Buying Out the Breeze: Inside the Billion-Dollar Dismantling of U.S. Offshore Wind

Introduction to the Shifting Paradigm in Energy Infrastructure Away from Wind

Throughout the first quarter of 2026, the United States offshore wind energy sector experienced a profound systemic shock, characterized by unprecedented federal regulatory volatility, high-stakes legal confrontations, and complex technical debates. Originally positioned as the central pillar of the nation’s decarbonization and renewable infrastructure strategy—underpinned by previous federal targets aiming for the deployment of thirty gigawatts of installed offshore capacity by 2030—the industry has recently faced a comprehensive and heavily litigated policy reversal.¹ Following a transition in federal executive leadership, the second Trump administration initiated a series of aggressive administrative actions designed to systematically curtail offshore wind development in favor of traditional domestic fossil fuel infrastructure.³

These executive interventions ranged from sweeping memorandums withdrawing all unleased areas of the Outer Continental Shelf from future consideration to targeted, immediate stop-work orders for multi-billion-dollar utility-scale projects already under active construction.⁵ However, the most structural and permanent shift in this new policy paradigm is the federal government's transition from utilizing traditional legal challenges to executing direct, taxpayer-funded financial buyouts designed to dismantle early-stage offshore wind projects before physical construction can commence.³ Specifically, the Department of Justice and the Department of the Interior have engaged in drafting settlement agreements to pay nearly one billion dollars to multinational energy developers to permanently abandon their pre-construction offshore leases.³

This comprehensive report provides an exhaustive, multi-disciplinary analysis of the current state of the United States offshore wind sector as of early 2026. It examines the financial mechanics and long-term climate implications of the proposed federal settlements, the underlying physical and aerodynamic parameters of the targeted wind projects, the validity of national security and ecological concerns utilized to justify project suspensions, and the severe implications these abrupt policy shifts hold for regional electrical grid reliability, particularly within the highly constrained load pockets of the northeastern United States.

Federal Policy Reversals and the National Energy Emergency

The rapid transformation of federal offshore wind policy was catalyzed on the first day of the new administration. On January 20, 2025, the President issued an executive memorandum declaring a national energy emergency.³ This emergency declaration established the overarching administrative pretext for prioritizing domestic fossil fuel production over renewable energy initiatives, citing vulnerabilities to global energy shocks, rising international oil and gas prices, and supply chain inadequacies.³

Simultaneously, the administration leveraged the authority granted under the Outer Continental Shelf Lands Act to withdraw all unleased areas within the Offshore Continental Shelf from any future wind energy leasing.⁹ The January memorandum also imposed a strict moratorium on the issuance of new or renewed approvals, rights of way, permits, and federal loans for both onshore and offshore wind projects pending a comprehensive, multi-agency federal review.⁹ This review, spearheaded by the Secretary of the Interior in consultation with the Department of Defense, the Department of Energy, and the National Oceanic and Atmospheric Administration, was tasked with evaluating the ecological impacts on marine wildlife, the economic costs associated with intermittent electricity generation, and potential national security risks posed by the physical infrastructure of the turbines.⁹

While the regulatory freeze severely impacted project planning timelines across the eastern seaboard, the most aggressive federal action occurred at the end of the year. On December 22, 2025, the Department of the Interior issued sweeping stop-work orders that paused the leases of five major utility-scale offshore wind farms currently under construction in federal waters.¹ The targeted facilities included Vineyard Wind 1 offshore Massachusetts, Revolution Wind offshore Rhode Island, Coastal Virginia Offshore Wind, Sunrise Wind, and Empire Wind 1 off the coast of New York.⁶ The administration justified this unprecedented halt by citing recently completed classified reports from the Department of Defense, which alleged that the massive physical infrastructure of the turbines created unacceptable national security risks due to severe radar interference.⁶

The deployment of a classified national security rationale represented a novel administrative mechanism to stall renewable energy infrastructure. The resulting legal and financial chaos precipitated a bifurcated federal strategy: utilizing the Department of Justice to fight active construction projects in federal court while attempting to financially neutralize pre-construction projects through direct capital buyouts.³

The TotalEnergies Settlement: Strategic Reallocation of Energy Capital

Following a series of legal setbacks in which federal district judges blocked the administration's attempts to halt active construction projects, the federal strategy pivoted toward preemptive financial settlements.³ The most prominent manifestation of this tactic is the proposed settlement with the French multinational energy company, TotalEnergies.³

Financial Mechanics of the Lease Buyout

Internal documents leaked in early 2026 reveal that the Department of Justice and the Department of the Interior are actively drafting agreements to pay TotalEnergies more than $928 million.³ This substantial federal payment is intended to reimburse the company for the winning bids it placed during competitive lease auctions held under the previous administration in 2022.³ In exchange for this massive capital outlay, the Department of the Interior would unilaterally cancel the leases for two major pre-construction wind farms: the Attentive Energy project and the Carolina Long Bay project.³

The Attentive Energy project, located in the New York Bight approximately fifty-four miles off the coast of New York State and forty-two miles off the New Jersey shore, is a joint venture between TotalEnergies, Corio Generation, and Rise Light & Power.¹² TotalEnergies originally secured the lease for $795 million.³ The project was designed with a nameplate capacity exceeding three gigawatts, intended to deliver green electricity to over one million homes across the two states.³ Furthermore, the project had committed to utilizing the New Jersey Wind Port as a marshalling yard and establishing an anchor order for a local offshore wind tower manufacturing facility, promising to generate thousands of job-years for local residents.¹⁵

The Carolina Long Bay project, wholly owned by TotalEnergies, is situated roughly twenty-two miles off the coast of North Carolina at its closest point.⁴ The company acquired this lease for $160 million during the 2022 auction.¹⁴ Utilizing an eighty-six square nautical mile footprint, the facility was projected to generate over 1.2 gigawatts of power, sufficient to supply approximately 300,000 homes in the southeastern United States.⁴

Table 1 summarizes the specific parameters and financial discrepancies of the proposed federal buyout.

Project Name	Location	Proposed Capacity	Estimated Homes Powered	Original Lease Cost (2022)	Earmarked Federal Payout (2026)
Attentive Energy	New York Bight (NY/NJ)	~3.0 Gigawatts	> 1,000,000	$795 Million	$795 Million
Carolina Long Bay	Wilmington East (NC)	~1.2 Gigawatts	~ 300,000	$160 Million	$133 Million
Combined Total	United States Atlantic Coast	~4.2 Gigawatts	> 1,300,000	$955 Million	$928 Million

The Mandatory Pivot to Liquefied Natural Gas Infrastructure

A critical and highly unusual condition of the proposed federal settlement is the mandate for strategic capital reallocation. In addition to abandoning its offshore wind plans, TotalEnergies would be contractually obligated to commit to accelerated investments in natural gas infrastructure and production sites within the state of Texas.³

This stipulation aligns directly with the administration's declared national energy emergency goals to unleash reliable domestic fossil fuel sources.³ It also leverages TotalEnergies' existing corporate strategy, as the company is already a massive player in the United States liquefied natural gas export market.¹⁷ TotalEnergies holds significant stakes in the Cameron LNG terminal—which boasts a 13.5 million tons per annum liquefaction capacity—and recently signed twenty-year long-term offtake agreements for 1.5 million tons per annum from the future Train 4 of the Rio Grande LNG facility in Texas.¹⁷

By utilizing federal funds to force a shift from northeastern renewable generation to southwestern fossil fuel infrastructure, the executive branch is actively reshaping the geographic and technological distribution of American energy capital. This maneuver carries profound climate implications. Financial and environmental analyses project that the expansion of facilities like Rio Grande LNG, once fully operational, would be responsible for emitting approximately 191 million tons of carbon dioxide equivalent annually.¹⁷ This stands in stark contrast to the life-cycle emissions of offshore wind turbines, which average a mere ten to fifteen grams of carbon dioxide equivalent per kilowatt-hour, primarily localized to the manufacturing and installation phases.¹⁹

Internal documents indicate a highly aggressive posture from the executive branch: the administration reportedly intends to unilaterally cancel the leases regardless of whether TotalEnergies formally accepts the settlement agreements.³ If the company refuses the $928 million buyout, it faces the prospect of holding canceled leases and engaging in protracted, multi-year litigation against the federal government.⁴

Technical Specifications and the Aerodynamics of Energy Extraction

To understand the magnitude of the infrastructure being targeted for cancellation, it is essential to analyze the technological scale and the fundamental physics that govern offshore wind energy extraction.

Scale and Capacity of Modern Offshore Turbines

Projects like Attentive Energy and Carolina Long Bay were slated to utilize the latest generation of ultra-large offshore wind turbine generators.²⁰ As of 2025 and 2026, the industry standard for new offshore installations has shifted dramatically from mid-scale turbines (generating four to six megawatts) to massive units with individual power ratings between twelve and fifteen megawatts, with advanced conceptual models pushing toward eighteen to twenty-five megawatts.¹⁹

These physical structures are monumental in scale. A standard fifteen-megawatt offshore turbine features rotor diameters exceeding two hundred and fifty meters and hub heights soaring over two hundred meters above the surface of the ocean.¹⁹ The sheer scale of these machines is dictated directly by the physics of power generation. The amount of mechanical power a turbine can extract from the wind is determined by a specific physical relationship: power is equal to one-half the air density, multiplied by the swept area of the rotor blades, multiplied by the cube of the wind velocity, and finally multiplied by the coefficient of performance.²¹

Because the power output scales with the cube of the wind velocity, even minor increases in average wind speed yield massive exponential gains in electricity generation.²¹ Because offshore marine environments lack the topographical friction found on land, oceanic winds are typically twenty-five to forty percent stronger and significantly more consistent than terrestrial winds.¹⁹ This allows the massive offshore turbines to operate closer to their maximum theoretical efficiency for much longer durations.¹⁹ The quality of these offshore winds is categorized by resource classes, with the most productive areas requiring advanced technology to harness safely.

Table 2 illustrates the technical parameters of offshore wind resource classes utilized by the National Renewable Energy Laboratory for site assessment.

Wind Resource Class	Minimum Wind Speed (m/s)	Maximum Wind Speed (m/s)	Average Wind Speed (m/s)	Percentile Range of Total Resource Potential
Class 1	9.98	10.33	10.24	< 2%
Class 2	9.31	9.98	9.82	2% – 4%
Class 3	9.13	9.31	9.20	4% – 8%
Class 4	8.85	9.13	9.00	8% – 16%
Class 5	7.94	8.85	8.40	16% – 32%
Class 6	7.07	7.93	7.44	32% – 64%
Class 7	6.00	7.07	6.56	64% – 100%

Aerodynamic Efficiency and the Betz Limit

The foundational principle governing all wind energy extraction is Betz's law, formulated by German physicist Albert Betz in 1919.²² Betz's law establishes a strict aerodynamic and mathematical upper bound on the efficiency of any wind turbine operating in an open flow, entirely independent of its engineering complexity or blade design.²³

The concept relies on the principles of the conservation of mass and momentum applied to a fluid flowing through an idealized actuator disk.²² For a turbine to generate mechanical power, it must extract kinetic energy from the oncoming wind, which inherently reduces the wind's velocity as it passes through the rotor plane.²¹ However, if a theoretical turbine were to be one hundred percent efficient—meaning it extracted all available kinetic energy from the air—the air velocity immediately behind the rotor would drop to absolute zero.²³ If the downstream air ceases to move, it creates a physical static blockage, preventing any upstream fresh air from entering the rotor's swept area, thereby halting power generation entirely.²³

Therefore, a continuous flow of air must be maintained. As the wind slows down while passing through the turbine, the principles of incompressible fluid dynamics dictate that the airflow must expand into a wider cross-sectional area to conserve mass.²³ Betz mathematically calculated that the optimal deceleration of the wind occurs when the downstream velocity is precisely one-third of the initial upstream velocity. At this specific ratio, the maximum theoretical energy that can be extracted from a free-flowing wind stream is exactly 16/27ths, or 59.3 percent.²¹ This absolute mathematical threshold is known as the Betz limit.²³

Modern utility-scale offshore wind turbines represent a triumph of aerodynamic engineering, achieving peak efficiencies that reach seventy-five to eighty percent of the Betz limit.²³ When factoring in real-world mechanical friction, gearbox losses, and generator inefficiencies, this means the most advanced turbines can convert roughly forty-five to fifty percent of the total kinetic energy in the wind into usable grid electricity.²³

Economic Competitiveness and Grid Integration Challenges

While aerodynamic efficiency dictates how well a turbine extracts energy at a given moment, the overall economic and grid value of a power plant is measured by its capacity factor. The capacity factor is the ratio of a power plant's actual electrical output over a specified period of time compared to its theoretical maximum continuous output if it were running at full nameplate capacity non-stop.¹⁹

Capacity Factors and Levelized Cost of Energy

Due to the superior quality of marine wind resources, modern offshore wind farms achieve capacity factors ranging from thirty-five to fifty percent, with optimal installations in the North Sea and parts of the Atlantic reaching up to sixty-five percent.¹⁹ This represents a massive improvement over onshore wind installations, which typically average twenty-five to thirty-five percent due to variable terrestrial weather patterns.¹⁹

When evaluating the administration's mandate for TotalEnergies to pivot to natural gas ³, it is necessary to compare these metrics against conventional generation. Natural gas combined-cycle plants are highly dispatchable, meaning they can be ramped up and down on demand, often running at capacity factors determined by grid economics rather than fuel availability.²⁵ However, planned offshore wind capacity operates with zero fuel costs and provides a long-term hedge against the extreme price volatility inherent in global natural gas markets.¹⁹

Table 3 compares the estimated capacity factors and Levelized Cost of Energy (LCOE) for various generation sources as of the 2025-2026 operational landscape.

Generation Source	Average Capacity Factor	LCOE Estimate (2025) per MWh	Carbon Emissions (gCO₂/kWh)
Offshore Wind	35% - 50% (Up to 65% optimal)	$70 - $140	10 - 15 (Lifecycle)
Onshore Wind	25% - 35%	$30 - $60	8 - 12 (Lifecycle)
Solar PV (Utility)	20% - 30%	$25 - $50	15 - 25 (Lifecycle)
Natural Gas (CCGT)	Dispatchable (Variable)	$45 - $75	400 - 500 (Direct)
Coal	Dispatchable (Variable)	$60 - $100	800 - 1,000 (Direct)

The Approaching Grid Crisis: NYISO Reliability Assessments

The aggressive cancellation of gigawatt-scale offshore wind projects carries profound, immediate implications for regional electricity grids. The situation is particularly acute in the northeastern United States, where the electrical infrastructure is aging, consumer demand is rising, and statutory state-level climate mandates are forcing the retirement of highly polluting fossil fuel plants.

In late 2025 and early 2026, the New York Independent System Operator (NYISO)—the entity responsible for managing the state's power grid—released its quarterly Short-Term Assessment of Reliability (STAR) reports covering the critical five-year horizon from 2025 to 2030.²⁸ The findings painted a stark picture of an approaching grid crisis. The report explicitly identified imminent reliability violations and structural weaknesses emerging in New York City by the summer of 2026, expanding to Long Island by 2027, and reaching the Lower Hudson Valley by 2030.²⁸

The impending shortfalls in New York City are not merely an issue of total statewide power generation; they are fundamentally a crisis of "transmission security".²⁸ Transmission security refers to the grid's physical ability to withstand sudden, severe disturbances—such as a localized electric short circuit, an extreme heatwave causing load spikes, or the sudden loss of a major transmission line or power plant—without suffering cascading failures.²⁸ New York City operates as an intense load pocket, heavily reliant on a bottlenecked transmission network to import power from upstate regions.

This precarious situation is being driven by the convergence of three structural trends.²⁹ First, consumer electricity demand is rising precipitously, exacerbated by the electrification of transportation and the rapid expansion of energy-intensive data centers.²⁸ Second, the grid is losing significant dispatchable capacity due to the New York State Department of Environmental Conservation's strict emissions rule, known colloquially as the "peaker rule." This environmental mandate forces the deactivation of heavily polluting, inefficient combustion turbine generators located within the city limits.²⁸ Third, there is a systemic difficulty in siting and developing new transmission lines to bypass bottlenecks.²⁸

The Grid Impact of Canceling Attentive Energy

Within this context, the proposed federal buyout and cancellation of the TotalEnergies Attentive Energy project borders on catastrophic for long-term state energy planning.³ Attentive Energy One was structurally designed to directly address the transmission constraints of the New York City load pocket.¹³ The project included provisions to deliver up to 1,275 megawatts of clean, reliable nameplate capacity directly into the heart of the city via an interconnection point at the Rainey 345-kilovolt substation in Queens.¹³ Furthermore, the project aimed to repurpose the legacy fossil-fuel infrastructure at the Ravenswood Generating Station, utilizing the existing transmission pathways to inject zero-emission energy exactly where the NYISO STAR reports identified the most severe transmission security deficits.¹³

By moving to unilaterally cancel this lease ³, the federal government is depriving the New York grid of a critical infrastructural asset. Consequently, the state faces an untenable regulatory dilemma.³¹ To maintain basic grid reliability and prevent rolling blackouts during peak summer demand, state regulators may be forced to suspend their own environmental mandates and extend the operational life of highly polluting, expensive fossil fuel peaker plants located in historically disadvantaged communities.²⁸ NYISO officials have already warned that, absent new large-scale renewable resources, the system may require thousands of megawatts of new dispatchable generation within the next decade to avoid failure.²⁸ This situation is further complicated by the complex NYISO demand curve reset process, which sets capacity prices based on the capital costs of new generators entering the market, leading to highly contentious stakeholder negotiations regarding the future cost of electricity for New York residents.³³

The National Security Pretext: Radar Interference and Technical Mitigation

The central justification utilized by the Department of the Interior to halt active offshore wind construction in December 2025 was the assertion that large-scale turbines pose critical national security risks.⁶ Specifically, government officials cited classified reports from the Department of Defense indicating that massive turbine blades and reflective towers create severe radar interference, obscure moving targets, and generate false signatures near highly populated East Coast military and civilian centers.⁷

While the administration utilized this as a pretext for immediate, open-ended project suspensions, the underlying science of wind turbine radar interference is exhaustively documented and has been the subject of intensive interagency study for over a decade.³⁵

The Physics of Radar Clutter and Doppler Shifts

Radar systems operate by emitting rapid pulses of electromagnetic energy and measuring the reflections (echoes) that bounce back from objects in the surrounding environment.³⁵ To differentiate between stationary objects (such as mountains, buildings, or the ocean surface) and moving targets (such as aircraft, incoming missiles, or vessels), modern radar processors rely heavily on analyzing the Doppler effect.³⁵ The Doppler effect measures the change in the frequency of the returning radio wave caused by the motion of the target relative to the radar station.

Wind turbines present a highly unique and complex challenge to radar signal processing. While the massive steel support tower is entirely stationary and can usually be filtered out by standard static clutter-reduction algorithms, the turbine blades are in constant, rapid motion.³⁴ The tips of modern turbine blades, due to the massive diameter of the rotor, can reach speeds exceeding two hundred miles per hour.³⁵ Because these blades are massive, structurally complex, and highly reflective to radio waves, their rotation creates dynamic, rapidly fluctuating Doppler shifts that are detected by the radar receiver.³⁵

If a utility-scale wind farm is situated within the direct line-of-sight of a radar installation, the spinning blades can saturate the radar display with false returns, commonly referred to as "radar clutter".⁷ This clutter can mimic the signature of slow-moving aircraft, small marine vessels, or drones, potentially masking legitimate targets from air traffic controllers and military defense operators.⁶ Furthermore, adjusting the radar's sensitivity thresholds to filter out the intense clutter generated by a wind farm carries the inherent risk of simultaneously filtering out actual small targets, creating a blind spot in the radar's coverage area.⁷

Validated Interagency Mitigation Technologies

Despite the administration's classification of these risks as an insurmountable national security crisis ⁷, extensive scientific literature and federal reports indicate that radar interference is a well-understood engineering challenge with several proven mitigation pathways.³⁵ According to a 2024 report to Congress authored by the Department of Energy, robust collaboration between the wind industry, radar manufacturers, and the federal government has historically enabled radar agencies to continue their missions without significant detrimental impacts from wind deployment.³⁵

The Wind Turbine Radar Interference Mitigation (WTRIM) working group—comprising the Department of Energy, the Department of Defense, the Federal Aviation Administration, and Sandia National Laboratories—has tested and evaluated numerous hardware and software solutions.³⁶ Because the rotation rate of a wind turbine is relatively constant and heavily monitored by the grid operator, its location within the Doppler spectrum is highly predictable.³⁵ Modern mitigation relies on advanced signal processing techniques that identify the specific rotational signature of a turbine blade and selectively remove it from the radar feed without degrading the surrounding airspace data.³⁵

Table 4 outlines the specific radar types impacted by offshore wind and the validated mitigation technologies utilized to resolve interference.

Radar Type	Primary Use Case	Validated Mitigation Technologies
Air Navigation & Defense	Air traffic control, military tracking	Dynamic signal filtering, hardware upgrades, infill radar deployment, layout adjustments
Marine Vessel Radar	Ship navigation, collision avoidance	Operator training, antenna relocation, Automatic Identification System (AIS) integration
Coastal High Frequency	Coast Guard search and rescue	Sweep rate tuning, specific Doppler spectrum filtering, supplementary sensors on turbine platforms
Weather Radars	Severe weather forecasting	Pre-emptive turbine shutdown protocols during severe events, combining data streams

Notably, the administration's December 2025 stop-work orders conflated various types of sensing technology, leading to widespread public speculation about autonomous submarine threats and sonar interference.⁶ However, technical analyses clearly differentiate between radar and underwater acoustics. Sonar relies on sound waves propagating through water, not radio waves propagating through the air.³⁵ Because turbine foundations are fixed structural elements beneath the waterline, they produce entirely predictable, stationary acoustic signatures that are easily accounted for and filtered out by modern military sonar processing, presenting negligible risks to underwater threat detection or submarine tracking.³⁵

Marine Ecology and Environmental Safeguards

Alongside national security concerns, the ecological impact of offshore wind development on marine mammals has been intensely scrutinized, specifically regarding the critically endangered North Atlantic right whale.³⁹ With an estimated global population hovering around 360 to 380 individuals, including fewer than 70 reproductively active females, the species is exceptionally vulnerable to any anthropogenic disruptions in its migratory corridors along the eastern seaboard.³⁹

In January 2024, the Bureau of Ocean Energy Management and the National Oceanic and Atmospheric Administration (NOAA) Fisheries released a final joint strategy aimed at responsibly advancing offshore wind while aggressively mitigating risks to the right whale.² The primary ecological threats introduced by offshore wind construction are vessel strikes from heavy installation ships, entanglement in construction materials or secondary marine debris caught on subsea cables, and intense underwater noise pollution.²

The acoustic trauma caused by traditional offshore pile-driving methods—where massive steel monopiles are hammered deeply into the seabed using hydraulic hammers—can cause temporary or permanent hearing impairment, mask vital vocal communications between whales, and trigger severe physiological stress and behavioral displacement.² To mitigate this acoustic risk, the federal strategy emphasizes the mandatory use of real-time passive acoustic monitoring systems.⁴⁰ These networks of underwater microphones detect whale vocalizations miles away, triggering immediate, mandatory halts to all construction activities when whales are in proximity.³⁹

Furthermore, environmental reviews strongly encourage a shift toward quieter foundational technologies where geological conditions permit.⁴⁰ Gravity-based foundations, which rest firmly on the seabed utilizing massive concrete ballasts, and suction-bucket foundations, which use hydrostatic pressure to anchor deeply into the sediment, essentially eliminate the need for percussive pile driving.⁴⁰ While these alternative foundations are relatively new to the United States market and require distinct soil conditions, they represent one of the most effective long-term mitigation strategies available for safeguarding marine mammal acoustic environments.⁴⁰

Paradoxically, while the administration has cited ecological necessity in its mandate to review and halt wind leases ⁹, marine biologists and federal agencies have repeatedly noted that climate change itself is the most pervasive, existential long-term threat to the North Atlantic right whale.³⁹ Warming ocean temperatures severely alter the geographic distribution of the whales' primary prey, zooplankton, forcing the whales into new, unprotected habitats where they face significantly higher risks of fatal entanglement with legacy fishing gear and collisions with commercial shipping vessels.³⁹ Consequently, the cancellation of gigawatt-scale, zero-emission infrastructure projects like Attentive Energy directly undermines the long-term decarbonization strategies necessary for stabilizing the marine environment against climate-driven habitat collapse.³⁹

Judicial Review, Injunctive Relief, and Industry Resilience

The aggressive, unilateral posture of the federal government catalyzed a massive wave of complex litigation from multinational developers, environmental advocacy organizations, and state governments.¹ The legal battlegrounds of early 2026 exposed the severe limitations of utilizing executive authority to arbitrarily disrupt established infrastructure development.

The Standard for Injunctive Relief and Financial Impairments

Following the December 2025 stop-work orders targeting the five active offshore construction projects, the affected developers—including Ørsted, Equinor, and Avangrid—promptly filed lawsuits in federal district courts.¹ The plaintiffs sought preliminary injunctions, arguing that the Department of the Interior's orders were arbitrary and capricious, violated the Administrative Procedure Act, and breached the established terms of their Outer Continental Shelf Lands Act leases.¹

To secure a preliminary injunction against the federal government, plaintiffs must demonstrate a strong likelihood of success on the merits, show that they will suffer irreparable harm without immediate relief, and prove that the balance of equities and the public interest strongly favor allowing the project to proceed. The developers clearly articulated the economic devastation caused by the sudden suspension orders. The industry was already suffering from systemic financial strain due to supply chain inflation and interest rate hikes. For instance, Equinor announced a massive $955 million impairment charge due to unexpected changes and delays to its Empire Wind project, in which it had already invested over four billion dollars, including 2.7 billion dollars in project financing.⁴¹ Similarly, Ørsted announced a $575 million impairment due in part to delays on its Revolution Wind project.⁴² Equinor executives noted that they were losing approximately fifty million dollars per week while highly specialized offshore installation vessels sat idle under the federal freeze.⁴³

Judicial Defeats for the Administration

In a series of rapid judicial decisions handed down in January and February of 2026, federal district court judges overwhelmingly ruled in favor of the offshore wind developers.¹ The courts systematically granted preliminary injunctions preventing the Bureau of Ocean Energy Management from enforcing the stop-work orders against Vineyard Wind 1, Revolution Wind, Sunrise Wind, Empire Wind, and Coastal Virginia Offshore Wind.¹

Crucially, the judiciary found the administration's national security justifications lacking in empirical immediacy and reasoned explanation. The courts ruled that the government failed to provide sufficient, non-pretextual evidence demonstrating that the presence of the wind turbines created an imminent, unmitigable national security threat severe enough to warrant the sudden suspension of multi-billion dollar construction projects that had previously passed exhaustive, years-long interagency reviews under the previous administration.¹

Operational Milestones Achieved Amidst Litigation

The immediate result of these judicial injunctions was the rapid resumption of offshore construction activities across the eastern seaboard.⁴⁴ The industry achieved historic operational milestones in the first quarter of 2026, in direct defiance of the administration's stated goals.

In mid-March 2026, developers finalized the physical offshore construction of the massive Vineyard Wind 1 project off the coast of Massachusetts.⁴⁴ By installing the final turbine blades, the 800-megawatt facility became the largest completed commercial-scale offshore wind farm in the United States, representing a monumental triumph of physical engineering over regulatory hostility.⁴⁴

Simultaneously, the 700-megawatt Revolution Wind project, a joint venture between Ørsted and Skyborn Renewables, successfully achieved "first power".²⁷ Following the lifting of the federal suspension order, the project began transmitting electricity into the Connecticut and Rhode Island power grids.²⁷ State environmental and energy analyses project that the affordable, locally generated power from Revolution Wind will save New England ratepayers up to half a billion dollars annually in wholesale energy costs, shielding the region from the extreme price volatility of global natural gas markets.²⁷

Table 5 outlines the specific legal and operational status of the major offshore wind projects affected by federal litigation as of March 2026.

Project Name	Primary Developer	Capacity	March 2026 Legal & Operational Status
Vineyard Wind 1	Avangrid / CIP	800 MW	Injunction granted. Physical construction completed.
Revolution Wind	Ørsted / Skyborn	700 MW	Injunction granted. First power delivered to the grid.
Empire Wind 1	Equinor	810 MW	Injunction granted. Foundation installation resumed.
Sunrise Wind	Ørsted	924 MW	Injunction granted. Construction ongoing.
Coastal Virginia (CVOW)	Dominion Energy	2.6 GW	Injunction granted. Construction ongoing.
SouthCoast Wind	Ocean Winds	2.4 GW	Federal appeal granted to allow BOEM to review and potentially revoke finalized permits.43

The inclusion of SouthCoast Wind highlights the precarious nature of projects caught in the transitional regulatory environment. While it received its major federal permits in January 2025, just days before the administrative changeover, it was subjected to immediate legal challenges.⁴³ In late 2025 and early 2026, federal courts granted motions allowing the new Bureau of Ocean Energy Management to legally remand and review the previously issued approvals, leaving the 2.4-gigawatt project in a state of indefinite regulatory limbo, unable to finalize power purchase agreements or secure incidental harassment authorizations for marine mammals.⁴³

Conclusion

The 2025 and 2026 federal interventions into the United States offshore wind market represent an unprecedented deployment of sovereign executive power to intentionally disrupt an emerging domestic energy sector. The administration's structural shift from traditional regulatory oversight to targeted financial sabotage—exemplified by the $928 million proposed settlement to eradicate the Attentive Energy and Carolina Long Bay leases—highlights a systemic preference for legacy fossil fuel infrastructure, regardless of the massive financial outlay required by the federal government to secure that outcome.³

This policy realignment is occurring at the precise historical moment when the physical science of wind extraction and the engineering of massive megawatt-class turbines have reached peak commercial viability.¹⁹ Modern installations confidently operate near the absolute aerodynamic limits defined by Betz's law, generating robust capacity factors that rival traditional power plants without the volatility of fuel costs.¹⁹ Furthermore, the technical arguments deployed to justify federal stoppages—specifically concerns regarding radar interference and radar clutter—are largely solvable engineering challenges. Years of interagency study have yielded proven hardware, software, and operational mitigations capable of maintaining clear airspace without sacrificing clean energy infrastructure.³⁵

The systemic consequences of this federal policy pivot will be borne directly by the regional electrical grids and local ratepayers. As explicitly detailed by the NYISO reliability reports, the termination of gigawatt-scale, zero-emission projects exacerbates impending transmission security deficits, pushing crucial, densely populated load pockets like New York City perilously close to capacity shortfalls.²⁸

While the federal judiciary has provided a robust legal shield for active construction projects, allowing historic operational milestones like the completion of Vineyard Wind 1 and the energization of Revolution Wind to proceed ⁴⁴, the long-term pipeline of American offshore wind remains in severe jeopardy. The willingness of the executive branch to expend nearly a billion dollars of taxpayer capital to cancel valid leases and force developers into the liquefied natural gas market introduces a catastrophic level of political risk to future infrastructure investments.³ If developers like TotalEnergies are coerced into permanently abandoning the outer continental shelf, the United States risks permanently stalling its offshore wind sector, sacrificing vital grid reliability, ignoring fundamental aerodynamic and market economics, and undermining its own environmental resilience against climate change for decades to come.

Works cited

1. Federal Offshore Wind Deployment - Environmental and Energy Law Program, accessed March 17, 2026, https://eelp.law.harvard.edu/tracker/federal-offshore-wind-deployment/

2. North Atlantic Right Whale and Offshore Wind Strategy - Bureau of Ocean Energy Management (BOEM), accessed March 17, 2026, https://www.boem.gov/renewable-energy/state-activities/narw-osw-strategy-handout

3. Trump team weighs paying $1B to get companies to stop off-shore ..., accessed March 17, 2026, https://www.the-independent.com/news/world/americas/us-politics/trump-wind-energy-settlements-climate-b2940566.html

4. Trump Administration Proposes $1 Billion Deal to Block Offshore Wind Farms, accessed March 17, 2026, https://nationaltoday.com/us/ny/new-york/news/2026/03/17/trump-administration-proposes-1-billion-deal-to-block-offshore-wind-farms/

5. Trump executive orders halt wind development, declare energy emergency | Utility Dive, accessed March 17, 2026, https://www.utilitydive.com/news/trump-offshore-wind-leasing-permitting-executive-orders-energy/737835/

6. Offshore wind: known and speculative national security risks - JohnLocke.org, accessed March 17, 2026, https://www.johnlocke.org/offshore-wind-known-and-speculative-national-security-risks/

7. Department of the Interior Announces Immediate Pause on Offshore Wind Projects Citing National Security Risks - ConstructConnect News, accessed March 17, 2026, https://news.constructconnect.com/department-of-the-interior-announces-immediate-pause-on-offshore-wind-projects-citing-national-security-risks

8. Executive Orders and Presidential Memoranda Focus on U.S. Energy Sector - Orrick, accessed March 17, 2026, https://www.orrick.com/en/Insights/2025/01/Executive-Orders-and-Presidential-Memoranda-Focus-on-US-Energy-Sector

9. US President Trump Issues Executive Order Suspending Offshore Wind Leasing, accessed March 17, 2026, https://www.offshorewind.biz/2025/01/21/us-president-trump-issues-executive-order-suspending-offshore-wind-leasing/

10. Trump orders moratorium on federal actions for wind projects and withdrawal of new or renewed wind leases in Outer Continental Shelf | White & Case LLP, accessed March 17, 2026, https://www.whitecase.com/insight-alert/trump-orders-moratorium-federal-actions-wind-projects-and-withdrawal-new-or-renewed

11. Trump administration weighs $1B deal with TotalEnergies to block offshore wind farms - NYT, accessed March 17, 2026, https://seekingalpha.com/news/4565371-trump-administration-weighs-1b-deal-with-totalenergies-to-block-offshore-wind-farms---nyt

12. United States: TotalEnergies joins forces with Corio and Rise to develop 3+ GW wind project offshore New York & New Jersey, accessed March 17, 2026, https://totalenergies.com/news/press-releases/united-states-totalenergies-joins-forces-corio-and-rise-develop-3-gw-wind

13. Attentive Energy One - nyserda, accessed March 17, 2026, https://www.nyserda.ny.gov/-/media/Project/Nyserda/Files/Programs/Offshore-Wind/ATT_Public-Executive-Summary.pdf

14. Trump administration plans $1B buyout for offshore wind leases ..., accessed March 17, 2026, https://www.utilitydive.com/news/trump-administration-plans-buyout-offshore-wind-leases/814944/

15. Attentive Energy Proposes Ambitious Offshore Wind Investments to Power New Jersey Forward, accessed March 17, 2026, https://attentiveenergy.com/attentive-energy-proposes-ambitious-offshore-wind-investments-to-power-new-jersey-forward/

16. TotalEnergies Carolina Long Bay | Carolinas Wind Farm, accessed March 17, 2026, https://carolinalongbay.com/

17. TotalEnergies: The USA gas rush - Reclaim Finance, accessed March 17, 2026, https://reclaimfinance.org/site/en/2025/03/11/totalenergies-the-usa-gas-rush/

18. TotalEnergies SE: First Quarter 2025 Results - Business Wire, accessed March 17, 2026, https://www.businesswire.com/news/home/20250429755474/en/TotalEnergies-SE-First-Quarter-2025-Results

19. Offshore Wind Turbines Power: Complete 2025 Guide To Generation - SolarTech, accessed March 17, 2026, https://solartechonline.com/blog/offshore-wind-turbines-power-guide-2025/

20. Offshore Wind | Electricity | 2023 | ATB | NLR, accessed March 17, 2026, https://atb.nrel.gov/electricity/2023/2023/Offshore_Wind

21. Betz Limit and the Power Coefficient of Wind Turbines - Alternative Energy Tutorials, accessed March 17, 2026, https://www.alternative-energy-tutorials.com/wind-energy/betz-limit.html

22. Understanding Betz's Law in Wind Energy | PDF | Turbine | Continuum Mechanics - Scribd, accessed March 17, 2026, https://www.scribd.com/document/65176409/BETZ-LAW

23. Betz's law - Wikipedia, accessed March 17, 2026, https://en.wikipedia.org/wiki/Betz%27s_law

24. What Is the Betz's Limit and How Does It Relate to Wind Turbine Blade Efficiency?, accessed March 17, 2026, https://energy.sustainability-directory.com/learn/what-is-the-betzs-limit-and-how-does-it-relate-to-wind-turbine-blade-efficiency/

25. Renewable power generation costs in 2024 - IRENA, accessed March 17, 2026, https://www.irena.org/-/media/Files/IRENA/Agency/Publication/2025/Jul/IRENA_TEC_RPGC_in_2024_2025.pdf

26. United States: TotalEnergies to Provide 1 GW of Solar Capacity to Power Google's Data Centers in Texas for 15 Years, accessed March 17, 2026, https://investingnews.com/united-states-totalenergies-to-provide-1-gw-of-solar-capacity-to-power-google-s-data-centers-in-texas-for-15-years/

27. Wind Farm Powers New England Despite Trump Administration Roadblocks - Realtor.com, accessed March 17, 2026, https://www.realtor.com/news/trends/new-england-wind-farm-power-trump-opposition/

28. New York City could face power reliability issues beginning next year: ISO | Utility Dive, accessed March 17, 2026, https://www.utilitydive.com/news/new-york-iso-warns-of-2026-reliability-violations-in-nyc-long-island/802699/

29. NYISO Planning Studies Highlight Grid Reliability Concerns, accessed March 17, 2026, https://www.publicpower.org/periodical/article/nyiso-planning-studies-highlight-grid-reliability-concerns

30. PRESS RELEASE | NYISO Planning Studies Highlight Grid Reliability Concerns, accessed March 17, 2026, https://www.nyiso.com/-/press-release-nyiso-planning-studies-highlight-grid-reliability-concerns

31. Where's New York on climate goals? Falling behind. | Canary Media, accessed March 17, 2026, https://www.canarymedia.com/articles/policy-regulation/new-york-climate-goal-backtrack

32. Following NYISO Short-Term Assessment of Reliability Report Governor Hochul Must Course-Correct by Building a Renewable Grid for the Future - Earthjustice, accessed March 17, 2026, https://earthjustice.org/press/2025/following-nyiso-short-term-assessment-of-reliability-report-governor-hochul-must-course-correct-by-building-a-renewable-grid-for-the-future

33. NYISO's 2026 to be Dominated by Reliability Concerns - RTO Insider, accessed March 17, 2026, https://www.rtoinsider.com/121924-nyisos-2026-will-be-dominated-by-reliability-concerns/

34. Offshore Wind Shock: Trump Administration Hits Pause Citing National Security Risks, accessed March 17, 2026, https://carboncredits.com/offshore-wind-shock-trump-administration-hits-pause-citing-national-security-risks/

35. Wind Turbine & Radar Interactions and Solutions, accessed March 17, 2026, https://cleanpower.org/wp-content/uploads/gateway/2026/01/ACP_FactSheet_Wind_Radars_260116_2-1.pdf

36. Mitigating Wind Turbine Radar Interference | Department of Energy, accessed March 17, 2026, https://www.energy.gov/eere/wind/mitigating-wind-turbine-radar-interference

37. Wind Turbine Radar Interference Mitigation (WTRIM) - Sandia National Laboratories, accessed March 17, 2026, https://energy.sandia.gov/programs/renewable-energy/wind-power/national-security/siting-wind-turbineradar-interference-mitigation-tspear-ifte/

38. Wind Turbine Generator Impacts to Marine Vessel Radar, accessed March 17, 2026, https://www.nationalacademies.org/projects/DELS-OSB-20-06

39. NOAA, BOEM Announce Final North Atlantic Right Whale and Offshore Wind Strategy, accessed March 17, 2026, https://www.fisheries.noaa.gov/media-release/noaa-boem-announce-final-north-atlantic-right-whale-and-offshore-wind-strategy

40. Strong Mitigation Measures Are Essential to Protect Marine Mammals and Sea Turtles During All Phases of Offshore Wind Energy Development on the - Regulations.gov, accessed March 17, 2026, https://downloads.regulations.gov/BOEM-2024-0020-0035/attachment_1.pdf

41. Ørsted, Equinor announce legal action against Trump administration - Net Zero Investor, accessed March 17, 2026, https://www.netzeroinvestor.net/news-and-views/briefs/rsted-equinor-announce-legal-action-against-trump-administration

42. Offshore wind companies face major headwinds in US | NJ Spotlight News, accessed March 17, 2026, https://www.njspotlightnews.org/2025/08/orsted-other-offshore-wind-companies-struggle-adverse-us-developments-trump-administration/

43. Our offshore wind tracker: What's new with wind projects off Massachusetts and beyond?, accessed March 17, 2026, https://newbedfordlight.org/offshore-wind-tracker-whats-happening-to-massachusetts-projects/

44. Revolution Wind comes online, Vineyard Wind 1 completes construction | Utility Dive, accessed March 17, 2026, https://www.utilitydive.com/news/revolution-wind-comes-online-vineyard-wind-completes-construction/814794/

45. Construction completed on Vineyard Wind offshore project in Massachusetts, accessed March 17, 2026, https://www.constructionowners.com/news/vineyard-wind-construction-completed

46. A Major Offshore Wind Farm Just Finished Construction. Trump Is Already Plotting a Counterattack - Gizmodo, accessed March 17, 2026, https://gizmodo.com/a-major-offshore-wind-farm-just-finished-construction-trump-is-already-plotting-a-counterattack-2000734565

47. SouthCoast Wind Loses Court Appeal to Block BOEM Review of Permits, accessed March 17, 2026, https://maritime-executive.com/article/southcoast-wind-loses-court-appeal-to-block-boem-review-of-permits