Xinxin Zhao | Engineering and Technology | Best Researcher Award

Xinxin Zhao | Engineering and Technology | Best Researcher Award

Dr Xinxin Zhao, School of Metallurgy, Northeastern University, China

Dr. Xinxin Zhao appears to be a strong candidate for the Best Researcher Award based on the following considerations.

Publication profile

Scopus

Research Focus and Innovations

Dr. Zhao specializes in the comprehensive utilization of metallurgical mineral solid waste and non-traditional aluminum resources. Her innovative approach involves the chlorination-oxygen pressure conversion method to extract valuable elements from low-grade bauxite, which addresses the challenges faced by traditional Bayer process treatments. This novel method not only enhances the exploitation of aluminum resources but also contributes to waste reduction and resource efficiency.

Notable Contributions

Co-Extraction of Aluminum and Silicon: Dr. Zhao’s work on the carbochlorination process of low-grade bauxite, published in Materials (2024), focuses on the extraction kinetics and valuable element recovery. Synergistic Extraction from Fly Ash: In her recent publication in the Journal of Sustainable Metallurgy (2024), she explores the extraction of valuable elements from high-alumina fly ash using carbochlorination, showcasing her contributions to sustainable metallurgy. Review on Chitosan Composites: The review article in Polymer Bulletin (2022) by Zhao and colleagues highlights advances in chitosan and its composites, emphasizing her diverse research interests and impact in material science.

Support and Recognition

Dr. Zhao’s research is supported by major funding bodies, including:

  • National Key Research and Development Program of China
  • National Natural Science Foundation of China
  • Cross-Integration and Collaborative Development Project of Northeastern University
  • Natural Science Foundation Joint Fund of Liaoning Province

Research Output and Impact

Her publications span several high-impact journals and include both original research and reviews, reflecting her active engagement in the academic community. Notably, her work on chitosan membranes and aluminum dross treatment has received considerable citations, indicating its significance and influence.

Summary

Dr. Xinxin Zhao’s innovative methodologies, substantial contributions to resource utilization, and strong support from prestigious funding agencies make her a deserving candidate for the Best Researcher Award. Her research not only advances scientific knowledge but also offers practical solutions for sustainable resource management.

Publication top notes

Co-Extraction of Aluminum and Silicon and Kinetics Analysis in Carbochlorination Process of Low-Grade Bauxite

Synergistic Extraction of Valuable Elements from High-Alumina Fly Ash via Carbochlorination

Review on preparation and adsorption properties of chitosan and chitosan composites

Removal of Fluorine, Chlorine, and Nitrogen from Aluminum Dross by Wet Process

Study on Water Model Experimental of Waste Circuit Board Treatment by Top-Blowing Bath Smelting Method

Research Progress of Chitosan Membranes in Pervaporation Separation 

 

Ming-Yen Wei | Engineering and Technology | Best Researcher Award

Ming-Yen Wei | Engineering and Technology | Best Researcher Award

Assist Prof Dr Ming-Yen, Wei National Formosa University, Department of Electrical Engineering, Taiwan

Assist. Prof. Dr. Ming-Yen was born in Taichung City, Taiwan 🇹🇼 on April 20, 1983. He earned his Bachelor’s and Master’s degrees in Electrical Engineering from National Formosa University in 2005 and 2007, and his Ph.D. from National Taiwan University of Science and Technology in 2012 🎓. After a decade in industrial technical roles, he joined National Formosa University as an Assistant Professor in early 2023 👨‍🏫. His research interests include motor drive control, embedded systems, control theory applications, mechatronics, and robotics 🤖⚙️.

Publication profile

Scopus

Research focus

Dr. Ming-Yen Wei’s research primarily focuses on the design, control, and implementation of advanced motion control systems and platforms. His work encompasses the development of servo control systems, multi-axis motion chairs, and flight simulators, utilizing CAN bus and microcontroller technologies. Additionally, he has contributed to the creation of motion-cueing algorithms and inverse kinematics for six degrees of freedom (6DoF) platforms. His research has significant applications in robotics, aerospace, and virtual reality simulations, showcasing innovations in precision motion control and system integration.

Publication top notes

Design and Control of a Three-Axis Motion Servo Control System Based on a CAN Bus

Design and Implementation of a New Training Flight Simulator System

Design and Control of a Multi-Axis Servo Motion Chair System Based on a Microcontroller

Design of a DSP-Based Motion-Cueing Algorithm Using the Kinematic Solution for the 6-DoF Motion Platform

Design and implementation of inverse kinematics and motion monitoring system for 6dof platform

Optimal Control-based Motion Cueing Algorithm Design for 6DOF Motion Platform

Design and Implementation of the Inverse Kinematics and Monitoring Module for Six-axis Crank Arm Platform

Design, Analysis, and Implementation of a Four-DoF Chair Motion Mechanism