Organ-Specific Aging Clocks Reveal How Lifestyle Choices Impact Disease Risk and Mortality
Large-scale study maps how different organs age at varying rates and identifies modifiable lifestyle factors that can slow organ decline.
Biological age reversal, epigenetic clocks, senolytics, and anti-aging interventions
667 articles
Large-scale study maps how different organs age at varying rates and identifies modifiable lifestyle factors that can slow organ decline.
New epigenetic clocks reveal breast cancer patients age faster in tumor tissue but slower in distant tissues like cervix.
Comprehensive review reveals EDA2R receptor as both biomarker and active driver of aging processes, offering new therapeutic targets.
Researchers developed 7 organ-specific aging clocks from MRI data, revealing molecular signatures of aging across brain, heart, liver, and other organs.
Researchers develop 2A model that tracks aging patterns across 16 organs, revealing lungs and kidneys age fastest while identifying promising drugs.
New proteomic clocks track aging in 10 organ systems, predicting mortality and disease risk with unprecedented accuracy across diverse populations.
Comprehensive review reveals how CRISPR innovations are revolutionizing genome editing with enhanced precision and safety for therapeutic applications.
New study shows physical training reduces senescent cells in skeletal muscle and improves metabolic function in both lean and obese individuals.
Scientists develop mGL392, a precision senolytic that targets aging cells using lipofuscin binding while minimizing systemic toxicity.
New review reveals senolytic therapies can both help and harm cardiovascular health, challenging clinical translation.
Comprehensive review reveals how cellular senescence drives lung aging and disease, highlighting therapeutic potential of senolytics and senomorphics.
Researchers identify specific inflammatory kidney cells that could be targeted with existing drugs to slow chronic kidney disease progression.