The B2B platform for the best purchasing descision. Identify and compare relevant B2B manufacturers, suppliers and retailers
Filter
Locations
Result types
Type of company
Select company type
Industries
Select industry
Company status
Select company status preset
Number of employees
Min.
Max.
Founding year
Lock keywords
Exclude keywords
Optional keywords
Beaverton, United States
1-10 Employees
2013
We are currently in the testing stage, improving our TED’s design.
+
Featured
WHY AIRBORNE WIND ENERGY?
... develops cost-effective airborne wind energy systems (AWES) that access more consistent, reliable winds than traditional wind turbines. Learn more. ...
Voss, Norway
11-50 Employees
2008
Kitemill’s solution consists of a kite connected by a tether to a ground based generator. Torben Baun from Vestas strengthens Kitemill's innovation power.
+
Featured
Kitemill - Taking windpower to new heights
... Based in Voss, Norway since 2008 – Kitemill is a world leading company in developing groundbreaking airborne wind energy technology. Our technology has the potential of completely changing the way we utilize wind power today. ...
Delft, Netherlands
11-50 Employees
2016
We are an international team with a multi-disciplinary background. We are investing in Kitepower because it has developed an interesting technology that can have a significant impact on CO2 reduction in remote areas and locations requiring temporary power by offering a fossil-free alternative to polluting diesel generators. We are excited about the years ahead and will support Kitepower in the further commercialisation of the technology throughout. Kitepower is a leading start-up in Airborne Wind Energy (AWE), developing innovative and cost-effective alternatives to existing wind turbines. Kitepower’s patented technology is a game-changer in the wind energy sector: Kitepower uses up to 90% less material with the potential of being twice as efficient than conventional wind turbines with the same power output. Kitepower’s leading product, the Kitepower Falcon, is specially designed to allow remote communities worldwide to mitigate dependency on polluting and expensive diesel supply. Kitepower is a registered trademark of Enevate BV. Kitepower was founded by Johannes Peschel and Roland Schmehl in January 2016 as a result of the work done by TU Delft’s pioneering kite power research group of the former astronaut Wubbo Ockels.
+
Featured
Kitepower Airborne Wind Energy - Plug & Play Mobile Wind Energy
... Kitepower is a leading start-up in Airborne Wind Energy. We develop innovative cost-effective alternatives to existing wind-power turbines. ...
Delft, Netherlands
11-50 Employees
2015
AWESCO is an interdisciplinary doctoral training network addressing key technical challenges of wind energy generation using tethered wings, of both rigid and flexible membrane type. AWESCO employs 16 PhD fellows at 8 academic and 4 industrial partners across Europe. The TU Delft is the oldest and largest technical university of the Netherlands. It is the highest ranked university of the country. Chalmers is a major technical university in Scandinavia, hosting eight Areas of Advance and is the largest recipient of the Energy Initiative in Sweden. Since 2016 Thomson Reuters ranks it as Europe’s most innovative university. The TU Munich (TUM) was ranked as the best German university by the 2020 QS World University Ranking. Established in 1972, the University of Limerick is an independent, internationally focussed university with over 13,000 students and 1,500 staff.
+
Featured
Airborne Wind Energy
... AWESCO - Airborne Wind Energy System Modelling, Control and ...
Stroud, United Kingdom
11-50 Employees
2016
The trigeminovascular system is a physiological network involving the trigeminal nerve, cranial blood vessels, brain stem, thalamus, and cortex. The process begins with dilation of meningeal arteries, leading to activation of neurons in the trigeminal ganglion, which propagate nociceptive signals to the brain stem. This is the humanising process that fuzzy logic can bring to computing. Moral distress has been broadly described as the distress which is connected to a moral event or ethical issue. We offer a complete service, from initial consultation, through to script writing, animation and promotion of the finalised content.
+
Featured
eWind Solutions: Working towards bringing affordable airborne wind energy to rural communities
... Solutions: Working towards bringing affordable airborne wind energy to rural communities - Sci ...
Bosschenhoofd, Netherlands
11-50 Employees
2015
We will continue our mission of making aviation more sustainable. Our dedicated team of inspired specialists in engineering, manufacturing, electronics and operations has been taking the lead in this field for years. Because not only is innovation in our DNA, we are pragmatists and problem-solvers at heart. AS9100 (also known as EN9100) is a quality management system based on ISO 9001 and focuses on the quality of aerospace. Every day, Orange Aerospace's manufacturing employees build the future of aerospace. Infrastructure is the foundation of any company; it’s the basic structure that all companies are built on. Orange Aerospace designs, develops, tests and manufactures prototypes and one-off, manned and unmanned aerial vehicles. One of the great features of custom-built aircraft is that it evolves with the market.
+
Featured
Projects | Orange Aerospace
... AMPYX Power: airborne wind energy ...
Leganés, Spain
51-100 Employees
2020
We offer a 4-year Pre-Doctoral contract position in the Equipo de Propulsión Espacial y Plasmas (EP2).
+
Featured
Jorge González García – PhD in Aerospace Engineering UC3M
... Nationality: Spanish PhD Thesis Design, manufacturing and testing of a Fly-Actuated yo-yo Airborne Wind Energy Demonstrator Supervisors Gonzalo Sánchez Arriaga (UC3M) & David Santos Martín… ...
Hamburg, Germany
101-250 Employees
We are engineers, sailmakers, mechanics, software developers, service technicians and project engineers, and many of us are kiters or sailors in their free time. As one, we develop, design, manufacture, market and service the Airborne Wind Energy Systems that make use of this free, clean, and potent energy source. We are the first company in the world with Airborne Wind Energy Systems that are ready to order. Together, we deliver Green Technology that’s Made in Germany. We share a motivation to provide clean energy solutions that accelerate the global shift to more renewables. The ground station’s assembly takes place at our production site in Seevetal near Hamburg. Now, we offer an airborne system that revolutionizes how the wind is harnessed and converted into electricity. We believe it is the key that will unlock 100% renewables around the clock.
+
Featured
Wind Power: Unleashing its True Potential | SkySails Power
... Revolutionary Airborne Wind Energy System in Operation in the Republic of ...
Vejstrup, Denmark
251-500 Employees
1989
In other words, we are able to serve you and service your operation no matter when and where. We are committed to persistent innovation, improvement and unmatched quality in order to remain market leaders. We deliver way beyond products all over the world. We are experts in intelligent braking solutions for the wind turbine market. We provide power transmission solutions for vertical lift applications. Two examples of our products installed in cranes. Global Leading Experts in intelligent braking solutionsActually, trust is our primary commodity. When you choose products, solutions and services from the Global Leading Experts in intelligent braking solutions, trust is what you buy.
+
Featured
Svendborg Brakes - 360° BRAKE SOLUTIONS
... Airborne Wind Energy Systems (AWES) ...
Puteaux, France
501-1000 Employees
2000
Omexom’s solution targets those who produce, transform and transport electricity, including local authorities. Omexom thus helps energy producers, grid operators and territories fulfill their missions whilst simultaneously navigating the evolving landscape. Omexom’s expertise in the field of electrical grids allows us to anticipate the impact of renewable energies. Omexom remains totally independent when it comes to integrating technological options. Omexom engages in the highest levels of requirements in term of quality, environment, health and safety to deliver sustainable and efficient solutions. With today’s global energy sector undergoing constant change, Omexom works with its clients to achieve the energy transition. Positioned as an integrator and independent from suppliers, Omexom is a recognized international partner in the engineering, procurement and construction of energy storage systems projects. With today’s global energy sector undergoing constant change, Omexom works with its clients to achieve the energy transition.
+
Featured
Archives des Expertise - Omexom
... Omexom in Germany uses airborne wind turbines to generate energy ...
Technologies which have been searched by others and may be interesting for you:
Some interesting numbers and facts about the results you have just received for Airborne Wind Energy
| Country with most fitting companies | Netherlands |
| Amount of fitting manufacturers | 7 |
| Amount of suitable service providers | 7 |
| Average amount of employees | 11-50 |
| Oldest suiting company | 1989 |
| Youngest suiting company | 2020 |
Airborne Wind Energy (AWE) refers to a novel approach to wind power generation that harnesses the kinetic energy of wind at higher altitudes, where it is more consistent and stronger than near the ground. This technology utilizes tethered flying devices, such as kites or drones, equipped with turbines or connected to ground-based generators, to convert wind energy into electrical power. Unlike traditional wind turbines, AWE systems do not require massive towers and blades, making them less resource-intensive and potentially more environmentally friendly. The innovation lies in their ability to access the untapped wind resources at altitudes up to 500 meters, a feat unachievable by conventional wind turbines. This capability opens up new geographical areas for wind energy production, including regions with limited land space or those previously deemed unsuitable for traditional wind farms. The impact of AWE within the renewable energy sector is significant, offering a promising avenue for reducing the cost and environmental footprint of wind energy production. By expanding the potential locations for harnessing wind power and increasing the efficiency of energy capture at high altitudes, AWE technology plays a crucial role in the broader effort to transition towards sustainable, low-carbon energy systems.
1. Reduced Environmental Footprint
Airborne wind energy systems require significantly less land than traditional wind farms. Their ability to operate at higher altitudes allows for a more efficient use of space, minimizing the impact on the environment and local ecosystems.
2. Access to Stronger Winds
These systems can harness winds at higher altitudes, where wind speeds are generally more consistent and stronger. This capability leads to a higher energy output compared to conventional wind turbines, which are limited by ground-level wind variability.
3. Lower Installation and Maintenance Costs
Airborne wind energy systems boast a more straightforward installation process and require fewer materials, such as steel and concrete, significantly reducing initial costs. Additionally, their design simplifies maintenance efforts, as the majority of the technology is located off the ground, making it more accessible for repairs and upgrades.
4. Portability and Flexibility
The design of airborne wind energy systems allows for easier relocation, making them ideal for temporary installations or use in remote locations. This flexibility ensures that energy generation can be optimized based on wind conditions and demand, providing a versatile solution for various situations.
While evaluating the different suppliers make sure to check the following criteria:
1. Technology Compatibility
Ensure the supplier's technology is compatible with your project's specific requirements, including altitude range and wind speed capacity.
2. Innovation and R&D
Assess the supplier's commitment to innovation and research & development. A focus on continuous improvement indicates a forward-thinking partner.
3. Safety Records
Review the supplier's safety records and protocols. Airborne wind energy systems involve significant risks, and robust safety measures are crucial.
4. Environmental Impact
Consider the environmental impact of the supplier's technology. Look for solutions that minimize harm to wildlife and ecosystems.
5. Cost Efficiency
Evaluate the cost-effectiveness of the supplier's solutions. While initial investment might be high, long-term savings and efficiency are key.
6. Scalability
Ensure the supplier's technology can scale with your needs. Flexibility and adaptability are important as your project grows.
7. Customer Support
Assess the level of customer support and maintenance services offered. Reliable after-sales support is essential for addressing future issues.
Airborne wind energy (AWE) systems, harnessing wind power at altitudes where winds are stronger and more consistent, present compelling use cases across multiple industries. In the telecommunications industry, AWE can provide a reliable and sustainable power source for remote base stations, where traditional energy sources are logistically challenging and costly. This application ensures uninterrupted service, even in off-grid locations, enhancing network reliability and coverage. In the agriculture sector, AWE offers an innovative solution for powering autonomous irrigation systems in remote fields. By utilizing the consistent power generated from high-altitude winds, farmers can sustainably manage water resources, improving crop yields while reducing reliance on fossil fuels and grid electricity. This application underscores AWE's potential in promoting sustainable agricultural practices. For the maritime industry, AWE systems can be deployed on ships to supplement propulsion and reduce fuel consumption. This use case not only lowers operational costs but also contributes to the reduction of greenhouse gas emissions, aligning with global efforts towards decarbonization. By harnessing airborne wind energy, shipping companies can move towards more sustainable operations, demonstrating the versatility and environmental benefits of AWE across different business contexts.
Airborne Wind Energy (AWE) systems, designed to harness wind power at higher altitudes where the wind is stronger and more consistent, currently find themselves at varying stages within the Technology Readiness Level (TRL) scale, predominantly between TRL 3 to TRL 6. This variation reflects the transition from experimental proof of concept to small scale system validation in relevant environments. The technical reasons anchoring AWE at these levels include challenges related to materials, aerodynamics, control systems, and energy conversion efficiency. The materials used in AWE systems must be lightweight yet durable enough to withstand high altitudes and fluctuating weather conditions, a balance that is still under optimization. Aerodynamically, creating designs that can maximize energy capture while maintaining stability and control in variable wind conditions is complex. Control systems for autonomous operation, critical for the practical application of AWE, require sophisticated algorithms that can adapt to sudden changes in wind speed and direction. Lastly, converting the mechanical energy captured at high altitudes into electrical energy with minimal loss during transmission to the ground is a technical hurdle that has yet to be fully overcome. These challenges are the core of ongoing research and development efforts aimed at advancing AWE technologies to higher TRLs, where they can be commercially viable and widely adopted.
In the Short-Term, airborne wind energy (AWE) systems are anticipated to undergo significant optimization in control algorithms and tether technology. This phase focuses on enhancing the efficiency and reliability of current prototypes, allowing for longer flight durations and better energy capture from higher altitudes where wind speeds are more consistent. The integration of advanced materials for tethers will reduce drag and wear, improving overall system durability. The Mid-Term development of AWE is expected to witness the scaling up of systems to support larger energy demands. Innovations in this stage will likely include the deployment of autonomous operations, minimizing the need for human intervention and reducing operational costs. Additionally, the integration of AWE systems into existing renewable energy grids will be crucial, involving the development of sophisticated energy storage solutions to address the intermittent nature of wind energy. In the Long-Term, the focus will shift towards achieving commercial viability and widespread adoption of AWE systems. This will involve significant advancements in energy conversion efficiency and the establishment of regulatory frameworks to support the safe and effective integration of AWE into national and international airspace. Breakthroughs in lightweight, high-strength materials and autonomous aerial vehicle technologies will pave the way for the deployment of AWE systems in remote and offshore locations, greatly expanding the potential for clean, renewable energy generation on a global scale.
