The GE296_RS03820 and GE296_RS03830 genes are involved in capsular polysaccharide biosynthesis in Riemerella anatipestifer

Riemerella anatipestifer is a pathogenic bacterium that causes duck serositis and meningitis, leading to significant harm to the duck industry. To escape from the host immune system, the meningitis‐causing bacteria must survive and multiply in the bloodstream, relying on specific virulence factors s...

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Veröffentlicht in:The FASEB journal 2024-07, Vol.38 (13), p.e23763-n/a
Hauptverfasser: Wu, Xiaoni, Ge, Jiazhen, Song, Guodong, Liu, Yijian, Gao, Pengcheng, Tian, Tongtong, Li, Xuerui, Xu, Jian, Chu, Yuefeng, Zheng, Fuying
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container_issue 13
container_start_page e23763
container_title The FASEB journal
container_volume 38
creator Wu, Xiaoni
Ge, Jiazhen
Song, Guodong
Liu, Yijian
Gao, Pengcheng
Tian, Tongtong
Li, Xuerui
Xu, Jian
Chu, Yuefeng
Zheng, Fuying
description Riemerella anatipestifer is a pathogenic bacterium that causes duck serositis and meningitis, leading to significant harm to the duck industry. To escape from the host immune system, the meningitis‐causing bacteria must survive and multiply in the bloodstream, relying on specific virulence factors such as capsules. Therefore, it is essential to study the genes involved in capsule biosynthesis in R. anatipestifer. In this study, we successfully constructed gene deletion mutants Δ3820 and Δ3830, targeting the GE296_RS03820 and GE296_RS03830 genes, respectively, using the RA‐LZ01 strain as the parental strain. The growth kinetics analysis revealed that these two genes contribute to bacterial growth. Transmission and scanning electron microscopy (TEM and SEM) and silver staining showed that Δ3820 and Δ3830 produced the altered capsules and compounds of capsular polysaccharides (CPSs). Serum resistance test showed the mutants also exhibited reduced C3b deposition and decreased resistance serum killing. In vivo, Δ3820 and Δ3830 exhibited markedly declining capacity to cross the blood–brain barrier, compared to RA‐LZ01. These findings indicate that the GE296_RS03820 and GE296_RS03830 genes are involved in CPSs biosynthesis and play a key role in the pathogenicity of R. anatipestifer. Furthermore, Δ3820 and Δ3830 mutants presented a tendency toward higher survival rates from RA‐LZ01 challenge in vivo. Additionally, sera from ducklings immunized with the mutants showed cross‐immunoreactivity with different serotypes of R. anatipestifer, including 1, 2, 7 and 10. Western blot and SDS‐PAGE assays revealed that the altered CPSs of Δ3820 and Δ3830 resulted in the exposure of some conserved proteins playing the key role in the cross‐immunoreactivity. Our study clearly demonstrated that the GE296_RS03820 and GE296_RS03830 genes are involved in CPS biosynthesis in R. anatipestifer and the capsule is a target for attenuation in vaccine development. The genes GE296_RS03820 and GE296_RS03830 in R. anatipestifer play crucial roles in CPS biosynthesis. Additionally, deletion mutants of these genes have demonstrated potential for cross‐protection and as live attenuated vaccines.
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To escape from the host immune system, the meningitis‐causing bacteria must survive and multiply in the bloodstream, relying on specific virulence factors such as capsules. Therefore, it is essential to study the genes involved in capsule biosynthesis in R. anatipestifer. In this study, we successfully constructed gene deletion mutants Δ3820 and Δ3830, targeting the GE296_RS03820 and GE296_RS03830 genes, respectively, using the RA‐LZ01 strain as the parental strain. The growth kinetics analysis revealed that these two genes contribute to bacterial growth. Transmission and scanning electron microscopy (TEM and SEM) and silver staining showed that Δ3820 and Δ3830 produced the altered capsules and compounds of capsular polysaccharides (CPSs). Serum resistance test showed the mutants also exhibited reduced C3b deposition and decreased resistance serum killing. In vivo, Δ3820 and Δ3830 exhibited markedly declining capacity to cross the blood–brain barrier, compared to RA‐LZ01. These findings indicate that the GE296_RS03820 and GE296_RS03830 genes are involved in CPSs biosynthesis and play a key role in the pathogenicity of R. anatipestifer. Furthermore, Δ3820 and Δ3830 mutants presented a tendency toward higher survival rates from RA‐LZ01 challenge in vivo. Additionally, sera from ducklings immunized with the mutants showed cross‐immunoreactivity with different serotypes of R. anatipestifer, including 1, 2, 7 and 10. Western blot and SDS‐PAGE assays revealed that the altered CPSs of Δ3820 and Δ3830 resulted in the exposure of some conserved proteins playing the key role in the cross‐immunoreactivity. Our study clearly demonstrated that the GE296_RS03820 and GE296_RS03830 genes are involved in CPS biosynthesis in R. anatipestifer and the capsule is a target for attenuation in vaccine development. The genes GE296_RS03820 and GE296_RS03830 in R. anatipestifer play crucial roles in CPS biosynthesis. 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These findings indicate that the GE296_RS03820 and GE296_RS03830 genes are involved in CPSs biosynthesis and play a key role in the pathogenicity of R. anatipestifer. Furthermore, Δ3820 and Δ3830 mutants presented a tendency toward higher survival rates from RA‐LZ01 challenge in vivo. Additionally, sera from ducklings immunized with the mutants showed cross‐immunoreactivity with different serotypes of R. anatipestifer, including 1, 2, 7 and 10. Western blot and SDS‐PAGE assays revealed that the altered CPSs of Δ3820 and Δ3830 resulted in the exposure of some conserved proteins playing the key role in the cross‐immunoreactivity. Our study clearly demonstrated that the GE296_RS03820 and GE296_RS03830 genes are involved in CPS biosynthesis in R. anatipestifer and the capsule is a target for attenuation in vaccine development. The genes GE296_RS03820 and GE296_RS03830 in R. anatipestifer play crucial roles in CPS biosynthesis. 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To escape from the host immune system, the meningitis‐causing bacteria must survive and multiply in the bloodstream, relying on specific virulence factors such as capsules. Therefore, it is essential to study the genes involved in capsule biosynthesis in R. anatipestifer. In this study, we successfully constructed gene deletion mutants Δ3820 and Δ3830, targeting the GE296_RS03820 and GE296_RS03830 genes, respectively, using the RA‐LZ01 strain as the parental strain. The growth kinetics analysis revealed that these two genes contribute to bacterial growth. Transmission and scanning electron microscopy (TEM and SEM) and silver staining showed that Δ3820 and Δ3830 produced the altered capsules and compounds of capsular polysaccharides (CPSs). Serum resistance test showed the mutants also exhibited reduced C3b deposition and decreased resistance serum killing. In vivo, Δ3820 and Δ3830 exhibited markedly declining capacity to cross the blood–brain barrier, compared to RA‐LZ01. These findings indicate that the GE296_RS03820 and GE296_RS03830 genes are involved in CPSs biosynthesis and play a key role in the pathogenicity of R. anatipestifer. Furthermore, Δ3820 and Δ3830 mutants presented a tendency toward higher survival rates from RA‐LZ01 challenge in vivo. Additionally, sera from ducklings immunized with the mutants showed cross‐immunoreactivity with different serotypes of R. anatipestifer, including 1, 2, 7 and 10. Western blot and SDS‐PAGE assays revealed that the altered CPSs of Δ3820 and Δ3830 resulted in the exposure of some conserved proteins playing the key role in the cross‐immunoreactivity. Our study clearly demonstrated that the GE296_RS03820 and GE296_RS03830 genes are involved in CPS biosynthesis in R. anatipestifer and the capsule is a target for attenuation in vaccine development. The genes GE296_RS03820 and GE296_RS03830 in R. anatipestifer play crucial roles in CPS biosynthesis. 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subjects Animals
Bacterial Capsules - genetics
Bacterial Capsules - metabolism
Bacterial Proteins - genetics
Bacterial Proteins - metabolism
capsular polysaccharide
Ducks - microbiology
Flavobacteriaceae Infections - microbiology
Flavobacteriaceae Infections - veterinary
GE296_RS03820 gene
GE296_RS03830 gene
Gene Deletion
Polysaccharides, Bacterial - biosynthesis
Poultry Diseases - microbiology
Riemerella - genetics
Riemerella - metabolism
Riemerella - pathogenicity
Riemerella anatipestifer
vaccine
Virulence Factors - genetics
title The GE296_RS03820 and GE296_RS03830 genes are involved in capsular polysaccharide biosynthesis in Riemerella anatipestifer
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