Vertical: EnP
Market Size (2019)
$36.81B
Projected (2035)
$186.19B
CAGR (2019–2035)
10.7%
Key Players
10+
This report covers Europe WInd Energy Market with forecasts from 2019 to 2035. 10 key companies are profiled.
The Europe WInd Energy Market market is projected to grow at a CAGR of 10.7% from 2019 to 2035.
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View Subscription PlansThe rapid expansion of offshore wind and growing demand for renewable energy to meet net-zero goals has led to a rising demand for wind energy market in Europe. As part of its Green Deal, the European Union (EU) has set ambitious goals to reach net-zero emissions by 2050, fuelling the transition away from fossil fuels and accelerating the adoption of renewable energy sources. Wind energy, known for its clean, reliable, and abundant power, plays a central role in this transformation. Additionally, wind power is a cornerstone of a decarbonized energy system, offering a cost-effective solution to reduce greenhouse gas emissions. To fulfill their climate commitments, European nations are increasingly investing in both onshore and offshore wind farms. As part of the EU Renewable Energy Directive, the region aims for 40% renewable energy in its energy mix by 2030, with wind energy being key to achieving this target. Offshore wind is witnessing rapid growth, with countries in Europe focusing on harnessing the potential of the North Sea and surrounding areas. However, high initial cost and intermittency of wind energy generation are acting as restraining factors in the growth of the market.
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View Subscription PlansThis report applies a rigorous multi-stage research process combining primary interviews, secondary data sources, and bottom-up market modelling to ensure accuracy and completeness across all segments and geographies.
Base Year
—
Historical Period
2019 – 2035
Forecast Period
2019 – 2035
Primary Interviews
150+
Historical performance and future projections
Our research process spans primary interviews with industry stakeholders combined with comprehensive secondary data analysis, validated through triangulation across multiple independent sources.
Michael Porter’s five forces model offers a framework to study the Europe Wind Energy market. Business managers, trying to gain a competitive edge for their brands over peers in the market, can utilize this model to comprehend better in the industry in which the firm operates. The components of each of the forces and the degree of impact of each component in the context of the Europe Wind Energy market have been broken down and analyzed. Threat of New Entrants (Moderate to Low) ▪ Capital Requirement (High) ▪ Technology (Moderate) ▪ Government Incentives (Moderate to High) Bargaining Power of Suppliers (Moderate to High) ▪ Raw Material Differentiator (Low) ▪ Switching Cost (Moderate) ▪ Concentration of Suppliers (Moderate) Threat of Substitutes (Moderate) ▪ Availability of Close Substitutes (Moderate) ▪ Buyer Propensity to Competitive Products (Moderate) Bargaining Power of Buyers (Moderate) ▪ Buyers Concentration (Moderate to High) ▪ Switching Cost (Moderate) Intensity of Rivalry (High) ▪ Market competition (High) ▪ Industry Growth (High)
Suppliers hold moderate to high bargaining power in the European wind energy market due to the reliance on critical raw materials and specialized components. Key materials like rare earth elements (for magnets in generators), steel (for turbine towers), and fiberglass or carbon fiber (for blades) are sourced globally, with China and Australia dominating the rare earth supply. Geopolitical tensions, such as the Russia-Ukraine war, and price volatility further strengthen suppliers' positions. Additionally, certain components, such as semiconductors and advanced control systems, are dependent on a limited number of specialized manufacturers. This dependency increases the bargaining power of suppliers, particularly during global supply chain disruptions. However, large wind turbine manufacturers mitigate supplier power by forging long-term contracts, diversifying sourcing channels, and investing in recycled materials or alternative substitutes. Buyers in the European wind energy market, including governments, utilities, and corporate clients, wield moderate bargaining power. With growing competition among turbine manufacturers and energy project developers, buyers often have the leverage to negotiate favorable terms, such as competitive pricing and performance guarantees. Corporate power purchase agreements (PPAs), where businesses secure renewable energy supply directly from wind farms, are becoming increasingly common, giving large companies significant influence over pricing and contract structures.
Additionally, government policies and auction-based systems for renewable energy projects provide buyers with further negotiating power by fostering competition among suppliers. However, the technical complexity of wind turbines and the need for long-term maintenance services limit buyers' options, reducing their overall leverage. The threat of new entrants in the European wind energy market remains moderate to low due to several factors, including substantial capital investment demands, technological complexities, and regulatory hurdles. Launching a wind energy project requires considerable initial funding for aspects such as land acquisition, turbine purchases, infrastructure setup, and grid integration. Moreover, newcomers must comply with rigorous environmental and safety regulations set by the European Union, a process that can be both lengthy and expensive. Established companies like Vestas, Siemens Gamesa, and Nordex enjoy advantages from economies of scale, robust supplier relationships, and strong brand recognition, which pose challenges for new competitors. Nevertheless, advancements in technologies such as floating offshore wind and small-scale onshore wind farms offer opportunities for niche players to enter the market. Additionally, government initiatives and subsidies in various European nations may help reduce the barriers for smaller renewable energy companies.
Despite these potential openings, the domination of established firms, combined with the high capital requirements, typically restricts the threat posed by new entrants. The threat of substitutes in the European wind energy market is moderate. While wind energy competes with other renewable energy sources, such as solar, hydro, and biomass, it remains a crucial component of the European Union's energy transition goals. Solar energy, in particular, poses a significant substitute threat due to its declining costs, scalability, and ease of installation, especially for small-scale projects. However, wind energy's ability to generate power consistently, particularly in offshore environments with strong wind speeds, gives it a competitive edge over solar, which is weather-dependent. Non-renewable energy sources like natural gas and coal still serve as substitutes, but their appeal is diminishing due to stricter emissions regulations and the EU's commitment to achieving net-zero carbon goals by 2050. While substitutes like solar energy continue to grow, wind energy's unique advantages and government backing reduce the overall threat. Industry rivalry in the European wind energy market is high due to intense competition among established players and the growing number of regional and global companies entering the market.
Major manufacturers like Vestas, Siemens Gamesa, and GE Renewable Energy compete for market share through innovation, cost optimization, and performance improvements. Offshore wind has become a battleground due to its vast untapped potential in regions like the North Sea and the Baltic Sea. Furthermore, price competition is i
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Analytical insights on Europe WInd Energy Market covering market dynamics, competitive landscape, and strategic outlook.
The Europe WInd Energy Market market is projected to reach $186.19B by 2035, growing at 10.7% CAGR. The Onshore segment holds the largest share.
The rapid expansion of offshore wind and growing demand for renewable energy to meet net-zero goals has led to a rising demand for wind energy market in Europe. As part of its Green Deal, the European Union (EU) has set ambitious goals to reach net-zero emissions by 2050, fuelling the transition away from fossil fuels and accelerating the adoption of renewable energy sources. Wind energy, known for its clean, reliable, and abundant power, plays a central role in this transformation. Additionally, wind power is a cornerstone of a decarbonized energy system, offering a cost-effective solution to reduce greenhouse gas emissions. To fulfill their climate commitments, European nations are increasingly investing in both onshore and offshore wind farms. As part of the EU Renewable Energy Directive, the region aims for 40% renewable energy in its energy mix by 2030, with wind energy being key to achieving this target. Offshore wind is witnessing rapid growth, with countries in Europe focusing on harnessing the potential of the North Sea and surrounding areas. However, high initial cost and intermittency of wind energy generation are acting as restraining factors in the growth of the market.
The rapid growth of offshore wind energy in Europe is a major factor driving the expansion of the region’s overall wind energy market, solidifying Europe’s position as a global leader in renewable energy. Offshore wind provides distinct advantages over onshore wind, such as stronger wind speeds, larger turbines, and higher energy generation, making it a vital pillar of Europe’s transition to a low-carbon economy. Government policies and ambitious climate goals are propelling the deployment of offshore wind projects. The European Union (EU) has set a target of achieving 300 GW of offshore wind capacity by 2050, with leading nations like the UK, Germany, the Netherlands, and Denmark spearheading large-scale investments. Additionally, emerging floating offshore wind technology is unlocking new opportunities by enabling wind farms in deep-sea locations, as demonstrated in countries like Norway, France, and Spain. Onshore Offshore
According to WindEurope, the annual installation of offshore wind capacity is expected to accelerate significantly toward the latter part of this decade. It is projected that installations between 2 24 and 2 3 will bring the EU’s offshore wind capacity to approximately 393 GW by 2 3, contributing to the broader EU target of 425 GW. Additionally, Europe’s total installed wind power capacity, combining both onshore and offshore projects, is expected to surpass 500 GW within the same timeframe. This rapid expansion underscores the critical role of offshore wind in driving Europe’s transition to a low-carbon energy system and meeting its climate targets. Project Name Country Capacity Project Company (in USD million) Sylen Offshore Wind Sweden 8675 MW SVEA/IG 13000 Power Plant Med Wind Offshore Italy 2800 MW Renexia 9800 Wind Power Plant Eystrasalt Offshore Sweden 3900 MW Skyborn Renewables 9623 Wind Power Plant Erik Segersall Sweden 9000 Offshore Wind Power 6000 MW Deep Wind Offshore Plant IJmuiden Ver Wind 9000 Netherland 6000 MW RVO Power Plant Zone
Corporate power purchase agreements (PPAs) from companies like Google, Amazon, and Shell are further boosting private investments in offshore wind projects, providing financial stability and increasing demand. Innovations in grid infrastructure, such as offshore wind hubs and initiatives like the North Sea Wind Power Hub, are facilitating cross-border energy trade and driving market growth. Offshore wind is also playing a pivotal role in green hydrogen production, where surplus wind power is used for electrolysis, creating new renewable energy applications. Rising fossil fuel costs and the EU’s carbon pricing mechanisms, including the Emissions Trading System (ETS), make offshore wind an economically viable and sustainable solution. Thus, with declining costs, robust policy support, technological breakthroughs, and growing private sector involvement, offshore wind is not only advancing Europe’s wind energy market but also shaping the future of renewable energy in the region. -ZERO GOALS The rising demand for renewable energy to achieve net-zero emissions is a major driving force behind the European wind energy market. As part of its Green Deal, the European Union (EU) has set ambitious goals to reach net-zero emissions by 2050, fuelling the transition away from fossil fuels and accelerating the adoption of renewable energy sources.
Wind energy, known for its clean, reliable, and abundant power, plays a central role in this transformation. Wind power is a cornerstone of a decarbonized energy system, offering a cost-effective solution to reduce greenhouse gas emissions. To fulfill their climate commitments, European nations are increasingly investing in both onshore and offshore wind farms. As part of the EU Renewable Energy Directive, the region aims for 40% renewable energy in its energy mix by 2030, with wind energy being key to achieving this target. Offshore wind is witnessing rapid growth, with countries in Europe focusing on harnessing the potential of the North Sea and surrounding areas.
The demand for wind energy is further fuelled by rising public awareness of climate issues and the need for sustainable energy solutions. Technological advancements, falling capital costs, and the availability of long-term power purchase agreements (PPAs) are enhancing wind energy’s accessibility and attractiveness to both investors and governments. Additionally, improvements in energy storage technologies are addressing grid integration ch
The expansion of cross-border electricity trade enabled by wind energy presents a significant opportunity for the European wind energy market. By facilitating the efficient utilization of wind power across national boundaries, it enhances energy security and grid stability while optimizing the use of renewable resources. Europe’s wind energy potential is highly regional, with areas such as the North Sea hosting abundant wind resources. Countries like the UK, Germany, and Denmark have developed large-scale offshore wind farms, yet the intermittent nature of wind energy and regional disparities in wind generation can lead to supply imbalances. Cross-border electricity trade addresses these challenges by enabling surplus wind power from one country to be seamlessly transferred to areas experiencing shortages, ensuring a more balanced and efficient energy distribution across the continent. The European Union (EU) and the UK have recognized the strategic importance of cross-border electricity flows, particularly in the North Sea, where efforts are underway to establish a renewable energy hub. WindEurope CEO Giles Dickson emphasized this collaboration, stating: "The agreement is great news for electricity consumers and Europe’s energy security.
Both the EU and the UK share the vision of transforming the North Sea into a renewable energy hub with a meshed offshore grid, seamless cross- border electricity flows, and hybrid offshore wind farms. Working together on this is a clear win-win." Currently, the UK and the EU maintain strong energy interconnections, with approximately GW of interconnector capacity, supplying around % of the UK’s electricity demand through EU imports. As part of their broader decarbonization objectives, the UK aims to achieve net-zero electricity by 2040, while the EU targets 2050. Offshore wind plays a crucial role in these plans, with the EU aiming for at least 300 GW of offshore wind capacity by 2050—approximately half of which will be sourced from the North Sea. The UK is also advancing its offshore wind ambitions, targeting 60 GW by 2030. To support these goals, both the EU and the UK are coordinating offshore wind development, particularly through hybrid wind farms that connect multiple countries to a shared grid. These integrated projects facilitate uninterrupted cross-border electricity flows, enhance energy cooperation, and contribute to a more resilient renewable energy system.
Several key cross-border projects are already underway, demonstrating the potential of wind energy in driving regional energy integration: • ELWIND: A hybrid offshore wind park jointly developed by Estonia and Latvia, with a planned capacity of up to 1 GW, aimed at maximizing renewable energy generation across both nations. • CICERONE (Alliance Cross-Border-European Green Hydrogen Value Chain): A European green hydrogen value chain linking Italy, Spain, and Germany, where renewable electricity from Spain and Italy is converted into green hydrogen and transported to the Netherlands and Germany. • SLOWP (Saare-Liivi Offshore Wind Park): A joint hybrid offshore wind farm between Estonia and Luxembourg, with a total capacity of 1.2 GW, designed to enhance renewable energy integration across borders. • ULP-RES WP (Utilitas Lode-Penuja RES Wind Park): An onshore wind park spanning Estonia and Latvia, equipped with next-generation wind turbines and a joint transmission grid connection in Latvia, with a total capacity of 200 MW. • BEI (Bornholm Energy Island): A hybrid offshore wind project comprising two 3 GW wind farms connected to converter stations on the Danish island of Bornholm, linked to both mainland Denmark and Germany via high-voltage direct current cables.
As wind energy capacity continues to expand, cross-border electricity trade is becoming an essential mechanism for balancing supply and demand across Europe. The EU has been actively investing in grid interconnections to strengthen its internal electricity market, allowing surplus wind energy from high-production regions to be exported to neighboring countries with higher demand. This enhanced coordination not only fosters a more resilient energy system but also ensures a stable and reliable electricity supply by mitigating fluctuations in wind power generation. Furthermore, cross-border electricity trade plays a vital role in reducing reliance on fossil fuels and accelerating Europe’s transition to net-zero emissions by 2050. By leveraging wind energy from regions with optimal conditions, countries can significantly lower their carbon footprint while meeting renewable energy targets more efficiently. The expansion of interconnectors and grid capacity also promotes deeper integration of wind power, making the European energy system more adaptable and responsive to fluctuations in demand. Beyond energy security and sustainability, cross-border electricity trade fosters economic growth by encouraging investment in large-scale wind infrastructure. It provides a strong business case for wind farm development, as surplus electricity can be traded profitably across borders, reducing the need for costly energy storage solutions.
Ultimately, this interconnected approach strengthens Europe’s renewable energy landscape, accelerates the transition to a low-carbon economy, and enhances long-term economic and environmental benefits.
The significant initial installation costs represent a major obstacle to the growth of the European wind energy market. While wind energy is essential for Europe’s strategy to achieve net-zero emissions, the considerable upfront capital required for the development and deployment of wind farms remains a formidable barrier. This financial challenge encompasses various expenses, including the costs associated with turbines, supporting infrastructure, land acquisition, grid connections, and the necessary permitting processes. Offshore wind farms incur higher costs due to their locations in deep waters, far from the coast. The complexities involved in installing turbines in such challenging marine environments, along with the need for specialized vessels and equipment, further inflate the overall expenses. Additionally, the construction of subsea cables and the integration of these offshore facilities with the onshore grid add to the financial burden. Onshore wind farms, while generally less expensive than their offshore counterparts, still face significant costs related to land acquisition, environmental impact assessments, and enhancements to local infrastructure. These high initial costs can deter investment, especially for smaller developers or those operating in countries with limited financial support.
Despite the decreasing costs of turbines and other technologies over recent years, the substantial upfront investment remains a critical barrier. Although wind energy typically has low long-term operational costs, the initial financial outlay can be prohibitive. Securing financing for these capital-intensive projects often requires substantial government support, private investment, or innovative financial solutions. However, the challenge of obtaining adequate funding can slow the development of new wind farms. Moreover, the capital-intensive nature of wind energy often necessitates long payback periods, which can dissuade investors, particularly in markets where renewable energy infrastructure is still developing. The reliance on subsidies, tax incentives, and long- term power purchase agreements (PPAs) to ensure financial viability further underscores the challenge posed by high initial installation costs. Consequently, while the potential for wind energy is vast, the significant upfront expenses continue to hinder its rapid expansion within the European market. Cost components In millions of euros per MW of installed capacity Wind generator 0.67 Internal electrical installations 0.06 Electrical substation and power lines 0.17 Engineering design and construction 0.08 Additional expenses 0.02 Cost components In millions of euros per MW of installed capacity Total construction cost 1.00 Operating cost 0.05
The intermittency of wind energy generation remains a significant challenge for the growth of the European wind energy market, as it directly impacts the reliability and stability of power supply. Wind energy production is inherently dependent on wind conditions, which are variable and unpredictable. Wind speeds fluctuate throughout the day, across seasons, and between geographical locations, leading to inconsistent electricity generation. This variability creates difficulties in balancing supply and demand on the grid, particularly during periods of low wind when power generation dips. In regions with high wind energy penetration, grid operators face the complex task of maintaining a stable electricity supply while managing the intermittent nature of wind power. During periods of low wind, power shortages can occur, especially during peak demand times. To compensate, the grid often relies on backup power from conventional fossil fuel-based plants, which undermines the environmental benefits of transitioning to renewable energy. This reliance on fossil fuels during wind energy shortfalls highlights the need for more robust solutions to address intermittency. Efforts to mitigate these challenges include the integration of advanced forecasting tools and energy storage systems.
Improved forecasting technologies aim to predict wind patterns more accurately, helping grid operators plan for fluctuations in generation. However, despite advancements, forecasting remains imperfect, with a degree of uncertainty persisting. Energy storage systems, such as batteries, are being developed to store surplus wind energy for later use, but these technologies are still expensive and evolving. Additionally, integrating storage solutions into the grid adds complexity and increases costs. The economic implications of intermittency are also significant. To ensure a stable energy supply, investments in backup systems, grid management technologies, and storage solutions are necessary, driving up the overall costs of wind energy projects. These additional expenses can deter investment and slow the deployment of wind energy infrastructure. Furthermore, the intermittency issue limits the ability of wind energy to fully replace fossil fuels, as consistent and reliable power generation remains a challenge. Thus, while wind energy holds immense potential for supporting Europe’s renewable energy goals, the issue of intermittency continues to restrain its large-scale deployment. Addressing this challenge will require ongoi
Near-term growth will likely concentrate in modular bioreactor lines and closed-system media workflows that shorten validation cycles while preserving batch traceability.
Partnerships between CDMOs and instrumentation vendors should accelerate standard datasets for comparability across sites, improving forecasting models used in capacity planning.
Longer horizon, organoid and microphysiological adoption may reshape segment mix; teams that invest early in assay interoperability and cloud QC hooks are better positioned to capture upside without fragmenting their analytics stack.
Profiles of 108 companies operating in the Europe WInd Energy Market market, including revenue, employee count, and market positioning where available.
Showing 108 of 108 companies
Ørsted A/S is one of major providers of renewable wave-energy technology that develop, construct, and operate offshore wind farms, waste to energy solutions, and bioenergy plants. In 2017, its name changed from DONG Energy to Ørsted A/S as it divested from its oil & gas business and became a fully green energy company. The company operates in three business segments, namely, wind power, bioenergy & thermal power, and distribution & customer solutions. The company offers it renewable energy products in two segments namely, wind power and bioenergy & thermal power. It procured residues such as straw, wood pellets and wood chips from agricultural farms and forestry in their bioenergy plants, which help reduce carbon emissions, per year. Its subsidiaries are Gunfleet Sands Holding Ltd and Walney (UK) Offshore Windfarms Ltd.
5 interactive charts drawn from the Europe WInd Energy Market dataset — market size, regional splits and each segment breakdown. Open one to read its full data table and download it.
Europe WInd Energy Market By End Use
Europe WInd Energy Market By Connectivity
Europe WInd Energy Market By Power Rating
Europe WInd Energy Market By TYPE
Europe WInd Energy Market
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Historical performance and future projections (2020–2030, USD Billion)
Market Size (USD Million)
