Dr. Omran Maadani |Transportation Engineering Research |Best Researcher Award

Dr. Omran Maadani |Transportation Engineering Research |Best Researcher Award

National Research Council Canada / Conseil national de recherches Canada, Canada

Profile

Scopus

Early Academic Pursuits 🎓

Dr. Omran Maadani’s academic journey began with a strong passion for civil engineering, which laid the foundation for his future contributions to the field. He pursued his Ph.D. in Civil Engineering at Carleton University in Canada, where he focused on pavement materials and structural road design. His doctoral research, centered around evaluating the new AASHTO Mechanistic-Empirical Pavement Design Guide (M-EPDG), was an instrumental part of his early academic endeavors. Through his research, Dr. Maadani gained deep insights into the performance of flexible roads, making significant strides in understanding the mechanical and environmental loading effects on pavements.

His academic pursuit not only honed his technical skills but also gave him exposure to cutting-edge road design theories and instrumentation systems used to monitor pavement responses. The instrumentation system he developed allowed for precise measurements of mechanical and environmental loadings, which was used in diverse urban environments across North America, including cities like Ottawa, Chicago, Toronto, Los Angeles, and New Jersey.

Professional Endeavors and Contributions 🔧

Dr. Maadani’s professional career has been marked by a combination of hands-on experience and high-level expertise in civil engineering, particularly within the realms of road construction, pavement materials, and concrete technology. His in-depth knowledge of flexible, rigid, and gravel road modeling and geotechnical engineering has made him a sought-after expert in the industry.

In addition to his research, Dr. Maadani has played a pivotal role in the pre-cast concrete manufacturing field, where he applied his engineering expertise to improve processes and outcomes in road construction. His deep understanding of concrete technology and his involvement in road design experiments and instrumentation systems has set him apart in both academia and industry.

His field experience includes designing and conducting laboratory experiments, ensuring they are equipped to measure and analyze pavement responses. He has consistently worked on integrating technological advancements to improve road design and performance, with an eye on sustainability and resilience in infrastructure.

Research Focus and Achievements 🔬

Dr. Maadani’s research is primarily centered on understanding the intricate mechanics of road pavements under varying environmental and mechanical stresses. By implementing a comprehensive instrumentation scheme across diverse urban landscapes, his work has greatly contributed to the understanding of how different materials and design strategies impact road durability and performance.

His Ph.D. thesis focused on a critical evaluation of the AASHTO Mechanistic-Empirical Pavement Design Guide, a crucial document used by engineers for the design and evaluation of road pavements. His work in developing field instrumentation for capturing structural responses and environmental conditions of pavements has significantly advanced the field of pavement engineering.

Moreover, Dr. Maadani’s research has extended beyond theoretical applications into practical implementations. By collaborating with cities in North America, he has successfully created data-driven solutions to better design roads that can withstand various climatic and load-bearing conditions, enhancing the longevity and reliability of infrastructure.

Accolades and Recognition 🏆

Throughout his career, Dr. Maadani has received numerous accolades for his groundbreaking contributions to civil engineering. His innovative work on pavement design and instrumentation systems has been recognized by both academic institutions and industry leaders. He has contributed to publications in prestigious engineering journals, gaining recognition from peers and colleagues across the globe.

Dr. Maadani’s successful application of the AASHTO M-EPDG framework in real-world settings has garnered him acclaim in both academia and industry, establishing him as a thought leader in the fields of structural engineering and transportation infrastructure.

His technical expertise, particularly in the design of experimental systems for road pavement evaluation, has made him a go-to figure for projects involving infrastructure durability assessments, with several of his field studies becoming benchmarks in the field.

Impact and Influence 🌍

Dr. Omran Maadani’s work has had a lasting impact on road construction, particularly in the areas of pavement material selection and instrumentation. His research and professional contributions have not only improved road quality and longevity but have also influenced policy and road safety regulations.

The instrumentation systems developed under his guidance are now used widely to assess the performance of various pavement materials under real-world conditions, providing invaluable data for engineers and researchers alike. His work continues to shape the future of pavement engineering and road infrastructure, pushing the boundaries of what is possible in both technical research and practical application.

Legacy and Future Contributions 🌟

Looking forward, Dr. Maadani aims to continue his work in advancing road pavement design and technology. He is particularly interested in the intersection of sustainability and engineering, focusing on how future pavements can be designed to minimize environmental impact while maximizing structural efficiency and performance.

Dr. Maadani’s legacy lies not only in his technical contributions but also in his commitment to fostering the next generation of civil engineers. His extensive fieldwork and research have laid the groundwork for the next wave of pavement engineering innovations, making him a key figure in the ongoing evolution of the civil engineering discipline.

By remaining deeply involved in field experiments, research projects, and conferences, Dr. Maadani plans to continue shaping the future of road design and infrastructure development, ensuring that it meets the demands of both modern cities and future generations.

📝Notable Publications

“Analyzing Environmental and Traffic Load Trends in an Instrumented Pavement Test Section, Kitchener, Ontario”

Authors: Ceric, M., Tavassoti, P., Baaj, H., Oyeyi, A.G., Maadani, O.

Journal: Lecture Notes in Civil Engineering

Year: 2024

“Investigation of Self-Healing Properties of Nanoclay-Modified Asphalt Binder Using Two-Piece Healing Test”

Authors: Monteiro, L., Moghaddam, T.B., Freed, K., Maadani, O., Hashemian, L.

Journal: Canadian Journal of Civil Engineering

Year: 2023

“A Framework for Smart Pavements in Canada”

Authors: Tavassoti, P., Baaj, H., Ghafurian, M., Maadani, O., Shafiee, M.

Journal: Engineering Proceedings

Year: 2023

“Comparison between MERRA-2 and CWEEDS for Use in Pavement Mechanistic-Empirical Design in Canada”

Authors: Shafiee, M., Maadani, O., Cobo, J.H.

Journal: Canadian Journal of Civil Engineering

Year: 2023

“Investigation of Climate Change Impacts on Early-Age Cracking of Jointed Plain Concrete Pavements in Canada”

Authors: Shafiee, M., Maadani, O.

Journal: Canadian Journal of Civil Engineering

Year: 2022

 

 

 

 

 

 

 

 

Ms. Aziza Atbir | Civil Engineering-Materials | Women Researcher Award

Ms. Aziza Atbir | Civil Engineering-Materials | Women Researcher Award

Mohammed V University Mohammadia School of Engineering Rabat Morocco,

Profile 

Orcid

Early Academic Pursuits 🎓

Aziza Atbir’s academic journey began in Morocco, where she showed an early aptitude for the sciences. She completed her secondary education at Tarik Ben Zayad high school in Azrou, earning a diploma in Experimental Sciences with a focus on Physical Sciences. This achievement was marked by high honors, paving the way for her entry into higher education. In 2013, she pursued a General University Degree in Chemistry Sciences from Moulay Smail University, followed by a Fundamental Undergraduate Degree in Chemistry Sciences at Mohamed I University in Nador in 2014. Continuing her upward trajectory, Aziza completed a Master’s degree in Materials Sciences at Ibn Tofail University, Kénitra, in 2017, where she graduated with honors. This extensive academic preparation laid a strong foundation for her future research pursuits. Currently, Aziza is completing her PhD at Mohammadia School of Engineering, focusing on Civil Engineering and Building Materials, at Mohammed V University, Rabat.

Professional Endeavors and Research Focus 🧪

Aziza’s professional experience reflects her dedication to the development of sustainable and innovative materials. Her work centers on bio-sourced materials for thermal insulation and energy efficiency in buildings, making her an important player in the fight against climate change. Her current research is focused on using sheep wool, a locally available and renewable material, as a bio-based composite for energy-efficient insulation. She has worked on optimizing the thermomechanical properties of these materials through innovative approaches such as multi-layer biomaterial designs that combine wool and clay, ensuring both thermal insulation and mechanical strength.

Her work is notable not just for its scientific merit but also for its strong environmental focus. Aziza’s research aligns with circular economy principles, as she emphasizes the importance of using locally sourced, sustainable materials to reduce the carbon footprint of the building industry. Her research projects have also explored natural anti-parasitic treatments for sheep wool, aiming to make this material more durable and resistant to moth damage, further enhancing its sustainability.

Contributions and Research Achievements 📚

Aziza has made significant contributions to the field of civil engineering and materials science through both her published works and her participation in national and international scientific events. Her research has resulted in over 10 articles published in indexed journals, including high-impact titles such as Renewable and Sustainable Energy Reviews and Scientific Reports. Her studies have ranged from the optimization of lightweight composite bricks incorporating clay, wool, and cork, to investigating the thermophysical properties of sheep wool in building insulation.

In addition to her published research, Aziza has engaged deeply with the academic community. She has served as a reviewer for multiple Scopus-indexed journals and participated in more than 322 hours of national scientific events, workshops, and conferences. These engagements not only reflect her commitment to advancing knowledge in her field but also demonstrate her role as a thought leader in sustainable material development.

Accolades and Recognition 🏅

Throughout her academic and professional journey, Aziza has been recognized for her outstanding contributions to both science and the broader community. As a student, she graduated with honors at multiple stages of her education, consistently demonstrating her academic excellence. In 2023, she was awarded the opportunity to conduct a prestigious research internship with the bioactive molecules and environment team at the Faculty of Science in Meknes, Morocco. Additionally, her research on sheep wool and energy efficiency has been published in reputable journals, garnering her recognition in the scientific community.

Aziza’s work is particularly notable for its practical applications, with her research findings contributing directly to the development of eco-friendly building materials. Her involvement in various research projects has positioned her as an emerging leader in sustainable construction, and she is a strong candidate for the Women Researcher Award, a testament to her groundbreaking work and dedication to environmental sustainability.

Impact and Influence 🌍

Aziza’s research is contributing to both the academic world and society at large by addressing some of the most pressing challenges of our time—climate change and energy efficiency. Her innovations in bio-sourced building materials represent an essential step towards reducing the environmental impact of the construction industry, which is one of the largest contributors to global carbon emissions. By focusing on renewable resources like sheep wool, Aziza’s work supports the transition to a circular economy, where materials are reused, and waste is minimized.

Moreover, Aziza’s focus on the thermomechanical properties of these bio-based materials ensures that they are not only environmentally friendly but also functional and effective. Her work bridges the gap between sustainability and practicality, ensuring that her innovations can be readily adopted by the construction industry. Through her research, Aziza has become an influential figure in the field of sustainable building materials, inspiring others to pursue similar paths in environmental engineering and material sciences.

Legacy and Future Contributions 🏛️

As she approaches the completion of her PhD, Aziza Atbir’s future is bright. Her work on bio-sourced materials has the potential to revolutionize the building industry, offering a sustainable solution to both thermal insulation and energy efficiency. She is actively seeking post-doctoral opportunities to continue her research and further explore the potential of bio-based composites in construction.

Looking ahead, Aziza’s work is likely to have a lasting impact not only in academia but also in the practical realm of sustainable development. Her contributions to the field will serve as a model for future researchers, and her commitment to using science to solve global challenges ensures that her legacy will continue to grow.

As a researcher, Aziza embodies the qualities of innovation, dedication, and leadership. She has already achieved significant milestones in her career, and her future endeavors will undoubtedly contribute to a more sustainable and energy-efficient world.

Notable Publications

Optimal mix study of sustainable lightweight composite bricks incorporating clay, wool and cork materials using circular economy approaches

Authors: Aziza Atbir, Boukhattem, Abdelhamid Khabbazi, Moha Cherkaoui, Fatima Zohra El Wardi

Journal: Renewable and Sustainable Energy Reviews

Volume: N/A

Year: 2024

Improvement of thermomechanical properties of porous plaster reinforced with a network of Morocco sheep wool skeletons for energy efficiency

Authors: Aziza Atbir, Abdelhamid Khabbazi, Moha Cherkaoui, Khalid Ibaaz, Fatima Zohra El Wardi, Samira Chebli

Journal: Building and Environment

Year: 2023

Physicochemical and thermomechanical performances study for Timahdite sheep wool fibers application in the building’s insulation

Authors: Aziza Atbir, Mhamed Taibi, Badr Aouan, Abdelhamid Khabbazi, Omar Ansari, Moha Cherkaoui, Toufik Cherradi

Journal: Scientific Reports

Year: 2023

Improvement of thermomechanical characteristics of multilayer biomaterial of sheep wool and clay

    • Authors: Aziza Atbir, Moha Cherkaoui, Fatima Zohra El Wardi, Abdelhamid Khabbaz
    • Journal: Materials Today: Proceedings
    • Volume: N/A
    • Issue: N/A
    • Pages: N/A
    • Year: 2022
    • DOI: 10.1016/j.matpr.2022.02.224
    • ISSN: 2214-7853

Study of the thermal and mechanical properties of local clay materials activated with quicklime, Sefrou (Morocco)

Authors: Fatima Zohra El Wardi, Sara Ladouy, Aziza Atbir, Abdelhamid Khabbazi

Journal: Materials Today: Proceedings

Year: 2022