Industry News

Intumescent glazing seals—often overlooked as mere accessories—are in fact the linchpin of fire-resistant glass systems. These specialized components transform passive glazing into active fire barriers by expanding up to 10× their original volume when exposed to heat, sealing critical gaps between glass edges and framing. This dynamic response is fundamental to containing flames, smoke, and toxic gases during building fires. Here, we examine their engineering principles, performance standards, and transformative impact on fire safety.

Self-closing fire-rated glass doors exemplify passive fire protection engineered for reliability. By autonomously sealing off flames and smoke, syncing with alarm systems, and resisting tampering, they transform ordinary thresholds into life-saving barriers. As high-rise construction surges globally, these systems will remain non-negotiable in fire-resilient architecture.

Shopping malls, as complex public spaces with high occupant loads, demand rigorous fire safety strategies. 2-hour fire-rated glass—tested to withstand flames, smoke, and heat for 120 minutes—serves as a vital component in compartmentalizing fire hazards and ensuring safe evacuation.

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.

​Chemical laboratories present unique fire safety challenges due to the presence of flammable substances, high-temperature processes, and corrosive chemicals. Selecting the appropriate fire-rated glass is critical to ensuring personnel safety, protecting equipment, and complying with international building codes. As a leading fire-rated glass manufacturer based in Zhongshan, Guangdong, we specialize in engineering solutions tailored to the demanding environments of modern laboratories.

​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.