Dr. Dong-Ik Kim, Korea Institute of Science and Technology, South Korea.
Dr. Dong-Ik Kim π is a Principal Research Scientist at the Korea Institute of Science and Technology π’, specializing in high-temperature oxidation, texture control, and advanced microscopy techniques π¬. With a Ph.D. in Materials Science and Engineering from Seoul National University π, he has led groundbreaking research on grain boundary engineering and in-situ 3D analysis. His international experience includes post-doctoral fellowships in Germany π©πͺ and Korea π°π·. An award-winning scientist π, he has been honored by ASM International and invited for plenary talks at major global conferences π. His expertise is shaping future energy and materials technology. βοΈ
Publication Profiles
Β Education & ExperienceΒ
π Education:
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π Ph.D., Materials Science and Engineering, Seoul National University, 2002
π Thesis: “Statistical analysis on the development of recrystallization texture in Ti-stabilized IF steel”
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π M.S., Metallurgical Engineering, Seoul National University, 1998
π Thesis: “Development of recrystallization texture in Ti-stabilized IF steel”
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π B.S., Metallurgical Engineering, Seoul National University, 1996
π§βπ¬ Professional Experience:
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π’ Principal Research Scientist, Korea Institute of Science and Technology (2005.09βPresent)
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π¬ Post-Doctoral Fellow, RWTH-Aachen, Germany (2003.09β2005.08)
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π¬ Post-Doctoral Fellow, Research Institute of Advanced Materials, SNU (2002.08β2003.08)
Suitability for the Award
Dr. Dong-Ik Kim is an outstanding candidate for the Best Researcher Award due to his exceptional contributions to materials science and engineering. As a Principal Research Scientist at the Korea Institute of Science and Technology (KIST), Dr. Kim has demonstrated sustained excellence in research, particularly in high-temperature oxidation, advanced electron microscopy, and grain boundary engineering. His innovative work and international recognition place him at the forefront of his field.
Β Professional Development
Dr. Dong-Ik Kim has pursued continuous professional development through cutting-edge international research collaborations π and specialized training in electron microscopy and texture analysis π. His post-doctoral work in Germany expanded his expertise in metallurgical physics, while his return to Korea reinforced advanced studies in high-temperature applications π₯ and materials innovation. At KIST, he integrates state-of-the-art microscopy techniques (EBSD, TKD, ASTAR) with in-situ and 3D SEM/FIB analysis π§ͺ. He frequently contributes to scientific conferences, delivers plenary talks π£οΈ, and collaborates across disciplines to enhance industrial and academic impact ππ.
Β Research FocusΒ
Dr. Kim’s research focuses on materials behavior under extreme conditions βοΈπ₯, particularly high-temperature oxidation for solid oxide fuel cells and next-generation power systems π. He specializes in electron microscopy techniques such as EBSD, TKD, and ASTAR π¬, allowing deep insights into texture control and grain boundary engineering. His in-situ and 3D analysis using SEM & FIB enables real-time microstructural evolution studies π§«π. These investigations are crucial for developing durable, efficient materials in energy, aerospace, and metallurgy sectors π. His work bridges fundamental science with applied materials research, enhancing material performance and sustainability β»οΈ.
Β Awards & HonorsΒ
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π οΈ Best performer during industrial training at BHEL Bhopal (2012)
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π Selected for Ph.D. program at IIT Madras β Competitive admission (2019)
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π§ͺ Research contributor in multiple institutional projects at IIITDM Jabalpur
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π
Conference presentations and paper publications in mechanical engineering research
Publication Top Noted
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“Strain partitioning and mechanical stability of retained austenite” β 221 citations, 2010 π
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“Analysis of microstructure and texture evolution in pure magnesium during symmetric and asymmetric rolling” β 179 citations, 2009 π¬
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“Asymmetric and symmetric rolling of magnesium: Evolution of microstructure, texture and mechanical properties” β 155 citations, 2012 π§ͺ
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“The role of grain boundaries in the initial oxidation behavior of austenitic stainless steel containing alloyed Cu at 700Β°C for advanced thermal power plant applications” β 117 citations, 2015 π§
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“Microstructure and mechanical properties of friction stir welded and laser welded high entropy alloy CrMnFeCoNi” β 114 citations, 2018 π οΈ
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“An investigation of the corrosion behavior of 316L stainless steel fabricated by SLM and SPS techniques” β 108 citations, 2020 βοΈ
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“Preferred crystallographic pitting corrosion of pure magnesium in Hanksβ solution” β 105 citations, 2012 π§«
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“Microstructure development in mechanically alloyed yttria dispersed austenitic steels” β 94 citations, 2009 π§±