Our tempered glass is produced through a physical tempering process. In this method, the formed glass is heated in a controlled manner to a temperature range close to its softening point so that the internal temperature becomes uniform. The glass surface is then rapidly cooled (quenched) using high-velocity air jets. Because the surface cools and solidifies faster while the interior remains at a higher temperature and continues to contract, the completed cooling cycle creates a permanent compressive stress layer on the glass surface, balanced by tensile stress within the core. This stress distribution significantly improves the glass’s flexural strength, impact resistance, and thermal shock resistance, while reducing the risk of fracture caused by the propagation of surface micro-cracks. If breakage occurs, physically tempered glass typically fractures into small, relatively blunt-edged fragments, which helps reduce the risk of cutting injuries. For these reasons, it is widely used in applications requiring both safety and durability, including doors and windows, display equipment, and industrial uses.
Significantly increased strength and rigidity: Flexural strength and stiffness are improved by approximately 3–5 times, making the glass far less prone to bending.
Enhanced hardness and abrasion resistance: Surface hardness and wear resistance are greatly improved, reducing the likelihood of scratches.
Improved impact resistance: Under specified test conditions, it can withstand the impact of a 1 kg CR steel ball dropped from a height of 1 meter, and is less likely to break.
Excellent thermal shock performance: It can tolerate temperature differentials and thermal shock up to approximately 200°C without fracture.
Safer breakage behavior: If breakage occurs, tempered glass does not shatter into large, knife-like shards like ordinary glass; instead, it breaks into small granule-like pieces, helping to reduce the risk of injury.