Renewable Energy Systems Explained: Sustainable Power, Design & Engineering Solutions

Renewable Energy Systems Explained: Sustainable Power, Design & Engineering Solutions is an open-access, rigorous undergraduate-level engineering curriculum module designed for engineering students, power systems analysts, and clean technology practitioners. Aligned with core ABET and CEAB electrical, mechanical, and environmental systems engineering syllabi, this module provides an in-depth treatment of renewable power generation thermodynamics, grid integration dynamics, energy storage kinetics, and techno-economic dispatch.

Curricular & Technical Highlights:

• Functional System Architecture: Employs an IDEF0 (Input-Control-Output-Mechanism) workflow to demonstrate how meteorological resource streams, diurnal load profiles, and site constraints are transformed under utility grid codes and safety standards into stable, compliant, and dispatchable clean energy designs.
• Aerodynamic & Photovoltaic Thermodynamics: Rigorous analytical formulations covering Betz limit theoretical ceilings (16/27), swept rotor kinetic power extraction, solar irradiance Peak Sun Hours (PSH), and Balance-of-System (BOS) efficiency derating.
• Microgrid Dispatch & Energy Storage Kinetics: Quantitative modeling of 24-hour diurnal dispatch, Battery Energy Storage Systems (BESS), State of Charge (SoC), Depth of Discharge (DoD), C-rates, and grid curtailment minimization.
• Grid Decarbonization & Inertia: Technical analysis of grid-forming inverters, synthetic inertia emulation, synchronous condensers, and long-duration seasonal green hydrogen electrolysis.
• Comparative Systems Engineering: A multi-criteria systems trade-off matrix evaluating tracking solar PV, offshore wind, lithium-ion BESS, pumped hydroelectric storage (PHS), and PEM green hydrogen electrolysis across capacity factors, levelized costs, grid response speeds, and environmental footprints.
• Worked Quantitative Engineering Problems: Step-by-step numerical calculations covering solar PV array peak capacity and roof area sizing, utility wind turbine swept power output, remote clinic battery backup sizing, run-of-river hydroelectric generation, PEM electrolyzer green hydrogen yield, geothermal binary-cycle heat rejection, and Levelized Cost of Electricity (LCOE).
• Self-Assessment & Concept Review Modules: Comprehensive interactive review questions, analytical scenario investigations, and applied quantitative engineering problem sets.

Canonical web edition and interactive dynamic simulators: https://prep4uni.online/stem/physical-technologies/environmental-engineering/renewable-energy-systems-engineering/