Epigenetic clock measures track with future memory loss, though the biological reasons why these machine-learning-derived DNA methylation patterns predict decline remain unexplained.
Researchers report identifying chemical compounds that rejuvenate cells, raising possibilities for an oral medication designed to broadly counter biological aging.
Investigating how APOE variants lower dementia risk reveals that pericytes with the APOE2 allele strengthen vascular barrier integrity against age-related leakage.
Researchers mitigated vascular and protein clearance defects caused by APOE4 in experimental models, revealing prospective therapeutic targets for neurodegenerative disorders.
Shielding flies from natural geomagnetic fields altered mitochondrial function and longevity, demonstrating that low field strength influences cellular biochemistry.
A 12-week study showed creatine increased muscle mass and strength in middle-aged adults without exercise, with further improvements when paired with training.
Research published in Nature indicates that fibrillized tau prompts normal tau to misfold, operating like self-propagating prions across neurodegenerative diseases.
Donor heart tissue mirrors the molecular age and potential function of recipients, findings that could help inform organ rejuvenation strategies and donor availability.
An MRI analysis showed that Alzheimer's disease and mild cognitive impairment exhibited the most pronounced accelerated brain aging, while ADHD and autism displayed no notable changes.
The SASP Score uses deep learning to measure circulating senescence-associated secretory phenotype factors in blood, offering a tool to track systemic senescent cell burden.
In animal models and engineered human heart tissue, the gut metabolite improved cardiac function by up to 80% while decreasing fibrosis and pathological enlargement.
Inhibiting damaging immune cells before they migrate from peripheral lymph nodes into the nervous system reduced neurodegeneration and protected cognitive function in mice.