Assist. Prof. Dr. Jialong Tian | Metals and Alloys | Best Innovation Award

Assist. Prof. Dr. Jialong Tian | Metals and Alloys | Best Innovation Award

Northeastern University | China

Assist. Prof. Dr. Jialong Tian is an accomplished materials scientist specializing in metals and alloys, with particular expertise in the design, processing, and performance optimization of advanced special steels. He serves as an Associate Professor at the School of Metallurgy, Northeastern University, and holds the position of Deputy Director of the Green Intelligent Special Steel Metallurgy Research Center. Dr. Tian’s research focuses on composition design, preparation technologies, and toughening mechanisms of tool steels, ultra-high-strength steels, bearing steels, and stainless steels for demanding industrial applications. His work integrates physical metallurgy, alloy design, and intelligent computing approaches to address critical challenges such as strength–toughness balance, fatigue resistance, inclusion control, and microstructural stability. He has played a leading role in translating fundamental research into industrial practice, with his innovations successfully applied in collaboration with major steel enterprises and advanced manufacturing industries, including high-end equipment and automotive sectors. Dr. Tian has led and contributed to numerous nationally competitive research and industry-driven projects, demonstrating strong capabilities in project management, problem-solving, and technology transfer. His inventive contributions are reflected in multiple authorized patents covering alloy design, electroslag remelting processes, heat treatment optimization, and data-driven performance prediction systems for special steels. In addition to his research achievements, he is actively engaged in academic service, including editorial responsibilities for international materials journals and participation in professional societies related to metal new materials. Dr. Tian’s interdisciplinary approach combines metallurgy, computational design, and industrial engineering, enabling the development of innovative, high-performance metal materials tailored for real-world applications. Through his sustained innovation, strong industry impact, and leadership in advanced steel research, Assist. Prof. Dr. Jialong Tian has established himself as a leading figure in metals and alloys research and is a highly deserving recipient of the Best Innovation Award.

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Featured Publications


Innovative Models for Calculating Electrical Conductivity and Viscosity of Slag at 1600 °C: A Case Study on CaF2–Al2O3–CaO–MgO–SiO2 Slag System

– Metallurgical and Materials Transactions B Process Metallurgy and Materials Processing Science, 2025

Prof. Xiangtao Hu | Metals and Alloys | Research Excellence Award

Prof. Xiangtao Hu | Metals and Alloys | Research Excellence Award

Anhui University | China

Prof. Xiangtao Hu is a distinguished researcher and academic leader whose work in metals and alloys is closely integrated with robotized intelligent manufacturing, advanced processing technologies, and optimization-driven materials engineering. As a Professor and doctoral supervisor at Anhui University, he plays a pivotal role in advancing intelligent manufacturing systems that enable high-precision processing, forming, and performance optimization of metallic materials and alloy-based components. His research expertise centers on surrogate model optimization, digital manufacturing, and intelligent control strategies that significantly enhance the efficiency, quality, and reliability of metal forming, machining, and structural component fabrication. Prof. Hu has led numerous competitive research projects at national and provincial levels, demonstrating strong leadership in translating theoretical models into practical manufacturing solutions for metallic systems used in aerospace, electronics, and advanced industrial applications. He has authored a substantial body of high-quality scientific publications and holds multiple authorized invention patents, many of which address intelligent processing, precision manufacturing, and performance enhancement of metal-based systems. In addition to his research achievements, he has contributed extensively to standardization efforts by editing national and industry technical standards, strengthening the technological foundation of intelligent manufacturing involving metals and alloys. Prof. Hu also serves as the head of an academic program in intelligent manufacturing engineering, where he actively mentors graduate students and fosters interdisciplinary collaboration between materials science, mechanical engineering, and automation. His work bridges fundamental materials behavior with data-driven manufacturing intelligence, supporting the next generation of alloy design, processing optimization, and smart production systems. Through sustained innovation, academic leadership, and impactful contributions to metal-related intelligent manufacturing technologies, Prof. Xiangtao Hu exemplifies research excellence and is a highly deserving recipient of the Research Excellence Award.

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Dr. Muhammad Murtaza | Metals and Alloys | Excellence in Research Award

Dr. Muhammad Murtaza | Metals and Alloys | Excellence in Research Award

Absolute Pure EnviroSci Limited APEL | Hong Kong | Pakistan

Dr. Muhammad Murtaza is an accomplished materials scientist specializing in metals and alloys, with strong expertise in metallic nanostructures, functional coatings, and materials for flexible and printable electronics. His research focuses on the controllable synthesis of metal nanomaterials, including silver, copper, gold, and nickel systems, and their integration into high-performance conductive inks, strain sensors, and electronic devices. Dr. Murtaza has developed innovative synthesis strategies for nanostructured metals and metal–ceramic composites, enabling improved electrical conductivity, mechanical flexibility, and structural stability for advanced electronic applications. His work bridges fundamental materials science with applied engineering, contributing to emerging technologies in wearable electronics, smart sensors, and functional thin films. He has collaborated with leading international research groups and has held research appointments across prominent academic and industrial laboratories, where he contributed to interdisciplinary projects combining materials science, physics, and electronic engineering. In addition to metallic systems, his expertise extends to ceramic materials, two-dimensional materials, composite coatings, and piezoelectric structures, supported by extensive experience with advanced characterization techniques including electron microscopy, spectroscopy, diffraction, and scanning probe methods. Dr. Murtaza is also an experienced educator, having taught materials science and physics at undergraduate and graduate levels, and mentored student research projects in nanomaterials and electronic materials. His work demonstrates a strong commitment to scientific rigor, innovation, and practical impact, particularly in the development of metal-based functional materials for next-generation technologies. Through sustained research excellence, interdisciplinary collaboration, and technological innovation, Dr. Muhammad Murtaza has established himself as a valuable contributor to the field of metals and alloys, making him a highly deserving recipient of the Excellence in Research Award.

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Assist. Prof. Dr. Riming Wu | Metals and Alloys | Research Excellence Award

Assist. Prof. Dr. Riming Wu | Metals and Alloys | Research Excellence Award

Shanghai University of Engineering Science | China

Assist. Prof. Dr. Riming Wu is a distinguished materials scientist specializing in metals and alloys, with a strong focus on the development and application of high-performance special alloys. He serves as an Associate Professor in materials processing and leads a research group dedicated to advanced special steels, where his work bridges fundamental materials science and industrial implementation. His researchbainitic expertise spans high-quality special steels, hot work die steels, automotive high-strength steels, and advanced alloy design for demanding service environments. Dr. Wu has demonstrated outstanding leadership in research and innovation by directing numerous competitive projects in collaboration with national programs and industrial partners, contributing significantly to the advancement and commercialization of high-wear-resistant, high-thermal-conductivity, and high-strength alloy systems. He has authored more than twenty SCI-indexed journal publications in leading international materials science journals, many as corresponding author, reflecting his strong academic influence in alloy microstructure control, precipitation behavior, and mechanical property optimization. In addition to his scholarly contributions, Dr. Wu holds multiple authorized invention patents related to special steel processing technologies, several of which have been successfully transferred to industrial-scale production, highlighting his impact on technology translation and industrial upgrading. His work has provided practical solutions for tooling steels, hot stamping steels, and extrusion die materials, supporting applications in automotive manufacturing and advanced forming technologies. Recognized for his academic rigor, innovation capacity, and commitment to industry-oriented research, Dr. Wu exemplifies excellence in metals and alloys research. His sustained contributions to high-performance alloy development, combined with mentorship and collaborative engagement, make him a highly deserving candidate for the Research Excellence Award.

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Featured Publications

Silicon in Die Steels
– Metals and Materials International, 2025

Fluctuations of Properties of Cr–Mo–V Hot Work Die Steels by Artificial Increment of Vanadium
– 2022 Shan Huang, Riming Wu (Corresponding Author), Wei Li, Na Min, Xiaocheng Li
Effect of Mo-Related Precipitation Behavior on the Strengthening and Thermal Stability of 4Cr5Mo2V Die Steel
– Journal of Materials Engineering and Performance (SCI), 2022, 31:10213–10224

Tao Hu, Riming Wu (Corresponding Author), Fangjie Li, Na Min, Wei Li

Improved Mechanical Properties by Nanosize Tungsten–Molybdenum Carbides in Tungsten-Containing Hot Work Die Steels
– Materials Science and Engineering A (SCI), 2021

Riming Wu (Corresponding Author), Wei Li, Meng Chen, Shan Huang, Tao Hu

Dr Ronit Das | Metals and Alloys | Best Researcher Award

Dr Ronit Das | Metals and Alloys | Best Researcher Award

Dr. Ronit Das is a dynamic and forward-thinking materials engineer whose expertise lies in advanced microelectronics packaging, solder reliability, and interconnect technologies. With a Ph.D. in Industrial and Systems Engineering from Binghamton University (SUNY), his work bridges the gap between academic rigor and industrial application. Currently employed at Apple Inc. as an IC Package Integration Engineer, Dr. Das has previously contributed to leading tech companies like Intel, AMD, and Applied Materials. His academic and professional trajectory highlights a deep commitment to reliability science, microscale fatigue, and innovative materials for next-generation electronic systems.

Dr Ronit Das, Binghamton University, United States

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🎓 Education

Dr. Ronit Das holds a strong academic foundation in engineering and materials science. He earned his Ph.D. in Industrial and Systems Engineering from Binghamton University – SUNY (2020–2023), where his dissertation focused on Pb-free SnAgCu-Bi solder joints and their fatigue damage properties ⚙️📉. He completed his M.S. in the same field at Binghamton (2018–2019), researching intermetallic morphology and void formation in micro-joints 🔬📊. His academic journey began with a B.E. in Mechanical Engineering from the University of Mumbai (2011–2015), where he graduated with distinction 🎯📚. His education blends mechanics, reliability, and materials innovation 🧠🛠️.

🧑‍💼 Experience

Dr. Ronit Das brings a wealth of experience across academia and industry in advanced packaging, reliability engineering, and materials science. At Apple Inc. 🖥️📦, he drives innovative IC packaging from concept to high-volume manufacturing. Previously at Applied Materials 🧪🔬, he focused on failure analysis and PVD coatings. His doctoral research at Binghamton University 🎓🔧 involved solder joint fatigue, intermetallic evolution, and thermal reliability. With prior engineering roles in India 🌏⚙️, he also worked in product development and industrial safety. His expertise spans flip-chip, 2.5D/3D packaging, electromigration, and finite element modeling 🛠️📊, making him a well-rounded engineer and researcher.

🛠️ Technical Skills

Dr. Ronit Das possesses an exceptional technical portfolio in reliability testing 🧪, including fatigue, shear, vibration, and thermal cycling analysis 🔄. He is proficient in advanced failure analysis techniques such as SEM, EBSD, EDX, CT, and AFM 🔬🧠. His hands-on expertise includes thin-film deposition, non-destructive testing, and metallographic processing 🧱⚙️. He is skilled in simulation and data tools like MATLAB, ANSYS, JMP, and SolidWorks 📊💻. With strong competencies in DFM, FMEA, and packaging design, he consistently applies analytical thinking, problem-solving, and statistical methodologies to optimize microelectronic systems and hardware reliability 🔧📐📈.

🏆 Leadership

Dr. Ronit Das has demonstrated exceptional leadership and academic excellence throughout his career. He served as the President of the Surface Mount Technology Association (SMTA) at Binghamton University, where he led technical and professional development initiatives 📡🤝. He is also an esteemed member of Alpha Pi Mu, the Industrial Engineering Honor Society, reflecting his high academic standing 🎓📘. Additionally, Dr. Das was the Vice Chair for Graduate Student Services at ASQ World Headquarters, where he advocated for student engagement in quality and reliability sciences 🌍🧪. These recognitions showcase his dedication to leadership, innovation, and community building 💼⭐.

🎤 Conference Presentation

Dr. Ronit Das has actively presented his research on low-temperature solder joint reliability and interconnect durability at prestigious international conferences. His work at the Pan Pacific Microelectronics Symposium (2023) focused on optimizing solder fatigue life under varying stress conditions ⚙️🔩. At the GRC-SRC meetings (2020–2022), he showcased novel Pb-free soldering approaches to reduce warpage and enhance lifecycle performance 🧪📉. Additionally, he delivered key insights on the mechanical deformation and damage evolution of micro-joints at elevated temperatures 🔍🔥. These presentations underline his expertise in advanced packaging reliability, materials behavior, and interconnect engineering 💻🛠️📦.

🔬 Research Focus 

Dr. Ronit Das focuses on advancing reliability engineering and electronic packaging technologies, particularly involving low-temperature Pb-free solder systems, intermetallic morphology, and micro-joint fatigue analysis. His research integrates experimental mechanics with materials science, using techniques such as electron microscopy, thermal cycling, and finite element modeling to investigate failure mechanisms in SnAgCu, SnBi, and hybrid solder joints. He aims to enhance the durability and performance of flip-chip, 2.5D/3D architectures, and fine-pitch interconnects under harsh operational environments. His innovations are key to improving the thermal-mechanical stability, electromigration resistance, and manufacturing efficiency of next-gen electronic systems.

📚 Publications

Comparing/Optimizing Actual Solder Fatigue Life

Author: Ronit Das
Conference: 2023 Pan Pacific Microelectronics Symposium (Jan 2023)

Early Transient Creep of Single Crystal SnAgCu Solder Joints

Authors: Ronit Das; Sanoop Thekkut; Rajesh Sharma Sivasubramony; Thaer Alghoul; Atif Mahmood; Shantanu Joshi; Carlos Arroyo; Gaurav Sharma; Peter Borgesen
Journal: Journal of Materials Science: Materials in Electronics (June 2022)

Understanding and Preventing Cu–Sn Micro Joint Defects Through Design and Process Control

Authors: Ronit Das et al.
Journal: Journal of Applied Electrochemistry (Oct 2021)

Feasibility of a Low Temperature Soldering Approach

Author: Ronit Das
Conference: TechCon – Semiconductor Research Corporation (Sept 2021)

Reliability of Micro-Joints Formed by a Low Temperature Soldering Approach

Author: Ronit Das
Conference: TechCon – Semiconductor Research Corporation (Sept 2021)

Sporadic Voiding in Cu-Sn Micro-Joints: Understanding and Control

Author: Ronit Das
Conference: TechCon – Semiconductor Research Corporation (Sept 2021)

Strength and Isothermal Fatigue Resistance of SnBi/SnAgCu Joints Reflowed at Low Temperatures

Authors: Ronit Das; Manu Yadav; Thaer Alghoul et al.
Journal: Journal of Electronic Packaging (Sept 2021)

Effect of Intermetallic Morphology Evolution on Void Formation in Ni/Sn/Ni Micro Joints

Author: Ronit Das
Conference: IEEE Electronic Components and Technology Conference (ECTC) (Aug 2020)

Mr Di Feng | Metals and Alloys | Best Researcher Award

Mr Di Feng | Metals and Alloys | Best Researcher Award

🧪 Mr. Di Feng is a promising postgraduate researcher at Hainan University, specializing in soil science and environmental microbiology 🌱🔬. His research focuses on the interaction between heavy metals and soil microbial functions, addressing critical challenges in ecosystem health and sustainable land use 🌍. As first author in top-tier journals like Journal of Hazardous Materials, he has demonstrated strong analytical skills and scientific independence 📊📝. His large-scale meta-analyses and collaborations with international scientists highlight his multidisciplinary approach and rising global impact 🤝🌐. Mr. Feng’s work contributes directly to environmental remediation and agricultural resilience 🚜♻️.

Mr Di Feng, Hainan University, China

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🎓 Education 

Mr. Di Feng reflect a strong interdisciplinary foundation bridging the humanities and environmental sciences. He earned his Bachelor of Arts from Guilin University (2019–2023) 🏫, where he developed critical thinking and research skills within the Faculty of Humanities 📚. He is currently pursuing postgraduate studies in Crop Science at Hainan University 🌱, focusing on soil ecology, nutrient cycling, and the effects of heavy metals on microbial function 🔬. This academic path illustrates his unique ability to integrate social insight with scientific rigor, preparing him for impactful research in environmental sustainability 🌍🧪.

💼 Employment 

Since September 2023, Mr. Di Feng has been serving as a postgraduate researcher at the School of Tropical Agriculture and Forestry, Hainan University, Haikou, China 🌴🎓. His role involves conducting advanced research on soil-plant-microbe interactions, with a particular focus on the ecotoxicological effects of heavy metals in tropical ecosystems 🧪🌾. As part of a dynamic academic environment, he engages in experimental design, data analysis, academic writing, and collaborative studies with national and international research teams 🌍📊. His position supports both his Ph.D. studies and broader contributions to environmental and agricultural sustainability 🌱🔍.

🔧 Skills and Expertise 

Mr. Di Feng span both scientific research and education. He possesses deep knowledge in the bioaccumulation of heavy metals 🧪⚠️, particularly their interaction with soil enzymes like urease and phosphatase 🌱🧫. His methodological expertise includes enzyme activity assays, soil-microbe interaction analysis, and ecological data synthesis 📊🔍. In addition to his environmental science credentials, Mr. Feng is also trained in English teaching methodology 📘🎓, showcasing versatility and communication skills. This unique blend of technical and pedagogical expertise positions him as both a skilled researcher and an effective scientific communicator 🌍🗣️.

🌾Research Focus

Mr. Di Feng’s research explores the impact of heavy metals on soil microbial function and enzymatic activity, a critical area in understanding soil health and nutrient cycling 🔄🧬. His work investigates how edaphic (soil) and climatic factors influence the toxicity of pollutants, offering new perspectives on microbial ecology and biogeochemical processes 🌾🦠. Through meta-analysis and experimental approaches, he evaluates the ecological consequences of pollution on key enzymes like urease and phosphatase ⚗️🌡️. His findings are vital for advancing environmental remediation, agricultural sustainability, and ecosystem resilience against anthropogenic stressors 🌍♻️🌾.

🌱 Scientific Contributions 

Mr. Di Feng’s research reveals how heavy metals/metalloids (HMMs) disrupt soil enzyme activity, essential for nutrient cycling ⚙️🧪. Through a meta-analysis of 1,989 data points from 145 studies, he quantified significant reductions in key enzymes like β-glucosidase, urease, and phosphatase (15–37% declines) 📉. His work links these reductions to lower microbial biomass and increased metabolic stress, while noting a surprising 82.2% increase in polyphenol oxidase due to microbial stress responses 🔄. He further identified that soil properties and climate mediate these effects, offering a predictive framework for HMMs’ ecological risks 🌍📊.

📚 Publications

Cadmium inhibits carbon and nitrogen cycling through soil microbial biomass and reduces soil nitrogen availability
✍️ Authors: Elrys, A.S.; Wen, Y.; Feng, D.; El-Mekkawy, R.M.; Kong, M.; Qin, X.; Lu, Q.; Dan, X.; Zhu, Q.; Tang, S. et al.
📚 Journal: Journal of Hazardous Materials, 2025

Edaphic factors mediate the response of nitrogen cycling and related enzymatic activities and functional genes to heavy metals: A review
✍️ Authors: Opande, T.; Kong, M.; Feng, D.; Wen, Y.; Okoth, N.; Yatoo, A.M.; Khalil, F.M.A.; Elrys, A.S.; Meng, L.; Zhang, J.
📚 Journal: Ecotoxicology and Environmental Safety, 2025

Synergistic effects of clove fruit extract and nano-silicon to enhance drought resilience and productivity of soybean through improved plant defense mechanisms
✍️ Authors: Desoky, E.-S.M.; Mahmood, M.; Feng, D.; Ahmed, A.F.; Al Masoudi, L.M.; Alahmari, A.S.; Eid, R.S.M.; Rady, M.M.; Ayyoub, A.; Taha, N.A.
📚 Journal: BMC Plant Biology, 2025

Edaphic and climatic factors control the response of nutrient-cycling enzyme activity to common heavy metals in soils
✍️ Authors: Di Feng; Lei Meng; YuHong Wen; Yves Uwiragiye; Synan AbuQamar; Nathan Okoth; Qilin Zhu; Zhipeng Wu; Yanzheng Wu; Christoph Müller et al.
📚 Journal: Journal of Hazardous Materials, 2025

Co-application of organic amendments and natural biostimulants on plants enhances wheat production and defense system under salt-alkali stress
✍️ Authors: Zaghloul, E.A.M.; Awad, E.-S.A.; Mohamed, I.R.; El-Hameed, A.M.A.; Feng, D.; Desoky, E.-S.M.; Algopishi, U.B.; Al Masoudi, L.M.; Elrys, A.S.; Mathew, B.T. et al.
📚 Journal: Scientific Reports, 2024

Tianyu Ma | Metals and Alloys | Best Researcher Award

Tianyu Ma | Metals and Alloys | Best Researcher Award

Dr Tianyu Ma, Xi’an Jiaotong University, China

Dr. Tianyu Ma is a renowned researcher in materials science, specializing in high-performance materials for aerospace applications. He holds a Ph.D. from Beijing University of Aeronautics and Astronautics and has postdoctoral experience at the National Institute for Materials Science (Japan) and Zhejiang University. Currently a professor at Xi’an Jiaotong University, his research focuses on materials for bearings and high-entropy alloys. With multiple publications in top journals like Nature and Advanced Materials, Dr. Ma’s work impacts aerospace, automotive, and energy industries, focusing on enhancing material performance in extreme environments. ✈️🔬

Publication Profile

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Educational Background 🎓

Dr. Tianyu Ma holds a Ph.D. in Materials Science and Engineering from Beijing University of Aeronautics and Astronautics, where he also completed his Bachelor’s degree. His research focuses on multi-scale analysis of materials for high-performance bearings, specifically in aeroengines. These bearings endure extreme conditions like high temperatures, high speeds, and depleted oil, making them prone to failure. Dr. Ma investigates the damage mechanisms of bearing materials across macro to micro scales, aiming to understand and improve the evolution of bearing failure. His work plays a critical role in enhancing the durability and performance of aerospace components. ✈️🔬

Current Role and Focus 💼

Dr. Tianyu Ma is currently a Professor at Xi’an Jiaotong University’s Frontier Institute of Science and Technology, a position he has held since November 2017. Prior to this, he served as a Postdoctoral Researcher and Associate Professor at Zhejiang University’s Department of Materials Science and Engineering from 2006 to 2017. Additionally, Dr. Ma worked as a JSPS Foreign Postdoctor at the National Institute for Materials Science in Japan from 2011 to 2013, contributing to research in ferroic physics. His extensive academic career spans institutions in China and Japan, focusing on advanced materials for aerospace and engineering applications. 🎓🌍

Research Focus Area 🌱🧬

Dr. Tianyu Ma’s research primarily focuses on advanced materials for high-performance applications, particularly in aerospace and magnetic materials. His work involves multi-scale analysis of materials, such as 8Cr4Mo4V alloy, and exploring damage mechanisms through molecular dynamics simulations. He has also contributed significantly to the development of high-entropy alloys, magnetic materials, and alloys with enhanced mechanical properties like strength, ductility, and thermal expansion. His publications in Nature, Acta Materialia, and Advanced Materials reflect his deep engagement with materials science, especially in the areas of ultrahigh-strength alloys, magnetic performance, and thermally stable materials for extreme conditions. 🛠️✈️🧲

Publication Top Notes📄✨

Enhanced magnetic performance of Fe-rich Sm2Co17-type magnets by optimizing Zr content

Rapid-thermal-process pre-treatment promoted precipitation towards strengthening hard magnetism of Sm2Co17-type magnets

Large Non‐Hysteretic Volume Magnetostriction in a Strong and Ductile High‐Entropy Alloy

Local Displacive Phase Transformation in Large-Magnetostriction Alloy Fe81Ga19

Formation of semi-coherent Zr-rich lamellar phase in 2:17-type Sm-Co-Fe-Cu-Zr magnets with high Fe content

Atomic scale understanding the periodic modulation in ferroelastic alloy Ni-Mn-Ti

Toughening Ceramics down to Cryogenic Temperatures by Reentrant Strain-Glass Transition

Origin of hard magnetism in Fe-Co-Ni-Al-Ti-Cu high-entropy alloy: Chemical shape anisotropy

Conclusion 🔍

Dr. Tianyu Ma’s extensive academic background, innovative research, and prolific publication record make him a strong candidate for the Best Researcher Award. His work bridges fundamental material science with applied engineering, particularly in the area of multi-scale materials analysis, which is essential for improving high-performance bearings and magnets. His ongoing contributions to the development of advanced materials for challenging environments align well with the goals of this award.