- Quartz fiber-reinforced silicon-containing phthalocyanine resin composites
- Quartz fiber-reinforced silica composites
- Quartz fiber-reinforced polyimide composites

The shear properties of quartz fiber satin fabrics are closely related to the fabric structure and the density of warp and weft yarns. Under the same conditions, an 8-harness satin fabric deforms more easily under shear than a 5-harness satin fabric. For the same fabric structure, the higher the warp and weft density, the less likely the fabric is to shear deform. The more interlacing points in the fabric, the less prone it is to shear deformation. Additionally, the greater the fiber bundle spacing within the fabric, the lower the yarn crimp, making the fabric more susceptible to shear deformation.

- Low fiber bending: This technology allows large tow fibers to be spread into thin layers, reducing fiber bending within the fabric, which improves structural stability and mechanical performance.
- High coverage rate: Fiber spreading technology enables more uniform fiber distribution in the fabric, increasing coverage and enhancing overall performance, including wear and durability.
- Ultra-thin thickness: Fabrics produced with this technology are thinner, reducing weight and increasing flexibility and applicability, especially in aerospace and high-performance sports equipment where lightweight materials are essential.
- Enhanced mechanical properties of composites: Due to better fiber alignment and reduced bending, fiber spreading technology effectively improves the mechanical properties of composites, such as strength and modulus.

Quartz cloth excels in high-temperature and corrosive environments due to its excellent thermal stability and chemical resistance. Compared to other reinforcement materials like fiberglass, it provides better performance in extreme conditions, although it may be heavier and less flexible. In contrast to aramid fibers, quartz cloth offers superior heat resistance but lacks the same level of tensile strength and impact resistance.

While quartz fiber reinforcements offer many benefits, they can be more brittle compared to other fibers, such as aramid or fiberglass. This brittleness may limit their use in applications where flexibility and impact resistance are critical. Additionally, quartz fibers can be more expensive to produce.

Quartz optical fibers are manufactured through a process called "draw," where a preform made of pure silica is heated and drawn into thin fibers. The drawing process ensures that the fibers have the necessary diameter and optical clarity for effective light transmission.

Quartz cloth is made from silica fibers and offers superior thermal stability and chemical resistance compared to traditional fiberglass cloth. While fiberglass is effective for many applications, quartz cloth can withstand higher temperatures, making it ideal for use in environments where heat resistance is crucial.