Oasis Glass

Ever wonder how a thin film can block heat? We break down the science of how Low-Emissivity coatings work at a molecular level to reflect long-wave infrared radiation while letting visible light in.

An Insulated Glass Unit (IGU) is a complex system. We explain the role of the primary and secondary seals, the gas-fill cavity, and why the desiccant is the most important part you never see.

Not all glass can handle the same pressure. We discuss the standardized testing methods used to determine if a glass pane is suitable for high-rise elevations or commercial storefronts.

Glass expands when hot and contracts when cold. If it’s forced into a frame that doesn’t allow for that movement, it will crack. We explain the importance of setting blocks in glass installation.

What makes laminated glass "shatterproof"? We explain the process of bonding multiple layers of glass with a PVB (Polyvinyl Butyral) interlayer under heat and pressure.

We take a technical look at the tempering furnace: heating glass to 600°C and then rapidly cooling it to create the high-surface compression that makes tempered glass 4x stronger than standard float glass.

Noise is a wave. By using two panes of glass with different thicknesses, we create "acoustic decoupling," which forces sound waves to lose energy as they travel through the different media.

Choosing the right VLT is a balancing act. We explain how your glass choice affects the natural light level in your home and how to choose the right rating for your specific room orientation.

Seal failure isn't always mechanical. We dive into the chemical degradation of butyl sealants and how atmospheric moisture slowly breaks down the protective barrier over decades.

Before the "float" process, glass was wavy and distorted. We look at the history of modern glass production and how molten glass is poured onto a bed of molten tin to create perfectly flat, parallel surfaces.