SNUEI

Low‐Temperature Atomic Metal Deposition for an Efficient Dual‐Site Incorporated Photocatalyst

2025 · Advanced Materials

저자

Seungwoo Yoo, Chan Woo Lee, Kangjae Lee, Junseok Moon, Hyunsoo Ji, Jaeho Moon, Dongho Shin, Youngha Kweon, Juri Lee, Kang Kim, Jaewoo Lee, Guocheng Deng, Byoung‐Hoon Lee, 류재윤 (Jaeyune Ryu), Minho Kim, Megalamane Siddaramappa Bootharaju, Taeghwan Hyeon

연구주제

TiO2 Photocatalysis and Solar Cells · Advanced Photocatalysis Techniques · Catalytic Processes in Materials Science

NTIS 과학기술표준분류

에너지/자원만에너지·환경·원자력 확장

가장 가까운 분류(화공 > 화학공정 > 촉매/반응기술)가 에너지·환경·원자력 확장 범위 밖이다.

AI 연구 키워드·방법

benzene oxidation 단일원자 촉매(SAC) 이산화티타늄 광촉매

키워드 (OpenAlex)

atomically dispersed metal catalysts metal carbonyl precursors tungsten TiO2 photocatalyst benzene oxidation phenol synthesis oxygen vacancies C–H activation

초록

Abstract A universal, low‐temperature atomic metal deposition (LTAMD) strategy is herein reported for synthesis of atomically dispersed metal catalysts (ADMCs) using metal carbonyl precursors. This scalable approach enables the fabrication of diverse ADMCs with various transition metals, including W, Cr, Mn, Fe, Co, Mo, Ru, Rh, and Re on oxide and carbon‐based supports. Tungsten‐incorporated TiO 2 exhibits exceptional photocatalytic benzene oxidation activity, attributed to the generation of surface oxygen vacancies with Ti 3+ , which act as active reduction sites under aerobic conditions, facilitating the formation of reduced oxygen intermediates. It is demonstrated that tungsten plays a crucial role in stabilizing these oxygen vacancies and promoting electron‐hole separation by accommodating photogenerated holes and activating the C─H bond of benzene. Leveraging dual‐site photocatalysi…

이 논문을 지원한 국가R&D 과제 (NTIS 성과)

NTIS 성과DB(2020–24)에서 DOI 매칭 없음

인접 그래프

노드 hover = 이웃 강조 · 1회 클릭 = 고정 · 고정된 노드 다시 클릭 = 페이지 이동

이 문서와 연결된 페이지

교수 1

류재윤

연구주제 1

TiO2 Photocatalysis and Solar Cells

키워드 2

단일원자 촉매(SAC) · 이산화티타늄 광촉매