METHODS: Seven fecal samples from Hylobatidae (white-handed gibbon and siamang) were collected, and the bacteria therein were successfully isolated and subjected to high-throughput sequencing of the 16S rRNA gene.
RESULTS: The acquired amplicon sequence variants (ASVs) were successfully classified into 17 phyla, 82 families, 164 genera, and 43 species of microbes. Each small ape exhibited a unique gut microbiota profile. The phyla Bacteroidota and Firmicutes were dominant in each individual. Environmental conditions and host genetics are among the factors that influence the small ape's gut microbiome composition.
CONCLUSIONS: These findings provide valuable insights into the gut microbiota composition of small apes at Zoo Taiping and Night Safari, thus contributing to the health management and welfare efforts of small apes in captivity.
METHODS: This study aims to resolve the gut microbiome composition of S. syndactylus by using a fecal sample as DNA source, adapting high-throughput sequencing, and 16S rRNA as the targeted region.
RESULTS: A total of 1 272 903 operational taxonomic units (OTUs) reads were assigned to 22 phyla, 139 families, and 210 genera of microbes. The {Unknown Phylum} Bacteria-2 is the dominant phyla found across all samples. Meanwhile, {Unknown Phylum} Bacteria-2 and Firmicutes are genera that have the highest relative abundance found in the Siamang gut.
CONCLUSIONS: This study yields nonsignificance relationship between Siamang gut microbiome composition with these three factors: group, sex, and age.
METHODS: To comprehensively analyze the gut microbiome diversity of three endangered primate species at Matang Wildlife Centre-Hylobates abbotti, Macaca fascicularis, and Macaca nemestrina, using high-throughput sequencing of the 16S rRNA gene.
RESULTS: A total of 18 phyla, 84 families, 188 genera, and 46 species were successfully classified. H. abbotti exhibited the highest microbial diversity with a distinct microbiome profile from the Macaca species. The presence of Treponema (nonpallidum), Bifidobacterium, and Faecalibacterium prausnitzii is critical for gut health, promoting digestion and maintaining the microbial balance.
CONCLUSION: This study highlights the importance of monitoring microbial diversity in captive primates to better understand their health and facilitate the early detection of potential pathogens. This also offers insights into microbiome-based strategies for improving overall animal welfare.