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Guided learning journeys that build knowledge step by step.
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7817 Paths · page 563 / 782
This learning path guides undergraduate pre-med and physiology students through the foundational concepts and mechanisms of neuronal electrophysiology. Starting with basic cell physiology, it progresses to ion channels, membrane potentials, action potentials, propagation, synaptic transmission, and plasticity, building a systematic understanding of how neurons generate and transmit signals.
A systematic introduction to endocrine physiology, covering hormones, endocrine glands, receptors, signal transduction, and feedback regulation. Designed for high school students with basic biology knowledge.
This learning path introduces high school biology students to the fundamental organization and function of the nervous system. Starting with basic cell biology, it covers neurons, glia, the action potential, synaptic transmission, and the division into central and peripheral nervous systems.
This learning path introduces the concept of homeostasis and the regulatory mechanisms that maintain stable internal conditions. It covers the basic components of homeostatic control systems, the differences between negative and positive feedback, and real-life examples. The path is designed for high school students with basic biology knowledge.
A structured learning path for high school biology students to understand the basic principles of cellular physiology, focusing on membrane structure, transport mechanisms, ion channels, and the resting membrane potential. The path begins with essential cell biology concepts and builds up to the electrical properties of the cell membrane.
This learning path introduces high school students to the fundamental principles of physiology, focusing on homeostasis, organ systems, and the integration of body functions. It begins with basic biological concepts and builds up to the coordinated activity of organ systems.
This learning path equips aspiring immunology researchers with essential skills for independent research, covering experimental design, flow cytometry, assays, data analysis, reproducibility, ethics, and scientific communication. It builds on a solid immunology foundation, guiding learners from formulating hypotheses to publishing reproducible findings.
This advanced graduate-level path explores the evolutionary origins and diversification of immune systems. Starting from basic evolutionary principles, it traces the emergence of innate immunity, the evolution of adaptive immunity, and the roles of gene duplication and pathogen pressure in shaping immune complexity.
This advanced graduate-level path equips oncology and immunology students with the knowledge to understand and apply predictive and monitoring biomarkers in cancer immunotherapy. It covers foundational immunology, key biomarkers like PD-L1 and tumor mutational burden, and practical considerations for clinical use.
This advanced graduate-level path explores the unique immune environment of mucosal surfaces, focusing on the gut and lung. It builds from core immunology principles to specialized topics including IgA biology, mucosal tolerance, the microbiome's role, and mucosal vaccine design. Learners will gain a deep understanding of how mucosal immunity maintains homeostasis and protects against pathogens.