🧪 Energy Technology Solar Energy Optimization Simulation
Interactive 3D simulation of a solar panel's temperature-driven power loss: tune irradiance, ambient temperature and wind, then compare passive, forced-air and water cooling to find the cooling intensity that maximizes net power once parasitic fan/pump draw is subtracted.
A solar cell that gets hot makes less power — real silicon panels lose roughly 0.4% of their output for every degree above 25°C, following the same NOCT (Nominal Operating Cell Temperature) model utility engineers use to size real arrays. This simulator renders a rooftop panel in 3D whose surface color tracks its live cell temperature, alongside a fan and a water-spray nozzle you can switch on to cool it. Tune irradiance, ambient temperature and wind to set the weather, then dial in a cooling strategy and intensity: forced-air fan power grows with the cube of fan speed while a circulation pump draws roughly linearly, so cranking cooling too high burns more parasitic power than the thermal recovery is worth. Three live bars track gross panel power, parasitic draw, and the net power that actually reaches the grid — the genuine optimization problem a system designer solves when deciding whether, and how much, active cooling pays for itself.
This simulation demonstrates how solar energy systems can be optimized for maximum efficiency. Users can adjust parameters like panel angle and tracking to understand the impact on energy capture.
2D · HTML5 Canvas 2D · 60 FPS target · runs fully client-side, no install