In the realm of advanced materials, Glass Fiber stands as a cornerstone of modern engineering and innovation. At Kaxite, we have dedicated decades to mastering the production and application of high-performance glass fiber, providing industries worldwide with solutions that offer unparalleled strength, durability, and versatility. This composite material, composed of extremely fine fibers of glass, is a fundamental component in everything from aerospace and automotive parts to wind turbine blades and sporting goods. Its unique properties, including excellent tensile strength, thermal resistance, and electrical insulation, make it an indispensable asset across countless sectors.
Kaxite’s commitment to excellence is reflected in every strand we produce. Our state-of-the-art manufacturing processes ensure that our glass fiber products meet the most stringent international standards for quality and performance. Whether you are involved in construction, transportation, telecommunications, or consumer products, understanding the technical specifications and advantages of glass fiber is crucial for selecting the right material for your application. This guide provides a comprehensive overview of our glass fiber offerings, detailed technical parameters, and answers to common industry questions.
Kaxite glass fiber is engineered for superior performance. The primary advantages that set our product apart include:
Our glass fiber products are categorized into several primary types, each tailored for specific applications. The key parameters defining their performance are detailed below.
The most common type, known for its general-purpose electrical insulation and mechanical properties.
| Parameter | Specification | Test Standard |
|---|---|---|
| Fiber Diameter | 9 - 24 microns | ASTM D578 |
| Tensile Strength | 3,450 MPa | ASTM D2343 |
| Elastic Modulus | 72.5 GPa | ASTM D2343 |
| Density | 2.58 g/cm³ | ISO 1183 |
| Softening Point | 846 °C | ASTM C338 |
| Dielectric Constant (1 MHz) | 6.6 | ASTM D150 |
Used in aerospace and military applications where maximum strength and performance under extreme conditions are required.
| Parameter | Specification | Test Standard |
|---|---|---|
| Fiber Diameter | 5 - 13 microns | ASTM D578 |
| Tensile Strength | 4,590 MPa | ASTM D2343 |
| Elastic Modulus | 89 GPa | ASTM D2343 |
| Density | 2.48 g/cm³ | ISO 1183 |
| Softening Point | 1,056 °C | ASTM C338 |
Specifically formulated for enhanced resistance to acid and water corrosion, ideal for chemical storage and piping.
| Parameter | Specification | Test Standard |
|---|---|---|
| Fiber Diameter | 9 - 24 microns | ASTM D578 |
| Tensile Strength | 3,400 MPa | ASTM D2343 |
| Acid Weight Loss (1N H2SO4) | < 3.5% | ISO 719 |
| Water Resistance | Excellent | ASTM C813 |
We supply glass fiber in various forms to suit different manufacturing processes:
What is the main difference between E-glass and S-glass fiber?
E-glass (Electrical glass) is the standard, most widely used form, offering good strength, electrical insulation, and cost-effectiveness for general applications. S-glass (Structural glass) is a higher-performance variant with approximately 30-40% greater tensile strength, a higher modulus of elasticity, and better temperature resistance. It is used in demanding aerospace, defense, and high-performance sporting equipment where weight savings and ultimate strength are critical.
How does Kaxite ensure the quality and consistency of its glass fiber?
Kaxite employs a vertically integrated manufacturing process with rigorous quality control at every stage, from raw material selection (high-purity silica sand) to final packaging. We utilize advanced laser micrometer systems for diameter control, automated tension monitoring during winding, and statistical process control (SPC) charts. Every batch is tested against key parameters like tensile strength, filament diameter, and moisture content in our ISO 17025 accredited laboratory to guarantee consistent, reliable performance.
What are the typical applications for Kaxite E-CR glass fiber?
Kaxite E-CR (Electrical-Corrosion Resistant) glass fiber is specifically engineered for environments where standard E-glass might degrade. Its primary applications include chemical processing equipment (tanks, pipes, scrubbers), offshore oil & gas platforms, wastewater treatment facilities, battery trays, and any structural components exposed to acidic or highly humid conditions. It significantly extends the service life of composite parts in these corrosive environments.
Can Kaxite glass fiber be used for high-temperature applications?
Yes, but the specific type and coating must be selected carefully. Standard E-glass has a softening point around 846°C and is suitable for continuous use at temperatures up to approximately 600°C. Our S-glass can withstand higher temperatures, with a softening point above 1000°C. For extreme temperatures, special high-temperature sizing or alternative fibers like silica may be recommended. Our technical team can advise on the optimal product for your thermal requirements.
What sizing or coating is applied to Kaxite glass fibers, and why is it important?
Sizing is a crucial chemical coating applied during the fiber drawing process. It serves multiple purposes: it protects the filaments from abrasion during processing, binds the filaments together into a strand, and most importantly, promotes adhesion between the glass fiber and the specific resin matrix (e.g., polyester, epoxy, vinyl ester). Kaxite offers a wide range of compatible sizings tailored for different resins and processes, which is fundamental to achieving the full mechanical performance of the final composite part.
How does the choice of glass fiber form (roving, fabric, mat) affect the final composite part?
The form directly dictates the manufacturing process and the properties of the end product. Roving provides high unidirectional strength and is efficient in automated processes like pultrusion. Woven fabrics offer balanced strength in two directions and excellent drapeability for complex molds, with different weaves affecting surface finish and mechanical properties. Chopped strands and mats provide quasi-isotropic reinforcement, good conformability, and are cost-effective for simpler shapes. The choice depends on the required strength profile, part geometry, production volume, and manufacturing method.
Is Kaxite glass fiber recyclable or environmentally friendly?
Glass fiber itself is made from abundant, inert raw materials (silica sand, limestone). While the thermoset composites it often reinforces can be challenging to recycle via traditional melting, significant industry advancements are being made. Kaxite is actively involved in research for composite recycling technologies, including mechanical recycling for use as filler and thermal recycling. Furthermore, our fibers contribute to sustainability through their role in lightweighting vehicles (reducing fuel consumption) and enabling renewable energy infrastructure like wind turbine blades.
What technical support does Kaxite offer to customers?
Kaxite provides comprehensive technical support through a global network of materials engineers and application specialists. Our services include product selection guidance, assistance with resin compatibility and process optimization, failure analysis, and custom product development. We can provide detailed material data sheets (MDS), safety data sheets (SDS), and samples for testing and prototyping to ensure our glass fiber integrates seamlessly into your production process.