Portugal Wind Energy Market Analysis by Mordor Intelligence
The Portugal Wind Energy Market size in terms of installed base is expected to grow from 6.55 gigawatt in 2025 to 10.25 gigawatt by 2030, at a CAGR of 9.37% during the forecast period (2025-2030).
Robust policy support, notably the accelerated 80% renewable electricity target for 2025 and grid expansion funding of EUR 611 million, anchors investor confidence while securing long-term system reliability. The declining levelized cost of energy, corporate power-purchase agreements tied to the Sines data center cluster, and supply chain localization incentives further propel the Portuguese wind energy market, even as permitting bottlenecks and regional grid congestion temper near-term build-out. Competitive intensity remains moderate, with EDP, Iberdrola, and Ocean Winds leading a diversified field that now sees technology-specific entrants focusing on floating foundations. Continued provincial opposition to new corridors and raw material inflation present operational challenges; however, regulatory streamlining under the RED III transposition keeps the growth trajectory intact.[1]Government of Portugal, “Bill to transpose RED III,” gov.pt
Key Report Takeaways
- By location, onshore facilities held 99.6% of Portugal's wind energy market share in 2024, while the segment is still expected to record the fastest expansion at a 9.4% CAGR to 2030.
- By turbine capacity, machines with a capacity of up to 3 MW accounted for a 52.5% share of the Portuguese wind energy market size in 2024; units rated above 6 MW are forecast to surge at a 27.9% CAGR through 2030.
- By application, utility-scale assets commanded a 61.8% revenue share in 2024, whereas commercial and industrial installations are projected to advance at a 16.5% CAGR through 2030.
- EDP, Iberdrola, and Ocean Winds jointly controlled an estimated 47% Portugal wind energy market share in 2024.
Portugal Wind Energy Market Trends and Insights
Drivers Impact Analysis
| Driver | (~) % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
|---|---|---|---|
| Declining LCOE for on- & offshore projects | +2.3% | National; onshore optimization in Centro, Norte | Medium term (2-4 years) |
| EU RepowerEU wind capacity targets 2025-2030 | +2.1% | National; aligned with 10 GW offshore target | Long term (≥ 4 years) |
| Grid-scale hybrid tenders incl. storage (2026+) | +1.4% | High-wind corridors nationwide | Medium term (2-4 years) |
| Offshore supply-chain localization incentives | +0.8% | Coastal; Port of Sines development corridor | Long term (≥ 4 years) |
| Corporate PPA boom from data-center & tech firms | +1.3% | National; Sines data-center hub | Short term (≤ 2 years) |
| Port of Sines green-hydrogen export corridor | +0.9% | Sines region with Alentejo spillover | Long term (≥ 4 years) |
| Source: Mordor Intelligence | |||
Declining LCOE for On- & Offshore Projects
Technological advances push generation costs below those of combined-cycle gas, with repowered onshore parks cutting expenditures by 20-30% compared to legacy units, and floating pilots achieving reliable output in 50-m water depths. An entropy-based study confirms that offshore generation has lower variability, which translates into better economic reliability and accelerates financing timelines. The cost breakthrough attracts EUR 500 million from German infrastructure funds for integrated wind, storage, and hydrogen hubs. Widespread interest in hybrid wind-solar-battery configurations supports grid balancing and widens revenue streams, reinforcing the growth of the Portugal wind energy market.
EU RepowerEU Wind Capacity Targets 2025-2030
Portugal’s commitment under the European Wind Charter outlines a 10 GW offshore objective, supported by the Offshore Renewable Energy Allocation Plan, which earmarks 9.4 GW of commercial zones with auction rules scheduled for implementation by October 2025.[2]WindEurope, “Permitting overview 2025,” windeurope.org Alignment with the revised National Energy and Climate Plan, which aims for carbon neutrality by 2045, embeds the Portuguese wind energy market within a wider decarbonization ecosystem, linking turbine deployment to green hydrogen export pathways.
Corporate PPA Boom from Data-Centre & Tech Firms
The 1.2 GW SINES DC campus demands an uninterrupted renewable supply, equivalent to nearly 18% of current national wind capacity, prompting innovative PPAs that bundle wind, solar, and storage for 24/7 coverage. AI-optimized data centers and manufacturers, such as Gres Panaria, sign decade-long agreements that enhance bankability for independent power producers and expand the customer base of the Portuguese wind energy market.
Port of Sines Green-Hydrogen Export Corridor
Galp’s delayed 100 MW GalpH2Park electrolyzer underscores grid connection challenges but signals long-term demand, as 140 MW of capacity is already reserved for the site’s energy needs. Venture-capital inflows exceeding USD 1 billion per year target wave and floating wind synergies within Portugal’s blue-economy strategy. The corridor increases demand for reliable, clean electricity, enabling premium tariffs that support revenue models across the Portuguese wind energy market.
Restraints Impact Analysis
| Restraint | (~) % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
|---|---|---|---|
| Limited onshore land availability & permitting bottlenecks | -1.6% | National, acute in densely populated Centro region | Short term (≤ 2 years) |
| Fishermen & tourism opposition to floating offshore sites | -0.7% | Coastal zones, particularly Viana do Castelo, Algarve | Medium term (2-4 years) |
| Rising WTG raw-material costs (steel, rare-earths) | -1.2% | National, affecting all project economics | Short term (≤ 2 years) |
| Grid congestion in Centro & Norte regions | -1.0% | Centro & Norte transmission corridors | Medium term (2-4 years) |
| Source: Mordor Intelligence | |||
Limited Onshore Land Availability & Permitting Bottlenecks
Portugal’s high site-utilization rate means new onshore plots are scarce, especially in the densely populated Centro belt, where mixed land-use rules complicate turbine siting. Projects developed between 2005-2010 will soon reach concession expiry, yet fewer than 10% have secured repowering permits, a gap that risks 1 GW of attrition by 2030 if unresolved. The RED III transposition proposes a single digital portal with maximum two-year deadlines; however, municipal approvals, heritage clearances, and aviation-radar checks still slow rollouts. Cost overruns linked to delayed licenses already average EUR 90,000 per MW, eroding the cost advantage that underpins the Portugal wind energy market. Developers now bundle biodiversity offsets and community-benefit funds into their submissions, a tactic that improves acceptance yet further inflates upfront capital budgets.
Grid Congestion in Centro & Norte Regions
Installed wind now approaches local evacuation limits on several 220 kV spurs, forcing REN to curtail output at peak hours and lifting balancing costs to EUR 2.17/MWh. Nearly 3 GW of queued projects await transformer upgrades, with average wait times exceeding 28 months.[3]Executive Digest, “Grid report 2025,” executivedigest.sapo.pt The approved EUR 611 million transmission package prioritizes Sines, leaving Centro and Norte reliant on phased reconductoring that will not reach completion until 2028. Battery-storage bids in the 2026 hybrid tender aim to relieve marginal congestion, yet technical codes for grid-forming inverters remain under consultation. In parallel, project sponsors tap corporate PPAs with on-site load, such as ceramics clusters, to bypass weak nodes; however, the workaround covers only a fraction of the latent potential across the Portuguese wind energy market.
Segment Analysis
By Location: Onshore Dominance Sustains Growth
The onshore segment delivered 6.524 GW of installed capacity in 2024, accounting for 99.6% of Portugal's total wind energy market size, and is projected to track a 9.4% CAGR through 2030 as brownfield repowers and greenfield ridgeline arrays proceed in tandem. Attractive average capacity factors of 31% and streamlined fiscal incentives keep levelized costs at USD 39/MWh, which is well below the wholesale power averages.
Onshore's entrenched lead does not preclude offshore advances. Floating pilots have secured 25-year seabed rights, and the 2025 lease round will allocate up to 2 GW of commercial acreage. Still, onshore's rapid permitting cycle, 18 months versus offshore's projected 48 months, ensures that ground-based turbines remain the backbone of the Portugal wind energy market through mid-decade. Municipalities tout local tax receipts and road upgrade clauses, reinforcing social license and bolstering double-digit pipeline growth.
Offshore capacity currently stands at a symbolic 25 MW, yet it is pivotal to long-range strategy, offering 131 GW of gross technical potential that could reshape the Portuguese wind energy market size after 2030. The WindFloat Atlantic array has logged 345 GWh since 2020, validating 50-m-depth operations and drawing bids from Tokyo Gas and Shell. Policy certainty, as outlined in the Offshore Renewable Energy Allocation Plan, de-risks investment; however, environmental clearance windows and fisheries-interaction studies remain critical path items. Consequently, analysts expect offshore wind to account for less than 10% of the Portuguese wind energy market share by 2030, although its revenue share will exceed this ratio due to higher capital expenditure intensity.
Note: Segment shares of all individual segments available upon report purchase
By Turbine Capacity: Scaling Toward Efficiency
Units rated up to 3 MW dominated 2024 installations, accounting for a 52.5% share, reflecting legacy procurement guidelines that capped hub weights to match the limits of hillside cranes. These models anchor the Portugal wind energy market, yet their growth flattens after 2026 as developers pivot to larger rotors that maximise swept area. Repowering schemes now routinely replace thirty 2 MW turbines with a dozen 6 MW models, doubling capacity and reducing pad count, a strategy that aligns with wildlife-impact thresholds.[4]Iberdrola, “Repowering of wind farms,” iberdrola.com
The above-6 MW class records the fastest 27.9% CAGR to 2030, aided by OEM roadmaps that deliver 7-8 MW onshore variants and 15 MW offshore giants. Greater nameplate ratings enhance economies of scale and lower the €/kW capex, sustaining competitiveness despite metal inflation. As a result, machines exceeding 6 MW could capture 20% of Portugal's wind energy market share by 2030, a fourfold increase from current levels.
Grid-compliance code revisions now allow 150m rotor diameters on 120m towers, unlocking windier layers and improving annual energy production by 13%. Hybrid control algorithms harmonise reactive-power injection, helping larger turbines qualify for congested nodes. Manufacturers such as Vestas are trialing low-emission steel towers that reduce embodied CO₂ by 25%, aligning with the green supply requirements of data center PPAs. Collectively, these advances sustain the capacity-uprating pathway that characterizes the Portuguese wind energy market.
By Application: Commercial Demand Accelerates
Utility-scale projects remain dominant, with a 61.8% share, due to their bulk power sales into the MIBEL pool and long-term contracts with the market operator, OMIE. However, corporate buyers now sign 10-15-year PPAs featuring floor-price collars and indexation to inflation, a structure that appeals to balance-sheet IPPs and underpins a 16.5% CAGR in the commercial and industrial segment. Data-center operators colocate 100-MVA substations and request renewable energy guarantees of origin, thereby expanding the Portuguese wind energy market size linked to private off-takers.
Community projects, although small at a 1.4% share, gain momentum from energy-sharing rules that allow municipal cooperatives to net-meter their output. Rooftop-scale turbines with a capacity of less than 100 kW are testing niche designs for islanded microgrids in the Azores, further diversifying the application landscape. Utilities respond by integrating solar and four-hour batteries with legacy wind parks, selling firm-shaped blocks at premium spreads. EDP’s second solar-plus-wind hybrid cuts curtailment by 18% and captures higher evening prices, demonstrating how incumbents can defend market relevance. Meanwhile, cement and ceramic groups hedge power volatility via bundled REC plus storage contracts, broadening demand and embedding resilience across the Portugal wind energy market.
Note: Segment shares of all individual segments available upon report purchase
Geography Analysis
Portugal’s coastal southwest, centered on Sines, holds an installed base of 1.9 GW in 2025, 29% of the Portugal wind energy market size, and records a forecast 10.3% CAGR as port upgrades, data-center loads, and hydrogen electrolysers anchor demand. Exceptional 9 m/s wind speeds and 400 kV grid links let projects clear at sub-USD 40/MWh, a level that underpins bankability for floating pilots and hybrid parks.
Centro and Norte jointly host 3.4 GW, or 52% of capacity, yet growth slips to 7.1% CAGR because transformer saturation triggers curtailment. Repowering replaces aging 1.5 MW machines with 6 MW models, increasing output while reducing turbine count; however, grid congestion keeps developers in phased queues, extending the financial close by up to 28 months. Planned reconductoring and 200 MWh of co-located batteries by 2028 will ease bottlenecks, restoring confidence in the regional expansion pipeline.
The remaining 19% of capacity spreads across the Algarve, the Alentejo interior, and the island territories. The Algarve utilizes 200 MW of ridge-top turbines to hedge against summer solar volatility, while the Azores pilot microgrids test 500 kW direct-drive units for isolated demand pockets. Viana do Castelo hosts the WindFloat Atlantic array, Portugal’s only offshore plant, proving deep-water viability and attracting bids that could lift offshore share of the Portugal wind energy market to 8% by 2030.[5]Ocean Winds, “WindFloat Atlantic project,” oceanwinds.com
Competitive Landscape
Portugal’s wind sector exhibits moderate concentration, with the five largest operators, EDP Renováveis, Iberdrola, Ocean Winds, Finerge, and Greenvolt, controlling approximately 70% of the installed capacity as of 2024. EDP raised its renewable energy ratio to 98% of generation and committed USD 26 billion to 2026, including multi-technology hybrids that reduce balancing charges.[6]EDP, “Strategic update 2025,” edp.com Iberdrola secured a production license for a 274 MW cluster and an environmental permit for repowering, reaffirming its long-term commitment to the Iberian Peninsula.
Ocean Winds progresses floating know-how through O&M contracts with Principle Power, while Gazelle Wind Power’s semi-submersible platform reduces steel usage by 40% and positions the firm for 2025 seabed auctions. Etermar’s Baltic Sea contract demonstrates that local EPCs can export their expertise, diversifying revenue and reinforcing the depth of their supply chain.
Strategic differentiation now hinges on component decarbonization, localized manufacturing, and financial structuring. Vestas and ArcelorMittal supply low-emission steel towers that earn 4-point bid bonuses, while Siemens Gamesa offers recyclable blades to meet the criteria of a circular economy. Developers pair 10-year inflation-indexed corporate PPAs with merchant tails covered by caps-and-floors, lowering debt-service cover ratios and keeping the Portugal wind energy market attractive despite raw-material inflation.
Portugal Wind Energy Industry Leaders
-
Acciona SA
-
Siemens Gamesa Renewable Energy SA
-
Vestas Wind Systems A/S
-
Oersted A/S
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Electricite de France SA
- *Disclaimer: Major Players sorted in no particular order
Recent Industry Developments
- March 2025: Etermar Energia has been awarded a contract by Ørsted and PGE Polska Grupa Energetyczna (PGE) for the delivery of secondary foundation structures for the 1.5 GW Baltica 2 offshore wind farm in Poland.
- February 2025: Quadrante unveiled a 244 MW onshore development at the repurposed Pego Thermal plant, enough to supply 24,000 households and displace 1% of national electricity demand.
- January 2025: Tokyo Gas acquired 21.2% of the WindFloat Atlantic floating offshore project, marking its first direct overseas floating-wind stake, to build experience ahead of commercial auctions.
- December 2024: Iberdrola has secured a production license for what will be Portugal's largest wind farm, a 274 MW project in the Vila Real and Braga districts. This project, which will integrate with the Tâmega Power Plant System, highlights the ongoing interest of utilities in developing new, large-scale renewable energy projects.
Portugal Wind Energy Market Report Scope
Portugal wind energy market report includes:
| Onshore |
| Offshore |
| Up to 3 MW |
| 3 to 6 MW |
| Above 6 MW |
| Utility-scale |
| Commercial and Industrial |
| Community Projects |
| Nacelle/Turbine |
| Blade |
| Tower |
| Generator and Gearbox |
| Balance-of-System |
| By Location | Onshore |
| Offshore | |
| By Turbine Capacity | Up to 3 MW |
| 3 to 6 MW | |
| Above 6 MW | |
| By Application | Utility-scale |
| Commercial and Industrial | |
| Community Projects | |
| By Component (Qualitative Analysis) | Nacelle/Turbine |
| Blade | |
| Tower | |
| Generator and Gearbox | |
| Balance-of-System |
Key Questions Answered in the Report
How large is the installed wind fleet in Portugal for 2025?
Installed capacity totals 6.55 GW, reflecting steady onshore additions and one offshore pilot.
What CAGR is forecast for Portuguese wind additions to 2030?
Capacity is expected to grow at 9.37% annually, reaching 10.25 GW by 2030.
When will offshore wind become material in Portugal?
Commercial auctions slated for 2025 could lift offshore to roughly 8% of capacity by 2030.
Which turbine class is gaining share fastest?
Models above 6 MW post a 27.9% CAGR as repowering and efficiency drives favor larger machines.
Why is Sines crucial to future growth?
The port hosts data-center, hydrogen and floating-wind projects that create an integrated demand hub and justify major grid upgrades.
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