Matches in SemOpenAlex for { <https://semopenalex.org/work/W4297791392> ?p ?o ?g. }
- W4297791392 endingPage "112" @default.
- W4297791392 startingPage "101" @default.
- W4297791392 abstract "Extensive antimicrobial usage in animal farming plays a prominent role in the antimicrobial resistance (AMR) crisis and is repeatedly highlighted as an area needing development under the ‘One Health’ approach. Alternative therapies such as microbiome products can be used as prophylaxis to help avoid infectious disease. However, a limited number of studies have focused on AMR-targeted microbiome products. We conducted this systematic review by using PRISMA guidelines to screen for literature that have evaluated food animals’ health when administrated with microbiome products targeting antimicrobial resistance (AMR) or antibiotic-resistant genes (ARGs). We searched and examined studies from SCOPUS, Web of Science, Embase, and Science direct databases for studies published up to November 2021, restricted to the English language. The findings of this review showed that microbiome products have a promising capability to tackle specific AMR/ARGs coupled with animal’s health and productivity improvement. Furthermore, our study showed that probiotics were the most favourable tested microbiome products, with the most targeted resistance being to tetracycline, macrolides, and beta-lactams. While microbiome products are promising alternatives to antibiotic prophylactics, there is a dearth of studies investigating their efficacy in targeting AMR. Thus, it is highly recommended to further investigate, develop, and improve the microbiome, to better understand their utility and circumvent their limitations." @default.
- W4297791392 created "2022-10-01" @default.
- W4297791392 creator A5028028867 @default.
- W4297791392 creator A5029565170 @default.
- W4297791392 creator A5077530125 @default.
- W4297791392 creator A5080574191 @default.
- W4297791392 creator A5085298742 @default.
- W4297791392 date "2022-09-12" @default.
- W4297791392 modified "2023-09-30" @default.
- W4297791392 title "Microbiome engineering to combat antimicrobial resistance and upsurge productivity of food animals: a systematic review" @default.
- W4297791392 cites W1985039326 @default.
- W4297791392 cites W1989027747 @default.
- W4297791392 cites W2010360751 @default.
- W4297791392 cites W2014157971 @default.
- W4297791392 cites W2020494282 @default.
- W4297791392 cites W2065609087 @default.
- W4297791392 cites W2087724386 @default.
- W4297791392 cites W2104914423 @default.
- W4297791392 cites W2125366435 @default.
- W4297791392 cites W2128822399 @default.
- W4297791392 cites W2430937405 @default.
- W4297791392 cites W2505208343 @default.
- W4297791392 cites W2555677305 @default.
- W4297791392 cites W2581045219 @default.
- W4297791392 cites W2593453773 @default.
- W4297791392 cites W2596804938 @default.
- W4297791392 cites W2741118798 @default.
- W4297791392 cites W2749062743 @default.
- W4297791392 cites W2754223346 @default.
- W4297791392 cites W2793397992 @default.
- W4297791392 cites W2795908627 @default.
- W4297791392 cites W2803240885 @default.
- W4297791392 cites W2825303972 @default.
- W4297791392 cites W2910089144 @default.
- W4297791392 cites W2913312838 @default.
- W4297791392 cites W2916797588 @default.
- W4297791392 cites W2920305589 @default.
- W4297791392 cites W2936341475 @default.
- W4297791392 cites W2945135581 @default.
- W4297791392 cites W2947289793 @default.
- W4297791392 cites W2965909030 @default.
- W4297791392 cites W2969633519 @default.
- W4297791392 cites W2969900621 @default.
- W4297791392 cites W2971323751 @default.
- W4297791392 cites W2976884654 @default.
- W4297791392 cites W3006857117 @default.
- W4297791392 cites W3010380297 @default.
- W4297791392 cites W3012411233 @default.
- W4297791392 cites W3028405889 @default.
- W4297791392 cites W3030616201 @default.
- W4297791392 cites W3035275243 @default.
- W4297791392 cites W3041076093 @default.
- W4297791392 cites W3043165925 @default.
- W4297791392 cites W3046478596 @default.
- W4297791392 cites W3083408803 @default.
- W4297791392 cites W3087000429 @default.
- W4297791392 cites W3088515810 @default.
- W4297791392 cites W3089975659 @default.
- W4297791392 cites W3090858892 @default.
- W4297791392 cites W3094346209 @default.
- W4297791392 cites W3109271422 @default.
- W4297791392 cites W3125053024 @default.
- W4297791392 cites W3125452177 @default.
- W4297791392 cites W3127220629 @default.
- W4297791392 cites W3134847294 @default.
- W4297791392 cites W3138162522 @default.
- W4297791392 cites W3144661801 @default.
- W4297791392 cites W3157116276 @default.
- W4297791392 cites W3158355050 @default.
- W4297791392 cites W3158395114 @default.
- W4297791392 cites W3160467486 @default.
- W4297791392 cites W3167379105 @default.
- W4297791392 cites W3172429804 @default.
- W4297791392 cites W3182906733 @default.
- W4297791392 cites W3183851460 @default.
- W4297791392 cites W3186760608 @default.
- W4297791392 cites W3200301194 @default.
- W4297791392 cites W3205214343 @default.
- W4297791392 cites W3208359572 @default.
- W4297791392 cites W3210106254 @default.
- W4297791392 cites W3211574947 @default.
- W4297791392 cites W3216194333 @default.
- W4297791392 cites W4210847339 @default.
- W4297791392 cites W4213159945 @default.
- W4297791392 cites W4220750497 @default.
- W4297791392 cites W4238096461 @default.
- W4297791392 cites W4244510479 @default.
- W4297791392 cites W4280578584 @default.
- W4297791392 cites W4280594461 @default.
- W4297791392 cites W4294215472 @default.
- W4297791392 cites W787115865 @default.
- W4297791392 doi "https://doi.org/10.1071/an22233" @default.
- W4297791392 hasPublicationYear "2022" @default.
- W4297791392 type Work @default.
- W4297791392 citedByCount "0" @default.
- W4297791392 crossrefType "journal-article" @default.
- W4297791392 hasAuthorship W4297791392A5028028867 @default.
- W4297791392 hasAuthorship W4297791392A5029565170 @default.