Hung‐Hao ChangLing‐Wei WeiHsuan‐Li HuangHankwon ChangH. Paul Wang
Continuously increasing atmospheric concentrations of CO 2 have given rise to great concerns about climate change. Photocatalytic reduction of CO 2 to chemicals by solar energy is considered a green and sustainable process. Interactions between CO 2 molecules and photocatalysts surfaces are the key factors that affect photocatalytic reduction efficiency. Thus, a better understanding of their reactive species on the TiO 2 nanotube (TNT) surfaces by in situ FTIR spectroscopy was studied in the present work. The FTIR absorbance features at 1303[Formula: see text]cm[Formula: see text] and 1393[Formula: see text]cm[Formula: see text] were associated with carbonate species, e.g., bidentate carbonate on the TNT. Complete desorption of CO 2 from the TNT occurred at [Formula: see text][Formula: see text]K. The carboxylate species that were adsorbed on the TNT may conduct the surface reactions enhanced by UV–Vis light to yield low carbon chemicals.
Andrey TarasovSergey DubkovVigdrovich EvgenyM. E. FedyaninaR. M. RyazanovSirotina AnnaД. Г. Громов
Jinghua LiuYinghua NiuXiong HeJingyao QiXin Li
Khaled AlkanadAbdo HezamNabil Al‐ZaqriMohammed Abdullah BajiriGubran AlnaggarQ.A. DrmoshHanadi A. AlmukhlifiN.K. Lokanath
Severin N. HabisreutingerLukas Schmidt‐MendeJacek K. Stolarczyk
Shujun YuA. GenxiongXuqi YangQiaonan YuPengcheng WuKeliang Wu