Publication | Closed Access
Realizing the regulated carrier separation and exciton generation of Bi<sub>24</sub>O<sub>31</sub>Cl<sub>10</sub><i>via</i> a carbon doping strategy
41
Citations
44
References
2018
Year
Wide-bandgap SemiconductorEngineeringInorganic PhotochemistryExcitation Energy TransferSynthetic PhotochemistryPhoto-electrochemical CellChemistryOrganic SaltExciton Binding EnergiesPhotoelectrochemistryCarbon Doping StrategySemiconductorsChemical EngineeringQuantum MaterialsPhotocatalysisExciton GenerationCompound SemiconductorCharge Carrier TransportSemiconductor TechnologyPhotochemistryCarrier SeparationQuantum ChemistryNatural SciencesApplied PhysicsNovel Carbon
A novel carbon doping strategy induced by an organic salt is successfully developed. Improved carrier separation and exciton binding energies (<italic>E</italic><sub>b</sub>) are achieved on C-doped Bi<sub>24</sub>O<sub>31</sub>Cl<sub>10</sub>, which provides excellent photocatalytic CO<sub>2</sub> reduction and persistent <sup>1</sup>O<sub>2</sub> generation.
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