Ramtin Moeini | Energy Production | Best Researcher Award

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Dr. Ramtin Moeini | Energy Production | Best Researcher Award

Associate Professor | University of Isfahan | Iran

Dr. Ramtin Moeini is an Associate Professor in the Department of Civil Engineering at the University of Isfahan, specializing in water engineering, hydraulic systems, and optimization of water and wastewater networks. He earned his B.Sc. in Civil Engineering from Isfahan University of Technology, followed by M.Sc. and Ph.D. degrees in Civil Engineering with a focus on Water Engineering from Iran University of Science and Technology, where his research concentrated on intelligent optimization algorithms for reservoir operation and network design. Dr. Moeini has extensive teaching experience across undergraduate, postgraduate, and Ph.D. programs in subjects including fluid mechanics, hydraulic structures, water resource system analysis, and municipal water management. His professional experience encompasses leading advanced research projects on reservoir operation, water distribution networks, and urban water management, often integrating meta-heuristic algorithms such as ant colony optimization, artificial bee colony, and hybrid computational models. He has authored numerous high-impact publications in internationally recognized journals, contributed to conference proceedings worldwide, and actively participates in research collaborations addressing water resources and hydraulic system optimization. Dr. Moeini has received multiple recognitions for his contributions, holds editorial and reviewer roles in leading journals, and is a member of professional engineering associations. His innovative work in modeling, simulation, and optimization has significantly advanced the design and management of water systems, According to Scopus, his research record includes 848 citations, 48 documents, and an h-index of 16.

Profiles: Scopus | ORCID

Featured Publications

1. (2025). Pressure management and energy production approaches in urban water distribution networks using pumps as turbines. Energy Reports.

2. (2025). Optimal operation of the non-drinking water distribution network considering future conditions: Case study of Isfahan University non-drinking water distribution network. Results in Engineering.

3. (2025). Graph theory-based algorithm to define district metered areas considering hydraulic conditions. Journal of Water Resources Planning and Management.

4. (2025). Quality simulation of dam reservoir using GP model: Case study of ZayandehRoud dam reservoir. International Journal of Environmental Science and Technology

Nursaya Makayeva | Carbon Capture and Storage | Best Researcher Award

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Dr. Nursaya Makayeva | Carbon Capture and Storage | Best Researcher Award

Senior Researcher | Institute of Combustion Problems | Kazakhstan

Nursaya Makayeva is a dynamic educator and analytical chemist from Al-Farabi Kazakh National University, specializing in research and development, quality control, and advanced analytical methods. With several years of experience in academic and research settings, she has contributed significantly to the fields of catalysis, methane decomposition, and sustainable energy solutions. Her expertise bridges both teaching and applied research, making her a valuable contributor to the scientific community.

Professional Profile

ORCID

Education

Nursaya Makayeva pursued her higher education at Al-Farabi Kazakh National University, where she completed her bachelor’s and master’s degrees in chemistry. She continued her academic journey by enrolling in a doctoral program, deepening her expertise in catalysis and advanced chemical processes. Alongside her formal academic qualifications, she gained practical research experience through internships at the Center of Physico-Chemical Methods of Research and Analysis of Al-Farabi KazNU and at the Republican Center for Structural Research in Tbilisi, Georgia. These opportunities enriched her academic foundation by combining theoretical learning with hands-on laboratory practice.

Experience

Her professional career combines teaching, research, and practical application. As an educator, she designed engaging curricula and provided academic support that fostered student growth. In research, she served as a junior researcher at institutions such as the Institute of Combustion Problems and the Center of Physico-Chemical Methods of Research and Analysis, focusing on experimental design, catalytic systems, and advanced laboratory analysis. Skilled in techniques like chromatography, voltammetry, and TPR-H2, she applied these methods to produce reliable scientific outcomes. Her collaborations with senior researchers, contributions to R&D projects, and participation in international conferences further highlight her growing role in the global scientific community.

Research Focus

Nursaya’s primary research interests lie in catalysis, hydrogen production, and carbon utilization, with a particular emphasis on methane decomposition processes. Her studies explore the development and optimization of catalysts, including mono- and bimetallic systems, for efficient energy conversion. She has also investigated the effects of preparation methods and the incorporation of rare earth oxides, such as cerium, on catalyst performance. Her recent contributions extend to sustainable solutions in carbon dioxide utilization, where she has co-authored review studies on catalytic, photocatalytic, and electrocatalytic processes for CO₂ conversion. By addressing the intersection of renewable energy, environmental protection, and advanced materials, her research supports global efforts toward cleaner energy systems and reduced greenhouse gas emissions.

Publication Top Notes

Title: Advancements in catalytic, photocatalytic, and electrocatalytic CO₂ conversion processes: Current trends and future outlook
Year: 2024

Title: Effects of cerium oxide on the activity of Fe-Ni/Al₂O₃ catalyst in the decomposition of methane
Year: 2024

Title: Electrochemical synthesis of Fe-containing composite for decomposition of methane into COx-free hydrogen and nano-carbon
Year: 2022

Title: Effect of Preparation Method on the Activity of Fe₂O₃-NiO/γ-Al₂O₃ Catalyst in Decomposition of Methane
Year: 2022

Conclusion

Nursaya Makayeva exemplifies the qualities of an emerging leader in chemistry, combining strong academic foundations with impactful research and practical applications. Her dedication to advancing catalytic science, her ability to merge teaching with high-quality research, and her collaborative approach to scientific problem-solving highlight her as a deserving candidate for recognition. Through her contributions to methane decomposition, hydrogen production, and carbon dioxide utilization, she has positioned herself at the forefront of sustainable energy research. Her growing body of publications, active participation in international collaborations, and innovative patent demonstrate her potential to continue shaping the field of chemistry with lasting impact.

Marianna Vályi Nagy | Sustainability in Cryogenic Technologies | Best Researcher Award

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Ms. Marianna Vályi Nagy | Sustainability in Cryogenic Technologies | Best Researcher Award

Research assistant at Hungarian University of Agriculture and Life Sciences | Hungary

Marianna Vályi Nagy is a research assistant at the Hungarian University of Agriculture and Life Sciences (MATE), Institute of Agronomy, whose academic journey and professional career have been devoted to advancing sustainable agricultural practices. With a strong foundation in horticultural engineering, plant protection, and agronomy, she has established herself as a dedicated researcher focusing on mixed cropping systems, crop interactions, and climate-resilient agricultural methods. Her work bridges fundamental agricultural sciences with applied research, producing impactful results that contribute both to academic knowledge and to real-world agricultural innovations.

Professional Profile

ORCID

Education

Marianna began her academic journey at Corvinus University in Budapest, where she graduated as a Horticultural Engineer. Her interest in crop science and plant interactions motivated her to pursue further qualifications, and she later obtained a specialized degree in Plant Protection Engineering from the University of Szeged. Her commitment to higher learning led her to doctoral studies at the Hungarian University of Agriculture and Life Sciences, supported by the Young Researcher Training Program. Throughout her academic development, Marianna demonstrated a keen ability to integrate multiple disciplines within plant sciences, aligning her expertise with the pressing challenges of climate change, food security, and sustainable farming systems.

Experience

Marianna’s professional experience is rooted in her contributions to both research and applied agricultural innovation. She began her research career at the National Agricultural Research and Innovation Centre, where she gained valuable experience in experimental design and crop management practices. Later, she joined the Applied Agronomy Research Station, which became part of MATE, and contributed to experiments that combined scientific rigor with industry-driven needs. Over the years, she has participated in numerous commissioned research projects, collaborating with agricultural companies to test crop varieties, seeding strategies, and sustainable cultivation methods. This blend of academic and industry engagement has allowed her to create a research portfolio that is both scientifically robust and practically relevant.

Research Focus

Marianna’s primary research interests revolve around mixed cropping systems, with a particular emphasis on winter wheat–winter pea interactions. She explores the development process of companion crops, analyzing both their quantitative and qualitative characteristics. Her studies extend beyond traditional yield-focused research by considering plant development, interaction dynamics, seeding rates, and variety selection, providing a comprehensive understanding of crop coexistence. These investigations address one of the greatest challenges in modern agriculture: identifying cultivation methods that are environmentally sustainable, resilient to climate change, and adaptable to market fluctuations. Through her research, Marianna contributes to shaping agricultural practices that balance productivity with ecological responsibility.

Publication Top Notes

Title: Yield and Quality Parameters of Winter Wheat in a Wheat–Pea Mixed Cropping System
Authors: Marianna Vályi-Nagy, István Kristó, Melinda Tar, Attila Rácz, Lajos Szentpéteri, Katalin Irmes, Csaba Gyuricza, Márta Ladányi
Summary: This study evaluated wheat–pea intercropping, showing improved grain yield, protein content, and crop resilience, highlighting ecological and economic advantages compared to monoculture wheat cultivation.

Title: Competition Indices and Economic Benefits of Winter Wheat and Winter Peas in Mixed Cropping
Authors: Marianna Vályi-Nagy, István Kristó, Melinda Tar, Attila Rácz, Lajos Szentpéteri, Katalin Irmes, Gergő Péter Kovács, Márta Ladányi
Summary: Research analyzed competition indices and profitability of wheat–pea mixtures, concluding intercropping enhances land-use efficiency and offers greater economic sustainability than sole cropping systems.

Title: The Effect of Foliar Zinc Application on the Leaf Chlorophyll Concentrations and Grain Yields of the Winter Wheat (Triticum aestivum L.) in the Field Experiments of Two Seasons
Authors: Katalin Irmes, István Kristó, Lajos Szentpéteri, Attila Rácz, Marianna Vályi-Nagy, Mária Katalin Kassai, Klára Veresné Valentinyi, Melinda Tar
Summary: Two-season field trials revealed foliar zinc application increased chlorophyll levels and grain yields in winter wheat, emphasizing zinc’s critical role in improving crop productivity.

Title: Effects of Winter Cereals (Triticum aestivum L., Hordeum vulgare L., Triticosecale Wittmack) and Winter Pea (Pisum sativum L.) Intercropping on Weed Cover in South-Eastern and Central Hungary
Authors: Attila Rácz, Marianna Vályi-Nagy, Melinda Tar, Katalin Irmes, Lajos Szentpéteri, Apolka Ujj, Klára Veresné Valentinyi, Márta Ladányi, István Kristó
Summary: Field experiments demonstrated cereal–pea intercropping significantly reduced weed cover, promoting ecological weed management and enhancing sustainability in Hungarian winter cropping systems.

Conclusion

Marianna Vályi Nagy stands out as a promising researcher whose dedication to sustainable agriculture is evident in her academic achievements, applied research, and innovative contributions. Her expertise in mixed cropping systems addresses one of the most urgent agricultural challenges of our time—developing cultivation methods that align with ecological principles while ensuring productivity and resilience. With a growing body of publications, patents, and industry collaborations, she exemplifies the qualities of a forward-thinking researcher who bridges science and practice. Her membership in professional associations and recognition through national research programs further reinforce her position as an emerging leader in agricultural sciences. Marianna’s work holds significant potential to guide future research directions and agricultural policies, making her a strong candidate for the Best Researcher Award.

Ziqu Ouyang | Coal-Fired Power | Best Researcher Award

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Prof. Ziqu Ouyang | Coal-Fired Power | Best Researcher Award

Professor, Institute of Engineering Thermophysics, Chinese Academy of Sciences, China

Professor Ouyang Ziqu is a distinguished Doctor of Engineering and a leading researcher at the Institute of Engineering Thermophysics, Chinese Academy of Sciences (CAS). He is widely recognized for his pioneering work in clean and efficient coal combustion, new combustion theories, and emission control technologies. As an excellent member of the Youth Promotion Association of CAS, Professor Ouyang plays a key role in driving scientific innovation and sustainable energy solutions in China and globally.

Professional Profile

Scopus Profile

Education

Professor Ouyang began his academic journey at the prestigious University of Chinese Academy of Sciences, where he pursued advanced studies in engineering thermophysics. From 2009 to 2014, he undertook rigorous doctoral research, which laid a strong foundation for his future contributions to combustion science and environmental engineering. His education at one of China’s foremost institutions prepared him to become a thought leader in the energy research landscape.

Experience

Following the completion of his doctorate in 2014, Professor Ouyang embarked on a decade-long career at the Institute of Engineering Thermophysics, CAS. He advanced rapidly through academic ranks—beginning as an assistant professor, then associate professor, and eventually achieving full professorship. Throughout this progression, he has consistently demonstrated leadership in research projects, mentoring young scholars, and collaborating across interdisciplinary teams to address critical energy and environmental challenges.

Research Focus

Professor Ouyang has dedicated his career to advancing technologies that enhance energy efficiency while minimizing environmental impact. His primary research focuses on clean coal combustion technology, novel combustion mechanisms, and integrated pollutant emission control. His work has provided significant breakthroughs in understanding and improving the thermodynamics of coal-based energy systems. These contributions are vital for energy sustainability and climate change mitigation, particularly in regions where coal remains a dominant energy source.

Awards & Honors

Professor Ouyang’s groundbreaking work has earned him multiple prestigious accolades. He received the Outstanding Scientific and Technological Achievement Award from the Chinese Academy of Sciences, recognizing his high-impact innovations in combustion technology. Additionally, he was awarded the First Prize of Science and Technology from the Coal Industry Association for his contributions to energy efficiency and emission control. These honors reflect his prominent status in the field and his dedication to research that drives real-world applications.

Publication Top Notes

Experimental Study on Peak Shaving Operations for Efficient Pulverized Coal Combustion and Working Fluid Coordination
Journal: Fuel
Year: 2026
Summary: This study investigates the effects of peak shaving operations on pulverized coal combustion efficiency and working fluid coordination. The experimental results demonstrate how adjusting load and thermal input can stabilize combustion performance under fluctuating grid demands. This research supports dynamic power system integration while maintaining high combustion efficiency.

Corrigendum to: ‘Wide-load Combustion Characteristics of Lean Coal Tangential Preheating Combustion’ [Energy 323 (2025) 135845]
Journal: Energy
Year: 2025
Summary: This corrigendum addresses corrections to a previously published study on wide-load combustion in tangential preheating systems for lean coal. The clarification further emphasizes the system’s performance across variable load conditions and enhances the data accuracy for future modeling and industrial application.

Exploration on Feasibility of Novel Purification-Combustion Technology in Activation, High-Efficiency Combustion and NOx Emission Reduction of Typical Low-Quality Carbonaceous Fuels
Journal: Journal of the Energy Institute
Year: 2025
Summary: This article evaluates a novel purification-combustion technology designed to enhance combustion efficiency and significantly reduce NOx emissions from low-quality fuels. Through activation treatment and staged combustion, the study showcases improved burnout rates and emission performance, providing a pathway for sustainable use of inferior coals.

Experimental Study on Two-Stage Modification, Combustion and NOx Emission Characteristics of Pulverized Coal in a Purification-Combustion Reaction System
Journal: Journal of Thermal Science
Year: 2025
Summary: This research explores a two-stage modification system applied to pulverized coal before combustion. Results reveal improved reactivity and reduced NOx emissions under optimized conditions. The paper provides a detailed reaction mechanism analysis and supports industrial application in retrofitting conventional coal-fired units.

Study on Combustion and NOx Emission Characteristics of Low-Quality Coal with Wide Load Based on Fuel Modification
Journal: Energies (Open Access)
Year: 2025
Summary: Focused on the wide-load combustion behavior of low-quality coal, this open-access study employs fuel modification techniques to maintain combustion stability and minimize NOx formation. It offers a comprehensive examination of the impacts of load variability on thermal performance and environmental output, contributing to flexible power generation strategies.

Wide-load Combustion Characteristics of Lean Coal Tangential Preheating Combustion
Journal: Energy
Year: 2025
Summary: This foundational study introduces a tangential preheating combustion system for lean coal, allowing efficient and stable operation across a broad load range. The research details flame structure, heat transfer patterns, and emission dynamics, making it a valuable reference for scalable clean-coal technology development.

Conclusion

Professor Ouyang Ziqu exemplifies the ideals of scientific innovation, academic excellence, and national service. His work in clean combustion and environmental protection stands at the intersection of cutting-edge research and pressing societal needs. Through his deep commitment to cleaner energy technologies, he contributes to China’s and the world’s sustainable development goals. With a strong academic record, significant real-world impact, and national-level recognitions, Professor Ouyang is a worthy candidate for this prestigious award.

Yuanyuan Ma | Energy Storage | Best Researcher Award

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Dr. Yuanyuan Ma | Energy Storage | Best Researcher Award

Associate Professor, Donghua University, China

Dr. Yuanyuan Ma is a distinguished Associate Professor and Master’s Supervisor at the College of Materials Science and Engineering, Donghua University, and is affiliated with the State Key Laboratory of Advanced Fiber Materials. A rising star in the field of materials science, Dr. Ma has made significant contributions to energy storage, electrocatalysis, and sustainable materials development. Since earning her Ph.D. in 2019, she has demonstrated exceptional leadership in research and innovation, with over 50 SCI-indexed publications, including 29 as first or corresponding author. 📈 Her work has earned her an h-index of 30, a testament to the global impact and recognition of her research.

🔹Professional Profile

ORCID

Google Scholar

🏆Strengths for the Award

  • High Research Productivity:
    Dr. Ma has published 50 SCI papers, with 29 as first or corresponding author in top-tier journals such as Angewandte Chemie International Edition, Advanced Energy Materials, Chemical Society Reviews, and Nano-Micro Letters. This demonstrates her consistent, high-level contribution to cutting-edge research.

  • Research Impact and Recognition:
    An h-index of 30 at her career stage is an impressive metric, reflecting a strong citation record and influence in the field of materials science and energy research.

  • Leadership in Research Projects:
    She has successfully led national and regional research projects, including funding from the National Natural Science Foundation of China and the Natural Science Foundation of Shanghai, indicating her ability to secure competitive grants and lead research teams.

  • Strong Academic Credentials and Progression:
    Earning a Ph.D. from Fudan University, followed by a rapid promotion from Lecturer to Associate Professor at Donghua University, underlines her strong academic background and recognition by her institution.

  • Focused and Relevant Research Area:
    Her research in electrocatalysis, energy storage, and hydrogen production is not only scientifically important but also aligned with global energy and sustainability goals, increasing its practical and societal relevance.

🎓 Education

Dr. Ma earned her Ph.D. in Chemistry from Fudan University in 2019, where she conducted cutting-edge research under the supervision of the esteemed. During her doctoral studies, she developed a strong foundation in electrochemical energy storage, organic-inorganic hybrid materials, and molecular-level material design. Her academic training equipped her with both deep theoretical knowledge and strong experimental skills in advanced materials science.

👩‍🔬 Experience

Immediately after completing her Ph.D., Dr. Ma joined Donghua University as a Lecturer in July 2019. In recognition of her remarkable academic output and research leadership, she was promoted to Associate Professor within a short span—an exceptional achievement in academia. At Donghua, she serves as a Master’s Supervisor, guiding graduate students in breakthrough material innovation. She also plays a key role in managing and executing several national and provincial research projects, including grants from the National Natural Science Foundation of China and the Natural Science Foundation of Shanghai. 🏅

🔬 Research Focus On Energy Storage

Dr. Ma’s research is centered on the design and development of advanced materials for sustainable energy solutions. Her work spans several critical areas of materials science. One key focus is the tailoring of inorganic nanomaterials to achieve high-performance electrocatalysis and energy storage, where she strategically engineers nanostructures to enhance catalytic activity and improve energy efficiency. Another major area involves the molecular-level design of organic electrode materials specifically for aqueous battery applications, aiming to develop safer, more environmentally friendly alternatives to conventional batteries. In addition, Dr. Ma is at the forefront of efforts to innovate water electrolysis systems for clean and efficient hydrogen production, contributing to the advancement of hydrogen as a viable alternative energy source.

📚 Publications Top Notes

Electrocatalytic Reduction of Nitrate – A Step Towards a Sustainable Nitrogen Cycle

Authors: H. Xu, Y. Ma, J. Chen, W. Zhang, J. Yang
Summary:
This highly cited review outlines recent advances in nitrate electroreduction technologies. It discusses catalyst materials, mechanisms, and system designs that enable conversion of nitrate into valuable products like ammonia. The work is a key resource for researchers tackling water pollution and aiming for a sustainable nitrogen cycle.

An Environmentally Friendly and Flexible Aqueous Zinc Battery Using an Organic Cathode

Authors: Z. Guo, Y. Ma, X. Dong, J. Huang, Y. Wang, Y. Xia
Summary:
This pioneering paper presents a safe, flexible zinc-ion battery with an organic cathode, offering a green alternative to conventional batteries. The battery system demonstrates strong performance, stability, and environmental compatibility—ideal for wearable electronics and sustainable storage.

Recent Progress of Rechargeable Batteries Using Mild Aqueous Electrolytes

Authors: J. Huang, Z. Guo, Y. Ma, D. Bin, Y. Wang, Y. Xia
Summary:
This review covers technological and chemical advancements in rechargeable batteries with aqueous electrolytes, focusing on improving safety, cost, and performance. It serves as a guide for future battery development with an emphasis on green and scalable energy systems.

High-Energy Rechargeable Metallic Lithium Battery at −70°C Enabled by a Cosolvent Electrolyte

Authors: X. Dong, Y. Lin, P. Li, Y. Ma, J. Huang, D. Bin, Y. Wang, Y. Qi, Y. Xia
Summary:
This study introduces a lithium-metal battery that operates at extreme cold (−70°C) using a cosolvent electrolyte. The battery maintains high energy density and reliability under frigid conditions, making it a breakthrough for aerospace and military applications.

Residual Chlorine Induced Cationic Active Species on a Porous Copper Electrocatalyst for Highly Stable Electrochemical CO₂ Reduction to C₂⁺

Authors: M. Li, Y. Ma, J. Chen, R. Lawrence, W. Luo, M. Sacchi, W. Jiang, J. Yang
Summary:
This paper develops a chlorine-modified porous copper catalyst that boosts the CO₂ reduction reaction to form C₂⁺ hydrocarbons like ethylene. It offers insights into catalyst design and stability, aiding progress toward carbon capture and utilization technologies.

🏁 Conclusion

Dr. Yuanyuan Ma exemplifies excellence in research, mentorship, and scientific innovation. Her impactful work in the design of sustainable materials and clean energy systems has received wide acclaim, positioning her as a leader in materials science. With a proven track record of high-impact publications, successful research grants, and student supervision, Dr. Ma is not only advancing science but also shaping the next generation of researchers. Her commitment to solving global energy challenges makes her an ideal candidate for any prestigious research or academic award. 🏆🌍

liang zou | Microgrid system | Best Academic Researcher Award

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Mr. liang zou | Microgrid system | Best Academic Researcher Award

professor, Shandong University, China

Professor Zou Liang is a leading scholar in the field of electrical engineering, currently serving as the Director of the Institute of Electrical Theory and New Technology at the School of Electrical Engineering, Shandong University. He holds the titles of professor and doctoral supervisor and has made significant contributions to high voltage and insulation technology. He has been recognized through numerous national and provincial honors, including selection for China’s National Youth Talent Program, designation as a leading talent in innovation and entrepreneurship in Jiangsu Province, and acknowledgment as an outstanding young and middle-aged scholar at Shandong University. He holds key professional roles such as committee member of the China Electrotechnical Society’s Energy Storage Systems and Electromagnetic Compatibility Committees, expert contributor to the “Light of Electric Power” initiative, and serves as director of the Shandong Electrotechnical Society. As an IEEE member and frequent reviewer for prestigious journals, Professor Zou has established a distinguished academic presence nationally and internationally.

Professional Profile

ORCID

🎓 Education

Professor Zou Liang received a comprehensive education in electrical engineering, culminating in a doctoral degree that laid the foundation for his specialized focus in high voltage engineering and new insulation technologies. His academic training emphasized both theoretical and applied research, which he has continuously advanced throughout his career. As an educator, he teaches undergraduate courses such as Fundamentals of Electrical Engineering (High Voltage Section) and Power System Grounding Technology, and a graduate-level course on Online Monitoring and Fault Diagnosis of Electrical Equipment, demonstrating his strong integration of teaching and research.

💼 Experience

From March 2021 to March 2023, Professor Zou served as the Director of the Mobile Program for Electrical Science and Engineering under the National Natural Science Foundation of China. His leadership experience extends to national-level research programs, where he has successfully managed complex, multidisciplinary projects. With over a decade of involvement in electrical engineering innovation, he has coordinated major government and industry-funded projects, collaborated across institutions, and provided technical consulting for the development of cutting-edge power system technologies.

🔬 Research Interests

Professor Zou’s research centers on the high-frequency discharge and electromagnetic optimization of new energy equipment, as well as the regulation and modification of high-performance insulation materials. His work bridges theoretical modeling and practical applications, including micromagnetic simulations, plasma degradation methods, and molecular dynamics studies of advanced composite materials. A pioneer in the field, he is particularly noted for advancing knowledge in nanocrystalline soft magnetic materials and for developing interdisciplinary methodologies that combine physics, materials science, and power systems engineering.

📚 Publications Top Notes

Micromagnetic Simulation of Saturation Magnetization of Nanocrystalline Soft Magnetic Alloys under High-Frequency Excitation

Authors: K. Guo, L. Zou*, L. Dai, et al.
Published in: Symmetry, Volume 14, Issue 7, Article 1443, Year: 2022
DOI: [Available upon request]
Summary:
This paper presents a micromagnetic simulation approach to analyze the saturation magnetization behavior of nanocrystalline soft magnetic alloys when exposed to high-frequency excitation fields.

Molecular Dynamics Simulation of the Influence of Functionalized Doping on Thermodynamic Properties of Cross-Linked Epoxy/Carbon Nanotube Composites

Authors: M. Ding, L. Zou*, L. Zhang, T. Zhao, Q. Li
Published in: Transactions of China Electrotechnical Society, Volume 36, Issue 23, Pages 5046–5057, Year: 2021
Summary:
This research employs molecular dynamics (MD) simulations to evaluate the thermodynamic properties of epoxy/carbon nanotube (CNT) composites subjected to various functionalized doping techniques.

A Review on Factors That Affect Surface Charge Accumulation and Charge-Induced Surface Flashover

Authors: M. Yuan, L. Zou*, Z. Li, L. Pang, T. Zhao, L. Zhang, J. Zhou, P. Xiao, S. Akram, Z. Wang, S. He
Published in: Nanotechnology, Volume 32, Issue 26, Year: 2021
Summary:
This comprehensive review article explores the various physical, chemical, and environmental factors that influence surface charge accumulation and the onset of flashover in insulating materials. The authors categorize the influence of surface morphology, humidity, material defects, electric field distribution, and charge mobility.

Investigation of Non-Thermal Atmospheric Plasma for the Degradation of Avermectin Solution

Authors: Y. Lv, L. Zou*, H. Li, Z. Chen, X. Wang, Y. Sun, L. Fang, T. Zhao, Y. Zhang
Published in: Plasma Science and Technology, Volume 23, Issue 5, Year: 2021
Summary:
This study examines the degradation efficiency of non-thermal atmospheric plasma (NTAP) on avermectin, a commonly used pesticide, in aqueous solutions. The paper analyzes plasma-induced chemical reactions, energy transfer mechanisms, and byproduct formation.

Influence of the External and Internal Factors on Saturation Magnetization Process for Nanocrystalline Alloy

Authors: Liang Zou, Jiale Wu, Zhiyun Han, et al.
Published in: IEEE Transactions on Magnetics, Volume 54, Issue 10, Article 7205708, Year: 2018
Summary:
This paper investigates how both intrinsic factors (such as atomic structure and grain size) and extrinsic conditions (such as applied magnetic field and temperature) affect the saturation magnetization of nanocrystalline magnetic alloys.

🔚 Conclusion

Professor Zou Liang’s academic and research excellence, coupled with his visionary leadership in engineering innovation, marks him as a distinguished contributor to the field of electrical engineering. His work not only addresses critical scientific challenges in high voltage and insulation technology but also offers practical solutions that advance energy system reliability and environmental safety. Through rigorous scholarship, prolific publication, and dedicated service to professional societies, he continues to set a standard for excellence in science, technology, and education.