Airloom designs utility-scale wind turbines with mass-manufacturable components to reduce balance of plant costs and simplify installation. This enables efficient wind energy generation in a wider range of sites, including those with lower wind speeds or height restrictions.
Funding
$7.5M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
LCFounders
Product
Problem
Conventional wind turbines are optimized for high-wind environments and rely on large, specialized components that increase balance of plant costs and limit deployment in sites with height restrictions or challenging access. This reliance on bespoke manufacturing and complex installation processes hinders the widespread adoption of wind energy in diverse geographical locations.
Solution
Airloom is developing utility-scale wind turbines engineered for low-cost, resilient energy production, specifically designed to overcome the limitations of traditional turbine designs. Our approach leverages mass-manufacturable components, significantly reducing balance of plant expenses and simplifying installation procedures. This enables efficient energy generation even in sites with lower wind speeds or stringent height restrictions, such as near airports or military installations. The modular design facilitates easier transportation and assembly, making deployment feasible in remote or infrastructure-limited areas. Airloom's technology aims to broaden the applicability of wind power by optimizing for a wider range of site conditions and reducing the logistical complexities associated with turbine deployment.
Target Audience
The primary target audience includes utility companies, independent power producers, and project developers seeking to deploy wind energy solutions in a wider array of geographical locations and site conditions.
Features
- Utility-scale wind turbine design focused on mass-manufacturable components.
- Reduced balance of plant costs through simplified site infrastructure requirements (e.g., less road construction, reduced electrical collection cabling).
- Simplified transit, installation, and maintenance due to smaller, lower-mass components.
- Optimized performance for low-wind sites with average wind speeds of 5-7 meters/second.
- Suitable for deployment in locations with height restrictions, such as near airports and military installations.
- Adaptable for sites with difficult access and minimal existing infrastructure, including mountainous regions and islands.
- Reduced visual signature, making it viable for locations with aesthetic considerations.
- Kilowatt-scale prototype validated the core approach and architecture in 2023.
- Pilot design engineering for scale and robustness completed in 2024.