S. Ilangovan | Materials Science and Engineering | Eco-friendly Construction Practices Award

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Dr. S. Ilangovan | Materials Science and Engineering | Eco-friendly Construction Practices Award

Professor | SRM Institute of Science and Technology | India

Dr. S. Ilangovan is a distinguished academic and researcher at the SRM Institute of Science and Technology, Ramapuram Campus, Chennai, India, recognized for his significant contributions to engineering and applied sciences. He has authored eight peer-reviewed publications that have collectively garnered 128 citations from 114 documents, reflecting the growing global relevance and academic impact of his work. His research achievements are further evidenced by an h-index of 5, which highlights his consistent scholarly productivity and influence across multiple interdisciplinary domains. Dr. Ilangovan’s research primarily spans the areas of civil and structural engineering, materials science, and sustainable technologies, emphasizing innovative design solutions and environmental resilience. Through collaborations with over 18 co-authors, he has contributed to advancing applied research that bridges theoretical understanding with practical implementation, fostering technological development and knowledge exchange within the academic and industrial sectors. His scholarly endeavors have influenced emerging fields and inspired further studies in engineering design and materials optimization. Beyond publications, Dr. Ilangovan’s work demonstrates a strong societal orientation, focusing on sustainable infrastructure and problem-solving approaches that align with contemporary global development goals. His research contributions, marked by methodological rigor and interdisciplinary perspective, exemplify his commitment to academic excellence, collaborative learning, and the translation of research outcomes into tangible benefits for society. With a steadily growing citation record and recognized expertise, Dr. Ilangovan continues to contribute meaningfully to the scientific community through impactful research, mentorship, and engagement in innovative technological solutions aimed at creating a more sustainable and resilient built environment.

Profile: Scopus | ORCID | Google Scholar
Featured Publications:

Ilangovan, S., Kumaran, S. S., Vasudevan, A., & Naresh, K. (2019). Effect of silica nanoparticles on mechanical and thermal properties of neat epoxy and filament wounded E-glass/epoxy and basalt/epoxy composite tubes. Materials Research Express, 6(8), 0850e2. 
(Cited by: 35)

Ilangovan, S., Kumaran, S. S., & Naresh, K. (2020). Effect of nanoparticles loading on free vibration response of epoxy and filament winding basalt/epoxy and E-glass/epoxy composite tubes: Experimental, analytical and numerical investigation. Materials Research Express, 7(2), 025007. 
(Cited by: 33)

Keerthi Gowda, B. S., Naresh, K., Ilangovan, S., Sanjay, M. R., & Siengchin, S. (2022). Effect of fiber volume fraction on mechanical and fire resistance properties of basalt/polyester and pineapple/polyester composites. Journal of Natural Fibers, 19(13), 6074–6088. 
(Cited by: 30)

Ilangovan, S., Kumaran, S. S., Naresh, K., Shankar, K., & Velmurugan, R. (2023). Studies on glass/epoxy and basalt/epoxy thin-walled pressure vessels subjected to internal pressure using ultrasonic ‘C’ scan technique. Thin-Walled Structures, 182, 110160. 
(Cited by: 28)

Subramanian, J., Selvaraj, V. K., Singh, R., Kakur, N., & Whenish, R. (2024). Acoustical properties of a 3D printed honeycomb structure filled with nanofillers: Experimental analysis and optimization for emerging applications. Defence Technology, 35, 248–258.
(Cited by: 14)

Sandra Cunha Gonçalves | Materials Science and Engineering | Women Researcher Award

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Prof. Dr. Sandra Cunha Gonçalves | Materials Science and Engineering | Women Researcher Award

Research Teacher | Federal Institute of Bahia | Brazil

Prof. Dr. Sandra Cunha Gonçalves has developed a solid academic and scientific career in Civil Engineering, Sustainability, and Environmental Studies, focusing on innovative solutions for the reuse of waste materials in the construction industry. Her research emphasizes solid waste management and the development of eco-friendly materials that incorporate vegetal fibers, modified starch, recycled gypsum, and other industrial by-products to minimize environmental impacts and promote sustainable practices in social housing. Gonçalves has contributed to advancing sustainable construction technologies through the creation of composites and biocomposites with improved physical and mechanical properties, offering alternatives to conventional materials with high energy consumption. Her ongoing projects explore life cycle analysis of materials, the use of green coconut fibers, and polymeric emulsions in gypsum matrices, generating significant results for structural efficiency and environmental performance. Her scientific output includes publications in national and international journals, book chapters, and conference presentations on sustainability, bioconstruction, and waste management. In addition to her research, she promotes extension activities that integrate social technology, environmental education, and vernacular architecture, strengthening the connection between science, culture, and community. At the Federal Institute of Bahia, Gonçalves leads research groups focused on material innovation and environmental education, mentoring new researchers committed to socio-environmental responsibility and construction efficiency. Her professional journey is distinguished by a strong dedication to sustainability, the integration of applied science with technical education, and the continuous pursuit of viable solutions that balance technical performance with the preservation of natural resources.

Profile: ORCID
Featured Publications
Gonçalves, S. C., da Silva Junior, M. F., Souza, M. T., de Amorim Júnior, N. S., & Ribeiro, D. V. (2025). Physicomechanical properties of recycled gypsum composites with polyvinyl acetate emulsion and treated short green coconut fibers. Buildings.

Yaxing Liu – Materials Science and Engineering – Best Researcher Award

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Mr. Yaxing Liu - Materials Science and Engineering - Best Researcher Award

lecturer | Taiyuan University of Technology | China

Mr. Yaxing Liu has established strong expertise in the field of mechanical design and theory with a research focus on advanced rolling technology, material forming processes, and fatigue analysis of high-performance steels. His work investigates the mechanisms of strip edge defects, deformation behaviors in composite rolling, and fatigue performance under varying stress conditions, providing valuable insights for enhancing the precision, durability, and efficiency of manufacturing systems. He has contributed to the development of innovative control strategies for trimming processes and created accurate modeling approaches for predicting warping and deformation during steel and aluminum thin strip composite rolling. His research integrates both theoretical modeling and experimental validation to solve complex industrial challenges, ensuring significant improvements in quality control and defect prevention in metal forming industries. In addition to scholarly publications in high-impact journals, Liu’s contributions include patents addressing roll convexity adjustment mechanisms and compensation methods for roll diameter defects in rolling mills, showcasing his ability to translate fundamental research into practical engineering solutions. His continuous engagement in material behavior analysis under stress, defect mitigation techniques, and optimization of manufacturing processes reflects a clear trajectory toward advancing modern mechanical design and metallurgical engineering. With active collaboration across disciplines and consistent innovation in mechanical system optimization, his research strengthens both academic knowledge and industrial application. Yaxing Liu’s work demonstrates a balance of theoretical insight, experimental application, and practical implementation, marking him as a valuable contributor to the development of advanced rolling and forming technologies with wide relevance to the steel and aluminum industries. 155 Citations by 139 documents, 57 Documents, 7 h-index View.

Profile: Scopus
Featured Publications:

  1. Effect of multi‒directional forging on the evolution of intermetallic precipitates and mechanical properties in novel light refractory high-entropy alloys. (2025). Intermetallics.

  2. DDFNet: real-time salient object detection with dual-branch decoding fusion for steel plate surface defects. (2025). Journal of Iron and Steel Research International.

  3. Study on influence and mechanism of steel / aluminum composite thin strips preparation process on interfacial bonding strength. (2025). Suxing Gongcheng Xuebao Journal of Plasticity Engineering.

  4. Research on unbonded defect imaging method of corrugated clad plate based on laser ultrasonics. (2025). Measurement Journal of the International Measurement Confederation.

  5. Effect of two-pass rolling of textured roll and polished roll on surface topography and mechanical properties of 316L stainless steel ultra-thin strip. (2025). Journal of Iron and Steel Research International.

Wioletta Raczkiewicz – Materials Science and Engineering – Best Researcher Award

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Wioletta Raczkiewicz - Materials Science and Engineering - Best Researcher Award

Kielce University of Technology - Poland

AUTHOR PROFILE

SCOPUS
GOOGLE SCHOLAR
ORCID

SUMMARY

Wioletta Raczkiewicz is a civil engineering expert with extensive academic and professional engagement in concrete structures, building renovation, and historic building conservation. With nearly three decades of involvement in technical education and structural research, the profile is marked by progressive academic roles at Kielce University of Technology. Key contributions include the development of stochastic models for fiber-reinforced concrete and ongoing dedication to educational and architectural engineering excellence. Current responsibilities as Associate Professor include teaching, mentoring, and research leadership in advanced concrete technologies and structural diagnostics.

EDUCATION

Earned a Master of Engineering in Civil Engineering in 1994 from Kielce University of Technology, with a specialization in Building Renovations and Historic Conservation. The thesis focused on adaptive reconstruction of Villa Zielona into a guesthouse. In 2008, completed a Doctor of Technical Sciences degree in Civil Engineering, specializing in Concrete Structures. The doctoral dissertation investigated stochastic parameter distributions in fiber-reinforced concrete under variable loading, reflecting a high level of analytical and modeling capability within modern structural engineering contexts.

PROFESSIONAL EXPERIENCE

Began professional career in 1995 at the Research Institute of Roads and Bridges in Warsaw, Kielce branch, as a technologist. Continued academic work at Kielce University of Technology from 1997 onward across multiple faculty transformations, evolving from early technical roles to current designation as Associate Professor since December 2023. Over the years, responsibilities have included curriculum development, scientific research, and faculty service. Academic progression reflects long-term contributions in concrete technology, civil infrastructure diagnostics, and the integration of historic and modern construction methods.

RESEARCH INTEREST

Focus areas include fiber-reinforced concrete behavior under variable loads, stochastic modeling in structural engineering, diagnostics of construction materials, and conservation technologies for historical buildings. Interested in the development of innovative rehabilitation solutions and structural assessments through computational and empirical approaches. Emphasizes interdisciplinary integration between modern construction science and architectural heritage preservation. Research aims at improving reliability and sustainability of concrete structures while advancing methodologies in structural health monitoring and damage prediction under real-world operational conditions.

AWARD AND HONOR

Recognized within institutional settings for consistent academic performance and contributions to structural engineering research. While no international honors are explicitly listed, appointment to Associate Professor reflects institutional acknowledgment of scholarly merit and educational impact. Continued involvement in faculty development and mentoring underscores professional credibility and recognition within the academic engineering community. Contributions to doctoral supervision and peer-reviewed scientific work further illustrate recognition and trust in research excellence and educational leadership in civil engineering.

RESEARCH SKILL

Possesses advanced capabilities in stochastic modeling, finite element analysis, material diagnostics, and structural assessment techniques. Proficient in the application of probabilistic methods to evaluate concrete behavior under stress conditions. Skilled in developing interdisciplinary projects involving historic building technologies and sustainable construction practices. Demonstrates technical proficiency in laboratory methods for testing fiber-reinforced composites and interpreting complex data sets for real-world engineering applications. Also experienced in supervising engineering theses and managing collaborative academic research projects with a focus on reliability and material performance.

PUBLICATIONS TOP NOTED

Authored several technical publications in the field of concrete structures and structural modeling. Focus areas in these works include reliability assessment of fiber-reinforced materials and diagnostic techniques in civil engineering structures. Publications contribute to ongoing discourse in probabilistic evaluation of construction materials and are regularly cited within specialized journals of civil engineering and materials science. Key works also address structural behavior under dynamic and cyclic loads, further emphasizing expertise in advanced analysis of concrete and historical restoration frameworks.

Title: Reinforcement corrosion testing in concrete and fiber reinforced concrete specimens exposed to aggressive external factors
Authors: W. Raczkiewicz, M. Bacharz, K. Bacharz, M. Teodorczyk
Journal: Materials

Title: Determination of the linear correlation coefficient between Young’s modulus and the compressive strength in fibre-reinforced concrete based on experimental studies
Authors: A. Czajkowska, W. Raczkiewicz, M. Ingaldi
Journal: Production Engineering Archives

Title: Innovative strengthening of RC columns using a layer of a fibre reinforced concrete
Authors: P. Koteš, M. Vavruš, W. Raczkiewicz
Journal: Acta Polytechnica CTU Proceedings

Title: Temperature impact on the assessment of reinforcement corrosion risk in concrete by galvanostatic pulse method
Authors: W. Raczkiewicz, A. Wojcicki
Journal: Applied Sciences

Title: Use of polypropylene fibres to increase the resistance of reinforcement to chloride corrosion in concretes
Author: W. Raczkiewicz
Journal: Science and Engineering of Composite Materials

CONCLUSION

Wioletta Raczkiewicz exemplifies scholarly excellence in civil engineering, particularly in structural analysis and building conservation. The academic and research trajectory demonstrates a commitment to combining theoretical modeling with practical engineering applications. Contributions to educational development, research innovation, and technical diagnostics reinforce a leadership position within the field. With a stable academic tenure and impactful scientific output, the profile remains a valuable asset to structural engineering advancement, especially in concrete technologies and heritage restoration methodologies.

Zoma Fati – Materials Science and Engineering – Best Researcher Award

Published on by Civil Engineering Awards

Zoma Fati - Materials Science and Engineering - Best Researcher Award

Yembila Abdoulaye TOGUYENI University - Burkina Faso

AUTHOR PROFILE

ORCID

RESEARCH BACKGROUND

Zoma Fati has consistently contributed to civil engineering through a multidisciplinary approach combining physics and sustainable material science. His work focuses on local construction techniques and energy-efficient materials, aligning with environmental and thermal regulation goals. At the Université Yembila Abdoulaye TOGUYENI, he has played a leadership role in fostering engineering education and research, especially in material formulation using geo- and bio-sourced components. His efforts have expanded the understanding of thermally adaptive structures like Nubian vaults, emphasizing cost-effectiveness, ecological sustainability, and performance in extreme climates.

INNOVATIVE MATERIAL DEVELOPMENT

Zoma Fati’s research has led to the development of environmentally friendly materials tailored to local contexts. He has proposed scientifically validated criteria for selecting soil suitable for energy-efficient construction. His work also extends into plastic waste-based concrete innovations, targeting civil applications such as roads, sewage systems, and low-cost buildings. These innovations aim to reduce carbon footprints while leveraging abundant local and recycled resources. Though some findings await publication, his progressive direction reflects a commitment to both technical advancement and ecological responsibility, particularly in under-resourced regions.

SCIENTIFIC CONTRIBUTIONS

Zoma Fati has authored 12 journal articles indexed in SCI and Scopus, reflecting the academic rigor and relevance of his contributions. His presence on platforms like ResearchGate, with an h-index of 4, shows active engagement with the scientific community. He holds editorial appointments and regularly participates in peer collaborations, enabling cross-disciplinary knowledge exchange. He has contributed to technical development in Burkina Faso and broader regions by aligning scientific pursuits with local socioeconomic needs, offering practical applications in construction technology and energy conservation strategies.

COLLABORATION AND LEADERSHIP

An influential figure beyond academia, Zoma Fati serves as a board member at ANEREE and holds key roles in organizations such as ABAPEE and SBSIA. These positions enhance his ability to shape policy and professional practices related to energy efficiency and engineering. His leadership at the Université Yembila Abdoulaye TOGUYENI as Dean and previously Assistant Dean exemplifies his administrative capability and strategic vision. Through these roles, he has built frameworks for sustainable research initiatives and fostered interdisciplinary cooperation among scholars, engineers, and policy-makers.

PUBLICATION

Assessment of the embodied energy and carbon footprint of vibration-compacted adobe brick

Authors: Fati Zoma, Noufou Zongo, Etienne Malbila, David Yemboini Kader Toguyeni

Journal: Journal of Building Engineering

Tengyang Zhu – Materials Science and Engineering – Best Researcher Award

Published on by Civil Engineering Awards

Tengyang Zhu - Materials Science and Engineering - Best Researcher Award

Shandong University - China

AUTHOR PROFILE

SCOPUS

ORCID

SUMMARY

TENGYANG ZHU is a dedicated researcher specializing in membrane separation technologies, with extensive expertise spanning gas, liquid, and ion separations. He has authored over 20 peer-reviewed SCI papers in top-tier journals and has taken a leading role in two competitive research projects. With a strong foundation in materials and chemical engineering, he brings innovation to the design and synthesis of high-performance membranes. His research is not only academically impactful but also addresses critical environmental and industrial challenges, particularly in carbon capture and bioethanol purification.

EDUCATION

Dr. Tengyang Zhu obtained his Ph.D. from the School of Chemistry and Chemical Engineering at Huazhong University of Science and Technology in 2022. He earned his Master’s degree from Taiyuan University of Technology in Materials Science and Engineering, and his Bachelor’s degree from Liaocheng University. This academic journey solidified his foundation in materials science, enabling him to pursue complex interdisciplinary research in polymer membranes and advanced separation technologies critical to sustainable energy and environmental solutions.

PROFESSIONAL EXPERIENCE

Dr. Zhu has accumulated significant research experience from his graduate studies to postdoctoral work, focusing on advanced membrane separation. He has led and contributed to several national and provincial research projects. Currently, he is actively involved in developing novel polymer membrane materials for carbon capture and selective ion separation. He has also been entrusted with independent project leadership, managing research funding, collaborating across institutions, and mentoring students and junior researchers in the laboratory.

RESEARCH INTEREST

His core research interests lie in membrane-based separation processes, including gas separation, pervaporation, and ion selectivity. He focuses on the development of high-efficiency polymer and composite membranes with tailored structures and functionalities. Dr. Zhu is particularly invested in green and scalable fabrication techniques, the understanding of transport mechanisms, and applications in energy-efficient purification and environmental remediation, such as ethanol dehydration and CO₂ capture.

AWARD AND HONOR

Dr. Zhu has secured prestigious research grants, including the Shandong Postdoctoral Science Foundation and the Natural Science Foundation of Shandong Province. These competitive awards recognize his potential and innovation in membrane research. Additionally, his multiple publications in high-impact journals and the filing of national patents highlight the academic and technological value of his contributions to chemical engineering and material sciences.

RESEARCH SKILL

Dr. Zhu is proficient in synthesizing and characterizing membrane materials using a wide array of techniques including SEM, TEM, and XRD. He demonstrates deep expertise in designing membranes with multifunctional properties and in exploring their separation mechanisms. His skillset covers polymer engineering, nanomaterials integration, and thin-film composite fabrication, positioning him as a capable researcher adept in both theoretical understanding and practical applications of separation technology.

PUBLICATIONS

Title: Coordination-enhanced ionic elastomers: Durable, self-healing, and multimodal sensors for wearable electronics and robotics
Authors: QingMing Kong, Yu Tan, Haiyang Zhang, Tengyang Zhu, Xu Wang
Journal: Chemical Engineering Journal

Title: High‐Performance and Scalable Organosilicon Membranes for Energy‐Efficient Alcohol Purification
Authors: Tengyang Zhu, Dongchen Shen, Jiayu Dong, Huan Liu, Qing Xia, Song Li, Lu Shao, Yan Wang
Journal: Advanced Functional Materials

Title: Mimosa‐Inspired Body Temperature‐Responsive Shape Memory Polymer Networks: High Energy Densities and Multi‐Recyclability
Authors: Qingming Kong, Yu Tan, Haiyang Zhang, Tengyang Zhu, Yitan Li, Yongzheng Xing, Xu Wang
Journal: Advanced Science

Title: Healable, Recyclable, and Upcyclable Gel Membranes for Efficient Carbon Dioxide Separation
Authors: Jing Xiao, Tengyang Zhu, Haiyang Zhang, Wei Xie, Renhao Dong, Yitan Li, Xu Wang
Journal: Angewandte Chemie International Edition

Title: Controllable Hydrogen-bonded Poly(dimethylsiloxane) (PDMS) Membranes for Ultrafast Alcohol Recovery
Authors: Tengyang Zhu, Jiayu Dong, Huan Liu, Yan Wang
Journal: Materials Horizons

Title: TFC membrane with in-situ crosslinked ultrathin chitosan layer for efficient water/ethanol separation enabled by multiple supramolecular interactions
Authors: Qing Xia, Tengyang Zhu, Zhengze Chai, Yan Wang
Journal: Advanced Membranes

CONCLUSION

Tengyang Zhu’s academic rigor, publication record, and leadership in innovative research projects make him a standout contributor in the field of membrane technology. His work bridges fundamental science and industrial application, advancing cleaner energy and environmental sustainability. With his ongoing projects and international publications, he is poised to make long-term contributions to the development of high-performance separation materials and systems.