Nancy Hammad | Sustainable Construction Materials | Best Researcher Award

Mr Nancy Hammad | Sustainable Construction Materials | Best Researcher Award

PhD in Structural Engineering, The German University in Cairo, Egypt

Nancy Hammad is an accomplished academic at the Faculty of Engineering and Materials Science, The German University in Cairo, Egypt. She has a profound impact on the field of materials science, particularly in the domain of alkali-activated materials and self-healing concrete. Her extensive work has garnered 111 citations across 5 key publications, demonstrating her expertise and influence. Nancy actively collaborates with fellow researchers and contributes to groundbreaking advancements in sustainable construction technologies.

PROFILE

Scopus

STRENGTHS FOR THE AWARD

  1. Innovative Research Focus: Nancy Hammad has significantly contributed to the field of self-healing concrete and alkali-activated slag materials. Her research on microbial self-healing mechanisms and fiber-reinforced concrete enhances sustainable construction practices.
  2. High Impact Publications: She has authored five impactful publications, with 111 citations across 88 documents, reflecting the academic community’s recognition of her work.
  3. Collaborative Efforts: Nancy has worked with multiple co-authors, showcasing her ability to collaborate effectively within interdisciplinary teams.
  4. Practical Contributions: Her research addresses real-world challenges, such as durability and sustainability in construction materials, emphasizing its relevance and application.
  5. Recognition of Expertise: Her h-index of 5 underscores the consistent quality and influence of her publications within the academic and engineering communities.

AREAS FOR IMPROVEMENT

  1. Increased Diversity in Research Topics: While her focus on alkali-activated materials is strong, diversifying research into complementary areas could further enhance her profile.
  2. Funding and Grant Success: Securing awarded grants for research can add to her credentials, highlighting the practical and financial backing for her work.
  3. Broader Collaboration: Expanding collaborations internationally or within industry could amplify the application and dissemination of her research.

EDUCATION

Nancy Hammad earned her academic credentials with a focus on civil and materials engineering. She pursued her undergraduate and postgraduate studies at prestigious institutions, culminating in her research at The German University in Cairo. Her dedication to innovative materials science has been the cornerstone of her academic journey, equipping her to lead pioneering studies in self-healing concrete and alkali-activated materials.

EXPERIENCE

With years of academic and research experience, Nancy Hammad has significantly contributed to engineering and materials science. She has worked on cutting-edge research projects and authored several influential publications. As a faculty member at The German University in Cairo, Nancy combines teaching, research, and mentorship to foster innovation and knowledge dissemination.

AWARDS AND HONORS

Nancy Hammad has been recognized for her exceptional contributions to materials science, earning accolades for her research in sustainable construction technologies. Her work in microbial self-healing concrete and fiber-reinforced alkali-activated materials has received widespread acclaim, reflecting her commitment to advancing engineering solutions.

RESEARCH FOCUS

Nancy Hammad’s research focuses on the efficiency of calcium oxide in microbial self-healing activity, self-healing capabilities of alkali-activated slag (AAS) concrete, and fiber-reinforced alkali-activated materials. Her work aims to enhance sustainability and resilience in construction materials, pushing the boundaries of engineering innovation.

PUBLICATION TOP NOTES

  • 🌟 The Efficiency of Calcium Oxide on Microbial Self-Healing Activity in Alkali-Activated Slag (AAS)
  • 📚 State-of-the-Art Report: The Self-Healing Capability of Alkali-Activated Slag (AAS) Concrete
  • 🧬 Efficiency of Bacteria-Based Self-Healing Mechanism in Concrete
  • 🔧 Flexural Performance of Reinforced Alkali-Activated Concrete Beams Incorporating Steel and Structural Macro Synthetic Polypropylene Fiber
  • 🏗️ The Performance of Fiber GGBS Based Alkali-Activated Concrete

CONCLUSION

Nancy Hammad is a strong candidate for the Best Researcher Award. Her innovative work on sustainable construction materials and self-healing concrete demonstrates significant scientific and practical contributions. Addressing areas for improvement, such as securing grants and expanding research topics, could further solidify her standing as a leading researcher in her field. Given her accomplishments and potential for continued impact, she is highly deserving of this recognition.

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

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.

Abdulaziz A. Kurdi – sustainable construction materials – Outstanding Scientist Award

Abdulaziz A. Kurdi - sustainable construction materials - Outstanding Scientist Award

King Abdulaziz City for Science and Technology - Saudi Arabia

AUTHOR PROFILE

SCOPUS

RESEARCH & INNOVATION 🔬

Abdulaziz A. Kurdi is a pioneering researcher focused on advanced materials and manufacturing, currently leading the Center of Excellence for Advanced Materials & Manufacturing at the University of Cambridge. His work includes developing novel graphene-based electrodes for solar energy applications and advancing 3D printing of composite materials for aerospace. His research contributions aim to support Saudi Arabia’s long-term strategic ambitions in sustainable and innovative technologies.

SMART CONSTRUCTION SOLUTIONS 🧱

As the principal investigator for the Al Diriyah project, Abdulaziz led the design and development of a fully automated production line for Adobe bricks, significantly increasing their capacity and quality. His efforts in preserving archaeological sites through innovative coating materials have helped protect valuable heritage sites from environmental damage, showcasing his commitment to merging technology with cultural preservation.

SUSTAINABILITY & ENERGY EFFICIENCY 🌍

In the Smart Walls project, Abdulaziz focused on integrating Phase Change Materials (PCMs) into building walls to enhance energy efficiency. His research is aimed at reducing energy consumption in buildings by incorporating sustainable materials. This project has gained attention from major industry players, including Saudi Aramco, and presents promising opportunities for future implementation in construction.

INNOVATIVE MATERIALS DEVELOPMENT 🏗️

A key part of his research is the development of Artificial Palm Wood (APW), a novel product created from agricultural and plastic waste. This eco-friendly substitute for traditional wood has the potential to revolutionize building materials, especially in regions where natural resources are scarce. Abdulaziz has applied for a patent on this invention, reinforcing his position as a leader in sustainable innovation.

LEADERSHIP IN RESEARCH 🏆

With extensive experience in project management and team leadership, Abdulaziz has been instrumental in overseeing technical teams for various initiatives. His roles range from managing production lines to leading scientific equipment design projects. His strong leadership ensures that projects are executed efficiently, while also fostering innovation and teamwork.

COMMITTEE ENGAGEMENT 📋

Abdulaziz is an active committee member in several key national and international initiatives, including KACST’s Strategic Innovation Program and the Saudi Green Strategy. His contributions to advanced manufacturing techniques, energy efficiency, and industry regulations make him a valuable advisor in shaping the future of Saudi Arabia’s industrial landscape.

EDUCATION & MENTORSHIP 🎓

In addition to his research, Abdulaziz is dedicated to teaching and mentoring the next generation of scientists and engineers. He continuously develops innovative instructional methods and guides students through complex research projects. His role as an educator ensures the transfer of knowledge and fosters the development of future industry leaders.

NOTABLE PUBLICATION

Micro-Scale Deformation Aspects of Additively Fabricated Stainless Steel 316L under Compression
Authors: A. Kurdi, A. Degnah, T. Tabbakh, H. Alnaser, A.K. Basak
Year: 2024
Journal: Materials, 17(2), 439

Role of Precipitation and Solute Segregation on Micro-Scale Deformation of Additively Manufactured Inconel 718
Authors: A. Degnah, T. Tabbakh, A. Kurdi, A.K. Basak
Year: 2023
Journal: Materials Science and Engineering: A, 887, 145762

Microstructural and Nanoindentation Investigation on the Laser Powder Bed Fusion Stainless Steel 316L
Authors: A. Kurdi, T. Tabbakh, A.K. Basak
Year: 2023
Journal: Materials, 16(17), 5933

Coronary Stent Fracture and Application of Interactive Design: A Narrative Review
Authors: A. Kurdi, A.M. Alotaibi, T. Tabbakh, B. Alkahlan
Year: 2023
Journal: International Journal on Interactive Design and Manufacturing, 17(4), pp. 1459–1473

Investigation into the Microstructure and Hardness of Additively Manufactured (3D-Printed) Inconel 718 Alloy
Authors: A. Kurdi, A. Aldoshan, F. Alshabouna, T. Tabbakh, A.K. Basak
Year: 2023
Journal: Materials, 16(6), 2383