Southwest University of Science and Technology
Author Profile
Scopus
🌱 Early Academic Pursuits
Zhengliang Qin embarked on his academic journey with a keen interest in environmental sciences and resource management, eventually focusing his studies on Mining Engineering at the School of Environment and Resources. Demonstrating a profound dedication to his studies, Qin consistently achieved academic excellence, which earned him several prestigious awards, including the President’s Scholarship, the National Scholarship, and the First-Class Academic Scholarship for Postgraduates. His passion for sustainable resource management became evident early in his academic journey, setting a strong foundation for his future research.
🛤️ Professional Endeavors
As a master’s student, Zhengliang Qin directed his academic focus toward the recycling of solid waste resources and the efficient separation of strategic metals. His research is characterized by a multidisciplinary approach, combining sustainable metallurgy, machine learning, and energy storage materials. Through rigorous research and experimentation, Qin has explored innovative techniques for metal recovery from industrial solid waste, making significant strides in the development of environmentally friendly metallurgical processes.
🔬 Contributions and Research Focus
Zhengliang Qin’s contributions to the field of sustainable metallurgy are both theoretical and practical. His pioneering work in developing the Industrial Solid Waste Metal Resource Recovery Model (ISWMRR) addressed a critical gap in industrial solid waste management by providing a comprehensive theoretical model validated using copper smelting slag. This model not only advanced academic understanding but also offered practical solutions for the efficient recovery of valuable metals.
In addition to ISWMRR, Qin introduced the pellet crack theory, a novel concept that investigates the relationship between pellet cracking and iron content variations during the roasting process. This theory has opened new avenues for optimizing the roasting process in metallurgy, contributing to more efficient metal extraction and resource utilization.
With six research papers published in SCI journals, Qin has established himself as a promising scholar in the field, contributing to the academic community with his insights and innovative approaches.
🏆 Accolades and Recognition
Zhengliang Qin’s commitment to academic excellence has been consistently recognized through numerous awards, including the President’s Scholarship, the National Scholarship, the First-Class Academic Scholarship for Postgraduates, the Outstanding Student Award from the College of Environmental Resources, and the Excellent Academic Performance Award. These accolades are a testament to his dedication, intellectual capabilities, and impactful contributions to the field.
🌐 Impact and Influence
The impact of Zhengliang Qin’s work extends beyond academic publications. His Industrial Solid Waste Metal Resource Recovery Model has provided a robust theoretical framework for the recycling of valuable metals from industrial waste, promoting sustainable practices in the mining and metallurgical industries. Furthermore, his pellet crack theory has enhanced the understanding of metallurgical processes, offering new perspectives for optimizing the roasting process.
His research has not only advanced scientific understanding but has also contributed to practical advancements in sustainable metallurgy, supporting the transition toward a circular economy.
🌟 Legacy and Future Contributions
As Zhengliang Qin continues his academic journey, his vision for sustainable metallurgy remains focused on integrating solid waste resource management, machine learning, and energy storage materials. He aims to establish an innovative research framework that will drive further advancements in the efficient recovery of strategic metals. Qin’s work is likely to inspire future researchers and practitioners in the field of sustainable resource management, leaving a lasting impact on the academic and industrial communities.
Natural resources to power batteries: An advanced methodology for direct synthesis of battery-grade NH₄V₃O₈ through extraction of vanadium from black shale
Authors: Zhengliang Qin, Junhui Xiao, Ziyi Ma
Journal: Separation and Purification Technology
Year: 2025