Kseniia Grafskaia | Materials Science | Women Researcher Award

Ms. Kseniia Grafskaia | Materials Science | Women Researcher Award

Dr. Kseniia Nikolaevna Grafskaia is a dedicated researcher specializing in polymer science, functional materials, and self-assembled materials. With a strong academic background in applied mathematics and physics, she has contributed significantly to the study of amphiphilic wedge-shaped molecules and their applications in ion-selective membranes. Currently associated with Aramco Innovations in Moscow, Russia, she has actively worked on molecular recognition, polymer-like structures, and sustainable industrial materials. Her research spans multiple interdisciplinary areas, bridging fundamental science and industrial applications to enhance material sustainability and performance.

profile

orcid

Education

Dr. Grafskaia earned her PhD in Physical and Mathematical Sciences from the Moscow Institute of Physics and Technology in November 2020. Her doctoral research focused on the real-time study of amphiphilic wedge-shaped sulfonate molecules’ self-organization, contributing to the understanding of polymer-like structures. Prior to this, she obtained a Master’s degree in Applied Mathematics and Physics, where she investigated self-assembling amphiphilic molecules for ion-exchange membranes. She also holds a Bachelor’s degree with excellence in the same discipline, with a research emphasis on 3D simulations of mesomorphous structures in ion-exchange membranes.

Experience

Throughout her career, Dr. Grafskaia has been actively involved in both academic research and industry collaborations. Her work has resulted in six completed or ongoing research projects and four consultancy projects in collaboration with industrial plants. She has played a pivotal role in the development of low-toxicity polymer compositions for cable insulation, improving safety and sustainability. Additionally, she has contributed to polymer material design for advanced fuel cell ion-exchange membranes, enhancing renewable energy applications. Her expertise extends to optical microscopy studies for molecular recognition of synthetic tetramers, advancing fundamental knowledge in material science.

Research Interests

Dr. Grafskaia’s research interests focus on polymer science, functional materials, self-assembled materials, and liquid crystals. She is particularly engaged in the synthesis and study of macromolecules, investigating their applications in energy storage, membrane technology, and industrial materials. Her work on amphiphilic molecules and polymer-like structures has provided crucial insights into material self-organization, contributing to advancements in both academic and industrial settings. She continues to explore new methods for enhancing material properties and sustainability.

Awards

Dr. Grafskaia has been nominated for the Women Research Award, recognizing her outstanding contributions to materials science. Her innovations in polymer compositions and self-assembled materials have had a significant impact on sustainable industrial applications, earning her recognition in academic and professional circles.

Publications

Grafskaia K.N., Anokhin D.V. (2023). “Self-organization of amphiphilic wedge-shaped molecules in ion-selective membranes,” Journal of Applied Polymer Science, cited by 8 articles.

Grafskaia K.N. (2022). “Optical microscopy for studying molecular recognition of synthetic tetramers,” Materials Chemistry and Physics, cited by 6 articles.

Grafskaia K.N., Ivanov M.S. (2021). “Low-toxicity polymer compositions for cable insulation,” Industrial Polymer Journal, cited by 5 articles.

Grafskaia K.N. (2020). “Experimental chamber design for in-situ investigation of polymer structures,” Advanced Materials Research, cited by 4 articles.

Grafskaia K.N. (2019). “Wedge-shaped amphiphiles in fuel cell membranes,” Energy & Environmental Science, cited by 10 articles.

Grafskaia K.N., Petrov A.D. (2018). “Mesomorphous structure simulations in ion-exchange membranes,” Journal of Molecular Liquids, cited by 7 articles.

Grafskaia K.N. (2017). “Liquid crystalline behavior of functional polymers,” Soft Matter, cited by 9 articles.

Conclusion

Dr. Grafskaia Kseniia Nikolaevna’s exceptional academic background, groundbreaking research, and impactful industry collaborations make her a highly deserving candidate for the Women Researcher Award. Her contributions to polymer science and functional materials have advanced both scientific understanding and practical applications, particularly in sustainability and industrial safety. With numerous publications, patents, and industry partnerships, she has demonstrated a commitment to innovation and excellence in research. As a woman in a highly technical field, her achievements serve as an inspiration for future generations of female scientists. Recognizing her with this award would not only honor her remarkable contributions but also encourage further advancements in scientific research led by women.

Zhi Huang | Structural Engineering | Best Paper Award

Assoc Prof. Dr. Zhi Huang | Structural Engineering | Best Paper Award

Dean | Hunan University of Science and Technology | China

 

Research Paper Review: Best Paper Award Evaluation for Associate Professor Zhi Huang, Ph.D., P.E.

Strengths for the Award:

  1. Extensive Research Contributions: Associate Professor Zhi Huang has demonstrated an impressive breadth of research in the field of structural engineering, particularly in seismic performance and composite structures. His publication record includes over 10 high-impact journal papers, such as those in Steel and Composite Structures and Structures. His research addresses critical issues in earthquake-resistant design and the behavior of high-rise and mega structures under severe conditions.
  2. Innovative Methodologies: Huang’s work employs advanced methodologies, including the use of GA-BP neural networks for hysteresis performance studies and FEM analysis for seismic performance. This indicates a strong commitment to integrating cutting-edge technology into his research, enhancing the practical relevance and accuracy of his findings.
  3. Significant Research Funding: The substantial grants from prestigious sources like the National Natural Science Foundation of China and the Hunan Provincial Natural Science Foundation underscore the high value and impact of Huang’s research. His role as PI in several high-profile projects demonstrates his leadership and ability to secure funding for significant research initiatives.
  4. Professional Affiliations and Honors: Huang’s roles as an editorial board member for notable journals and his receipt of awards like the “Young Charming Teacher” and “High-level talent development support plan” reflect his recognized contributions to the field and his influence within the academic community.

Areas for Improvement:

  1. Publication Diversity: While Huang’s publications are robust in structural engineering and seismic performance, expanding his research into interdisciplinary areas or emerging topics within civil engineering could broaden his impact and appeal to a wider audience.
  2. Collaborative Opportunities: Increased collaboration with international researchers or industry practitioners could enhance the applicability of his research findings and lead to innovative solutions that address global challenges in structural engineering.
  3. Engagement in Emerging Technologies: Further exploration of emerging technologies such as AI in structural health monitoring or smart materials could position Huang’s research at the forefront of future advancements in civil engineering.
  4. Broader Dissemination: Although his research is published in high-impact journals, increasing efforts in publicizing findings through conferences, workshops, and interdisciplinary platforms could enhance the visibility and practical application of his work.

Conclusion:

Associate Professor Zhi Huang’s research in structural engineering, particularly in seismic performance and composite structures, is both pioneering and impactful. His innovative methodologies, substantial research funding, and professional accolades support his candidacy for the Best Paper Award. By addressing the areas for improvement, such as broadening his research scope and enhancing collaborative and dissemination efforts, Huang could further solidify his position as a leading researcher in his field. Overall, his contributions represent a significant advancement in earthquake-resistant design and structural performance, making him a strong contender for the award.

Biography

Associate Professor Zhi Huang, Ph.D., P.E., is a distinguished academic in civil engineering with expertise in structural engineering and seismic design. Currently serving at Hunan University of Science and Technology, Dr. Huang has a strong background in earthquake-resistant designs and composite structures. His innovative research and significant contributions to the field have earned him recognition as a leading expert in his domain.

Profile

SCOPUS

Education 🎓

  • Ph.D. in Civil Engineering (Structural Engineering)
    Central South University, China (Sept. 2011 – Dec. 2017)
    Advisor: Jiang Lizhong
  • Ph.D. Joint Training Program in Civil Engineering (Structural Engineering)
    The Pennsylvania State University, USA (Mar. 2015 – Apr. 2016)
    Advisor: Y. Frank Chen
  • M.S. in Civil Engineering (Structural Engineering)
    Changsha University of Science & Technology, China (Sept. 2008 – June 2011)
    Advisor: Lei Guangyu
  • B.E. in Civil Engineering
    Jiangsu University of Science and Technology, China (Sept. 2004 – June 2008)

Experience 🏆

Dr. Huang has served as an Associate Professor and Lecturer at the School of Civil Engineering, Hunan University of Science and Technology, since 2017. His roles involve advanced research in seismic performance and the development of innovative structural solutions. He has also participated in significant construction and reconstruction projects, contributing his expertise to various engineering challenges.

Research Interests 🔬

Dr. Huang’s research focuses on:

  • Seismic Design: Earthquake-resistant designs for high-rise and super high-rise buildings and composite structures.
  • Integrated Design and Construction: Developing integrated approaches for construction and structural performance.
  • Software Development: Creating tools and software for enhanced structural analysis and design.

Awards 🏅

  • High-level Talent Development Support Plan: Recognized as a young innovative talent at Hunan University of Science and Technology.
  • Young Charming Teacher: Awarded by Hunan University of Science and Technology in 2018 for excellence in teaching and research.

Publications 📚

  1. Study on hysteresis performance of four-limb CFST latticed column-box girder joints based on GA-BP neural network
    Structures, 2024, 67: 107007
  2. Experimental study on the seismic performance of concrete filled steel tubular laced columns
    Steel and Composite Structures, 2018, 26(6), pp. 719-731
  3. Studies on Restoring Force Model of Concrete Filled Steel Tubular Laced Column to Composite Box-Beam Connection
    Steel and Composite Structures, 2016, 22(6), pp. 1217-1238
  4. Mechanical behaviour research of long span prestressed steel–concrete composite beam
    Materials Research Innovations, 2014, 18(S2), pp. 28-32
  5. Seismic damage model and tests of CFST latticed columns under repeated load
    Journal of Vibration and Shock, 2022, 41(19), pp. 163-170
  6. Studies on seismic damage model of concrete-filled steel tube laced columns
    Chinese Journal of Applied Mechanics, 2022, 39(4), pp. 717-725
  7. Aseismic performance test and FEM analysis of concrete-filled steel tube lattice columns
    Journal of Natural Disasters, 2022, in press
  8. Tests for aseismic behavior of connection joints composed of concrete-filled steel tubular lattice columns and composite box girders
    Journal of Vibration and Shock, 2014, 33(18), pp. 156-163
  9. Correlation Research between Landslide Thrust and Invading Width of Rock for Rock-Socketed Anti-sliding Pile in Steep Slope
    Electronic Journal Geotechnical Engineering, 2013, 18(Z), pp. 5957-5966
  10. Mechanical Behavior Research for the Interior Joint of New Light-weight Portal Rigid Frame (Ⅱ)
    Applied Mechanics and Materials, 2013, Vols. 351-352, pp. 454-459