Wind Energy Masterclass

The fundamentals of wind resource assessment, and why understanding wind speed, direction and variability at a site is the starting point for any wind project.

How wind speed is measured with met masts, anemometers and remote sensing, and how the data is analysed to describe wind variability and estimate energy yield.

The software tools and models used for wind resource mapping and site assessment, and how they help developers identify and compare promising wind farm locations.

Real-world case studies of wind resource assessment, showing how measurement campaigns and modelling were applied on actual projects and the lessons they offer.

The main components of a wind turbine, including rotor blades, hub, nacelle, gearbox, generator and tower, and the job each one does in producing electricity.

How horizontal axis and vertical axis wind turbines differ in design, performance and typical applications, and why horizontal axis machines dominate utility-scale wind.

How wind turbine blades use lift and drag to capture energy from the wind, and the aerodynamic principles behind blade shape, twist and angle of attack.

How wind turbine power conversion systems turn rotor rotation into grid-quality electricity, covering gearboxes, generators, power electronics and converters.

Recent advances in wind turbine design and materials, such as larger rotors, taller towers and composite blades, and how they increase output and cut energy cost.

The planning considerations for developing a wind farm, including site selection, wind resource, grid access, permitting, land use and community engagement.

Techniques for optimising wind farm layout, including turbine spacing and wake effects, to maximise energy capture and overall wind farm efficiency.

How environmental impact assessments are carried out for wind farms, the main impacts on wildlife, noise and landscape, and the measures used to reduce them.

Case studies of notable wind farm projects, highlighting what made them successful and the practical lessons they offer for future wind developments.

The main challenges of connecting wind power to the electricity grid, and the technical and operational solutions used to integrate large amounts of wind generation.

How the variable nature of wind output affects grid stability, and the forecasting, reserve and control measures used to keep the grid balanced.

How energy storage technologies such as batteries support wind energy integration by smoothing output, shifting energy in time and providing grid services.

What grid codes are, why grid operators and regulators set them, and the technical requirements wind power plants must meet to connect and operate on the grid.

An overview of offshore wind energy resources, why winds at sea are stronger and steadier, and the growing role of offshore wind in the energy transition.

The advantages and challenges of offshore wind farms, from higher output and fewer land constraints to higher costs, harsh conditions and complex installation and maintenance.

Offshore wind turbine technologies and installation methods, including fixed foundations, floating platforms and the vessels and techniques used to install them.

Case studies of notable offshore wind projects such as Hornsea, Block Island and Borssele, and what they show about the scale and progress of offshore wind.