center for Negative Carbon Emissions Associate Director, Biodesign Center for Sustainable Macromolecular Materials and Manufacturing Research Focus : Design of ion-containing polymers for water purification , CO2 capture , and nanocomposites , with emphasis on electrostatic interactions, microstructure control, and stimuli-responsive materials. Key thrusts include membrane technology , epoxy thermosets , nanoparticle templating , and electrospun fibers . Publication Trends : Recent work spans zwitterionic polymers for anti-scaling membranes, phosphonium-based DAC systems , silica nanocomposites , and biomaterials for immunotherapy , reflecting interdisciplinary expertise in polymer chemistry , environmental engineering , and materials science . Awards & Grants : 2019 NSF CAREER Award 2018 NASA Early Career Faculty Award 2022 Sloan Foundation Grant DOE DAC Pre-Commercial Technology Prize (2023) Multiple DURIP grants Email : mdgreen8@asu.edu

• Polymer Science
• Sustainable Materials
• Carbon Dioxide Capture
• +5 more

Dr. Vikas Srivastava is an Associate Professor of Engineering and Director of the Graduate Program in Biomedical Engineering at Brown University's School of Engineering. His research focuses on solid mechanics, continuum biomechanics, and cell mechanics, with applications in materials under extreme environments and biomedical science. He leads the Srivastava Lab for Solid Mechanics and Biomechanics, which integrates computational models with experimental techniques to address interdisciplinary challenges. Dr. Srivastava holds a Ph.D. in Mechanical Engineering from MIT (2010) and previously held senior roles at ExxonMobil, including leadership in materials mechanics and deepwater drilling engineering. His academic career at Brown began in 2018, during which he has directed over 15 graduate students and secured notable funding. His research interests span mechanobiology, hydrogel-based drug delivery systems, AI-driven predictive modeling, and biomaterial innovations for cancer therapies. He has pioneered physics-informed neural networks for material characterization and developed novel hydrogels to enhance chemotherapy efficacy. Recent articles highlight advancements in polymer fracture modeling, machine learning for non-destructive evaluation, and predictive epidemiological modeling for pandemics. Dr. Srivastava has received the Dean’s Award in Bioengineering and was promoted to tenured Associate Professor in 2023. He actively mentors students through grants like the NSF Graduate Research Fellowship and leads initiatives in biomedical technology translation. The Srivastava Lab collaborates extensively across engineering, biology, and medicine to advance translational research in materials science and clinical applications.

• Solid Mechanics
• Continuum Biomechanics
• Cell Mechanics
• +7 more

Kaka Ma is an Associate Professor in the Department of Materials Science & Engineering at Texas A&M University, specializing in advanced materials processing for energy systems and extreme environments through powder-based synthesis, additive manufacturing, and sintering technologies. Educational Background: Ph.D. in Materials Science and Engineering, University of California, Davis (2010) B.S. in Materials Science and Engineering, University of Science and Technology of China (2006) His research focuses on powder-based synthesis of metals/ceramics, laser directed energy deposition, field-assisted sintering technology (FAST), thermionic/thermoelectric energy conversion materials, and ultrahigh-temperature/hypersonic environment applications, with strong emphasis on sustainability in materials engineering. Recent publications demonstrate expertise in creating functionally graded materials via controlled thermal gradients and powder morphology optimization. Analysis of 2021-2025 publications reveals dominant trends in spark plasma sintering parameter optimization, additive manufacturing of titanium alloys, high-entropy carbide development, and nanoparticle synthesis for energy applications, consistently linking processing parameters to microstructure-property relationships in extreme-condition materials. Scientific Awards: TMS Light Metals/Extraction & Processing Subject Award – Recycling (2020) Professional memberships include The Minerals, Metals and Materials Society (TMS) and America Makes. While specific advising details and grant information are not documented in the provided materials, his extensive collaborative publication record indicates active mentorship of graduate researchers and successful acquisition of research funding. No dedicated laboratory facilities or research team structures are specified in the source documentation.

• Powder based synthesis and processing of metals and ceramics
• Additive manufacturing
• Field assisted sintering technology
• +3 more

Eduard Arzt is a Distinguished Visiting Professor in the Department of Material Science and Engineering at the University of California, San Diego. He is internationally recognized for his pioneering work in materials science, with a focus on functional microstructures, bioinspired adhesives, and sustainable materials solutions. His current research explores innovative applications in biomedical engineering and space technology. His research interests center on the micropatterning of elastomeric surfaces to control mechanical interactions sustainably. Key areas include gecko-inspired adhesives for biomedical use and novel microstructures for space applications such as satellite debris retrieval. He also promotes biodiscovery as a strategy for developing materials for extreme environments. His interdisciplinary approach bridges materials physics, biology, and engineering. The trends in his recent work emphasize sustainability, bioinspiration, and the application of advanced materials in both medical and extraterrestrial contexts. His research integrates principles from nanotechnology, soft matter physics, and robotics to create next-generation functional materials. Notable scientific honors include: 2023 William D. Nix Award (TMS) Elected member of the Leopoldina German Academy of Sciences Elected member of the Austrian Academy of Sciences Elected member of the US National Academy of Engineering Prof. Arzt has held leadership roles in major research institutions and actively mentors researchers through his labs and collaborative networks. He is Editor-in-Chief of Progress in Materials Science and co-founded a deep-tech robotics startup, reflecting his commitment to translating scientific innovation into real-world applications. He has secured significant research funding through national and international grants, though specific grants are not detailed here. His research is conducted in collaboration with interdisciplinary teams and leverages advanced fabrication and characterization facilities. He fosters strong international partnerships, particularly between European and American research institutions, and promotes sustainable innovation through bioinspired design principles.

• Materials Science and Engineering
• Functional Microstructures
• Bioinspired Adhesives
• +12 more

Sebastian Kube is an Assistant Professor in the Department of Materials Science & Engineering at the University of Wisconsin-Madison's College of Engineering, with additional affiliation in Mechanical Engineering. His research accelerates alloy development through autonomous discovery methods combining robotics, data science, and advanced characterization. Dr. Kube's educational background includes: Postdoctoral Researcher (2023), University of California Santa Barbara (Tresa Pollock Lab) PhD (2021), Yale University (Jan Schroers Lab) BS (2016), Giessen University His work focuses on refractory multi-principal element alloys for extreme environments (>1300°C) and metallic liquid structure-property relationships. He develops autonomous platforms to navigate complex parameter spaces, targeting improved glass forming ability and rapid solidification processing through B2 precipitation strategies and novel characterization techniques. Recent publications emphasize refractory high-entropy alloys, BCC-B2 systems, and metallic glasses, integrating experimental and computational approaches to decode phase stability, deformation mechanisms, and glass formation for accelerated materials design. Major recognitions include: 2025 DARPA Young Faculty Award 2024 ARPA-E IGNIITE Early Career Award RCSA Scialog Fellowship for Automating Chemical Laboratories He mentors graduate students through thesis courses (M S & E 790/890/990) and leads the Autonomous Alloy Discovery Lab, which develops robotic systems for high-throughput experimentation. Current projects target next-generation turbine alloys and environmentally sustainable materials for aerospace, energy, and defense applications.

• Autonomous materials discovery
• Refractory alloys for extreme environments
• Glass forming ability and structure of metallic liquids
• +2 more

Debbie Senesky is an Associate Professor at Stanford University in both the Aeronautics and Astronautics Department and the Electrical Engineering Department, as well as a Senior Fellow at the Precourt Institute for Energy. She serves as the Principal Investigator of the EXtreme Environment Microsystems Laboratory (XLab) and Site Director of nano@stanford. Dr. Senesky received her B.S. in mechanical engineering from the University of Southern California (2001), followed by M.S. (2004) and Ph.D. (2007) degrees in mechanical engineering from the University of California, Berkeley. Prior to joining Stanford, she held positions at GE Sensing (formerly NovaSensor), GE Global Research Center, and Hewlett Packard. Her research focuses on developing nanomaterials and electronic systems capable of operating in extreme environments, including high-temperature conditions for Venus exploration, microgravity synthesis of nanomaterials, and harsh environment electronics. Dr. Senesky's work bridges multiple disciplines, connecting aerospace engineering, electrical engineering, materials science, and space technology to solve challenges in extreme environment applications. Dr. Senesky has made significant contributions to the field of high-temperature electronics, GaN-based sensors, graphene aerogel synthesis in microgravity, and materials for space applications. Her recent publications demonstrate a strong focus on practical applications of these technologies, particularly for space exploration and extreme environment sensing. Presidential Early Career Award for Scientists and Engineers (PECASE), NASA (2025) Emerging Leader Abie Award from AnitaB.org (2018) Early Faculty Career Award from NASA (2012) Gabilan Faculty Fellowship Award (2012) Sloan Ph.D. Fellowship (2004-2006) Dr. Senesky actively advises students at all levels, from undergraduate to postdoctoral researchers, and has established herself as a leader in promoting diversity in STEM through her role as Faculty Advisor for the Stanford Chapter of the National Society of Women Engineers. Her collaborative approach is evident in her numerous interdisciplinary projects and partnerships with NASA, industry, and other research institutions. She directs the EXtreme Environment Microsystems Laboratory (XLab), which focuses on developing technologies for operation in extreme environments including high temperature, radiation, and microgravity conditions. The lab's work has applications for space exploration, particularly for Venus missions, as well as terrestrial applications requiring robust electronics.

• Nanomaterials for Extreme Environments
• High-Temperature Electronics
• Venus Exploration Technology
• +5 more

Mitra Taheri is a Professor in the Department of Materials Science and Engineering at Johns Hopkins University, serving as Director of the Materials Characterization and Processing (MCP) facility and a member of the Hopkins Extreme Materials Institute. She holds affiliations with the Pacific Northwest National Laboratory and the Ralph O’Connor Sustainable Energy Institute. Her research focuses on electron microscopy, particularly in-situ and operando techniques, combined with artificial intelligence to study materials under extreme conditions (e.g., high temperatures, radiation, and oxidation). She aims to accelerate materials discovery by integrating AI with microscopy for real-time analysis. Dr. Taheri earned her BS, MSE, and PhD in Materials Science and Engineering from Carnegie Mellon University. Her work spans corrosion-resistant alloys, additive manufacturing, quantum materials, and biomaterials. Research sponsors include PNNL, JHU, NSF, ARPA-E, and ONR. She leads the Dynamic Characterization Group (DCG), which develops autonomous platforms for materials analysis and explores applications in energy, aerospace, and medical systems. Key research areas include: Design of corrosion-resistant multi-principal element alloys AI-driven microscopy for real-time material behavior insights Additive manufacturing of soft magnetic composites for electric vehicles Biomedical hydrogels for tissue engineering Her team develops novel materials and tools to probe structural, functional, and biological systems across scales, with an emphasis on sustainability and extreme environment applications.

• Materials Science
• Electron Microscopy
• Additive Manufacturing
• +6 more

Renny Edwin Fernandez is an Associate Professor in the Department of Engineering at Norfolk State University's College of Science, Engineering and Technology. His multidisciplinary research focuses on microsensing platforms for healthcare, pollution control, and agriculture applications. Education: PhD in Electrical Engineering (2010) from Indian Institute of Technology Madras His research integrates microfabrication, microfluidics, and machine learning to develop wearable biosensors, disposable electrodes, and IoT-enabled soil monitoring systems. Key trends in his recent publications include: Real-time health monitoring via flexible nanosensors Machine learning integration in agricultural IoT Plasma-aided printing of conductive nanomaterials Smart PPE systems with NFC technology Scientific Awards: Research Initiation Award (2020) for cognitive monitoring systems in extreme environments Dr. Fernandez mentors graduate and undergraduate researchers at NSU, with prior teaching experience at University of Indianapolis and Florida International University. He holds a patent for biosensor technology and has developed innovative solutions for: Salivary cortisol detection Soil nutrient analysis Cell viability assessment Smart irrigation systems

• Biosensors
• Microfluidics
• Microfabrication
• +8 more

Marina S. Leite is a Professor in the Department of Materials Science and Engineering at the University of California, Davis. Her research focuses on novel materials for renewable energy, optical devices, and materials under extreme environments. She leads the Leite Lab, pioneering work in perovskite photovoltaics, thermophotovoltaic emitters, and transient photonics using machine learning for accelerated materials discovery. Her group combines advanced characterization techniques with computational methods to address challenges in energy harvesting and optical material performance. PhD: Not explicitly listed in provided text Her research interests include: Machine learning-driven materials discovery Halide perovskites for stable solar cells High-temperature optical materials Transient photonics using magnesium-based systems Thermophotovoltaic emitter design Key research trends from recent articles emphasize AI integration for predicting material behaviors, environmental stressor impacts on optoelectronics, and alloy systems for dynamic optical properties. Her lab has developed methods for automated experimentation and spectral selectivity in emitters. 2025 Optica Fellow 2025 SPIE Fellow Advising: Supervises students like Hannah Darr. Active in DARPA cross-disciplinary projects and editorial roles in energy journals. Leads grants focused on machine learning in materials science and photonic device development. The Leite Lab collaborates on projects involving transient materials and high-temperature photonics. Future work includes scaling superabsorber technologies, developing eco-friendly Pb-free perovskites, and advancing AI tools for material property prediction.

• Materials Science
• Renewable Energy Materials
• Optical Materials
• +3 more

Joseph Talghader is the Cymer Professor in the Department of Electrical and Computer Engineering at the University of Minnesota, where he has been a faculty member since 1997, progressing from Assistant to Full Professor. He leads the Optical Micro+Nanosystems Group and holds appointments in the College of Engineering. Dr. Talghader's educational background includes a B.S. in Electrical Engineering from Rice University, followed by an M.S. (1993) and Ph.D. (1995) from UC Berkeley, where he was awarded an NSF Graduate Fellowship. Prior to joining academia, he worked at Texas Instruments and Waferscale Integration in process development and memory design. His research spans optics and micro/nano-mechanical systems with particular focus on infrared detectors, optical coatings, heat transfer mechanisms, and microsensors. His group has developed groundbreaking technologies including the highest sensitivity uncooled thermal detectors and the first tunable multispectral thermal detectors. Recent work has expanded into applications for glacial ice analysis and high-power laser systems. His research integrates theoretical modeling with advanced fabrication techniques, particularly atomic layer deposition. Analysis of his 15 most recent publications reveals a consistent focus on infrared technologies, optical coatings, and thermal phenomena. His work demonstrates strong interdisciplinary connections between electrical engineering, materials science, and optical physics, with increasing emphasis on practical applications in environmental sensing and high-power laser systems. Among his notable recognitions are three 3M Faculty Awards and being a Finalist for the Minnesota Cup for entrepreneurs. He has served on various program committees including the Army Research Office Electronics Division strategic planning panel and has chaired multiple IEEE conferences. Dr. Talghader actively mentors students and postdocs, with numerous publications listing junior researchers as lead authors. His group has secured significant research funding, though specific grant details aren't provided in the source material. He currently serves as an Editor for the NPG journal Light: Science and Applications, demonstrating his standing in the optics research community. The Optical Micro+Nanosystems Group maintains strong industry and interdisciplinary collaborations, with research spanning from fundamental materials properties to practical device implementation. Current projects focus on improving infrared detection technologies, developing advanced optical coatings for high-power applications, and exploring novel sensing mechanisms for extreme environments.

• Optics
• Microelectromechanical Systems
• Nanoelectromechanical Systems
• +7 more

Jihua Gou serves as Professor and Graduate Program Coordinator at the University of Central Florida, leading the Composite Materials and Structures Lab with research spanning aerospace, biomedical, and energy applications. His work bridges fundamental material science with industrial implementation through NASA collaborations and industry partnerships. His academic foundation includes: Bachelor's and Master's degrees in Materials Engineering from Chongqing University (1993, 1996) Ph.D. in Materials Engineering from Shanghai Jiao Tong University (1999) Ph.D. in Industrial Engineering from Florida State University (2002) Professor Gou's research centers on composite materials and structures , nanocomposite materials , multi-functional coatings , and advanced manufacturing processes . His lab pioneers machine learning integration for predicting material behavior in extreme environments, develops tissue-mimicking hydrogels for medical applications, and creates hydrogen-resistant coatings critical for space exploration. Recent breakthroughs include materials preventing hydrogen leaks in NASA's Artemis program and high-temperature coatings for turbine systems. Analysis of his 2020-2025 publications reveals three dominant research thrusts: (1) AI-driven modeling of ceramic composites for hypersonic applications, (2) biomimetic hydrogel development for lung tissue equivalence, and (3) nanotechnology-enhanced manufacturing for multifunctional composites. These intersect at the crossroads of materials informatics, sustainable manufacturing, and extreme-environment performance. His scientific recognition includes: UCF CECS Distinguished Researcher Award (2012) Best Paper Award, American Society of Civil Engineers (2010) Best Poster Award, American Ceramic Society (2014) UCF Teaching Incentive Program Award (2017) As Graduate Program Coordinator, Professor Gou mentors doctoral candidates in materials engineering and secures significant research funding through NASA partnerships and UCF initiatives. His lab currently directs projects on hydrogen infrastructure materials, thermal protection systems for hypersonic vehicles, and 3D-printed smart composites with self-healing capabilities. The Composite Materials and Structures Lab maintains specialized facilities for nanocomposite synthesis, in-situ characterization, and extreme-condition testing. Current team efforts include developing carbon nanotube-reinforced coatings for spacecraft, machine learning frameworks for ablation prediction, and biodegradable hydrogels for medical implants, positioning the lab at the forefront of next-generation material solutions.

• Composite Materials
• Nanocomposites
• Advanced Manufacturing
• +3 more

Jacob Gissinger is an Assistant Professor in the Department of Chemical Engineering and Materials Science at Stevens Institute of Technology's Charles V. Schaefer, Jr. School of Engineering and Science. He leads the Gissinger Group, conducting computational research on polymer degradation, mechanical failure, and dynamic response of materials using molecular dynamics and machine learning. Education: PhD in Materials Science and Engineering from University of Colorado Boulder (2020) BS in Chemical and Biomolecular Engineering and Materials Science from University of Pennsylvania (2014) Research Focus: His work spans reactive dynamics in extreme environments, machine learning applications for material design, and collaborative development of high-performance polymer composites. Core research areas include molecular modeling of degradation processes and computational prediction of material behavior. Professional Experience: NASA Postdoctoral Fellow at Langley Research Center (2021-2023) Core developer of LAMMPS molecular dynamics software Developer of REACTER protocol for chemical reaction modeling Professional Affiliations: American Chemical Society, American Institute of Chemical Engineers, American Physical Society, Materials Research Society. Teaching: Currently instructs CHE 632 - Advanced Momentum Transfer.

• Computational Materials Science
• Polymer Degradation
• Molecular Dynamics
• +2 more

Stefano Curtarolo is the Edmund T. Pratt Jr. School Distinguished Professor of Mechanical Engineering and Materials Science at Duke University’s Pratt School of Engineering. He also holds professorships in the Department of Physics and Electrical and Computer Engineering, and serves as Director of the Center for Extreme Materials (2025–present). Education: M.S. in Physics, University of Padua (1995, 1998) M.S. in Physics, Pennsylvania State University (1999) Sc.D. in Physics, Massachusetts Institute of Technology (2003) Research Interests: Curtarolo’s work bridges Materials Science , Physics , and Artificial Intelligence , focusing on Autonomous Materials Design , High-Entropy Disordered Systems , and Materials for Extreme Environments . His methodologies integrate Quantum Mechanics , Machine Learning , and High-Throughput Computing . Recent Research Trends: His 2024–2025 publications highlight advancements in High-Entropy Ceramics , including Soliquidy (a geometric descriptor for disorder), Dual-Phase Ceramic Synthesis , and Machine Learning Interatomic Potentials . These works emphasize disorder engineering , plasticity enhancement , and AI-driven material discovery for Aerospace and Deep Space Exploration applications. Scientific Awards: European Academy of Sciences (2024) Clarivate Highly Cited Researcher (2021) Friedrich Wilhelm Bessel Research Award (2016) DOD MURI Awards (2013, 2015) NSF CAREER (2008) ONR Young Investigator (2008) PECASE (2007) Grants & Leadership: Current projects include DETER (2024–2027, Missouri S&T) and Transition States Algorithms (2024–2027, ONR). He co-leads NRT-HDR (2020–2026, NSF). Labs & Teams: Curtarolo directs the Center for Extreme Materials and leads the AFLOW consortium , a global materials design ecosystem. His lab combines machine learning , quantum simulations , and experimental validation for multiscale materials discovery .

• Artificial Intelligence Materials Science
• Autonomous Materials Design
• Computational Materials Science
• +4 more

Penghui Cao is an Associate Professor at the Samueli School of Engineering, University of California, Irvine, with a joint appointment in Materials Science and Engineering. His research focuses on the fundamental mechanisms of material deformation and failure under extreme conditions. Key affiliations: Mechanical and Aerospace Engineering, Materials Science and Engineering Research areas: Plastic deformation, phase transitions, radiation damage tolerance, and machine learning applications in materials science Recent publications highlight his work on high-entropy alloys, nanomechanics, and additive manufacturing processes. His studies integrate atomistic simulations and experimental validations to understand material behavior at extreme scales. His laboratory, the Laboratory for Extreme Mechanics & Materials , investigates phenomena such as shock compression, chemical ordering, and grain boundary dynamics.

• Materials Science
• Mechanical Engineering
• Extreme Environments
• +7 more

Dr. Priya Vashishta is a Professor with joint appointments in Computer Science, Materials Science, and Physics at the University of Southern California. His research integrates computational methods across multiple scales to address fundamental challenges in materials science and nanotechnology. Research focuses on multiscale simulation frameworks combining quantum molecular dynamics, machine learning interatomic potentials, and high-performance computing. Key areas include: energy storage materials, 2D materials characterization, catalytic processes, and AI-driven materials discovery. Publication trends reveal consistent development of computational methodologies: machine learning potentials for materials simulation, neural network quantum dynamics, GPU-accelerated computing, and multiscale modeling techniques. Recent work emphasizes practical applications in energy storage, nanoscale electronics, and advanced manufacturing. Research group activities include development of open-source simulation packages (PND, Allegro) and leadership in the MAGICS computational materials center. Contributions span fundamental theoretical frameworks to applied materials engineering.

• Computational Materials Science
• Molecular Dynamics
• Machine Learning
• +2 more