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Engr. Ahmed Mahdy

"Ultimate Wind Energy Course for Electrical Engineering"

The only course out there with everything you need to know about Wind Energy from A to Z

Throughout the course, you will learn:

Read more

"Ultimate Wind Energy Course for Electrical Engineering"

The only course out there with everything you need to know about Wind Energy from A to Z

Throughout the course, you will learn:

  • Types of wind turbines.

  • Rotor solidity and selection of the number of rotor blades.

  • Gearbox in wind turbines.

  • The power extracted by the turbine from the wind.

  • Betz limit and maximum rotor efficiency.

  • Factors affecting wind speed and density.

  • Applied force on the wind turbine, torque coefficient, and the importance of the TSR.

  • Wind turbine generator characteristics.

  • Effect of the rotor diameter and generator size on power.

  • Wind turbines spacing.

  • Wind farm feasibility study.

  • Weibull and Rayleigh probability density functions.

  • Determination of Weibull parameters.

  • Determination of Weibull parameters using the graphical method.

  • Aerodynamics of wind turbines.

  • Pitch-controlled wind turbines.

  • Passive stall-controlled wind turbines.

  • Active stall-controlled wind turbines.

  • Maximum power point tracking in wind turbines.

  • Tip speed ratio (TSR) control.

  • Optimal torque control (OT) MPPT algorithm.

  • Power signal feedback (PSF) control.

  • Perturbation and observation (P&O) or hill-climb searching (HCS).

  • Electricity generation using wind turbines.

  • Permanent magnet synchronous generator (PMSG).

  • Wound rotor synchronous generator (WRSG).

  • Doubly-fed induction generator (DFIG).

  • Brushless permanent magnet DC generator (PMDC).

  • Squirrel-cage induction generator.

  • Wound rotor induction generator.

  • Tubular steel wind turbine tower.

  • Lattice wind turbine tower.

  • Concrete wind turbine tower.

  • Hybrid wind turbine tower.

  • Brakes in the wind turbine.

  • Rotor brakes in the wind turbine.

  • Pitch drive or aerodynamic brakes in the wind turbine.

  • Simulation of a wind turbine system using the ETAP program.

  • MATLAB simulation of the wind turbine.

  • Cp plotting and lookup table in MATLAB.

  • MPPT in MATLAB Simulink.

After Taking This Course, You Will Be Able To

  1. Understand everything about wind energy systems, such as the basic components, factors affecting wind generation, the different probability distribution functions used to represent wind data, and wind feasibility study.

  2. Understand different control systems used in the wind turbine and the types of electrical generators utilized.

  3. You will be able to simulate the wind turbine system in both ETAP and MATLAB programs.

Bonus Gift:

You will also get the slides for the Wind Energy Course for those who are interested in them or have them as a revision for themselves

  • 231 Pages of Wind Energy Course Slides.

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What's inside

Learning objectives

  • Types of wind turbines
  • Rotor solidity and selection of number of rotor blades
  • Power extracted by the turbine from the wind
  • Betz limit and maximum rotor efficiency
  • Factors affecting wind speed and density
  • Applied force on the wind turbine, torque coefficient, and the importance of the tsr
  • Wind turbine generator characteristics
  • Effect of rotor diameter and generator size on power
  • Wind turbines spacing
  • Wind farm feasibility study
  • Weibull and rayleigh probability density functions
  • Determination of weibull parameters
  • Determination of weibull parameters using the graphical method
  • Aerodynamics of wind turbines
  • Pitch-controlled wind turbines
  • Passive stall controlled wind turbines
  • Active stall controlled wind turbines
  • Maximum power point tracking in wind turbines
  • Tip speed ratio (tsr) control
  • Optimal torque control (ot) mppt algorithm
  • Power signal feedback (psf) control
  • Perturbation and observation (p&o) or hill-climb searching (hcs)
  • Electricity generation using wind turbines
  • Permanent magnet synchronous generator (pmsg)
  • Wound rotor synchronous generator (wrsg)
  • Doubly-fed induction generator (dfig)
  • Brushless permanent magnet dc generator (pmdc)
  • Squirrel-cage induction generator
  • Wound rotor induction generator
  • Tubular steel wind turbine tower
  • Lattice wind turbine tower
  • Concrete wind turbine tower
  • Hybrid wind turbine tower
  • Brakes in the wind turbine
  • Rotor brakes in the wind turbine
  • Pitch drive or aerodynamic brakes in the wind turbine
  • Simulation of a wind turbine system using the etap program
  • Matlab simulation of the wind turbine
  • Cp plotting and lookup table in matlab
  • Mppt in matlab simulink
  • Show more
  • Show less

Syllabus

Basics of Wind Turbine
Introduction to Wind Energy
Selection of Type of Wind Turbine
Rotor Solidity and Selection of Number of Rotor Blades
Read more
Gearbox in Wind Turbines
Power Available in the Wind Spectra
Power Extracted by the Wind Turbine
Betz Limit and Maximum Rotor Efficiency
Factors Affecting Wind Speed and Density - Height of Tower
Factors Affecting Air Density
Example 1
Example 2
Applied Force on Wind Turbine, Torque Coefficient and the Importance of the TSR
Example 3
Wind Turbine Generator Characteristics
Example 4
Effect of Rotor Diameter and Generator Size on Power
Wind Turbines Spacing
Course Materials and PDF Slides
Wind Feasibility Study and Probability Distribution Functions
Wind Farm Feasibility Study
Important Statistical Definitions
Example 5
Example 6
Method of Bins
Weibull and Rayleigh Probability Density Functions
Determination of Weibull Parameters
Important Note on Weibull Distribution
Example 7
Determination of Weibull Parameters Using Graphical Method
Example 8
Example 9
Quick Note on Weibull Example
Power Control of Wind Turbines
Aerodynamics of Wind Turbines
Pitch Controlled Wind Turbines
Passive Stall Controlled Wind Turbines
Active Stall Controlled Wind Turbines
Maximum Power Point Tracking Wind Turbines (MPPT)
Introduction to Maximum Power Point Tracking Wind Turbines (MPPT)
Tip Speed Ratio (TSR) Control
Optimal Torque Control (OT) MPPT Algorithm
Power Signal Feedback (PSF) Control
Perturbation and Observation (P&O) or Hill-Climb Searching (HCS)
Types of Wind Electrical Generators
Electricity Generation Using Wind Turbines
Permanent Magnet Synchronous Generator (PMSG)
Wound Rotor Synchronous Generator (WRSG)
Doubly-Fed Induction Generator (DFIG)
Brushless Permanent Magnet DC Generator (PMDC)
Squirrel-Cage Induction Generator
Wound Rotor Induction Generator
Different Types of Towers
Introduction to Different Types of Towers
Tubular Steel Wind Turbine Tower
Lattice Wind Turbine Tower
Concrete Wind Turbine Tower
Hybrid Wind Turbine Tower
Braking System in Wind Turbine
Introduction to Brakes in Wind Turbine
Rotor Brakes in Wind Turbine
Pitch Drive or Aerodynamic Brakes in Wind Turbine
ETAP Simulation for a Wind Energy System
Simulation of a Wind Turbine System Using ETAP Program
MATLAB Simulation for a Wind Energy System
Introduction to MATLAB Simulation of Wind Turbine
Introduction to Cp Model and Lookup Table in MATLAB Simulink
Cp Plotting in MATLAB Simulink
Cp Lookup Table in MATLAB Simulink
Modeling and Simulation of Wind Turbine Part 1
Modeling and Simulation of Wind Turbine Part 2
Introduction to MPPT in MATLAB Simulink
MPPT Simulation in MATLAB Simulink
Basics of Solar Energy
Introduction to PV System
Types of Busbars and Solar Cells
V-I Characteristics of a PV Panel
Different Connections of Solar Panels
Shading and Half Cut Cells
Mounting and Tilt Angle of a PV Panel
Calculation of the Tilt Angle in a Location
Practical Tilt Angle during Different Seasons
Orientation and Azimuth Angle of Solar Panels
Sun Chart and Distance between PV Rows
Panel Parameters and Measurements
Junction Box in PV Panels
Solar Wires and Cables Installation Process
PV String Maximum Voltage
Off-Grid, On-Grid, and Hybrid PV Systems
Bonus Lecture

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Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Ultimate Wind Energy Course for Electrical Engineering with these activities:
Review Electrical Generator Fundamentals
Strengthen your understanding of electrical generators, which are a core component of wind turbines, before diving into the course material.
Show steps
  • Review the principles of electromagnetic induction.
  • Study the different types of electrical generators.
  • Practice solving problems related to generator operation.
Review 'Wind Energy Explained: Theory, Design and Application'
Gain a solid foundation in wind energy principles by studying a well-regarded textbook.
Show steps
  • Read the chapters related to wind turbine aerodynamics and generator types.
  • Work through the example problems in the book.
  • Summarize the key concepts from each chapter.
Practice Weibull Distribution Calculations
Reinforce your ability to work with Weibull and Rayleigh distributions, which are essential for wind resource assessment.
Show steps
  • Find datasets of wind speed measurements.
  • Calculate Weibull parameters from the datasets.
  • Estimate the average wind speed and power density.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Create a Presentation on Wind Turbine Control Systems
Deepen your understanding of wind turbine control by researching and presenting on different MPPT algorithms.
Show steps
  • Research different MPPT algorithms used in wind turbines.
  • Prepare slides explaining the principles of each algorithm.
  • Present your findings to a peer or study group.
Review 'Electric Machines and Drives: A First Course'
Solidify your understanding of electrical machines and drives, which are critical components in wind turbines.
Show steps
  • Read the chapters related to synchronous and induction machines.
  • Work through the example problems in the book.
  • Relate the concepts to wind turbine generator types.
Simulate a Wind Turbine in MATLAB Simulink
Apply your knowledge by building a simulation of a wind turbine system in MATLAB Simulink.
Show steps
  • Model the wind turbine aerodynamics and generator.
  • Implement a control system for MPPT.
  • Test the simulation under different wind conditions.
Contribute to an Open-Source Wind Energy Project
Gain practical experience by contributing to an open-source project related to wind energy.
Show steps
  • Find an open-source project related to wind energy simulation or analysis.
  • Identify a bug or feature to work on.
  • Contribute code or documentation to the project.

Career center

Learners who complete Ultimate Wind Energy Course for Electrical Engineering will develop knowledge and skills that may be useful to these careers:

Reading list

We've selected two books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Ultimate Wind Energy Course for Electrical Engineering.
Provides a comprehensive overview of wind energy systems, covering topics from basic aerodynamics to grid integration. It serves as an excellent reference for understanding the theoretical underpinnings of wind turbine design and operation. It is particularly useful for gaining a deeper understanding of the concepts discussed in the course. This book is commonly used as a textbook in wind energy courses.
Provides a solid foundation in electric machines and drives, which are essential components of wind energy systems. It covers the principles of operation, modeling, and control of various types of electric machines, including synchronous generators, induction generators, and permanent magnet machines. This book is more valuable as additional reading than it is as a current reference. It is commonly used as a textbook at academic institutions.

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