Organic and fatty acids, essential oils, plant extracts |
Farm |
-
(1)
Enhances the gut microbiota's beneficial bacteria
-
(2)
Limits the gut pathogens
-
(3)
Decreases the pathogens population with increasing the concentration
-
(4)
Used as a green antibacterial agent
|
-
(1)
Variable effects on the reduction of Campylobacter colonization in various studies
-
(2)
The gut conditions may impede the effectiveness of the active compounds
-
(3)
Variations in effects were observed in the field
-
(4)
Few indications of reproducibility
|
Dedieu et al., 2020 |
Probiotics |
Farm |
-
(1)
Enhances the gut microbiota's beneficial bacteria
-
(2)
Utilized as a substitute for antibiotics to enhance feed conversion ratio
-
(3)
When combined with vaccines, enhance the vaccine's effectiveness in preventing Campylobacter colonization
-
(4)
Meets consumer's acceptance
|
Variability in their effectiveness across studies. More on-farm research is required to improve this method |
Mañes-Lázaro et al., 2017 |
Bacteriocin |
Farm |
-
(1)
A group of competitive bacteria in the intestine, representing the inner defend against pathogens
-
(2)
Improves livestock growth by inhibiting or controlling pathogens and improving animal health
|
-
(1)
Commercial use necessitates large-scale, cheap manufacture of bacteriocins on-farm. This issue is still unsettled.
-
(2)
The in vivo effectiveness of bacteriocins must be validated and duplicated in natural chicken production circumstances and with a broader diversity of field strains
|
Dai et al., 2020 |
Bacteriophage |
Farm |
-
(1)
Effectively reducing colonization (>3 log)
-
(2)
Targeted antibacterial biocontrol approach
-
(3)
Safely to human and animals
|
-
(1)
Due to the development of resistance or other circumstances, Campylobacter may be able to quickly adapt to phage therapy, although fitness costs prevented this from delaying the bacterium's elimination
-
(2)
Inconsistent findings across studies
-
(3)
Phage mixtures must be effective against all Campylobacter species
|
Richards et al., 2019; Chinivasagam et al., 2020
|
Vaccine |
Farm |
|
-
(1)
Inconsistent findings across studies
-
(2)
Despite numerous efforts, there is no operative vaccine on the market
|
Ramakrishnan et al., 2019 |
Slaw and fast freezing |
Slaughterhouse |
-
(1)
Reduces Campylobacter in the carcasses up to 2.51 log carcasses
-
(2)
Cost-effective and available.
-
(3)
Less drip loss during thawing and less water holding capacity loss of compared to slow freezing
|
|
Haughton et al., 2012; Harrison et al., 2013
|
Steam-ultrasound |
Slaughterhouse |
Reducing Campylobacter in the carcasses >2.51 log |
Changes in chicken skins but it is acceptable |
Musavian et al., 2014 |