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Glass Fiber
[CAS# 65997-17-3]

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Identification
Classification Chemical reagent >> Silane reagent
Name Glass Fiber
Synonyms Fiber Glass Wool
Molecular Structure CAS # 65997-17-3, Glass Fiber, Fiber Glass Wool
Molecular Formula O2Si
Molecular Weight 60.08
CAS Registry Number 65997-17-3
EC Number 266-046-0
SMILES O=[Si]=O
Properties
Solubility Insoluble (water and acids)
Density 2.2-2.6 g/mL
Melting point 1710 ºC
Boiling point 2230 ºC
Safety Data
Hazard Symbols symbol   GHS08 Danger    Details
Hazard Statements H350    Details
Precautionary Statements P203-P280-P318-P405-P501    Details
Hazard Classification
up    Details
HazardClassCategory CodeHazard Statement
CarcinogenicityCarc.1BH350
CarcinogenicityCarc.2H351
Eye irritationEye Irrit.2H319
Specific target organ toxicity - single exposureSTOT SE3H335
Skin irritationSkin Irrit.2H315
CarcinogenicityCarc.1BH350i
Specific target organ toxicity - repeated exposureSTOT RE2H373
SDS Available
up Discovory and Applicatios
Glass fiber, a material made from extremely fine fibers of glass, was discovered in the early 20th century and has since transformed various industries through its versatility, strength, and lightweight properties. The invention of glass fiber is often credited to the innovations of Russell Games Slayter in 1938, who developed a method to mass-produce continuous glass filaments. Prior to this, glass had been used in small quantities for decorative fibers, but the ability to produce it in continuous, fine strands allowed for its widespread application in both consumer and industrial markets.

The process of producing glass fiber involves melting silica-based materials at high temperatures and then extruding them through fine nozzles to form thin strands. These strands are often woven together or combined with resins to create composite materials, enhancing their strength and resilience. Glass fiber’s key properties—such as high tensile strength, non-conductivity, chemical resistance, and lightweight structure—make it suitable for diverse applications. The fiber’s versatility is also enhanced by its ability to be modified through different chemical compositions, allowing it to meet various industrial specifications.

One of the primary uses of glass fiber is in reinforced plastics, also known as fiberglass. This composite material is widely used in construction, automotive, aerospace, and marine industries. Fiberglass is valued for its durability and resistance to environmental elements, making it a preferred choice for building facades, automotive parts, and boat hulls. In the construction industry, glass fiber-reinforced concrete provides added tensile strength to structures while minimizing weight, resulting in innovative architectural designs.

Glass fiber has also found applications in telecommunications and data transmission, where it is used to produce optical fibers. Optical fibers rely on the transparency and flexibility of glass fiber to transmit light signals over long distances with minimal loss of quality, which has significantly advanced global communication infrastructure. Moreover, glass fiber is commonly used as an insulating material in electrical applications due to its non-conductive properties, contributing to the safety and efficiency of various electronic devices.

Environmental considerations are increasingly influencing the production and use of glass fiber. While it offers durability and reduces the need for frequent material replacements, the energy-intensive production process and challenges associated with recycling glass fiber composites are areas of active research. Efforts are underway to develop more sustainable manufacturing techniques and recycling processes, aiming to extend the material’s lifecycle while reducing its environmental impact.

Glass fiber’s discovery and development have led to numerous applications that continue to shape modern technology and infrastructure. From its role in enhancing the strength of construction materials to enabling the rapid transmission of data, glass fiber remains an indispensable component of contemporary industrial applications.
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