Why Wind
Wind is among the cheapest sources of new electricity in the United States. Modern utility-scale turbines deliver one of the lowest levelized costs of energy (LCOE) of any generation technology, and because the fuel — moving air — is free, a wind project's economics are locked in at the moment it is built, with no exposure to volatile fuel markets over its operating life.
- Low LCOE: onshore wind competes with, and often beats, new fossil generation on cost per megawatt-hour
- Zero fuel cost: no fuel to buy, transport, or hedge — output is insulated from commodity price swings
- Complements solar: wind frequently blows strongest at night and through the winter, filling in when solar output fades
- Scales fast: turbines can be manufactured, transported, and erected quickly, letting capacity come online in months rather than years
America's Wind Resource
The United States holds a world-class wind resource concentrated in the Great Plains "wind belt" — a corridor running from Texas north through Oklahoma, Kansas, and into Iowa and the Dakotas. Texas is the nation's #1 wind state by installed capacity, followed by Iowa, Oklahoma, and Kansas, where steady, high-quality winds support large utility-scale fleets.
Beyond the plains, substantial untapped potential sits offshore along the Atlantic seaboard and in the Gulf, where stronger and steadier winds blow close to dense coastal demand centers. The key constraint to unlocking America's best wind is not the resource itself but transmission — moving power from remote, windy interior regions to where it is consumed requires major new high-voltage lines.
Onshoring Turbine Manufacturing
A wind turbine is a heavy-industry product: towers, blades, nacelles, gearboxes, and generators, each demanding materials at scale. Building this supply chain at home is both an industrial opportunity and a supply-chain security imperative.
- Steel: towers and structural components consume vast amounts of steel and alloys — the single largest material input by mass
- Copper: generators, transformers, and the cabling that carries power to the grid rely on large quantities of copper
- Rare-earth magnets: direct-drive generators use powerful rare-earth permanent magnets, a category where domestic capacity is critical to reducing dependence on adversary-nation supply
Reshoring the manufacture of towers, blades, nacelles, gearboxes, and generators keeps high-value industrial jobs in the United States and hardens the energy supply chain against foreign disruption.
Wind + Storage: Pairing wind farms with battery storage firms up variable output and shifts it to align with peak demand — turning intermittent generation into a dispatchable resource. This same firming logic runs throughout the broader value chain, where storage transforms when energy is made into when it is needed.
Wind + Storage
Wind's chief limitation is variability — it generates when the wind blows, not necessarily when the grid needs power most. Pairing wind with battery storage solves this: surplus generation is captured and discharged during peak demand, smoothing output and giving grid operators a predictable, dispatchable asset. As battery costs continue to fall, wind-plus-storage is becoming a default configuration for new American projects.
All-of-the-above grid: Wind does not stand alone. Its lowest-cost energy is most powerful when balanced by firm, always-on generation — including nuclear and natural gas — so the grid stays reliable around the clock. An all-of-the-above strategy uses cheap renewable wind to drive down energy costs while firm baseload guarantees resilience.