Haider, Arsalan Masudi, Ahmad Ahn, Sunghee Park, Kwangho Lee, Kyung Rok Jung, Kwang-Deog 2024-11-30T07:00:51Z 2024-11-30T07:00:51Z 2024-11-30 2024-10 https://pubs.kist.re.kr/handle/201004/151239 The hydrogenation of CO2 to produce formic acid has garnered increasing interest as a means to address climate change and promote the hydrogen economy. This research investigates the nanocasting technique for the synthesis of ordered mesoporous nitrogen-doped carbon (MNC-An). KIT-6 functioned as the silica template, while aniline served as the nitrogen-carbon precursor. The resultant MNC-An exhibits cubic Ia3D geometry, possesses significant mesoporosity, and has a high nitrogen content, which is essential for stabilizing ruthenium single atoms. The catalyst exhibited a specific activity of 252 mmol(FA)g(cat)(-1) following a 2 h reaction at 120 degrees C. Moreover, the catalyst exhibited exceptional relative activity during five recycling experiments while preserving its catalytic efficacy. The atomically dispersed ruthenium and its Ru3+ oxidation state demonstrated perseverance both before and after the treatment. The results indicated that the synthesized catalyst possesses potential for the expedited commercialization of CO2 hydrogenation to produce formic acid. The elevated carbon yield, along with excellent thermal stability, renders it a viable substrate for attaching and stabilizing atomically dispersed ruthenium catalysts. English Multidisciplinary Digital Publishing Institute (MDPI) Ordered Mesoporous Nitrogen Dope Carbon Synthesized from Aniline for Stabilization of Ruthenium Species in CO2 Hydrogenation to Formate Article 10.3390/catal14100720 1 Catalysts, v.14, no.10 Catalysts 14 10 Y scie scopus 001343504600001 2-s2.0-85207688087 Chemistry, Physical Chemistry Article FORMIC-ACID POLYANILINE CATALYSTS POLYMERIZATION GREEN CO2 hydrogenation formic acid heterogeneous catalysis ruthenium mesoporous N-doped carbon