Ijlal Si | Tribological | Innovative Research Award

Innovative Research Award

Ijlal Si
Affiliation National Defence University
Country Turkey
Scopus ID 57193737897
Documents 25
Citations 249
h-index 10
Subject Area Tribology
Event International Material Scientist Awards
ORCID 0000-0001-6542-8567

Ijlal Si is a researcher affiliated with the National Defence University, Turkey. The researcher’s academic profile includes publications and citation records indexed in Scopus, with research activity in the field of tribology. The Innovative Research Award recognizes research contributions and academic work considered in the context of the International Material Scientist Awards. The available bibliometric information provides an overview of the researcher’s indexed scholarly output and citation impact.[1]

Abstract

The available Scopus profile records documents, citations, and an h-index. These bibliometric indicators provide a quantitative overview of the researcher’s indexed scholarly publications and citation activity. The profile is presented in connection with the Innovative Research Award at the International Material Scientist Awards. The award context highlights the importance of research activity, scholarly communication, and contributions to materials-related scientific disciplines.[1]

Keywords

The research areas include Tribology, Friction, Wear, Lubrication, Surface Engineering, Materials Science, and Mechanical Engineering, with a strong focus on Coatings and Contact Mechanics. lubrication mechanisms. Research also emphasizes evaluating Tribological Performance, improving surface durability, optimizing mechanical properties, and developing advanced materials for industrial, biomedical, and engineering applications.[2]

Introduction

Tribology is an interdisciplinary field concerned with friction, wear, lubrication, and the interaction of surfaces in relative motion. It plays an important role in mechanical systems, industrial equipment, transportation, manufacturing, and materials engineering. Research in this area contributes to understanding surface behaviour, improving component performance, and addressing material degradation under different operating conditions.[4]

Research Profile

The research profile of Ijlal Si is associated with the subject area of tribology. The field examines the behaviour of interacting surfaces and the influence of friction, lubrication, and wear on engineering materials and mechanical components. Research in this discipline may involve experimental investigations, material characterization, surface treatment, and performance evaluation.[3]

Research Contributions

Relevant investigations can contribute to improved understanding of surface interactions, lubrication mechanisms, wear resistance, and the operational performance of mechanical components.These topics describe the broader research scope of tribology and should not be interpreted as a verified list of the researcher’s individual projects or findings without examination of the corresponding publications.[4]

Publications

These documents form the bibliographic basis for the reported citation count and h-index. Publication records may include research articles and other scholarly document types indexed by Scopus. For accurate publication-level information, including article titles, co-authors, journal names, publication years, and digital object identifiers readers should consult the researcher’s official Scopus author profile. Individual publications and records have not been independently verified for this article.[1]

Research Impact

Bibliometric indicators are commonly used to describe aspects of scholarly publication and citation activity. The reported citations indicate that the researcher’s indexed publications have received citations within the academic literature. An h-index of indicates that at least ten indexed publications have each received ten or more citations, based on the dataset and calculation method used.[2]

Award Suitability

A comprehensive assessment of award suitability should additionally consider verified publication records, originality, methodological quality, research significance, independent scholarly contributions, and relevance to the award criteria. The bibliometric figures alone do not establish the outcome of an independent award evaluation.[3]

Conclusion

These indicators provide a concise overview of indexed scholarly activity and citation performance. The Innovative Research Award profile, associated with the International Material Scientist Awards, presents the researcher’s academic information within a broader framework of scientific recognition. Further assessment of individual research contributions requires examination of the original publications and supporting scholarly records.[4]

References

    1. Elsevier. (n.d.). Scopus author details: Ijlal Si, Author ID 57193737897. Scopus. Bibliometric figures reproduced from the supplied researcher profile information.
      http://scopus.com/authid/detail.uri?authorId=57193737897
    2. International Material Scientist Awards. (n.d.).
      https://materialscientists.com
    3. ORCID. (n.d.). ORCID researcher identifier: 0000-0001-6542-8567.
      https://orcid.org/0000-0001-6542-8567
    4. Simsek, I., & Ozyurek, D. (2019). Investigation of the wear and corrosion behaviors of Ti5Al2.5Fe and Ti6Al4V alloys produced by mechanical alloying method in simulated body fluid environment. Materials Science and Engineering: C, 94, 357–363.
      https://doi.org/10.1016/j.msec.2018.09.047

Ms. Azadeh Sadeghi | Coatings and Surface Treatments | Research Excellence Award

Ms. Azadeh Sadeghi | Coatings and Surface Treatments | Research Excellence Award

Polytechnique Montreal | Canada

Ms. Azadeh Sadeghi is an emerging researcher and professional in Coatings and Surface Treatments, recognized for her strong interdisciplinary expertise spanning chemical engineering, polymer science, and sustainable materials development. Her work focuses on the design and optimization of advanced coating systems, polymer blends, and functional surfaces with particular emphasis on environmentally responsible and high-performance applications. She has developed significant expertise in flexible and sustainable packaging, heat-sealable and biodegradable coatings, membrane-based materials, and surface modification strategies aimed at improving mechanical, barrier, and functional properties. Ms. Sadeghi’s research integrates experimental material synthesis with process optimization, enabling the translation of laboratory-scale innovations into industrially relevant solutions. She has contributed to multiple peer-reviewed journal articles and book chapters addressing polymer-based coatings, biodegradable composites, and surface-engineered materials, demonstrating both depth and versatility in materials research. In addition to her academic contributions, she has gained valuable industrial and applied research experience through roles in research and development environments, where she has worked on coating formulation, quality assessment, and performance evaluation for real-world applications. Her interdisciplinary background allows her to bridge fundamental materials science with practical engineering challenges, particularly in coatings for packaging, sustainability-driven materials, and surface-functional systems. Ms. Sadeghi is proficient in advanced characterization techniques, modeling tools, and data-driven optimization approaches, strengthening the scientific rigor of her work. Her commitment to innovation, sustainability, and applied research excellence positions her as a promising contributor to the field of coatings and surface treatments, making her a deserving candidate for the Research Excellence Award.

Citation Metrics (Scopus)

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0

Citations
159

Documents
11

h-index
5

Citations

Documents

h-index

View Scopus Profile
   View Google Scholar Profile

Featured Publications

Mr Weihai Xue | Coatings and Surface Treatments | Best Researcher Award

Mr Weihai Xue | Coatings and Surface Treatments | Best Researcher Award

Mr. Weihai Xue is a dedicated researcher affiliated with the Institute of Metal Research, Chinese Academy of Sciences, based in Shenyang, China. He has made substantial contributions to materials science, particularly in the domains of wear resistance, protective coatings, and tribological performance for advanced engineering applications. His research aims to enhance the durability and efficiency of materials used in critical industrial environments, such as wind turbine blades and aero-engines. With an impressive citation record and a strong portfolio of publications in high-quality journals, Mr. Xue has established himself as a valuable contributor to applied surface engineering.

Mr Weihai Xue, Institute of Metal Research, Chinese Academy of Sciences, China

Profile

SCOPUS

🎓 Education

Mr. Weihai Xue is affiliated with the prestigious Institute of Metal Research, Chinese Academy of Sciences, which indicates a strong educational foundation in materials science and engineering 🧪📘. Although his exact academic degrees are not detailed, his prolific contributions to high-impact journals and experimental research suggest he holds postgraduate-level training, likely including a master’s or Ph.D. in tribology, surface engineering, or materials physics 🎓🔬. His expertise in wear resistance, coatings, and erosion mechanics demonstrates advanced knowledge developed through intensive academic and laboratory experience ⚙️🧠, establishing him as a well-trained and competent researcher.

🏢 Experience

Mr. Weihai Xue is a research scientist at the Institute of Metal Research, Chinese Academy of Sciences 🏢. His expertise lies in surface engineering, material protection, and advanced coating technologies 🔬🧪. He actively collaborates with industrial and academic partners to develop high-performance coatings for aerospace and renewable energy applications ✈️🌬️. His work addresses extreme conditions such as high-temperature wear, corrosion, and droplet erosion 🌡️💧. Mr. Xue contributes significantly through hands-on experimentation, scientific analysis, and impactful publications 📚📈. His experience reflects innovation, technical excellence, and dedication to solving real-world engineering challenges ⚙️🔍.

🔬 Research Focus

Mr. Weihai Xue’s research focuses on surface engineering, material protection, and erosion mechanisms in harsh environments such as high-speed impact and corrosive conditions 🌪️🛡️. He investigates fretting wear, anti-corrosive coatings, and erosion resistance in both metallic and polymer materials ⚙️🧪. His work is highly relevant to aerospace and renewable energy applications ✈️💨. Using advanced microscopy and profilometry 🔍🧫, he explores the relationship between coating composition and mechanical behavior. His goal is to develop durable coatings that prevent damage, extend service life, and improve material performance in real-world industrial conditions 🏭🧱.

📘 Publications

Study on Fretting Wear Behavior of Titanium Alloys Sliding Against Various Friction Pair Materials at Room Temperature for Aero-Engine Applications
Authors: Abdur Razzak, Sixiang Wang, Weihai Xue, Siyang Gao, Deli Duan
Journal: Journal of Bio- and Tribo-Corrosion (2025)

Effect of Sliding Speed on Anti-aluminium Adhesion Behaviour of TiB₂ Deposited on Titanium Alloy under High Temperature
Authors: Bi Wu, Siyang Gao, Weihai Xue, Shu Li, Deli Duan
Journal: Surface Technology (2025)

A Comparative Study of the Differences in Microstructure and Properties of Tribo-Layers of DD5 Nickel-Based Single-Crystal Superalloys Caused by External Heat and Friction Heat in Dry Sliding Wear
Authors: Shuai Yang, Siyang Gao, Weihai Xue, Wenfeng Yu, Deli Duan
Journal: Wear (2025)

Oxidation, Hot Corrosion, and Interdiffusion Behavior of NiAlTa Coating by Electro-Spark Deposition
Authors: Shuai Yang, Siyang Gao, Weihai Xue, Bi Wu, Deli Duan
Journal: Rare Metals (2025)

Preparation of Protective Coatings for the Leading Edge of Wind Turbine Blades and Investigation of Their Water Droplet Erosion Behavior
Authors: Zilong Zheng, Haijing Sun, Weihai Xue, Xin Zhou, Jie Sun
Journal: Wear (2024)

Dr TOMASZ LINEK | COATINGS | Best Researcher Award

Dr TOMASZ LINEK | COATINGS | Best Researcher Award

Dr TOMASZ LINEK, CERRAD SP ZOO, Poland

Dr. Tomasz Linek, a Doctor of Engineering, is a leading researcher in surface engineering, tribology, and material characterization. Affiliated with CERRAD SP ZOO, Silesian University of Technology, and Częstochowa University of Technology, he focuses on enhancing material performance through PVD coatings, cavitation wear studies, and alternative energy sources. With 15 publications, over 1,994 reads, and 42 citations, his work provides practical solutions to material degradation challenges. Dr. Linek’s innovative research bridges academic and industrial applications, advancing sustainable engineering practices and renewable energy technologies. 🧪⚙️📚✨

Profile

SCOPUS

Professional Background 🌍🔬

Dr. Tomasz Linek, a Doctor of Engineering, is affiliated with CERRAD SP ZOO, Silesian University of Technology, and Częstochowa University of Technology. His expertise lies in surface engineering, tribology, and materials science, focusing on advancing material performance and sustainability. With a strong academic and professional foundation, Dr. Linek actively contributes to cutting-edge research in materials processing, PVD coatings, and mechanical properties of materials. His work bridges the gap between academic innovation and industrial applications, emphasizing sustainable solutions and renewable energy advancements. 🧪📚✨

Skills and Expertise 🛠️🔬

Dr. Tomasz Linek possesses extensive expertise in surface engineering and tribology, focusing on enhancing the durability and performance of materials. His skills include mechanical property analysis, materials processing, and coating technologies such as PVD treatments. Dr. Linek specializes in material characterization, with a keen interest in activation energy and the development of alternative and novel energy sources. His innovative work bridges advanced materials science and sustainable energy solutions, showcasing his ability to address modern engineering challenges through cutting-edge research and practical applications. 🌍🧪⚙️

Research Focus 🔬🛠️

Dr. Tomasz Linek’s research focuses on surface engineering, tribology, and material processing, emphasizing the development and optimization of advanced coatings. His work explores PVD functional coatings for cavitation resistance, the numerical analysis of cavitation effects, and the influence of surface roughness on material wear. Dr. Linek’s studies also include improving the mechanical properties of constructional elements and investigating heat-treated aluminum alloys. With significant contributions to alternative energy solutions and materials characterization, his research bridges innovative material technologies and their industrial applications, addressing sustainability and performance challenges. 🌍⚙️📊

Research Impact 📊🔬

Dr. Tomasz Linek has garnered 42 citations for his impactful research in surface engineering and materials science, showcasing the recognition of his work within the scientific community. His contributions to PVD coatings, cavitation wear analysis, and mechanical property optimization have influenced advancements in material performance and sustainable engineering solutions. These citations reflect the value of his studies in addressing real-world challenges in material durability and energy applications. Dr. Linek’s research continues to inspire and guide innovations in tribology and advanced material technologies. 🌍📚✨

Publication Top Notes

Numerical analysis of the cavitation effect occurring on the surface of steel constructional elements

PVD surface treatment of heat-treated cast aluminium alloys

Influence of surface roughness on the cavitation wear of P265GH and X2CRNI18-9 steel cavitation generators

The evaluation of suitability for operation of repair low-alloy steel welded joints

Mechanical and functional properties of cavitation generators with PVD functional coatings intended for use in the cavitation environment

Influence of applied CRN+WC/C and WC/C coatings on the cavitation wear processes of constructional elements