Renewable Energy Systems and Grid Integration Engineering Course
Master the full engineering stack of renewable energy systems — from solar and wind fundamentals to grid integration, power electronics, and microgrid design. This course equips engineers with the technical depth to analyze, design, and connect renewable generation at any scale. Build the skills that the energy transition demands.
What you will learn:
You will develop a rigorous understanding of solar, wind, hydro, and biomass energy resources and learn how to design photovoltaic and wind turbine systems from the component level up. The course covers power systems architecture, power flow analysis, fault calculations, and grid stability so you can evaluate how renewables interact with transmission and distribution networks. You will master power electronics converter topologies and control strategies used in grid-tied applications, and gain hands-on knowledge of battery and mechanical storage technologies. Advanced topics include microgrid design, energy management systems, hydrogen production, and digital simulation tools used in professional practice.
How you study in practice Renewable Energy Systems and Grid Integration Engineering Course
How you practice Renewable Energy Systems and Grid Integration Engineering Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course Content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFundamentals of Renewable Energy Sources
Fundamentals of Renewable Energy Sources
Lesson 1 • Resource Assessment and Site Analysis
Applies measurement tools and data sources to evaluate site-specific renewable potential. Outputs feed directly into system design decisions.
Lesson 2 • Hydropower and Biomass Resources
Quantifies hydraulic head, flow rate, and biomass energy content. Connects resource assessment to technology selection criteria.
Lesson 3 • Solar Energy Physics
Examines solar irradiance, spectral distribution, and photovoltaic effect. Provides the basis for sizing and evaluating solar generation systems.
Lesson 4 • Wind Energy Fundamentals
Analyzes wind resource characteristics and aerodynamic power extraction. Establishes Betz limit and wind speed probability distributions.
Lesson 5 • Energy Conversion Principles
Covers thermodynamic and electromagnetic conversion laws underlying all renewable technologies. Connects physical principles to practical energy yield calculations.
Chapter 2HideHide detailsSee detailsPhotovoltaic System Design and Components
Photovoltaic System Design and Components
Lesson 1 • Array Configuration and Shading
Teaches series-parallel string design and the impact of partial shading on output. Directly informs inverter and optimizer selection.
Lesson 2 • PV System Energy Yield Modeling
Applies simulation tools to predict annual energy production with loss factors. Validates designs against performance ratio benchmarks.
Lesson 3 • PV Cell and Module Technology
Covers monocrystalline, polycrystalline, and thin-film cell types and their I-V characteristics. Establishes component-level understanding for system design.
Lesson 4 • Inverter Types and Selection
Compares string, central, and microinverter topologies for efficiency and reliability. Guides inverter sizing relative to array capacity.
Lesson 5 • Balance of System Components
Covers wiring, combiners, disconnects, and monitoring equipment. Ensures students can complete a code-compliant system design.
Chapter 3HideHide detailsSee detailsWind Turbine Systems and Engineering
Wind Turbine Systems and Engineering
Lesson 1 • Wind Turbine Components and Operation
Examines rotor, nacelle, drivetrain, and tower subsystems and their interactions. Provides mechanical context for electrical output analysis.
Lesson 2 • Wind Farm Layout and Wake Effects
Applies wake models to optimize turbine spacing and minimize energy losses. Directly impacts annual energy production estimates.
Lesson 3 • Turbine Control and Grid Compliance
Teaches active power curtailment, frequency response, and fault ride-through requirements. Prepares students for grid code compliance design.
Lesson 4 • Offshore Wind Engineering Considerations
Addresses foundation types, marine environment challenges, and cable export systems. Extends onshore knowledge to offshore project contexts.
Lesson 5 • Wind Turbine Electrical Systems
Covers doubly-fed induction and permanent magnet generator electrical characteristics. Links mechanical rotation to grid-compatible power output.
Chapter 4HideHide detailsSee detailsPower Systems and Grid Architecture
Power Systems and Grid Architecture
Lesson 1 • Grid Stability Fundamentals
Introduces transient, voltage, and frequency stability concepts for power systems. Prepares students to evaluate stability impacts of high renewable penetration.
Lesson 2 • Voltage Regulation and Reactive Power
Examines voltage control devices and reactive power compensation strategies. Directly addresses voltage challenges introduced by distributed renewables.
Lesson 3 • Power Flow Analysis
Applies Newton-Raphson and Gauss-Seidel methods to solve network power flows. Enables students to assess loading and voltage profiles under renewable injection.
Lesson 4 • Power System Structure and Voltage Levels
Maps generation, transmission, and distribution hierarchy and voltage transformation. Provides the grid architecture context for all integration analysis.
Lesson 5 • Short Circuit and Fault Analysis
Calculates symmetrical and asymmetrical fault currents using sequence networks. Supports protection system design for renewable-integrated grids.
Chapter 5HideHide detailsSee detailsPower Electronics for Renewable Systems
Power Electronics for Renewable Systems
Lesson 1 • Semiconductor Switching Devices
Covers IGBT, MOSFET, and diode characteristics relevant to converter design. Establishes switching behavior as the foundation for converter analysis.
Lesson 2 • Converter Reliability and Protection
Addresses thermal cycling, fault current limiting, and protection coordination. Ensures converter designs meet reliability and safety standards.
Lesson 3 • DC-AC Inverter Topologies
Examines two-level and multilevel inverter structures for grid-tied applications. Provides the basis for harmonic analysis and filter design.
Lesson 4 • Grid-Tied Converter Control
Teaches current control, phase-locked loops, and synchronization methods. Enables students to design stable grid-connected converter controllers.
Lesson 5 • DC-DC Converter Topologies
Analyzes buck, boost, and buck-boost converters for PV and battery interfaces. Connects converter duty cycle to voltage and current transformation.
Chapter 6HideHide detailsSee detailsEnergy Storage Systems and Integration
Energy Storage Systems and Integration
Lesson 1 • Storage System Sizing and Dispatch
Applies optimization methods to size storage for peak shaving, arbitrage, and backup. Directly links storage capacity to economic and reliability objectives.
Lesson 2 • Battery Technology and Electrochemistry
Covers lithium-ion, lead-acid, and flow battery chemistries and performance parameters. Establishes electrochemical fundamentals for storage system design.
Lesson 3 • Battery Management Systems
Examines cell balancing, state estimation, and thermal management functions. Connects BMS design to safe and efficient battery operation.
Lesson 4 • Mechanical and Thermal Storage
Analyzes pumped hydro, compressed air, flywheel, and thermal storage technologies. Broadens storage portfolio knowledge beyond electrochemical systems.
Lesson 5 • Grid Services from Storage Systems
Covers frequency regulation, voltage support, and capacity market participation. Enables students to quantify revenue streams from grid-connected storage.
Chapter 7HideHide detailsSee detailsRenewable Energy Grid Integration
Renewable Energy Grid Integration
Lesson 1 • Hosting Capacity Analysis
Applies power flow and voltage analysis to determine maximum distributed generation capacity. Identifies limiting constraints and mitigation options.
Lesson 2 • Grid Codes and Technical Requirements
Reviews voltage, frequency, power factor, and fault ride-through requirements for grid connection. Enables students to design compliant renewable generation systems.
Lesson 3 • Interconnection Study Process
Covers screening, impact, and facilities study stages for grid interconnection. Establishes the regulatory and technical workflow for connecting generation.
Lesson 4 • Frequency and Inertia Challenges
Analyzes declining system inertia and rate-of-change-of-frequency risks with high inverter penetration. Introduces synthetic inertia and fast frequency response solutions.
Lesson 5 • Curtailment and Congestion Management
Examines causes of renewable curtailment and transmission congestion mitigation strategies. Connects operational constraints to project economics.
Chapter 8HideHide detailsSee detailsMicrogrid Design and Advanced Integration
Microgrid Design and Advanced Integration
Lesson 1 • Microgrid Protection Systems
Addresses bidirectional fault current, adaptive relaying, and communication-assisted protection. Solves protection challenges unique to inverter-dominated microgrids.
Lesson 2 • Hybrid System Case Studies
Analyzes real-world PV-wind-storage hybrid and remote microgrid projects. Consolidates all course competencies through applied engineering review.
Lesson 3 • Microgrid Control Strategies
Covers droop control, master-slave, and consensus-based control for islanded and grid-tied modes. Enables students to design stable microgrid control architectures.
Lesson 4 • Microgrid Architecture and Components
Defines AC, DC, and hybrid microgrid topologies and their key components. Establishes the structural framework for microgrid design projects.
Lesson 5 • Energy Management System Design
Applies optimization and forecasting to schedule DER dispatch within a microgrid. Integrates storage, load, and generation management into a unified EMS.
Your valid completion certificate
This course is for you:
Electrical engineer: ready to specialize in renewable energy systems.
Power systems engineer: seeking deeper expertise in grid-scale renewables.
Mechanical engineer: transitioning into wind or solar project engineering roles.
Energy consultant: needing rigorous technical grounding behind client recommendations.
Recent engineering graduate: building specialized credentials for the clean energy sector.
Project developer: wanting to understand the engineering decisions driving project outcomes.
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