Julian Plewa | Material Sciences | Excellence in Research

Prof. Dr. Julian Plewa | Material Sciences | Excellence in Research

Prof., University of Silesia, Poland

Prof. Dr. Julian Plewa is a distinguished materials scientist, currently serving as a full professor at the University of Silesia in Katowice, Poland. With over four decades of experience in academia and research, he has made pioneering contributions to various fields within materials science, including optical materials, superconductors, and mechanical metamaterials. His work in phosphors for energy-efficient lighting has earned him recognition worldwide. Prof. Plewa’s extensive research on materials for advanced technological applications is complemented by his robust teaching career. He has lectured and conducted research at multiple renowned universities and has mentored numerous students and professionals in the field. His research has been widely published in leading journals, and his work is frequently cited by peers in academia and industry. Prof. Plewa’s ongoing contributions continue to influence the development of functional materials and their applications in cutting-edge technologies.

Profile

Education

Prof. Dr. Julian Plewa earned his Master of Science degree in Metallurgy from AGH University of Science and Technology in Cracow, Poland, in 1973, followed by a Doctor of Philosophy in Technical Sciences in 1979. He later advanced his academic career by obtaining his habilitation in Materials Science from the Silesian University of Technology, Gliwice, in 2005. This achievement was a key milestone that propelled him to the rank of full professor in Materials Science at the University of Silesia, Katowice, in 2019. His education spans multiple prestigious institutions, providing him with a strong foundation in metallurgical and materials sciences. Prof. Plewa’s academic journey reflects his dedication to advancing knowledge in materials science, enabling him to contribute significantly to the field and mentor future generations of researchers.

Experience

Prof. Dr. Julian Plewa has an extensive academic career, having taught and conducted research at leading institutions in Poland and Germany. From March 1981 to March 1988, he served as a lecturer at the Silesian University of Technology, Gliwice, teaching Chemical Thermodynamics and Metallurgy of Non-Ferrous Metals. He then worked as a teaching assistant at the University of Applied Sciences Muenster from 2010 to 2017, specializing in Nanoceramics and Technical Thermodynamics. Prof. Plewa’s experience as a visiting professor at Cracow University of Technology from 1995 to 2017 further demonstrates his international expertise. Since 2019, he has been a professor at the University of Silesia, Katowice, where he teaches Functional Materials and Materials Science. Throughout his career, he has influenced numerous students and professionals, shaping the future of materials science research and education. Prof. Plewa’s teaching and research experience have solidified his reputation in the scientific community.

Research Focus

Prof. Dr. Julian Plewa’s research focuses on advanced materials with applications in energy, optics, and emerging technologies. His work on optical materials, particularly phosphors for phosphor-converted light-emitting diodes (pcLEDs), has had a lasting impact on energy-efficient lighting. He also investigates high-temperature superconductors, thermoelectrics, and mechanical metamaterials, which play a crucial role in the development of next-generation materials for various applications, including electronics, sensors, and energy harvesting. Additionally, Prof. Plewa explores the synthesis and characterization of advanced ceramic materials for thermoelectrics and superconducting applications. His research is characterized by interdisciplinary collaboration, incorporating both theoretical studies and experimental techniques. Prof. Plewa’s contributions to the understanding of material properties have been widely cited, influencing research across academia and industry. His ongoing work continues to address global challenges related to sustainability, energy efficiency, and the development of novel functional materials.

Publication Top Notes

  1. Synthesis and optical properties of Li₃Ba₂La₃(MoO₄)₈: Eu³⁺ powders and ceramics for pcLEDs 📚✨
  2. Synthesis and optical properties of yellow emitting garnet phosphors for pcLEDs 💡🟡
  3. The influence of Ag on univariant reactions and the oxygen content of the eutectic melt in the Y–Ba–Cu–(Ag)–O system 🔬⚡
  4. Synthesis and optical properties of green emitting garnet phosphors for phosphor-converted light emitting diodes 💚💡
  5. The effect of Al–O substitution for Si–N on the luminescence properties of YAG: Ce phosphor 🌟🔧
  6. Thick films of ceramic superconducting, electro-ceramic materials 🧲📏
  7. Semiconductor ceramics for NTC thermistors: the reliability aspects 🔋🛠
  8. Preparation and characterization of calcium cobaltite for thermoelectric application 🌡️⚙️
  9. Application of mechanochemical processing to synthesis of YAG: Ce garnet powder 🔬🟠
  10. Investigation of modified auxetic structures from rigid rotating squares 📐🔄

 

 

 

Daniela Fico | materiali | Best Researcher Award

Dr. Daniela Fico | materiali | Best Researcher Award

Collaboratore, CNR-ISPC, Italy.

Daniela Fico is a renowned researcher at the National Research Council—Institute of Heritage Science (CNR-ISPC), Lecce, Italy, specializing in the preservation of cultural heritage. With a PhD in Analytical Chemistry from the University of Salento (2015), her work integrates advanced technologies in the study of materials and heritage preservation. She is recognized for her innovative research in green protective materials for stone and cultural heritage, sustainable polymer composites, and biocomposite materials. Fico has contributed to several national and international projects, published extensively, and served as a reviewer and guest editor for international journals.

Profile

Google scholar 

Education

Daniela Fico obtained her PhD in Analytical Chemistry in 2015 from the Department of Cultural Heritage at the University of Salento, Lecce, Italy. Her doctoral research focused on the analysis and preservation of cultural heritage materials, combining spectroscopic and chromatographic techniques. Fico has also undertaken advanced studies in sustainability, 3D printing technologies, and material characterization, further expanding her expertise in multidisciplinary research approaches, particularly with applications in cultural heritage conservation.

Experience

Fico’s career spans over a decade of research in various fields, from analytical chemistry to sustainability in material sciences. She has worked at the University of Salento’s Department of Cultural Heritage (2015–2020), contributing to the chemical and morphological characterization of materials and developing innovative analytical protocols. From 2021 to 2022, she worked at the Department of Engineering for Innovation, focusing on sustainable materials and circular economy. Currently, Fico is employed at CNR-ISPC, where she conducts diagnostic analyses and studies for the preservation of cultural heritage, using high-resolution mass spectrometry and advanced imaging techniques.

Awards and Honors

Daniela Fico has received numerous accolades for her groundbreaking contributions to the fields of analytical chemistry and heritage conservation. She is the recipient of various research grants and has been invited to collaborate on national and international projects. As an author of highly cited papers in prestigious journals, Fico’s work has earned her recognition within the scientific community. She also serves as a reviewer and guest editor for several international journals, demonstrating her leadership and influence in her field.

Research Focus

Fico’s research focuses on the intersection of sustainability, heritage preservation, and material science. She specializes in the development of innovative non-toxic protective materials for stone and other cultural heritage artifacts. Her work also explores the use of recycled polymers, biocomposites, and 3D printing in material manufacturing, aiming to reduce environmental impact. Additionally, she employs advanced analytical techniques like ATR-FTIR, LC-MS, and high-resolution mass spectrometry to study materials’ composition, provenance, and preservation methods in cultural heritage.

Publications

  • “A review of polymer-based materials for fused filament fabrication (FFF): focus on sustainability and recycled materials” 📄
  • “A rapid and simple method for the determination of 3, 4-dihydroxyphenylacetic acid, norepinephrine, dopamine, and serotonin in mouse brain homogenate by HPLC with fluorimetric detection” 🧠
  • “Development and characterization of sustainable PLA/Olive wood waste composites for rehabilitation applications using Fused Filament Fabrication (FFF)” ♻️
  • “The molecular composition of Sicilian amber” 🍯
  • “A multianalytical study of archaeological faience from the Vesuvian area as a valid tool to investigate provenance and technological features” 🏺
  • “Pirin: A novel redox-sensitive modulator of primary and secondary metabolism in Streptomyces” 🧪
  • “An overview on wood waste valorization as biopolymers and biocomposites: definition, classification, production, properties and applications” 🌳
  • “Sustainable polymer composites manufacturing through 3D printing technologies by using recycled polymer and filler” 🖨️
  • “The study of the mural painting in the 12th century monastery of Santa Maria delle Cerrate (Puglia-Italy): characterization of materials and techniques used” 🎨
  • “Decanoic acid and not octanoic acid stimulates fatty acid synthesis in U87MG glioblastoma cells: a metabolomics study” 🔬

 

 

 

Pengfei Wu | Concrete Creep | Best Researcher Award

Dr. Pengfei Wu | Concrete Creep | Best Researcher Award

Dr, Dalian University of Technology, China

Dr. Pengfei Wu is a distinguished researcher specializing in Intelligent Health Monitoring, Concrete Creep, and Reliability Analysis. Currently affiliated with Dalian University of Technology, Dr. Wu has made groundbreaking contributions to structural engineering, including the development of the world’s first full-lifetime strain sensor and a fine-grained algorithm for concrete component creep. He has authored over 10 research papers and one book, with his work published in top-tier journals like Computer-Aided Civil and Infrastructure Engineering and Engineering Structures. His research has been recognized internationally, with one of his papers selected as a journal cover image. His innovative strain sensor technology and reliability analysis methods have vast applications in infrastructure safety and finite element calculations. Dr. Wu’s dedication to scientific advancement and commitment to improving structural engineering methodologies make him a notable figure in his field.

Profile

Google Scholar

Education

Dr. Pengfei Wu obtained his doctoral degree in Civil Engineering from the prestigious Dalian University of Technology. His academic journey has been deeply rooted in the study of structural health monitoring, material mechanics, and reliability assessment. During his Ph.D., he focused on the development of innovative strain detection technologies and creep analysis models, leading to numerous high-impact publications. His extensive research training allowed him to master finite element modeling, machine vision-based strain detection, and real-time structural assessment techniques. Apart from his doctoral research, Dr. Wu actively engaged in interdisciplinary studies, collaborating with experts in computational mechanics and advanced materials. His academic excellence is reflected in his multiple research projects and industry-focused applications, setting a strong foundation for his continued contributions to civil engineering. His educational background not only highlights his technical expertise but also his commitment to bridging theoretical knowledge with real-world applications.

Experience

Dr. Pengfei Wu has amassed extensive experience in structural engineering research and innovative technology development. He has successfully led and participated in five major research projects, focusing on structural reliability, concrete creep behavior, and intelligent health monitoring systems. His expertise has contributed to developing advanced strain sensors, which provide real-time monitoring solutions for infrastructure durability assessment. Dr. Wu has published extensively in SCI and Scopus-indexed journals, with a citation index of 58, demonstrating the academic impact of his work. His patented machine vision-based strain detection sensor showcases his ability to translate research into practical engineering applications. While his primary experience lies in academia, his work has significant implications for construction technology, infrastructure resilience, and smart monitoring systems. As an author, researcher, and innovator, Dr. Wu continues to push the boundaries of civil engineering advancements with a keen focus on sustainable and intelligent infrastructure development.

Research Focus 

Dr. Pengfei Wu’s research is primarily centered on Intelligent Health Monitoring, Concrete Creep, and Reliability Analysis. His pioneering work on the world’s first full-lifetime strain sensor has revolutionized the way infrastructure durability is assessed, enabling real-time data collection for structural safety monitoring. In the field of concrete creep analysis, Dr. Wu has introduced a fine-grained algorithm that enhances the accuracy of predictive models for long-term material behavior in civil structures. His research bridges the gap between material science, engineering mechanics, and smart sensor technology, leading to advanced methodologies for structural assessment and maintenance. Additionally, his studies on reliability analysis provide valuable insights into the performance and lifespan of deep-buried tunnels, bridges, and high-stress infrastructure. Through his cutting-edge research, Dr. Wu contributes significantly to sustainable construction, smart monitoring solutions, and the future of resilient infrastructure systems worldwide.

Publication Top Notes

📌 Vibration and damping analysis of sandwich electrorheological fluid deep arches with bi-directional FGM containersEngineering Structures, 2023 (25 Citations)
📌 Reliability analysis and prediction on tunnel roof under blasting disturbanceKSCE Journal of Civil Engineering, 2019 (15 Citations)
📌 Reliability evaluation and prediction of deep buried tunnel based on similarity theory and model testKSCE Journal of Civil Engineering, 2023 (9 Citations)
📌 Displacement sensing based on microscopic vision with high resolution and large measuring rangeComputer-Aided Civil and Infrastructure Engineering, 2024
📌 Research on calculation method of suspension bridge internal force under random traffic loadKSCE Journal of Civil Engineering, 2023
📌 Nonlinear hygro-thermo analysis of fluid-conveying cylindrical nanoshells reinforced with carbon nanotubes based on NSGTWaves in Random and Complex Media, 2022
📌 Smartphone-based high durable strain sensor with sub-pixel-level accuracy and adjustable camera positionComputer-Aided Civil and Infrastructure Engineering, 2024
📌 A simplified homogeneous approach for non-linear analysis of masonry infill panels under in-plane loadsHeliyon, 2024

 

 

Yeonsik Choi | Materials Science | Best Researcher Award

Prof Dr Yeonsik Choi | Materials Science | Best Researcher Award

Prof Dr Yeonsik Choi, Yonsei University , South Korea

Yeonsik Choi earned his Ph.D. from the University of Cambridge, focusing on novel functional polymeric nanomaterials for energy harvesting. Prior, he completed an M.S. in Materials Science and Engineering and a B.S. in Metallurgical Engineering at Yonsei University, Seoul. His academic journey includes scholarships such as the Cambridge Trust Scholar and numerous awards recognizing his research contributions.

Publication Profile

Google Scholar

Education

Yeonsik Choi earned his Ph.D. from the University of Cambridge, focusing on novel functional polymeric nanomaterials for energy harvesting. Prior, he completed an M.S. in Materials Science and Engineering and a B.S. in Metallurgical Engineering at Yonsei University, Seoul. His academic journey includes scholarships such as the Cambridge Trust Scholar and numerous awards recognizing his research contributions.

Experience 

Dr. Choi serves as an Assistant Professor at Yonsei University and holds affiliations with multiple institutions including Gangnam Severance Hospital and Pohang University of Science and Technology. Previously, he was a NIH K99 Postdoctoral Fellow at Northwestern University, investigating bioresorbable electronics for cardiac therapy and gene therapy methods for atrial fibrillation.

Awards and Honors 

Yeonsik Choi has received prestigious awards including the Presidential Award for promoting health and medical technology in South Korea. He is a recipient of the MRS Postdoctoral Award, Baxter Young Investigator Award, and multiple grants such as the QSIB Opportunity Grant and NIH Pathway to Independence Award. His accolades reflect excellence in research in bioelectronics, healthcare R&D, and innovation in materials science.

Research Focus 

Dr. Choi’s research focuses on bioresorbable polymers and electronic medicine, advancing applications in cardiac electrotherapy and biomedical engineering. His work integrates materials science with biomedical applications, emphasizing innovative approaches to enhance healthcare technologies. Choi’s contributions include developing novel polymeric nanomaterials for energy harvesting and exploring gene therapy methods for treating cardiac conditions like atrial fibrillation.

Publication Top Notes

Fully implantable and bioresorbable cardiac pacemakers without leads or batteries

Controlling and assessing the quality of aerosol jet printed features for large area and flexible electronics

Stretchable, dynamic covalent polymers for soft, long-lived bioresorbable electronic stimulators designed to facilitate neuromuscular regeneration

Photocurable bioresorbable adhesives as functional interfaces between flexible bioelectronic devices and soft biological tissues

A transient, closed-loop network of wireless, body-integrated devices for autonomous electrotherapy

Piezoelectric Nylon‐11 Nanowire Arrays Grown by Template Wetting for Vibrational Energy Harvesting Applications

 

Congwen Duan | Advanced Materials Engineering Award | Best Researcher Award

Assoc Prof Dr Congwen Duan | Advanced Materials Engineering Award | Best Researcher Award

Assoc Prof Dr Congwen Duan, North China Electric Power University, China

Assoc. Prof. Duan Congwen 🌟, born in November 1987 in Dingzhou, Hebei, is a leading figure in green synthesis and hydrogen storage materials research. 🌱 As an Associate Professor at North China Electric Power University 🎓, he spearheads numerous national and provincial-level projects, contributing significantly to energy materials development. His extensive publication record includes over ten papers in prestigious journals, with high citation rates. 📚 With expertise in solid-state reactions and nanocrystalline materials, he's pioneering solutions for sustainable energy storage. Beyond academia, he's involved in consultancy projects and holds several patents. 🏅 His dedication to advancing eco-friendly technologies is shaping a greener future.

Publication Profile

Scopus

Academic Contributions and Recognition 📊✨

Duan holds a provincial-level natural science foundation project in the domain of energy materials. He is actively involved in multiple national natural science foundation projects, key national projects, education department projects, the 15th Five-Year Plan pre-research projects, and various horizontal His academic contributions are recognized through the publication of over ten research papers in prestigious domestic and international journals, including 11 SCI-indexed papers as the first author. Notably, one of these papers is highly cited and included in the ESI list.

 

Research Focus

Dr. Duan Congwen’s research primarily revolves around hydrogen storage materials 🌱 and nanomaterials synthesis. His expertise lies in understanding the mechanisms behind hydrogen storage and dehydrogenation processes, particularly in nanostructured materials like carbon nanotubes (CNTs) and metal hydrides. His investigations into vacancy defective surfaces and catalytic properties contribute to advancements in energy storage and renewable fuel technologies. Dr. Duan’s work bridges the gap between theoretical understanding and practical applications, paving the way for more efficient and eco-friendly energy solutions. 🌟

Publication Top Notes

“The impact of vacancy defective MgH2 (001)/(110) surface on the dehydrogenation of MgH2@Ni-CNTs: A mechanistic investigation” 📖, cited by 4, 2024 📅

“Co@Pd bimetallic catalysts doped on the CNTs for bidirectional improving hydriding/dehydriding property of Mg/MgH2” 📖, cited by 0, 2024 📅

“CNTs-Pd as Efficient Bidirectional Catalyst for Improving Hydrogen Absorption/Desorption Kinetics of Mg/MgH2” 📖, cited by 0, 2024 📅

“Anchoring Mo single atoms on N-CNTs synchronizes hydrogenation/dehydrogenation property of Mg/MgH2” 📖, cited by 18, 2023 📅

“The effect of vacancy defective Mg (0001) surface on hydrogenation of Ni-Mg-CNTs: A mechanistic investigation” 📖, cited by 8, 2023 📅

“Mechanochemical assisted hydrogenation of Mg-CNTs-Ni: kinetics modeling and reaction mechanism” 📖, cited by 15, 2022 📅

“Ni-CNTs as an efficient confining framework and catalyst for improving dehydriding/rehydriding properties of MgH2” 📖, cited by 48, 2022 📅

“Novel core-shell structured MgH2/AlH3@CNT nanocomposites with extremely high dehydriding-rehydriding properties derived from nanoconfinement” 📖, cited by 26, 2021