Fire-rated glass serves as a vital engineered solution for compartmentalizing structures into distinct fire zones. When strategically installed in vertical shafts and critical pathways, these transparent barriers dramatically slow fire progression while maintaining crucial evacuation routes. This systematic approach to fire containment relies on three fundamental principles: integrity (preventing flame passage), insulation (blocking radiant heat), and structural stability (maintaining barrier function under extreme conditions).

The Burning Challenge in Modern Construction As skyscrapers grow taller and building codes stricter, conventional fire protection methods struggle to balance safety with design freedom. Traditional firestop solutions often: ❌ Degrade under UV exposure ❌ Release hazardous fumes ❌ Fail to maintain structural integrity beyond 90 minutes

Rigid fire-resistant glass, a critical component in modern fire-rated building systems, relies on precise engineering to ensure both transparency and fire integrity. One advanced manufacturing method involves creating a hollow interlayer between two glass panes, filled with a liquid fire-resistant resin that hardens under controlled conditions.

Fire-resistant glass (FRG) is a critical building material designed to maintain structural integrity and transparency under high temperatures, buying time for safe evacuation during fires. However, low-quality FRG often exhibits yellowing over time, compromising aesthetics and potentially signaling diminished fire resistance. This article examines the root causes of yellowing in substandard FRG through the lens of material science, exploring the chemical and physical mechanisms behind this phenomenon.

​The Middle East, a region synonymous with rapid urbanization, megaprojects, and extreme climatic conditions, is witnessing a transformative shift in its construction and infrastructure sectors. Among the materials gaining traction, fire-resistant glass (FRG) stands out as a critical component for enhancing building safety and compliance.

​The requirement for 2-hour fire-resistant glass in buildings exceeding 200 meters in height stems from multifaceted safety considerations, including structural physics, evacuation challenges, and international regulatory expertise.

​Fire-resistant glass is a critical material in modern construction, requiring careful handling during production, transportation, and storage to maintain its structural integrity and performance. This article outlines the essential equipment and tools used in the daily transportation and storage of fire-resistant glass.

Fire-resistant glass, a vital safety component in numerous applications, demands meticulous handling during packaging and shipping to ensure its integrity and prevent damage.