Delve into the brain's action selection system. Understand the delicate balance of neural circuits that governs our ability to initiate and control movement.
By combining diverse biological data, integrative omics provides a systems-level view of health and disease, clarifying the complex interplay of molecular processes.
Explore the intricate link between the hippocampus and epilepsy, where this vital brain structure can be both a source of seizures and a target of their effects.
Explore the conjugate pad, a key diagnostic component responsible for storing and releasing reagents that determine a rapid test's accuracy and reliability.
Explore how the large-scale study of proteins provides critical insights into biological function and disease that the static genome alone cannot reveal.
An essential RNA element in HIV acts as a control point for viral replication, offering a distinct and promising target for future antiretroviral drug development.
Discover how thyroid function influences the body's ability to maintain potassium balance, a crucial interplay affecting metabolic, nerve, and muscle health.
As technologies that interface with the brain become more common, they offer new paths for healing while prompting vital conversations about privacy and autonomy.
Explore the deep evolutionary history of catfish, tracing the development of key survival traits that allowed this ancient group to diversify across the globe.
Learn how the neurofilament light chain blood test reflects nerve health and why a "normal" result is not a single value but depends on factors like age.
An overview of Pendred syndrome, exploring the connection between its genetic origins and its variable impact on the body's auditory and endocrine systems.
Explore how artificial intelligence is integrated into medical practice and the important considerations for its responsible and effective deployment in healthcare.
Co-culture assays move beyond single-cell studies to reveal how cells interact, offering a controlled look at the complex communication driving biology.
While "opposites attract" is a compelling notion, relationship science suggests we are quietly drawn to partners who reflect our own traits, values, and backgrounds.
An overview of how a normal cell signaling process can become a driver of cancer and the precise molecular therapies developed to counteract this change.