جست‌وجوی استاد و پژوهشگر

• Structural Biology
• Intrinsically Disordered Proteins
• Protein Conformational Ensembles
• +۵ مورد دیگر

Dr. Pau Bernadó is a Professor of Structural Biology at Centre de Biologie Structurale (CBS), a joint research unit of CNRS, INSERM, and University of Montpellier in France. His research program focuses on intrinsically disordered proteins (IDPs) and protein conformational ensembles, utilizing integrative structural biology approaches with particular emphasis on Small-Angle X-ray Scattering (SAXS) techniques combined with computational modeling. Dr. Bernadó's research interests include: Structural characterization of intrinsically disordered proteins Development of computational tools for analyzing protein conformational ensembles Protein-protein interactions in flexible systems Structure-function relationships in protein homorepeats Integrative structural biology methodologies His recent work has centered on developing advanced computational approaches like WARIO and WASCO for characterizing conformational ensembles of highly flexible proteins. The research spans fundamental protein science to understanding disease-related proteins and viral components. With over 110 scientific publications including numerous high-impact papers in journals such as Nature Communications, PNAS, and Nucleic Acids Research, Dr. Bernadó has established himself as a leading researcher in the field of protein structural dynamics. Notable scientific contributions include: Development of computational tools for IDP analysis (pyDockSAXS, WARIO, WASCO) Advancement of SAXS methodologies for studying flexible proteins Major contributions to the Protein Ensemble Database (PED) Structural insights into protein homorepeats and their disease relevance Methodological innovations for studying low-complexity protein regions Dr. Bernadó maintains active collaborations with researchers across Europe and supervises students and postdoctoral researchers in structural biology and biophysics. His lab provides interdisciplinary research opportunities at the interface of experimental and computational structural biology, with particular focus on understanding the dynamic nature of protein structure and function.

Marcin Krajewskiمشاهده پروفایل

استادیار

• Structural Engineering
• Wooden Structures
• Truss Stability
• +۳ مورد دیگر

Dr. Marcin Krajewski serves as an Assistant Professor in the Department of Structural Mechanics at Gdańsk University of Technology, conducting experimental and numerical research on structural stability and load-bearing capacity of building components. His work bridges theoretical analysis with practical engineering applications in timber and steel construction systems. Research interests center on structural mechanics of wooden carpentry joints, truss stability under wind loading, and composite material behavior at elevated temperatures. Key methodologies include finite element analysis, vibration-based nondestructive testing, and experimental validation of structural elements using biaxial testing machines. His investigations address critical factors like geometric imperfections, connection stiffness, and material degradation under thermal stress. Recent publications (2022-2025) reveal consistent focus on stability analysis of log wall joints and roof trusses, with increasing emphasis on numerical modeling of friction effects and imperfection sensitivity. Work spans both traditional timber engineering (saddle-notch/dovetail joints) and modern composite systems (GFRP-reinforced concrete), demonstrating interdisciplinary approach to structural failure mechanisms. Secured research grants include projects on wooden joint load capacity (2024), truss wind stability (2024), wood strength testing (2022), and experimental testing stands for structural connections (2022). These projects operate within the Department of Structural Mechanics framework, utilizing university laboratory facilities for experimental validation of theoretical models.

Erwin Wojtczakمشاهده پروفایل

استادیار

• Guided wave propagation
• Ultrasonic wave propagation
• Adhesive joints
• +۷ مورد دیگر

Erwin Wojtczak is an Assistant Professor at the Department of Mechanics of Materials and Structures, Faculty of Civil and Environmental Engineering, Gdańsk University of Technology. He obtained his doctoral degree (dr inż.) in Civil Engineering, Geodesy and Transport in November 2022. His research focuses on: Guided wave propagation for structural health monitoring Non-destructive testing of adhesive joints and concrete structures Ultrasonic wave propagation in heterogeneous materials Additive manufacturing and metamaterials for civil engineering applications Damage detection and fracture process characterization Dr. Wojtczak's recent publications demonstrate a strong focus on applying ultrasonic and wave-based techniques for structural diagnostics. His work spans concrete structures, adhesive joints, and additively manufactured components, with emphasis on developing novel non-destructive evaluation methods. He has published extensively in journals such as Ultrasonics, Journal of Building Engineering, and Materials. His scientific achievements include 9 recognized contributions to the field, though specific awards are not detailed in the available information. Dr. Wojtczak actively supervises student theses and leads research projects, including the PRELUDIUM project "Development of a method for identification of parameters and damage detection in additive manufactured composite elements using ultrasonic wave propagation." He is also involved with the Scientific Circle of Structural Mechanics KOMBO as a scientific supervisor. He is a member of research teams focused on material strength and structural mechanics, collaborating with industry partners in construction-related fields.

Hans-Peter Güntherمشاهده پروفایل

استاد

• Steel Construction
• Composite Construction
• Welding Technology
• +۴ مورد دیگر

Prof. Dr.-Ing. Hans-Peter Günther serves as Professor of Steel and Composite Construction at Stuttgart University of Applied Sciences (HFT Stuttgart), where he has been Dean of the Master's Program in Structural Engineering since 2019. Previously, he held leadership roles at the University of Stuttgart including Chief Engineer and Deputy Director at the Institute of Engineering Design (2001-2007) following seven years as a Research Assistant (1991-1997). His academic foundation includes doctoral studies at the University of Stuttgart (1997-2001), civil engineering studies at the University of Stuttgart (1994-1995), and foundational education at the University of Calgary. He completed professional welding engineering certification (SFI) between 2006-2007. Günther's research centers on fatigue behavior in steel structures, with particular expertise in welded connections for wind turbine towers, steel bridges, and composite systems. His work bridges theoretical analysis with practical code development, focusing on post-weld treatments, structural assessment methodologies, and innovative joining techniques for high-strength materials. This expertise directly informs his teaching in steel construction, composite systems, and welding technology within civil engineering programs. His publication record reveals consistent focus on structural integrity challenges, with recent work emphasizing numerical-experimental fatigue validation for renewable energy infrastructure and repair protocols for aging bridges. Key themes include complex geometry analysis, residual life estimation, and standardization of fatigue design principles. Professional recognition includes: Emil Mörsch Study Prize (University of Stuttgart, 1997) He actively shapes industry standards through leadership roles in the European Convention for Structural Steelwork (ECCS) Technical Committee 6 on Fatigue, German Welding Committee (DVS) Working Group A5, and Federal Highway Research Institute (BASt) Working Group 2.1.1 on Corrugated Steel Structures.

Joshua Meggittمشاهده پروفایل

مدرس

• Vibro-acoustics
• Structural dynamics
• Transfer Path Analysis
• +۵ مورد دیگر

Dr. Joshua Meggitt is a Lecturer in Acoustical and Audio Engineering at the University of Salford's School of Science, Engineering & Environment, where he completed both his BEng in Acoustic Engineering (2015) and PhD in Acoustics (2017). He is a core member of the Acoustics Innovation Institute and leads the EPSRC-funded xDEA project in collaboration with University of Nottingham and major industry partners including Airbus, Siemens, and BAE Systems. His research focuses on vibro-acoustics and structural dynamics, specializing in: Component-based simulation methodologies Transfer Path Analysis and blocked force techniques Uncertainty quantification in experimental acoustics Hybrid experimental-numerical modeling approaches Recent work explores vibration-induced noise in electric aircraft systems, structural health monitoring using transmissibility functions, and sound insulation of timber building elements. Dr. Meggitt received the prestigious Tyndall Medal in 2023 for his contributions to acoustics as an early-career researcher. His work bridges academic research and industrial applications through collaborations with Boeing, Bentley, Dyson, and Bosch across automotive, aerospace, and consumer product sectors. He teaches Acoustic Labs to first-year students and Microphone/Loudspeaker Design to second-years while supervising final-year projects and PhD candidates. As early career representative for the IOA Noise and Vibration Engineering Committee and UK Acoustic Network's SIG-VA, he actively shapes the acoustics research community.

• Materials Science
• Mechanics
• Mechanical Engineering
• +۲ مورد دیگر

Lionel Germain serves as a University Professor at the University of Lorraine, holding a primary affiliation with the LEM3 Laboratory (UMR CNRS 7239), a joint research unit established by the University of Lorraine, the French National Centre for Scientific Research (CNRS), and Arts et Métiers. He reports to Department 2 - IMPACT within this laboratory structure and contributes to academic instruction through the Faculty of Mathematics, Informatics and Mechanics (UFR MIM), where he oversees teaching components in core engineering disciplines. His research expertise centers on Materials Science and Solid Mechanics , with specific emphasis on material microstructure characterization, mechanical behavior under stress, and advanced spectroscopic analysis techniques. These focus areas align with the LEM3 Laboratory's mission to investigate material properties through experimental and theoretical frameworks, particularly within the IMPACT Department's specialization in mechanical systems and material integrity. The laboratory's infrastructure supports high-precision materials testing and microscopy, facilitating research into failure mechanisms and material optimization. Operating from its Metz facility at 7 rue Félix Savart, the LEM3 Laboratory benefits from European Union co-financing for its equipment and infrastructure. As a key contributor to the IMPACT Department, Professor Germain engages in collaborative projects addressing industrial challenges in material durability and structural performance. The laboratory maintains active partnerships with academic institutions and industrial stakeholders across Europe, fostering an environment for translational research in applied mechanics and materials engineering.

• Solid Mechanics
• Materials Science
• Impact Mechanics
• +۳ مورد دیگر

Florence Dinzart serves as a Senior Lecturer at the École Nationale d'Ingénieurs de Metz (ENIM), part of the University of Lorraine, where she is affiliated with the IMPACT department of the LEM3 Laboratory (UMR CNRS 7239). Her academic position is housed at ENIM's campus in Metz (1 route d'Ars Laquenexy). Her institutional affiliations include: Primary Appointment: Senior Lecturer, Department of IMPACT, LEM3 Laboratory, University of Lorraine Research Affiliation: LEM3 Laboratory (UMR CNRS 7239), a joint research unit operated by University of Lorraine, CNRS, and Arts et Métiers Dr. Dinzart's research centers on mechanical behavior of materials under dynamic loading conditions, with emphasis on impact mechanics and structural integrity. Her work bridges theoretical solid mechanics with experimental materials science, focusing on failure mechanisms in structural components subjected to high-strain-rate events. This research has significant implications for transportation safety, defense applications, and industrial design validation. The LEM3 Laboratory provides advanced experimental facilities including high-speed imaging systems and specialized impact testing equipment, supporting her investigations into material responses at micro and macro scales. As an HDR-qualified researcher (Habilitation à Diriger des Recherches), she is authorized to supervise doctoral candidates in mechanical engineering disciplines.

Mansour Karkoubمشاهده پروفایل

استاد

• Robust Control
• Vibration Control
• Robotics
• +۲ مورد دیگر

Mansour Karkoub serves as Associate Dean of Accreditation & Assessment at Lamar University's College of Engineering, holding the Michael E. and Patricia P. Aldredge Endowed Chair while serving as Professor of Mechanical Engineering. His academic career spans leadership roles at Texas A&M University, the Petroleum Institute (Abu Dhabi), and INRIA (France), with expertise rooted in robotics and control systems. Education: Ph.D. Mechanical Engineering, University of Minnesota M.S. Mechanical Engineering, University of Minnesota B.S. Mechanical Engineering, University of Minnesota Habilitation to Direct Research (HDR), University of Versailles, France Research Focus: Dr. Karkoub pioneers Robust Control methodologies (H-infinity, adaptive, AI-based), Vibration Control for flexible structures, and Robotics applications spanning medical, inspection, and manufacturing systems. His work on Ground/Underwater Autonomous Vehicles addresses self-driving technologies and mobile robotics, while his Engineering Education research integrates ABET accreditation standards with technology-enhanced learning. Publication Trends: Recent articles (2021-2024) reveal concentrated advancements in neural network-integrated motion cueing algorithms, adaptive fuzzy control for underwater manipulators, and sustainable energy harvesting from vehicle suspensions. His work consistently bridges theoretical control frameworks with real-world applications in autonomous systems, emphasizing uncertainty handling and disturbance rejection. Scientific Recognition: Outstanding Researcher Award (2019, Texas A&M Qatar) Distinguished Achievement Award (2012, Dwight Look College) Best Teacher Award (2012, Texas A&M Qatar) Fellow of ASME, IET, and IMechE IEEE Senior Member Research Leadership: Secured over $12M in funding including a $1.2M 2022 grant for smart vehicle research. Founded and directs the Smart Systems Laboratory at Texas A&M Qatar, mentoring teams focused on autonomous vehicle innovation while leading ABET accreditation initiatives as a commissioner. Laboratory Impact: The Smart Systems Laboratory drives advancements in underwater vehicle manipulators, medical robotics, and energy-efficient transportation through cross-disciplinary collaboration, directly translating control theory into deployable autonomous systems for industrial and medical applications.

• Robotics
• Mechatronics
• Mechanical Engineering
• +۳ مورد دیگر

Marc Vedrines is a Lecturer in the Department of Mechanical Engineering, associated with the ICube Research Unit's Automatic Vision Robotics (AVR) team. His educational responsibilities include managing the mechatronics engineering training program through work-study and teaching courses in mechanical construction, strength of materials, mechatronic systems, and projects. His research spans robotics and mechanical systems, with key interests in tensegrity mechanisms, compliant mechanisms, variable stiffness joints, and applications in medical robotics (MR-compatible robots) and aerial vehicles (VTOL UAVs). He investigates the structural behavior and design of innovative robotic components through theoretical analysis and practical implementation. Analysis of his publications from 2010 to 2016 reveals a consistent focus on robotic mechanism design, including tensegrity workspace computation, variable stiffness joints for medical applications, singularity analysis in compliant mechanisms, and aerodynamic optimization of VTOL UAVs. His work demonstrates strong interdisciplinary connections between mechanical engineering, robotics, and biomedical/aerospace applications. Marc Vedrines actively contributes to the AVR team at ICube, advancing research in robotics, computer vision, and automatic systems through collaborative projects and publications in high-impact venues like ASME journals and IEEE conferences.

Christopher Robellerمشاهده پروفایل

استاد

• Digital timber construction
• Digital fabrication
• Lightweight construction
• +۱۱ مورد دیگر

Christopher Robeller is a Professor for Digital Design and Production at the Technical University of Applied Sciences Augsburg (THA), where he leads the Digital Timber Construction (DTC) working group within the Faculty of Architecture and Civil Engineering. His academic journey spans prestigious institutions including EPFL Lausanne, ETH Zurich, TU Kaiserslautern, and Chalmers University of Technology where he served as a Jubilee Professor. Professor Robeller's educational background includes a Doctor of Sciences (PhD) from the Swiss Federal Institute of Technology EPFL (2015) and a Professional Diploma in Architecture with Distinction (RIBA Part 2) from London Metropolitan University (2008). His academic career progressed from Research Associate at the University of Stuttgart, to PhD researcher at EPFL, Postdoctoral Researcher at NCCR Digital Fabrication, Junior Professor at TU Kaiserslautern, and now Professor at THA. His research focuses on advancing sustainable construction through digital methods, with particular expertise in digital timber construction, digital fabrication, lightweight shell structures, robotics in timber construction, and innovative connection systems. Professor Robeller has pioneered techniques for using CLT production waste in shell structures (Recycleshell project), developed reciprocal frame systems using underutilized wood species like chestnut (Castanea Sativa), and created novel connection methods that eliminate the need for steel components. His work bridges traditional craftsmanship with cutting-edge digital fabrication technologies. Professor Robeller has received numerous prestigious awards including dual IASS Tsuboi Awards (2020 and 2021), the Holzbaupreis RLP 2024, and the Advances in Architectural Geometry AAG 2014 Best Paper Award. These accolades recognize his innovative contributions to timber construction and shell structures. As an educator, Professor Robeller supervises PhD students and teaches courses in digital design, sustainable technology, and digital building methods. His teaching philosophy emphasizes hands-on, design-and-build education that connects theoretical knowledge with practical application. He has led numerous international workshops and excursions, including a notable 2019 trip to Sydney, Australia. The DTC laboratory under Professor Robeller's leadership provides an ideal environment for PhD research with dedicated spaces and equipment for digital fabrication. Current research projects include ReciproFrame (a sustainable construction system for reusable timber gridshells) and RecycleSauna (a wood-only construction system using CLT offcuts). These projects demonstrate his commitment to developing material-efficient, rapidly assemblable, and sustainable timber structures.

• Computational mechanics
• Finite element method
• Uncertainty quantification
• +۶ مورد دیگر

Prof. Dr.-Ing. habil. Kai Willner is a distinguished Professor at the Chair of Engineering Mechanics within the Department of Mechanical Engineering at Friedrich-Alexander-Universität Erlangen-Nürnberg (FAU). His research spans multiple domains of computational mechanics with significant contributions to structural dynamics, uncertainty quantification, and biomechanics. His current work focuses on innovative applications of fuzzy arithmetic in engineering systems and the mechanics of brain tissue. Principal Investigator for SFB 1540 EBM (Erforschung der Mechanik des Gehirns) Lead researcher on multiple DFG-funded projects including polymorphic uncertainty modeling Active participant in international collaborations on structural dynamics Member of the research group FOR 2271 on process-oriented tolerance management Willner's research interests center on computational mechanics with emphasis on uncertainty quantification , fuzzy-stochastic finite element methods , contact mechanics , and brain biomechanics . His work addresses fundamental challenges in modeling systems with uncertain parameters, particularly in heterogeneous materials and biological systems. His research group develops advanced computational frameworks that integrate fuzzy arithmetic with traditional finite element methods to handle epistemic and aleatoric uncertainties simultaneously, with applications ranging from microstructural analysis to brain mechanics. Analysis of his recent publications reveals a strong trend toward interdisciplinary research, particularly at the intersection of computational mechanics and neuroscience. His work on brain mechanics within the SFB 1540 EBM project represents a significant shift toward biomedical applications of traditional mechanical engineering methods. His publications consistently demonstrate expertise in vibration analysis, structural dynamics, and uncertainty quantification, with increasing focus on applying these methods to biological systems and complex material behaviors. Prof. Willner has secured substantial third-party funding from the German Research Foundation (DFG), including multiple collaborative research center (SFB/TRR) projects, research units (FOR), and individual grants. His current major projects include the SFB 1540 EBM (2023-2026) investigating brain mechanics, and continuing work on polymorphic uncertainty modeling in heterogeneous materials. Within the SFB 1540 EBM consortium, Willner leads research on model-based matching of ex vivo and in vivo test data (project X01), focusing on resolving contradictions in mechanical properties of ultraweak brain tissue materials across different testing modalities. His team develops continuum-based simulation models to unify various experimental observations into a coherent mechanical framework for brain tissue.

• Structural Engineering
• Steel Connections
• Concrete Structures
• +۵ مورد دیگر

Nor Hafizah Binti Ramli is a Professor in the Department of Civil Engineering at Universiti Teknologi Malaysia (UTM), Faculty of Civil Engineering. With over 15 years of academic experience since completing her Master's research on steel connections under fire conditions in 2005, she has established herself as a leading researcher in structural engineering, particularly in steel connections, concrete structures, and structural fire engineering. Her research program focuses on innovative structural systems including boltless steel connections, concrete-filled steel tubes, FRP strengthening techniques, and sustainable construction materials. Professor Ramli has made significant contributions to understanding structural connection behavior under various loading conditions including monotonic, cyclic, seismic, and fire scenarios. Her work bridges fundamental structural mechanics with practical construction applications, addressing critical industry challenges in structural safety and performance. Professor Ramli's recent publications reveal a strategic evolution in her research approach, increasingly incorporating computational methods and machine learning applications alongside traditional experimental investigations. Her work spans from fundamental material behavior studies to full-scale structural system evaluations, with growing emphasis on sustainable construction practices using recycled and alternative materials like rubberized concrete and seawater sea sand concrete. She has successfully supervised numerous graduate students who have become active researchers in structural engineering, with many continuing to collaborate with her on publications. Her international research network includes collaborations with institutions across Australia, Iran, Iraq, and other countries, reflecting the global relevance of her work in structural engineering. Professor Ramli leads a comprehensive structural engineering research facility at UTM with capabilities for advanced material testing, structural connection evaluation, and fire resistance testing. Her research team conducts both experimental and computational studies to advance structural engineering knowledge while addressing practical industry needs for safer, more efficient, and sustainable construction systems.

• Computational Mechanics
• Finite Element Methods
• Structural Analysis
• +۷ مورد دیگر

Professor Michael Kaliske is a leading researcher at Dresden University of Technology's Institute of Statics and Dynamics of Structures, where he conducts cutting-edge research in computational mechanics and structural engineering. His work bridges theoretical developments with practical applications across civil, mechanical, and materials engineering disciplines. Professor Kaliske's research focuses on computational mechanics with particular expertise in finite element methods, multiscale modeling, and material behavior under various loading conditions. His work spans diverse application areas including concrete technology, wooden structures, elastomeric materials (particularly tires), and uncertainty quantification in structural design. He has developed sophisticated numerical frameworks for analyzing complex structural behaviors, especially in contexts where traditional analytical methods fall short. His research demonstrates strong interdisciplinary connections between civil engineering, mechanical engineering, and computational science with practical applications in infrastructure durability and material design. His publication record shows consistent advancement in computational methods for structural analysis, with recent work emphasizing multiscale approaches, uncertainty quantification, and experimental validation. The research themes demonstrate progression from fundamental material modeling to increasingly complex system-level analysis, particularly in infrastructure durability and tire-road interaction phenomena. His work increasingly incorporates data-driven approaches and uncertainty modeling to address real-world engineering challenges. Professor Kaliske actively leads multiple research projects funded by the German Research Foundation (DFG), including ongoing Priority Programs and Material Grants. His project portfolio demonstrates significant contributions to both theoretical developments in computational mechanics and practical applications in civil infrastructure and industrial manufacturing. His research has particularly strong connections to industrial applications in tire manufacturing and road infrastructure design.

• Acoustics
• Micro and Nanotechnology
• MEMS
• +۶ مورد دیگر

Julien CARLIER is a Lecturer at the Institut d'Électronique, de Microélectronique et de Nanotechnologie (IEMN) within the Institut des Sciences et Techniques de Valenciennes (ISTV) at the Université de Valenciennes et du Hainaut-Cambrésis (UVHC). He currently serves as Deputy Director of IEMN DOAE since January 2020, having previously served as Head of the MAMINA research group from September 2017 to December 2019. His academic career includes membership in the CSE 63rd section of UVHC (2007-2009), serving on the Board of Directors of ISTV (2007-2012), and managing the SPI Electronics Course at ISTV (2007-2012). Dr. CARLIER earned his HDR (Habilitation à Diriger des Recherches) from the University of Valenciennes in 2016, following his Doctorate in Advanced Instrumentation and Analysis from the University of Lille 1 in 2004. His educational background includes an Engineer's degree from Polytech'Lille's Department of Instrumentation and a Master's in Advanced Instrumentation and Analysis, both obtained in 2001 from the University of Lille 1. Dr. CARLIER's research focuses on high frequency acoustics on silicon, specializing in the development of ultrasonic transducers and high frequency resonators using thin layers of ZnO and monocrystalline LiNbO 3 on silicon for RF applications. His work spans micro and nanotechnology, ultrasonic propagation for biological environment interactions, and acoustic MEMS with applications in lab-on-chip systems. He has international collaborations with Wuhan University and Fudan University in China, as well as with the University of Fanar in Lebanon and IMEC in Leuven. His publication record shows a consistent focus on high-frequency ultrasound applications, with particular emphasis on MEMS integration, acoustic wave propagation in silicon substrates, and lab-on-chip implementations. The research demonstrates progression from fundamental materials characterization to increasingly sophisticated integrated systems for both industrial and biological applications. Dr. CARLIER has coordinated significant research projects including the French-International PICS CNRS program "Lab-on-Chip for biological high frequency acoustic characterization" (2010-2012) with 21k€ funding, participation in the ARCIR project (2007-2009) with 110k€ funding, and the Interreg IV PRISTIMAT project (2008-2010) with 300k€ funding. His international collaborations have resulted in multiple joint publications with Chinese universities. He leads the MAMINA research group at IEMN, focusing on micro and nanotechnology applications in acoustics. His team works on developing high-frequency ultrasonic transducers and resonators, with applications ranging from RF components to biological characterization systems. The group maintains strong international connections, particularly with Chinese institutions, facilitating knowledge exchange and collaborative research in advanced acoustic technologies.

Brian D Wirthمشاهده پروفایل

استاد

• Nuclear Engineering
• Materials Science
• Computational Nuclear Engineering
• +۴ مورد دیگر

Brian Wirth is a Governor's Chair Professor and Head in the Department of Nuclear Engineering at the University of Tennessee Knoxville (UTK) with a joint appointment at Oak Ridge National Laboratory (ORNL). He is an authority in the ways materials behave in extreme environments, with research focused on nuclear fuels and structural materials in nuclear environments. His work investigates the performance of nuclear fuels and structural materials to improve prediction of reactor component longevity and develop high-performance, radiation-resistant materials for advanced nuclear fission and fusion energy applications. Within the Consortium for Advanced Simulation of Light Water Reactors (CASL), the first US Department Of Energy Innovation Hub, Wirth leads the fuels, materials, and chemistry focus area, and serves as the grid-to-rod fretting challenge problem integrator. Dr. Wirth's publication record demonstrates sustained contributions across nuclear materials science, with particular expertise in fission gas behavior, radiation effects on materials, and computational modeling of nuclear systems. His work spans both theoretical frameworks and experimental validation, addressing critical challenges from fundamental materials science to practical reactor applications. His scientific awards include: Ernest Orlando Lawrence Award (2015) - the highest honor for a US Department of Energy midcareer researcher American Nuclear Society Fellow (2017) AAAS Fellow (2016) Dr. Wirth has led major research initiatives including the Department of Energy's Energy Innovation Hub (CASL), which received a five-year renewal of funding in January 2015. His work has been supported by substantial DOE grants and has direct applications for improving nuclear safety and developing next-generation nuclear energy systems for both fission and fusion applications. He leads interdisciplinary research teams working at the intersection of materials science, nuclear engineering, and computational science, utilizing advanced facilities at both UT Knoxville and ORNL to address critical challenges in nuclear materials performance and reactor design.