GEOWIND · WIND TURBINE
See the built structure;
measure the wind.
GeoWind's triangular blade panels form a polyhedral rotor around a central vertical shaft inside a square support frame. This page uses the supplied build photo to explain the structure. Generation performance still requires measurement.
Supplied photo of the built structureA visible structure
with measurable physics.
Wind applies force to the blades, turning the shaft and driving a generator. Even with the same generator, blade area, angle, speed and electrical load affect actual output.
For general vertical-axis turbine principles, see the U.S. Department of Energy overview. GeoWind-specific output still needs its own tests.
- 01 · Blades meet windWind direction and speed interact with blade size and geometry.
- 02 · Shaft and generatorTorque and RPM need to match the generator's load characteristics.
- 03 · Control and storagePower conversion, storage, protection and loads must be designed together.
A polyhedral rotor
inside a square frame.
On the right of the photo, you can see the corner support members, central vertical shaft and triangular panels of the rotor. The image shows the assembled form; it does not establish electrical output or efficiency.
- Fixed structureThe square metal frame supports the overall installation.
- Rotating structureTriangular blade panels form a three-dimensional rotor around the central shaft.
- What to measureRecord wind speed, RPM, electrical output and vibration together to compare performance.
A real rotor on display.
Photographs of the polyhedral rotor exhibited at the 2026 World Climate Industry EXPO and a separately built rooftop prototype. They document the form, not measured electrical output or efficiency.
As wind speeds rise,
available energy increases.
The theoretical power passing through a given area scales with wind speed cubed. These figures describe power in the wind, not GeoWind's measured electrical output.
Assumes air density 1.225 kg/m³ and an area of 1 m². Blade efficiency, electrical losses, cut-in speed, rated limit, turbulence and stopping controls are excluded. Method: U.S. DOE Small Wind Guidebook
76.6 W
1.0×
| Wind speed | Theoretical wind power / 1 m² | Vs. 5 m/s |
|---|---|---|
| 3 m/s | 16.5 W | 0.22× |
| 5 m/s | 76.6 W | 1× |
| 7 m/s | 210.1 W | 2.74× |
| 10 m/s | 612.5 W | 8× |
Compare five blade sizes
under the same conditions.
Creative & Wings proposes testing blade characteristic lengths of 0.8, 1.0, 1.5, 2.0 and 2.5 m with a nominal 1 kW generator. The generator rating does not imply 1 kW of actual site output.
Status: testing proposed and in preparation. These are planned dimensions, not measured output results.
- Power curve by wind speedRecord voltage, current and power under consistent test conditions.
- Start-up and stabilityObserve start-up, RPM, vibration, noise and stopping behavior.
- Wind at different sitesCompare conditions at sites with different heights, obstacles and turbulence.
- Operation alongside solarTrack wind and solar generation and battery charging over time.
CONTACT · CREATIVE & WINGS
Let's discuss testing
and deployment.
Share your intended site and test goals to begin a technical discussion.