Figures & data
Table 1. Phytochemical screening of C. fistula fruit pulp extract.
Figure 1. The variation of colour changes in tested compounds (A) before and (B) after the process of reduction of Ag + to Ag0 nanoparticles. (C) UV–Vis absorption spectra of AgNPs synthesized using aqueous pulp extract of C. fistula after 24 h.
![Figure 1. The variation of colour changes in tested compounds (A) before and (B) after the process of reduction of Ag + to Ag0 nanoparticles. (C) UV–Vis absorption spectra of AgNPs synthesized using aqueous pulp extract of C. fistula after 24 h.](/cms/asset/2fb025a3-857e-43ca-8282-78cdd12d280a/ianb_a_1329739_f0001_c.jpg)
Figure 3. (A) SEM, (B) TEM images of AgNPs synthesized by reducing 3 mM AgNO3 using aqueous pulp extract of C. fistula, (C) EDX results of the AgNPs formation.
![Figure 3. (A) SEM, (B) TEM images of AgNPs synthesized by reducing 3 mM AgNO3 using aqueous pulp extract of C. fistula, (C) EDX results of the AgNPs formation.](/cms/asset/374b8ebf-d85a-433f-a277-838ee8dd557a/ianb_a_1329739_f0003_c.jpg)
Table 2. Larval and pupal toxicity using fruit pulp aqueous extract of C. fistula against Ae. albopictus.
Table 3. Larval and pupal toxicity using fruit pulp aqueous extract of C. fistula against Cx. pipiens pallens.
Table 4. Larval and pupal toxicity of silver nanoparticles synthesized using C. fistula fruit pulp extract against Ae. albopictus.
Table 5. Larval and pupal toxicity of silver nanoparticles synthesized using C. fistula extract against Cx. pipiens pallens.