Xinru Yan | Materials Science | Best Paper Award

Published on by Best Paper Awards

Best Paper Award

Xinru Yan
Lanzhou Institute of Chemical Physics, Chinese Academy of Sciences

Xinru Yan
Affiliation Lanzhou Institute of Chemical Physics, Chinese Academy of Sciences
Country China
Scopus ID 57704701900
Documents 6
Citations 21
h-index 3
Paper Title Im/BIm Ratio–Regulated ZIF-62 as a Functional Filler for High Wear–Resistant 3D-Printed PEEK Tribocomposites
Subject Area Materials Science
Event Best Paper Awards
ORCID
0009-0005-9699-0292

Xinru Yan is recognized through the Best Paper Award for contributions to advanced materials science and polymer tribology. The featured publication, Im/BIm Ratio–Regulated ZIF-62 as a Functional Filler for High Wear–Resistant 3D-Printed PEEK Tribocomposites, investigates innovative composite materials designed to improve wear resistance and mechanical performance in additive manufacturing applications. The work highlights material optimization strategies supported by systematic experimental characterization and contributes to the advancement of high-performance engineering materials and polymer tribocomposites.[1]

Abstract

The research paper entitled “Im/BIm Ratio–Regulated ZIF-62 as a Functional Filler for High Wear–Resistant 3D-Printed PEEK Tribocomposites” investigates the development of advanced polymer tribocomposites by incorporating ZIF-62 functional fillers with regulated imidazole and benzimidazole ratios. The study systematically evaluates microstructural evolution, mechanical properties, friction behavior, wear resistance, and printing performance of three-dimensional printed PEEK composites. Experimental findings demonstrate that optimized filler composition significantly improves durability, structural stability, and tribological performance while maintaining excellent printability. The research provides valuable scientific insights for additive manufacturing, high-performance engineering polymers, and functional composite materials, supporting future industrial applications and continued innovation in advanced materials science.[2]

Keywords

Materials Science, Polymer Tribology, PEEK Tribocomposites, ZIF-62, Metal–Organic Frameworks, Additive Manufacturing, 3D Printing, Functional Fillers, Wear Resistance, Engineering Materials.

Introduction

Advanced polymer composites have become increasingly important because they combine lightweight characteristics with exceptional mechanical strength, thermal stability, and wear resistance. Xinru Yan’s research explores innovative ZIF-62 functional fillers for enhancing the performance of three-dimensional printed PEEK tribocomposites, contributing meaningful scientific knowledge to materials science, polymer engineering, tribology, and additive manufacturing technologies through comprehensive experimental investigation and systematic materials characterization.[1]

Research Profile

Xinru Yan is affiliated with the Lanzhou Institute of Chemical Physics, Chinese Academy of Sciences, where research activities focus on advanced materials, polymer tribology, composite engineering, and additive manufacturing. Based on the available Scopus profile, the researcher has published six indexed documents, received twenty-one citations, and achieved an h-index of three, reflecting an emerging scholarly contribution to materials science through innovative experimental research and high-quality scientific publications.[1]

Research Contributions

The featured publication presents a systematic investigation into Im/BIm ratio regulation within ZIF-62 functional fillers for three-dimensional printed PEEK tribocomposites. Through comprehensive experimental characterization, the research demonstrates improved wear resistance, friction performance, mechanical stability, and microstructural optimization, providing valuable scientific evidence supporting the development of durable, high-performance polymer composites for advanced engineering and industrial applications.[2]

 

Publications

Xinru Yan’s publication portfolio emphasizes materials science, polymer engineering, tribology, and additive manufacturing. The highlighted research demonstrates an innovative strategy for enhancing PEEK tribocomposites through ZIF-62 functional fillers, providing meaningful scientific insights into composite material optimization while supporting future investigations involving durable engineering materials, advanced manufacturing technologies, and industrial polymer applications.[2]

Publication Title Research Area
Im/BIm Ratio–Regulated ZIF-62 as a Functional Filler for High Wear–Resistant 3D-Printed PEEK Tribocomposites Materials Science, Polymer Tribology, Additive Manufacturing, High-Performance Polymer Composites

Research Impact

The reported findings strengthen understanding of polymer tribology by demonstrating that optimized metal–organic framework fillers significantly improve wear resistance, mechanical reliability, and service life. This research supports continued advances in aerospace, automotive, biomedical, and precision engineering applications where lightweight, durable, and high-performance polymer composites are increasingly required.[2]

Award Suitability

This publication demonstrates originality, scientific rigor, and practical significance through its innovative investigation of ZIF-62 functional fillers for advanced PEEK tribocomposites. The combination of experimental validation, engineering relevance, and measurable scientific contribution strongly supports recognition through the Best Paper Award while encouraging future innovation in materials science and additive manufacturing research.[2]

Conclusion

Xinru Yan’s research demonstrates a meaningful contribution to materials science through the development of advanced ZIF-62 functional fillers for high wear-resistant 3D-printed PEEK tribocomposites. The study integrates innovative materials engineering, comprehensive experimental validation, and practical industrial relevance, making it well suited for recognition through the Best Paper Award while supporting continued progress in polymer tribology and additive manufacturing technologies.[2]

References

  1. Elsevier. (n.d.). Scopus Author Details: Xinru Yan, Author ID 57704701900. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57704701900
  2. Best Paper Awards. (n.d.). Official Best Paper Awards Website.
    https://bestpaperawards.com

Martin Fabian | Materials Science | Editorial Board Member

Published on by Best Paper Awards

Dr. Martin Fabian | Materials Science | Editorial Board Member 

Senior Researcher | Slovak Academy of Sciences | Slovakia 

Martin Fabián is a materials scientist whose research career spans more than fifteen years with a strong focus on mechanochemical synthesis, nanomaterials, and structure–property relationships in functional inorganic materials. His scholarly output of over 45 peer-reviewed publications reflects sustained contributions to oxide ceramics, semiconductor nanocrystals, magnetic nanoparticles, and electrochemical materials. A major theme of his work is the use of high-energy milling, mechanosynthesis, and low-temperature solid-state routes to engineer nanocrystalline phases with tailored electrical, magnetic, optical, and catalytic properties. He has reported influential studies on spinel Li₄Ti₅O₁₂ for lithium-ion battery applications, ZnAl₂O₄ and ZnO nanostructures for photocatalysis and optoelectronics, CeO₂-based solid solutions for multifunctional uses, and ferrite systems for magnetic and electromagnetic response. His interdisciplinary collaborations also extend into biomedical nanotechnology, including arsenic sulfide nanoparticles with anticancer activity, magnetic fluids for amyloid-related diseases, and paclitaxel-loaded polymer–magnetic nanospheres. In parallel, he has contributed to environmentally relevant research such as silver recovery from waste solutions, CO₂ sequestration via mechanically activated silicates, and mineral processing studies. Fabián’s work is characterized by rigorous structural characterization using X-ray diffraction, electron microscopy, and spectroscopic techniques, combined with careful evaluation of functional performance. He has published consistently in high-impact journals including Journal of Alloys and Compounds, Materials Letters, Powder Technology, Ceramics International, RSC Advances, and Journal of Solid State Electrochemistry, demonstrating both methodological depth and wide application scope. Through extensive international collaboration and peer-review activity, his research has advanced the understanding of how mechanical activation and nanoscale design can be used as powerful tools to create advanced materials for energy, environmental, electronic, and biomedical technologies.

Profiles: Scopus | ORCID

Featured Publications

  1. Šepelák, V., Myndyk, M., Fabián, M., da Silva, K. L., Feldhoff, A., Menzel, D., Ghafari, M., Hahn, H., Heitjans, P., & Becker, K. D. (2012). Mechanosynthesis of nanocrystalline fayalite, Fe₂SiO₄. Chemical Communications, 48(74), 8981–8983.

  2. Fabián, M., Bottke, P., Girman, V., Düvel, A., da Silva, K. L., Wilkening, M., Hahn, H., Heitjans, P., & Šepelák, V. (2015). A simple and straightforward mechanochemical synthesis of the far-from-equilibrium zinc aluminate, ZnAl₂O₄, and its response to thermal treatment. RSC Advances, 5(66), 53767–53773.

  3. Fabián, M., Tyuliev, G., Feldhoff, A., Kostova, N., Kollár, P., Suzuki, S., Saito, F., & Šepelák, V. (2013). One-step synthesis of nanocrystalline ZnO via cryomilling. Powder Technology, 235, 360–366.

  4. Senna, M., Fabián, M., Kavan, L., Zukalová, M., Briančin, J., Turianicová, E., Bottke, P., Wilkening, M., & Šepelák, V. (2016). Electrochemical properties of spinel Li₄Ti₅O₁₂ nanoparticles prepared via a low-temperature solid route. Journal of Solid State Electrochemistry, 20(10), 2733–2743.

  5. Ognjanović, M., Dojčinović, B., Fabián, M., Stanković, D. M., Mariano, J. F. M. L., & Antić, B. (2018). Microwave assisted hydrothermal synthesis of (Fe,Co)₃O₄ nanoparticles in the presence of surfactants and effects of Co/Fe ratio on microstructure and magnetism. Ceramics International, 44(11), 13083–13092.

Martin Fabián’s work advances global innovation in nanomaterials and mechanochemical synthesis, enabling low-energy, scalable routes to functional materials for energy storage, catalysis, electronics, and biomedicine. His research bridges fundamental materials science with real-world industrial and environmental applications, supporting sustainable technologies and next-generation functional materials.