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Beilstein J. Nanotechnol. 2019, 10, 1237–1242, doi:10.3762/bjnano.10.123
Figure 1: XRD patterns of Tb2.96−xCe0.04GdxAl5O12 phosphors.
Figure 2: Excitation spectra of Tb2.96−xCe0.04GdxAl5O12 phosphors.
Figure 3: Emission spectra of Tb2.96−xCe0.04GdxAl5O12 phosphors.
Figure 4: Decay curves of the Ce3+ emission from Tb2.96−xCe0.04GdxAl5O12 phosphors.
Figure 5: Emission spectra of Tb2.81Ce0.04Gd0.15Al5O12 at different temperatures.
Figure 6: Electroluminescence spectra of WLEDs by combining blue LED chip with Y2.96Ce0.04Al5O12 (A), Tb2.96Ce...
Figure 7: Electroluminescence spectra of a WLED with Tb2.81Ce0.04Gd0.15Al5O12 phsphor under different forward...
Beilstein J. Nanotechnol. 2017, 8, 2680–2688, doi:10.3762/bjnano.8.268
Figure 1: FTIR analysis of the obtained GO and Lys-GO.
Figure 2: (a) XPS survey spectrum of Lys-GO, (b) C 1s XPS spectrum of Lys-GO, (c) N 1s XPS spectrum of Lys-GO...
Figure 3: SEM images of Lys-GO (A) and GO (B).
Figure 4: Effect of solution pH value on the adsorption of (a) MB (C0 = 500 mg/L) and (b) Cu2+ (C0 = 100 mg/L...
Figure 5: The adsorption of (a) MB (C0 = 1800 mg/L, pH 8.0) and (b) Cu2+ (C0 = 200 mg/L, pH 7.0) on Lys-GO.
Figure 6: (a,b) Pseudo-first-order and (c,d) pseudo-second-order kinetics models for MB and Cu2+ adsorption o...
Figure 7: Adsorption isotherms of MB (a) and Cu2+ (b) on Lys-GO.
Scheme 1: Synthesis of Lys-GO.