Matches in SemOpenAlex for { <https://semopenalex.org/work/W3089466764> ?p ?o ?g. }
- W3089466764 endingPage "13" @default.
- W3089466764 startingPage "1" @default.
- W3089466764 abstract "Larval and adult mosquito stages harbor different extracellular microbes exhibiting various functions in their digestive tract including host-parasite interactions. Midgut symbiotic bacteria can be genetically exploited to express molecules within the vectors, altering vector competency and potential for disease transmission. Therefore, identification of mosquito gut inhabiting microbiota is of ample importance before developing novel vector control strategies that involve modification of vectors.Adult mosquitoes of Culex tritaeniorhynchus, Culex gelidus, and Mansonia annulifera were collected from selected Medical Officer of Health (MOH) areas in the Gampaha district of Sri Lanka. Midgut lysates of the field-caught non-blood-fed female mosquitoes were cultured in Plate Count Agar medium, and Prokaryotic 16S ribosomal RNA partial genes of the isolated bacteria colonies were amplified followed by DNA sequencing. Diversity indices were used to assess the diversity and richness of the bacterial isolates in three mosquito species. The distribution pattern of bacterial isolates between different mosquito species was assessed by Distance-Based Redundancy Analysis (dbRDA).A total of 20 bacterial species (Staphylococcus pasteuri, Bacillus megaterium, Staphylococcus cohnii, Pantoea dispersa, Staphylococcus chromogenes, Bacillus aquimaris, Staphylococcus arlettae, Staphylococcus sciuri, Staphylococcus warneri, Moraxella osloensis, Enterobacter sp., Klebsiella michiganensis, Staphylococcus hominis, Staphylococcus saprophyticus, Streptomyces sp., Bacillus niacin, Cedecea neteri, Micrococcus luteus, Lysinibacillus sphaericus, and Bacillus licheniformis) were identified. All of these species belonged to three phyla, Proteobacteria, Firmicutes, and Actinobacteria, out of which phylum Firmicutes (71.1%) was the most prominent. The least number of species was recorded from Actinobacteria. The relative distribution of midgut microbes in different mosquito species differed significantly among mosquito species (Chi-square, χ2 = 486.091; df = 36; P ≤ 0.001). Midgut microbiota of Cx. tritaeniorhynchus and Cx. gelidus indicated a similarity of 21.51%, while Ma. annulifera shared a similarity of 6.92% with the cluster of above two species. The gut microbiota of Cx. tritaeniorhynchus was also significantly more diverse and more evenly distributed compared to Ma. annulifera. Simpson's diversity, Margalef's diversity, and Menhinick's diversity indices were higher in Cx. gelidus. Of the recorded species, P. dispersa and strains of nonpathogenic species in Bacillaceae family (B. megaterium, B. niacini, B. licheniformis, and L. sphaericus) can be recommended as potential candidates for paratransgenesis.The relative distribution of midgut microbes in different mosquito species differed significantly among the three studied adult mosquito species. The present data strongly encourage further investigations to explore the potential usage of these microbes through paratransgenic approach for novel eco-friendly vector control strategies." @default.
- W3089466764 created "2020-10-08" @default.
- W3089466764 creator A5000845694 @default.
- W3089466764 creator A5008193009 @default.
- W3089466764 creator A5012056038 @default.
- W3089466764 creator A5027701145 @default.
- W3089466764 creator A5047815228 @default.
- W3089466764 creator A5068116016 @default.
- W3089466764 date "2020-10-05" @default.
- W3089466764 modified "2023-10-18" @default.
- W3089466764 title "Molecular Characterization of Culturable Aerobic Bacteria in the Midgut of Field-Caught <i>Culex tritaeniorhynchus</i>, <i>Culex gelidus</i>, and <i>Mansonia annulifera</i> Mosquitoes in the Gampaha District of Sri Lanka" @default.
- W3089466764 cites W169775800 @default.
- W3089466764 cites W1752517413 @default.
- W3089466764 cites W1901022947 @default.
- W3089466764 cites W1966839250 @default.
- W3089466764 cites W1972085576 @default.
- W3089466764 cites W1975716568 @default.
- W3089466764 cites W1975724500 @default.
- W3089466764 cites W1984284869 @default.
- W3089466764 cites W1995964100 @default.
- W3089466764 cites W1997282271 @default.
- W3089466764 cites W2008023574 @default.
- W3089466764 cites W2008343292 @default.
- W3089466764 cites W2009597200 @default.
- W3089466764 cites W2017380332 @default.
- W3089466764 cites W2018212739 @default.
- W3089466764 cites W2019703934 @default.
- W3089466764 cites W2020679169 @default.
- W3089466764 cites W2022088417 @default.
- W3089466764 cites W2025708132 @default.
- W3089466764 cites W2027132033 @default.
- W3089466764 cites W2030551855 @default.
- W3089466764 cites W2032185906 @default.
- W3089466764 cites W2034452193 @default.
- W3089466764 cites W2039270608 @default.
- W3089466764 cites W2039404223 @default.
- W3089466764 cites W2040330925 @default.
- W3089466764 cites W2045408446 @default.
- W3089466764 cites W2054351617 @default.
- W3089466764 cites W2054617843 @default.
- W3089466764 cites W2066993047 @default.
- W3089466764 cites W2076262945 @default.
- W3089466764 cites W2087189381 @default.
- W3089466764 cites W2090411711 @default.
- W3089466764 cites W2100730898 @default.
- W3089466764 cites W2107016720 @default.
- W3089466764 cites W2110110156 @default.
- W3089466764 cites W2112216645 @default.
- W3089466764 cites W2120245140 @default.
- W3089466764 cites W2123853006 @default.
- W3089466764 cites W2133250947 @default.
- W3089466764 cites W2136274814 @default.
- W3089466764 cites W2142482899 @default.
- W3089466764 cites W2153318994 @default.
- W3089466764 cites W2155111271 @default.
- W3089466764 cites W2172661350 @default.
- W3089466764 cites W2173047929 @default.
- W3089466764 cites W2174948040 @default.
- W3089466764 cites W2201275481 @default.
- W3089466764 cites W2334461024 @default.
- W3089466764 cites W2463318743 @default.
- W3089466764 cites W2473218270 @default.
- W3089466764 cites W2548196659 @default.
- W3089466764 cites W2564913816 @default.
- W3089466764 cites W2572901110 @default.
- W3089466764 cites W2597464669 @default.
- W3089466764 cites W2794920436 @default.
- W3089466764 cites W2803848880 @default.
- W3089466764 cites W2898241985 @default.
- W3089466764 cites W2938294083 @default.
- W3089466764 cites W4235937608 @default.
- W3089466764 doi "https://doi.org/10.1155/2020/8732473" @default.
- W3089466764 hasPubMedCentralId "https://www.ncbi.nlm.nih.gov/pmc/articles/7556092" @default.
- W3089466764 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/33083488" @default.
- W3089466764 hasPublicationYear "2020" @default.
- W3089466764 type Work @default.
- W3089466764 sameAs 3089466764 @default.
- W3089466764 citedByCount "2" @default.
- W3089466764 countsByYear W30894667642022 @default.
- W3089466764 countsByYear W30894667642023 @default.
- W3089466764 crossrefType "journal-article" @default.
- W3089466764 hasAuthorship W3089466764A5000845694 @default.
- W3089466764 hasAuthorship W3089466764A5008193009 @default.
- W3089466764 hasAuthorship W3089466764A5012056038 @default.
- W3089466764 hasAuthorship W3089466764A5027701145 @default.
- W3089466764 hasAuthorship W3089466764A5047815228 @default.
- W3089466764 hasAuthorship W3089466764A5068116016 @default.
- W3089466764 hasBestOaLocation W30894667641 @default.
- W3089466764 hasConcept C159047783 @default.
- W3089466764 hasConcept C173758957 @default.
- W3089466764 hasConcept C2522874641 @default.
- W3089466764 hasConcept C2776217558 @default.
- W3089466764 hasConcept C2777695942 @default.
- W3089466764 hasConcept C2777775583 @default.
- W3089466764 hasConcept C2778768067 @default.
- W3089466764 hasConcept C2779141303 @default.
- W3089466764 hasConcept C42062724 @default.
- W3089466764 hasConcept C523546767 @default.