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C-Neutral Enersol Limited

Residential · Wind

Small-scale Wind Turbines

A second generator that works the night shift, for free.

A small wind turbine converts the wind crossing your site into electricity for a single home or homestead. On an exposed, genuinely breezy site it is the natural partner to solar — generating through the night and under the heavy cloud of the wet season, charging the same battery bank the panels do.

01 — Overview

The generator that runs while you sleep

  • Generates at night and under cloud
  • Pairs with solar on one battery bank
  • Tower engineered for local wind loading
  • Only where the resource is genuinely there

A small wind turbine converts the wind crossing your site into electricity for a single home or homestead. On an exposed, genuinely breezy site it is the natural partner to solar — generating through the night and under the heavy cloud of the wet season, charging the same battery bank the panels do.

Typical specifications

Indicative ranges for a representative installation. Final specification is confirmed at design stage against site survey and measured load.

Rated power
0.5–5 kW
Viable mean wind
≥4–5 m/s at hub height
Cut-in wind speed
~3 m/s
Rated wind speed
~11–12 m/s
Rotor diameter
~2–5 m
Tower height
9–18 m (typical)
Configuration
Battery-charging, hybrid-ready
Storm protection
Auto furling / electronic brake
Design life
15–20 years

Ranges reflect typical industry standards and are indicative, not a guarantee of performance.

02 — Applications

Where this technology is applied

The settings we most commonly deploy this system in, and the duty it performs in each.

  • Wind–solar hybrid supply

    Wind covers night and overcast periods while solar covers midday, flattening the generation profile across seasons.

  • Exposed ridgeline homesteads

    Hilltop and escarpment sites with clean prevailing flow support economic generation where terrain accelerates wind.

  • Battery-bank charging

    Turbine output feeds the same DC bus and battery as the solar array through a dedicated charge controller.

  • Livestock and irrigation pumping

    Drives water pumping for stock troughs and plots, with wind often strongest through the dry season.

  • Remote communications

    Maintains continuous supply to radio, repeater and monitoring equipment at sites far from the network.

  • Generator displacement

    Reduces diesel run-hours on off-grid sites where fuel haulage is costly and supply is unreliable.

03 — Outcomes

Steadier power, smaller battery

  • Covers the hours solar cannot
  • A smaller, cheaper battery does the job
  • Real independence for remote homesteads
  • Free fuel, mature repairable engineering

On the right site, wind is the most useful complement solar can have — because the two fail at different times. Wind frequently blows hardest overnight and through exactly the overcast, wet-season weeks when panels underperform, so a hybrid home enjoys a far flatter, more dependable year-round supply, and gets it from a smaller and cheaper battery than solar alone would need to survive the same dull spell. For a remote homestead beyond the grid that difference is not a nicety: it is what separates a system that merely copes from one that comfortably runs lights, refrigeration, pumping and communications through every season without a generator. The fuel is free, and the technology is mature, mechanical and repairable — a turbine is a machine you can maintain, not a sealed appliance you replace. We will also be blunt, because this is where wind earns its bad reputation: the resource is intensely site-specific, and a turbine on a sheltered plot is an expensive ornament. Power scales with the cube of wind speed, which is why we lead with a hard assessment and sometimes advise against. Where the wind genuinely is, though, the payback is real and the resilience considerable — a second, independent generator quietly working the night shift while the household sleeps.

Best suited to

  • Exposed, consistently breezy sites — hilltops, ridgelines, open plains
  • Off-grid homesteads wanting generation through night and cloud
  • Homes pairing wind with solar for steadier year-round supply

04 — Track record

Where we have implemented it

Reference installations delivered and commissioned by our engineers.

  • 3 kW turbine2023

    Ridgeline homestead

    Kabale District

    Hybrid wind–solar supply removed the need for a night-time generator run through the wet season.

  • 2 kW + 3 kWp PV2022

    Lakeshore farm

    Kalangala, Ssese Islands

    Steady onshore breeze carries evening load; battery bank sized roughly a third smaller than solar-only.

  • 1.5 kW turbine2024

    Communications relay hut

    Moroto District

    Maintains uninterrupted supply to monitoring equipment at a site with no distribution access.

Project details are representative of work delivered in this sector. Figures are rounded; full case studies available on request.

05 — Delivery

The installation process

Every installation follows the same engineered sequence, from first survey to commissioning and handover.

  1. Everything begins with the wind resource, and we treat that assessment as a gate rather than a formality: mean wind speed, prevailing direction, seasonal pattern, and the turbulence thrown off nearby trees, buildings and terrain. If the resource is not there, we say so.

  2. We establish the tower height needed to reach clean, undisturbed flow — the single most decisive variable in the system, because wind speed climbs steeply with height and power rises with the cube of speed. Ten extra metres of tower routinely beats a bigger turbine.

  3. We size the machine against your load and your resource: most homes suit a 0.5–5 kW horizontal- or vertical-axis turbine, matched to a charge controller with a dump load so the rotor is never left unloaded and free-wheeling.

  4. Where solar is present or planned, we configure a hybrid: both sources feed one battery bank through their own controllers, so wind carries the nights and the wet season while solar carries the bright middle of the day.

  5. We engineer the foundation and tower for local wind loading — guyed or free-standing — with a hinged base wherever practical, so the turbine can be lowered to ground level for service instead of climbed.

  6. Protection is designed in, not bolted on: automatic furling or electronic braking to shed load in a storm, a manual brake for maintenance, and lightning earthing appropriate to an exposed mast.

  7. We commission with output verified against the wind assessment, test the braking and cut-out behaviour, and hand over a maintenance routine covering blade condition, bearing wear, guy tension and fixings.

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