Small Wind Turbine Market Size, Share & Trends Analysis Report By Product (Horizontal-Axis Wind Turbine, Vertical-Axis Wind Turbine), By Applications (Municipal and Government, Hospital, Airport), By End Use, By Region, and Segment Forecasts - 2035

Small Wind Turbine Market Overview

The global small wind turbine market size was valued at USD 115.49 million in 2025 and is projected to grow from USD 125.31 million in 2026 to USD 286.66 million by 2035, exhibiting a CAGR of 8.5% during the forecast period.

The small wind turbine market is moving toward decentralized and application-specific renewable power generation as municipalities, public facilities, healthcare institutions, transport infrastructure, and remote sites seek dependable low-carbon electricity. Horizontal-axis wind turbines currently account for approximately 67.4% of market demand because of their established aerodynamic performance, broader supplier availability, and suitability for locations with consistent wind resources. At the same time, vertical-axis wind turbines are gaining attention in constrained and built environments where changing wind direction, compact footprints, and lower starting wind speeds influence equipment selection. Hybridization is becoming increasingly important, with small wind systems being paired with solar generation, batteries, intelligent inverters, and digital monitoring platforms. These configurations can improve energy availability by as much as 40% compared with certain single-source renewable arrangements, strengthening the commercial case for distributed installations.

In the United States, small wind turbine adoption is increasingly connected with distributed energy resilience, public-sector decarbonization, microgrids, and energy-cost management. Municipal facilities, hospitals, airports, and other critical infrastructure operators are evaluating small wind systems where local wind conditions support consistent generation and where renewable assets can complement existing electricity infrastructure. The market is also benefiting from improved permanent-magnet generators, variable-speed operation, aerodynamic blade optimization, remote condition monitoring, and advanced power electronics. Commercial users can achieve operational benefits when turbine controls are coordinated with storage and demand-management systems, with some digitally optimized distributed-energy installations reporting peak-demand reductions of around 15%. The U.S. market is therefore shifting from isolated turbine procurement toward integrated energy solutions that combine generation, monitoring, storage, and long-term maintenance capabilities.

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Key Findings

• Leading Product Type: Horizontal-Axis Wind Turbine is expected to remain the leading product type, supported by an estimated 67.4% share in 2025, reflecting stronger aerodynamic efficiency, established manufacturing capabilities, and broader deployment experience across distributed wind projects.
• Leading Application: Municipal and Government installations are expected to lead supplied applications with an estimated 42.0% share, supported by public decarbonization programs, resilient power initiatives, and renewable-energy procurement across infrastructure facilities requiring dependable localized generation.
• Leading Region: Asia-Pacific is expected to remain the largest regional market with approximately 47.3% share, supported by distributed electrification needs, manufacturing capacity, renewable-energy policies, and expanding deployment of small turbines in remote and commercial applications.
• Fastest Growing Region: Asia-Pacific is projected to record the fastest regional expansion at approximately 9.84% CAGR, driven by rising decentralized electricity demand, hybrid renewable installations, manufacturing localization, and increasing deployment opportunities across emerging economies.
• Technology Trend: Hybrid wind-solar-storage systems are becoming a major technology direction, with selected hybrid configurations achieving up to 40% higher energy availability than single-source systems, improving reliability for microgrids, public infrastructure, and remote electricity applications.
• Market Driver: Demand for decentralized renewable electricity is the strongest growth driver, while digitally coordinated distributed-energy systems can reduce commercial peak-demand costs by approximately 15% in suitable operating environments.
• Competitive Landscape: Competition is increasingly centered on compact designs, digital monitoring, low-wind performance, and integrated renewable systems, while commercial development is expanding across turbines ranging from micro-scale units to systems approaching 100 kW.
• Future Outlook: The market is expected to progress toward intelligent distributed generation, with the global market projected to increase from USD 125.31 million in 2026 to USD 286.66 million by 2035 as hybrid and resilient power applications broaden.

Latest Trends

The most important trend in the small wind turbine market is the transition from standalone generation toward hybrid distributed-energy systems. Small wind turbines are increasingly combined with solar photovoltaic systems, battery storage, intelligent inverters, and energy-management software to address the intermittent nature of renewable generation. This approach is particularly relevant for municipal facilities, hospitals, airports, and remote infrastructure where electricity continuity has operational value. Hybrid configurations can increase energy availability by up to 40% in suitable wind and solar conditions compared with single-source systems. Manufacturers are also concentrating on variable-speed generators, permanent-magnet technologies, improved blade profiles, and low-noise mechanical architectures. These improvements are designed to increase energy capture at lower wind speeds while reducing maintenance requirements and making installations more compatible with populated environments. Remote monitoring is also becoming more common, allowing operators to track power output, vibration, operating temperatures, faults, and maintenance requirements without continuous on-site inspection.

A second major trend is the development of compact turbines designed for challenging wind environments, urban locations, and infrastructure with limited installation space. Vertical-Axis Wind Turbines are receiving greater engineering attention because they can accept wind from multiple directions and can operate under turbulent conditions without the same directional orientation requirements associated with conventional horizontal-axis systems. Recent research has evaluated more than 163,000 urban deployment scenarios to assess the energy and environmental performance of vertical-axis systems across different building configurations, demonstrating the growing importance of location-specific turbine selection. Horizontal-Axis Wind Turbines nevertheless continue to dominate mainstream small-scale deployment because of their mature designs and established performance characteristics. The technology landscape is therefore becoming more application-specific rather than being driven by a single universal turbine architecture. Manufacturers are increasingly optimizing rotor geometry, generator selection, control algorithms, structural materials, and power electronics according to local wind speed, turbulence, noise limits, and electricity-load requirements.

Market Dynamics

Driver

""Growing demand for resilient decentralized renewable electricity is accelerating small wind deployment.""

The strongest market driver is the increasing requirement for localized renewable electricity that can complement conventional grid supply and reduce exposure to power-price volatility. Small wind turbines can generate electricity close to the point of consumption, limiting dependence on long transmission networks and creating opportunities for municipalities, hospitals, airports, and other facilities with suitable wind conditions. The global market is forecast to advance at an 8.5% CAGR between 2026 and 2035, indicating sustained demand despite the relatively specialized nature of small-scale wind deployment.

Energy resilience is strengthening the commercial case for small turbines because critical facilities increasingly require multiple sources of electricity rather than relying entirely on centralized grids. Hospitals and government facilities can integrate small wind generation with battery storage and solar systems to improve continuity during grid disturbances. In suitable distributed-energy applications, advanced controls can also support peak-shaving strategies, with some commercial systems achieving energy-cost reductions of around 15% during high-demand periods. This combination of resilience, renewable generation, and energy management is broadening the role of small wind technology beyond conventional off-grid electrification.

Another driver is the continuing development of compact turbine systems capable of operating in variable wind environments. Improvements in blade aerodynamics, direct-drive generators, variable-speed controls, and power-conversion equipment allow manufacturers to target a wider range of wind conditions. Small wind turbines are consequently becoming more practical for distributed applications where large utility-scale turbines cannot be installed because of land, infrastructure, permitting, or visual constraints. The increasing integration of digital monitoring further strengthens the value proposition by allowing operators to identify abnormal performance and maintenance requirements before failures become operationally significant.

Restraint

""High site-specific costs and variable wind conditions continue to restrict wider small turbine adoption.""

The primary restraint is the highly site-specific economics of small wind turbine deployment. Unlike large wind projects that can justify extensive resource assessment and infrastructure development, smaller installations often have limited project budgets, making unsuitable siting particularly costly. Turbine performance can vary substantially when equipment is installed in areas with turbulence, obstacles, inadequate tower height, or insufficient average wind speeds. Recent technical assessments have emphasized that real-world small turbine output can fall below catalog expectations when local wind resources and installation conditions are not properly matched.

Competition from other distributed renewable technologies also limits adoption. Solar photovoltaic systems generally benefit from straightforward installation, declining equipment costs, modular scalability, and broad installer availability. For smaller electricity loads, especially where solar exposure is strong, customers may perceive photovoltaic systems as easier to deploy than wind turbines. This competitive pressure is particularly important in the sub-10 kW segment, where project economics depend heavily on local electricity prices, annual wind availability, maintenance requirements, and permitting expenses.

Maintenance and permitting requirements can further affect project timelines. Small turbines require structural inspections, electrical checks, blade assessment, generator servicing, and monitoring of mechanical components. In some locations, zoning rules, setback requirements, noise restrictions, visual considerations, and grid-interconnection procedures can increase development complexity. These factors can make the total project cycle substantially longer than the equipment installation itself. As a result, manufacturers are focusing on quieter operation, simplified mechanical structures, improved reliability, and remote diagnostics to reduce the lifetime burden associated with small wind installations.

Opportunity

""Hybrid renewable systems and distributed infrastructure create significant new deployment opportunities.""

The expansion of hybrid renewable systems represents one of the strongest opportunities for the small wind turbine market. Combining wind generation with solar photovoltaic capacity and battery storage allows operators to capture complementary renewable resources across different times of day and weather conditions. Wind generation can contribute electricity during periods when solar production is limited, while batteries can store surplus output and release it according to demand. Selected hybrid systems have demonstrated energy-availability improvements of up to 40%, creating a stronger proposition for critical and remote applications.

Municipal and government facilities represent an important opportunity because public-sector organizations are increasingly evaluating localized renewable assets for energy resilience and emissions management. Small turbines can be integrated into public buildings, infrastructure compounds, water facilities, transport-support sites, and other locations where sufficient wind resources are available. Government procurement programs can also provide a pathway for certified turbine suppliers to establish longer-term project pipelines. The opportunity is particularly relevant where renewable generation is combined with battery storage, smart controls, and existing solar infrastructure.

Hospitals and airports provide another specialized growth avenue because these facilities operate continuously and require reliable electricity for critical equipment, lighting, ventilation, communications, security, and other essential services. Small wind systems can contribute to on-site generation when supported by appropriate resource assessment and engineering design. Airports also present opportunities for carefully selected turbine technologies where safety, height, turbulence, electromagnetic compatibility, and aviation requirements are fully addressed. The development of compact, low-noise, digitally monitored systems could therefore increase the addressable market for infrastructure applications where conventional large wind installations are impractical.

Challenge

""Balancing turbine performance, permitting, reliability, and economics across diverse sites remains a major challenge.""

The principal challenge is achieving consistent technical and financial performance across highly diverse installation environments. Small wind turbines are particularly sensitive to local wind speed, turbulence intensity, tower height, surrounding structures, and seasonal wind patterns. A turbine that performs effectively at one site may produce substantially different results at another site even when the nominal equipment rating is identical. This makes accurate wind assessment and site engineering essential to project success and increases the importance of professional installation expertise.

Urban and built-environment installations create additional engineering challenges because buildings can generate turbulent airflow that reduces energy capture and increases mechanical loading. Vertical-Axis Wind Turbines offer advantages in multidirectional airflow, but they continue to face efficiency and performance limitations compared with mature horizontal-axis configurations. Research evaluating urban deployment has shown that turbine energy and emissions performance can vary widely according to building geometry and location, reinforcing the need for detailed site-specific assessment before commercial deployment.

Noise, visual impact, structural loading, electrical safety, and maintenance access also influence project feasibility. These factors are particularly important for hospitals, municipal facilities, and airports, where equipment must operate without interfering with sensitive activities. Manufacturers therefore need to balance aerodynamic performance with acoustic characteristics, structural durability, serviceability, and compliance requirements. The challenge becomes more pronounced when turbines are installed in locations with constrained space or complex surrounding infrastructure.

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Segmentation Analysis

By Types

Horizontal-Axis Wind Turbine: Horizontal-Axis Wind Turbine is expected to maintain the largest position in the small wind turbine market, accounting for approximately 67.4% market share in 2025. The dominance of this type is supported by higher aerodynamic efficiency, established manufacturing processes, improved rotor designs, and wider acceptance across municipal, government, hospital, and airport applications. These turbines continue to benefit from technological improvements in blade materials, direct-drive generators, and intelligent control systems that enhance operational performance. Manufacturers are increasingly focusing on compact horizontal-axis systems with improved low-wind-speed capability, reduced maintenance requirements, and digital monitoring features. The segment is expected to remain the preferred choice for locations requiring consistent electricity generation and long operational life.

Vertical-Axis Wind Turbine: Vertical-Axis Wind Turbine is gaining adoption in locations where changing wind directions, compact installation areas, and urban operating conditions influence equipment selection. This type is estimated to represent approximately 32.6% market share during the forecast period. Vertical-axis designs are receiving attention because they can operate under multidirectional airflow conditions and require less directional alignment compared with traditional systems. Increasing research into urban renewable generation, noise reduction, lightweight materials, and improved generator efficiency is supporting adoption. These turbines are becoming increasingly suitable for applications where space limitations, architectural integration, and distributed electricity generation requirements create demand for flexible renewable-energy solutions.

By Applications

Municipal and Government: Municipal and Government applications are expected to dominate small wind turbine demand with approximately 42.0% market share. Public-sector organizations are increasingly adopting distributed renewable-energy systems to improve energy resilience, reduce electricity dependence, and support sustainability objectives. Small wind turbines are being evaluated for public buildings, infrastructure facilities, administrative complexes, and community energy projects where suitable wind resources are available. Integration with solar systems, battery storage, and smart energy-management platforms is increasing the value of these installations. Government renewable-energy programs, clean-energy targets, and investments in decentralized electricity infrastructure are expected to continue supporting demand across this application segment.

Hospital: Hospital applications are projected to account for approximately 31.5% market share as healthcare facilities prioritize reliable electricity supply, operational continuity, and energy-cost optimization. Hospitals require uninterrupted power for medical equipment, lighting, ventilation systems, communications, and critical infrastructure. Small wind turbines combined with storage and intelligent controls can support energy resilience strategies, particularly in regions where renewable resources are favorable. Growing emphasis on low-carbon healthcare infrastructure and sustainable building practices is encouraging healthcare operators to evaluate distributed renewable systems. Advances in low-noise turbine technology are also improving suitability for sensitive environments where operational disturbance must be minimized.

Airport: Airport applications are expected to capture approximately 26.5% market share during the forecast period. Airports are exploring small wind turbine systems as part of broader sustainability initiatives aimed at reducing operational emissions and improving renewable-energy utilization. These installations can support airport facilities, lighting systems, maintenance buildings, and auxiliary infrastructure when supported by appropriate wind assessment and safety evaluations. Increasing adoption of digital monitoring systems, compact turbine designs, and hybrid renewable configurations is creating new opportunities for airport deployment. However, aviation safety requirements, electromagnetic considerations, and strict infrastructure standards continue to influence technology selection and project planning.

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Regional Outlook

Asia-Pacific: Asia-Pacific is expected to remain the leading region in the small wind turbine market, accounting for approximately 47.3% of global market share. The region’s leadership is supported by expanding renewable-energy programs, growing electricity demand, manufacturing capabilities, and increasing interest in decentralized power generation. Countries across the region are focusing on distributed renewable solutions to improve energy accessibility and reduce dependence on conventional power sources. Small wind turbines are gaining attention in remote areas, industrial facilities, agricultural locations, and public infrastructure projects where grid expansion can be challenging. The region is also benefiting from strong component manufacturing ecosystems that support cost-effective turbine production and technology development.

Asia-Pacific is projected to register the fastest growth rate at approximately 9.84% CAGR during the forecast period. Rising investments in hybrid renewable systems, battery-integrated energy solutions, and smart-grid technologies are creating favorable market conditions. China, India, Japan, and Southeast Asian economies are increasingly evaluating small wind systems for rural electrification, microgrids, and infrastructure resilience. The region’s expanding renewable manufacturing base, improving technical expertise, and government support for clean-energy deployment are expected to strengthen market growth. Increasing adoption of digital monitoring, advanced generators, and compact turbine designs will further support regional expansion through 2035.

North America: North America is expected to hold approximately 24.6% share of the global small wind turbine market. The region benefits from strong demand for distributed renewable-energy systems, energy resilience solutions, and sustainable infrastructure development. The United States represents a significant portion of regional demand due to growing interest from municipalities, government facilities, hospitals, and commercial users seeking alternatives to centralized electricity dependence. Small wind turbines are increasingly integrated with solar systems, batteries, and energy-management platforms to improve reliability and optimize energy consumption. Supportive clean-energy initiatives and increasing awareness of decentralized power generation continue to influence regional adoption.

The North American market is also experiencing technological advancement through improved turbine efficiency, remote monitoring capabilities, and low-maintenance designs. Developers are focusing on systems suitable for community-scale projects, farms, remote facilities, and critical infrastructure. Although competition from solar energy remains significant, small wind turbines maintain opportunities in areas with strong wind resources and applications requiring diversified renewable generation. Growing interest in microgrids and energy independence is expected to support steady market expansion throughout the forecast period.

Europe: Europe is projected to account for approximately 18.2% market share in the small wind turbine market. The region’s demand is supported by strong environmental policies, renewable-energy targets, and increasing focus on decentralized electricity generation. European countries are emphasizing clean-energy integration across public infrastructure, commercial buildings, and rural communities. Small wind turbines are being considered as complementary renewable assets alongside solar photovoltaic systems and battery storage solutions. The presence of established renewable-energy industries and advanced engineering capabilities provides a supportive environment for technology innovation.

European manufacturers are increasingly focusing on efficient, quiet, and digitally connected small wind turbine systems that can operate effectively in diverse environments. Demand is growing for compact renewable technologies suitable for farms, community energy projects, and public facilities. Regulatory requirements related to noise, landscape impact, and installation standards continue to shape product development. The region’s commitment to carbon reduction and energy security is expected to maintain long-term opportunities for small wind turbine deployment.

Latin America: Latin America is expected to represent approximately 5.4% of the global small wind turbine market. The region is witnessing increasing interest in decentralized renewable-energy systems due to rural electrification requirements, remote infrastructure needs, and efforts to diversify energy sources. Small wind turbines are being evaluated for isolated communities, agricultural operations, and hybrid renewable projects where grid connectivity remains limited or expensive. Favorable wind resources in selected areas create opportunities for technology adoption.

Market development in Latin America is supported by increasing awareness of renewable technologies and growing investments in sustainable infrastructure. Hybrid wind-solar-storage solutions are becoming more attractive because they can provide reliable electricity in locations with variable renewable resources. However, financing availability, technical support networks, and installation expertise remain important factors influencing adoption. Continued development of local partnerships and renewable-energy programs is expected to improve regional growth prospects.

Middle East & Africa: Middle East & Africa is estimated to account for approximately 4.5% market share of the small wind turbine market. The region is exploring distributed renewable solutions to address electricity-access challenges, support remote facilities, and improve energy resilience. Small wind turbines are particularly relevant for isolated locations, telecommunications infrastructure, agricultural operations, and community energy projects where reliable electricity supply is required.

The region presents long-term opportunities due to increasing renewable-energy investments and demand for off-grid power solutions. Integration of small wind turbines with solar generation and battery storage is gaining attention because combined systems can provide more stable electricity availability. Although market adoption is influenced by financing challenges, environmental conditions, and limited service infrastructure, improvements in technology affordability and local renewable-energy initiatives are expected to support gradual expansion.

List of Top Small Wind Turbine Companies

• Ghrepower Green Energy
• Primus Wind Power
• ZK Energy
• Bergey Windpower
• Nanjing Oulu
• Ningbo WinPower
• ENESSERE SRL
• Halo Energy
• Eocycle
• S&W Energy Systems
• Kliux Energies
• HY Energy
• Enair Energy
• SD Wind Energy
• ENERLICE
• Aria srl
• Ryse Energy
• Solid Wind Power A/S
• THY WindPower
• Viking Wind
• Ecotricity Group

Top 2 Companies Market Share

Ghrepower Green Energy: Ghrepower Green Energy is one of the prominent companies in the small wind turbine market, focusing on compact renewable-energy solutions for distributed electricity generation. The company has developed a broad portfolio of small wind systems designed for residential, commercial, municipal, and remote applications. Its product development strategy emphasizes improved turbine efficiency, lightweight structures, and reliable operation in variable wind conditions. 

Bergey Windpower: Bergey Windpower is a recognized participant in the small wind turbine industry, specializing in durable small-scale wind energy systems for distributed generation applications. The company focuses on high-reliability turbine designs, long operational life, and solutions suitable for residential, commercial, agricultural, and institutional users. Its product portfolio supports applications where dependable renewable electricity is required, including remote facilities and energy-resilience projects. 

Investment Analysis

The small wind turbine market is attracting investment toward advanced turbine engineering, hybrid renewable systems, digital monitoring platforms, and localized manufacturing capabilities. Companies are increasingly allocating resources toward improving energy capture efficiency, reducing maintenance requirements, and developing turbines suitable for low and variable wind-speed environments. Investment activity is particularly focused on permanent-magnet generators, smart controllers, lightweight composite materials, and remote diagnostic technologies. The growing adoption of distributed energy systems is encouraging manufacturers to develop complete solutions that combine turbines, storage units, energy-management software, and grid-support capabilities. With the market projected to grow at an 8.5% CAGR between 2026 and 2035, investments are expected to increase in product innovation and regional manufacturing expansion.

Regional investment opportunities are expanding as governments, infrastructure operators, and private organizations seek reliable renewable electricity alternatives. Asia-Pacific, holding approximately 47.3% market share, continues to attract investment due to manufacturing strength, renewable-energy expansion, and increasing demand for decentralized power solutions. North America and Europe are also witnessing investment growth due to energy resilience programs, sustainability targets, and demand from municipal, hospital, and airport applications. Investors are increasingly evaluating companies that provide integrated renewable-energy solutions rather than standalone turbine equipment. Future funding is expected to focus on scalable designs, automated monitoring systems, service networks, and technologies that improve the economic performance of small wind installations.

New Product Development

New product development in the small wind turbine market is focused on improving efficiency, reducing installation complexity, and expanding applications across urban and infrastructure environments. Manufacturers are introducing turbines with optimized blade designs, improved generator technologies, and advanced electronic control systems to maximize energy output under changing wind conditions. Horizontal-Axis Wind Turbines continue to receive significant engineering attention due to their dominant position of approximately 67.4% market share, while Vertical-Axis Wind Turbines are being developed for locations requiring compact designs and multidirectional wind operation. Product innovation is increasingly centered on hybrid compatibility, allowing turbines to operate alongside solar systems and battery storage platforms.

Companies are also developing digitally connected turbine solutions equipped with remote monitoring, predictive maintenance capabilities, and cloud-based performance analysis. These technologies allow operators to track energy production, identify operational issues, and optimize maintenance schedules. Product improvements are particularly important for municipal facilities, hospitals, and airports where reliability and continuous operation are critical. Future product development is expected to emphasize quieter operation, improved durability, lower lifecycle costs, and easier installation processes. The integration of artificial intelligence-based monitoring and automated control systems is expected to further enhance the competitiveness of next-generation small wind turbines.

Five Recent Developments

• March 2026 – Advanced Hybrid Wind System Expansion: Manufacturers increased development of hybrid small wind turbine solutions integrating wind generation, solar power, and battery storage to improve renewable-energy availability by up to 40% in suitable operating environments.
• November 2025 – Smart Monitoring Technology Advancement: Small wind turbine companies introduced enhanced digital monitoring platforms using real-time performance tracking, predictive maintenance features, and remote diagnostics to improve operational reliability and reduce service requirements.
• August 2025 – Compact Turbine Design Improvements: Industry participants expanded research into smaller turbine architectures with improved low-wind-speed performance, optimized blade structures, and reduced installation requirements for commercial and infrastructure applications.
• February 2025 – Hybrid Infrastructure Deployment Growth: Renewable-energy developers increased deployment of integrated wind-storage solutions for municipal facilities, remote sites, and critical infrastructure requiring improved electricity resilience.
• June 2024 – Generator Efficiency Enhancement: Manufacturers advanced permanent-magnet generator technologies and variable-speed control systems to improve energy conversion efficiency and support wider adoption of small wind turbine systems.

Report Coverage

The small wind turbine market report provides comprehensive analysis of industry development, technology trends, market segmentation, regional performance, competitive strategies, investment patterns, and future growth opportunities. The study evaluates Horizontal-Axis Wind Turbine and Vertical-Axis Wind Turbine segments while analyzing key applications including Municipal and Government, Hospital, and Airport sectors. Market dynamics are assessed through major drivers, restraints, opportunities, and challenges influencing adoption across different regions. The report also examines emerging innovations such as hybrid renewable systems, smart monitoring technologies, and advanced turbine designs shaping future industry growth.

The report coverage includes regional analysis across Asia-Pacific, North America, Europe, Latin America, and Middle East & Africa, with combined regional shares representing 100% of the global small wind turbine market. Asia-Pacific leads with approximately 47.3% share, followed by North America at 24.6%, Europe at 18.2%, Latin America at 5.4%, and Middle East & Africa at 4.5%. The analysis also reviews competitive developments involving companies such as Ghrepower Green Energy, Primus Wind Power, ZK Energy, Bergey Windpower, Eocycle, Ryse Energy, Solid Wind Power A/S, Viking Wind, and other key industry participants.