Muhammet Emre Sanci | Robotics | Innovative Research Award

Dr. Muhammet Emre Sanci | Robotics | Innovative Research Award 

Dr. Muhammet Emre Sanci | Robotics | Istanbul Technical University at Turkey

Robotics expertise forms the foundation of the academic and research journey of Dr. Muhammet Emre Sanci, whose professional path seamlessly blends advanced theoretical knowledge with applied innovation in intelligent systems, nonlinear control, autonomous technologies, and UAV swarm intelligence. Dr. Muhammet Emre Sanci completed his PhD in Mechatronics Engineering at Istanbul Technical University, funded by the Ministry of Education Turkiye, where his thesis focused on adaptive inverse optimal controller design for nonlinear non-affine systems using machine learning methods. He also earned an MSc (Hons) in Electrical and Electronics Engineering at Pamukkale University, focusing on model-based control and autonomy in magnetic levitation systems, and previously completed a BE (Hons, 1st) in Electrical and Electronics Engineering at Anadolu University, where he compared fuzzy PID and PI controllers for DC microgrid energy systems. Adding multidisciplinary strength to his robotics vision, he studied Physics at Vilnius University through Erasmus+ mobility and completed BSc (Hons, 1st) in Physics at Abant Izzet Baysal University. Professionally, Dr. Muhammet Emre Sanci served as a Postdoctoral Fellow at the University of Idaho, advancing research in autonomous robotics, adaptive optimal control, multi-drone swarming systems, and agricultural automation. His work included adaptive disturbance rejection-based fuzzy PID control for UAV swarms, deep learning-based greenhouse automation, irrigation distribution modeling under heterogeneous soil conditions, and drone-based pest management systems, while providing data-driven modeling, algorithm development, and comprehensive documentation for large-scale research initiatives. Earlier, he served at Istanbul Technical University as Teaching & Research Assistant in Control and Automation Engineering, contributing to intelligent control, UAV-based autonomous mine sweeping, multi-agent local path planning, velocity obstacle avoidance, and neural network plus SVR-based nonlinear non-affine system identification strategies. His earlier experience at Pamukkale University integrated Robotics with materials and machining optimization, focusing on magnetic levitation system modeling and composite machining surface roughness prediction. He has extensive teaching expertise across multiple modules including Control Systems, Mechatronics, Real-Time Embedded Systems, Linear Algebra, Probability Theory, Microcontroller Systems, State-Space Methods, Intelligent Systems, Deep Learning, Hardware-in-the-Loop, Electronic Instrumentation, MATLAB Programming, and more, supporting robotics education at undergraduate and postgraduate levels. His research interests remain deeply rooted in Robotics, nonlinear intelligent control, adaptive UAV swarming, multi-agent autonomy, artificial neural networks for system identification, optimal control theory, and real-time embedded computation. His core research skills include nonlinear model design, optimal robotics controller development, multi-UAV coordination, intelligent system modeling, path-planning algorithms, machine learning implementation, and multi-environment dynamic optimization. His innovation has been supported by major competitive grants from national and international science foundations, including drone-based sensing system development for infrastructure inspection and UAV optimization technology for autonomous missions. His excellence is reflected through distinguished graduation achievements, academic honors, international research scholarships, and best presentation recognitions. In conclusion, Dr. Muhammet Emre Sanci stands as a robotics-focused scholar whose interdisciplinary expertise, highly adaptive control systems research, and forward-thinking approach to autonomous UAV swarming technologies significantly advance the global state-of-the-art in intelligent engineering systems, making him an invaluable contributor to emerging frontiers in Robotics.

Profile: Google Scholar

Featured Publications 

Sanci, M. E., Halis, S., & Kaplan, Y. (2017). Optimization of machining parameters to minimize surface roughness in the turning of carbon-filled and glass fiber-filled polytetrafluoroethylene. 2017, 6 citations.
Sanci, M. E., & Günel, G. Ö. (2024). Neural network based adaptive inverse optimal control for non-affine nonlinear systems. 2024, 5 citations.
Sanci, M. E., Uçak, K., & Günel, G. Ö. (2023). A novel adaptive LSSVR based inverse optimal controller with integrator for nonlinear non-affine systems. 2023, 5 citations.
Candan, F., Sanci, M. E., & Li, L. (2024). Vision-based relative navigation and drone swarming control for inspection in GPS-denied environment. 2024, 1 citation.
Sanci, M. E., Halis, S., & Kaplan, Y. (2016). Study on surface roughness of carbon and glass fiber filled polytetrafluoroethylene in turning process. 2016, 1 citation.

 

Zhengquan Piao | Robotics | Best Researcher Award

Dr. Zhengquan Piao | Robotics | Best Researcher Award

Dr. Zhengquan Piao | Robotics | – Engineer at China North Artificial Intelligence & Innovation Research Institute, China

Zhengquan Piao is an emerging researcher in computer vision, autonomous systems, and intelligent detection technologies. His research reflects a growing focus on advanced methodologies such as deep learning, pattern recognition, and sensor fusion. With several peer-reviewed publications and a rising citation profile, Piao is positioning himself as a significant contributor to the fields of intelligent transportation, object detection, and AI-driven robotics. His research emphasizes practical, scalable solutions that address real-world challenges, particularly in vehicle detection, underground mapping, and smart navigation systems.

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Education:

Zhengquan Piao received his academic training in computer science and artificial intelligence, where he developed a strong foundation in machine learning, algorithm design, and control theory. His education likely includes postgraduate study from a research-focused institution, possibly Beijing Institute of Technology (BIT), where he deepened his understanding of computer vision, neural networks, and autonomous systems. This academic background has provided him with the analytical and technical tools essential for his cutting-edge research in object recognition and navigation.

Experience:

Professionally, Piao has gained hands-on experience through a range of academic and technical projects that integrate AI with robotics and automation. He has played key roles in designing object detection architectures, enhancing vehicle perception systems, and developing algorithms for real-time localization in complex environments. His participation in national conferences and collaborations with multidisciplinary teams reflects a well-rounded profile of academic research and practical engineering. Piao’s project involvement also demonstrates his ability to work across domains, including transportation safety, aerial imaging, and intelligent mapping.

Research Interest:

Piao’s research interests center around few-shot learning, domain adaptation, autonomous navigation, and sensor-based object detection. He is especially interested in how to enable machines to learn from limited data in resource-constrained environments. His projects often combine LiDAR, camera fusion, deep neural networks, and unsupervised learning to build intelligent systems capable of operating reliably in both structured and unstructured settings. He is also focused on applications in autonomous driving and underground navigation, where accuracy and robustness are critical.

Awards:

While Zhengquan Piao has not yet received formal individual awards, his contributions have begun to gain traction in the academic community, evidenced by a growing number of citations and involvement in collaborative, government-funded research. His compliance with open-access mandates and continued publication in high-quality venues highlight a dedication to research transparency and academic integrity. These efforts position him well for future recognition and academic honors.

Publications:

📘 “Few-shot traffic sign recognition with clustering inductive bias and random neural network” – Pattern Recognition (2020), cited by 38 articles – proposes a novel few-shot learning model for traffic signs.
📙 “AccLoc: Anchor-Free and two-stage detector for accurate object localization” – Pattern Recognition (2022), cited by 25 – introduces an efficient detection method free of anchor boxes.
📗 “Unsupervised domain-adaptive object detection via localization regression alignment” – IEEE Transactions on Neural Networks and Learning Systems (2023), cited by 20 – focuses on domain adaptation in object detection.
📕 “Anchor-free object detection with scale-aware networks for autonomous driving” – Electronics (2022), cited by 3 – improves detection in self-driving vehicle systems.
📓 “An Intelligent Localization Method for Underground Space Targets Based on the Fusion of Camera and LiDAR” – ICIRAC (2024) – addresses underground localization with sensor fusion.
📒 “An Efficient Compression Method for Collaborative 3D Mapping in Confined Space with Limited Resources” – IEEE Conference on Signal, Information and Data (2024) – introduces 3D data compression methods.
📔 “Downsample-Based Improved Dense Point Cloud Registration Framework” – International Conference on Guidance, Navigation and Control (2024) – proposes improvements to point cloud registration for dense environments.

Conclusion:

In summary, Zhengquan Piao is a promising researcher with a clear trajectory of impactful and innovative work. His focus on real-world challenges, including autonomous vehicle perception, few-shot learning, and sensor fusion, demonstrates both originality and technical depth. With growing academic recognition and a solid portfolio of publications, he has established himself as a rising contributor in AI and robotics. Although still early in his academic journey, Piao’s contributions and collaborative spirit strongly position him as a worthy candidate for the Best Researcher Award.

 

 

 

 

Farzad Hosseinali | Artificial Intelligence | Best Researcher Award

Dr. Farzad Hosseinali | Artificial Intelligence | Best Researcher Award

Doctorate at The George Washington University, United States

Farzad Hosseianli is a Professional Lecturer in Data Science at The George Washington University, specializing in machine learning. He has extensive experience as a Remote Teaching Assistant for online Data Science boot-camps and worked as a Freelance Data Scientist in the Bay Area, focusing on ML/DS projects. His research background includes roles as a Research Assistant at Texas A&M University and Texas Tech University, where he studied correlations in cotton fiber properties.

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Education

Farzad pursued his educational journey with a B.Sc. in Textile Engineering and Fiber Science from Azad University, Shahr Rey Branch, Tehran, Iran, followed by an M.Sc. in Crop Science at Texas Tech University, Lubbock, USA, and a Ph.D. in Biological and Agricultural Engineering at Texas A&M University, College Station, USA. His academic path provided a comprehensive foundation in engineering, agricultural sciences, and data science, essential for his current roles in teaching and research.

Research Focus

Farzad’s research focuses on applying statistical analysis, regression techniques, and computer vision to study physical properties of cotton fibers, particularly in relation to friction characteristics among different varieties. This work aims to enhance understanding and optimize agricultural practices related to cotton cultivation and processing, crucial for improving fiber quality and production efficiency in the textile industry.

Professional Journey

Farzad has held various roles in academia and industry, including:

  • Professional Lecturer in Data Science: Teaching Machine Learning I at The George Washington University.
  • Remote Teaching Assistant: Assisting students in statistics, programming, and machine learning at 2U, an online Data Science boot-camp.
  • Freelance Data Scientist: Developing innovative solutions like Selective Backpropagation and participating in Kaggle competitions in the Bay Area, CA.
  • Research Assistant: Conducting research on cotton fiber properties at Texas A&M University and Texas Tech University, investigating correlations and physical characteristics.

Honors & Awards

Farzad has been recognized for his contributions to research with publications in journals that have impact factors ranging from 4.1 to 8.5. His publications highlight significant findings in cotton fiber friction and related properties, contributing to advancements in agricultural engineering and data science.

Publications Noted & Contributions

Farzad’s research contributions are evident in his publications, such as those in Expert Systems with Applications, Tribology International, and Fibers. These publications delve into the variability and characteristics of cotton fiber friction, providing valuable insights for enhancing fiber quality and performance across various applications.

Variability of fiber friction among cotton varieties: Influence of salient fiber physical metrics
Published in Tribology International in 2018, this paper explores how different physical metrics of cotton fibers influence their frictional properties across various varieties.

Microencapsulation of disperse dye particles with nano film coating through layer by layer technique
Co-authored with M Zandi, SA Hashemi, and P Aminayi, published in the Journal of Applied Polymer Science in 2011. This study investigates the encapsulation of disperse dye particles using nano film coating techniques.

Investigation on the tensile properties of individual cotton (Gossypium hirsutum L.) fibers
This research, conducted during Farzad’s time at Texas Tech University in 2012, focuses on studying the tensile strength properties of individual cotton fibers.

Multiscale Frictional Properties of Cotton Fibers: A Review
Published in Fibers in 2018, this review paper, co-authored with JA Thomasson, summarizes the multiscale frictional properties of cotton fibers, providing an overview of research in the field.

Probing of Nanoscale Friction and Mechanical Characteristics of Cotton Fiber’s Surface
Also published in Fibers in 2019 with JA Thomasson, this study probes the nanoscale friction and mechanical characteristics of cotton fiber surfaces, contributing insights into the material’s properties at a microscopic level.

Research Timeline

Farzad’s research journey spans from his undergraduate studies through to his doctoral studies and professional roles. His progression includes foundational research at Texas Tech University and Texas A&M University, focusing on cotton fiber properties and advanced analytical techniques. This timeline underscores his commitment to addressing complex challenges in agricultural engineering and data science, bridging academic research with practical applications in industry.