Project description:This is an untargeted metabolomics dataset of the human gut metabolome derived from infant stool samples. Data acquisition was done using C18 negative and positive mode, as well as HILIC positive mode. In this case study there are 2 individuals, Baby 1 and Baby 2. Sample 1152 is pre-antibiotic sample of Baby 1, Sample 1162 is post-antibiotic without autologous fecal microbiota transplantation (aFMT). Sample 0036 is pre-antibiotic sample of Baby 2, and sample 0045 is post-antibiotic with post-aFMT treatment. The goal of this study was to determine if aFMT can restore the gut microbiota to the individuals pre-antibiotic state after exposure to antibiotics.
Project description:Even though its development starts early in utero, neonatal skin is still immature at birth relative to adult and undergoes a maturation process extending to the first years of life. It is now established that stratum corneum is thinner and dryer, and that skin contains less natural moisturizing factors and lipids in newborns compared to children and adults. Moreover, it has been shown that skin surface area expansion is not linear throughout life and is peaking perinatally, suggesting that baby skin has a higher epidermal cellular turnover. Despite growing resources showing differences between adult and infant skin physiology, molecular and metabolic specificities of baby skin are still poorly understood. To address this critical knowledge gap, we performed an integrative transcriptomic and metabolomic study comparing human primary keratinocytes from babies and adults. Based on state-of-the-art integrative frameworks, our analyses revealed a major shift in the global energetic metabolism in baby keratinocytes compared to adults, highlighting increased amino acid metabolism and mitochondrial oxidative phosphorylation in baby cells to fuel TCA cycle, while showing glycolysis as the major cell energy source in adult cells.
Project description:Even though its development starts early in utero, neonatal skin is still immature at birth relative to adult and undergoes a maturation process extending to the first years of life. It is now established that stratum corneum is thinner and dryer, and that skin contains less natural moisturizing factors and lipids in newborns compared to children and adults. Moreover, it has been shown that skin surface area expansion is not linear throughout life and is peaking perinatally, suggesting that baby skin has a higher epidermal cellular turnover. Despite growing resources showing differences between adult and infant skin physiology, molecular and metabolic specificities of baby skin are still poorly understood. To address this critical knowledge gap, we performed an integrative transcriptomic and metabolomic study comparing human primary keratinocytes from babies and adults. Based on state-of-the-art integrative frameworks, our analyses revealed a major shift in the global energetic metabolism in baby keratinocytes compared to adults, highlighting increased amino acid metabolism and mitochondrial oxidative phosphorylation in baby cells to fuel TCA cycle, while showing glycolysis as the major cell energy source in adult cells.