Heliostats.net

Your guide to cutting‑edge heliostat technology — where mirrors follow the sun and power the future.

Discover How

How Heliostats Work

Heliostats track the sun using dual‑axis motors and precision sensors, reflecting sunlight toward a fixed target. They’re deployed in solar power plants, scientific research, and smart architecture to maximize energy yield and daylight harvesting.

  • Real‑time sun‑tracking algorithms.
  • Weather‑adaptive positioning for peak efficiency.
  • Modular design for easy scaling.
Heliostat array

Heliostat Configurations

Central Tower

Thousands of mirrors focus light onto a tower receiver, achieving >800 °C for power generation or industrial heat.

Building‑Integrated

Compact heliostats embedded in façades redirect daylight deep into offices, cutting lighting costs and boosting wellbeing.

Floating Platforms

Marine‑grade heliostats on pontoons power desalination or off‑grid communities without occupying valuable land.

Real‑World Applications

Power Generation

CSP plants with molten‑salt storage deliver round‑the‑clock electricity.

Industrial Heat

Carbon‑free >1 000 °C heat for cement, metals, and glass manufacturing.

Green Hydrogen

Solar thermochemistry splits water with zero greenhouse emissions.

Daylighting

Dynamic skylights redirect sunlight 30 m into deep‑plan buildings.

Heliostat Geometry in 60 Seconds

A flat mirror reflects light so that the angle of incidence equals the angle of reflection.

The easiest way to aim a heliostat is to make the mirror’s surface normal point exactly halfway between:

  • the incoming Sun ray direction \(\vec{s}\)
  • the desired target direction \(\vec{t}\)

In vector form (after normalising both vectors):

n̂ = ( ŝ + t̂ ) / | ŝ + t̂ |

That’s it—no heavy maths required!

Frequently Asked Questions

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