Table 2 E Excitation source, V Volume, C Concentration, and W Weight
Related Figures (12)
Fig. 2 FT-IR spectra of MgO products which were obtained using glutamine (a) and L-arginine (b) fuels Fig.1 XRD patterns of MgO products which were obtained using glutamine (a) and L-arginine (b) fuels 3.1.4 UV-Vis Fig. 3. FE-SEM images of MgO products which were obtained using glutamine (a) and L-arginine (b) fuels Fig.4 HR-TEM images of MgO products which were obtained using glutamine (a) and L-arginine (b) fuels Fig.5 Optical energy gap of MgO products which were obtained using glutamine (a) and L-arginine (b) fuel: Fig.6 PL emission spectra of MgO products which were obtained using glutamine (a) and L-arginine (b) fuels Fig.7 Visible spectra for the degradation of orange G dye using MgO products which were obtained using glutamine (a) and L-arginine (b) fuels Fig.8 The plot of % D versus irradiation time using the MgO products which were obtained using glutamine (a) and L-arginine (b) fuels Table 1 Kinetic constants for the orange G dye degradation using MgO products 4 Conclusions Fig.9 Kinetic of the orange G dye degradation using MgO products which were obtained using glutamine (a) and L-arginine (b) fuels Scheme 2 Mechanism of orange G dye degradation using MgO products Table 3 Biological activity of MgO products Acknowledgements The authors would like to extend their sincere appreciation to the Deanship of Scientific Research at King Saud Uni- versity for its funding of this research through Research Group No: RG-1436-015.
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