Keywords
cadmium and zinc sulfide solid solution
photocatalytic carbon dioxide reduction
titanium dioxide
visible light
Abstract
Photocatalysts based on titania and solid solutions of cadmium and zinc sulfides with deposited metals (Pt, Ag) were compared in CO2 reduction under visible light. In the presence of titania- and cadmium sulfide-based photocatalysts, the dominant reduction products were CH4 and CO, respectively, due to different positions of the conduction band level for these semiconductors. The deposition of metals on the surface of both TiO2- and CdS-based samples increased the molar concentration of methane in the reaction products.
References
1.
INOUE T., FUJISHIMA A., KONISHI S., HONDA K.
Nature,
1979
2.
Photocatalytic properties of SnO2–SnO nanocomposite prepared via pulse alternating current synthesis
Ulyankina A.A., Kuriganova A.B., Smirnova N.V.
Mendeleev Communications,
2019
3.
Kovalev I.A., Petrov A.A., Ibragimova O.A., Shokod’ko A.V., Chernyavskii A.S., Goodilin E.A., Solntseva K.A., Tarasov A.B.
Mendeleev Communications,
2018
4.
Korolenko M.V., Fabritchnyi P.B., Afanasov M.I., Labrugère C.
Mendeleev Communications,
2019
5.
Corma A., Garcia H.
Journal of Catalysis,
2013
6.
Baldoví H.G., Neaţu Ş., Khan A., Asiri A.M., Kosa S.A., Garcia H.
Journal of Physical Chemistry C,
2015
7.
Zhang T., Low J., Huang X., Al‐Sharab J.F., Yu J., Asefa T.
ChemCatChem,
2017
8.
Meng X., Zuo G., Zong P., Pang H., Ren J., Zeng X., Liu S., Shen Y., Zhou W., Ye J.
Applied Catalysis B: Environmental,
2018
9.
Kozlova E.A., Lyulyukin M.N., Markovskaya D.V., Selishchev D.S., Cherepanova S.V., Kozlov D.V.
Photochemical and Photobiological Sciences,
2019
10.
Lee K., Sato K., Mohamed A.R.
Materials Letters,
2016
11.
Lyubina T.P., Kozlova E.A.
Kinetics and Catalysis,
2012
12.
Kolinko P.A., Selishchev D.S., Kozlov D.V.
Theoretical and Experimental Chemistry,
2015
13.
Kozlova E.A., Lyubina T.P., Nasalevich M.A., Vorontsov A.V., Miller A.V., Kaichev V.V., Parmon V.N.
Catalysis Communications,
2011
14.
Bukhtiyarov V.I., Hävecker M., Kaichev V.V., Knop-Gericke A., Mayer R.W., Schlögl R.
Physical Review B,
2003
15.
Liu E., Kang L., Wu F., Sun T., Hu X., Yang Y., Liu H., Fan J.
Plasmonics,
2013
16.
Ma X., Zhou L., Xiang J., Yang H., Wang X., Li Y., Zhang J., Zhao C., Yin H., Wang W., Ye T.
Applied Surface Science,
2019
17.
Habisreutinger S.N., Schmidt-Mende L., Stolarczyk J.K.
Angewandte Chemie - International Edition,
2013
18.
Jing D., Guo L., Zhao L., Zhang X., Liu H., Li M., Shen S., Liu G., Hu X., Zhang X.
International Journal of Hydrogen Energy,
2010
19.
El-Shabasy R., Yosri N., El-Seedi H., Shoueir K., El-Kemary M.
Optik,
2019
20.
Xu H., Xie J., Jia W., Wu G., Cao Y.
Journal of Colloid and Interface Science,
2018
21.
Kozlova E.A., Parmon V.N.
Russian Chemical Reviews,
2017