Dr. Liying Fu | Best Researcher Award

Dr. Liying Fu | Flotation Chemistry – Researcher at Central South University, China

Dr. Liying Fu is a promising researcher at Central South University (CSU), China, specializing in flotation chemistry, sulfide mineral separation, and collector design. With a solid foundation in chemical engineering and materials science, Dr. Fu has made impactful contributions to the development of novel flotation reagents, particularly heterocyclic and hydroxamic acid-based collectors. Her work combines synthetic chemistry, surface science, and environmental engineering to address challenges in mineral processing and resource efficiency.

Academic Profile

Scopus

Education

Dr. Fu’s academic path reflects strong academic rigor and a focused specialization in mineral processing and chemical engineering. She is currently pursuing her Ph.D. in Materials and Chemical Engineering at Central South University (2024–present), building on her M.Phil. in Chemical Engineering and Technology from the same institution (2020–2023). Her undergraduate studies in Applied Chemistry were completed at Jiangxi University of Science and Technology (2016–2020). Throughout her academic career, Dr. Fu has maintained top-tier GPAs and has excelled in advanced coursework including engineering ethics, advanced separation processes, and materials frontiers.

Research Experience

With a research career that began in 2021, Dr. Fu has developed expertise in synthesizing nitrogen-containing heterocyclic compounds, understanding adsorption mechanisms on mineral surfaces, and optimizing flotation conditions for both sulfide and oxide minerals.

• Design of Nitrogen-Containing Heterocyclic Collectors (2024–Present): Developed a series of high-selectivity collectors for Zn/Pb and Zn/Fe separation under acidic conditions. Her work contributed to improved flotation performance and sustainability.

• Thioether Hydroxamic Acid Synthesis (2024): Synthesized and characterized novel hydroxamic acid reagents with enhanced adsorption affinity on oxide minerals, offering a new pathway for improved flotation recovery.

• Master’s Research on Hydroxyalkyl Oxadiazole-Thione Collectors (2021–2023): Demonstrated the selective flotation of galena and sphalerite using a novel surfactant. Investigated collector-mineral interactions using FTIR, XPS, and DFT simulations, leading to reduced lime use and improved environmental metrics.

• Bachelor’s Thesis on Perovskite Oxides (2020): Synthesized DyFeO₃ perovskite materials for electrochemical sensors. Designed a dopamine sensor with high sensitivity and selectivity, addressing interference from biological compounds like uric acid and ascorbic acid.

Research Interests

Dr. Fu’s research interests span:

• Flotation collectors for sulfide and oxide minerals

• Molecular design and mechanism studies of flotation reagents

• Adsorption mechanisms and interfacial chemistry

• Rare earth mineral processing and sustainable flotation technologies
  Her future work aims to integrate novel collector synthesis with green chemistry principles for efficient, selective, and environmentally responsible mineral processing.

Publications

Fu, L., Ahmed, M. M. M., Liu, S., et al. (2025). Hydroxyalkyl Oxadiazole-Thione Surfactants: Preparation, and Clean Flotation Separation of Galena from Sphalerite. (Under Review)

Ahmed, M. M. M., Liu, M., Fu, L., et al. (2025). Separating Galena from Sphalerite with 5-Heptyl-1,3,4-Oxadiazole-2-Thione Chelator and its Flotation Mechanism. (In Revision)

Fu, L., Liu, G., Huang, Y., et al. (2023). Research Progress on Azathione Flotation Collectors. Metal Mine. (Accepted, in Chinese)

Conclusion

Dr. Liying Fu represents a new generation of interdisciplinary researchers in mineral processing, combining deep theoretical insight with practical innovation in flotation chemistry. Her contributions to reagent design, adsorption mechanisms, and environmentally conscious flotation processes underscore her potential as a future leader in the field. As she advances her doctoral research at Central South University, Dr. Fu is poised to make significant strides in sustainable mineral resource utilization and rare earth element recovery, addressing critical challenges in modern materials science and chemical engineering.

Dr. Anicet Kammogne Djoum Nana | Best Researcher Award

Prof. Kammogne Djoum Nana Anicet | Theoretical Condensed Matter Physics – University of Dschang, Cameroon 

Dr. Kammogne Djoum Nana Anicet is an accomplished physicist and researcher in the Department of Physics at the University of Dschang, Cameroon. A dedicated academic, analytical thinker, and emerging voice in quantum theory, Dr. Kammogne has made significant contributions to the understanding of dissipation, interferometry, and spontaneous emission in quantum systems. He is affiliated with international academic platforms such as Scopus and ResearcherID and actively contributes to the development of theoretical condensed matter physics in Africa.

Academic Profile

ORCID

Education

Dr. Kammogne’s academic journey is deeply rooted in the University of Dschang, where he completed both his Master’s and Ph.D. in Physics. His doctoral research, supervised by Prof. Lukong Cornelius Fai and Dr. Nsangou Issofa, explored interferometry, quantum dissipation, and non-resonant spontaneous emission in quantum systems. This work was awarded the highest academic distinction, earning unanimous praise from the examination committee. His studies have laid a solid foundation for his expertise in open quantum systems and their interaction with the environment.

Experience

Dr. Kammogne’s professional experience spans both teaching and research roles within the University of Dschang. He began as a laboratory monitor and later served as a tutor and lecturer, delivering undergraduate and postgraduate courses in electromagnetism, quantum mechanics, solid-state physics, and electrostatics. From 2019 to 2023, he was a core member of the Laboratory of Condensed-Matter, Electronics, and Processing, where he played a central role in curriculum design, mentorship, and collaborative research activities. His dedication to academic excellence and scientific integrity has made him a respected figure among students and faculty alike.

Research Interests

Dr. Kammogne’s research focuses on the theoretical modeling of dissipative quantum systems, spontaneous emission, and interference phenomena in non-resonant environments. His recent work addresses key challenges in quantum level-crossing physics and coherence loss. In 2025, he co-authored two preprints on arXiv: “A Closed-Form Approach to Oscillatory Integrals in Level-Crossing Physics” (with Dr. Maseim B. Kenmoe) and “Effect of Spontaneous Emission on a Tanh Model.” These studies offer novel insights into quantum dissipation mechanisms, with implications for quantum computing, nanophotonics, and next-generation quantum devices.

Awards

Dr. Kammogne received the highest honors for his Ph.D. dissertation, reflecting the depth and originality of his research. He maintains an active presence on scientific platforms such as ResearchGate, Scopus, and ResearcherID. His continued contributions to the field of condensed matter physics have gained recognition within academic networks in Cameroon and internationally. His commitment to scientific progress and student development continues to elevate his standing in the global physics community.

📖Notable Publications

A Closed-Form Approach to Oscillatory Integrals in Level-Crossing Physics – arXiv (2025) – Developed analytical techniques for evaluating oscillatory integrals in quantum level-crossing models.

Effect of Spontaneous Emission on a Tanh Model – arXiv (2025) – Analyzed the impact of spontaneous emission on population dynamics in a hyperbolic-tangent quantum model.

Spontaneous Emission in an Exponential Model – arXiv (2024) – Investigated dissipative quantum transitions in exponential interaction systems.

Non-resonant Exponential Nikitin Models with Decay – Chinese Journal of Physics (2024) – Extended Nikitin-type models to include decay and non-resonant interactions in quantum dissipation studies.

Statistics of Interferograms in Three-Level Systems – Physics Letters A (2022) – Explored statistical properties of interferometric signals in multi-level quantum systems.

Conclusion

Dr. Kammogne Djoum Nana Anicet exemplifies the qualities of a leading theoretical physicist—analytical depth, research innovation, and academic integrity. His contributions to quantum dissipation and interferometry have significant implications for emerging fields like quantum computing and photonics. With continued scholarly engagement, he stands out as a strong nominee for the Best Researcher Award.

Mr. Qinglin Yang| Best Researcher Award

Shanxi Normal University, China

Authour Profile

Orcid

🏫 Early Academic Pursuits

Qinglin Yang embarked on his academic journey with a keen interest in materials science and magnetism, enrolling at the Nanjing University of Aeronautics and Astronautics (NUAA)—a premier Chinese institution known for its rigorous engineering programs. During his postgraduate studies, he delved into magnetic materials and alloy design, laying the groundwork for his future specialization. His academic training at NUAA equipped him with deep theoretical knowledge and practical research skills, particularly in advanced materials characterization and magneto-structural phase transitions. This early academic foundation would later become pivotal in his contributions to magnetic materials research.

👨‍🔬 Professional Endeavors

Currently serving as a Soft Magnetic Materials R&D Engineer at Hunan Special Metal Materials Co., Ltd., Qinglin Yang plays a critical role in the development of advanced magnetic materials with high performance for industrial and technological applications. Since joining the company in December 2023, he has been involved in cutting-edge research focused on enhancing the efficiency, magnetic properties, and reliability of soft magnetic powder cores.

In his role, Yang contributes to both fundamental research and applied innovation, working closely with production teams and research collaborators to bring lab-scale discoveries to industrial relevance. His responsibilities include materials synthesis, structural analysis, and magnetic testing, ensuring that new formulations meet stringent performance criteria for commercial deployment.

🔬 Contributions and Research Focus

Qinglin Yang’s research primarily revolves around magnetic shape memory alloys (MSMAs), magnetocaloric materials, and soft magnetic composites. His most notable contributions include the systematic investigation of Ni₅₀Mn₃₆₋ₓFeₓIn₁₄ Heusler alloys, where he explored how Fe substitution impacts structural, magnetic, and phase transformation behaviors.Key findings from his work demonstrated that introducing Fe atoms can suppress both martensitic transformation and Curie temperatures, while simultaneously enhancing magnetic hysteresis and the magnetization difference between phases. Notably, the alloy with x = 1 exhibited a reversible magneto-field-induced strain of 0.25% under a 7 Tesla field near room temperature, a promising attribute for sensor and actuator applications. His research emphasizes surface twinning and microstructural control as critical mechanisms for strain recovery and magnetic performance.In addition to MSMAs, Yang is actively engaged in developing high-performance soft magnetic powder cores, aimed at reducing energy losses in electronic components. His work blends theory with practical engineering, enhancing material efficiency in high-frequency applications such as inductors and transformers.

🏆 Accolades and Recognition

While still in the early stages of his professional career, Qinglin Yang has already made his mark in reputable journals such as the Journal of Alloys and Compounds and Applied Physics, showcasing his research to the global materials science community. His paper titled “Influence of Mn→Fe substitution on phase transitions and microstructural evolution in Ni₅₀Mn₃₆₋ₓFeₓIn₁₄ magnetic shape memory alloys” was published in 2025, highlighting him as an emerging researcher in the field.His prior publication in 2022, “Martensitic Transformation and Magnetocaloric Effect of Ni-Mn-In-Ga Ribbon”, further reflects his continued dedication to magnetocaloric materials and solid-state refrigeration technologies.These peer-reviewed publications not only affirm the quality of his research but also establish his reputation as a researcher who bridges the gap between theoretical understanding and industrial implementation.

🌍 Impact and Influence

Qinglin Yang’s work has significant implications for industries ranging from electromagnetic device manufacturing to next-generation refrigeration systems. By contributing to the development of environmentally friendly, energy-efficient magnetic materials, he is helping advance sustainable technologies critical for global energy transition efforts.His ability to translate complex material behaviors into practical engineering solutions makes him an influential figure within his organization and among collaborators. Moreover, his work on magnetostrictive and magnetocaloric materials paves the way for innovations in medical devices, sensors, and green cooling systems.

🔮 Legacy and Future Contributions

As a young and dynamic engineer-researcher, Qinglin Yang is poised to continue making significant advancements in the field of magnetic materials. His future contributions are expected to focus on the commercial scalability of advanced alloys, integration of magnetic composites into electronic systems, and expansion into multifunctional materials with coupled thermal, magnetic, and mechanical properties.In addition to his technical contributions, Qinglin is likely to play a mentoring role in nurturing future talent in applied magnetics and materials research. His career trajectory suggests a strong potential for leadership in both academia-industry collaborations and innovation-driven R&D.His work represents not only academic rigor but also the transformative power of applied research in shaping smarter and more sustainable material solutions.

📖Notable Publications

Influence of Mn→Fe substitution on phase transitions and microstructural evolution in Ni₅₀Mn₃₆₋ₓFeₓIn₁₄ magnetic shape memory alloys 

Author(s): Qinglin Yang, Xiuling Wu, Yang Gu, Yangguang Shi
Journal: Journal of Alloys and Compounds
Year: 2025

 Martensitic Transformation and Magnetocaloric Effect of Ni-Mn-In-Ga Ribbon

Author: Qinglin Yang (庆林 杨)
Journal: Applied Physics
Year: 2022

Prof. Dr. Chang-Long Xia | Best Researcher Award

Shanxi Normal University, China

Authour Profile

Orcid

🎓 Early Academic Pursuits

Dr. Chang-Long Xia embarked on his academic journey at Liyi University, where he completed his Bachelor of Science degree in 2008. With a deep interest in the fundamental nature of matter and light, he continued his higher education at Jilin University, one of China’s top institutions. There, he joined the Institute of Atomic and Molecular Physics and pursued a Ph.D. in physics, which he successfully completed in 2013. His doctoral training provided him with a solid foundation in atomic, molecular, and optical physics, particularly in theoretical modeling and computational approaches. This period laid the groundwork for what would become a highly focused and impactful research career in the field of ultrafast phenomena.

👨‍🏫 Professional Endeavors

Following the completion of his Ph.D., Dr. Xia began his academic career at Shanxi Normal University, where he was appointed as an associate professor in the College of Physics and Information Engineering in July 2013. Over the next six years, he played an active role in both teaching and research, mentoring students and building his academic presence. His growing reputation and research productivity led to his appointment in January 2020 as a postdoctoral researcher at the Innovation Academy for Precision Measurement Science and Technology, under the Chinese Academy of Sciences (CAS). There, he worked at the State Key Laboratory of Magnetic Resonances and Atomic and Molecular Physics in Wuhan, contributing to advanced studies in quantum dynamics and precision spectroscopy. In January 2023, Dr. Xia returned to Shanxi Normal University as a full professor, where he continues to lead research and academic programs in ultrafast science.

🔬 Research Focus and Contributions

Dr. Xia’s research is primarily centered on high-order harmonic generation (HHG), transient absorption spectroscopy, and attosecond science. These areas lie at the heart of modern ultrafast physics, enabling the exploration of electron dynamics on extremely short time scales. His work has pushed the boundaries of HHG, particularly in complex environments such as liquid media, which present new challenges and opportunities compared to traditional gas-phase studies. In his 2022 publication in the Journal of Physics B, titled “Theoretical study of high-order harmonic generation in solutions,” Dr. Xia proposed a new theoretical model to understand how solvents affect the harmonic spectra, contributing to a deeper understanding of nonlinear optical effects in condensed matter. That same year, he co-authored a paper in Physical Review A on the role of charge-resonance states in liquid-phase HHG. This study revealed important mechanisms that influence harmonic generation efficiency, providing insight into how quantum coherence and resonance behavior affect high-frequency light emission.

Earlier in his career, in 2013, Dr. Xia explored the generation of isolated attosecond pulses using circularly polarized laser fields. This work, also published in Physical Review A, highlighted the importance of quantum path control in tailoring attosecond pulse characteristics, which are essential for probing ultrafast electronic processes with high precision. His ongoing studies in transient absorption spectroscopy complement his HHG research, allowing for the real-time observation of quantum states as they evolve under the influence of ultrafast laser fields.

🏅 Accolades and Recognition

Although specific awards are not listed, Dr. Xia’s steady stream of publications in respected journals such as Physical Review A and the Journal of Physics B reflects a high level of peer recognition. His selection for a postdoctoral position at the Chinese Academy of Sciences further confirms his status as a capable and innovative researcher in China’s scientific community. His career trajectory shows both consistency and upward growth, marked by prestigious affiliations and impactful contributions.

🌍 Impact and Influence

Dr. Xia’s work has important implications for the future of attosecond physics and quantum optics. By expanding the theoretical framework of HHG in complex media, he opens new avenues for developing compact ultrafast light sources and enhancing our ability to control quantum systems. His research contributes not only to fundamental science but also to potential applications in ultrafast imaging, spectroscopy, and information processing technologies. As an educator and mentor, he is also influencing the next generation of physicists, fostering an environment of inquiry and innovation at Shanxi Normal University.

🔮 Legacy and Future Contributions

With a strong academic foundation and a growing record of research excellence, Dr. Chang-Long Xia is well-positioned to make lasting contributions to ultrafast science and light–matter interaction studies. His pioneering work in high-order harmonic generation and attosecond pulse shaping continues to advance our understanding of quantum dynamics. As experimental and computational techniques evolve, Dr. Xia’s insights and innovations will undoubtedly play a key role in shaping the development of next-generation quantum technologies and attosecond measurement tools. His academic legacy is being written not only in journal articles but also in the minds of students and collaborators who benefit from his vision and leadership.

📖Notable Publications

Theoretical study of high-order harmonic generation in solutions

Author: Chang-Long Xia
Journal: Journal of Physics B: Atomic, Molecular and Optical Physics
Year: 2022

Role of charge-resonance states in liquid high-order harmonic generation

Authors: Chang-Long Xia, Zheng-Liang Li, Jia-Qi Liu, Ai-Wu Zeng, Ling-Jie Lü, Xue-Bin Bian
Journal: Physical Review A
Year: 2022

 Quantum path control and isolated attosecond pulse generation with the combination of two circularly polarized laser pulses

Author: Chang-Long Xia
Journal: Physical Review A
Year: 2013

 Isolated attosecond pulse generation from a model of Ar⁺ cluster in a synthesized two-color laser pulse

Author: Chang-Long Xia
Journal: Physical Review A
Year: 2012

Control of the high-order harmonics cutoff and attosecond pulse generation through the combination of a chirped fundamental laser and a subharmonic laser field

Author: Chang-Long Xia
Journal: Physical Review A
Year: 2010

Assist. Prof. Dr. Ching-Huan Lee | Best Researcher Award

National Chin-Yi University of Technology, Taiwan

Authour Profile

Orcid

🎓 Early Academic Pursuits

Dr. Alex Chih-Lin Lee began his academic journey in the field of materials science with remarkable consistency and dedication. Completing all three of his degrees—Bachelor’s, Master’s, and Ph.D.—from the prestigious National Cheng Kung University in Taiwan, he displayed a clear and focused vision early in life. Under the mentorship of Prof. Jow-Lay Huang, he developed deep expertise in silicon nitride-based ceramics, spark plasma sintering, and nanocomposite materials. His Ph.D. dissertation on the sintering behavior and mechanical properties of Si₃N₄ nanocomposites showcased not only his academic excellence but also his commitment to advanced materials research. His early fascination with the physical behavior of ceramic materials laid a strong foundation for a career rooted in sustainability, energy solutions, and nanotechnology.

🧪 Professional Endeavors

Dr. Lee’s professional trajectory is marked by a blend of research, teaching, and international collaboration. He currently serves as Project Assistant Professor in the Department of Mechanical Engineering at National Chin-Yi University of Technology while holding adjunct appointments at the National University of Tainan and the Hi-GEM Research Center at NCKU. His previous roles span esteemed institutions, including The Chinese University of Hong Kong, where he contributed to automation engineering research as a Research Associate and Postdoctoral Fellow.

His diverse roles have equipped him with robust interdisciplinary experience in green energy, ceramics, electrochemistry, and materials characterization. Furthermore, his involvement in international exchange programs in Japan and China enriched his global perspective and collaborative capabilities.

🔬 Contributions and Research Focus

Dr. Lee’s research integrates core ceramic science with emerging energy technologies. His evolving focus areas include sustainable ceramic processing, heterogeneous catalysis, and operando material characterization. From analyzing spark plasma sintered structural ceramics to conducting operando electrochemical studies on lithium-ion batteries, his work bridges the gap between traditional material science and futuristic energy systems.

He has actively developed nano-porous ceramic membranes for heat recovery, explored sustainable inorganic reactions, and investigated materials for solid oxide electrolysis cells. His roadmap includes forward-looking domains such as thermoelectrochemical catalysis and fusion reactor materials.

His teaching repertoire reflects this interdisciplinary expertise, covering subjects like Instrumental Analysis, Thermodynamics, Green Energy Engineering, and Nanomaterials.

🏅 Accolades and Recognition

Dr. Lee’s scholarly achievements have been consistently recognized throughout his academic and professional journey. His accolades include the Best Paper Award from the Taiwan Ceramic Society (2011), the Bronze Award for Graduate Students in Materials Sciences at NCKU, and the prestigious Lam Research Thesis Award for outstanding research in materials physics and chemistry.

In 2010, he was awarded the Young Researcher Exchange Program Scholarship by the Interchange Association in Japan, and he secured the Hsu Tzu Jan Creative Scholarship in 2012. These awards validate his intellectual contribution and innovative capacity in materials science.

🌏 Impact and Influence

Dr. Lee’s influence extends beyond academia into applied research and policy-driven projects. He has secured significant funding from institutions like the Industrial Technology Research Institute and the National Science and Technology Council for projects focusing on sustainable ceramic membranes, lithium battery development, and low-carbon energy solutions. His operando analytical techniques have impacted battery design protocols, making him a vital contributor to Taiwan’s green energy research infrastructure.

He has shared his expertise in multiple invited talks and lectures, often focusing on cutting-edge topics such as operando spectroelectrochemical analysis, making him a valued educator and mentor.

🔮 Legacy and Future Contributions

With a clear trajectory toward sustainable innovation and next-generation energy materials, Dr. Lee’s legacy will be one of environmental foresight and technological depth. His ongoing and upcoming projects—ranging from microwave-enhanced solid-state reactions to fusion reactor materials—underscore a commitment to pushing scientific boundaries.

As Taiwan and the broader scientific community pivot towards cleaner energy and smarter materials, Dr. Lee is poised to play a leading role. His teaching, research, and leadership set the stage for lasting contributions to academia and industry alike. 🌱⚙️📘

📖Notable Publications

Crystal Structure Evolution of Piezoelectric Fe-Doped ZnO Film by Magnetron Co-Sputtering Technique

Authors: Ya-Chih Cheng, Sanjaya Brahma, Sean Wu, Jow-Lay Huang, Alex C. H. Lee
Journal: Condensed Matter
Year: 2025

Multi-high valence state metal doping in NiFe hydroxide toward superior oxygen evolution reaction activity

Authors: Fitri Nur Indah Sari, Gally Frenel, Alex Chinghuan Lee, Yan-Jia Huang, Yen-Hsun Su, Jyh-Ming Ting
Journal: Journal of Materials Chemistry A
Year: 2023

Competitive effect of dopant concentration and the size of the nanorods over the electron phonon coupling in Cd doped ZnO nanorod arrays

Authors: Sanjaya Brahma, Ping-Han Lee, Hsin-Hung Chen, Alex Chinghuan Lee, Jow-Lay Huang
Journal: Journal of Physics and Chemistry of Solids
Year: 2021

Annealing of Strontium Titanate Based Thermoelectric Materials by Graphite: Mechanistic Analysis by Spectroscopic and Chromatographic Techniques

Authors: Alex Chinghuan Lee, Mengjie Qin, Haoran Li, Zongmo Shi, Jie Xu, Feng Gao, Yongsheng Chen
Journal: ChemPlusChem
Year: 2020

IR spectroscopic measurement of hydrogen production kinetics in methane dry reforming

Author: Ching-Huan Lee
Journal: International Journal of Hydrogen Energy
Year: 2019