Skip to main content
. 2023 Apr 6;11(4):953. doi: 10.3390/microorganisms11040953

Table 1.

In vitro and in vivo studies evaluating AMPs activity against poultry-associated foodborne pathogens (nd—not determined; na—not applicable).

AMP Origin Target (Gram) Trial Dosage Effect Study
3 bacteriocins Paenibacillus polymyxa
B. circulans
Campylobacter (−) In vitro na Antimicrobial activity [89]
Gallinacin-6 Gallus gallus domesticus C. jejuni (−), S. enterica (−), C. perfringens (+), E. coli (−) In vitro na Antimicrobial activity [93]
RSRP Oryctolagus cuniculus—sacculus rotundus E. coli (−) In vivo 0.1 mg of RSRP on d 7, 14, 21 and 28 Immunomodulation;
alteration of intestinal morphology
[83]
AS7 Carnobacterium divergens AS7 C. perfringens (+) In vivo 200 AU/g of feed for 42 days Improvement of growth performance;
alteration of intestinal microbiota
[94]
A-D-Asn Pichia pastoris - In vivo Basal diets with a A-D-Asn supplementation at 0, 2, 4, 6 and 8 mL/kg Improvement of growth performance [76]
BT Brevibacillus texasporus S. Enteritidis (−) In vivo 24 ppm BT peptide-supplemented diet Immunomodulation in neonatal poultry;
antimicrobial activity (prophylactic protection against Salmonella infections)
[81]
Nisin Lactococcus lactis subsp. lactis - In vivo Diet supplemented with various concentrations of nisin (100, 300, 900 and 2700 IU/g) Improvement of growth performance;
modulation of the GIT microbial ecology
[73]
CATH-2 Chicken S. Enteritidis (−)
S. Typhimurium (−)
In vitro na Antimicrobial activity [87]
A3 Analog of Helicobacter pylori 2–20 - In vivo Basal diet supplemented with 60 or 90 mg/kg AMP-A3 Improvement of growth performance;
alteration of intestinal microbiota
[77]
P5 Analog of hybrid AMP CA-MA - In vivo Basal diet supplemented with 40 and 60 mg/kg AMP-P5 Improvement of growth performance;
alteration of intestinal microbiota
[78]
Sublacin B. subtilis 168 C. perfringens (+) In vivo Chickens supplemented with sublancin at 2.88, 5.76 or 11.52 mg activity/L of water Antimicrobial activity;
alteration of intestinal morphology
[92]
Lactoferrin (bLf) Bos taurus E. coli (−)
Salmonella (−)
In vivo Diets with 130, 260 and 520 mg bLf/kg feed during the starter stage Alteration of intestinal morphology [82]
Nisin Lactococcus lactis subsp. lactis - In vivo 35-day administration of nisin at 2700 IU kg−1 through diet Improvement of growth performance [74]
Microcin J25 (Mcc) Fecal strain of E. coli E. coli AZ1 (−)
Salmonella CVCC519(−)
In vivo Basal diet with 0, 5 and 1 mg/kg Mcc J25 Decrease in intestinal inflammation;
alteration of intestinal microbiota;
improvement of growth performance
[70]
Nisin Lactococcus lactis subsp. lactis - In vivo Administration of nisin in 2700 IU/kg via diet Improvement of growth performance [95]
cLFcuimera Camel lactoferrin-derived peptide E. coli (−), S. Enteritidis (−),
S. aureus (+)
In vitro na Antimicrobial activity on both Gram-positive and Gram-negative avian pathogenic bacteria [88]
cLF36 Camel lactoferrin-derived peptide E. coli (−)
Clostridium spp. (+)
In vivo 20 mg/kg AMP Improvement of growth performance;
immune modulator;
alteration of intestinal microbiota
[45]
Plectasin (Ple) Pseudoplectania nigrella - In vivo Basal diet supplemented with 100 and 200 mg Ple/kg Immunomodulation [84]
Ctx(Ile21)-Ha Hypsiboas albopunctatus S. Enteriditis (−) In vivo 20 and 40 mg of Ctx(Ile21)-Ha/kg were included in the diet for 28 days Antimicrobial activity [64]
11 AMPs Chemically synthesized C. jejuni (−) In vitro na Antimicrobial activity [61]