20 articles
Researchers identify mechanical modules that control how organisms develop different body shapes across 500 million years of evolution.
Comprehensive review reveals how drugs that eliminate or modify senescent cells could revolutionize anti-aging medicine.
Scientists decode how axolotl digits regrow, uncovering unique mechanisms that could revolutionize regenerative medicine.
A 6-month AI-driven personalized diet intervention cut BMI by 33% and reduced biological age by 8 years in morbidly obese patients.
A sweeping review details how longitudinal multi-omics data, AI, and systems biology are converging to create digital twins and transform healthcare.
A new review reveals senescent cells are far more heterogeneous than assumed, with major implications for senolytics and aging therapies.
C. elegans study finds all tested pro-longevity compounds extend male lifespan, but sulforaphane and metformin uniquely preserve late-life reproductive function.
Comprehensive comparison of Stereo-seq, Visium HD, CosMx, and Xenium platforms reveals key performance differences for cancer research applications.
Revolutionary nanotechnology approaches demonstrate 30% better drug delivery and enhanced muscle regeneration in preclinical studies.
Researchers develop BH3 profiling to predict senolytic drug effectiveness, moving beyond one-size-fits-all aging treatments.
Advanced computational methods integrate genomics, metabolomics, and AI to accelerate discovery of bioactive compounds from natural sources.
A comprehensive review maps how genetics, pharmacogenomics, multi-omics, and digital health tools can personalize athlete care and longevity.
Scientists discover non-canonical muscle stem cells in zebrafish and axolotls that could unlock new regenerative therapies for humans.
Comprehensive review reveals how parabiosis, organoids, and assembloids complement each other to model complex diseases from systemic to tissue levels.
Comprehensive analysis of aging changes in C. elegans reveals new insights that could transform how we understand and combat human aging.
Scientists identify four compounds from aging muscle that significantly extend lifespan in C. elegans and protect against ALS and muscular dystrophy.
Long-term nucleotide supplementation boosted muscle mass, strength, and fiber size in aging mice by suppressing key protein-degradation genes.
Synthetic biology meets wearable tech — engineered living cells and cell-free systems now enable continuous, adaptive monitoring of hormones, pathogens, and drugs.
A mitochondrial-derived peptide dramatically improves muscle energy production and slashes oxidative stress — without adding more mitochondria.
A landmark study integrating genome, methylome, transcriptome, and proteome data from 1,000+ participants reveals five master exercise genes in muscle.
