Discover how IRF4 and NUCB1 protein biomarkers could transform diagnosis and treatment of diffuse large B-cell lymphoma through proteomics research.
Explore how plant cells use their cytoskeleton to accommodate fungal partners in mycorrhizal symbiosis, a crucial relationship for nutrient exchange.
Discover how arsenic trioxide disrupts the cytoskeleton of esophageal cancer cells in the peritoneal microenvironment, offering new hope for cancer treatment.
Discover the fascinating process of pre-mRNA splicing - the cellular mechanism that allows a single gene to produce multiple proteins, creating life's incredible diversity.
Discover how the Y-27632 molecule transforms airway progenitor cells, enabling unprecedented regeneration potential for chronic lung disease treatment.
Explore the breakthrough science of photoswitchable microtubule inhibitors - light-controlled drugs that precisely target cancer cells while sparing healthy tissue.
Explore the revolutionary field of molecular editing - a breakthrough technique allowing scientists to perform atomic-level surgery on molecules to create new drugs and materials.
Discover how artificial intelligence is revolutionizing cryo-electron microscopy by detecting microtubules in high-noise images, accelerating cellular research and drug discovery.
New research reveals how Natural Killer cells detach from tumor cells after delivering their lethal payload, enabling serial killing capabilities.
Explore how synthetic, cell-derived, brain-derived, and recombinant β-amyloid proteins are advancing Alzheimer's disease research and drug development.