A high-fat diet of 3 days in mice leads to a reduction in the amount of glucose that reaches the brain. The mouse brain restored its sugar uptake after 4 weeks, albeit at the cost of the rest of the body. High-fat-content foods throw our bodies out of kilter. Obesity and diseases such as type 2 diabetes can be the result. But what does a high-fat diet actually do to our brain? Scientists from the Max Planck Institute for Metabolism Research in Cologne have looked into the brains of mice to understand how obesity and diabetes develop.
“A high-fat diet reduces the uptake of blood glucose into the ...
A new study is to be presented at the Pediatric Academic Societies 2016 Meeting The study, “Marijuana Exposure in Children Hospitalized for Bronchiolitis,” recruited parents of previously healthy children 1 month to 2 years old who were admitted to Children’s Hospital Colorado (CHC) between January 2013 and April 2014 with bronchiolitis, an inflammation of the smallest air passages in the lung. The parents completed a questionnaire about their child’s health, demographics, exposure to tobacco smoke, and as of October 2014, whether anyone in the home used marijuana. Marijuana became legal in Colorado on January 1, 2014.
Of the children who were identified as having been exposed to marijuana smokers, urine samples showed traces of a metabolite of tetrah...
Accelerated ageing and renal dysfunction links lower socioeconomic status and dietary phosphate intake especially in red meat
A diet containing too much red meat and not enough fruit and vegetables could increase your body’s ‘biological age’ and contribute to health problems. Research led by University of Glasgow has found a moderate increase in serum phosphate levels caused by red meat consumption, combined with a poor overall diet, increases biological age in contrast to chronological age.
The study, which looked at participants from most to least deprived in the NHS Greater Glasgow Health Board area, also demonstrates deprived males were the worst affected...
The N3A receptor, as modeled here by the UB researchers, may be silent under normal conditions, but can be reactivated through the unique site (in red) under acidic conditions, such as after a stroke or seizure.
Strokes, seizures, traumatic brain injury and schizophrenia: these conditions can cause persistent, widespread acidity around neurons in the brain. But exactly how that acidity affects brain function isn’t well understood. University at Buffalo researchers have begun to unravel some of the puzzle. They found that an elusive brain receptor may play an important role in the death of neurons from neurological diseases.
The UB researchers study a family of brain receptors that are critical to learning and memory, called NMDA (N-methyl-D-aspartate) receptors...
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