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HS Code |
888988 |
| Material | Aramid Fiber |
| Color | Golden Yellow |
| Density | 1.44 g/cm³ |
| Tensile Strength | 2.8–3.6 GPa |
| Modulus Of Elasticity | 70–125 GPa |
| Elongation At Break | 2.8–4.0% |
| Thermal Decomposition Temperature | 500°C |
| Electrical Conductivity | Non-conductive |
| Moisture Absorption | 3–7% (by weight) |
| Flame Resistance | Self-extinguishing |
| Abrasion Resistance | High |
| Uv Resistance | Moderate |
As an accredited General Aramid Fiber factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Tensile Strength: General Aramid Fiber with high tensile strength is used in ballistic protection panels, where it provides superior energy absorption and impact resistance. Thermal Stability: General Aramid Fiber with a stability temperature of up to 500°C is used in protective clothing for firefighters, where it prevents thermal degradation and ensures wearer safety. Modulus: General Aramid Fiber with a high modulus of elasticity is used in aerospace composites, where it enhances structural rigidity and reduces overall weight. Low Flammability: General Aramid Fiber exhibiting UL 94 V-0 flammability rating is used in electrical insulation, where it minimizes ignition risk and fire propagation. Chemical Resistance: General Aramid Fiber resistant to acids and alkalis is used in chemical processing equipment lining, where it extends service life under corrosive conditions. Dielectric Strength: General Aramid Fiber with a dielectric strength of 25 kV/mm is used in cable reinforcement, where it prevents electrical breakdown and improves operational safety. Cut Resistance: General Aramid Fiber with high cut resistance is used in industrial glove fabrication, where it significantly reduces laceration injuries. Lightweight: General Aramid Fiber with a density of 1.44 g/cm³ is used in sporting goods, where it decreases product weight and enhances user performance. |
| Packing | General Aramid Fiber is securely packed in a 10 kg polyethylene bag, sealed within a sturdy cardboard box for safe transport. |
| Container Loading (20′ FCL) | 20′ FCL for General Aramid Fiber typically holds 7-9 metric tons, packed in bales or cartons, ensuring moisture-proof and secure shipment. |
| Shipping | General Aramid Fiber is typically shipped in moisture-protected, sealed packaging such as rolls or bales. It is transported in sturdy cartons or pallets to prevent damage during transit. The shipping process complies with safety regulations, ensuring the fiber remains uncontaminated and in optimal condition upon delivery to the customer. |
| Storage | General Aramid Fiber should be stored in a clean, dry, and well-ventilated area, away from direct sunlight and sources of heat or ignition. Avoid exposure to moisture and strong acids or bases, as these can degrade the fiber’s properties. Keep the material in its original packaging until use to prevent contamination and mechanical damage. Store at room temperature for optimal stability. |
| Shelf Life | General aramid fiber typically has an unlimited shelf life if stored dry, away from sunlight, chemicals, and extreme temperatures. |
Competitive General Aramid Fiber prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
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Tel: +8615365186327
Email: sales3@ascent-chem.com
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Every manufacturer develops a certain respect for materials that perform reliably on the production floor and in the hands of customers. For our team, aramid fiber stands out for its mix of strength, durability, and practical versatility. Decades of hands-on work in chemical manufacturing have taught us the importance of fibers that keep their promise after thousands of cycles, across weather extremes, under heat or mechanical loads that would destroy lesser materials. General aramid fiber did not earn its reputation overnight. The polymer chains that give it resilience under stress — and help it resist wear and chemicals — reflect years of real-world testing, setbacks, and breakthroughs in polymerization and spinning.
Our general aramid fiber finds uses across industries focused on dependable performance. The model we produce stems from extensive process control, yielding a consistent, golden-yellow fiber with the tensile strength needed for demanding applications. Aramid chemistry isn’t confined to theory. The meta-aramid configuration, for example, resists high temperatures and does not melt, while para-aramid structures bring an extra degree of strength for ballistic or composite applications. In practice, this means our aramid fiber handles not just the stress of pulling and twisting but also keeps its integrity when exposed to certain solvents and acids — something we've stressed in our own labs by repeated exposure and trials, since even minor defects can translate to major product failures downstream.
Throughout production, we keep close control over denier, filament count, and physical uniformity — not just on paper but in real batches. Typical deniers for our general aramid fiber range from 1.5D to 3000D, with filament counts selected to match weaving or spinning requirements. On the shop floor, precise denier consistency means that weaving runs do not stall due to thread breakage or uneven thickness. Our operators know from hands-on experience that even a slight deviation in tenacity or modulus can cause headaches for customers, especially for those cutting fabrics into personal protective equipment, automotive hoses, or high-performance tapes. By focusing on tight process control — and acting quickly on feedback — we’ve managed to keep variability to a minimum, an expectation that is never taken lightly by those who actually work the looms or spinning lines.
General aramid fiber serves as a base material for a wide spectrum of products: flame-resistant clothing, conveyor belts, telecommunications cable reinforcements, aerospace composites, filtration equipment, and beyond. We have watched aramid’s adoption grow not only because of its initial technical promise, but because it tackles persistent problems for end users: tears and rips in protective apparel, breakdown of rubber composites, or warping of components exposed to heat. Our fiber’s ability to withstand temperatures up to 400°C — and short-term exposure even higher — gives product designers a material that doesn’t just meet a datasheet number but delivers real fatigue resistance during months and years of use.
After years of running both aramid and other synthetic fibers in our plants, the distinctions become apparent in practice. Polyester, for example, cannot handle the same loads without stretching or failing under heat. Polyamide-6,6 might compete on price, but its thermal stability falls short in applications like insulation or specialty hoses. Carbon fiber earns respect for its lightweight stiffness, yet lacks the abrasion and impact resistance we get from aramid — especially for composite shrouds, brake linings, or protective panels that need to survive strikes and repeated flexing. Cotton, glass, and other legacy fibers all have their place, but in rigorous applications demanding chemical resistance and a long fatigue life, aramid outlasts competitors. We have seen test fabrics where aramid outperforms polyolefin blends even when subjected to acids, mild alkalis, and oil, showing less degradation and more consistent tensile retention.
We do not treat fiber production as a background task. Every step, from polymer synthesis to spinning and post-drawing, receives tight scrutiny. The monomer ratios and solvent balances strike a fine line between fiber strength and spinnability. A slight mismatch changes not just the quality but the way a fiber handles on the warper or the loom. Our team’s years on the ground have shown how subtle tweaks in spin bath temperature or draw ratio influence crimp, surface smoothness, and knot performance during downstream processing. At each batch break, we look for even sheen, minimal fuzz, and consistent handling both wet and dry. Experience taught us that operators notice even minor surface flaws, which can cause snarls or feed issues that slow down costly production lines.
Some users coming from natural fibers or lower-melting synthetics face a learning curve with aramid, mainly due to its unique frictional behavior and resistance to melt-processing. Years ago, we had customers struggle with blade dulling during fabric cutting, an issue traced back to the fiber’s high toughness and tendency to work-harden. To address this, we started supplying technical guidance — not generic how-to sheets, but advice developed alongside our own finishing teams — on blade selection, cutting speeds, and edge maintenance. We encourage our clients to share feedback from both weaving and post-treatment phases, as this often exposes subtle changes we can make in finish chemistry or fiber surface treatment to help their runs go more smoothly.
Laboratory metrics give a starting point, but in our field, real durability is measured by years of service in mining belts, firefighter suits, or friction materials. Our own tests put the fiber to work in both accelerated aging ovens and demanding applications. By embedding our fiber in finished products and observing how it fares with repeated bending, impacts, and chemical washes, we collect genuine performance data. Over two decades, we’ve watched our general aramid fiber help protective clothing last through hundreds of industrial wash cycles — sometimes outlasting the stitching or hardware. This durability is tied to the aromatic backbone of the polymer, which resists the scission and depolymerization other synthetics might suffer under UV or thermal stress.
Going back to the roots of supply, we have lived through the driving need for on-time shipments and transparent communications. Our entire production flow is set up to minimize disruptions, from raw material receipt to packing and delivery. By maintaining redundancy at key points in our process, we buffer against the inevitable hiccups in chemical sourcing or labor availability. We have long-term relationships with our raw material partners, often reviewing their quality output before we even start a new batch. Our warehouse teams inspect packaging and pre-shipment fiber samples, knowing delays cost our customers production time and revenue. This direct chain of accountability, from polymerization to cut fiber or spun yarn, proves its worth whenever customers are up against deadlines and need material that simply performs right out of the box.
General aramid fiber’s real proving ground lies in on-the-job performance. Our fibers reinforce optical cable strength members, carry tension in high-performance ropes, protect hands and bodies in safety textiles, and deliver consistent output in conveyor belt stacks. Thanks to its low thermal shrinkage, the fiber retains shape even after prolonged heat exposure — a property measured not just in controlled tests, but in rolling mills and foundries where products live out their lifecycle in extreme conditions. The non-flammability of the material — achieved by adjacently-packed aromatic rings — means the fiber chars but does not propagate flame. This transfers to worker safety, insulation panels that stay effective, and structures that resist breakdown when seconds matter most. Where others have switched back to aramid after trying alternative reinforcements, the feedback remains consistent: the drop in wear rates, extension of product lifespan, and reduction of field failures directly result from the inherent stability of the material.
No fiber is a miracle on its own. Users need guidance matching aramid’s properties to the task at hand. In our experience, joining or blending aramid with other fibers calls for chemistry tweaks and careful engineering. Some customers have faced sewing challenges due to slipperiness or high friction, which led us to recommend certain needle chemistries and lubricants. Others find that initial performance drops after extended UV exposure unless a suitable stabilizer is chosen during compounding. Our collaborative work with customers — sometimes on their factory floor, sometimes ours — has helped them specify optimal finish types, filament counts, or sizing agents for unique applications. By keeping production and customer conversations closely linked, these problems usually find quick and effective solutions that outpace what isolated R&D teams or traders can offer.
We do not operate in a vacuum. Partnerships with both industry giants and local converters have taught us to focus on batch-to-batch consistency and responsive technical support. Smaller users often seek manageable minimum order sizes and advice on machinery settings, while larger groups require uninterrupted high-volume supply and tight documentation. By running pilot lots in-house, we demonstrate how new weaving or knitting setups might perform — an advantage that goes beyond just selling bulk tonnage. From composite panel fabrication to fiber-reinforced rubber, we have supported startups testing rapid prototype runs and major OEM clients scaling up to full production. The shared goal is a material that doesn’t upend schedules or force workarounds, especially when scaling from lab to factory scale.
Having spent years troubleshooting, refining, and scaling up aramid fiber, we gain a unique perspective on what sets it apart beyond manufacturer brochures. Failures in high-heat, high-abrasion, or chemically exposed applications cause the deepest frustration in industry — tracking root causes back to the fiber or finish is part of our continuous improvement loop. Our aramid fiber wins loyalty because it handles the unexpected and the routine with the same stable performance. The trust customers place in our material comes from its measured resilience, from chemical plant gaskets to ballistic panel layers protecting lives and assets. We remain committed to rigorous raw material control, quick corrective action when outliers appear, and detailed technical dialogue with all partners — manufacturers, converters, and end-users alike.
Markets continually push us toward higher performance, greater safety margins, and more sustainability in fiber manufacturing. We have kept close track of regulatory changes and emerging demands for recycled inputs, lifecycle analysis, and reduced energy consumption. By collaborating with research institutes and updating process controls, we look for incremental gains — such as energy-efficient spinning, solvent reclamation, or additive blending to tailor flame resistance without sacrificing strength. Our teams pilot new finish formulations and composite matrices that may one day replace legacy designs in major industries. By embracing these challenges upfront, we align our production not just with codes but with the forward momentum of real-world applications.
Our engagement with general aramid fiber is shaped not just by technical knowledge but by long-term partnerships and a hands-on approach to problem-solving. The years have taught us that the real measure of any specialty fiber rests in how it solves daily problems on factory floors, at construction sites, and in demanding protective gear. Commitment to consistent quality and practical improvement sets us apart. As trends shift and new challenges arise, our promise remains the same: to provide an aramid fiber grounded in real-world reliability, backed by direct technical expertise, and always ready for the next application on your production line.