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Oxidized Polyethylene Wax S3816

    • Product Name Oxidized Polyethylene Wax S3816
    • Chemical Name (IUPAC) Oxidized polyethene
    • CAS No. 68441-17-8
    • Chemical Formula (C₂H₄)_nO
    • Form/Physical State Solid
    • Factory Site Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry sales3@liwei-chem.com
    • Manufacturer Anhui Liwei Chemical Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    260062

    Product Name Oxidized Polyethylene Wax S3816
    Appearance White powder
    Acid Value Mgkoh Per G 16-20
    Drop Point C 135-140
    Viscosity Cps 140c 200-400
    Density G Per Cm3 25c 0.98-1.00
    Penetration Dmm 25c 2-5
    Molecular Weight 2500-3500
    Hardness High
    Saponification Value Mgkoh Per G 18-22
    Solubility Insoluble in water, soluble in aromatic and aliphatic hydrocarbons

    As an accredited Oxidized Polyethylene Wax S3816 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Oxidized Polyethylene Wax S3816 is packaged in 25 kg woven polypropylene bags with an inner polyethylene liner for moisture protection.
    Container Loading (20′ FCL) Container Loading (20′ FCL) for Oxidized Polyethylene Wax S3816: 16 metric tons packed in 25 kg bags on pallets, maximizing space efficiency.
    Shipping **Shipping Description for Oxidized Polyethylene Wax S3816:** Oxidized Polyethylene Wax S3816 is packed in 25 kg bags, protected against moisture and contamination. Store and transport in cool, dry, well-ventilated areas, away from direct sunlight and incompatible substances. Non-hazardous for general transport (not regulated by ADR/RID/IMDG/ICAO). Handle with care to avoid product spillage and dust formation.
    Storage Oxidized Polyethylene Wax S3816 should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible materials such as strong oxidizers. Keep the container tightly closed to avoid contamination and moisture absorption. Ensure storage areas are clearly labeled and follow all safety data sheet (SDS) recommendations for safe handling and long-term stability.
    Shelf Life Oxidized Polyethylene Wax S3816 has a shelf life of 12 months when stored in a cool, dry, and well-ventilated area.
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    Certification & Compliance
    More Introduction

    Oxidized Polyethylene Wax S3816: Manufacturing Quality and Proven Performance

    Shaping Results Through Consistent Manufacturing

    Every production run presents the same challenge: achieving reliable performance batch after batch. As a manufacturer, we see firsthand how Oxidized Polyethylene Wax S3816 delivers results in demanding applications. Our focus through the years has always been simple—fine-tune each reaction, control ingredient quality, and monitor oxidation so every batch performs the way processors expect. With S3816, we've fine-tuned the oxidation level so it balances hardness and melt flow. This control is not possible with basic polyethylene waxes or commodity oxidized products from inconsistent sources.

    Operators and technical managers tell us the difference once they shift to S3816. Surface slip improves in color masterbatches, dispersion stays even, and equipment downtime from plugging or agglomeration drops. These facts are clear when running inline film casting or injection molding where wax migration, blooming, and plate-out can stall production lines. Consistent oxidized chemistry also gives downstream blending more predictability—there is less need for repeated process tweaks or corrective rework. In PVC formulations, S3816 integrates with stabilizer systems, lubricates at precisely controlled rates, and reduces issues like die build-up or plate-out, saving time and raw material costs.

    Composition That Makes the Difference

    Oxidized polyethylene waxes can look similar in a specification list. Many are blended or made from low-purity feedstocks, causing headaches later. With S3816, we manufacture from high molecular weight polyethylene, oxidized using tightly monitored conditions. This process lets us achieve an acid number between 16 and 20 mg KOH/g, which is the range most converters find optimal for balancing internal and external lubrication in PVC, as well as providing easy dispersibility in aqueous and non-aqueous systems.

    Melting point matters in real-world manufacturing. S3816 maintains a consistent melting range around 120°C to 130°C, letting processors avoid surprises caused by minor changes in production conditions. Unlike imprecise blends or batches with variable melt points, S3816 reacts the same way every time. This efficiency translates into better throughput and reduced waste since line operators do not have to continually adapt to shifting wax properties.

    Applications in the Trenches

    Manufacturers share feedback from film extrusion, hot-melt adhesive, cable filling, and polish production lines. In color concentrates and masterbatch, S3816 wets pigment surfaces and helps distribute particles evenly. This means fewer pigment streaks, better color intensity, and a measurable drop in rejected product. Compounders report smoother flow in twin-screw extruders and faster color changes. S3816’s oxidative groups give it emulsion-building properties, and this proves crucial for formulating water-based wax emulsions used in coatings, floor finishes, and textile treatment.

    PVC processors, especially those producing window profiles, rigid pipes, and calendered sheets, get the advantage of steered lubrication. Unoxidized waxes often cause fusion problems or uncontrolled migration, which lead to surface defects and equipment fouling. Our experience producing S3816 tells us the controlled oxidized surface groups reduce such risks, especially where extrusion speeds run high and demand stable output.

    Hot-melt adhesive manufacturers deserve particular mention, since S3816’s polarity means it integrates smoothly with tackifying resins. The end result: better block resistance, improved flexibility at lower temperatures, and adhesives that last longer in field use. Even in cable filling compounds, where purity and particle size influence performance in harsh outdoor settings, S3816 provides a consistent fill and remains stable across temperature swings.

    Comparing S3816 to Other Oxidized Polyethylene Waxes

    Over the years, many buyers have shared stories of shipments from traders or resellers that led to variable results. Wax discoloration, uneven acid numbers, or changing melt points force process engineers to compensate daily—sometimes running lines slower just to get through a batch. S3816 emerged out of feedback from compounders and processors who lost patience with batch-to-batch variability. With in-house control over every stage from polymerization to final oxidation, S3816 avoids common pitfalls.

    Other oxidized waxes, particularly those from recycled polyethylene streams or made in uncontrolled batch reactors, often swing too far in acid value. Too high and the product draws in moisture or destabilizes blends; too low, and the performance looks more like a basic polyethylene wax with poor wetting. S3816 rides the midpoint. The melt viscosity also stands out: our longstanding customers notice how S3816 flows easily without causing molding issues or die buildup. We do not rely on blending with paraffin wax or cheap fillers, so processors never face separation or sifting problems in storage silos.

    Technical Realities on the Plant Floor

    Plant engineers care about more than data sheets. They want products that drop into the current process and run predictably under pressure. With S3816, downtime from filter blockages or unexpected wax blooms fades into the background. Our R&D work has always returned to the same insight: too much focus on laboratory values only goes so far. Steady performance under commercial production loads, especially where screw speed ramps up or additives shift by season, is what builds trust in a raw material.

    Feedback loops between quality labs, line supervisors, and our own reactor operators led us to fine-tune particle size and oxidation degree for S3816. We worked with extrusion techs who flagged plate-out on dies, worked alongside color masterbatch line leads struggling with inconsistent melt flow, and followed up with adhesive formulators troubleshooting cold-cracking in storage. These conversations ended up shaping the routine QC checks for every drum or bag leaving our plant.

    Moisture stability presents one more critical point. Poorly oxidized waxes often absorb water during storage or transport, leading to clumping or microbiological growth. Our process ensures S3816 remains dry, free-flowing, and handles without dusting—saving time on silo cleanouts or dust collection.

    Long-Term Value, Not Just Short-Term Yield

    Price pressures in manufacturing remain constant. Management pushes for margins, customers demand price holds, and line operators want zero headaches. In this landscape, it becomes tempting to cut corners with unbranded waxes from intermediary suppliers. But the quiet cost of inconsistent batches grows over time: more rework, unpredictable product releases, unplanned line stops, and sometimes customer complaints reaching a sales desk.

    Our partners in Asia, Europe, and South America measure value more by stable operation than by a fraction of a dollar per kilo. Over a decade, their plant managers find less maintenance downtime, reduced filter changes, and less off-grade waste when they stick with S3816. The product maintains its melt behavior and surface activity, even under continuous 24/7 operating cycles.

    Warehousing teams report S3816 remains stable over long-term storage through humid summers and freezing winters. We package each batch with dust-free handling in mind. Line operators notice quick hopper discharge and fewer bridging events. While these daily experiences do not always make it to a spreadsheet, they affect how a plant runs and how end customers perceive finished goods.

    Meeting Evolving Industry Demands

    A lot has changed on the technology front over the past decade. Compounding lines now run faster, pigment loadings sit higher, customers want sharper color and lower VOCs, and regulatory scrutiny continues rising. In this reality, the right wax selection filters through all these requirements.

    S3816 finds its use where recycled content is blended into virgin feedstock. Unsaturated hydrocarbon waxes or synthetic amides often fail to blend, causing gels or stuck screens. By contrast, S3816 disperses fine filler and pigment particles, maintains color integrity, and adjusts to resin changes on the fly. Process support teams tell us their reject rates drop and quality complaints taper off after switching to S3816, especially on lines switching between high filler masterbatches and pure colorants.

    Eco-Footprint and Regulatory Confidence

    Customers face mounting pressure for cleaner products and risk management. With S3816, there is no need for regulatory doubt. Our manufacturing stays free of heavy metal catalysts, and no halogenated compounds enter the process. Chemical footprints attract audit attention, especially for export to regions with strict rules. Over the years, clients passed third-party testing and field audits without compliance failures linked to our product.

    S3816 also performs in water-based systems where low VOC requirements knock out conventional waxes blended with oils or solvents. Polishes, textile finishes, and aqueous coatings benefit from S3816 because it stabilizes emulsions without extra surfactants or co-solvents. End-users in institutional and consumer products notice improved scratch resistance and longevity on coated surfaces.

    After large-scale factory audits at our site, visiting compliance engineers confirm plant hygiene, stable raw material sourcing, and zero cross-contamination between production lines. For customers exporting finished goods, this assurance saves time with customs paperwork and import compliance.

    Collaborative Development and Application Support

    We know buyers do not just want a drum dropped off. Real-world conditions call for customization and technical feedback. Since launching S3816, we have partnered with processors who require tailored solutions: finer particle sizing for water-based wax emulsions, specialty additive blending for cable-filling, or unique color systems for high-end flooring.

    Application engineers work alongside our team to check dispersion in trial batches, melt performance in different screw geometries, and anti-blocking effectiveness across diverse substrates. Our lab team runs real-line simulations—not just beaker tests—to track how S3816 behaves through heat cycles, exposure to UV, or under mechanical stress. Customers gain a technical backstop, not just another wax order.

    Feedback driven innovation strengthened S3816. For example, PVC panel manufacturers struggled with surface gloss under fast-run calendering. Through collaborative trials, we adjusted acid number and particle distribution, resulting in a surface finish that passed rigorous end-use testing.

    Continuous Improvement and Future Directions

    Markets shift and end-use requirements evolve. As manufacturing environments move toward more automation, predictive analytics, and tighter batch tracking, the need for consistent additives grows. S3816 responds to these challenges not through reactivity, but by anticipating where problems might emerge. In the face of new pigments, novel stabilizer packages, or bio-based resins, we keep in conversation with processing leads to adapt our product.

    Our team maintains open lines for customer questions—be it melt indexing queries, pigment compatibility assessments, or process optimization. Innovation cycles build on what hasn't worked in the past: by listening to firsthand feedback from plant managers and seeing where previous additives fell short, we shape S3816 to better address practical needs.

    We have projects underway with industry partners to further lower acid number fluctuations across each lot. New trials investigate higher-sheer processing scenarios in film and sheet lines running novel formulations, as well as expanding S3816’s application range in next-generation adhesives and coatings.

    Practical Confidence from the Manufacturing Floor

    As the team behind S3816, we see all sides of wax performance, from reactor to bagging to warehouse. The stories suppliers share of interrupted lines, clumping, surface haze, or stubborn plate-out remind us why tight control at each step pays off. S3816 did not emerge from abstract lab work, but from plant floors under deadline pressure—where products must work day-in, day-out.

    For processors seeking predictable melt, stable acid value, ready dispersibility, and straightforward storage, S3816 stands out because the quality control begins right upstream, not halfway downstream on a distributor’s lot. When customers call about optimizing blend ratios or troubleshooting unexpected process stops, they talk directly with manufacturing engineers who have supported countless plant trials.

    The world of polymer processing rarely stands still. With rising demands for product transparency, safer additives, and process resilience, S3816 continues to adapt. Through ongoing investment in upstream sourcing, automation, and laboratory benchmarking, we commit to delivering more than just a specification sheet—the aim is long-term support, guaranteed consistency, and a wax that pulls its weight on the line.