Learn about the shift a disease makes from a sudden outbreak to a stable, predictable pattern, becoming a persistent and manageable part of public health.
Explore the science behind methane plumes, concentrated releases of a potent greenhouse gas, and their significant contribution to atmospheric warming.
Learn how standardized imaging and computational analysis create detailed cellular profiles, revealing subtle responses to drugs and genetic perturbations.
Examine the chromosome set of *Drosophila* and see how its distinct structure became a key tool for mapping genes and defining the principles of heredity.
Protein imaging provides a direct look at the molecular basis of health and disease, driving biological discovery and informing the development of new medicines.
An overview of Tenascin X, an extracellular matrix protein essential for tissue strength and flexibility, and its connection to connective tissue disorders.
Learn how contractile muscle functions, from its overall tissue organization down to the molecular interactions and neural signals that create movement.
Lactobacillus maintains the delicate equilibrium of the female reproductive tract. Explore how this microbial balance protects health and what occurs when it is disrupted.
Explore the principles for classifying genetic mutations. Learn how a change in DNA sequence length is the key to identifying indels and their effects.
Discover how the precise control of cellular calcium entry via CRAC channels is fundamental to immune system activation, disease, and modern therapeutic strategies.
A unique gem from the ancient past, Dominican amber offers an exceptionally clear view into prehistoric ecosystems through its perfectly preserved inclusions.
Gain insight into how a physically restricted spinal cord can impair nerve signals and learn about the approaches used to restore its necessary mobility.
Explore the fundamental architecture of sphingolipids, from their shared ceramide backbone to the head group variations that define their diverse chemical families.
Understanding how Mycobacterium tuberculosis forms community biofilms reveals why the infection persists and presents a complex challenge for effective treatment.
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.