{"id":15373,"date":"2022-04-29T15:01:05","date_gmt":"2022-04-29T13:01:05","guid":{"rendered":"https:\/\/electrical-engineering-portal.com\/academy\/?post_type=product&p=15373"},"modified":"2022-04-29T15:01:06","modified_gmt":"2022-04-29T13:01:06","slug":"course-design-wind-energy-systems-specification-construction-examples","status":"publish","type":"product","link":"https:\/\/electrical-engineering-portal.com\/academy\/product\/course-design-wind-energy-systems-specification-construction-examples\/","title":{"rendered":"Design Course For Wind Energy Systems: Specification, Construction and Examples"},"content":{"rendered":"

This course is designed for anyone who would like to learn how to design wind energy systems from A to Z, electrical engineers, solar designers, and all who are interested in working in the wind energy field. The course has\u00a09 sections, 64 lectures in 11h 14m total length<\/strong>.<\/p>\n

The course will teach you the fundamentals of wind energy systems with step by step examples without a need for any previous knowledge.<\/p>\n

What you will learn in this course:<\/strong><\/p>\n

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  • Types of wind turbines<\/li>\n
  • Rotor solidity and selection of number of rotor blades<\/li>\n
  • Power extracted by the turbine from the wind<\/li>\n
  • Betz limit and maximum rotor efficiency<\/li>\n
  • Factors affecting wind speed and density<\/li>\n
  • Applied force on the wind turbine, torque coefficient, and the importance of the TSR<\/li>\n
  • Wind turbine generator characteristics<\/li>\n
  • Effect of rotor diameter and generator size on power<\/li>\n
  • Wind turbines spacing<\/li>\n
  • Wind farm feasibility study<\/li>\n
  • Weibull and Rayleigh probability density functions<\/li>\n
  • Determination of Weibull parameters<\/li>\n
  • Determination of Weibull parameters using the graphical method<\/li>\n
  • Aerodynamics of wind turbines<\/li>\n
  • Pitch-controlled wind turbines<\/li>\n
  • Passive stall controlled wind turbines<\/li>\n
  • Active stall controlled wind turbines<\/li>\n
  • Maximum power point tracking in wind turbines<\/li>\n
  • Tip speed ratio (TSR) control<\/li>\n
  • Optimal torque control (OT) MPPT algorithm<\/li>\n<\/ul>\n<\/div>\n
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    • Power signal feedback (PSF) control<\/li>\n
    • Perturbation and observation (P&O) or hill-climb searching (HCS)<\/li>\n
    • Electricity generation using wind turbines<\/li>\n
    • Permanent magnet synchronous generator (PMSG)<\/li>\n
    • Wound rotor synchronous generator (WRSG)<\/li>\n
    • Doubly-fed induction generator (DFIG)<\/li>\n
    • Brushless permanent magnet DC generator (PMDC)<\/li>\n
    • Squirrel-cage induction generator<\/li>\n
    • Wound rotor induction generator<\/li>\n
    • Tubular steel wind turbine tower<\/li>\n
    • Lattice wind turbine tower<\/li>\n
    • Concrete wind turbine tower<\/li>\n
    • Hybrid wind turbine tower<\/li>\n
    • Brakes in the wind turbine<\/li>\n
    • Rotor brakes in the wind turbine<\/li>\n
    • Pitch drive or aerodynamic brakes in the wind turbine<\/li>\n
    • Simulation of a wind turbine system using the ETAP program<\/li>\n
    • MATLAB simulation of the wind turbine<\/li>\n
    • Cp plotting and lookup table in MATLAB<\/li>\n
    • MPPT in MATLAB Simulink<\/li>\n<\/ul>\n<\/div>\n<\/div>\n