WindNewsToday

windnewstoday

U.S.

U.S. Wind focuses on all major developments shaping America’s wind energy sector, covering both onshore and offshore markets. This category reports on federal and state policies, BOEM activity, industry investment, project approvals, construction progress, technology breakthroughs, and the companies leading the U.S. renewable energy transition.

WindNewsToday provides reliable coverage of landmark offshore wind projects, repowering of older wind farms, grid upgrades, clean energy tax incentives, and the role of wind in supporting AI data centers and industrial expansion. Whether it’s California floating offshore wind, Midwest onshore installations, or Gulf of Mexico wind initiatives, this category gives readers up-to-date insights rooted in factual, unbiased reporting.

From job growth to supply chain expansion and community benefits, U.S. Wind helps readers understand how large-scale wind development influences the national economy, energy security, and America’s long-term climate goals.

US Offshore Wind Projects Roadmap (2026–2030): Capacity, Policy, and What Comes Next

by
US offshore wind projects roadmap showing East Coast wind farms and long-term capacity outlook through 2030

The United States offshore wind industry is entering a decisive phase.

After years of planning, leasing, and early construction, the period from 2026 to 2030 will determine whether offshore wind becomes a foundational pillar of the U.S. energy system—or remains a slower-moving niche technology.

This roadmap is not just about turbines in the water. It reflects policy stability, supply chain maturity, grid readiness, financing confidence, and state–federal coordination. While early projects faced delays and cost pressures, the next five years are expected to define the industry’s long-term trajectory.

As outlined in our Offshore Wind Energy Explained guide, offshore wind is central to U.S. decarbonization, coastal energy security, and industrial revitalization. The question now is not whether offshore wind will grow—but how fast, where, and under what conditions.

Why 2026–2030 Is a Critical Window for US Offshore Wind

The offshore wind timeline is front-loaded with complexity.

Leasing, permitting, environmental review, financing, and supply chain development often take 7–10 years before electricity reaches the grid. That means projects delivering power between 2026 and 2030 were largely conceived years earlier.

This window matters because:

  • First utility-scale projects will reach full operation
  • Federal leasing areas transition into construction zones
  • State procurement targets move from paper to delivery
  • Floating offshore wind enters early commercialization

Success—or failure—during this period will shape investor confidence well into the 2030s.

Current Status of US Offshore Wind (As of 2026)

As of early 2026, the U.S. offshore wind sector is moving from pre-commercial to early commercial deployment.

Key characteristics of the current market include:

  • Operational projects remain limited but expanding
  • Most capacity is concentrated on the East Coast
  • Federal leasing has accelerated under BOEM
  • Supply chain localization is still incomplete

The industry has faced headwinds, including inflation, interest rate volatility, and contract renegotiations. However, these challenges have also forced structural improvements in procurement models and risk allocation.

US Offshore Wind Capacity Outlook (2026–2030)

Expected Installed Capacity Growth

Between 2026 and 2030, U.S. offshore wind capacity is expected to move from single-digit gigawatts to multi-tens of gigawatts, depending on project execution and policy continuity.

While projections vary, the roadmap generally includes:

  • Initial large-scale power delivery from East Coast projects
  • Incremental annual capacity additions
  • Early floating offshore wind pilots entering construction

This growth phase is less about speed and more about execution quality.

East Coast: Backbone of US Offshore Wind Growth

The U.S. East Coast will remain the backbone of offshore wind deployment through 2030.

Why the East Coast Leads

  • A shallow continental shelf supports fixed-bottom foundations
  • Proximity to major load centers
  • Strong state-level procurement mandates
  • Existing port and grid infrastructure

States such as New York, New Jersey, Massachusetts, and Virginia anchor the national offshore wind pipeline.

Projects in this region are expected to:

  • Move from construction to full operation
  • Establish long-term O&M ecosystems
  • Normalize offshore wind power pricing

Many of these developments align with the fixed-bottom offshore wind model described in our Floating vs Fixed-Bottom Offshore Wind Comparison.

West Coast: Floating Offshore Wind Takes Shape

Unlike the East Coast, offshore wind on the U.S. West Coast is defined by deep waters and steep seabed drop-offs.

Why Floating Offshore Wind Is Essential

  • Water depths exceed fixed-bottom limits
  • Narrow continental shelf
  • High wind resources close to shore

As explained in our Floating Offshore Wind Energy Explained guide, floating platforms are the only viable solution for California, Oregon, and Washington.

Between 2026 and 2030, the roadmap includes:

  • Completion of early floating wind design and permitting
  • Port upgrades for floating assembly
  • Initial pilot and demonstration projects

Gulf of Mexico: Emerging Opportunity

The Gulf of Mexico presents a different offshore wind profile.

Advantages include:

  • Extensive offshore energy experience
  • Established oil and gas supply chains
  • Favorable port infrastructure

While wind speeds are lower than in the Atlantic, the region benefits from industrial readiness and workforce expertise. Hybrid energy hubs and smaller-scale projects may emerge between 2026 and 2030.

Federal Policy and BOEM Leasing Outlook

At the federal level, offshore wind is increasingly positioned as a strategic energy resource rather than a niche renewable technology.

U.S. Department of Energy analysis highlights offshore wind’s role in long-term grid reliability, domestic manufacturing, and emissions reduction, particularly as electricity demand grows from electrification and data centers. DOE planning documents also emphasize the need for coordinated transmission development, port infrastructure upgrades, and supply chain investment to support large-scale offshore wind deployment beyond the initial project pipeline.

Key federal drivers include:

  • Lease auctions and site designations
  • Environmental impact assessments
  • Transmission coordination

Policy clarity during this period is essential to maintaining investor confidence.

Grid Infrastructure and Transmission Challenges

Grid integration is one of the most underestimated constraints in the U.S. offshore wind roadmap.

Key Challenges

  • Limited offshore transmission planning
  • Onshore substation congestion
  • Permitting delays for grid upgrades

As offshore wind capacity increases, grid readiness—not turbine availability—may become the primary bottleneck.

Supply Chain and Port Development (2026–2030)

A resilient domestic supply chain is critical to meeting U.S. offshore wind targets. Supply chain readiness remains one of the most critical constraints on offshore wind growth, particularly as projects scale between 2026 and 2030. Global Wind Energy Council (GWEC) market assessments show that port capacity, installation vessels, and localized manufacturing are now the primary bottlenecks for offshore wind deployment globally, including in emerging U.S. markets.

Between 2026 and 2030, priorities for strengthening the supply chain include:

  • Turbine assembly ports
  • Blade, tower, and foundation manufacturing
  • Installation vessel availability
  • Skilled workforce development

GWEC has repeatedly highlighted that without synchronized investment in ports and manufacturing, project timelines could face structural delays, regardless of permitting progress.

For a more detailed view of supply chain challenges and solutions, see our Offshore Wind Supply Chain analysis.

Investment, Financing, and Market Confidence

The financial environment from 2026 to 2030 will influence how quickly offshore wind scales.

Key factors include:

  • Power purchase agreement (PPA) structures
  • Interest rate trends
  • Risk-sharing between developers and states

While early projects faced renegotiations, newer procurement models are showing greater flexibility—an essential condition for long-term market stability.

What the 2026–2030 Roadmap Means for the Future

The U.S. offshore wind roadmap through 2030 is less about headline capacity numbers and more about institutional maturity.

By the end of this period, the industry is expected to have:

  • Operational reference projects
  • A trained offshore wind workforce
  • Improved grid coordination
  • Early floating wind commercialization

If these foundations hold, offshore wind can scale rapidly in the 2030s.

Frequently Asked Questions

How much offshore wind capacity will the US have by 2030?

Capacity estimates vary, but the U.S. is expected to reach multi-gigawatt operational levels by 2030 if current projects proceed as planned.

Which US regions will lead offshore wind development?

The East Coast will dominate through 2030, while the West Coast will lead floating offshore wind deployment.

Is floating offshore wind included in the US roadmap?

Yes. Floating offshore wind is essential for deep-water regions, particularly along the Pacific Coast.

What are the biggest risks to the roadmap?

Grid delays, supply chain constraints, and policy uncertainty remain the primary risks.

Floating Offshore Wind United States—2025 Deep Dive Guide

by
Floating Offshore Wind United States—Wast Coast floating wind projects

Floating offshore wind is becoming a critical pillar of the broader offshore wind energy transition, reshaping U.S. clean power strategy—especially in deep-water regions where fixed-bottom turbines are not viable.

Backed by billions of dollars in public and private investment, floating wind technology offers a path to unlock America’s vast deep-water wind resources along the West Coast, the Gulf of Maine, and parts of the Mid-Atlantic. Yet despite its promise, deployment remains constrained by permitting delays, shifting federal policy, and supply-chain limitations.

Advanced digital technologies are already helping the industry overcome these barriers. Tools such as predictive maintenance, digital twins, and turbine-level automation are reducing operational risk and long-term costs—topics explored in our in-depth guide to AI in wind energy.

Today, the United States holds one of the world’s largest untapped floating wind resources. The question is no longer whether floating offshore wind will transform America’s energy future—but how quickly it can scale amid economic, regulatory, and technological constraints.

As offshore wind policy in 2025 continues to evolve, this guide examines the forces shaping the U.S. floating wind market—from state leadership and federal permitting dynamics to investment signals and global competition.

What This Guide Covers

This comprehensive analysis explains:

  • Floating offshore wind technology fundamentals
  • U.S. offshore wind policy and political risks
  • State-by-state project status (California, Oregon, Washington, Maine, Hawaii)
  • Supply-chain readiness and technology innovation
  • Costs, financing, and investment outlook
  • Global competition and U.S. positioning
  • A 2025–2040 market forecast

Understanding Floating Offshore Wind United States

Types of floating offshore wind platforms including semi-submersible, spar buoy, and TLP designs

Floating offshore wind refers to turbines installed in deep waters (60–1,200 meters) where fixed-bottom foundations cannot be deployed.

How Floating Wind Works

Floating wind turbines are supported by platforms anchored to the seabed using mooring systems and dynamic cables. Common designs include:

  • Semi-submersible platforms
  • Spar-buoy structures
  • Tension-leg platforms (TLPs)
  • Dynamic subsea export cables

These systems allow turbines to remain stable while capturing strong offshore winds far from shore.

Why Floating Offshore Wind Matters for the U.S.

  • 80–85% of U.S. offshore wind potential lies in deep water
  • Fixed-bottom turbines cannot access these regions
  • Floating wind could unlock hundreds of gigawatts of clean electricity

According to NREL, the United States has 2.8 terawatts (TW) of deep-water offshore wind potential. By 2045, the West Coast alone could support 25–55 GW of floating offshore wind capacity.

For project-level updates, visit our Offshore Wind Energy Guide

Historical Momentum (Biden Administration 2021–2024)

Before 2025, the U.S. floating wind sector showed strong growth potential:

Federal Actions

  • 15 GW floating wind target by 2035
  • Accelerated BOEM leasing and environmental reviews
  • Tax incentives: ITC, advanced manufacturing credits
  • DOE Floating Offshore Wind Shot: cost reduction goal of 70% by 2035

Major Lease Areas

  • California: Morro Bay + Humboldt, ~4.6 GW awarded
  • Oregon: Planning areas under review
  • Washington: Early-stage preliminary studies

Private Investment

Developers such as Equinor, RWE, Ocean Winds, Shell, and Copenhagen Infrastructure Partners began:

  • Site surveys
  • Port redevelopment planning
  • Grid interconnection studies

This created high expectations that the U.S. would soon rival European floating wind deployment.

2025 Policy Reality—Temporary Slowdown

With federal policy shifts in 2025 under the Trump administration, the floating offshore wind sector faces delays:

Key Changes

  • BOEM slowed environmental reviews and leasing
  • Reduced federal permitting support
  • Halted new offshore lease sales
  • Investor uncertainty due to policy delays

Impact on Projects

  • No major floating wind construction expected in 2025
  • Site surveys delayed
  • Ports and supply chain planning slowed

Although state-level initiatives and developer commitments suggest the sector is paused, not dead.

According to NREL, the floating offshore wind sector has stalled at the federal level; it is actively advancing at the state level in California and Maine. The future of the industry depends on whether developers can address federal policy uncertainty while building the necessary port infrastructure and state commitments.

State-by-State Floating Offshore Wind Analysis (2025 Status)

California

  • Morro Bay (4 GW) and Humboldt Bay (0.6 GW) leases were awarded pre-2025.
  • Construction is delayed due to federal permitting slowdowns.
  • State-level policies remain supportive: The California Energy Commission continues environmental and grid studies.
  • Ports in Los Angeles and San Francisco are being upgraded to handle turbine components.

Oregon

  • Lease areas in early BOEM review, ~1.2 GW potential.
  • Developers: Equinor, Principle Power, and others are conducting site surveys.
  • Environmental assessments are paused, but state incentives remain active.

Washington

  • Early-stage studies are underway for floating wind sites near Puget Sound.
  • 2025 delays due to federal review, but ports and grid connections planning continue.
  • Focus on deep-water floating wind turbines USA to meet the Pacific Northwest wind potential.

Maine

  • Gulf of Maine lease areas (~1 GW) remain on track with local support.
  • State initiatives encourage workforce development and supply chain readiness.
  • Developers are preparing detailed environmental assessments, pending federal approvals.

Hawaii

  • Islands have massive deep-water potential (~6 GW).
  • Projects are delayed due to permitting, but interest remains high.
  • Floating wind could complement solar + battery storage to achieve renewable targets.

You can explore more regional market insights in our Global Wind Markets section

Technology Innovations and Supply Chain Readiness

AI-driven digital twins and predictive maintenance in floating offshore wind turbines

Key Technological Advancements

  • 15–20 MW turbines are under development to reduce the Levelized Cost of Energy (LCOE).
  • Semi-submersible and TLP designs tested in Europe were adapted for U.S. conditions.
  • Advanced mooring systems improve stability in deep waters and hurricanes.

Digital Tools

  • AI-driven predictive maintenance reduces downtime.
  • Sensor-based monitoring allows real-time ocean and turbine analysis.
  • Digital twins simulate turbine behavior for risk mitigation.

Supply Chain Challenges

  • U.S. ports require upgrades to handle massive turbine components.
  • Limited U.S.-based floatable platform manufacturing.
  • Dependence on European/North American component suppliers for 2025 projects.

For full coverage on innovations and engineering breakthroughs with the deepwater offshore wind technology USA, visit Wind Turbine Innovations

Costs, Financing, and Investment Landscape

Cost Trends

  • Current floating offshore wind United States LCOE: ~$120–150/MWh (early-stage)
  • Target (DOE Floating Offshore Wind Shot): 70% reduction by 2035 → ~$40–45/MWh.
  • Higher costs than fixed-bottom turbines due to deep-water foundations and mooring.

Financing Considerations

  • Investment slowed in 2025 due to permitting uncertainty.
  • Developers leverage EU experience and global green finance for partial risk mitigation.
  • Insurance costs are higher for deep-water turbines; long-term contracts are essential.

Investment Outlook

  • The 2025 slowdown is temporary; global interest remains high.
  • Private-public partnerships and offshore wind bonds are being explored.
  • Early movers like Equinor, Shell, and RWE maintain strategic positions.

Developer Positioning and Project Timelines

Major Developers in U.S. Floating Wind

  • Equinor: Pioneer, focusing on California and Maine.
  • Shell: Long-term plan for Pacific Coast turbines.
  • RWE & Ocean Winds: Active in Oregon and Washington studies.
  • Copenhagen Infrastructure Partners: Portfolio diversified with European floating wind experience.

2025 Timelines

  • Few projects are breaking ground; most are in pre-permit or environmental assessment.
  • Expected construction resumes: 2026–2027 for some Pacific Coast sites.
  • Workforce training and port readiness are ongoing, preparing for post-permit acceleration.

U.S. Floating Offshore Wind Market Forecast (2025–2040)

2025–2027 (Stagnation + Slow Development)

  • Minimal new approvals due to paused BOEM activity.
  • Developers focus on engineering, environmental studies, and port upgrades.
  • California, Maine, and Oregon remain the most active planning zones.
  • Expect no major construction starts in 2025.

2028–2030 (Gradual Restart + Policy Rebound Likely)

  • Historical trend: every U.S. administration eventually supports offshore wind for economic growth.
  • New BOEM reviews are expected by 2027–2028.
  • Ports like Humboldt, Morro Bay, and Portland (Maine) are operational with upgrades.
  • The first floating prototypes in U.S. waters are likely by 2029.

2030–2035 (Major Scaling Phase)

  • 10–12 MW turbines replaced by floating 18–20 MW class machines.
  • U.S. manufacturing capacity expands—fewer imports from Europe.
  • DOE expects a dramatic cost decline (up to 70% by 2035).
  • At least 3–5 GW of floating projects could begin construction.

2035–2040 (Rapid Deployment + Cost Parity)

  • Floating wind becomes cost-competitive with new natural gas plants in coastal states.
  • The U.S. grid begins integration of multi-state offshore transmission networks.
  • 8–15 GW of floating wind could be operating across the West Coast and Northeast.

Supply Chain Gaps Holding Back U.S. Leadership

Port Infrastructure

  • U.S. ports were designed for shipping containers—not massive turbine blades or floating platforms.
  • Only a few ports can handle 15–20 MW turbines without upgrades.
  • California needs deepwater assembly hubs due to turbine height.

Manufacturing

  • Floating platforms rely on heavy steel fabrication; the U.S. lacks sufficient domestic capacity.
  • Europe dominates spar buoy & semi-sub platform technology.
  • The U.S. must build modular fabrication yards to avoid costly imports.

Workforce

  • The U.S. will need 30,000–40,000 trained offshore workers for floating wind by 2035.
  • Electricians, marine engineers, and rope access technicians are in short supply.
  • The Gulf of Mexico oil workforce offers strong transition potential.

Transmission

  • Offshore-to-onshore grid upgrades are too slow.
  • West Coast grid congestion limits near-term floating wind integration.
  • Requires coordinated federal and state investment.

Global Competition (Where the U.S. Stands in 2025)

Countries Leading Floating Wind

  • UK & Scotland – First commercial-scale floating wind farms (Hywind Scotland, Kincardine).
  • Norway—global leader in floating turbine design and offshore engineering.
  • Japan – Testing multiple deep-water prototypes.
  • South Korea – Aggressive investment, 6–8 GW pipeline.

The U.S. Position

  • Gigantic deep-water wind resources (West Coast, Hawaii, Gulf of Maine).
  • Strong research institutions: NREL, DOE, and Pacific Northwest labs.
  • But policy pauses keep the U.S. behind Europe and Asia in 2025.

Opportunity

If permitting stabilizes post-2025, the U.S. could become the world’s #1 floating wind market by the 2030s, due to >80% of offshore wind potential being in deep waters.

Investment Outlook—Will Floating Wind Recover After 2025?

Short-term (2025–2027)

  • High uncertainty.
  • Investors pause large commitments.
  • Only engineering, environmental, and port studies continue.

Mid-term (2028–2032)

  • Offshore wind rebounds historically after slowdowns.
  • Tax incentives return under new federal policy or bipartisan energy laws.
  • American utilities begin signing long-term power contracts.

Long-term (2032–2040)

  • U.S. floating wind becomes a major global industry.
  • Low-cost floating turbines are produced domestically.
  • Supply chain jobs exceed 50,000+.
  • Hydrogen and offshore wind integration becomes common.

For insights on how floating wind competes globally with the offshore wind policy 2025, visit Global Offshore Wind

Will Floating Offshore Wind Succeed in America?

More than 40 federal grants totaling $50 million were suspended or canceled across the University of Maine system in 2025, impacting research and student programs. According to expert assessments by NREL, McKinsey, Wood Mackenzie, major U.S. universities, GWEC Global Offshore Wind Report, PNNL, and Hitachi Energy,

  • Floating offshore wind is technically feasible and strategically essential to the United States.
  • These experts consistently warn that it will require more than $20 billion in investments between the late 2030s and 2040s to achieve success. But investment also depends on port upgrades, long-term policy stability, a mature domestic supply chain, and expected cost reductions.
  • While the United States faces temporary setbacks and global competition, the consensus among experts is clear: Floating offshore wind will ultimately succeed in America if investment, infrastructure, and political commitment come together—but not immediately, but steadily.

The reason why floating offshore wind will ultimately succeed in the US is significant:

  • The global resource potential is unmatched.
  • Energy demand from data centers, EVs, and AI is doubling the grid’s demand.
  • Coastal states cannot rely solely on solar power, which is one reason.
  • Deepwater wind provides regular nighttime power.
  • Technology costs are expected to drop significantly by 2030.
  • Each administration ultimately helps with energy security and job creation.

2025 = Pause

2028 onwards = Restart

2035-2040 = Massive scaling

To understand technician and workforce needs in floating wind, read our Wind Energy Jobs section

Conclusion

Floating offshore wind in the United States is experiencing a temporary slowdown in 2025—but not a stop.

With unmatched deep-water resources, rising electricity demand, and long-term cost reductions ahead, floating wind will become a core pillar of U.S. clean energy between 2035 and 2040.

The U.S. is stalled—but still on track.

FAQ

Q: Where is floating offshore wind being developed in the U.S.?
A: Primarily in deep-water regions like the West Coast, which require floating foundations due to water depth.

Q: What limits faster deployment?
A: High capital costs, technical complexity, and infrastructure constraints slow large-scale development.

India Takes Flight: L&T and US Giant General Atomics Partner to Build Advanced Combat Drones Under Atmanirbhar Bharat

by
L&T GA-ASI partnership to develop Drones for Indian Armed Forces

Mumbai, November 1, 2025 – India is taking a bold leap toward defense self-reliance. Larsen & Toubro (L&T) has teamed up with US defense leader General Atomics Aeronautical Systems, Inc. (GA-ASI) to produce advanced Medium Altitude Long Endurance (MALE) combat drones domestically. This landmark partnership is a major milestone in India’s Atmanirbhar Bharat defense initiative, strengthening operational readiness, technological independence, and domestic aerospace manufacturing capabilities.

By combining L&T’s precision engineering expertise with GA-ASI’s combat-proven unmanned aircraft systems, India will now manufacture drones that have already flown millions of hours worldwide, entirely on Indian soil. This initiative is expected to enhance India’s surveillance, intelligence, and strike capabilities while creating a foundation for long-term defense technology self-reliance.

Advancing Atmanirbhar Bharat in Defense

Under the Partnership, GA-ASI is the technology partner, and L&T is the highest bidder for the Ministry of Defense’s 87 MALE RPAS program. By bringing vital drone technologies to India, the project will directly support the Make in India Drones and Atmanirbhar Bharat defense programs.

Known for their intelligence, strike, and surveillance capabilities, these MQ-series drones are already in use all over the world and are valuable resources for India’s changing security requirements. The Indo-US defense collaboration will see L&T act as the prime bidder for the Ministry of Defence’s 87 MALE RPAS program, with GA-ASI as the technology partner, producing world-class MQ-series drones entirely on Indian soil. By integrating MALE RPAS, India is set to strengthen operational readiness while maintaining Indo-US defense collaboration at the forefront of technological innovation.

What are remotely piloted aircraft systems?

RPAS are unmanned aerial systems that are operated from a ground station and are intended for tactical and surveillance purposes.
They vary in size and capability—from lightweight quadcopters to medium-sized drones with endurance up to 8 hours and advanced satellite communication systems for long-range missions.

Types and Capabilities

  • Medium-sized long-endurance aircraft for long- or medium-range missions
  • Medium VTOL aircraft capable of vertical take-off and landing
  • Lightweight VTOL drones such as quadcopters

Operational Range

RPAS operate within Radio Line of Sight (RLOS) or Beyond Radio Line of Sight (BRLOS) via satellite links, enabling both coastal and inland operations. They provide real-time data and video feeds to ground control stations, enhancing situational awareness and mission efficiency.

Leaders Talk

L&T Chairman and MD S.N. Subrahmanyan stated:

India now has a rare chance to produce cutting-edge unmanned platforms domestically thanks to this partnership. We are honored to work with GA-ASI to improve India’s defense capabilities and hasten its aerospace independence.

Additionally, General Atomics Global Corporation CEO Dr. Vivek Lall stated:

“Our goal is to provide top-notch MALE RPAS solutions that improve India’s operational readiness and defense ecosystem by fusing GA-ASI’s successful technology with L&T’s reliable manufacturing.”

Strategic Impact on the Indian Armed Forces

L&T GA-ASI Partnership Enhanced Operational Capabilities

The adoption of MALE RPAS India strengthens the armed forces’ surveillance, intelligence, and strike capabilities while reducing risks to personnel. These make-in-India drones act as a strategic force multiplier, providing persistent monitoring, rapid response, and precision targeting across multiple operational theaters.

Global Competitiveness and Self-Reliance

By embracing this advanced technology, India positions its defense sector as a globally competitive hub for aerospace innovation, supporting self-reliance in critical technologies and reinforcing its strategic autonomy in defense manufacturing.

India’s Defense Future Takes Flight

The L&T GA-ASI partnership is setting a benchmark in Atmanirbhar Bharat defense innovation. By combining cutting-edge drone technology with domestic manufacturing, India is strengthening national security, operational readiness, and technological independence.

As MALE RPAS India drones become operational, the project will enhance the armed forces’ capabilities and inspire other sectors to pursue self-reliant technological growth. Similar to India’s defense autonomy efforts, other domestic innovation projects are shaping the country’s long-term strategic and economic future.

Bangladesh Clean Energy Revolution: Will Yunus Create a Superpower?

by
Bangladesh Clean Energy

Is Bangladesh at a crossroads in clean energy?

Bangladesh’s interim government, led by Chief Adviser Prof. Muhammad Yunus, is taking decisive steps to address the country’s fossil fuel dependence and transition toward renewable energy. With rising energy costs, power shortages, and climate risks, officials say the time for a Bangladesh clean energy transition is now.

“Bangladesh cannot afford prolonged reliance on fossil fuels. It is time to seriously consider clean energy alternatives, including large-scale solar deployment,” Yunus said during a virtual conference with Carl Page, chairman of the Anthropocene Institute.

Bangladesh Renewable Energy Future: Solar Power on the Rise

Bangladesh has gained global recognition for its solar home system (SHS) program, providing electricity to over six million rural homes. Now, the Yunus government is pushing for a Bangladesh renewable energy future that includes industrial-scale solar farms.

“With strong investment and policy support, Bangladesh can become a hub for solar innovation in South Asia.”

Key Drivers of Bangladesh’s Renewable Energy Future

  • Government target: 40% electricity from renewable sources by 2041
  • Utility-scale solar projects underway in Feni, Gaibandha, and Teknaf
  • Rooftop solar solutions growing in industrial zones

Challenges such as land scarcity, grid capacity, and financing gaps remain. Strong policy incentives and foreign partnerships will be crucial to realize the Bangladesh renewable energy future.

Bangladesh Clean Energy Transition

Alongside solar, the government is exploring nuclear power for large-scale, stable electricity supply. The Rooppur Nuclear Power Plant, built with Russian collaboration, is expected to generate 2,400 MW.

“Next-generation nuclear technologies, including barge-mounted reactors, offer reliable, zero-carbon power at lower costs,” said Page.

Prof. Yunus emphasized that nuclear expansion requires rigorous research, safety assessments, and feasibility studies.

“We will explore these opportunities carefully, but there is no question—Bangladesh must drastically reduce its dependence on fossil fuels,” Yunus added.

Economic Implications of the Clean Energy Push

Bangladesh spends billions annually on fossil fuel imports, straining its foreign reserves. Analysts say a strategic pivot toward Bangladesh clean energy could:

  • Reduce energy import bills significantly.
  • Create jobs in solar installation, nuclear operations, and renewable technology sectors.
  • Attract climate financing from the World Bank, ADB, and private investors.
  • Ensure industrial competitiveness through a reliable and affordable power supply.

Industry observers believe that integrating solar and nuclear power into the energy mix could also stabilize electricity prices and enhance economic resilience.

Regional and Global Context

Bangladesh is among the most climate-vulnerable nations globally. Rising sea levels, cyclones, and floods make dependence on fossil fuels increasingly unsustainable.

Experts say a successful clean energy transition would position Bangladesh as a regional model in renewable energy, demonstrating how a developing nation can balance economic growth with environmental responsibility.

Economic Impacts: Green Jobs and Industrial Growth

Bangladesh spends billions on fossil fuel imports, straining the economy. A strategic shift to Bangladesh clean energy could:

  • Reduce import bills and strengthen reserves
  • Create thousands of jobs in solar, nuclear, and renewable sectors
  • Attract international climate financing from the World Bank, ADB, and private investors
  • Stabilize electricity prices and boost industrial competitiveness

“Clean energy is not just an environmental imperative—it’s an economic opportunity for Bangladesh.”

Policy Outlook: Next Steps for the Yunus Government Energy Policy

The interim government plans to:

  • Accelerate solar power projects through public-private partnerships
  • Conduct feasibility studies for nuclear power expansion
  • Encourage private sector investment in renewable energy
  • Expand regional energy trade with India, Nepal, and Bhutan

“We need in-depth studies on promising technologies. But with strong policies, Bangladesh can achieve its renewable energy goals,” Yunus said.

Conclusion

Bangladesh’s energy landscape is at a pivotal juncture. With a clear focus on solar and nuclear power, the Yunus government’s energy policy could drive a historic Bangladesh clean energy transition.

The ultimate question remains: Will Bangladesh seize this opportunity to become a regional clean energy superpower, or will challenges slow its progress?

China Wind Energy 2025: 223 GW Under Construction & Global Leadership

by
China Wind Energy 2025

Updated January 2026 | Originally published July 10, 2025

China’s wind energy expansion in 2025 is reshaping the global renewable energy landscape. With 223 GW of wind power under construction, China accounts for nearly 45% of global wind projects currently being built. This scale of development is unprecedented and reinforces China’s position as the world leader in wind power capacity and manufacturing.

According to a report from Global Energy Monitor (GEM) and reporting by the Financial Times, China is developing a combined 510 GW of utility-scale solar and wind, representing almost 74% of global renewable capacity under construction. This rapid build-out supports China’s goals of energy security, industrial growth, and climate commitments.

China’s wind leadership is also supported by a record-breaking 2024, when the country added 357 GW of new renewable capacity. This growth is driven by onshore wind bases, offshore expansion, and a rapidly expanding supply chain that now dominates global wind manufacturing.

China’s Wind Power Leadership in 2025

China’s total installed wind power capacity has now surpassed 700 GW, supported by a massive 593 GW wind-and-solar pipeline that includes announced, permitted, and under-development projects. In 2024 alone, the country added a record 357 GW of new renewable capacity, driven largely by large onshore wind bases and rapidly expanding offshore projects.

Unlike earlier phases of development, today’s wind expansion is tightly aligned with national priorities such as energy security, industrial competitiveness, and long-term climate commitments. Wind power is no longer treated as a niche clean-energy option; it has become a core component of China’s national development strategy.

Offshore Wind Takes Center Stage Along China’s Coast

Offshore wind is a key growth area for China. Installed offshore capacity has jumped from less than 5 GW in 2018 to 42.7 GW operational in 2025. Another 28 GW is under construction, and the offshore pipeline now stands at 67 GW.

Coastal provinces such as Guangdong, Jiangsu, Shandong, and Fujian are leading offshore development, linking new projects to industrial zones, ports, and emerging green hydrogen hubs.

China’s move into deeper waters is also growing, with floating wind projects and advanced grid connections being developed to support industrial decarbonization. For a deeper technical comparison, see our article on floating vs fixed-bottom offshore wind.

Wind Energy and China’s Energy Security Strategy

Wind power plays a central role in China’s effort to reduce reliance on imported fossil fuels while modernizing its electricity system. Data from the National Energy Administration shows that in the first quarter of 2025, wind‑generated electricity supplied nearly 12 percent of national power consumption, surpassing several traditional thermal sources.

This expansion is supported by heavy investment in ultra‑high‑voltage (UHV) transmission lines, allowing wind‑rich regions such as Inner Mongolia and Xinjiang to deliver electricity to coastal demand centers. These grid upgrades are essential to maintaining reliability as wind penetration continues to rise, a challenge also facing other major wind markets worldwide.

Mega Wind Projects Reshaping the Global Market

China’s leadership in wind energy is most visible in the scale of its flagship projects. Notable developments include:

  • Ningxia onshore wind bases exceeding 16 GW
  • Shandong offshore wind clusters surpassing 10 GW, including early floating platforms
  • UHV wind‑to‑grid corridors linking western provinces with coastal industrial zones

These projects increasingly deploy next‑generation 16 MW wind turbines, a trend now spreading across major offshore markets in the United States and Europe. As a result, China’s domestic demand is influencing global turbine design, manufacturing standards, and cost curves.

Wind Projects Under Construction in China (2025)

Metric
Capacity
Wind‑Solar Energy Pipeline (Announced + Development)593 GW
Wind Projects Under Construction223 GW
Share of Global Wind Construction~45%
Operational Wind Capacity700+ GW
Offshore Wind Operational42.7 GW
Offshore Wind Under Construction28 GW
Offshore Wind Pipeline
67 GW

Global Leadership and Economic Impact

Chinese wind turbine manufacturing facility exporting components worldwide

China’s wind energy growth extends beyond domestic power generation. The country now hosts the world’s largest wind fleet and dominates global manufacturing, producing more than 70% of wind turbine components, including blades, towers, nacelles, and power electronics.

Leading manufacturers such as Goldwind, Mingyang, and Envision export wind technology worldwide, supplying projects across Asia, Africa, Latin America, and Europe.

According to the Centre for Research on Energy and Clean Air (CREA), clean energy led by wind accounted for 25% of China’s GDP growth in 2024, while supporting over 3 million jobs. This shows wind power is not just a clean-energy solution but also a major economic engine.

Looking Ahead to COP30 in Belém

With COP30 in Belém, Brazil, approaching, China is expected to announce stronger national climate targets. Analysts predict new policies around:

  • Higher national wind capacity goals
  • Dedicated offshore wind industrial zones
  • Expanded wind-to-hydrogen integration
  • Streamlined offshore leasing programs

These policies could influence global renewable energy investment and technology deployment.

For additional context on China’s clean energy transition, see our China renewable energy growth article.

Offshore Wind: Opportunities and Challenges

Offshore wind farm in coastal China powering industrial decarbonization efforts

Despite rapid growth, China’s offshore wind sector faces structural challenges, including grid connection delays, overlapping permitting systems, and the technical demands of typhoon resilience. Deep-sea floating wind projects also carry higher costs due to complex foundations, subsea cables, and specialized installation vessels.

Ongoing investment in typhoon-resistant turbine design and offshore grid infrastructure is expected to gradually reduce these barriers and support long-term scalability.

Offshore Wind: Opportunities and Challenges

China’s offshore wind sector faces challenges including:

  • Grid connection delays
  • Overlapping permitting systems
  • Typhoon resilience requirements
  • High cost of floating wind foundations and deep-water logistics

However, government support, green financing, and technological R&D are expected to reduce these barriers over time, helping the sector scale sustainably.

From Energy User to “Electrostate”

Wind power now supplies a growing share of electricity for China’s high-speed rail, smart manufacturing, urban heating and cooling networks, and rapidly expanding data centers. As explored in our coverage of renewable-powered data centers and AI infrastructure, this shift is helping transform China into an emerging renewable-powered “electrostate.

Final Takeaway

China’s wind energy surge in 2025 is reshaping the global renewable‑energy landscape. With 223 GW under construction, accelerating offshore deployment, and unmatched manufacturing scale, China is not only leading the wind sector—it is redefining how quickly a large economy can transition to clean power.

As global attention turns toward COP30, China’s policy direction and execution will play a decisive role in determining the pace and trajectory of the worldwide energy transition.

FAQs: China Wind Energy 2025

How much wind power does China have in 2025?
China has over 700 GW of installed wind capacity, with 223 GW under construction.

What share of global wind projects are in China?
China accounts for nearly 45% of all wind projects under construction worldwide, according to GEM.

Why is offshore wind important for China?
Offshore wind supports industrial decarbonization in coastal provinces and provides large-scale clean power close to demand centers.

Who are China’s leading wind turbine manufacturers?
Goldwind, Mingyang, and Envision are among China’s top wind turbine companies.

How does wind energy impact China’s economy?
Wind energy contributed roughly 25% of GDP growth in 2024 and supports more than 3 million jobs, according to CREA.

How Trump Energy Policy is Killing 22 Offshore Wind Projects, $114B Investment

by
How Trump energy policy is Killing 22 Offshore Wind projects, $114B Investment

The offshore wind sector has been stagnant with federal leasing halted, tax credits eliminated and developers pulling out of core markets

President Donald Trump energy policy changes are putting America’s offshore wind industry in jeopardy, with more than 22 projects on hold and an estimated $114 billion in clean energy investments at risk.

The Biden administration has been making some dramatic strides in its push toward renewable energy, particularly wind power. Several offshore wind project policy decisions involving billions of dollars in investment, projects, and infrastructure were made before he took office. But Trump’s reversal of that Biden-era clean energy aid — along with an executive order suspending offshore wind leasing and permitting — has brought development along the East Coast to a near standstill. Energy experts warn that the stalling could hurt states’ climate goals and derail America’s renewable energy ambitions for the next decade, potentially costing billions of dollars.

Trump Energy Policy Halts Offshore Progress

On his first day in office, President Trump signed an executive order halting new and renewal approvals for offshore wind projects pending a full federal review. The order effectively withdraws federal waters from offshore wind leasing and suspends agency operations across multiple departments, including the Bureau of Ocean Energy Management (BOEM).

While the review remains incomplete, the White House has declined to provide details or a timeline for a resolution.

“The result I fear is unexplained delays,” said Jonathan Elkind, a senior research scholar at Columbia University’s Center on Global Energy Policy. “There’s no transparency here.”

Permits revoked, projects canceled

Since the order, numerous wind projects have had their air permits revoked, environmental assessments delayed, and construction halted. As a result of regulatory uncertainty, a major offshore project in New Jersey has pulled out of its state power contract after the EPA’s decision to revoke its permit. France-based renewable energy developer EDF has formally withdrawn from its $5 billion Atlantic Shores offshore wind project in New Jersey, which was set to generate up to 1,500 megawatts of power, decarbonize the U.S. power grid, and provide clean electricity to more than 700,000 homes.

Industry data shows that 22 wind farms spanning states from Massachusetts to North Carolina are either on hold in the planning stages or have been pulled out of the pipeline entirely. In the New York Bay, once a centerpiece of Biden’s offshore wind campaign, at least two projects have been formally canceled.

The delays would affect about 22 gigawatts of planned capacity — enough to power millions of homes.

$114B Offshore Wind investments at risk

Natalie Gunnell, Shell’s renewable energy division imge: linkedln

According to an April analysis by BloombergNEF, the Trump’s energy policy changes have forced developers to pull out of projects that have yet to reach a final investment decision (FID). Without assurances of federal support, companies are delaying supplier contracts, canceling financing rounds and exiting joint ventures.

Shell and Equinor, the two largest investors in the sector, have already pulled out of key offshore developments in New Jersey. Shell has confirmed that it will not be building any new offshore wind projects in the United States.

“The commercial situation is no longer viable,” said Natalie Gunnell, a spokeswoman for Shell’s renewable energy division.

The Republican Party has moved to repeal the Clean Energy Tax Incentive.

The industry slowdown comes amid efforts in Congress to repeal key provisions of the Inflation Reduction Act, including the Clean Energy Investment Tax Credit. Clean energy projects would have to begin construction within 60 days to qualify for the home-grown energy package, and would be phased out entirely by 2028.

The current Senate version drops the 60-day provision while maintaining the phase-out provision. Industry advocates argue that the proposed changes add another layer of uncertainty, further cooling investment.

“It’s creating an environment where financing and procurement deals are not moving forward,” said Harrison Schoeller, an offshore wind analyst at BloombergNEF.

Supply chain expansion stalls nationwide

Beyond the coast, the impact is being felt across the U.S. wind supply chain. For example, Siemens Gamesa’s plan to open a Virginia blade manufacturing facility in 2023 was canceled due to insufficient demand. Vestas’ proposed nacelle assembly plant in New Jersey has been quietly shelved.

As domestic suppliers retreat, future U.S. wind projects could become more reliant on imports—with developers facing potential tariffs on European components proposed by the Trump administration.

As a result, analysts estimate that production costs could increase by up to 25% over current policy conditions.

Climate Goals at risk

The United States is now expected to generate just 6.1 gigawatts of offshore wind power by 2030, 20% of the Biden administration’s original 30-gigawatt goal. Eleven states with offshore wind targets are unlikely to meet them, according to a project-by-project review by BloombergNEF.

“There’s been a chilling effect across the industry,” said Katharine Collins, president of the Southeastern Wind Coalition. “We’re seeing projects being scrapped and approvals being delayed nationwide.”

The impact extends beyond power generation. Thousands of green jobs, from technicians to engineers, are at risk in shipbuilding, steelmaking and port construction. State officials have begun revising energy roadmaps as the federal government restricts wind development.

South Fork Wind Farm

One example of Biden’s success in offshore wind projects is the name of South Fork Wind Farm. It is New York’s first commercial offshore wind farm and is considered a milestone toward meeting the United States’ 2030 renewable energy goals.

offshore wind projects New York
Tour showcases of South Fork Wind farm

The 150-megawatt offshore wind farm is a groundbreaking project in the search for sustainable energy solutions. It is the first offshore wind project in the United States to connect to the national grid in 2024. It is one of the achievements of the Biden-Harris administration, symbolizing the 2030 wind policy.

Jointly owned by Danish multinational Orsted and US energy supplier Eversource, the wind farm has a capacity of 130 megawatts and can generate clean energy for more than 70,000 homes. It is a major step towards achieving New York’s goal of generating 70% of its electricity from renewable sources by 2030. Located about 35 miles off the coast of Montauk, the wind farm is expected to eliminate up to six million tons of carbon emissions over its lifetime, the equivalent of taking 60,000 cars off the road for the next 20 years.

South Fork Wind is providing more than 1,200 direct construction jobs and thousands more indirect and induced jobs. Hundreds of New Yorkers, engineers, electricians and conservationists are operating the South Fork Wind project. It aims to create thousands of long-term and temporary environmentally friendly jobs, support training programs, fund scientific research and provide opportunities for underserved communities.

Some Hope, But Not Clear

Despite the stalemate, a handful of offshore wind farms are under construction, including Empire Wind in New York, and are expected to be completed by 2027, adding about 5.7 gigawatts of power to the East Coast grid. But experts warn that these projects represent legacy investments from previous administrations, not signs of future progress.

“There are still opportunities here,” said Hilary Bright of the national offshore wind advocacy group Turn Forward. “But without policy coordination, those opportunities won’t materialize.”

The Bottom line

The future of offshore wind in the U.S. under the Trump’s energy policy with administration’s current energy strategy is highly uncertain. With billions in clean energy investments on hold and dozens of projects stuck in regulatory deadlock, the path to a low-carbon energy grid is narrowing. The U.S. is moving away from green policies, lower greenhouse gas emissions, and efforts to limit warming to 1.5 degrees Celsius. Absent major federal policy changes or legislative compromises, America’s offshore wind projects ambitions will likely remain on hold for the next decade.

Why is the US Warning the UK Over Chinese Wind Energy Investment?

by
Why is the US Warning the UK Over Chinese Wind Energy Investment?

The US has warned the UK over Chinese Wind Energy Investment in its offshore wind industry, amid fears over national security. At the heart of the argument is Mingyang Smart Energy, one of China’s largest wind turbine manufacturers, which is preparing to build a plant in Scotland that will supply large floating wind farm projects in the North Sea and Celtic Sea. The move offers the prospect of local job creation and supply chain development, but Washington and some British officials fear it could leave sensitive infrastructure exposed to potential surveillance risks — part of an emerging debate over how to balance green energy goals with security concerns.

But the plan has caused alarm in Washington, which has put pressure on London behind closed doors over the national security implications of allowing a Chinese state-owned energy company to get so near the UK’s critical infrastructure.

US Worries: Security vs Sovereignty over Chinese Wind Energy Investment?

The White House is concerned about spy and cyber threats posed by, for example, Chinese-made wind turbines if they were to be installed near sensitive maritime zones or military installations, according to a senior US official quoted by the Financial Times. This echoes long-held American concerns that some Chinese companies — even those that are not state-owned — might act at the behest of Beijing.

The US has previously sounded similar warning bells to Germany, to which Mingyang has been contracted as a preferred supplier on a North Sea wind farm. Washington’s message to its allies is unmistakable: energy independence must not be achieved at the cost of technological sovereignty or security.

Mingyang’s Plans in the UK: A Green Vision or a Risky Bet?

Mingyang is now in discussions with UK developers, such as:

  • Flotation Energy and Vårgrønn on the Green Volt floating wind project
  • Cerulean Winds for another North Sea development
  • Hexicon, a Swedish firm with projects planned in the Celtic Sea

Supporters say a Mingyang wind turbines Scotland would provide hundreds of green jobs, cut supply chain costs and enable the UK to speed up the launch of its offshore wind power. The UK requires fast industrial scaling if it is to achieve its aims of constructing 50GW of offshore wind by 2030.

Reconciling National Security with Net-Zero Ambitions

The UK government has the power to scrutinize and potentially block foreign investments in the strategically important sectors under the National Security and Investment Act. The case is still under review, with opinions varied, according to UK officials.

This is complicated by the fact that the UK offshore wind energy needs to attract foreign investment in order to live up to its ambitious net-zero targets. Blocking Mingyang could risk a row with Beijing at the time British ministers have been trying to come to terms on how to work with China in tackling climate change under Energy Secretary Ed Miliband.

In the meantime other unrelated tensions have been exacerbated by tensions— like that of Jingye Group’s ownership of British Steel in Stunthorpe, which the British government recently took emergency action to protect.

Voices From the Government and the Industry

A spokeswoman for the UK government did not comment directly on the Mingyang case, but said that “investment in the energy sector is scrutinized for national security at the highest levels.”

A spokesman for the Green Volt project welcomed investment from overseas that helped “to grow the UK wind energy supply chain and create jobs.”

Andrew Bowie, the Conservative shadow secretary of state for Scotland, told parliament that Chinese Wind Energy Investment could be deployed to track UK waters and submarine movements and that the government should favor British and European suppliers in any case.

Others in renewable energy, however, question the US’s motivation, just as Washington isn’t really investing serious

UK Floating Wind Powers Up 4M Homes, Create 5,000+ Jobs – “A Generational Win”

by
UK Floating Wind Powers Up 4M Homes, Create 5,000+ Jobs

UK Floating Wind Farms Lights Up Millions and Transform Coastline Economies

A huge project to harness the power of the wind 15 miles out to sea south of the coastlines of south Wales and south-west England is “breathtaking” and a “generational win” for clean energy and the UK economy, according to the government. The government has now named the companies that will build the farms, pledging a “green industrial revolution” that will feed enough renewable energy to the grid to supply power to up to four million homes — and to produce more than 5,300 in renewable energy jobs.

The project, led by joint venture partners Equinor and Gwynt Glas (EDF Renewable UK and ESB), was supported by the Crown Estate, and is set to see building some of the world’s biggest floating wind turbines – standing as tall as 300m and mounted on platforms the size of football pitches in deep waters some distance away from the coast.

They are to be built in Port Talbot and Bristol providing long term jobs, economic benefits and training in the regions. The UK government expects the windfarms to be operational in the early 2030s, with the added benefit of lower energy bills and energy independence to thousands of clean energy workers

“This is great news for future generations,” said sustainability consultant Andy Middleton. “Teenagers of today will be the workforce of tomorrow driving a UK green energy future that is clean, secure and affordable.

UK Floating Wind Lights Up 4M Homes

£400m Crown Estate investment Sparks Economic Boost

Image: GOVT. UK

The Crown Estate, responsible for managing seabed rights and with more than £603m of holdings in land in wales, is putting £400m into boosting the UK’s offshore wind supply chain. The scheme fits with the UK’s push to ramp up net-zero actions to drive green jobs and green infrastructure.

Welsh Secretary Jo Stevens said the initiative was “hugely significant” while Energy Secretary Ed Miliband said it would be “transformative,” pointing to industrial renewal, energy independence and economic renewal in places like Port Talbot and Bristol.

Image: GOVT. UK

“We’re backing thousands of jobs while ensuring everyone can rely on clean, affordable energy at the flick of a switch for decades to come,” said Miliband.

Youth & Inclusion of UK Floating Wind

At least 10% of new recruits are pledged to be drawn from the stagnant 19 to 24 NEET market. This guarantees the renewal that the next generations are involved in the energy transition and can find sustainable and skilled careers.

The Welsh Government, meanwhile, has promised to contract with developers directly in an effort to ensure the maximum number of jobs for local people.

Image: BBC

“We’ll be getting on the phone to these companies to get jobs into Wales,” the first minister, Eluned Morgan, said.

Voices of Concern and Opportunity

The move has been welcomed by many, but some Welsh politicians raised concerns over the redistribution of profit. Plaid Cymru’s energy spokesperson Llinos Medi MP criticised that money would be going to Whitehall rather than being retained in Wales after making use of Welsh natural resources.

Even so, the scale of that opportunity is difficult to dismiss.

Image: Linkedln

“This is more than simply an energy project — it represents a major turning point for the U.K.’s clean energy economy,” said Rebecca Williams, the director of the Crown Estate portfolio in Wales.

With UK floating wind farms in the pipeline, supported by billions of pounds of investment and thousands of jobs, the UK is cementing its position as a world leader in offshore renewable energy. And as construction accelerates and turbines are assembled in Port Talbot and Bristol, this clean energy surge holds the potential to power homes, train future generations and transform regional economies — all while driving the U.K. toward a net-zero future.

FAQ: UK Floating Wind Farms

What is a floating wind farm?

A floating wind farm is a wind farm with turbines installed on floating platforms instead of fixed substations embedded on the seafloor. Rather than stationary, bottom-fixed turbines, floating wind farms can be placed in deeper waters where wind is stronger and more consistent.

Why is the UK invest in floating wind farms?

The UK has fantastic offshore wind potential globally, especially in deeper water. The UK investing in floating wind technology enables it to:

Increase renewable generation of electricity

Power millions of homes

Help net-zero missions objectives

Produce tens of thousands of green jobs in coastal communities

Where are the UK floating wind farms being built?

New floating windfarms are planned for the coasts of south Wales and south-west England, and Port Talbot and Bristol are earmarked for turbine assembly and supply chain hubs.

Who are the UK’s floating wind leaders?

The UK’s key floating wind projects are being driven by:

Equinor (a dominant global offshore wind company)

EDF Renewables UK and ESB JV Gwynt Glas

The Crown Estate Offshore wind investment £400m in UK offshore wind supply chain

How many households will floating wind farms supply in the UK?

The proposed floating wind farms, which are expected to be operational by the early 2030s, could produce clean energy to power more than 4 million homes in the UK.

What economic value will these projects add?

Floating wind is expected to:

Generate more than 5,300 renewable energy jobs Wales

Inject a £1.4 billion benefit to the UK economy

Boost local jobs, particularly in Wales and the south-west of England

How do floating wind farms differ from fixed-bottom offshore wind farms?

Floating windmills can be placed in depths of water down to 60+ meters whereas fixed-bottom windmills need shallow shoreline seas. This opens up new frontiers for development, notably in the Celtic Sea.

How does this help young workers and local communities?

Developers have pledged to take on a minimum 10 per cent of NEET workers aged 19-24. That supports long-term clean energy careers and makes sure local talent profits right from the green shift.

When will the UK floating windfarms be up and running?

The UK’s first commercial floating wind farms are anticipated to be operational by the early 2030s, with early stage development and investment in the supply chain already taking place.

Vestas Secures 124 MW EDF Wind Project in Québec, Boosting Canada’s Green Energy Goals

by
Vestas Secures 124 MW EDF Wind Project in Québec

Vestas has received an order for 124 MW of V117-3.45 MW turbines for a wind project located in Québec from EDF power solutions North America. The order comprises 20 EnVentus V162-6. 2 MW turbines and a 10-year Active Output Management (AOM) 5000 service contract. This strategic alliance contributes to Hydro-Québec’s objective of building 10 GW of wind power by 2035, and brings economic development and jobs by building the renewable energy supply chain in the province.

EDF Power Picks Vestas Turbine

Project Briefing – Haute-Chaudière Wind Project in Quebec

20-Turbine Project to Power Tens of Thousands of Homes

The Haute-Chaudière development will feature 20 of the high efficiency V162-6. 2 mega watt turbines to produce 124 megawatts of clean power. When it is up and running in late 2026, the site is projected to deliver power for tens of thousands of homes throughout Québec. Delivery of the turbines is planned for Q2 2026, leaving final commissioning to take place by Q4 2026.

The Local Economic Impact and Job Creation

Marmen, a major Québec-based wind tower manufacturer, has been selected by Vestas and EDFps to provide towers for both projects. 130 sustained jobs directly in Trois-Rivières and further strengthen the regional renewable energy manufacturing industry.

Marmen President Patrick Pellerin. Image: The Business Journals

“We are excited to be part of the nascent U.S. offshore wind industry and to work with Vestas and EDF power solutions to help develop a successful domestic supply chain,” said Marmen President Patrick Pellerin.

As Stated By Vestas And EDF – Long Term Collaboration

Vestas has been supplying EDF Renewable Energy with turbines for over 20 years and the contract amount represents 2.9 GW of combined North American projects.

The Haute-Chaudière project is a great example of what becomes possible when experienced partners join forces to combine industry-leading supply chain with cutting-edge technology Laura Beane, President, Vestas North America.

“With Hydro-Québec looking to grow its wind power capacity by over 10GW by 2035, the province has both the scale and the ambition to be at the very forefront of this issue, and that is only made possible with strong partnerships like this.

Tristan Grimbert, President & CEO, EDF power, Image: EDF Website

“This strategic agreement not only reinforces the close relationship between our two companied but also provides the framework for future collaboration opportunities to advance wind energy,” said Tristan Grimbert, President & CEO, EDF power solutions North America.

Vestas’ interest in the Canadian wind sector

Vestas remains the number one wind turbine manufacturer in Canada, with over 5 GW of installed capacity in all 10 provinces. In Québec, Vestas has a service holding of 428 MW turbines, and as of 2024 a project of 347 MWs under construction.

“We know that transportation and busy project work can be a challenge in Québec,” added Josh Irwin, senior vice-president for Canada Onshore Sales in Vestas North America.

“With our decades of experience in the province, we’re prepared to make local expertise available and work with trusted regional partners to help deliver this project.

EDF $7 Billion in Clean-Energy Investment

EDF power solutions has invested over $7 billion in Canadian renewable energy infrastructure, building 2.6 GW of wind and solar projects since 2008. The business is one of the largest independent power producers in North America with solutions that include integrated onshore/offshore wind and solar products as well as green hydrogen, battery storage, and electric vehicle charging.

Their development pipeline of 23 GW of assets with 16 GW under service makes them a top player in the transition to net-zero energy.

Haute-Chaudière wind project Key Factors

Project Cost & Investment

  • Total estimated cost of project: Approximately $440 million
  • Significant Capital investment in local infrastructure and clean energy

Job Creation

  • ~150 construction jobs created
  • Permanent operational jobs after project finish
  • Priority hiring for local companies, workers and Indigenous communities when equal skills, capacity and price are in play
  • Community Partnership & Ownership
Haute-Chaudière wind project

Joint venture:

  • 50% through controlled entities owned by EDF Renouvelables Canada Inc.
  • owned half by Énergie Renouvelable du Granit Inc.

Common goal: Regional economy development and green power generation

Annual payments to local authorities

  • $3,500 / MW installed per year, adjusted to Québec’s Consumer Price Index (CPI)
  • $30000 / year for the electrical substation, CPI indexed
  • $450000 in the first operating year
  • Total payments after 30 years More than $18 million

Québec’s Wind Future is Surging Ahead

The project in Haute-Chaudière demonstrates how private-public cooperation, proven OEMs, and nearby supply chains can lead to cost-effective, secure, and clean energy. With Québec and Canada’s broader energy industry steaming ahead towards ambitious renewable targets, partnerships such as between Vestas and EDF renewables power solutions will be crucial to delivering a green and economically strong future.

Crown Estate £400M Offshore Wind Investment to supercharge to UK Infrastructure

by
Crown Estate £400M Offshore Wind Investment to supercharge to UK Infrastructure

Crown Estate Offshore Wind Investment Plan Explained

In a significant move to super-charge the UK’s offshore wind industry, The Crown Estate has announced plans to invest up to £400 million in a new round of leasing for offshore wind sites. This was an ambitious declaration made at the ‘2025 Global Offshore Wind conference’ summit in London when — dubbed the powering wind energy plan — aims to unlock the next phase of wind energy growth in the UK by the supporting vital onshore.

UK offshore Wind Investment Set for Major Expansion

Under the “Powering Offshore Wind”, The Crown Land’s new capital investment plan comes on the back of a strategy to offer long-term seabed leases for new offshore wind projects, aiming to develop a world leading offshore wind market in the UK.

The plan centers on:

  • Port and harbor upgrades
  • centers of wind-turbine component manufacturing
  • Research and testing installations
  • Partners International Agency Collaboration with national energy agencies

This is vital in order to meet the UK’s renewables targets, and also a catalyst for creating jobs, spurring investment, and driving economic

Head Of the Investment, Crown Estate

Supply chain capacity has been one of the biggest hurdles to fast offshore wind growth in the UK. Ben Brinded, head of investment of The Crown Land, said that it was an investment to target the gaps.

“Without working together and investing in the UK supply chain, we will not achieve the full economic, social and environmental potential of offshore wind,” Brinded said, during the announcement.

And by de-risking future offshore wind developments, improving logistics, and cutting costs for developers, the £400 million funding is predicted to deliver long-term wins in terms of both clean energy generation and the domestic economy.

How the powering offshore wind plan support by supply chain growth

It’s not going to occur in a vacuum, this investment. Organizations including Great British Energy, the National Wealth Fund, and key private sector players will all be supported by The Crown Land to help deliver maximum impact.

Chair of the Offshore Wind Growth Partnership

“As the Offshore Wind Industry works towards delivering the aspirations of the Industrial Growth Plan, industry and the other public investors working in alignment and collaboration is the best way to achieve this,” added Tim Pick, Chair of the Offshore Wind Growth Partnership.

That aligns with efforts to speed up projects, support technology leadership in the UK and increase local content in offshore wind work, cementing Britain’s status as a global wind leader.

How the powering offshore wind plan supports by supply chain

While The Crown Land manages seabed leasing for England, Wales and Northern Ireland, the investment affects various other regions across the UK, such as Scotland and Ireland. Many infrastructure improvements will do good for regional economies while enhancing the national grid.

So whether it’s off the coast of the north-east of (England, Scotland and Wales) building out extra port capacity, in Wales manufacturing and in Northern Ireland testing facilities, this package is about making sure all parts of the UK can access the advantages of clean energy.

This is not your casual investment of the day. The Crown Land is focusing medium-term infrastructure development for resilient systems that can deliver:

  • Floating wind farms
  • Larger turbine deployments
  • Faster project permitting
  • Engineering and construction green jobs

They are also in line with the UK’s goal to reach net-zero emissions by 2050.

Why £400 million in Renewable Energy funding matters now

The UK is already a world leader in offshore wind capacity, but expansion has stagnated because of infrastructure constraints and the pressures of rising costs. As a strategic ambitious investment inducement, it unlocks stalled schemes, as well as drawing in overseas money and encouraging innovation in next-generation wind.

For developers, investors and for communities, the news is being portrayed in the media as a turning point – one that could shape the UK’s energy landscape for generations to come.

The Crown Land’s £400 million pledge to unlock the full potential of offshore wind is more than an investment – it is a statement of ambition that the UK will be the global leader in clean energy.

As new ports are developed, manufacturing scales up, and innovation progresses, this scheme could turbocharge the offshore wind industry, support thousands of green jobs and help transition the UK towards a sustainable, net zero future.