Research Articles
Brewing Protection: How Tea Polyphenols Shield Eye Lens Cells From Sugar-Induced Damage
Explore how tea polyphenols protect lens cells against high glucose damage and their potential role in preventing diabetic cataracts.
A One-Two Punch for Pancreatic Cancer: How Timing is Everything
A clever clinical trial tests a new drug sequence to outsmart one of oncology's toughest foes - pancreatic cancer.
The Green Assassin: How a Common Plant Compound Is Revolutionizing Leukemia Treatment
Discover how solanine, a natural compound found in potatoes and tomatoes, shows promising effects against leukemia cells and enhances chemotherapy effectiveness.
The Double-Edged Sword: How Cancer's "Suicide" Program Fuels Its Comeback
Exploring the paradoxical role of apoptotic markers in tumor recurrence and cancer treatment outcomes.
The Delicate Balance: How a Cellular Gatekeeper Can Turn Toxic in Our Brains
Discover how TRPV4 protein's overactivation causes neurotoxicity through enhanced oxidative stress and potential therapeutic interventions.
Nature's Ally in the Fight Against Multiple Myeloma: How Emodin Boosts Cancer Treatment
Discover how emodin, a natural compound from plants, enhances carfilzomib efficacy in multiple myeloma treatment through apoptosis and autophagy pathways.
The Tiny Guardian: How a Microscopic Molecule Could Save Your Heart from Attack
Discover how MicroRNA-182-5p protects heart cells during heart attacks by regulating PTEN and preventing apoptosis.
Viral Sabotage: How Adenovirus Outsmarts Our Cellular Defense System
Discover how adenovirus E4orf3 proteins serotype-specifically reorganize the Mre11 complex to bypass cellular defenses in this engaging scientific exploration.
Silencing CASC9: A Revolutionary Approach to Combat Gastric Cancer and Reverse Chemotherapy Resistance
Discover how silencing the CASC9 gene fights gastric cancer and reverses chemoresistance through molecular pathways and experimental evidence.
The Hidden Inflammatory Trigger in Our Air and Food
Discover how polycyclic aromatic hydrocarbons (PAHs) in our environment contribute to cardiovascular disease through inflammatory mechanisms beyond DNA damage.