North America Wind Power Market Analysis by Mordor Intelligence
The North America Wind Power Market size is estimated at 186.65 gigawatt in 2025, and is expected to reach 243.65 gigawatt by 2030, at a CAGR of 5.47% during the forecast period (2025-2030).
The steady expansion reflects the region's commitment to renewable energy transition, driven by supportive federal policies, declining technology costs, and unprecedented demand from data centers pursuing clean energy procurement strategies. The market's resilience stems from its ability to navigate regulatory complexities while capitalizing on technological advancements that have made wind power increasingly cost-competitive with traditional energy sources.
Onshore wind installations dominate the landscape with a commanding 99.80% market share in 2024, yet offshore wind represents the sector's most explosive growth opportunity with a projected 110.00% CAGR through 2030. This dramatic offshore expansion reflects the maturation of floating wind technologies and the resolution of permitting bottlenecks that previously constrained coastal developments(1)FERC Takes on Long-Term Planning with Historic Transmission Rule https://www.ferc.gov/news-events/news/ferc-takes-long-term-planning-historic-transmission-rule. The United States maintains regional leadership with 85.60% of installed capacity, while Canada emerges as the fastest-growing geography at 8.40% CAGR, propelled by Indigenous-led projects and provincial clean electricity mandates. Utility-scale deployments account for 78.30% of installations and are expected to sustain 6.50% annual growth, driven by corporate renewable energy procurement and grid-scale storage integration.
The sector's evolution toward larger turbine configurations reflects both technological maturity and economic optimization, with above-5MW units capturing 67.50% of new installations in 2024. This shift enables developers to maximize energy output per turbine while reducing installation and maintenance costs per megawatt, creating competitive advantages in auction-based procurement processes(2)www.siemensgamesa.com https://www.siemensgamesa.com/newsroom/2024/01/siemens-gamesa-prototype-21-mw-offshore-wind-turbine. The Inflation Reduction Act's domestic content requirements have catalyzed a manufacturing renaissance, with companies investing billions in North American production facilities to capture enhanced tax credits while reducing supply chain vulnerabilities.
Market dynamics are increasingly shaped by transmission infrastructure constraints and regulatory uncertainties that create both risks and opportunities for strategic players. FERC's Order 1920 mandates 20-year transmission planning horizons, potentially unlocking stranded wind resources in high-quality wind zones. However, recent federal policy shifts, including the temporary withdrawal of offshore wind leasing areas, introduce execution risks that could reshape competitive positioning and investment timelines across the sector.
North America Wind Power Market Trends and Insights
Drivers Impact Analysis
| Driver | % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
|---|---|---|---|
| Supportive government incentives & tax credits | +1.8% | North America-wide, strongest in US | Medium term (2-4 years) |
| Declining levelised cost of electricity (LCOE) | +1.2% | Global, with regional variations | Long term (≥ 4 years) |
| Corporate renewable-energy procurement mandates | +0.9% | US & Canada, concentrated in tech hubs | Medium term (2-4 years) |
| IRA domestic-content bonus & manufacturing build-out | +1.1% | United States primarily | Short term (≤ 2 years) |
| Surging AI/data-centre power demand driving long-term PPAs | +0.7% | US tech corridors, expanding to Canada | Long term (≥ 4 years) |
| Source: Mordor Intelligence | |||
IRA Domestic-Content Bonus & Manufacturing Build-Out
The Inflation Reduction Act's domestic content provisions have fundamentally altered North American wind manufacturing economics by offering 10 percentage point tax credit bonuses for projects meeting domestic sourcing thresholds. This policy framework has triggered over USD 15 billion in announced manufacturing investments across the wind supply chain, from tower fabrication to nacelle assembly(3)www.treasury.gov https://www.treasury.gov/resource-center/tax-policy/tax-analysis/Documents/IRA-Domestic-Content-Guidance-2024.pdf. The domestic content requirements create a competitive moat for manufacturers willing to establish North American production, while simultaneously reducing supply chain vulnerabilities that have historically plagued the sector. Companies like GE Vernova have responded by expanding their Pensacola manufacturing facility to meet growing demand for domestically-produced turbines. This manufacturing renaissance positions North America to capture more value from its wind deployment while reducing dependence on global supply chains that have experienced significant disruptions.
Surging AI/Data-Centre Power Demand Driving Long-Term PPAs
Artificial intelligence and data center expansion have created an unprecedented demand surge for clean electricity, with hyperscale operators requiring gigawatt-scale renewable energy portfolios to meet corporate sustainability commitments. Microsoft's 10.5 GW global renewable energy framework with Brookfield Renewable exemplifies this trend, representing one of the largest corporate renewable energy agreements in history. Data centers' 24/7 power requirements align well with wind's generation profile when combined with storage systems, creating opportunities for hybrid renewable projects that can provide firm capacity. The sector's willingness to sign 15-20 year power purchase agreements provides revenue certainty that enables wind developers to secure favorable project financing. This demand source is particularly concentrated in technology corridors across Texas, Virginia, and increasingly Canada, where data sovereignty requirements drive domestic infrastructure investment.
Corporate Renewable-Energy Procurement Mandates
Corporate renewable energy procurement has evolved from voluntary sustainability initiatives to mandatory requirements driven by scope 2 emissions reporting and investor pressure. The rise of renewable energy certificates (RECs) pricing from approximately USD 1 to nearly USD 8 per certificate reflects this demand intensification, with most Green-e certified RECs originating from Texas wind resources. Fortune 500 companies are increasingly pursuing direct renewable energy procurement through virtual power purchase agreements rather than relying on REC markets, creating stable revenue streams for wind developers. This shift toward direct procurement enables corporations to claim specific renewable energy attributes while providing developers with creditworthy counterparties for long-term contracts. The trend has accelerated adoption of 24/7 carbon-free energy matching, where companies seek to align their hourly electricity consumption with clean energy generation, favoring wind projects that can provide consistent output profiles.
Declining Levelised Cost of Electricity (LCOE)
Wind energy's levelised cost of electricity has achieved grid parity with natural gas in most North American markets, driven by technological improvements in turbine efficiency and capacity factors. Larger rotor diameters and higher hub heights have increased capacity factors to above 50% in premium wind zones, while advanced blade designs and control systems optimize energy capture across varying wind conditions(4). The deployment of turbines exceeding 5 MW nameplate capacity has reduced installation costs per megawatt while improving project economics through economies of scale. Floating offshore wind technologies are approaching commercial viability, with prototype installations demonstrating the feasibility of accessing deeper water wind resources previously considered uneconomical. These cost reductions have made wind energy competitive in merchant power markets without subsidies, expanding the addressable market beyond renewable energy credit buyers to include traditional electricity consumers seeking low-cost power.
Transmission Queue Bottlenecks & Curtailment Risk
Grid interconnection queues have reached crisis levels with over 2,000 GW of proposed renewable projects awaiting transmission studies, creating multi-year delays that threaten project viability and financing. The Midcontinent Independent System Operator (MISO) and Southwest Power Pool (SPP) regions experience the most severe bottlenecks, where wind curtailment reached 6.1% of potential generation in 2024 due to transmission constraints. FERC's Order 1920 mandates 20-year transmission planning to address these constraints, but implementation timelines extend into the late 2020s, creating near-term execution risks for wind developers. The interconnection process reforms introduced in 2024 require developers to demonstrate site control and financial commitments earlier in the queue process, potentially reducing speculative applications but increasing upfront capital requirements. Regional transmission organizations are implementing cluster study approaches to process multiple projects simultaneously, yet these reforms may take several years to meaningfully reduce queue backlogs.
DoD Radar & Whale-Migration Litigation Delaying Projects
Military radar interference concerns and marine mammal protection litigation have emerged as significant constraints on wind project development, particularly affecting offshore installations along the Atlantic Coast. The Department of Defense has raised objections to wind projects that could interfere with radar systems used for national security purposes, leading to project modifications or relocations that increase development costs and timelines. Whale migration litigation has resulted in seasonal construction restrictions for offshore wind projects, with environmental groups and fishing industry representatives challenging project approvals based on potential impacts to North Atlantic right whales. The recent temporary withdrawal of offshore wind leasing areas by federal authorities reflects these ongoing regulatory uncertainties The White House. These challenges have led to project delays exceeding 18 months in some cases, increasing financing costs and creating uncertainty for supply chain investments.
Segment Analysis
By Location: Offshore Surge Despite Onshore Dominance
The transformation of North America's wind landscape reflects a market in transition, where established onshore dominance faces disruption from explosive offshore growth potential. Onshore installations commanded 99.80% market share in 2024, benefiting from mature supply chains, established permitting processes, and abundant high-quality wind resources across the Great Plains and Texas corridors. However, offshore wind represents the sector's most dynamic growth vector with a projected 110.00% CAGR through 2030, driven by technological breakthroughs in floating wind systems and the resolution of regulatory bottlenecks that previously constrained coastal developments.
Shallow-water fixed-bottom installations dominate early offshore deployments, with projects like Vineyard Wind and South Fork Wind demonstrating commercial viability in depths up to 60 meters. Deep-water fixed-bottom technologies extend the addressable offshore market to depths approaching 200 meters, while floating wind systems unlock previously inaccessible resources in waters exceeding 200 meters depth. Semi-submersible, spar, and tension-leg platform (TLP) designs each offer distinct advantages for different marine environments, with semi-submersible platforms gaining early commercial traction due to their stability and installation flexibility. The recent temporary withdrawal of federal offshore wind leasing areas introduces near-term uncertainty, yet state-level commitments and existing project pipelines maintain momentum for offshore expansion through 2030.
By Power-Capacity Range: Gigawatt-Scale Turbine Evolution
Turbine sizing trends reflect the industry's relentless pursuit of energy density optimization and cost reduction, with above-5MW units capturing 67.50% of new installations in 2024 while maintaining 5.90% CAGR growth through 2030. This segment's dominance stems from superior capacity factors achieved through larger rotor diameters and advanced blade aerodynamics that capture more energy from available wind resources. The 2-5MW segment serves niche applications where site constraints limit turbine size, including distributed generation projects and brownfield repowering installations where existing infrastructure cannot accommodate larger units.
Legacy sub-2MW turbines face obsolescence as manufacturers discontinue smaller models in favor of utility-scale platforms that offer better economics and performance characteristics. GE Vernova's focus on 2.4 GW SunZia project orders demonstrates the market's preference for proven large-scale turbine platforms that can deliver gigawatt-scale project requirements. The evolution toward 15MW+ offshore turbines, exemplified by Siemens Gamesa's 21 MW prototype, represents the next frontier in turbine scaling, where individual units can power thousands of homes while reducing installation and maintenance costs per megawatt. This technological progression enables developers to maximize energy output from limited offshore lease areas while minimizing environmental footprint per unit of generation capacity.
By End-User: Utility-Scale Procurement Drives Market Evolution
Utility-scale deployments maintain market leadership with 78.30% share in 2024 and sustained 6.50% CAGR growth, reflecting the sector's evolution toward grid-scale renewable energy integration and wholesale power market participation. This segment benefits from economies of scale in project development, construction, and operations, while accessing diverse revenue streams through energy sales, capacity payments, and ancillary services. Commercial and industrial (C&I) customers represent an emerging growth segment, driven by corporate sustainability mandates and the availability of virtual power purchase agreements that enable direct renewable energy procurement without physical delivery.
Community and residential wind applications face headwinds from distributed solar competition and zoning restrictions that limit small-scale wind installations in populated areas. The utility-scale segment's growth trajectory aligns with grid modernization initiatives and storage integration projects that enhance wind energy's dispatchability and grid services capabilities. Brookfield Renewable's USD 1.7 billion National Grid Renewables acquisition exemplifies the consolidation trend within utility-scale development, where scale advantages in project origination, financing, and operations create competitive moats. The segment's evolution toward hybrid renewable projects that combine wind, solar, and storage systems reflects utilities' preference for dispatchable clean energy resources that can provide firm capacity and grid stability services.
Geography Analysis
The United States anchors North American wind development with 85.60% market share in 2024, leveraging abundant wind resources, established manufacturing infrastructure, and supportive federal policies that have created the world's second-largest wind market. Texas leads state-level installations with over 40 GW of operational capacity, benefiting from exceptional wind resources, streamlined permitting processes, and direct access to competitive electricity markets through ERCOT. The Inflation Reduction Act's domestic content requirements have catalyzed a manufacturing renaissance across the Midwest, with companies investing billions in turbine production facilities to capture enhanced tax credits while reducing supply chain vulnerabilities. However, transmission constraints in key wind corridors and interconnection queue backlogs create near-term challenges that could limit growth potential without infrastructure investments mandated by FERC's Order 1920.
Canada emerges as the fastest-growing geography with 8.40% CAGR through 2030, driven by ambitious provincial clean electricity mandates and Indigenous-led renewable energy initiatives that align economic development with environmental stewardship. Hydro-Québec's 10,000 MW renewable energy strategy and BC Hydro's USD 5-6 billion Indigenous partnership framework demonstrate the scale of opportunity in Canadian markets. The federal Clean Electricity Regulations, enacted in December 2024, establish net-zero emissions targets by 2050 with interim limits that favor wind and other renewable technologies over fossil fuel generation(5)www.canada.ca https://www.canada.ca/en/environment-climate-change/news/2024/12/government-of-canada-publishes-final-clean-electricity-regulations.html. British Columbia's accelerated permitting processes and environmental assessment exemptions for wind projects reflect provincial urgency to capture clean energy opportunities while strengthening energy security amid potential trade disruptions.
Mexico represents an emerging opportunity within the North American wind landscape, supported by the government's USD 23 billion electricity investment plan that includes 7 dedicated wind projects among 51 total energy initiatives. Sempra's 320 MW Cimarron Wind Project and multiple Vestas turbine orders for Mexican wind farms demonstrate continued private sector confidence despite regulatory uncertainties. The country's exceptional wind resources along the Isthmus of Tehuantepec and growing industrial electricity demand create favorable conditions for wind development, yet transmission infrastructure limitations and policy volatility introduce execution risks that require careful navigation by international developers.
Competitive Landscape
The North American wind power market exhibits moderate concentration with established utilities and independent power producers competing alongside specialized renewable energy developers and global turbine manufacturers. NextEra Energy maintains market leadership through its integrated utility and development platform, leveraging 1,176 MW in new developments and considering doubling its USD 20 billion Texas investment commitment to capture growth opportunities. The sector's competitive dynamics reflect a bifurcation between scale-focused consolidators like Brookfield Renewable, which completed the USD 1.7 billion National Grid Renewables acquisition, and specialized developers targeting niche opportunities in emerging markets or technology segments.
Strategic differentiation increasingly centers on integrated renewable energy platforms that combine wind, solar, and storage capabilities to provide dispatchable clean energy services. Companies are leveraging advanced analytics and machine learning to optimize turbine performance and predict maintenance requirements, creating operational advantages that translate to improved capacity factors and reduced lifecycle costs. The emergence of corporate renewable energy procurement as a primary demand driver has shifted competitive focus toward long-term contract origination capabilities and creditworthy counterparty relationships, favoring developers with established utility partnerships and Fortune 500 customer bases. White-space opportunities exist in floating offshore wind development, hybrid renewable projects, and distributed wind applications for industrial customers seeking on-site clean energy generation.
North America Wind Power Industry Leaders
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Orsted AS
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Duke Energy Corporation
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NextEra Energy Inc.
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Invenergy LLC
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Pattern Energy Group LP
- *Disclaimer: Major Players sorted in no particular order
Recent Industry Developments
- January 2025: Brookfield Renewable completed its USD 1.7 billion acquisition of National Grid Renewables, adding 3,000 MW of operating renewable capacity and 24,000 MW of development pipeline to strengthen its North American platform. The transaction enhances Brookfield's utility-scale development capabilities and expands its geographic footprint across key wind markets.
- November 2024: GE Vernova received a 2.4 GW turbine order for the SunZia wind project in New Mexico, representing one of the largest single wind turbine orders in North American history. The project will utilize GE's advanced turbine technology to deliver clean energy to southwestern markets while demonstrating the scale potential of modern wind developments.
- October 2024: Vestas announced its first U.S. offshore wind order, securing an 810 MW contract for the Empire Wind 1 project off New York's coast. This milestone represents Vestas' entry into the North American offshore wind market and demonstrates the growing commercial viability of offshore wind installations.
- July 2024: FERC issued Order No. 1920, mandating 20-year transmission planning horizons to address grid interconnection bottlenecks and support renewable energy integration. The order requires transmission providers to develop comprehensive long-term plans that consider multiple scenarios for future electricity demand and generation resource mix.
North America Wind Power Market Report Scope
Wind power is a renewable energy source that harnesses the energy of wind to generate electricity. It is usually generated using a wind turbine. Wind turbines are mechanical systems that convert kinetic energy into electrical energy. Wind power is sustainable and has a much smaller environmental impact than fossil fuels.
The North American wind power market is segmented by onshore and offshore. The report also covers the market size and forecasts across major countries. For each segment, the market size and forecasts have been done based on installed capacity in gigawatts (GW).
| Onshore | |
| Offshore | Shallow-water fixed-bottom |
| Deep-water fixed-bottom | |
| Floating (semi-sub, spar, TLP) |
| Turbine | Rotor blades |
| Nacelle | |
| Tower | |
| Gearbox | |
| Generator | |
| Balance-of-Plant | Foundations |
| Electrical infrastructure |
| Below 2 MW |
| 2 to 5 MW |
| Above 5 MW |
| Utility-scale |
| Commercial and Industrial |
| Community and Residential |
| United States |
| Canada |
| Mexico |
| By Location | Onshore | |
| Offshore | Shallow-water fixed-bottom | |
| Deep-water fixed-bottom | ||
| Floating (semi-sub, spar, TLP) | ||
| By Component (Qualitative Analysis only) | Turbine | Rotor blades |
| Nacelle | ||
| Tower | ||
| Gearbox | ||
| Generator | ||
| Balance-of-Plant | Foundations | |
| Electrical infrastructure | ||
| By Power-Capacity Range | Below 2 MW | |
| 2 to 5 MW | ||
| Above 5 MW | ||
| By End-user | Utility-scale | |
| Commercial and Industrial | ||
| Community and Residential | ||
| By Geography | United States | |
| Canada | ||
| Mexico | ||
Key Questions Answered in the Report
What is the current size of the North America Wind Power Market and what growth is expected?
The North America Wind Power Market reached 180.15 GW in 2024, expanded to 186.65 GW in 2025, and is projected to achieve 243.65 GW by 2030, representing a 5.47% CAGR. This growth trajectory reflects sustained policy support, technological advancement, and increasing corporate demand for clean energy procurement.
Which market segment offers the highest growth potential?
Ffshore wind presents the most explosive growth opportunity with a projected 110.00% CAGR through 2030, despite representing less than 1% of current installations. This dramatic expansion is driven by floating wind technology maturation and the resolution of regulatory bottlenecks that previously constrained coastal developments
What are the key floating offshore wind technologies being deployed?
Floating wind systems utilize semi-submersible, spar, and tension-leg platform (TLP) designs, each offering distinct advantages for different marine environments. Semi-submersible platforms are gaining early commercial traction due to their stability and installation flexibility, enabling access to previously inaccessible resources in waters exceeding 200 meters depth.
What is the impact of the recent offshore wind leasing withdrawal?
The White House's temporary withdrawal of all Outer Continental Shelf areas from offshore wind leasing in January 2025 introduces near-term uncertainty for new projects. However, existing project pipelines and state-level commitments maintain momentum for offshore expansion, while the review process may ultimately streamline future permitting procedures
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