Study reveals a causal mechanism for pain reduction may be due to an antibiotic-induced shift in the gut's amino acid concentrations.
Fenchol, a natural compound found in basil and other plans, appears to have a neuroprotective effect against Alzheimer's disease. Fenchol reduces the formation of zombie neural cells and increases the degradation of non-functional amyloid beta, allowing for quicker clearance of the protein from the brain.
Children whose saliva produced high amounts of sulfur volatiles disliked raw Brassica vegetables the most. The levels of sulfur volatiles were similar in parents and children, suggesting a shared oral microbiome. However, the relationship between sulfur volatiles and the dislike of Brassica vegetables was not as high in adults, suggesting they may have learned to tolerate the taste of the vegetables over time.
Researchers evaluate the role of the gut-brain axis in relation to health conditions and report on how gut-based interventions could provide relief for some mental health disorders.
An overgrowth in the gastrointestinal tract of the bacteria Klebsiella in preterm babies was associated with an increased presence of certain immune cells and the development of neurological damage. The findings suggest a link between microbiota and brain development.
There is a growing body of evidence linking depression to microbiome health. A new study proposes focusing on the microbiome may help alleviate some of the symptoms of depression associated with the COVID-19 pandemic.
Study reaffirms findings that the gut microbiome may play a significant role in cognitive decline. Researchers found, in mice, a ketogenic diet, hypoxia, and the Bilophila wadsworthia bacteria impaired the hippocampus, leading to signs of cognitive decline.
Study highlights how the enteric nervous system acts similarly to neural networks in the brain and spinal cord.
The gut microbiome can be harnessed to reverse age-related brain deterioration and restore cognitive function, researchers report.
Early-life exposure to antibiotics could impact brain development in areas associated with emotional and cognitive function, a new study reports. Researchers found penicillin exposure in infant mice altered the microbiome and gene expression in key areas of the developing brain.
A diet rich in foods containing isoflavone, a plant-based compound found in legumes, chickpeas, and peanuts, that resembles estrogen, protects against multiple sclerosis symptoms in mouse models.
Infant boys with a gut bacterial composition high in Bacteroidetes were found to have more advanced cognitive and language skills one year later compared to boys with lower levels of the bacteria.
