272 articles
Go beyond the basics to understand how bile acid receptors FXR and TGR5 orchestrate metabolism, inflammation, and longevity pathways — and why their dysfunction accelerates aging.
Discover how bile acids — once thought to be simple digestive helpers — are actually powerful chemical signals that influence your metabolism, longevity, and overall health.
A graduate-level deep dive into the systems biology of calcium dyshomeostasis — from single-channel biophysics to genome-wide transcriptional reprogramming — and the emerging therapeutic strategies designed to correct it.
Go beyond the basics and explore the precise molecular machinery — from ER stress to mitochondrial calcium overload — that links calcium signaling failure to the hallmarks of aging.
Discover how calcium — yes, the same mineral in your bones — acts as a tiny messenger inside your cells, and why its signals go haywire as we age.
A graduate-level deep dive into the molecular architecture of sphingolipid-driven aging — from compartment-specific ceramide signaling and SASP amplification loops to emerging pharmacological strategies targeting the ceramide/S1P axis.
Go beyond the basics and explore the precise molecular mechanisms by which ceramide accumulation, the ceramide/S1P rheostat, and sphingolipid-driven inflammation accelerate — or potentially slow — the aging process.
Discover the surprising family of fats living inside your cells — and why scientists believe they play a key role in how we age.
A rigorous mechanistic exploration of sestrin signaling networks — from GATOR complex crystal structures to exercise mimetics and therapeutic targeting strategies for age-related disease.
Go beyond the basics and explore how sestrins work at the molecular level — regulating AMPK, mTORC1, and autophagy to coordinate your cell's response to stress and aging.
Meet sestrins — the remarkable proteins your cells make when under stress that may hold the key to healthier, longer aging. No science degree required.
A deep mechanistic exploration of neutrophil extracellular trap biology in the context of aging — from PAD4 citrullination dynamics and gasdermin-driven release to clinical immunopathology and next-generation therapeutic targets.
