Jong-Beom Baek
• 1998 : Ph.D. Polymer Science, University of Akron
• 1993 : M.S. Polymer Science and Engineering, Kyungpook National University
• 1991 : B.S. Industrial Chemistry, Kyungpook National University
• 2008 - Present: Professor, UNIST
• 2016 - 2017: Visiting Scholar, Pacific Northwest National Lab., USA
• 2008 - 2009: Visiting Scholar, Georgia Tech., USA
• 2003 - 2008: Associate Professor, CBNU
• 1999 - 2003: Research Chemist, AFRL, USA
• 1998 - 1999: Research Associate, LCI, Kent State Univ., USA
• Journal of Materials Chemistry A, Editorial Board Member
• Energy Storage Materials, Editorial Board Member
• A Member of Korean Academy of Science and Technology (KAST)
• 2018, 2019, 2020, 2021: Highly Cited Researchers
• 2016: Minister Award for Top 10 Best Researches, Korea
• 2016: Selected Top 100 Outstanding Research Award, Korea
• 2011: Selected Top 50 Outstanding Research Award, National Research Foundation (NRF)
Center for Dimension-Controlable Organic Frameworks
Our group is working on the design and synthesis of diverse edge-selectively functionalized graphene nanoplatelets (EFGnPs) and Fused Aromatic Networks (FANs). Such materials will be applied in many fields such as electrochemistry, gas storage and energy materials.
Graphene as a representative carbon material have captured broad interest in the materials science, due to its extraordinary set of properties. Nevertheless, graphene has some limitations such as difficulty in processability, lack of multi-functionality and vanishing band-gap. Therefore, our group developed new edge-selectively functionalized graphene nanoplatelets by ball-milling methods to overcome those kinds of limitations.
Fused Aromatic Networks (FANs) are a class of ordered porous polymers which are integration of organic building units into extended structures. FANs structures are composed of fused aromatic rings without single bond connectivity and it enables formation of very stable structures. Because of their design flexibility and skeleton or pores manipulability, FANs can be a good platform in materials science fields.
The undergraduate, graduate students, postdoctoral and researcher are working on various research fields including carbon materials, materials science, electrochemistry and organic synthesis.
Our group is working on the design and synthesis of diverse edge-selectively functionalized graphene nanoplatelets (EFGnPs) and Fused Aromatic Networks (FANs). Such materials will be applied in many fields such as electrochemistry, gas storage and energy materials.
Graphene as a representative carbon material have captured broad interest in the materials science, due to its extraordinary set of properties. Nevertheless, graphene has some limitations such as difficulty in processability, lack of multi-functionality and vanishing band-gap. Therefore, our group developed new edge-selectively functionalized graphene nanoplatelets by ball-milling methods to overcome those kinds of limitations.
Fused Aromatic Networks (FANs) are a class of ordered porous polymers which are integration of organic building units into extended structures. FANs structures are composed of fused aromatic rings without single bond connectivity and it enables formation of very stable structures. Because of their design flexibility and skeleton or pores manipulability, FANs can be a good platform in materials science fields.
The undergraduate, graduate students, and postdoctoral researchers are working on various research fields including carbon materials, materials science, electrochemistry and organic synthesis.
다공성 유기 구조체, 촉매, 탄소 나노재료 / Porous Organic Frameworks (COFs), Catalysts, Carbon Nanomaterials
Porous Organic Frameworks (COFs), Catalysts, Carbon Nanomaterials
수소, 암모니아, 에너지 변환 및 저장 / Hydrogen, Ammonia, Energy Conversion and Storage
Hydrogen, Ammonia, Energy Conversion and Storage
• 에너지 저장 및 변환장치를 위한 다공성 유기고분자 재료 합성
Synthesis of fused aromatic network polymers for energy conversion and storage devices
• 탄소나노소재의 화학적 개질
Chemical modification of carbon nanomaterials
• 암모니아 합성
Ammonia synthesis
• Synthesis of fused aromatic network polymers for energy conversion and storage devices
• Chemical modification of carbon nanomaterials
• Ammonia synthesis
국가과학기술표준분류
EF. 에너지/자원 > EF06. 신재생에너지 > EF0609. 수소
• NATURE NANOTECHNOLOGY / Single Atom Catalysts / Han, G.-F.; Li, F.; Rykov, A. I.; Im, Y.-K.; Yu, S.-Y.; Jeon, J.-P.; Kim, S.-J.; Bu, Y.; Ao, Z.; Wang, J.; Jeong, H. Y.; Baek, J.-B. / 2022-05
• NATURE NANOTECHNOLOGY / Mechanochemistry for ammonia synthesis under mild conditions / Han, Gao-Feng; Li, Feng; Chen, Zhi-Wen; Coppex, Claude; Kim, Seok-Jin; Noh, Hyuk-Jun; Fu, Zhengping; Lu, Yalin; Singh, Chandra Veer, Siahrostami, Samira, Jiang, Q; Baek, Jong-Beom / 2021-03
• NATURE NANOTECHNOLOGY / An efficient and pH-universal ruthenium-based catalyst for the hydrogen evolution reaction / Mahmood, Javeed; Li, Feng; Jung, SunMin; Okyay, Mahmut Sait; Ahmad, Ishfaq; Kim, Seok-Jin; Park, Noejung; Jeong, Hu Young; Baek, Jong-Beom / 2017-05
• Catalyst composites and their preparation, USA, 11078581 / 2021
• Phosphorous functionalized graphene nanoplatelets as water soluble flame retardants, USA, 9487637 / 2016