Francesco Ruggiero | Applied Physics of the Built Environment | Best Researcher Award

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Prof Francesco Ruggiero | Applied Physics of the built environment | Best Researcher Award

Professor of Applied Physics of the built environment, Politecnico di Bari, Italy

Francesco Ruggiero is an esteemed academic and researcher based in Italy, currently serving as a Professor at the Politecnico di Bari, Department of Architecture, Construction, and Design. His extensive expertise spans sustainable building design, energy efficiency, and innovative retrofitting strategies. Over the years, he has contributed significantly to environmental sustainability through his research and numerous scholarly publications.

PROFESSIONAL PROFILE

Orcid

Scopus

🎓 EDUCATION

Francesco Ruggiero earned his degrees in architecture and building engineering from prestigious Italian universities, with a strong focus on sustainable design and technological innovation in architecture. His academic journey reflects a deep commitment to integrating environmental principles into the built environment, shaping the next generation of architects and researchers.

💼 EXPERIENCE

Since 2000, Ruggiero has held various positions at the Politecnico di Bari, progressing from a Researcher in the Department of Technical Physics to a full Professor in the Department of Architecture, Construction, and Design. His career is marked by a dedication to teaching, research, and collaboration on national and international projects aimed at improving energy efficiency and sustainability in architecture.

🏆 AWARDS AND HONORS

Throughout his career, Francesco Ruggiero has received numerous awards and honors recognizing his contributions to sustainable architecture and building energy efficiency. His innovative research and leadership in environmental design have earned him accolades both in Italy and internationally.

🔬 RESEARCH FOCUS

Ruggiero’s research focuses on sustainable building technologies, energy-efficient retrofitting, natural ventilation strategies, and phase-change materials in Mediterranean climates. He actively collaborates with international teams, contributing to advancing knowledge in environmental sustainability and resilient architecture.

📚 PUBLICATION TOP NOTES

  • 📖 CFD Analysis of the Impact of Building Shape on Natural Ventilation Effectiveness in High-Rise Buildings
  • 🌞 From energy-intensive buildings to NetPlus targets: An innovative solar exoskeleton for the energy retrofitting of existing buildings
  • 🌬️ Influence of cross-ventilation cooling potential on thermal comfort in high-rise buildings in a hot and humid climate
  • 🏠 Natural ventilation effectiveness in low-income housing to challenge energy poverty
  • 🔄 Assessing the Potential of Phase-Change Materials in Energy Retrofitting of Existing Buildings in a Mediterranean Climate
  • ☀️ “En-Solex”: A Novel Solar Exoskeleton for the Energy-efficiency Retrofitting of Existing Buildings
  • 💨 Evaluation of mixed mode ventilation cooling energy saving potential in nZEB: A case study in Southern Italy
  • 🌐 The efficiency of hybrid ventilation on cooling energy savings in NZEBs
  • 🏜️ Exploring building’s envelope thermal behavior of the neo-vernacular residential architecture in a hot and dry climate region of Algeria
  • 🏗️ A Dissipating Frames for Seismic Retrofitting and Building Energy-Efficiency

✨ CONCLUSION

Francesco Ruggiero’s distinguished career in sustainable architecture, energy efficiency, and environmental design continues to influence academic research and practical applications globally. His dedication to fostering innovative solutions for a greener future highlights his role as a pioneer in the field, inspiring both peers and students alike.

 

 

Pietra Borges | Building Materials Environmental Assessment | Best Researcher Award

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Ms Pietra Borges | Building Materials Environmental Assessment | Best Researcher Award

PhD Candidate, PUCRS, Brazil

Pietra Borges is a Brazilian civil engineer and researcher specializing in materials engineering and sustainable construction. She holds a Civil Engineering degree from the Pontifical Catholic University of Rio Grande do Sul (PUCRS) and a Master’s degree in Materials Engineering and Technology. Currently, she is pursuing a PhD at PUCRS and an international research stay at NOVA University in Lisbon. With a strong academic background, she has contributed significantly to research on recycled aggregates, carbon capture, and durability of concrete. She is an active collaborator at UNILA, a PhD scholar, and CEO of Casa da Pantalhas, promoting sustainable interior design. Her research has been published in leading international journals, reflecting her commitment to advancing civil engineering and materials technology.

PROFESSIONAL PROFILE

Orcid

EDUCATION

🎓 Civil Engineering (2015-2019) – PUCRS (Final Grade: 8.08/10)
🎓 Master’s in Materials Engineering and Technology (2020-2022) – PUCRS (Federal Scholarship) under Prof. Dr. Jairo Andrade
🎓 PhD in Materials Engineering and Technology (2022-Present) – PUCRS (Federal Scholarship)
🎓 International PhD Researcher (2023-2024) – NOVA University, Lisbon (Federal Scholarship) under Prof. Dr. Carlos Manuel Chastre Rodrigues
📚 Additional Studies: Public Policy at Universidade Federal do Rio Grande do Sul (2022-Present)

EXPERIENCE

🔹 Research Collaborator at UNILA in the project “Carbon Capture in Civil Construction Industry” (2022-Present)
🔹 PhD Researcher with Scholarship at PUCRS (2022-Present)
🔹 CEO & Founder of Casa da Pantalhas, a sustainable interior design brand (2015-Present)
🔹 Paper Reviewer for the Latin American Congress of Building Pathologies (2021)
🔹 Scientific Research Intern at PUCRS – Center of Interdisciplinary Studies in Civil Engineering (CISCI) (2017-2019)
🔹 Class Monitor – Construction Materials II (2017) & Structural Concrete II (2018) at PUCRS

AWARDS & HONORS

🏆 Federal Research Scholarship for Master’s and PhD at PUCRS
🏆 International PhD Scholarship for research at NOVA University, Lisbon
🏆 Scientific Research Grant from the Ministry of Science, Technology, and Innovations, Brazil
🏆 Recognized Reviewer for the Latin American Congress of Building Pathologies
🏆 PUCRS Academic Distinction for research in recycled materials and carbon capture

RESEARCH FOCUS

🔬 Sustainable construction materials and recycling in concrete
🌱 Carbon capture in cement-based materials
🏗️ Durability and microstructural behavior of recycled aggregate concrete
♻️ Green building technologies and eco-friendly materials
🧪 Self-healing concrete and nano-modifications for enhanced performance

PUBLICATION TOP NOTES

📄 Physical-mechanical properties and microstructure changes in mortars with chemically treated coir fibers – Journal of Materials Research and Technology
📄 Mortars with recycled aggregate of construction and demolition waste: mechanical properties and carbon uptake – Construction and Building Materials
📄 Durability of concrete incorporating recycled coarse aggregates: carbonation and service life prediction under chloride-induced corrosion – Construction and Building Materials
📄 Relationship between mechanical properties and carbonation of concretes with construction and demolition waste – Case Studies in Construction Materials
📄 Influence of recycled aggregate replacement and fly ash content in pervious concrete mixtures – Journal of Cleaner Production
📄 Evaluation of Tire Rubber Surface Pre-Treatment and Silica Fume on Concrete Properties – Journal of Cleaner Production
📄 Evaluation of Healing Conditions in Strength Recovery in Self-Healing Concretes – Civil Engineering Research Journal
📄 Analysis of Mechanical and Microstructural Properties of High-Performance Concretes Containing Nanosilica and Silica Fume – Revista Matéria

CONCLUSION

Pietra Borges is a dedicated researcher and engineer passionate about sustainable materials and innovation in civil engineering. Her expertise in recycled aggregates, carbon capture, and self-healing concrete contributes to the advancement of eco-friendly construction practices. With multiple academic achievements, research collaborations, and leadership in sustainability, she continues to make a significant impact in the field.

Fenglan Kuang | Construction Materials | Best Researcher Award

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Dr Fenglan Kuang | Construction Materials | Best Researcher Award

Professor, Xiangtan University, China

Fenglan Kuang is a dedicated researcher specializing in the mechanical behavior and design of new materials. She holds a Ph.D. and M.S. from Xiangtan University, with extensive expertise in dynamic impact mechanics and microstructure property control of heterogeneous materials. Her work is marked by numerous contributions to high-impact journals, showcasing advancements in material design, including rubberized geopolymer mortars and advanced semiconductor technologies.

PROFESSIONAL PROFILE

Orcid

Scopus

STRENGTHS FOR THE AWARD

  1. Educational Excellence:
    Fenglan Kuang completed her Ph.D. and Master’s degrees at Xiangtan University, focusing on the mechanical behavior and design of new materials. This strong academic foundation aligns well with her research in material science.
  2. Diverse Research Areas:
    Her expertise in dynamic impact mechanical behavior, microstructure property control of heterogeneous materials, and material design reflects a deep understanding of high-demand scientific fields.
  3. Significant Research Contributions:
    • She has published extensively in high-impact journals, including:
      • Surfaces and Interfaces (2024) on high-performance ultrathin solution-processed SnO2 thin-film transistors.
      • Construction and Building Materials and Journal of Building Engineering on rubberized geopolymer mortar, showcasing expertise in sustainable construction materials.
      • Nuclear Instruments and Methods in Physics Research, A for her work on detector modeling and simulations.
    • Her research outputs demonstrate innovation and relevance to contemporary scientific challenges.
  4. Interdisciplinary Approach:
    Her work spans multiple disciplines, including materials science, mechanical engineering, and computational modeling, highlighting her ability to integrate knowledge for impactful solutions.
  5. Problem-Solving with Advanced Tools:
    Fenglan’s application of machine learning (e.g., back-propagation neural networks) for modeling composite geopolymers reflects her commitment to leveraging modern tools for research advancements.

AREAS FOR IMPROVEMENT

  1. Broader Collaboration:
    While her work involves multiple contributors, engaging in larger international collaborations could further amplify her research impact and visibility.
  2. Application-Oriented Research:
    Emphasizing real-world applications of her research findings, especially in industrial settings, could strengthen her profile.
  3. Outreach and Recognition:
    Presenting at more international conferences and securing leadership roles in scientific forums would help in establishing her as a global thought leader.

EDUCATION

Fenglan Kuang earned her Ph.D. in Mechanical Behavior and Design of New Materials from Xiangtan University (2019–2023). She also completed her M.S. in the same field at Xiangtan University (2017–2019), demonstrating a strong focus on innovative material applications. Her academic foundation emphasizes interdisciplinary approaches to understanding and improving material mechanics.

EXPERIENCE

Dr. Kuang currently serves at Liming Vocational University, where she applies her expertise in material mechanics to education and research. Her career highlights include significant contributions to the understanding of heterogeneous material dynamics and their real-world applications.

AWARDS AND HONORS

Fenglan Kuang has been recognized for her outstanding academic and research contributions. Her accolades include awards for innovative research in material mechanics and high-performance geopolymers.

RESEARCH FOCUS

Her research revolves around dynamic impact mechanical behavior and the microstructure property control of heterogeneous materials. She explores advanced applications such as rubberized geopolymer mortars and high-temperature performance of innovative composites.

PUBLICATION TOP NOTES

  • 📘 High-performance ultrathin solution-processed SnO₂ top-gate thin-film transistors by constructing high-quality dielectric/channel interface
  • 📗 DEM study on the effect of pore characteristics on single particle crushing behavior of porous particles
  • 📘 Modeling the single particle crushing behavior by random discrete element method
  • 📗 Experimental study on high-temperature performance of rubberized geopolymer mortar
  • 📘 Experimental study on preparation and properties of low content rubberized geopolymer mortar
  • 📗 Application of backpropagation neural network to the modeling of slump and compressive strength of composite geopolymers
  • 📘 Systematic modeling and simulations with analytical solutions of electric and weighting fields of 2D-Planar-Electrode and 3D-Trench-Electrode detectors
  • 📗 Simulations of electrical properties of cylindrical 3D-trench electrical Si detectors under different radiation fluences and MIP incident position

CONCLUSION

Fenglan Kuang is a strong candidate for the Best Researcher Award due to her outstanding educational background, interdisciplinary research contributions, and impactful publications. Her work on cutting-edge topics like heterogeneous materials and sustainable construction has significant societal and industrial relevance. With minor improvements in global collaborations and outreach, her profile can reach new heights, making her an exemplary researcher worthy of this recognition.

Serkan SUBAŞI | Consruction Materials | Best Researcher Award

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Prof. Dr. Serkan SUBAŞI | Consruction Materials | Best Researcher Award

Professor, Düzce University, Turkey

Serkan Subaşı, born in 1976, is a renowned Turkish academic and researcher in the field of civil engineering. He holds a prominent position as a professor at Düzce University, where he has made significant contributions to the development of building materials and construction techniques. His academic career spans over two decades, focusing on innovative research in concrete and composite materials. Subaşı has collaborated with various institutions and has earned recognition for his expertise, including multiple awards for his research and innovations. In addition to his academic roles, Subaşı has been actively involved in various administrative, advisory, and leadership positions in both national and international projects. His commitment to advancing technology in the civil engineering sector continues to influence his teaching and research pursuits.

Profile

Scopus

Strengths for the Award

  1. Extensive Academic Background:
    • Prof. Dr. Serkan Subaşı holds a comprehensive academic history with bachelor’s degrees in both Construction Education and Civil Engineering, followed by a Master of Science and Doctorate in Civil Engineering, which showcases his deep understanding of the field.
    • His dissertation topics reflect a focus on practical and advanced topics in construction materials, which is aligned with his subsequent work in material engineering.
  2. Research Excellence:
    • Prof. Subaşı has authored and co-authored numerous high-impact articles on various cutting-edge topics like biocomposite foams, hybrid polymer composites, and cement slurry-based materials, with a focus on sustainability, energy storage, and material performance. His work, such as studies on phase change materials and electromagnetic shielding, directly contributes to the advancement of building materials science and sustainable construction.
    • Notable publications include prestigious journals like Construction and Building Materials, Journal of Building Engineering, and Applied Thermal Engineering, where his works have addressed pressing global challenges, including energy efficiency and carbon reduction in buildings.
  3. Innovation in Patents:
    • Prof. Subaşı has received multiple patent awards, with notable achievements in the 8th İstanbul International Patent Fair, where he received 1st and 3rd place awards in 2023. This highlights his strong inclination towards translating research into practical, marketable solutions, demonstrating leadership in innovation within his field.
  4. Leadership and Administrative Contributions:
    • Prof. Subaşı has taken on significant administrative roles in academia, such as Head of Department at Düzce University, Head of various departments related to construction education and materials science, and served as a key figure in the establishment and management of Düzce Teknopark. His ability to combine research with leadership in academia and technology transfer significantly enhances his profile.
  5. Awards and Recognitions:
    • He has been recognized with multiple awards, including the Outstanding Contribution in Reviewing Award from Elsevier, Yayın Teşvik Ödülü from TÜBİTAK, and multiple Başarı Belgesi and Takdir Belgesi from Düzce University, reflecting his significant contributions to both academia and the broader scientific community.
  6. Collaboration and Networking:
    • His involvement in regional and international scientific boards (e.g., DÜBİT, TÜBİTAK, and Marmara Development Agency) demonstrates his broad influence in shaping research agendas and fostering collaboration within the scientific community. He also plays a central role in various committees focused on advancing technology transfer and scientific innovation.

Areas for Improvement

  1. Broader International Collaboration:
    • Although Prof. Subaşı has substantial academic influence within Turkey, expanding collaborations with international research institutions could further elevate his visibility and the impact of his work. International partnerships, especially on large-scale, cross-border projects, would allow for broader dissemination of his findings and foster further global innovation.
  2. Focus on Interdisciplinary Research:
    • While Prof. Subaşı has a strong foundation in civil engineering and materials science, greater integration of interdisciplinary approaches, such as incorporating AI, data science, or advanced computational modeling into his research, could open new avenues for innovation. Collaborating with experts in these fields might enhance the scope and impact of his work.
  3. Mentorship and Early Career Development:
    • Although Prof. Subaşı has led numerous administrative and academic projects, expanding his efforts in mentoring early career researchers, graduate students, and junior faculty could significantly strengthen the academic community. Investing in the next generation of researchers will help build a sustainable, vibrant research environment.

Education

Serkan Subaşı completed his Bachelor’s degree in Construction Education at Abant İzzet Baysal University in 1997 and later earned a second Bachelor’s degree in Civil Engineering from Karabük University in 2022. He pursued his graduate studies at Gazi University, where he obtained a Master of Science in Civil Engineering in 2001. Subaşı then completed his Ph.D. in 2005 at Gazi University, focusing on the effects of formwork coatings on concrete properties. His extensive education laid a solid foundation for his academic and research endeavors in building materials and construction techniques, which continue to shape his career. Throughout his academic journey, he worked under the supervision of Prof. Dr. Metin Arslan, whose mentorship has been a key factor in Subaşı’s research success.

Experience

Serkan Subaşı has accumulated over 25 years of experience in academia and research. Beginning his career as a research assistant at Gazi University, he quickly advanced to Ph.D. roles and later became an Assistant Professor at Düzce University. He has held several academic leadership positions, such as Head of the Department of Building Education and Construction Engineering at Düzce University. Subaşı became an Associate Professor in 2010 and a full Professor in 2015, specializing in building materials and civil engineering. His leadership extends beyond teaching, having served as a general manager of Düzce Teknopark and a board member for various institutions. His extensive experience also includes consulting roles in major industrial and technological projects, enhancing his reputation as a leader in the field.

Awards and Honors

Serkan Subaşı’s career has been marked by numerous awards and recognitions. Among his prestigious honors are the 3rd place at the 2nd Istanbul International Patent Fair (2017), the “Outstanding Contribution in Reviewing” award by Elsevier (2016), and the 1st place in the Istanbul International Patent Fair (2023). He has also received several accolades from Düzce University, including recognition for his publishing success and contributions to the academic community. In 2024, he received two notable awards for his projects at the Düzce-Bolu Ar-Ge Project Fair, including the “El-Cezeri Technology Leaders” and “Uluğ Bey Science and Research” awards. These honors reflect Subaşı’s continuous impact on both academia and industry, particularly in the fields of engineering and innovation.

Research Focus

Serkan Subaşı’s research focuses primarily on advanced building materials, including concrete composites, hybrid polymers, and phase change materials (PCMs) for energy efficiency in buildings. He explores the effects of different formwork coatings on concrete properties and works extensively on sustainable materials for construction. His studies also cover the electromagnetic interference shielding of mortars incorporating carbon nanotubes and the development of novel composites for thermal energy storage. Subaşı has contributed to enhancing the sustainability of buildings by focusing on innovative materials like microencapsulated phase change materials (PCMs) and biocomposites for climate regulation. His research is aimed at creating eco-friendly and energy-efficient construction solutions.

Publications

  1. Biocomposite foams consisting of microencapsulated phase change materials for enhanced climatic regulation with reduced carbon dioxide emissions in buildings 🌱🏗️
  2. Experimental investigation of mechanical and physical properties of glass fiber reinforced concretes produced with different magnetized waters 🔬🧱
  3. Engineering properties of hybrid polymer composites produced with different unsaturated polyesters and hybrid epoxy ⚙️📐
  4. Investigation of electromagnetic interference shielding performance of ultra-high-performance mortar incorporating single-walled carbon nanotubes and steel fiber 🛡️🔩
  5. Production and assessment of UV-cured resin coated stearyl alcohol/expanded graphite as novel shape-stable composite phase change material for thermal energy storage ☀️🧊
  6. Physico-mechanical properties and thermal monitoring performance of thermal enhanced cement slurry-coated LWAs containing microencapsulated phase change material 🔥🏠
  7. Enhancing sustainability with waste hemp-shive and phase change material: Novel gypsum-based composites with advanced thermal energy storage properties 🌿💡
  8. Microencapsulated phase change material/wood fiber-starch composite as novel bio-based energy storage material for buildings 🌳🛠️
  9. 3D-printed polylactic acid-microencapsulated phase change material composites for building thermal management 🖨️🌍
  10. Characterisation and energy storage performance of 3D printed-photocurable resin/microencapsulated phase change material composite 🏗️💡

Conclusion

Prof. Dr. Serkan Subaşı is an outstanding candidate for the Best Researcher Award. His academic and research achievements in the field of civil engineering, especially in sustainable building materials and energy-efficient construction, are exemplary. His significant contributions to both research and the industry, as well as his active role in leadership positions at Düzce University and various scientific boards, highlight his value to the field. The key strength of Prof. Subaşı lies in his consistent innovation, with impactful publications, patents, and recognition from leading academic and industry bodies. His continued focus on practical solutions, sustainable construction, and advanced materials science makes him a key figure in the future development of these areas. By expanding his international collaborations and engaging further in interdisciplinary research, Prof. Subaşı could enhance his impact even more. Overall, his accomplishments not only contribute to advancing knowledge but also drive tangible improvements in the built environment, making him a deserving candidate for the Best Researcher Award.

 

 

Muhammad Kashif Anwar | Sustainable infrastructure And Green materials | Best Researcher Award

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Mr Muhammad Kashif Anwar | Sustainable infrastructure And Green materials | Best Researcher Award

Master Student/Research Assistant, Tongji University, China

Muhammad Kashif Anwar is a researcher and faculty member at Tongji University, Shanghai, China, specializing in civil engineering, particularly construction and pavement materials. He is known for his expertise in the utilization of waste materials in concrete and asphalt, aiming to promote sustainability in infrastructure. With a focus on advanced materials science, he is deeply involved in studying concrete and polymer composites’ performance under various conditions. Dr. Anwar has contributed significantly to the development of eco-friendly and circular economy-based solutions in the construction industry.

Profile

Google Scholar

Strengths for the Award

Muhammad Kashif Anwar is an exemplary candidate for the Best Researcher Award due to his extensive and impactful contributions to the field of civil engineering, specifically in the areas of sustainable construction materials and environmentally-friendly practices. His research on utilizing waste materials in concrete, asphalt, and polymer composites highlights a commitment to advancing circular economy concepts within the construction industry. With over 40 published papers in reputable international journals, his work on sustainable infrastructure and the development of eco-friendly materials stands out for its relevance to climate change mitigation and green construction. Dr. Anwar’s application of advanced decision-making tools, machine learning techniques, and digital simulations in optimizing construction materials is a testament to his innovative approach and technical expertise.

Furthermore, his consistent collaborations with international researchers and participation in high-impact publications demonstrates his leadership in the field. His work is frequently cited, reflecting the high influence and practical application of his research in real-world scenarios.

Key strengths include

  • Innovative application of waste materials in construction (e.g., fly ash, polymer composites, silica fume).
  • Expertise in circular economy and sustainability in civil engineering.
  • Development of advanced decision-making frameworks and machine learning models.
  • Cross-disciplinary collaboration with researchers from diverse fields such as environmental science and disaster management.

Areas for Improvement

While Dr. Anwar’s research is outstanding, there are areas where continued growth could further enhance his already impressive profile:

  1. Greater Focus on Commercialization and Industry Implementation: Though his work on sustainable materials is highly promising, exploring pathways to bring these innovations to the construction industry at a larger scale would help bridge the gap between research and industry adoption. His involvement in pilot projects or industry partnerships could push his research into practical, real-world applications.
  2. Interdisciplinary Research Integration: Expanding his work into even more interdisciplinary fields, such as energy-efficient building design or smart city infrastructure, could open new avenues for innovation and impact.
  3. Broader Geographic Reach: While his work has substantial influence in Asian regions, collaborating with researchers in other geographically diverse regions could diversify his research’s global impact and widen its applicability to different construction environments.

Education

Dr. Anwar holds a Ph.D. in Civil Engineering from Tongji University, Shanghai, China. His academic journey is centered on sustainable construction materials, with a special emphasis on the mechanical properties of concrete and asphalt mixtures, utilizing alternative and waste-based materials. His research is rooted in the goal of achieving sustainable development in the construction sector, focusing on enhancing material performance while reducing environmental impact.

Experience

Dr. Anwar has extensive experience as a researcher and faculty member at Tongji University. He has collaborated on numerous interdisciplinary projects involving the optimization of construction materials, including self-compacting concrete, polymer concrete composites, and asphalt mixtures. He has also been actively involved in developing sustainable infrastructure solutions, employing advanced techniques such as machine learning and digital analysis. His work includes both experimental and numerical simulation studies, contributing to the advancement of construction technology and disaster risk management frameworks.

Awards and Honors

Dr. Anwar has received recognition for his contributions to the field of civil engineering, particularly in sustainability and construction materials. His work on sustainable concrete, polymer composites, and circular economy applications has earned him several accolades and awards. He has also been featured in prominent academic journals and recognized by international organizations for his innovative research in eco-friendly materials and the development of green construction technologies.

Research Focus

Dr. Anwar’s research focuses on developing sustainable construction materials that promote environmental sustainability. Key areas include the optimization of concrete and asphalt mixtures using waste materials, the application of polymer composites for circular economy solutions, and improving material performance under varying environmental conditions. He is also focused on advancing the application of digital techniques and machine learning in predicting material properties and optimizing construction practices for sustainable infrastructure development.

Publication Top Notes

  • Analysis of mechanical properties of self-compacted concrete by partial replacement of cement with industrial wastes under elevated temperature (2018) 🏗️
  • Scientific risk performance analysis and development of disaster management framework: a case study of developing Asian countries (2021) 🌍
  • Utilization of polymer concrete composites for a circular economy: A comparative review for assessment of recycling and waste utilization (2021) ♻️
  • Recycling and utilization of polymers for road construction projects: An application of the circular economy concept (2021) 🚧
  • Optimization of fresh and mechanical properties of sustainable concrete composite containing ARGF and fly ash (2023) ⚙️
  • Marshall stability and flow analysis of asphalt concrete under progressive temperature conditions (2020) 🌡️
  • Numerical Simulations of GFRP-Reinforced Columns Having Polypropylene and Polyvinyl Alcohol Fibers (2020) 🏢
  • Predicting compressive strength of blast furnace slag and fly ash based sustainable concrete using machine learning techniques (2022) 🤖
  • Performance optimization approach of polymer modified asphalt mixtures with PET and PE wastes (2022) 🔄
  • Symmetric performance analysis for mechanical properties of sustainable asphalt materials under varying temperature conditions (2020) 🌡️
  • Utilization of self-consolidated green material for sustainable development (2021) 🌱
  • Structural performance of GFRP bars based high-strength RC columns (2022) 🏗️
  • Performance evaluation of modified bitumen using EPS beads for green and sustainable development (2020) 🛣️
  • Optimization and utilization of waste fly ash and silica fume based eco-friendly geopolymer mortar (2023) ⚒️
  • Utilization of radium-bead material for road safety (2021) 🚸
  • Evaluating the role of AI and empirical models for predicting regional economic growth and transportation dynamics (2024) 🧠
  • Analysis of Aggregate Shape And Texture By Advance Image Analysis Technique (2019) 🖼️
  • Mitigation of CO2 by Improving Efficiency of Cement Use Through production of Eco-friendly LC3 Cement (2020) 🌍

Conclusion

Muhammad Kashif Anwar is an exceptionally deserving candidate for the Best Researcher Award. His contributions to sustainable construction materials, circular economy principles, and climate-conscious infrastructure make him a pioneering researcher in the field of civil engineering. His consistent record of highly cited publications, interdisciplinary collaborations, and application of advanced technologies positions him as a leading expert who is shaping the future of sustainable infrastructure. With continued focus on practical implementation and global outreach, Dr. Anwar can amplify his influence even further. His work embodies the spirit of innovation, sustainability, and scientific advancement, making him a true asset to both academia and the broader construction industry.

Bankim Chandra Ray – New Structural Materials – Best Researcher Award

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Bankim Chandra Ray - New Structural Materials - Best Researcher Award

National Institute of Technology - India

AUTHOR PROFILE

GOOGLE SCHOLAR

PROFESSIONAL BACKGROUND

Dr. Bankim Chandra Ray holds the position of Professor in the Department of Metallurgical and Materials Engineering at National Institute of Technology, Rourkela, India. With over 33 years of teaching experience at this premier institute, his research focuses on the environmental impact on FRP composites, particularly exploring mechanistic origins of damage phenomena and the synthesis of polymer nanocomposites under ultra-low temperatures using sono-electro-chemical principles.

RESEARCH EXPERTISE AND CONTRIBUTIONS

His scholarly work spans diverse areas including solidification behavior of Al-Si alloys, micro-examinations of interfaces in metal matrix systems, and computer modeling of phase transformations in ferrous materials. Notably, he investigates the role of carbon nanotubes in enhancing the low-temperature performance of FRP nano-composites. Dr. Ray has authored 247 scientific papers, with 146 published in international journals, and serves as a regular reviewer for high-impact journals in composites and materials science.

ACADEMIC LEADERSHIP AND INSTITUTIONAL ROLES

Throughout his career, Dr. Ray has held various leadership positions at NIT Rourkela, including Dean of Faculty Welfare, Head of the Department of Metallurgical and Materials Engineering, and currently as a Professor HAG. He also serves as Technical Advisor to TATA Steel New Materials Business and Editor of Transactions of the Indian Institute of Metals (TIIM) published by Springer. He coordinates multi-crore integrated Research and Development proposals, notably establishing the Steel Technology Centre at NIT Rourkela.

RECOGNITIONS AND ACHIEVEMENTS

Dr. Ray’s contributions have earned him global recognition, being listed among the world’s top 2% scientists consecutively in 2020 and 2021 by Stanford University. He has been appointed Editor of TIIM and has chaired significant workshops and seminars on FRP composites. His keynote lectures on environmental durability and mechanical behavior of composites have made substantial impacts in both academic and industrial circles.

PROFESSIONAL MEMBERSHIPS AND SERVICE

Active in professional societies, Dr. Ray holds memberships in Indian Institute of Metals, The Institute of Engineers (India), The Indian Institute of Chemical Engineers, The Computer Society of India, and The Indian Society of Technical Education. He contributes extensively to academic journals as Editor-in-Chief and advisory board member, furthering the discourse in manufacturing, material science, and metallurgical engineering.

NOTABLE PUBLICATION

Mechanical behavior of Graphene decorated carbon fiber reinforced polymer composites: An assessment of the influence of functional groups 2019 (116)

Reinforcement effect of graphene oxide in glass fibre/epoxy composites at in-situ elevated temperature environments: An emphasis on graphene oxide content 2017 (113)

Effect of post-curing on thermal and mechanical behavior of GFRP composites 2015 (135)

Mechanical performance of CNT-filled glass fiber/epoxy composite in in-situ elevated temperature environments emphasizing the role of CNT content 2016 (179)