Junhyuk Nam | Distributed Energy System | Best Researcher Award

Mr. Junhyuk Nam | Distributed Energy System | Best Researcher Award

Junhyuk Nam | Soongsil University | South Korea

Mr. Junhyuk Nam is an emerging researcher in the field of electrical engineering, specializing in distribution system operations, voltage stability analysis, and the integration of distributed energy resources (DERs). His research expertise extends to virtual power plant (VPP) platform design, economic analysis, and data-driven power system studies utilizing advanced machine learning techniques such as logistic regression. With a growing publication record that includes multiple papers in high-impact international and domestic journals such as Energies, IEEE Access, and The Transactions of the Korean Institute of Electrical Engineers (KIEE), he has contributed valuable insights into the assessment of voltage margins, optimization of renewable energy integration, and the mitigation of grid challenges associated with electric vehicle (EV) charging and photovoltaic (PV) penetration. His collaborative research engagements with leading national institutions—including the Korea Institute of Energy Technology Evaluation and Planning, the Korea Energy Research Institute, and the Korea Electrotechnology Research Institute—reflect his interdisciplinary approach and commitment to advancing sustainable energy solutions. Mr. Nam’s work has earned several prestigious awards recognizing his excellence in academic research and contributions to the development of innovative strategies for enhancing power system reliability and efficiency. With a citation count indicating growing international recognition, his research continues to inform both academia and industry on practical pathways to achieving stable and economically viable smart grid systems. His technical proficiency in tools such as OpenDSS and Python further strengthens his ability to bridge theoretical modeling with real-world system applications. Through continued innovation and collaboration, Mr. Nam is poised to make a lasting impact on the global transition toward intelligent, data-driven, and resilient energy infrastructures.

Profiles: Scopus | ORCID

Featured Publications

1. J.-H. Nam, S.-J. Park, D.-I. Cho, Y.-J. Cho, and W.-S. Moon, “Assessing the Suitability of Distributed Energy Resources in Distribution Systems Based on the Voltage Margin: A Case Study of Jeju, South Korea,” IEEE Access, 2025.

2. J.-H. Nam, D.-I. Cho, Y.-J. Cho, and W.-S. Moon, “Determination of Voltage Margin Decision Boundaries via Logistic Regression for Distribution System Operations,” Energies, 2025.

Mr. Junhyuk Nam’s research advances the stability and efficiency of modern power systems through innovative analysis of distributed energy resources and voltage management. His work supports the global transition toward sustainable, data-driven smart grids, contributing to cleaner energy integration and enhanced grid reliability for future energy infrastructures.

Lun Yang | Energy Materials | Best Researcher Award

Dr. Lun Yang | Energy Materials | Best Researcher Award

Deputy Dean | Hubei Normal University | China

Dr. Yang Lun is an Associate Professor, Vice Dean, and Master’s Supervisor at the Institute of Scientific Research and Development, Hubei Normal University, and serves as Deputy Director of the Hubei Key Laboratory of Photoelectric Conversion Materials and Devices. He earned both his Bachelor’s and Doctoral degrees in Physics from Nanjing University, establishing a strong foundation in condensed matter physics, artificial intelligence, machine learning, and data science. Dr. Yang has demonstrated outstanding leadership in academia and administration, holding key positions in provincial and municipal committees, leading an Excellent Young and Middle-Aged Science and Technology Innovation Team, and serving as a technology advisor for small, medium, and micro enterprises in Hubei Province. Since joining Hubei Normal University, he has presided over numerous significant projects, including national and provincial research initiatives, industry-university collaborations, and teaching reform programs, while also contributing to high-impact research through over fifty SCI publications in international journals. His scholarly work spans semiconductor optoelectronic technology, condensed matter physics, and applied computational methods, with a strong record of mentoring students and developing professional curricula. Recognized for his academic and professional excellence, Dr. Yang has been appointed to several provincial science and technology leadership roles, participated in national research projects, and received multiple talent program selections for innovation and entrepreneurship. His contributions reflect a distinguished record of research leadership, educational impact, and professional service, positioning him as a leading figure in his field.

Profiles: Scopus 

Featured Publications

1. Enhanced thermoelectric properties in Cu12Sb4S13 tetrahedrite by incorporation of carbon-based nanoparticles. Vacuum, 2025.

2. Enhancing photoresponsivity of filterless narrowband photodetectors based on 2D perovskites by engineering a gradient bandgap. Optics and Laser Technology, 2025.

3. Precisely tailoring the d-band center of nickel sulfide for boosting overall water splitting. Applied Catalysis B: Environmental, 2024.

4. Five-level anti-counterfeiting based on versatile luminescence of tri-doped double perovskites. Nano Research, 2024.

5. Complementary multisite turnover catalysis toward superefficient bifunctional seawater splitting at ampere-level current density. Advanced Materials, 2024.

Jing Li | Energy | Best Researcher Award

Assoc. Prof. Dr Jing Li | Energy | Best Researcher Award

Professor at Chongqing University, China

Dr. Jing Li is an Associate Professor at the School of Energy and Power Engineering, specializing in micro and nanoscale heat transfer, phase change energy storage, and thermal management materials. She earned her Ph.D. in Power Engineering and Engineering Thermophysics from the University of Science and Technology Beijing in 2015. With over 50 research publications, including 25 indexed in SCI, she has made significant contributions to the field. She has led and participated in numerous national and provincial research projects, including those funded by the National Natural Science Foundation of China and the China Postdoctoral Science Foundation. Her research focuses on developing advanced thermal management solutions using phase change materials and nanomaterials. Dr. Li’s work has broad applications in energy efficiency and sustainability. With a strong track record in securing research funding and publishing high-impact studies, she is a key figure in advancing energy storage and heat transfer technologies.

Professional Profile 

Scopus Profile

Education

Dr. Jing Li holds a Ph.D. in Power Engineering and Engineering Thermophysics from the University of Science and Technology Beijing, which she earned in 2015. Her doctoral research focused on advanced thermal management, energy storage, and nanoscale heat transfer, laying a strong foundation for her future contributions to these fields. Prior to that, she completed her Bachelor of Engineering (B.E.) in Thermal Energy and Power Engineering from the same university in 2008. During her undergraduate studies, she developed a keen interest in thermophysical properties and energy utilization, which later guided her research trajectory. Her academic journey reflects a consistent focus on energy systems, phase change materials, and micro/nanoscale heat transfer, equipping her with the expertise to lead innovative research projects in these domains. With a strong educational background from a prestigious institution, Dr. Li has built a career dedicated to advancing thermal energy storage and heat transfer technologies.

Professional Experience

Dr. Jing Li is an Associate Professor at the School of Energy and Power Engineering, Chongqing University. She earned her Ph.D. in Power Engineering and Engineering Thermophysics from the University of Science and Technology Beijing in 2015. With extensive experience in thermal energy research, she has been actively involved in multiple national and provincial research projects, including those funded by the National Natural Science Foundation of China and the China Postdoctoral Science Foundation. As a principal investigator and key research personnel, she has contributed to advancements in heat transfer, phase change energy storage, and nanoscale thermophysics. Dr. Li has also collaborated with industrial and academic institutions on energy-efficient technologies, furthering the applications of her research in practical engineering fields. Her dedication to innovative heat transfer solutions and her leadership in research projects have established her as a respected expert in energy and thermal physics.

Research Interest

Dr. Jing Li’s research primarily focuses on micro- and nanoscale heat transfer, phase change heat storage, and energy cascade utilization. Her work explores advanced heat storage materials, thermophysical properties, and near-field radiation effects, contributing to the development of high-efficiency thermal management systems. She has extensively studied multiphase flow heat transfer and the application of nanomaterials in enhancing thermal conductivity. Her recent research includes molecular dynamics simulations of composite phase change materials, graphene-enhanced thermal properties, and experimental studies of thermal diodes. Through her interdisciplinary approach, she bridges fundamental physics with practical applications in industrial waste heat recovery, electronics cooling, and renewable energy systems. Dr. Li’s contributions to energy-efficient materials and next-generation thermal management technologies provide valuable insights for sustainable energy solutions, making her research highly relevant to modern engineering and environmental challenges.

Award and Honor

Dr. Jing Li has received multiple awards and honors in recognition of her contributions to energy research and heat transfer studies. She has been awarded research grants from prestigious institutions such as the National Natural Science Foundation of China and the China Postdoctoral Science Foundation. Her work on phase change materials and nanoscale heat transfer has been recognized in leading scientific journals, where she has published over 50 research papers, many indexed in SCI and EI. Additionally, she has been acknowledged for her outstanding research contributions through provincial and national talent programs, including the Chongqing Talent Plan. Dr. Li’s expertise in thermal energy storage has earned her invitations to international conferences as a keynote speaker and panelist. Her achievements not only highlight her excellence in academic research but also emphasize her impact on advancing energy-efficient technologies for industrial and environmental applications.

Conclusion

Dr. Jing Li is a highly accomplished researcher in the field of thermal energy storage and heat transfer. With a strong academic background, extensive research experience, and numerous high-impact publications, she has made significant contributions to advancing energy-efficient materials and thermal management systems. Her work on phase change materials, nanoscale heat transfer, and molecular dynamics simulations has provided valuable insights into next-generation energy technologies. Through leadership in research projects and active collaboration with industry, she continues to bridge the gap between fundamental science and practical applications. Her recognition through national and provincial awards further underscores her influence in the field. Dr. Li’s dedication to innovation, sustainability, and scientific excellence makes her a distinguished researcher and a valuable asset to the academic and engineering communities. Her work will continue to play a crucial role in addressing global energy challenges and developing advanced thermal management solutions.

Publications Top Noted

  • Title: Molecular dynamics simulation of thermal properties in composite phase change materials based on functionalized graphene and polyethylene glycol
    Authors: Yu Mao, Jing Li*, Xu Yang, Keai Tao, Kuan Sun, Shanshan Chen, Yujie Zheng
    Year: 2024
    Citation: Journal of Energy Storage, 94:112104

  • Title: Molecular dynamics simulation of thermal properties of modified graphene/n-octadecane composite phase change material
    Authors: Li J*, Mao Y, Yang X, et al.
    Year: 2024
    Citation: Journal of Physics: Conference Series, 2749(1):012008

  • Title: A polyurethane solid-solid composite phase change material based on modified graphene oxide for efficient thermal management
    Authors: Yang X, Liao Y N, Li J*, et al.
    Year: 2024
    Citation: Journal of Physics: Conference Series, 2749(1):012007

  • Title: Experimental study of single-phase change material thermal diode based on calcium chloride hexahydrate
    Authors: Yang Xu, Li Jing, Mao Yu, Tao Ke-Ai, Sun Kuan, Chen Shan-Shan, Zhou Yong-Li, Zheng Yu-Jie
    Year: 2024
    Citation: Acta Phys. Sin., 73(5): 058301

  • Title: Near-field radiative heat transfer between successive nanowires and its effects on thermal conductivity of mesoporous composites
    Authors: Jing Li*, Yanhui Feng, Xinxin Zhang, Xinming Zhang
    Year: 2016
    Citation: Applied Thermal Engineering, 93: 978-987

  • Title: Shape-stable phase change composites based on carbonized waste pomelo peel for low-grade thermal energy storage
    Authors: Shaowei Li, Jing Li*, Yang Geng, Yanning Liao, Shanshan Chen, Kuan Sun, Meng Li
    Year: 2022
    Citation: Journal of Energy Storage, 47: 103556/1-103556/10

  • Title: Theoretical and experimental research of thermal conductivity of silver (Ag) nanowires in mesoporous substrate
    Authors: Jing Li*, Yanhui Feng, Xinxin Zhang, Ge Wang
    Year: 2018
    Citation: International Journal of Heat & Mass Transfer, 121: 547-554

  • Title: Super-elastic and shape-stable solid-solid phase change materials for thermal management of electronics
    Authors: Yanning Liao, Jing Li*, Shaowei Li, Xu Yang
    Year: 2022
    Citation: Journal of Energy Storage, 52: 104751-104751

  • Title: Dual-functional polyethylene glycol/graphene aerogel phase change composites with ultrahigh loading for thermal energy storage
    Authors: Shaowei Li, Jing Li*, Yanning Liao, Shanshan Chen, Yujie Zheng, Meng Li, Kuan Sun
    Year: 2022
    Citation: Journal of Energy Storage, 54: 105337-105337

  • Title: Interfacial thermal resistance in mesoporous composites and its thermal conductivity
    Authors: Jing Li*, Yanhui Feng, Xinxin Zhang, Ge Wang
    Year: 2016
    Citation: CIESC Journal, 67(S1): 166-173

  • Title: Preparation and thermophysical properties of graphene nanoplatelets-octadecane phase change composite materials
    Authors: Cai Di, Jing Li*, Jiao Nai Xun
    Year: 2019
    Citation: Acta Physica Sinica, 68(10): 100502/1-100502/9

  • Title: Near-field Radiative Heat Transfer across a Pore and Its Effects on Thermal Conductivity of Mesoporous Silica
    Authors: Jing Li, Yanhui Feng*, Xinxin Zhang, Congliang Huang, Ge Wang
    Year: 2015
    Citation: Physica B, 456(1):237-243

  • Title: Study of Near-field Radiative Heat Transfer in Mesoporous Alumina
    Authors: Jing Li, Yanhui Feng*, Xinin Zhang, Congliang Huang, Ge Wang
    Year: 2015
    Citation: Chinese Physics B, 24(1): 14401-014401

  • Title: Near-field radiation across a spherical pore in mesoporous silica
    Authors: Jing Li, Yanhui Feng*, Xinxin Zhang, Congliang Huang, Mu Yang
    Year: 2015
    Citation: Chinese Journal of Engineering, 37(8): 1063-1068

  • Title: Thermal conductivities of metallic nanowires with considering surface and grain boundary scattering
    Authors: Jing Li, Feng Yan-Hui*, Zhang Xin-Xin et al.
    Year: 2013
    Citation: Acta Phys. Sin, 62(18): 186501

  • Title: Numerical simulation of the flow and heat-transfer characteristics of an aligned external three-dimensional rectangular-finned tube bank
    Authors: Juwu Xu, Jing Li*, Yudong Ding, Qian Fu, Min Cheng, Qiang Liao
    Year: 2018
    Citation: Applied Thermal Engineering, 145:110-122