History of Windmills Timeline

Dutch engineers began using windmills for large-scale water drainage during the early fifteenth century. Wind-powered scoop wheels and pumps helped reclaim low-lying land and became central to the development of Dutch polders.

Cornelis Corneliszoon van Uitgeest patented a wind-powered sawmill design in the Netherlands. Mechanized sawing greatly increased the speed of converting logs into planks and helped Dutch shipyards expand their production.

During the Dutch Golden Age, thousands of windmills powered sawmills, paper mills, oil presses, fulling mills, and other industries. Wind energy became a major foundation of the Netherlands' manufacturing, shipbuilding, and land-reclamation economy.

European settlers introduced windmills to North America, where they were used for grain processing, pumping, and small-scale industrial work. The first documented windmill in the English colonies was built at Watertown, Massachusetts, in the early 1620s.

Around the middle of the nineteenth century, the Netherlands had roughly ten thousand windmills. They powered drainage and a wide range of industrial processes before steam power began to displace them.

Daniel Halladay developed a self-regulating windpump in the United States. Its multiple narrow blades and automatic furling mechanism made it practical for pumping groundwater on farms, ranches, and railway lines.

The Halladay windmill began commercial manufacture and helped establish the American multiblade windpump industry. These relatively inexpensive machines spread across the Great Plains and transformed access to water in rural areas.

The Aermotor Windmill Company began producing a durable, efficient American windpump. Aermotor machines became an iconic feature of western ranches and remained widely used for livestock watering and farm wells.

Scottish engineer James Blyth built a cloth-sailed wind turbine at his home in Marykirk and used it to charge batteries and provide electric light. It is generally recognized as the first wind turbine used to generate electricity.

Image source: James Blyth (engineer)

Charles F. Brush constructed a large automatically operating wind turbine in Cleveland, Ohio. Its 144 wooden blades powered a dynamo and supplied electricity to his home and laboratory, demonstrating the potential of wind-generated power.

Image source: Wind turbine

Danish scientist and inventor Poul la Cour built experimental wind turbines at Askov Folk High School. He investigated rotor design, storage, and electricity production, laying important foundations for modern wind-energy engineering.

Johannes Juul designed and built the Gedser wind turbine in Denmark. Its three-bladed, stall-regulated design proved highly influential and later informed the development of commercial wind turbines.

Image source: Gedser wind turbine

The 1973 oil crisis prompted governments and researchers to reconsider renewable energy sources, including wind power. Public funding increased for aerodynamic research, prototype turbines, and alternative-energy demonstration projects.

Image source: 1973 oil crisis

The United States began major federally supported wind-energy programs after the oil crisis. NASA and later the Department of Energy developed experimental turbines that advanced blade design, controls, generators, and structural engineering.

Image source: National Renewable Energy Laboratory

The Crotched Mountain Windpower Project in New Hampshire became one of the first modern commercial wind farms in the United States. Its operation marked the transition from individual experimental machines to clustered electricity-generating turbines.

Image source: Wind power in the United States

Tax incentives and favorable policies helped California develop major wind installations at Altamont Pass, Tehachapi, and San Gorgonio. The boom created an early commercial market but also exposed challenges involving reliability, wildlife, and maintenance.

Denmark's cooperative ownership model, renewable-energy policies, and manufacturing expertise helped create a durable commercial wind industry. Danish three-bladed turbine designs became an international standard for onshore wind development.

Image source: Wind power in Denmark

The Vindeby Offshore Wind Farm began operation off the Danish island of Lolland. Its eleven turbines demonstrated that wind farms could be installed in shallow marine environments, establishing a model for later offshore development.

The Global Wind Energy Council was established to represent the international wind industry and promote the worldwide adoption of wind power. Its formation reflected the sector's growing global scale.

Global installed wind-power capacity passed 100 gigawatts in 2008. The milestone showed that wind energy had moved from a niche technology toward a significant component of electricity systems.

Image source: Wind power

The London Array began full commercial operation in the Thames Estuary. With a capacity of 630 megawatts, it demonstrated the increasing scale of offshore wind projects and supplied electricity to hundreds of thousands of homes.

Hywind Scotland became the world's first commercial floating offshore wind farm. Its five turbines were moored in deep water off Aberdeenshire, opening the possibility of developing wind resources beyond shallow continental shelves.

By 2023, worldwide wind capacity had surpassed one terawatt, reflecting decades of engineering advances, manufacturing growth, and climate policy. Modern wind turbines now range from small distributed machines to enormous offshore generators.