The brain's physical structure is not static. Explore the biological mechanisms that allow our neural wiring to adapt and reorganize throughout our lives.
Explore how brain-computer interfaces translate neural signals, not read thoughts. This overview explains the core science, its practical applications, and the societal impact.
Beyond environmental impact, climate change is a powerful force altering the biological makeup of species and the stability of interconnected ecosystems.
Learn about the biological capabilities that allow the common gut microbe *Enterococcus faecalis* to cause persistent and challenging human infections.
Learn how these engineered probes use a structural change to emit a fluorescent signal, enabling highly specific detection of target DNA and RNA sequences.
Discover the distinct anatomy of the right ventricular myocardium and how its thinner structure is adapted for its specific, low-pressure role in pulmonary circulation.
The brain creates a flexible, invisible field to map the space within reach, a multisensory system that guides our actions and defines our interaction with the world.
Discover how a key neuroscience method preserves the brain's intricate local connections, offering a bridge between single-cell and whole-organism studies.
Examine how cells use the distinct Chk1 and Chk2 proteins to manage DNA damage, a fundamental process with implications for both cancer origin and treatment.
Biodegradable water packaging is often seen as an eco-friendly choice, but its actual breakdown requires specific conditions not found in most environments.
Learn how a broken bone heals through a complex biological process and understand the key factors that contribute to a complete and efficient recovery.
Discover the biological basis for male and female reproduction, exploring the distinct roles and genetic origins of their specialized reproductive cells.
Explore how individual genetic information is reshaping healthcare, moving beyond a one-size-fits-all model to tailor medical care and preventative strategies.
Understand the complex origins of congenital blindness. Learn about the various biological pathways that influence eye development before and after birth.
Discover how computational simulations apply virtual forces to molecules, offering a way to measure and understand their mechanical properties and interactions.
Discover organisms that defy categories by acting as both plant and animal. This metabolic flexibility makes them vital players in aquatic food webs and global nutrient cycles.
Explore the use of genetic similarity as a proxy for species to classify microbial life and understand how this foundational method continues to evolve.
Explore how methanol dehydrogenase enables microorganisms to process methanol, a fundamental biological reaction with broad environmental and technological importance.