Initially known for helping cells survive low temperatures, these proteins are now understood as crucial regulators of genetic information and human health.
Discover the cellular mechanics behind phagosome formation, a process where cells internalize particles and create a specialized organelle for degradation.
Understand the principles behind in silico models, from their data-driven construction to their role in accelerating and guiding modern scientific discovery.
Explore the Fas/FasL signaling pathway, a molecular communication system that directs programmed cell death to maintain biological balance and prevent disease.
Understand the NDM enzyme, a key driver of antibiotic resistance that neutralizes last-resort treatments and presents a complex public health challenge.
Discover how the antibiotic vancomycin's effectiveness relies on its precise molecular architecture and the direct link between its shape and its function.
Discover the pivotal role of the S6K1 protein in orchestrating cell growth and metabolism, and how its dysregulation contributes to major human diseases.
Delve into the functions of the SLC6A14 amino acid transporter, from its support of cellular homeostasis to its critical involvement in cancer progression.
Explore how a common genetic variation influences brain serotonin and emotional sensitivity, shaping how we respond to both stressful and supportive life events.
Delve into the zebrafish reproductive process, from distinct courtship rituals and external fertilization to the visible development of embryos within transparent eggs.
Discover virioplankton, the unseen viral majority in aquatic systems, and learn their fundamental role in driving nutrient cycles and shaping microbial ecosystems.
Discover how TNF receptor signaling maintains immune balance and what happens when this crucial system is dysregulated, leading to chronic disease and new therapies.
Explore the connection between the spinal cord, nerve signals, and respiratory muscles to understand how breathing is sustained following quadriplegia.
Explore how molecular engineering uses pH as a trigger for self-assembly, a core principle for creating materials with responsive, controlled functionality.
Explore the biological mechanisms and environmental interactions that define the diverse forms and foundational functions of algae in underwater ecosystems.