Physics Fundamentals for Modern Energy Systems

Understanding the global energy transition requires more than just headlines; it demands a solid grasp of the underlying physical laws that govern energy. This course provides a clear, conceptual foundation in energy physics, enabling you to analyze different energy sources—from fossil fuels to renewables and nuclear—based on their theoretical limits, efficiencies, and real-world constraints. What you'll learn: * Understand the fundamental laws of thermodynamics (First and Second Laws) and their application to energy conversion. * Analyze the physical mechanisms and theoretical efficiency limits of solar, wind, hydro, and geothermal power generation. * Practice calculating energy density, power output, and efficiency across different energy extraction and transmission systems. * Learn the physics behind modern energy storage technologies, including battery chemistry and electrochemical processes. * Apply core concepts to evaluate the physics of climate change and the constraints on reducing atmospheric carbon. The course begins with essential physical concepts and units, moving quickly into the applied physics of heat engines, electricity generation, and energy storage. You will read conceptual explanations followed by practical calculation examples. This course is designed for absolute beginners interested in the science of energy. No prior advanced physics or engineering knowledge is required. Start reading today and build a rigorous scientific understanding of the world's energy challenges.