Research Articles
The Leaky Gatekeeper: How an Ancient Herb Heals the Brain's Fortress After Stroke
Discover how Erigeron breviscapus, an ancient herb, repairs blood-brain barrier damage after stroke through its unique molecular mechanisms.
The Silent Guardians: How a "Domesticated" Jumping Gene Stabilizes Our Genome
Discover how the domesticated jumping gene L1TD1 stabilizes our genome by controlling LINE-1 retrotransposons and its implications for cancer and neurodegenerative diseases.
Beyond the Petri Dish: How AI is Decoding Drug Effects in 3D Mini-Organs
Exploring how AI-powered image analysis is revolutionizing drug testing in 3D organotypic cultures by quantifying dynamic morphological responses.
Ocean Treasure vs. Metastatic Menace: How a Sea Sponge Compound Disrupts Melanoma's Skeleton
Exploring how jaspamide from sea sponges disrupts melanoma metastasis by targeting the actin cytoskeleton
Microtubules: The Brain's Master Builders
How tiny cellular scaffolds guide the nervous system's wiring through microtubule dynamics in growth cones.
Decoding Bladder Cancer's Molecular Secrets: How Hub Genes Predict Survival and Guide Treatment
Discover how hub genes like BUB1B and CDK1 drive bladder cancer progression and serve as biomarkers for precision medicine approaches.
The Cellular Symphony: How Actin Stress Fibers Conduct Mechanical Forces to Awaken Sensing Channels
Exploring how actin stress fibers transmit mechanical forces to activate mechanosensitive ion channels in cells
The Hidden Conductor: How Cofilin-1 Orchestrates Your Genome's Copy Machine
Discover how cofilin-1, previously known for cytoskeleton regulation, plays a crucial role in DNA replication by stabilizing MCM2-7 helicase loading during genome duplication.
The Stathmin Switch: How a Tiny Protein Fuels Childhood Cancer's Deadly Spread
Groundbreaking research reveals how stathmin protein hijacks the actin cytoskeleton to drive neuroblastoma metastasis in children.
The Silent Architects: How Cellular Sculptors Build Platelets—and How Cancer Drugs Accidentally Sabotage Them
Discover how epigenetic modifications of non-histone proteins orchestrate platelet production and how cancer drugs inadvertently disrupt this delicate process.