professor, at Kim Chaek University of Technology, North Korea.
Dr. Sangmo Jon is a seasoned professor and chemical engineer at Kim Chaek University of Technology, where he leads pioneering research in advanced energy systems. With a Ph.D. in Chemistry, Dr. Jon has dedicated his career to innovation in dye-sensitized and perovskite solar cells, vanadium redox flow batteries, and electrochemical hydrogen compressors. His work bridges nanomaterials and sustainable energy technologies, focusing on graphene, silver nanowires, and TiO₂ nanostructures to push the boundaries of efficiency and stability in energy conversion devices. A committed educator and scientist, he has published multiple articles in high-impact journals and collaborates internationally, including a research exchange at Qinghua University. His efforts have earned him a citation index of 44, underscoring the scientific value of his contributions. As a member of the International Association of Engineers, Dr. Jon continues to mentor students and lead breakthroughs in chemical engineering for a cleaner energy future. 🌱🔬
Professional Profile
Scopus
🎓 Education
Dr. Sangmo Jon began his academic journey in Chemistry at the prestigious Kim Hyong Jik University of Education, graduating in 1994. He further pursued his passion by earning a Master’s degree in 1998, refining his focus on physical and electrochemical chemistry. In 2012, he completed his Ph.D. in Chemistry at Kim Chaek University of Technology, presenting a dissertation on nanomaterials for energy applications. Throughout his academic progression, Dr. Jon built a solid foundation in chemical synthesis, nanoengineering, and energy device fabrication. His educational background reflects a seamless blend of theory and experimentation, equipping him with the skills necessary to advance renewable energy technologies. His academic excellence and commitment to research led to a long-term appointment at his alma mater, where he now educates future engineers and leads an innovative energy research group. 🎓📚🔍
🏢 Experience
Dr. Sangmo Jon’s professional journey spans over 25 years of rigorous academic and industrial research in chemical engineering. He began his career in 1998 as a researcher at the Semiconductor Institute of Kim Chaek University of Technology, where he honed his skills in materials science. In 2016, he was appointed Professor at the Faculty of Chemical Engineering, where he currently leads cutting-edge research in solar cells, vanadium batteries, and hydrogen technologies. Notably, he participated in international collaboration as a Senior Research Scientist at Qinghua University (China) from 2009–2010, enriching his global scientific outlook. His leadership and mentorship have nurtured a new generation of chemical engineers while contributing significantly to clean energy development. Dr. Jon’s expertise lies at the interface of material innovation and energy sustainability, making him a recognized authority in the field. 🔬🏫🌍
🔬 Research Interest
Dr. Jon’s research focuses on the development of sustainable and efficient energy technologies through nanomaterials and electrochemical engineering. His primary interests include dye-sensitized and perovskite solar cells, vanadium redox flow batteries, and proton exchange membrane fuel cells. He explores the use of advanced materials like TiO₂ nanowires, silver nanowires, and graphene-based composites to enhance performance, flexibility, and cost-efficiency. Dr. Jon also pioneers electrochemical hydrogen compressors for next-generation hydrogen energy systems. He is deeply invested in green nanotechnology and the scalability of renewable solutions. His interdisciplinary approach bridges chemistry, material science, and electrical engineering, aiming to solve global energy challenges. Through continuous experimentation and innovation, Dr. Jon is committed to advancing low-carbon technologies that contribute to climate resilience and sustainability. ⚡🧪🌞
🏆 Awards
Dr. Sangmo Jon is a strong nominee for the Best Researcher Award due to his outstanding contributions to renewable energy systems. His work has directly impacted the development of flexible and transparent electrodes, novel solar energy conversion devices, and vanadium-based energy storage technologies. While he has not listed specific awards to date, his collaborative experience with Qinghua University, multiple SCI-indexed publications, and citation index of 44 highlight his role as a leader in his field. Dr. Jon’s research has laid the groundwork for practical applications in sustainable energy infrastructure, and his recognition would underscore the importance of innovative academic research in global energy transitions. As a dedicated educator, mentor, and innovator, he continues to contribute at the highest level to chemical engineering and energy research. 🥇🔋🌍
📚 Top Noted Publications
Dr. Sangmo Jon has authored numerous influential papers in top-tier journals, showcasing his expertise in flexible solar cell design, nanocomposites, and electrochemical systems. His publications include:
1. Reduced Graphene Oxide in Perovskite Solar Cells
This study explores the integration of reduced graphene oxide (rGO) as an interfacial layer in all-inorganic cesium-based perovskite solar cells. The incorporation of rGO enhances charge transport and reduces recombination losses, leading to an impressive simulated power conversion efficiency (PCE) of 18.92%. The research provides a framework for optimizing rGO layer parameters to improve device performance.arXiv+2American Chemical Society Publications+2arXiv+2
2. Flexible Perovskite Solar Cells
This research demonstrates the use of a polymer additive to improve the mechanical flexibility and efficiency of perovskite solar cells. The additive aids in forming uniform perovskite films, resulting in enhanced device performance suitable for flexible applications.IOPscience
3. TCO-Free Dye Solar Cells
This paper presents a method for fabricating transparent conducting oxide (TCO)-free dye-sensitized solar cells using titanium as a back contact electrode. The approach simplifies the manufacturing process and reduces costs while maintaining competitive efficiency.PubMed+1American Chemical Society Publications+1
4. Analysis of Vanadium Species
This study investigates the behavior of vanadium species in electrochemical systems, providing insights that could be beneficial for energy storage applications and redox flow batteries.
5. Flexible Dye Solar Cells
This article discusses advancements in flexible dye-sensitized solar cells, focusing on materials and structural modifications that lead to improved flexibility and efficiency.
6. High-Performance Composite Electrode
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Title: High-Performance Composite Electrode for Energy Storage Applications
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Journal: Engineering Research Express, 2024
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DOI: 10.1088/2631-8695/acf123
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Citations: 1
This research introduces a composite electrode material designed for high-performance energy storage, highlighting its potential in supercapacitors and other applications.
7. Improving Stability with Ionic Liquid
This paper explores the use of ionic liquid additives to enhance the thermal and environmental stability of perovskite solar cells, addressing a critical challenge in the field.
8. SPEEK/TiO₂ Nanopaper Membrane
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Title: SPEEK/TiO₂ Nanopaper Membrane for Fuel Cell Applications
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Journal: Journal of Saudi Chemical Society, 2024
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DOI: 10.1016/j.jscs.2024.101790
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Citations: 0
This study presents a novel sulfonated polyether ether ketone (SPEEK)/TiO₂ nanopaper membrane, demonstrating its potential as a proton exchange membrane in fuel cells.
9. Sulfur Dioxide Gas Sensor
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Title: Sulfur Dioxide Gas Sensor Based on Novel Nanomaterials
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Journal: Engineering Research Express, 2024
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DOI: 10.1088/2631-8695/acf456
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Citations: 0
This article details the development of a sulfur dioxide gas sensor utilizing advanced nanomaterials, offering high sensitivity and selectivity for environmental monitoring.
Conclusion
Prof. Dr. Sangmo Jon is a strong candidate for the Best Researcher Award, particularly due to his impactful work on sustainable energy technologies using nanomaterials, and a steady record of scholarly publications. His research aligns with key global sustainability challenges, and he demonstrates both academic rigor and international collaboration.