Onshore Wind Power Market: By Component, By Installation Capacity, By Application and Region Forecast 2020-2031
Onshore wind power Market size was valued at US$ 1,178,034.5 million in 2024 and is projected to reach US$ 2,266,597.5 million by 2031, growing at a CAGR of 9.8% from 2025-2031. Moreover, the U.S. onshore wind power market is projected to grow significantly, reaching an estimated value of US$ 659,579.9 million by 2031. The market is focused on the generation of electricity using wind turbines installed on land. It encompasses the development, manufacturing, installation, operation, and maintenance of onshore wind turbines and associated infrastructure. This market is driven by the increasing demand for clean and renewable energy, advancements in turbine technology, and supportive government policies aimed at reducing carbon emissions.
The onshore wind power market continues to experience robust growth, supported by the global shift toward sustainable energy solutions. Countries across Europe, North America, and Asia-Pacific are investing heavily in onshore wind projects to meet renewable energy targets and reduce reliance on fossil fuels. Technological advancements have resulted in more efficient turbines with higher power capacities, reducing the levelized cost of energy (LCOE) and making onshore wind increasingly competitive with traditional energy sources. The market is also characterized by strong involvement from leading energy developers, turbine manufacturers, and governments committed to achieving net-zero carbon goals.
Based on the component:
One of the leading drivers anticipated to propel market growth, based on the component segmentation, is the turbine segment, with a particular emphasis on rotor blades. Rotor blades are considered the most critical component in wind turbine systems, playing a pivotal role in capturing wind energy and converting it into mechanical power. Manufacturers are increasingly focusing on enhancing blade design, material efficiency, and aerodynamic performance to increase energy output and reduce maintenance costs. The rapid advancement in lightweight composite materials and innovative blade structures has contributed significantly to this growth.
Additionally, rotor blades account for a substantial portion of the overall turbine cost, making them a key revenue generator for component manufacturers. The growing installation of larger wind turbines with extended blade lengths further strengthens the dominance of this segment. Longer rotor blades improve capacity factors and power generation efficiency, meeting the rising global demand for renewable energy. Emerging economies are investing heavily in wind energy infrastructure, prioritizing high-performance turbine components, especially rotor blades, to maximize return on investment. This trend is further fuelled by supportive government policies and increasing private investments in wind power projects. As a result, rotor blades are expected to remain at the forefront of market expansion, driven by continuous innovation and the global push for clean energy solutions.
Based on the installation capacity
Among the installation capacity segments, the above 5 MW category is anticipated to lead the market, driven by the increasing demand for large-scale, high-capacity wind turbines. This segment’s dominance is primarily attributed to the growing preference for offshore wind projects and large onshore installations that require higher power generation capabilities. Turbines with capacities above 5 MW offer enhanced efficiency, reduced operational costs per unit of electricity produced, and are well-suited for locations with stronger wind resources. Technological advancements have enabled manufacturers to develop robust and reliable turbines in this capacity range, meeting the needs of utility-scale projects.
Furthermore, the global push toward renewable energy targets and decarbonization has encouraged investments in large wind farms that can deliver substantial power output. Countries in Europe, North America, and Asia-Pacific are increasingly deploying turbines of above 5 MW capacity to optimize space utilization and achieve higher energy yields from fewer installations. The trend is further accelerated by supportive government policies, financial incentives, and continuous innovations in turbine design and materials. As nations move toward ambitious climate goals, the above 5 MW installation capacity is expected to remain the leading driver of market growth, supported by its ability to deliver efficient, large-scale power generation solutions.
Based on the application
Based on the application, the utility-scale segment is anticipated to lead the market, driven by the growing demand for large-scale renewable energy projects worldwide. Utility-scale wind installations are designed to generate electricity at a large capacity, typically feeding power directly into the grid to meet the needs of thousands of homes and businesses. The increasing emphasis on reducing carbon emissions, along with international commitments toward clean energy targets, has accelerated investments in utility-scale wind farms. These projects benefit from economies of scale, allowing for cost-effective energy production and long-term financial viability. Governments across regions are offering attractive incentives, tax benefits, and regulatory support to promote utility-scale developments, particularly in offshore and high-wind potential areas.
Additionally, advancements in turbine technology, including higher capacity turbines and improved blade designs, have made large wind installations more efficient and economically appealing. Utility-scale projects are also favored by energy providers and investors due to their predictable energy output and contribution toward energy security. As the demand for sustainable, grid-connected power continues to rise, the utility-scale segment is expected to dominate the market, supported by robust infrastructure development, public-private partnerships, and continuous technological innovation aimed at enhancing wind energy production.
Study Period
2025-2031Base Year
2023CAGR
9.8%Largest Market
EuropeFastest Growing Market
Asia-Pacific
One of the primary drivers of the onshore wind power market is the growing global focus on transitioning toward renewable energy sources. Governments around the world are increasingly setting ambitious targets for reducing carbon emissions and phasing out fossil fuels to combat climate change. In this effort, onshore wind power has become a cornerstone due to its relatively lower installation and operational costs, shorter construction timelines, and ability to generate significant electricity without carbon emissions. Policies such as feed-in tariffs, tax credits, renewable energy auctions, and mandatory renewable portfolio standards (RPS) are encouraging investment in onshore wind infrastructure. Additionally, international agreements like the Paris Climate Accord have prompted nations to accelerate their renewable energy adoption. The reliability and scalability of onshore wind power further enhance its attractiveness for countries looking to diversify their energy mix and reduce dependence on imported fuels. As nations continue to move toward carbon neutrality, the onshore wind power market is expected to witness sustained growth, with both developed and developing countries allocating larger portions of their energy budgets to wind-based projects.
Despite its advantages, the onshore wind power market faces restraints in the form of land use conflicts and environmental concerns. Wind turbines require large tracts of land, often located in remote or rural areas, leading to potential conflicts with local communities and other land use priorities such as agriculture, wildlife conservation, and tourism. The construction of onshore wind farms can disrupt local ecosystems, affecting bird and bat populations, and altering natural habitats. Moreover, noise pollution and visual impact remain common concerns among residents living near wind farms. The “Not In My Backyard” (NIMBY) phenomenon can result in project delays or cancellations due to local opposition. Regulatory requirements for environmental impact assessments and prolonged permitting processes further slowdown project development. In regions with high population density or strict environmental protections, finding suitable locations for onshore wind installations becomes increasingly difficult. These land use and environmental challenges pose significant hurdles for market expansion, requiring governments and developers to engage in careful site selection, community engagement, and mitigation planning.
A major opportunity for the onshore wind power market lies in the repowering of aging wind farms. Many first-generation onshore wind installations, built two or three decades ago, are now reaching the end of their operational life or are operating with outdated technology. Repowering involves replacing old turbines with new, more efficient models that have higher capacity, improved performance, and enhanced reliability. This process not only increases energy output from the same site but also optimizes land usage and reduces the need for additional environmental assessments. Repowering allows project developers to leverage existing grid connections, permits, and infrastructure, making it a cost-effective solution compared to developing new sites. Additionally, advancements in turbine technology such as taller towers, larger rotor diameters, and more efficient blades enable significantly higher energy yields. Governments in Europe and North America are introducing policies and incentives to support repowering initiatives, recognizing them as a fast-track method to boost renewable energy capacity without the complexities of greenfield projects. This trend presents a substantial growth opportunity for turbine manufacturers, project developers, and service providers in the onshore wind sector.
A key trend shaping the onshore wind power market is the increasing integration of digital technologies and predictive maintenance solutions. Wind turbine manufacturers and operators are adopting advanced analytics, IoT sensors, machine learning, and artificial intelligence (AI) to monitor turbine performance in real time and predict component failures before they occur. Predictive maintenance reduces unplanned downtime, lowers operational costs, and extends the life of wind assets. Data collected from sensors on turbine blades, gearboxes, and generators is analyzed to detect anomalies, allowing operators to schedule maintenance proactively rather than reactively. The rise of digital twins’ virtual replicas of physical turbines is enabling simulation and testing of turbine performance under different conditions. This digitalization trend is particularly important as wind farms grow in size and complexity, requiring sophisticated management tools to optimize performance and revenue.
Furthermore, remote monitoring and autonomous inspection technologies, including the use of drones and robotics, are becoming standard practices, helping operators manage large fleets more efficiently. As the onshore wind market becomes increasingly competitive, companies investing in digital transformation are likely to gain a strategic advantage through higher efficiency and lower lifecycle costs.
Report Benchmarks |
Details |
Report Study Period |
2025-2031 |
Market Size in 2024 |
US$ 1,178,034.5 million |
Market Size in 2031 |
US$ 2,266,597.5 million |
Market CAGR |
9.8% |
By Component |
|
By Installation Capacity |
|
By Application |
|
By Region |
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The onshore wind power market size was valued at US$ 1,178,034.5 million in 2024 and is projected to reach US$ 2,266,597.5 million by 2031, growing at a CAGR of 9.8% from 2025-2031.
The market is primarily driven by the increasing demand for large-scale renewable energy projects to meet global decarbonization goals.
A key trend observed is the rapid advancement in high-capacity wind turbine technology, enabling greater efficiency and energy output.
The Asia-Pacific region is emerging as a major growth driver due to significant investments in wind energy infrastructure and supportive government policies.
1.Executive Summary |
2.Global Onshore Wind Power Market Introduction |
2.1.Global Onshore Wind Power Market - Taxonomy |
2.2.Global Onshore Wind Power Market - Definitions |
2.2.1.Component |
2.2.2.Installation Capacity |
2.2.3.Application |
2.2.4.Region |
3.Global Onshore Wind Power Market Dynamics |
3.1. Drivers |
3.2. Restraints |
3.3. Opportunities/Unmet Needs of the Market |
3.4. Trends |
3.5. Product Landscape |
3.6. New Product Launches |
3.7. Impact of COVID 19 on Market |
4.Global Onshore Wind Power Market Analysis, 2020 - 2024 and Forecast 2025 - 2031 |
4.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
4.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) |
4.3. Market Opportunity Analysis |
5.Global Onshore Wind Power Market By Component, 2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
5.1. Turbine |
5.1.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
5.1.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.1.3. Market Opportunity Analysis |
5.2. Services |
5.2.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
5.2.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.2.3. Market Opportunity Analysis |
5.3. Others |
5.3.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
5.3.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.3.3. Market Opportunity Analysis |
6.Global Onshore Wind Power Market By Installation Capacity, 2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
6.1. Up to 2 MW |
6.1.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
6.1.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
6.1.3. Market Opportunity Analysis |
6.2. 2-5 MW |
6.2.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
6.2.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
6.2.3. Market Opportunity Analysis |
6.3. Above 5 MW |
6.3.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
6.3.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
6.3.3. Market Opportunity Analysis |
7.Global Onshore Wind Power Market By Application, 2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
7.1. Utility-Scale |
7.1.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
7.1.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.1.3. Market Opportunity Analysis |
7.2. Industrial |
7.2.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
7.2.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.2.3. Market Opportunity Analysis |
7.3. Commercial |
7.3.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
7.3.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.3.3. Market Opportunity Analysis |
7.4. Residential |
7.4.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
7.4.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.4.3. Market Opportunity Analysis |
8.Global Onshore Wind Power Market By Region, 2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
8.1. North America |
8.1.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
8.1.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
8.1.3. Market Opportunity Analysis |
8.2. Europe |
8.2.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
8.2.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
8.2.3. Market Opportunity Analysis |
8.3. Asia Pacific (APAC) |
8.3.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
8.3.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
8.3.3. Market Opportunity Analysis |
8.4. Middle East and Africa (MEA) |
8.4.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
8.4.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
8.4.3. Market Opportunity Analysis |
8.5. Latin America |
8.5.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
8.5.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
8.5.3. Market Opportunity Analysis |
9.North America Onshore Wind Power Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
9.1. Component Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
9.1.1.Turbine |
9.1.2.Services |
9.1.3.Others |
9.2. Installation Capacity Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
9.2.1.Up to 2 MW |
9.2.2.2-5 MW |
9.2.3.Above 5 MW |
9.3. Application Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
9.3.1.Utility-Scale |
9.3.2.Industrial |
9.3.3.Commercial |
9.3.4.Residential |
9.4. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
9.4.1.United States of America (USA) |
9.4.2.Canada |
10.Europe Onshore Wind Power Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
10.1. Component Analysis and Forecast by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
10.1.1.Turbine |
10.1.2.Services |
10.1.3.Others |
10.2. Installation Capacity Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
10.2.1.Up to 2 MW |
10.2.2.2-5 MW |
10.2.3.Above 5 MW |
10.3. Application Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
10.3.1.Utility-Scale |
10.3.2.Industrial |
10.3.3.Commercial |
10.3.4.Residential |
10.4. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
10.4.1.Germany |
10.4.2.France |
10.4.3.Italy |
10.4.4.United Kingdom (UK) |
10.4.5.Spain |
11.Asia Pacific (APAC) Onshore Wind Power Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
11.1. Component Analysis and Forecast by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
11.1.1.Turbine |
11.1.2.Services |
11.1.3.Others |
11.2. Installation Capacity Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
11.2.1.Up to 2 MW |
11.2.2.2-5 MW |
11.2.3.Above 5 MW |
11.3. Application Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
11.3.1.Utility-Scale |
11.3.2.Industrial |
11.3.3.Commercial |
11.3.4.Residential |
11.4. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
11.4.1.China |
11.4.2.India |
11.4.3.Australia and New Zealand (ANZ) |
11.4.4.Japan |
11.4.5.Rest of APAC |
12.Middle East and Africa (MEA) Onshore Wind Power Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
12.1. Component Analysis and Forecast by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
12.1.1.Turbine |
12.1.2.Services |
12.1.3.Others |
12.2. Installation Capacity Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
12.2.1.Up to 2 MW |
12.2.2.2-5 MW |
12.2.3.Above 5 MW |
12.3. Application Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
12.3.1.Utility-Scale |
12.3.2.Industrial |
12.3.3.Commercial |
12.3.4.Residential |
12.4. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
12.4.1.GCC Countries |
12.4.2.South Africa |
12.4.3.Rest of MEA |
13.Latin America Onshore Wind Power Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
13.1. Component Analysis and Forecast by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
13.1.1.Turbine |
13.1.2.Services |
13.1.3.Others |
13.2. Installation Capacity Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
13.2.1.Up to 2 MW |
13.2.2.2-5 MW |
13.2.3.Above 5 MW |
13.3. Application Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
13.3.1.Utility-Scale |
13.3.2.Industrial |
13.3.3.Commercial |
13.3.4.Residential |
13.4. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
13.4.1.Brazil |
13.4.2.Mexico |
13.4.3.Rest of LA |
14. Competition Landscape |
14.1. Market Player Profiles (Introduction, Brand/Product Sales, Financial Analysis, Product Offerings, Key Developments, Collaborations, M & A, Strategies, and SWOT Analysis) |
14.2.1.Vestas Wind Systems A/S (Denmark) |
14.2.2.Siemens Gamesa Renewable Energy, S.A. (Spain) |
14.2.3.GE Renewable Energy (United States) |
14.2.4.Goldwind (China) |
14.2.5.Nordex SE (Germany) |
14.2.6.Envision Energy (China) |
14.2.7.Suzlon Energy Limited (India) |
14.2.8.Enercon GmbH (Germany) |
14.2.9.Mingyang Smart Energy Group Co., Ltd. (China) |
14.2.10.Shanghai Electric Wind Power Group Co., Ltd. (China) |
15. Research Methodology |
16. Appendix and Abbreviations |
Key Market Players