|
HS Code |
295525 |
| Materialtype | Polyamide 6 (PA6) |
| Grade | EB130 Injection Grade |
| Reinforcement | 30% Glass Fiber |
| Color | Natural (can be colored) |
| Density | 1.36 g/cm³ |
| Melt Flow Index | 10-20 g/10min (at 275°C, 2.16kg) |
| Tensile Strength | 170 MPa |
| Flexural Modulus | 7000 MPa |
| Impact Strength Notched Izod | 7 kJ/m² |
| Heat Deflection Temperature | >220°C (at 1.8 MPa) |
| Water Absorption 24h | 1.3% |
| Flammability | HB (UL 94) |
| Processing Temperature | 260-290°C |
| Shrinkage | 0.2-0.5% |
| Electrical Resistivity | 1E12 Ω·cm |
As an accredited PA6EB130 Injection Grade Polyamide 6 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | PA6EB130 Injection Grade Polyamide 6 is packaged in 25 kg moisture-proof, sealed plastic bags with clear labeling for identification and safety. |
| Shipping | **Shipping Description for PA6EB130 Injection Grade Polyamide 6:** PA6EB130 Injection Grade Polyamide 6 is shipped in sealed, moisture-proof 25 kg bags or bulk containers. Ensure loads are secured and protected from physical damage, moisture, and direct sunlight. Store and transport at ambient temperature, in compliance with all safety, labeling, and handling regulations for synthetic resins. |
| Storage | PA6EB130 Injection Grade Polyamide 6 should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat or moisture. Keep the material in sealed, original packaging to minimize moisture absorption. Avoid contamination with dust and other materials. If partially used, reseal packaging promptly to preserve quality and prevent degradation. |
Competitive PA6EB130 Injection Grade Polyamide 6 prices that fit your budget—flexible terms and customized quotes for every order.
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As a team rooted in the heart of polymer manufacturing, we spend every day refining, testing, and pushing the limits of polyamide compounds. PA6EB130 Injection Grade is more than just another product in our lineup; it’s the result of countless hours optimizing polymer chains, balancing reinforcement and flow, and understanding the real-world needs of injection molding shops. Its nylon 6 backbone ties into the history of proven nylon use across automotive, appliance, tool, and consumer goods. Yet, the modifications built into this model respond directly to the feedback we receive from engineers trying to shave seconds off cycle times without sacrificing a millimeter in detail or enduring unpredictable warpage at high shot rates.
Polyamide 6 earned its stripes decades ago for its resilience and resistance to abrasion, but not every version stands up to the rigors of modern injection molding. Some have struggled with moisture sensitivity, unpredictable shrinkage, or slow crystallization. In the lab and on the press line, PA6EB130 has been tuned for these bottlenecks. By working control over molecular weight distribution, and choosing the right impact modifiers, the compound achieves a fluidity and shot consistency that supports high-cavity tooling, thin wall parts, and detailed features. This means less downtime spent clearing fills, smoothing weld lines, or wrestling with demolding.
In day-to-day production, the real costs of a polyamide show themselves on the injection line: scrap rates rise after minor material variation, cycle times stretch due to unpredictable flow, operators stop presses to clear short shots. Standard PA6 can check some boxes in property data sheets but still result in headaches at these pinch points. Every batch of PA6EB130 is formulated to reduce variability. This comes from in-line melt consistency management, targeted drying, and a feedback loop between our compounding technicians and field engineers.
A common pain point with many standard nylon 6 grades comes from water uptake. They can go from crisp, sturdy parts to slow-fill, dimensionally unstable products in humid shops. The modified structure of PA6EB130 tempers this sensitivity. It doesn’t dodge water entirely—it’s still nylon—but it stretches the window for processing, minimizing sudden swings if storage or drying goes out of spec for a day. Shops running parts like clips, electrical housings, or precision gears often tell us that this tolerance spells the difference between maintaining spec or scrapping an entire lot.
Compounded flow modifiers help the resin traverse tight runners and fill intricate details. This aspect has real-world impact: intricate bobbins, snap-fits, or complex ventilation grilles regularly come off the tool with sharp edges and clear form. Unlike pure or cheap-filled variants, which can leave swirl marks or create sags at core points, PA6EB130 gives consistent gloss and edge fidelity, lowering the need for downstream inspection or cosmetic rework.
We’ve watched PA6EB130 become the go-to resin for shops producing automotive under-hood connectors. In these slots, dimensional stability under heat cycles and resistance to chemicals define success. Colleagues on the assembly floor point out that where competitors’ products soften or begin to distort under repeated thermal stress, our polyester-reinforced PA6EB130 maintains critical dimensions even after hundreds of hours. This keeps fitting tolerances reliable, limits warranty risk, and allows higher confidence in automated assembly.
Another frontline usage comes from tool housings and structural brackets where load-bearing and resistance to surface impact matter. Fleets of power tool and electrical enclosure makers push the grade into ribs and bosses that need both rigidity and toughness—without the brittleness of glass-filled competitors. Molded parts keep their form when dropped or handled hard; gate blush and sink marks appear with less frequency, due to controlled filler dispersion and optimized melt flow.
Consumer goods manufacturers, particularly those who value long shelf life and reliable part-to-part consistency, lean heavily on PA6EB130 for translucent and natural color items. It takes colorants uniformly, down to delicate tints, avoiding the off-shades and swirl marks that often mar lower-quality compounds. This has a direct impact on brand reputation, especially with visible or touch-point parts like handles, clips, and frames where aesthetics are a selling point.
Specifications in resin selection matter less when they’re just numbers on a page and more when they reflect repeatable process outcomes. As a manufacturer, we live and die by batch reproducibility. PA6EB130 averages a melt flow index that allows it to fill cavities rapidly without burning or off-gassing, and tensile strength holds up after hundreds of test cycles. The compound avoids brittleness, critical for moving parts or snap-fits that endure repeated flexing.
Compared to unreinforced PA6, parts show significantly less post-mold shrinkage, which translates into near-net-shape in high-precision components. In gear wheels, pulleys, or bushings, where dimensions matter down to tenths of a millimeter, users see less need for post-machining or assembly tweaking.
Some conventional glass-filled grades chase higher stiffness but do so at the price of greater tool wear and brittleness. PA6EB130 balances mechanical strength with ductility, protecting steel tooling surfaces and wear-prone core pins over thousands of cycles. This saves money not just in material performance but in runner cleaning, maintenance downtime, and replacement part expenses.
Working with PA6EB130, we as manufacturers take ownership of every formulation tweak. Field feedback comes back to us in hard numbers—molding temperature ranges, screw torque, part reject rates—not just market trends. By sharing data between production supervisors, process engineers, and our own compounding teams, adjustments happen not just for chart results but for smoother mold releases, easier color matching, and reliable downstream assembly.
CA reverse logistics, including in-plant reclamation and off-grade reprocessing, depend on a stable base polymer. We monitor how regrind mixes back into virgin material, and trace any slight change in flow or surface finish. PA6EB130 holds up well to reasonable levels of clean regrind—meaning floor scrap isn’t wasted, costs stay controlled, and material cycling through process lines remains predictable.
Additive masterbatches work consistently. Anti-static and UV stabilization packages disperse evenly, with feedback from OEM clients who track failure rates in outdoor and electrical applications. By staying involved in secondary blending, we minimize issues with pigment pockets, process haze, or rejected lots. End users report better confidence in switching between lots of compounded colors, with less set-up and no hidden surprises when lined up for full-shift runs.
Not every resin claiming to be 'injection grade PA6' lives up to practical shop expectations. Traders and brokers might offer cost savings, but their batches can vary widely in molecular viscosity, moisture tolerance, and color drift. As direct manufacturers, we maintain stricter control at each compounding step. We audit melt indices on every production run, respond immediately to detected viscosity drift, and only release lots after confirming accuracy—not just against generic numbers, but by producing parts in tool cavities used by our partners.
Experience shows that generic or off-brand variants lack the process window demanded by automated molding cells. They might perform acceptably in the lab but falter when pressed for high output: sudden short shots, sticking, or even corrosion caused by incomplete drying protocols. PA6EB130’s process stability window is proven daily in manufacturing runs that exceed 50,000 shots. Fewer stops, less material waste, reduced risk of operator misfeeds or machine alarms—this translates into efficiency above and beyond just base resin cost.
Some buyers turn to glass-filled or mineral-filled PA6 purely for added stiffness, missing the reality that higher filler content brings more dust, increased tool erosion, and trouble in making tight radii or micro features. Our blend achieves much of the needed strength for common load-bearing tasks without resorting to extreme filler levels. Tools last longer, vents and ejectors clean more easily, and finished parts keep a smoother surface that’s crucial for assembled components, moving parts, or high-finish surfaces.
Lightweighting pressure from automotive and appliance production continues to mount. Engineers look to shed grams from brackets, fasteners, and housings, but won’t sacrifice crash worthiness or aging stability. PA6EB130’s physical balance allows wall reductions in many standard molded parts. Molders switch out heavier filled or higher-cost engineered materials, yet maintain pass rates on impact, chemical compatibility, and thermal cycling tests. Our own applications support reviews show this model often replaces higher-cost engineering resins in cost-down programs, while still passing the required lab protocols.
Electrical and electronic device makers count on insulation resistance and dimensional retention in connectors, coil bobbins, and terminal housings. Where older PA6 grades risked swelling, cracking, or softening near moisture or heat, PA6EB130 exceeds targets in these areas. Users insulate and house delicate windings or contacts, then trust the part won’t drift out of alignment over multiyear life cycles. Suppliers in relay, connector, and coil manufacturing routinely choose to stick with this product line due not just to price, but the hundreds of hours saved in setup, adjustment, and warranty field issues.
Home appliance makers and consumer brand companies give us feedback straight from the inspection floor. Fiberglass and low-grade mineral filled compounds too often cause sink marks or surface pitting, leading to visually inconsistent covers, bezels, or structural frames. PA6EB130’s optimized dispersion and lower filler levels reveal smoother, higher-gloss surfaces that stand up directly to consumer scrutiny. A single changeover reduces order rejections and creates less need for secondary buffing or paint corrections.
We know that true value for molders comes not just from the basic resin, but from the technical partnership. Our technical team walks mold shops through drying, dosing, and backpressure calibrations. Advice comes not just from handbooks, but from direct time spent on manufacturing lines troubleshooting splay, stringing, or incomplete fills. By closing the loop between compounding, pilot tool testing, and customer production, we’ve driven down both learning curves and scrap.
As global manufacturers notch up recycling mandates, reprocessing compatibility becomes central. While high-impact polyamides often suffer from property loss on recycling, clean PA6EB130 regrind blends back with minimal loss in mechanical and visual performance, provided shop discipline in contamination control is tight. This allows forward-thinking companies to keep sustainability contributions high without compromising their part performance—a message resonating strongly with both procurement and sustainability teams looking for practical waste reduction strategies.
Molders looking to streamline their stock keeping or tooling inventories benefit from the consistent shot-to-shot processing behavior. With less drift in viscosity or shrinkage, tool changes and material swaps move faster—tooling stays cleaner, and cycle time variance stays low. We stay connected with these operators, tracking feedback, and using their daily learnings to refine our process controls. This mutual feedback helps us stay ahead of shifting production standards.
Complying with tightening chemical regulations has never been optional for us. PA6EB130 is formulated to avoid legacy RoHS or REACH-concern substances, integrating only approved modifiers and stabilizers. Each batch includes robust QC documentation, so compliance audits move faster, and information is ready for traceability checks. We care not just about paperwork but the safety of the people pouring, handling, and regrinding our resins on the shop floor.
Food contact, potable water certification, or medical device use brings its own challenges. While specific approval depends on the end use, our process lines run dedicated grades to avoid cross-contamination, and technical support teams guide customers on usage compliance. Experience shows that upfront discussion and planning streamline the certification process—avoiding surprises later, and reducing project launch times.
Every week, we take field calls from process engineers trying to squeeze higher outputs, improve cosmetics, or cut rework costs. Offering more than just product, we deliver practical approaches based on years working inside the pressures of real manufacturing. We send out samples, troubleshoot issues side by side, and integrate feedback directly back into compounding logs. Trust grows when every lot molds predictably, and every part meets the dimensions needed, day after day, across continents and industries.
Material quality holds value only if it shows up on schedule, in the right spec, with the batch traceability to match. Across two decades, we've learned that a broken chain means expensive downtime, missed launch windows, or compromised customer trust. Our internal logistics workflow tracks material from the feedstock supplier through compounding, drying, and shipping, so deviation is caught in-house before a single pellet moves. This has helped customers through supply crunches and sudden ramp-ups, especially during unpredictable global seasons.
Having direct control from monomer sourcing, to polymerization, through pellet compounding, eliminates layers of risk that often surface with middlemen traders or brokers. We partner with a select circle of transportation and warehouse agents, auditing them just as we audit our own mixing lines. Finished material moves not by chance but by plan, allowing our customers to lock in production runs with confidence in both arrival and performance.
In plant visits and training, we stress that price savings vanish if variability and missed shipments cause tooling damage or overtime repairs. PA6EB130 sits at the intersection of efficient manufacturing and accountable supply. Each year, we update process guides, alert customers to regulatory shifts or blend modifications, and keep open channels for feedback. This cycle of learning and support does more to drive continuous improvement than any one-time sale or flash discount.
As technical standards rise and automation tightens tolerances, grades like PA6EB130 anchor modern production lines. Shops demand packing density, colorability, and dimensional stability beyond what older commodity nylons offered. Engineers need fewer surprises between batches. Brand managers want color consistency, surface finish, and processability—the trifecta for parts that move from initial mold to end-user hands without issue.
The process of fine-tuning resins to meet market targets isn’t static. We invest continually in material science, monitoring feedback from both mass market and specialty users. New stabilizer packages respond to evolving heat and chemical resistance needs. Compound optimization remains a living process—each tweak responding to data from molders, auditors, and real-world applications, not just internal lab metrics. These refinements push PA6EB130 to meet, and often surpass, industry standards set by much more expensive engineered compounds.
In the end, what matters on the shop floor is not glossy documentation or the latest trend talk, but the dependability of what comes out of the barrel. PA6EB130 Injection Grade Polyamide 6 stands up to scrutiny under demanding conditions, helping companies reduce downtime, scrap rates, and secondary costs. For manufacturers looking for more than just a material supplier—for those who value a partnership grounded in technical transparency and real problem-solving—this grade remains a backbone for high-output, high-quality production.