Figures & data
![](/cms/asset/53208655-eed9-468f-b4fa-f352bf38db3a/tgcl_a_1287310_uf0001_c.jpg)
Figure 1. (A) Acacia mearnsii whole plant Inset: (a) stem bark (b) Color of the A. mearnsii extract (blue capped) and color of the solution after the formation of AgNPs (white capped) (B) Absorption spectra of AM-Ag-NPs synthesized using 0.1 mol/L AgNO3 at 60°C at different reaction times.
![Figure 1. (A) Acacia mearnsii whole plant Inset: (a) stem bark (b) Color of the A. mearnsii extract (blue capped) and color of the solution after the formation of AgNPs (white capped) (B) Absorption spectra of AM-Ag-NPs synthesized using 0.1 mol/L AgNO3 at 60°C at different reaction times.](/cms/asset/2900e418-19df-4f7a-af88-4d3c719734c2/tgcl_a_1287310_f0001_c.jpg)
Table 1. Experimental method.
Figure 2. (A) Absorption spectra of AM-AgNPs synthesized using 0.1 mol/L AgNO3 at 40°C and (B) room temperature at different reaction time.
![Figure 2. (A) Absorption spectra of AM-AgNPs synthesized using 0.1 mol/L AgNO3 at 40°C and (B) room temperature at different reaction time.](/cms/asset/ea35d7dc-30fa-4439-aeb9-27367ea1fa32/tgcl_a_1287310_f0002_c.jpg)
Table 2. FTIR analysis of the crude extract and the as-synthesized AM-AgNPs.
Figure 6. (A) A typical XRD pattern of AM-Ag-NPs synthesized at 60°C and 40°C. HRTEM image of AM-AgNPs (B) with corresponding FFT (C) and size distribution (D).
![Figure 6. (A) A typical XRD pattern of AM-Ag-NPs synthesized at 60°C and 40°C. HRTEM image of AM-AgNPs (B) with corresponding FFT (C) and size distribution (D).](/cms/asset/87d45e61-3c4c-4cf7-b554-c331027907ee/tgcl_a_1287310_f0006_c.jpg)