A wide range of methods
can be used for nature-inspired metallic
nanoparticle (NP) synthesis. These syntheses, however, are ongoing
in the presence of diverse mixtures of different chemical compounds,
and all or only a few of these contribute to resultant particle properties.
Herein, the linden (Tilia sp.) inflorescence leachate
and pure citric and protocatechuic acids were chosen for Ag-AgCl nanoparticle
(NP) synthesis, and the resultant particles were then compared. We
focused on the following four issues: (1) preparation of Ag-AgCl NPs
using the Tilia sp.-based phytosynthetic protocol,
(2) analytical determination of the common phenolic, nonphenolic,
and inorganic profiles of three Tilia sp. types from
different harvesting locations, (3) preparation of Ag-AgCl NPs using
a mixture of citric and protocatechuic acids based on chromatographic
evaluation, and (4) comparison of Tilia-based and
organic acid-based syntheses. Our research confirms that the Tilia organic and inorganic profiles in biomasses are influenced
by the harvesting location, and the three sites influenced both the
morphology and final NP size. Our processing method was uniform, and
this enabled great Ag-AgCl NP reproducibility for each specific biomass.
We were then able to prove that the simplified organic acid-based
synthesis produced even smaller NPs than Tilia-based
synthesis. These findings provide better understanding of the significant
influence on NP final properties resulting from other organic acids
contained in the linden.