Human gut metagenome
Ontology highlight
ABSTRACT:
PROVIDER: PRJDB19188 | ENA |
REPOSITORIES: ENA
Similar Datasets
Project description:Changes in the intestinal microbiota of Japanese children during the first 3.5 years of life
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Project description:Changes in the intestinal microbiota of Japanese children during the first 3.5 years of life
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Project description:Children develop rapidly during the first years of life, and understanding the different sources and levels of variation in serum proteome of young children is important when using serum proteins as markers for childhood diseases. We have performed label/free quantitative proteomics for longitudinal serum samples collected from a group of children during the first years of life.
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Project description:Very preterm children gut microbiota comparison at the neonatal period of 1 month and 3.5 years of life
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Project description:The period from birth to two years is the phase of the fastest growth and development in children, as well as an important window for the development of intestinal microbiota. Dysbiosis of the gut microbiome can lead to various adverse conditions in children, including malabsorption and immune abnormalities, ultimately resulting in a series of negative events related to growth and development. Lysine acetylation, as a significant post-translational modification, plays a complex and crucial role in the regulation of gut microbiota. This study aims to investigate the mechanism by which ABX-induced lysine acetylation affects the abnormal physiological state simulating gut microbiota dysbiosis in children. In this study, we identified a total of 16,579 acetylation sites from 5,218 proteins. We found that antibiotic-induced dysbiosis in young mice (3 weeks) can cause extensive changes in the lysine acetylation and proteomic profiles of cecal tissue. Differentially acetylated proteins are involved in various metabolic pathways, including the citrate cycle (TCA) cycle, butanoate metabolism, pyruvate metabolism, glycolysis/gluconeogenesis, and fatty acid biosynthesis. These differential acetylation sites are distributed across the cytoplasm, nucleus, and mitochondria, suggesting that multiple cellular functions are involved in regulation. Our findings suggest that early-life gut microbiota dysbiosis may lead to a series of metabolic disorders by regulating lysine acetylation in cecal tissue, resulting in delayed growth and development. This study aims to provide valuable insights into the molecular mechanisms underlying a series of pathophysiological processes caused by early-life gut microbiota dysbiosis. It contributes to a deeper understanding of the consequences of acetylation changes associated with early-life gut microbiota dysbiosis and its potential role in metabolic disorders.
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Project description:The prevalence of atopic diseases has increased with atopic dermatitis (AD) as the earliest manifestation. We assessed if molecular risk factors in atopic mothers influence their offsprings’ susceptibility to an atopic disease. Pairs of pregnant women and their infants with or without parental atopy were followed over the first 2 years of life. Global DNA methylation and differentially methylated regions (DMR) were determined in atopic and non-atopic mothers. During the first 2 years of life, AD was more prevalent in children of atopic compared to non-atopic mothers with an increase in food sensitization in children with AD. 165 DMRs distinguished atopic from non-atopic mothers. Maternal atopy combined with DMRs increased the offsprings’ predicted risk to develop AD from an odds ratio of 2.56 to 4.26.
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