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Beilstein J. Nanotechnol. 2022, 13, 1038–1050, doi:10.3762/bjnano.13.91
Scheme 1: Schematic illustration of the synthetic process of Bi2O3/MIL101(Fe) heterojunction.
Figure 1: XRD patterns of MIL101, Bi2O3, and BOM-20.
Figure 2: SEM images of (a) MIL101(Fe), (b) Bi2O3, and (c,d) BOM-20.
Figure 3: TEM image of (a) MIL101(Fe) and (b, c) BOM-20. (d) HRTEM image of BOM-20. (e) HAADF-STEM image of B...
Figure 4: (a) XPS survey spectra of BOM-20 and high-resolution XPS spectra of (b) Fe 2p; (c) Bi 4f; and (d) C...
Figure 5: (a) UV–vis spectra, (b) PL spectra, (c) transient photocurrent responses, and (d) EIS spectra of MI...
Figure 6: (a) Photodegradation of CTC over as-prepared photocatalysts under visible irradiation (λ > 420 nm)....
Figure 7: Possible degradation pathways of CTC catalyzed by BOM-20.
Figure 8: (a) The degradation efficiency of CTC in the presence of different scavengers. ESR spectra of (b) D...
Figure 9: (a) The VB-XPS spectra and (b) the energy band position of Bi2O3 and MIL101(Fe).
Figure 10: Z-Scheme charge-transfer mechanism of a BOM-20 heterojunction.
Beilstein J. Nanotechnol. 2022, 13, 1011–1019, doi:10.3762/bjnano.13.88
Figure 1: An algorithm for solving the scattering rate and electron distribution for each subband using all-o...
Figure 2: Calculated conduction subbands and moduli squared of relevant wave functions with a 53 kV/cm DC bia...
Figure 3: Numbers of electrons in each subband using optical injection at wavelengths of 1550 nm (a) and 820 ...
Figure 4: Electron lifetime of each subband using optical injection at wavelengths of 1550 nm (a) and 820 nm ...
Figure 5: Optical gain as a function of optical injection power.
Figure 6: Current vs optical injection power at wavelengths of 1550 nm (black circles) and 820 nm (red square...
Figure 7: Modulation depth and photon number vs optical injection power at two wavelengths.