Wind Turbine Prices 2026: Chinese wind turbine manufacturers are challenging Vestas, Siemens Gamesa and GE Vernova with equipment prices as low as $400,000 per MW in some emerging markets, compared with around $1 million-$1.2 million per MW for Western onshore turbines in Europe and the United States, according to Wood Mackenzie.
The enormous price difference is reshaping global wind turbine procurement. But developers cannot simply compare the headline price per MW. Transportation, foundations, installation, grid connection, financing, warranty, service, turbine availability and energy production can substantially change the lifetime economics of a wind farm.
Wood Mackenzie’s wind turbine cost analysis shows that Western onshore turbine prices have increased about 45 percent since 2020, while China’s massive manufacturing scale has created a significantly lower equipment-cost base.
Chinese Wind Turbine Prices Fall as Low as $400,000 per MW
Chinese manufacturers have fundamentally changed the global turbine price benchmark.
Chinese OEMs have offered turbines for approximately $400,000 per MW in some emerging markets, less than half the $1 million-$1.2 million/MW benchmark reported for Western equipment.
Chinese domestic prices have already experienced an extraordinary period of competition. Onshore turbine prices including towers fell to approximately $250,000 per MW in Q2 2024, before recovering almost 25 percent from that low.
Wood Mackenzie expects Chinese onshore wind costs to decline at approximately 3 percent annually through 2027.
China’s cost advantage is supported by its enormous domestic supply chain covering steel, blades, generators, bearings, castings, converters and other major turbine components.
Scale is another critical advantage.
Global wind OEMs mechanically installed 178 GW across 28,395 turbines in 2025, according to GWEC data. China represented approximately 67 percent of global turbine installations.
Goldwind, Envision and Chinese OEMs Dominate Manufacturing Scale
The five largest turbine suppliers by installed capacity in 2025 were all Chinese.
Goldwind led with 29.7 GW, followed by Envision with 21.8 GW, Windey with 19.8 GW, Mingyang with 18.6 GW and SANY with 15.1 GW.
Together, these five manufacturers installed 104.9 GW.
Chinese manufacturers installed 18,291 turbines domestically and controlled 99.96 percent of China’s home market.
This manufacturing volume gives Chinese suppliers significant opportunities to spread R&D, engineering, procurement and factory costs across a much larger production base.
Their advantage is also starting to move overseas. International orders for Chinese OEMs increased 66 percent in 2025, while global firm turbine orders outside China reached a record 65 GW.
Vestas Uses Scale and Service to Counter Chinese Pricing
Vestas remains one of the strongest Western competitors because its proposition extends beyond the initial turbine purchase.
The company had installed more than 201 GW of wind capacity globally by the end of 2025.
Vestas reported €5.2 billion of turbine order intake representing 4,504 MW in Q1 2026, followed by another €3.4 billion of orders in Q2.
Dividing the Q1 order value by capacity produces an indicative figure of approximately €1.15 million per MW. However, this should not be interpreted as a standard Vestas turbine price because individual contracts have different turbine configurations, commercial conditions and service components.
Vestas’ combined turbine and service backlog reached €76.9 billion at the end of June 2026.
2026 investor and turbine-order updates from Vestas highlight an important part of the Western OEM proposition: developers are purchasing not only turbines but also access to an established international service network, operating data, spare parts and long-term maintenance capabilities.
Siemens Gamesa Bets on 15 MW Offshore Turbines
Siemens Gamesa illustrates another reason why price-per-MW comparisons can be misleading: turbine size.
Its SG 15-236 offshore wind turbine has a nominal capacity of 15 MW, rising to 15.5 MW with Power Boost, and features a 236-meter rotor.
Serial production is scheduled for 2028.
The Siemens Gamesa SG 15-236 demonstrates how larger turbines can change project economics.
A hypothetical 1 GW offshore wind farm would require approximately 100 turbines using 10 MW machines, around 67 turbines at 15 MW, or about 54 turbines using 18.5 MW machines.
Reducing turbine numbers can potentially lower the number of foundations, array-cable connections, installation operations and maintenance locations.
However, larger turbines require bigger blades, nacelles, towers, cranes, ports and installation vessels. Developers therefore need to calculate total project economics rather than simply purchasing the largest turbine available.
GE Vernova Uses India Manufacturing to Lower Delivered Costs
GE Vernova is using localization as another response to the changing turbine-price environment.
In India, GE Vernova agreed to supply 28 units of its 3.8 MW-154m turbine for Powerica’s 100 MW Botad Wind Farm in Gujarat.
It subsequently announced a 163.4 MW order from Enfinity Global for the Fatehgarh Wind Farm in Rajasthan involving 43 turbines from the same platform.
The turbines will be supported by GE Vernova’s Pune manufacturing operation, which is expected to provide up to 1.5 GW of annual production capacity at full scale.
GE Vernova’s India wind manufacturing strategy demonstrates how localization can influence the real delivered price of turbines.
Local manufacturing can reduce logistics exposure, improve access to components and help projects meet domestic-content requirements.
Western OEMs Still Lead Outside China
Chinese manufacturers dominate global installation rankings largely because of China’s enormous domestic wind market.
Outside mainland China, the competitive picture is very different.
Vestas led installations in 2025 with 12.9 GW, followed by Nordex with 7.7 GW, GE Vernova with 5.8 GW, Siemens Gamesa with 5.4 GW and China’s Envision with 4.2 GW.
This distinction is important because expanding internationally requires more than shipping inexpensive turbines.
Manufacturers need local service teams, spare-parts inventories, certifications, warranty capabilities and relationships with developers and lenders.
As Chinese OEMs establish more overseas operations, however, Western manufacturers could face greater price competition in markets outside China.
Wind Turbines Are Getting Much Larger
Increasing turbine size is simultaneously changing the industry’s cost structure.
The average onshore turbine installed during 2025 reached 6.16 MW, while the average offshore turbine reached 10.31 MW, according to GWEC.
Larger turbines can potentially reduce project costs because developers need fewer machines to build the same wind farm capacity.
Rotor diameter is equally important. Larger rotors sweep a greater area and can increase electricity generation, particularly at moderate-wind sites.
Developers therefore increasingly compare MW rating, rotor diameter, hub height, capacity factor and annual energy production rather than concentrating exclusively on turbine price.
$400,000/MW vs $1.2 Million/MW Does Not Tell the Whole Story
A Chinese turbine offered at $400,000/MW may appear dramatically cheaper than Western equipment costing $1 million-$1.2 million/MW.
But factory price is only the starting point.
Developers must add transportation, cranes, roads, foundations, electrical infrastructure, grid connection, installation and financing. Long-term calculations must also include availability, warranty, service, maintenance and major component replacement.
A cheaper turbine could lose part of its initial advantage if logistics or downtime costs are higher. Conversely, a more expensive turbine could justify its premium through stronger energy production, availability or service support.
The critical metric is therefore increasingly lifetime cost per MWh rather than turbine purchase price per MW.
Wind Turbine Price Outlook for 2027-2030
Wind turbine competition is likely to intensify through 2030 as Chinese OEMs expand internationally and Western manufacturers respond through larger turbines, localization, technology and service.
Chinese onshore costs are expected to decline by around 3 percent annually through 2027, while Western turbine costs could gradually ease after the elevated pricing environment of recent years.
The bigger opportunity, however, may come from productivity rather than dramatic reductions in equipment prices.
Larger rotors can increase energy capture, higher-capacity turbines can reduce turbine numbers, local manufacturing can lower logistics exposure and digital maintenance can improve availability.
For developers comparing Vestas, Siemens Gamesa, GE Vernova, Goldwind, Envision, Mingyang, Windey and SANY, the cheapest turbine will therefore not necessarily produce the cheapest electricity.
The winning turbine will be the one that combines competitive equipment cost, high energy production, strong availability, reliable service and acceptable financing risk to deliver the lowest lifetime cost of wind power.
SHAFANA FAZAL
