Review Article

Bioactive Compounds from Agricultural Residues, Their Obtaining Techniques, and the Antimicrobial Effect as Postharvest Additives

Table 4

Studies of the application of bioactive compounds on postharvest products for the inhibition of microorganisms.

Bioactive compound/extraction sourceApplication technologyInhibited microorganismMicrobiological technique usedResults obtainedReference

AppleAntioxidants, phenolic compounds, and flavonoids/residues (shell flour) of Acca sellowiana or “guava de Brazil”FilmsEscherichia coli
Salmonella typhimurium
Pseudomonas aeruginosa
Disc broadcastThe highest inhibition of the microorganisms tested was achieved in the films with the highest concentration of shell residues (3%).[109]
In vitroPolyphenols, flavonoids/broccoli leaves, cauliflower, and cabbageNDAlternaria spp.Poison plaqueCauliflower extracts presented the highest percentage of inhibition () compared to the rest of the compounds.[110]
OrangePolyphenols/pomegranate huskEdible coatingsPenicillium digitatumInoculation of the fungus in the fruit with subsequent coating; diameters of the areas affected by the fungus were measured five days after inoculationFilms with aqueous extract of the pomegranate peel (0.361 g) were able to inhibit the fungus Penicillium digitatum that causes the green fungus in oranges.[111]
Fresh cut mangoGallic acid/mango residuesImmersion in aqueous extractsAerobic mesophilic bacteria, fungi, and yeastsPlate count80% inhibition of aerobic mesophiles
79% inhibition of fungi and yeasts.
[112]
In vitroPhenolic acids, flavonoids/xoconostle (Opuntia oligacantha), orange essential oil, soy lecithinNanoemulsion with extracts of xoconostle, orange, and soyColletotrichum gloeosporioidesWell diffusionThe fungus was inhibited with the 4.15 mm nanoemulsion compared to the control, being the highest inhibition in the study.[113]