This is the front cover glass that protects the solar cells and lets sunlight reach them. It's made from patterned low-iron glass and tempered for strength. Standard modules use 3.2mm glass, while double-glass and bifacial modules often use thinner 2.0mm or 1.6mm glass on both sides.
Building-integrated photovoltaic glass turns a façade, skylight, or canopy into a power source. The cells are sealed between two layers of tempered glass, forming a safe laminated panel that also generates electricity. You can choose the cell spacing, color, and pattern to match the look of your building.
Thin film solar glass is the base that thin film cells like CdTe, CIGS, and amorphous silicon are built on. It usually comes coated with a transparent conductive oxide (TCO), such as FTO or AZO, which forms the electrode layer. Because the cell is grown straight onto the glass, the surface needs to be very flat and clean.
This is rolled glass with a textured surface and very low iron content. The texture cuts down reflection, and the low iron lets more light through. Most other solar glass types start from this base.
Tempered solar glass is heat-treated to make it much stronger. It resists hail and wind load better, and if it ever breaks, it shatters into small, safe pieces. Tempering is required for both module testing and building use.
Here two thin tempered panes are laminated around the cells, with glass on the back instead of a plastic backsheet. This makes the module more durable, keeps moisture out, and lets bifacial panels collect light from both sides.
This is patterned glass with an anti-reflective coating added on top. The coating reduces reflection across the working range and adds about 2.5% more transmittance compared with uncoated glass.
This glass scatters light instead of reflecting it in a sharp beam. It's used where glare needs to be controlled, like façades near roads or airports, and in greenhouses where soft, even light is better for plants.
This glass comes pre-coated with a transparent conductive oxide. The coating works as a see-through electrode layer, which is what thin film and heated-glazing applications need.