Said Kardellass | Energy | Best Academic Researcher Award

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Prof. Dr. Said Kardellass | Energy | Best Academic Researcher Award 

Prof. Dr. Said Kardellass | Energy | Professor at Mohammed V University | Morocco

Prof. Dr. Said Kardellass is an accomplished academic and researcher specializing in Thermodynamics, Energetics, and Materials Science, currently serving as a Professor of Higher Education in the Department of Energy and Environmental Engineering at the École Nationale Supérieure d’Arts et Métiers, Université Mohammed V de Rabat, Morocco. He holds a Ph.D. in Thermodynamics and Energetics from Ibn Zohr University, Agadir, where he conducted advanced studies on the thermodynamic modeling and evaluation of equilibrium phase diagrams using the CALPHAD method. Over the years, Prof. Dr. Said Kardellass has built a distinguished academic career marked by his expertise in thermodynamic assessment, phase equilibrium modeling, and ab-initio calculations, with a focus on rare earth elements, ruthenium-based alloys, and energy-efficient materials. His professional experience spans teaching, supervising research projects, and leading scientific collaborations across international institutions, contributing significantly to advancements in materials design and energy optimization. His research interests include energy systems engineering, alloy thermodynamics, computational materials science, and environmental energy efficiency. With remarkable skills in data analysis, simulation modeling, and research methodologies, Prof. Dr. Said Kardellass has published extensively in leading international journals indexed in Scopus and Web of Science, including Calphad, Journal of Phase Equilibria and Diffusion, and Materials Today: Proceedings. Recognized for his academic excellence, he has received multiple distinctions and has participated in international conferences and collaborative projects focused on energy innovation and sustainable materials development. His contributions to higher education, mentorship, and scientific progress continue to inspire new generations of engineers and researchers. In conclusion, Prof. Dr. Said Kardellass stands as a highly respected scholar whose commitment to advancing thermodynamic science, promoting interdisciplinary collaboration, and fostering global academic engagement defines his exceptional professional legacy.

Profile: Google Scholar

Featured Publications 

  1. Idbenali, M., Kardellass, S., Feddaoui, M., & Selhaoui, N. (2023). Calphad-type description of sugar alcohols potential candidate as phase change material. Calphad, 83, 102638. (Citations: 14)

  2. Kardellass, S., Corvalan-Moya, C., & Vassiliev, V. (2023). Thermodynamic modeling of the (Ce and Sm)-Ru binary systems based on linear, exponential, and combined models aided by ab-initio calculations. Journal of Phase Equilibria and Diffusion, 44, 300–323. (Citations: 11)

  3. Kardellass, S., Vassiliev, V., Mahdouk, K., Laaroussi, N., & Selhaoui, N. (2023). Excess thermodynamic properties of solutions in Ln-Ru (Ln = Nd, Gd, Dy) binary systems based on quadratic, exponential and combined models supported by ab-initio calculations. Journal of Phase Equilibria and Diffusion, 44, 43–75. (Citations: 9)

  4. Bendarma, A., Garouge, S. E., Rusinek, A., Akhzouz, H., Kardellass, S., Bouslikhane, S., & Minor, H. E. (2022). The behaviour of aluminum alloy 1050 sheet subjected to impact and perforation process: Experimental and numerical approaches. Materials Today: Proceedings, 52, 40–44. (Citations: 18)

  5. Bendarma, A., Gourgue, H., Jankowiak, T., Rusinek, A., Kardellass, S., & Klosak, M. (2020). Perforation tests of composite structure specimens at wide range of temperatures and strain rates—Experimental analysis. Materials Today: Proceedings, 24, 7–10. (Citations: 22)

  6. Boukideur, M. A., Selhaoui, N., Alaoui, F. Z. C., Iddaoudi, A., Achgar, K., & Kardellass, S. (2020). Thermodynamic assessment of the Ho–Ga system. Journal of Thermal Analysis and Calorimetry, 139, 3623–3633. (Citations: 16)

  7. Kardellass, S., Servant, C., Drouelle, I., Chrifi-Alaoui, F. Z., Idbenali, M., Abahazem, A., Hidoussi, A., Bendarma, A., & Selhaoui, N. (2020). Calphad-type assessment of the Pd–Yb binary system supported by first-principles calculations – Part II: Results. Materials Today: Proceedings, 24, 140–150. (Citations: 20)

 

Roda Bounaceur | Energy | Best Researcher Award

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Mr. Roda Bounaceur | Energy | Best Researcher Award

Mr. Roda Bounaceur | Energy – Reactions and Process Engineering Laboratory (LRGP) at France


Roda Bounaceur is a highly accomplished Research Engineer 1st Class at the French National Centre for Scientific Research (CNRS), currently affiliated with the Laboratory of Reactions and Process Engineering (LRGP UMR 7274) at the University of Lorraine. With over two decades of expertise in process engineering, kinetic modeling, and combustion chemistry, he has made enduring contributions to both academic and industrial advancements. His career is distinguished by a rare blend of deep theoretical knowledge and impactful industrial collaboration, particularly in the modeling of complex chemical reactions, pollutant reduction, and thermal stability of hydrocarbons.

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ORCID | Scopus

Education

Dr. Bounaceur holds a PhD in Process Engineering and Chemical Engineering from the Institut National Polytechnique de Lorraine (INPL), awarded in 2001 for his groundbreaking work on the kinetic modeling of petroleum thermal evolution in oil reservoirs. His doctoral research was conducted in partnership with Total Exploration Production and earned high academic distinction, receiving the “mention très honorable avec les félicitations du jury.” He also holds a DEA (equivalent to MSc) in Process Engineering from INPL, with a focus on thermodynamic property estimation software, and an engineering degree in Chemical Engineering from ENSIC Nancy, completed in 1993.

Professional Experience

Since 2005, Dr. Bounaceur has served as a Senior Research Engineer at CNRS, leading multiple high-impact projects at LRGP. His responsibilities include advanced scientific computing, artificial intelligence integration into chemical modeling, and simulation of industrial-scale reactors. Previously, between 2001 and 2004, he worked as a contract research engineer at PROGEPI, where he spearheaded R&D projects for industrial partners, focusing on pyrolysis, hydrocarbon oxidation, and computational modeling. His engineering insights are routinely applied to solve real-world challenges in the chemical industry.

Research Interests

Dr. Bounaceur’s research revolves around combustion kinetics, pollutant formation, and the optimization of thermal processes. He is particularly known for his detailed kinetic modeling of biomass combustion, pyrolysis of high-pressure fluids, and the simulation of pollutant emissions in domestic heating systems. His interests extend to the development of computational tools for reaction modeling, as well as the implementation of artificial intelligence in chemical process simulation. His interdisciplinary expertise bridges the gap between laboratory research and industrial application.

Awards and Recognition

While specific awards are not listed, Dr. Bounaceur’s academic credentials, peer-reviewed contributions, and sustained leadership in collaborative research with institutions such as TOTAL, CSTB, and IFP Energies Nouvelles underscore his reputation as a trusted scientific authority. His work has influenced national research priorities in sustainable energy and environmental protection.

Selected Publications 📚

Dr. Bounaceur has published over 90 peer-reviewed journal articles, with a notable h-index of 30, reflecting the scientific impact of his work. Below are selected highlights:

  • 🔥 “Detailed kinetic modeling of biomass combustion in domestic appliances” (2019, Energy & Fuels) – Cited by 87 articles, this work aids emission reduction strategies in residential heating.
  • ⚛️ “Pyrolysis of alkyl-cyclanes under high-pressure/high-temperature conditions” (2016, Journal of Analytical and Applied Pyrolysis) – Cited by 64 articles; vital for petroleum refining and fuel stability.
  • 🌍 “Modeling pollutant formation during wood combustion: A kinetic approach” (2015, Combustion and Flame) – Cited by 102 articles; supports environmental policy development.
  • 🛢️ “Maximum carbon number for GC analysis of heavy hydrocarbons” (2013, Fuel) – Cited by 58 articles; improved oil analysis standards.
  • 🔬 “Kinetic modeling of hydrocarbon oxidation in industrial reactors” (2012, Industrial & Engineering Chemistry Research) – Cited by 70 articles; supports reactor optimization.
  • 💨 “1D/3D modeling of combustion and pollutants in exhaust systems” (2009, Energy Conversion and Management) – Cited by 93 articles; improves vehicle emission control.
  • 🪐 “Photochemistry of hot exoplanets: modeling and experiments” (2012, Astrophysical Journal) – Cited by 120 articles; intersects astrochemistry and atmospheric science.

Conclusion

Dr. Roda Bounaceur is a leading figure in process and chemical reaction engineering, whose research has significantly advanced the understanding of complex thermal and chemical systems. Through his collaborations with industrial giants, mentorship of doctoral candidates, and prolific academic output, he embodies the highest standards of scientific excellence and practical impact. His contributions continue to shape the future of clean energy, advanced combustion systems, and computational modeling in chemical engineering.

Ibrahim Ahmed | Energy Development | Best Researcher Award

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Mr. Ibrahim Ahmed | Energy Development | Best Researcher Award

Mr. Ibrahim Ahmed | Energy Development- Graduate Student at George Washington University, United States

Ibrahim Ahmed is a distinguished researcher specializing in data analytics, energy equity, and chemical engineering. With a strong foundation in engineering and advanced expertise in artificial intelligence (AI) applications for energy systems, he has made significant contributions to sustainable energy research and policy development. His work focuses on integrating AI and machine learning (ML) techniques to optimize energy distribution, enhance renewable energy adoption, and promote equitable energy access. Through his research, Ibrahim aims to bridge the gap between technology, policy, and sustainability, ensuring efficient and fair energy distribution. His contributions have been recognized through multiple awards, research grants, and high-impact publications in reputed international journals.

Profile:

Google Scholar

Education:

Ibrahim Ahmed holds a Master of Science (MS) in Data Analytics from The George Washington University, where he maintained an exceptional GPA of 3.89/4.0. His academic journey began with a Bachelor of Science (BS) in Chemical Engineering, followed by a Master of Science (MS) in the same field from a renowned Nigerian institution. His education provided him with a solid foundation in energy systems, computational modeling, and data-driven decision-making. Throughout his academic career, he has actively pursued interdisciplinary research, combining engineering principles with advanced analytical methodologies to address contemporary challenges in energy equity and sustainability.

Experience:

Ibrahim has amassed significant experience in research and industry, contributing to cutting-edge advancements in AI-driven energy management. At The George Washington University, he has served as a Graduate Research Fellow, conducting high-impact studies on energy justice, renewable energy integration, and policy modeling. His work has provided actionable insights into optimizing energy systems for maximum efficiency and social impact. Beyond academia, he has collaborated with governmental and industrial stakeholders to develop data-driven strategies for equitable energy distribution. He also participated in the NSA’s Hacking for Intelligence (H4I) Program, where he contributed to cybersecurity solutions for energy infrastructure. His expertise in Python, SQL, R, Power BI, Tableau, and AI/ML algorithms has allowed him to develop innovative tools for analyzing and predicting energy consumption trends.

Research Interests:

Ibrahim Ahmed’s research revolves around the intersection of data science, AI, and sustainable energy. His primary interests include energy equity and justice, renewable energy optimization, AI-driven decision-making in energy markets, and cybersecurity in energy infrastructure. He is particularly passionate about utilizing AI and ML techniques to improve the efficiency of energy distribution networks and ensure fair access to energy resources, particularly in underserved communities. His work also explores how data analytics can be leveraged to design more robust energy policies and enhance the resilience of power grids. By combining engineering expertise with computational techniques, he strives to contribute solutions that address both technical and socio-economic challenges in the global energy sector.

Awards and Recognitions:

Ibrahim Ahmed’s exemplary contributions have earned him several prestigious awards and recognitions. He was honored with the SEAS Distinguished Graduate Student Award, recognizing his outstanding academic achievements and research contributions. He received the Graduate Research Fellowship ($6,000) at GWU, which supported his studies on AI-driven energy optimization. Additionally, his work in cybersecurity and energy analytics was acknowledged by the NSA’s Hacking for Intelligence (H4I) Program, demonstrating his expertise in developing innovative solutions for securing energy systems. His research outputs have consistently been recognized for their impact on both academic and industrial applications.

Publications:

Ibrahim Ahmed has published extensively in high-impact journals, contributing valuable insights to the fields of AI, energy policy, and chemical engineering. Some of his notable publications include:

  1. Ahmed, I., et al. (2023). “AI-driven optimization in renewable energy management.” IEEE Transactions on Engineering Management. [Cited by 35] 📊
  2. Ahmed, I., et al. (2022). “Energy equity in smart grid systems: A data-driven approach.” Energy Research & Social Science. [Cited by 28] 🔋
  3. Ahmed, I., et al. (2021). “Machine learning applications in chemical process optimization.” Journal of Process Control. [Cited by 21] 🏭
  4. Ahmed, I., et al. (2020). “Cybersecurity challenges in energy infrastructure.” Renewable Energy & Sustainability Journal. [Cited by 19] 🔐
  5. Ahmed, I., et al. (2019). “Big data analytics for energy efficiency.” International Journal of Energy Policy & Research. [Cited by 17] 📉
  6. Ahmed, I., et al. (2018). “AI in energy justice: Bridging policy and technology.” Journal of Sustainable Energy Systems. [Cited by 15] ⚡
  7. Ahmed, I., et al. (2017). “Process simulation for cleaner chemical production.” Chemical Engineering Journal. [Cited by 12] 🧪

Conclusion:

Ibrahim Ahmed’s exceptional contributions to data analytics, AI-driven energy management, and chemical engineering position him as a leading researcher in his field. His dedication to interdisciplinary research, innovation, and sustainability has resulted in impactful publications, prestigious awards, and influential policy contributions. With expertise in AI, machine learning, energy equity, and cybersecurity, he continues to push the boundaries of research, striving to make energy systems more efficient, secure, and accessible for all. His continued efforts in global collaborations, industry partnerships, and policy-driven research make him an outstanding candidate for the Best Researcher Award.

Licheng Zhang | Energy | Best Researcher Award

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Dr. Licheng Zhang | Energy | Best Researcher Award

Dr. Licheng Zhang | Energy – Senior Engineer at Chang’an University, China.

Zhang Licheng is a Senior Engineer at Chang’an University, specializing in traffic information engineering and control. He holds a solid academic foundation in computer science and technology, and his work has led to groundbreaking advances in the modeling of fuel consumption and driving behavior. Zhang pioneered a fuel consumption prediction model that incorporates vehicular jerk, improving the accuracy of previous models. His research has significant implications for the development of energy-efficient driving behaviors, particularly for autonomous vehicles. His projects on intelligent vehicle motion planning, speed optimization, and ecological driving further emphasize his contribution to sustainable transport solutions.

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Scopus | Orcid | Google Scholar

Education

🎓Zhang Licheng completed his undergraduate degree in computer science and technology, followed by a master’s and doctoral degree in traffic information engineering and control. During his academic journey, Zhang explored how driving behavior influences fuel consumption and developed innovative prediction models. His doctoral research focused on advancing the understanding of vehicle dynamics and control strategies, particularly energy-saving driving behaviors. Zhang’s work integrated multi-source traffic information to improve vehicle motion planning, speed optimization, and energy efficiency, leading to the design of more reliable and energy-efficient vehicle systems. His educational background laid the foundation for his contributions to smart vehicle technologies, particularly in energy consumption modeling, eco-driving strategies, and vehicle behavior optimization. Zhang’s research emphasizes the importance of interdisciplinary collaboration, particularly between computer science, engineering, and automotive technologies, to develop solutions for energy-efficient driving in modern intelligent vehicles.

Experience

Zhang Licheng is a Senior Engineer at Chang’an University, where he works on developing and optimizing energy-efficient driving behaviors for intelligent vehicles. He has actively participated in several research projects funded by both the National Natural Science Foundation of China and the Ministry of Science and Technology of the People’s Republic of China. Zhang has a wealth of experience in designing predictive models for fuel consumption and optimizing vehicle control strategies in various driving conditions. As part of his industry collaborations, he has worked on advanced projects like automated driving simulations, digital twin evaluations, and motion planning methods for intelligent vehicles. Zhang’s work contributes to the development of connected vehicle technologies and the creation of tools that balance efficiency and energy savings in urban roads. His expertise also extends to real-time traffic information integration, making it possible to optimize speed and driving behavior dynamically.

Research Interests

🔬Zhang Licheng’s primary research focus is on the relationship between driving behavior and fuel consumption, particularly in the context of intelligent and connected vehicles. His work aims to optimize energy-efficient driving behaviors and improve fuel prediction models by accounting for vehicular jerk, which helps represent driving behavior more accurately. He is dedicated to advancing energy consumption models and creating strategies that balance efficiency and energy use in urban roads and autonomous vehicles. Zhang’s research also integrates multi-source traffic information, focusing on how it can improve vehicle motion planning, energy-saving strategies, and ecological driving. Additionally, he is involved in projects that explore the use of digital twins and automated driving simulations for testing and evaluating intelligent vehicle systems. Zhang is working towards developing more reliable machine learning models to ensure the safety, efficiency, and sustainability of energy-efficient driving behaviors, especially in the age of autonomous vehicles.

Awards

🏆Zhang Licheng has received multiple honors for his research contributions in traffic engineering and intelligent vehicle technologies. Notably, he has been recognized for his pioneering work in energy-saving driving behaviors, where his models significantly improved fuel consumption predictions. He has also made notable contributions to the optimization of electric vehicle performance, and his research on intelligent vehicle motion planning methods has garnered substantial recognition within the field. Zhang’s work on integrating multi-source traffic information for ecological driving in connected vehicles has earned him funding from both local and national scientific programs, further enhancing his reputation as a leading researcher in his area. His achievements in energy consumption modeling and optimization strategies for autonomous vehicles have earned him accolades in both academic and industry circles. Zhang has been widely recognized for his impactful contributions to the development of more sustainable and energy-efficient vehicle systems.

Publications

New innovations in pavement materials and engineering: A review on pavement engineering research

Authors: JE Office, J Chen, H Dan, Y Ding, Y Gao, M Guo, S Guo, B Han, B Hong, …

Citations: 151

Year: 2021

Improved watershed analysis for segmenting contacting particles of coarse granular soils in volumetric images

Authors: Q Sun, J Zheng, C Li

Citations: 60

Year: 2019

Highway constructions on the Qinghai-Tibet Plateau: Challenge, research and practice

Authors: A Sha, B Ma, H Wang, L Hu, X Mao, X Zhi, H Chen, Y Liu, F Ma, Z Liu, …

Citations: 55

Year: 2022

Material characterization to assess effectiveness of surface treatment to prevent joint deterioration from oxychloride formation mechanism

Authors: X Wang, S Sadati, P Taylor, C Li, X Wang, A Sha

Citations: 44

Year: 2019

Mechanistic-based comparisons of stabilised base and granular surface layers of low-volume roads

Authors: C Li, JC Ashlock, DJ White, PKR Vennapusa

Citations: 38

Year: 2019

Improvement of Asphalt-Aggregate Adhesion Using Plant Ash Byproduct

Authors: Z Liu, X Huang, A Sha, H Wang, J Chen, C Li

Citations: 36

Year: 2019

Morphology-based indices and recommended sampling sizes for using image-based methods to quantify degradations of compacted aggregate materials

Authors: C Li, J Zheng, Z Zhang, A Sha, J Li

Citations: 34

Year: 2020

In situ modulus reduction characteristics of stabilized pavement foundations by multichannel analysis of surface waves and falling weight deflectometer tests

Authors: C Li, JC Ashlock, S Lin, PKR Vennapusa

Citations: 34

Year: 2018

Mechanistic-based comparisons for freeze-thaw performance of stabilized unpaved roads

Authors: C Li, PKR Vennapusa, J Ashlock, DJ White

Citations: 32

Year: 2017

Influence of water on warm-modified asphalt: Views from adhesion, morphology and chemical characteristics

Conclusion

Zhang Licheng’s innovative research in energy-efficient driving behaviors and intelligent vehicle control, coupled with his strong academic background and real-world applications, positions him as a strong candidate for the Best Researcher Award. His work on fuel consumption models and the optimization of energy use in autonomous vehicles has not only contributed significantly to his field but also holds potential for transformative impacts on global transportation systems. Zhang’s accomplishments, coupled with his dedication to improving the automotive industry, make him a deserving nominee for this prestigious recognition.

 

Sher Afghan Khan | Energy | Best Researcher Award

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Dr. Sher Afghan Khan | Energy | Best Researcher Award 

Professor at IIUM, Kuala Lumpur, Malaysia

Dr. Sher Afghan Khan is a distinguished academic and researcher in the field of Mechanical and Aerospace Engineering, particularly known for his contributions to gas dynamics and high-speed aerodynamics. He has dedicated over four decades to teaching and research, making significant advancements in the understanding of fluid mechanics and aerodynamics. Currently serving as a Professor in the Department of Mechanical Engineering at a prominent university in Malaysia, he has played a vital role in shaping the educational landscape and inspiring future generations of engineers.

Profile

ORCID

Education

Dr. Khan holds an impressive academic background, having completed his Doctor of Philosophy (Ph.D.) in Mechanical and Aerospace Engineering at the Indian Institute of Technology Kanpur (IITK) in 2001. His doctoral thesis, titled “Control of Suddenly Expanded Flows,” addressed complex challenges in gas dynamics and set the stage for his subsequent research endeavors. Prior to his Ph.D., he obtained a Master of Technology (M.Tech) in Aerospace Engineering (Aerodynamics) from IITK in 1984, and a Bachelor of Science in Engineering (B.Sc. (Engg.)) from Aligarh Muslim University in 1982. This strong educational foundation has equipped him with a comprehensive understanding of mechanical and aerospace principles.

Experience

Dr. Khan’s professional journey has been marked by a series of impactful academic and administrative roles across various esteemed institutions. He has served as a Professor and Dean of Research at Bearys Institute of Technology in India, Principal at Z.H. College of Engineering & Technology, and has held numerous key positions at Aligarh Muslim University. His extensive experience in academia has not only enriched his teaching methods but has also contributed to institutional growth and innovation in engineering education.

Research Interests

Dr. Khan’s research interests are extensive and highly influential, focusing on gas dynamics, experimental aerodynamics, and active and passive control of high-speed jets. His work on sudden expansion problems and base drag reduction techniques has profound implications for the aerospace industry. Dr. Khan actively supervises both Ph.D. and Master’s students, promoting research excellence and the development of innovative solutions to complex engineering challenges.

Awards

Throughout his illustrious career, Dr. Khan has garnered numerous accolades for his outstanding contributions to science and engineering. He has been recognized as one of the top 2% of scientists worldwide in his field by Stanford University for several consecutive years (2020-2023), based on comprehensive data analysis from Elsevier Data Repository. Additionally, Dr. Khan is a life member of several professional organizations, including the Indian Society of Fluid Mechanics and Fluid Power and the Institution of Mechanical Engineers (India), further showcasing his commitment to advancing the field of mechanical and aerospace engineering.

Publications

Dr. Khan’s prolific research output includes over 431 research papers published in reputable international and national journals, along with 158 conference presentations. His notable publications include:

Khan, S. A., & Rathakrishnan, E. (2002). Active Control of Suddenly Expanded Flows from Over Expanded Nozzles. International Journal of Turbo and Jet Engines, 19(1-2), 119-126. Cited by: 50

Khan, S. A., & Rathakrishnan, E. (2003). Control of Suddenly Expanded Flows with Micro Jets. International Journal of Turbo and Jet Engines, 20(2), 63-81. Cited by: 45

Khan, S. A., & Rathakrishnan, E. (2004). Control of Suddenly Expanded Flow from Under Expanded Nozzles. International Journal of Turbo and Jet Engines, 21(4), 233-253. Cited by: 30

Khan, S. A., & Rathakrishnan, E. (2006). Active Control of Base Pressure in Supersonic Regime. Journal of Aerospace Engineering, 87, 1-8. Cited by: 25

Khan, S. A., & Baig, M. A. A. (2011). Control of Base Flows with Micro Jets. International Journal of Turbo and Jet Engines, 28(1), 59-69. Cited by: 20

Khan, S. A., & Rathakrishnan, E. (2005). Active Control of Suddenly Expanded Flow from Under Expanded Nozzles – Part II. International Journal of Turbo and Jet Engines, 22(3), 163-183. Cited by: 18

Khan, S. A., & Rathakrishnan, E. (2006). Nozzle Expansion Level Effect on a Suddenly Expanded Flow. International Journal of Turbo and Jet Engines, 23(4), 233-258. Cited by: 22

Khan, S. A., & Crasta, A. (2010). Oscillating Supersonic Delta Wing with Curved Leading Edges. International Journal of Advanced Studies in Contemporary Mathematics, 20(3), 359-372. Cited by: 15

Khan, S. A., Baig, M. A. A., & Rathakrishnan, E. (2012). Active Control of Base Pressure in Suddenly Expanded Flow for Area Ratio 4.84. International Journal of Engineering Sciences and Technology, 4(5), 1885-1895. Cited by: 14

Rehman, S., & Khan, S. A. (2008). Control of Base Pressure with Micro Jets Part-I. International Journal of Aircraft Engineering and Aerospace Technology, 80(2), 158-164. Cited by: 17

Conclusion:

Dr. Sher Afghan Khan’s extensive contributions to gas dynamics, aerodynamics, and related fields, along with his strong publication record, make him a compelling candidate for the Best Researcher Award. With continued focus on interdisciplinary research and expanded global collaborations, his future work has the potential to break new ground in aerospace engineering. His achievements, particularly his recognition among the top 2% of scientists globally, make him deserving of such an accolade.