Gain a balanced understanding of acupoints, exploring their foundation in traditional medicine and the ongoing scientific inquiry into their bodily function.
Reconstructed from inactive 'fossil' DNA, the Sleeping Beauty system offers a non-viral method for precisely inserting genetic material into a cell's genome.
Explore the science behind a goldfish's brain cell count and what the number reveals about their actual capacity for memory, learning, and recognition.
Explore the principles of X-ray microscopy, a technique for visualizing the internal structure and chemical composition of materials with high-resolution, non-destructive insight.
Leica's automated IHC systems translate the complex science of protein detection into a standardized workflow for reliable clinical and research results.
Explore the structural principles of the nuclear pore complex, examining how protein components assemble into a dynamic and symmetrical molecular machine.
Explore the ordered structures found throughout nature and learn about the fundamental principles of efficiency and physics that guide their formation.
Discover the DCC gene's fundamental roles in human health, from orchestrating nervous system wiring to maintaining cellular order and preventing disease.
Learn what it means to support your body's own stem cell activity and how to evaluate the science behind various approaches, separating evidence from popular hype.
The human face is a source of complex data. This article examines the scientific methods for interpreting this information and the societal responsibilities it creates.
Explore the molecular architecture of Vitamin K. Learn how minor changes to its chemical structure dictate its absorption and specific biological functions.
Learn how Phosphate-Buffered Saline maintains the integrity of blood plasma, creating a stable environment for reliable scientific and diagnostic work.
Once seen as just a bridge between dividing cells, the midbody is now understood to leave behind remnants that guide subsequent cell identity and function.
Explore the design of double network hydrogels, where a brittle internal structure dissipates energy by fracturing, allowing a flexible network to maintain integrity.