Quantitative Physiology: Modeling Organ Transport Systems

Understanding how the human body transports oxygen, blood, and waste requires more than just memorizing anatomy—it demands a quantitative grasp of physical laws. This comprehensive course bridges the gap between biology and engineering, teaching you how to apply principles of mass transport, fluid mechanics, and thermodynamics to the human body. What you'll learn: - Understand the foundational physical laws of diffusion, convection, and mass balance in biological tissues. - Model the hemodynamics of the cardiovascular system using fluid mechanics and pressure-flow relationships. - Analyze gas transport, lung compliance, and ventilation-perfusion mechanics within the respiratory system. - Evaluate renal filtration, clearance, and countercurrent exchange mechanisms quantitatively. - Explore modern computational approaches and systems biology concepts used to simulate organ function. - Apply quantitative equations to analyze biomedical engineering problems and artificial organ-assist devices. You will start with core physical principles and foundational mathematical definitions before moving into detailed, chapter-by-chapter analyses of individual organ systems. Through clear written derivations, conceptual breakdowns, and practical text-based exercises, you will build a solid analytical framework for physiological systems. This course is designed for beginners in bioengineering, physiology, or pre-med studies, requiring no advanced engineering background to start. Start reading today to master the mathematical and physical foundations of human physiology.