Ambreen Basheer | Autonomous Control Systems | Best Researcher Award

Ms. Ambreen Basheer | Autonomous Control Systems | Best Researcher Award

University of Science and Technology of China | Pakistan

Author Profile

Scopus

Academic and Research Profile of Ambreen Basheer

Early Academic Pursuits

Ambreen Basheer demonstrated academic excellence from an early stage, excelling in both science and engineering disciplines. She did undergraduate in Electrical Engineering at the University of Punjab reflects her commitment to technical rigor. She pursued her Master's studies in system engineering with a specialization in the control system domain at the Pakistan Institute of Engineering and Applied Sciences (PIEAS), Pakistan. Building on this achievement and her solid understanding of the control system design, she has been awarded the ANSO fellowship for her PhD studies at the Department of Automation, University of Science and Technology of China.

Professional Endeavors

Ambreen's research and professional development are characterized by a focused integration of theoretical rigor, which is suitable for practical application. Her work is
primarily situated in the domain of advanced control systems, with a specific emphasis on developing online learning-based methodologies for complex dynamical systems. She possesses deep expertise in the design and stability analysis of adaptive, robust, and nonlinear controllers, often employing Lyapunov-based techniques. A central thrust of her research involves the synthesis of safe online reinforcement learning optimal control. Her research program is centered on the design and analysis of advanced control systems.

Contributions and Research Focus

Her research trajectory began with her Bachelor’s project on Wireless SCADA for Industrial Automation, exploring innovative applications of sensors, microcontrollers, and wireless communication. This technical curiosity deepened during her MS in Systems Engineering (PIEAS), where she published on multi-agent consensus and adaptive control. Currently, as a PhD scholar at the University of Science and Technology of China, her research centers on Control Theory and Control Engineering, with a strong emphasis on:

  • Online learning-based control systems
  • Safe trajectory tracking
  • Dynamic obstacle avoidance
  • Kernel-based modeling and barrier functions

Her multiple publications in high-impact journals and IEEE conferences underscore her contributions to autonomous systems and resilient control architectures.

Impact and Influence

Ambreen’s work bridges theory with real-world applications, particularly in safe robotics, vehicle automation, and industrial process optimization. Her research has been published in globally recognized journals such as the Journal of the Franklin Institute, IEEE Transaction, and Applied Mathematics and Computation. By integrating machine learning techniques with nonlinear control systems, she has advanced solutions that improve safety, adaptability, and efficiency in dynamic environments

Academic Citations

With multiple journal publications and international conference proceedings, Ambreen’s scholarly contributions are beginning to gain traction in academic circles. Her citations
are steadily growing as her work addresses cutting-edge challenges in control engineering and autonomous systems, marking her as a rising researcher in engineering sciences.

Legacy and Future Contributions

Ambreen’s journey reflects a blend of academic brilliance, professional adaptability, and innovative research. With expertise spanning engineering systems, intelligent control
systems , and control theory, she stands poised to make cross-disciplinary contributions. Her future research is likely to focus on intelligent automation, resilient networked
systems, and AI-driven control applications, contributing to both industrial innovation and academic knowledge.

Conclusion

Ambreen Basheer represents a new generation of scholars who combine technical mastery with applied problem-solving. Her progression from strong academic
foundations to impactful research demonstrates her dedication to advancing knowledge in control systems, automation, and intelligent engineering applications. With her
international academic exposure and growing publication record, she is well-positioned to leave a lasting legacy in research and higher education.

Notable Publications

“Approximate Optimal Trajectory Tracking and Dynamic Obstacle Avoidance for Affine System via Online Learning

  • Author: Ambreen Basheer , Man Li , Jiahu Qin
  • Journal: Journal of the Franklin Institute
  • Year: 2025

“Online Learning Based Control for Mobile Vehicle to Avoid Static Obstacles via Kernel Based Safe Dynamic Model

  • Author: Somia KanwalAmbreen Basheer
  • Journal: Advanced Algorithms and Control Engineering
  • Year: 2024

“A novel approach for adaptive H-infinite leader-following consensus of higher-order locally Lipschitz multi-agent systems

  • Author: Ambreen Basheer; Muhammad Rehan; Muhammad Tufail,;Muhammad Ahsan Razaq
  • Journal: Advanced Mathematics and computation
  • Year: 2024

 

 

Ali Akbar Emamverdian | Manufacturing and Automation | Best Researcher Award

Dr. Ali Akbar Emamverdian | Manufacturing and Automation | Best Researcher Award

Huaqiao University | China

Author Profile

Scopus

Google Scholar

Early Academic Pursuits

Dr. Ali Akbar Emamverdian began his academic journey with a Bachelor of Science in Mechanical Engineering from the Islamic Azad University in 2007. His foundational training in core mechanical principles laid the groundwork for his future exploration into advanced manufacturing systems and automation technologies. Driven by a passion for precision engineering and innovation, he pursued a Master of Science in Mechanical Engineering, specializing in Manufacturing, from the Eastern Mediterranean University in 2013. His academic path culminated with a Ph.D. in Mechanical Engineering, with a concentration in Manufacturing and Automation, awarded by the prestigious Nanjing University of Science and Technology in February 2023.

Professional Endeavors

Throughout his academic and professional career, Dr. Emamverdian has cultivated a strong foundation in both theoretical understanding and applied research in mechanical and manufacturing engineering. He has actively collaborated with multidisciplinary teams and international researchers, playing a key role in several high-impact research projects. His work encompasses experimental studies, simulations, and predictive modeling, particularly focusing on metal forming, tool failure mechanisms, and non-destructive testing methods. Additionally, he has contributed to the design of knowledge-based manufacturing systems, reflecting his engagement with both industry and academia.

Contribution and Research Focus

Dr. Emamverdian’s research is rooted in Mechanical Engineering, with core interests in Manufacturing and Automation, Metal Forming, Failure Analysis, Non-destructive Testing, Material Characterization, Life Prediction, and Optical Scanning. His research portfolio demonstrates a commitment to advancing material behavior analysis under extreme manufacturing conditions. His studies on hot forging tool degradation and life prediction have significantly contributed to the field, especially in enhancing durability and efficiency in manufacturing environments. He also applies modern simulation techniques and neural network modeling to predict tool failure, optimizing performance and minimizing industrial downtime.

Impact and Influence

The scholarly impact of Dr. Emamverdian’s work is evident through his influential publications in high-ranking journals. His research on hot forging dies, microstructural degradation, and optical scanning has provided critical insights into the lifecycle of industrial tools and components. These studies have influenced both the academic community and manufacturing industries by offering practical solutions to long-standing engineering challenges. His work is often cited for its innovative approach, bridging the gap between theoretical research and practical application.

Academic Cites

Dr. Emamverdian’s research has been recognized and cited across multiple peer-reviewed journals, underscoring its significance in the fields of manufacturing engineering and material science. Notable publications include his 2021 study in the Journal of Materials Research and Technology on wear and deformation in H21 steel dies, and his review on forging tool failure mechanisms in Engineering Failure Analysis. His collaborative paper, slated for 2025, integrates advanced technologies such as optical scanning and neural network modeling, reinforcing his reputation as a forward-thinking researcher.

Legacy and Future Contributions

With a solid academic foundation and a proven track record in applied research, Dr. Emamverdian is poised to become a leading figure in mechanical and manufacturing engineering. His work has not only advanced technical understanding but also introduced novel methodologies for tool life prediction and material behavior assessment. As industries increasingly rely on automation, data-driven modeling, and non-destructive evaluation, his research is expected to shape the next generation of intelligent manufacturing systems. He continues to mentor students and collaborate internationally, ensuring a legacy of innovation and excellence in mechanical engineering.

Other Notable Highlights

  • Book Publication: Dr. Emamverdian authored a scholarly book titled "Design of Competency: Capability Modeling-Based Information and Knowledge Model for Manufacturing System", showcasing his leadership in integrating knowledge management within manufacturing frameworks.

  • Interdisciplinary Collaboration: His work with global researchers from China, Europe, and the Middle East emphasizes his collaborative and cross-cultural research competence.

  • Emerging Technologies: His use of optical scanning and neural networks in predictive modeling places him at the forefront of modern engineering techniques.

Notable Publications

"Prediction of the main degradation mechanisms in a hot forging steel die: Optical scanning, simulation, microstructural evolution, and neural network modeling

  • Author: A Emamverdian, C Pruncu, H Liu, A Rahimzadeh, L Lamberti
  • Journal: Journal of Materials Research and Technology
  • Year: 2025

"Corrigendum to “Deformation and wear in a H21 (3Cr2W8V) steel die during hot forging: simulation, mechanical properties, and microstructural evolution

  • Author: AA Emamverdian, Y Sun, C Chunping
  • Journal: Journal of Materials Research and Technology
  • Year: 2022

"The interaction of vortices induced by a pair of microjets in the turbulent boundary layer

  • Author: MJ Pour Razzaghi, C Xu, A Emamverdian
  • Journal: Journal of Visualization
  • Year: 2022

"Deformation and wear in a H21 (3Cr2W8V) steel die during hot forging: Simulation, mechanical properties, and microstructural evolution

  • Author: AA Emamverdian, Y Sun, C Chunping
  • Journal: Journal of materials research and technology
  • Year: 2021

"Current failure mechanisms and treatment methods of hot forging tools (dies)-a review

  • Author: AA Emamverdian, Y Sun, C Cao, C Pruncu, Y Wang
  • Journal: Engineering Failure Analysis
  • Year: 2021