Understanding cholangiocarcinoma begins at the cellular level. Explore how histology reveals the specific features that confirm a diagnosis and inform patient care.
Explore the biological mechanisms by which childhood trauma recalibrates the body's cortisol system, impacting long-term health and the potential for regulation.
Learn how the inherent structure of molecular motors and the polarity of cellular tracks dictate the precise directional transport vital for cell function.
Explore how an image of the torso provides a window into the body's central framework, revealing the interplay of its protective and functional systems.
Human T cell lines are standardized laboratory models essential for studying immune function and for the preclinical development of cellular therapies.
Learn how the structure of single-stranded nucleic acids makes them essential for dynamic biological functions like carrying genetic code and regulating cell activity.
The HTT gene provides instructions for a protein vital to nerve cell health. Explore how a specific genetic mutation alters this protein, disrupting the nervous system.
Learn how the body produces ketones as an alternative fuel source. This guide covers the underlying metabolic processes and their physiological significance.
Delve into the cellular mechanics of energy production. See how food is converted into ATP and constantly recycled to sustain all biological functions.
Understand the definitive catalog of cancer genes, a curated resource that provides a standardized framework for research and personalized patient care.
Explore the key signaling molecules driving Type 2 inflammation. Learn their function in both bodily defense and allergic conditions like asthma and eczema.
Discover how mapping the physical layout of systems, from atoms to geological formations, provides a foundational understanding for scientific and technical progress.