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HS Code |
874836 |
| Productname | PE Wax Series |
| Appearance | White solid flakes or powder |
| Meltingpoint | 100-120°C |
| Density | 0.92-0.98 g/cm³ |
| Viscosity | 10-100 cps at 140°C |
| Molecularweight | 1500-4000 g/mol |
| Penetration | 1-3 dmm at 25°C |
| Softeningpoint | 95-120°C |
| Acidvalue | < 1 mg KOH/g |
| Particlesize | ≤ 500 microns |
| Solubility | Insoluble in water, soluble in organic solvents |
| Color | White to off-white |
| Odor | Odorless |
As an accredited PE Wax Series factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The PE Wax Series is packaged in 25 kg woven bags, ensuring secure handling and protection from moisture and contamination during transport. |
| Shipping | PE Wax Series is shipped in 25 kg bags or customized packaging upon request. Each bag is securely sealed to prevent moisture and contamination. Pallets are shrink-wrapped for added protection during transit. The product should be stored in a dry, cool area and handled according to standard chemical safety guidelines. |
| Storage | PE Wax Series should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and combustible materials. Keep containers tightly sealed to prevent contamination and moisture ingress. Avoid exposure to strong oxidizers. Store in original packaging and clearly label containers to ensure safe handling and easy identification. Follow all relevant safety regulations and guidelines. |
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Purity 99%: PE Wax Series with 99% purity is used in PVC processing, where it enhances surface gloss and reduces friction during extrusion. Molecular Weight 1500: PE Wax Series with molecular weight 1500 is used in hot melt adhesives, where it provides excellent thermal stability and optimizes setting speed. Melting Point 110°C: PE Wax Series with a melting point of 110°C is used in masterbatch production, where it improves pigment dispersion and uniformity. Particle Size 10μm: PE Wax Series with 10μm particle size is used in powder coating formulations, where it ensures smooth surface finish and increased abrasion resistance. Low Viscosity Grade: PE Wax Series with low viscosity grade is used in printing inks, where it imparts enhanced rub resistance and printability. Stability Temperature 180°C: PE Wax Series with 180°C stability temperature is used in candle manufacturing, where it prevents deformation and maintains burning consistency. High Hardness: PE Wax Series with high hardness is used in polish formulations, where it delivers superior scratch resistance and long-lasting gloss. Oxidized Form: PE Wax Series in oxidized form is used in textile finishing, where it provides improved softness and anti-blocking properties. High Density: PE Wax Series with high density is used in rubber compounding, where it improves processing efficiency and dimensional stability. Low Volatility: PE Wax Series with low volatility is used in lubricant applications, where it guarantees minimal evaporation and extended lubrication performance. |
Competitive PE Wax Series 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 admin@ascent-chem.com.
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Tel: +8615365186327
Email: admin@ascent-chem.com
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PE waxes sit at a special place in any manufacturer’s toolkit. Having produced and refined these materials for years, we see first-hand how well-chosen waxes shape product reliability and process efficiency. Our PE Wax Series comes out of a direct response to real production needs, based on what we encounter on the factory floor and in the specialized requests of end-users. As an integrated chemical manufacturer, not a middleman, we put practical experience into every model in the series and focus on meeting the technical and economic needs of those who work with plastics, rubber, inks, and coatings every day.
Crafting polyethylene wax is more than just polymer engineering. Every batch has to blend key features: melt point, hardness, molecular weight, and consistency. Compared to crude waxes or naturally derived waxes, synthetic PE waxes offer a much higher degree of control over these variables. For example, traditional paraffin wax lacks the abrasion resistance and thermal stability required in many modern processing operations. In contrast, high-density PE waxes—especially those derived via high-pressure polymerization or tailored cracking—resist breakdown and discoloration even under elevated temperatures. This becomes critical as line speeds increase and process times drop.
From our perspective on the production floor, the ability to dial in the viscosity or choose the cut point lets us serve a more demanding set of applications. In ink manufacture, for instance, low-viscosity models spread smoothly without contributing haze or bleeding, while rigid grades support masterbatch compounding without clogging feeders. Customers come to us with issues—tumbling, blocking, die-lip buildup in extrusion—and we address them by tweaking molecular structure or processing parameters. This hands-on engineering approach fosters solutions born from direct practice rather than laboratory guesswork.
Within our PE Wax Series, we offer multiple models, each designed to match distinct process needs. We control chain length and density during synthesis, letting us make hard, brittle types ideal for matting agents as well as softer, lower-melt models that function as internal lubricants. The higher the density and molecular weight, the greater the hardness and abrasion resistance. Lower molecular weight models melt under moderate conditions, supporting applications needing quick flow and fusion.
Our higher-melt models—those above 120°C—see regular use in PVC extrusion and hot-melt adhesives. They allow for smooth extrusion at high throughput, reducing torque and die wear. The moderate-melt series, with melting points between 100-120°C, serve in pigment dispersion, polish and coatings, offering easy incorporation and improved surface characteristics. Low-melt waxes, around 90°C, handle work as processing aids for delicate applications, from cable compounding to delicate film casting.
Our line includes both non-oxidized and oxidized varieties. Non-oxidized PE waxes excel in applications demanding chemical resistance, low reactivity, and water repellency. Oxidized models introduce acid functionality, providing high polarity and good dispersibility in systems containing metal oxides and other polar materials. Experience tells us that pigment dispersions, anti-block agents, and compatibilizer blends all benefit from these chemistries, and regular feedback from partner factories helps us adjust our formulations every season.
The process of improving a polymer masterbatch often brings us into close collaboration with compounders struggling with color streaking or poor pigment yield. We start with a discussion at the pelletizing line, looking for issues such as excess dust, poor granule strength, or wasted pigment. Over time, we’ve seen that incorporating our finely milled PE Wax reduces pigment agglomeration and provides a glossy, uniform appearance not possible with paraffin waxes or fatty acid derivatives.
In rubber processing, mold release and viscosity control set PE wax apart from alternatives like stearates. Heavy compounders, especially those working with high-filler rubbers, find that using our PE Wax Series cuts down on process temperature, controls shrinkage, and supports faster demolding. They also report less scorch and fewer cases of compound breakdown, which points back to the chemistry we design upstream.
Plastic film manufacturers face surface slip, anti-block, and optics challenges daily. The wrong melting range or improper wax dispersion increases haze and surface defects, leading to costly rejections. We’ve addressed these challenges by narrowing the molecular weight distribution and optimizing particle size through targeted micronization. Direct consultation with extrusion technicians helps us understand where current products fall short and where subtle changes produce big savings on downtime or waste.
Hot-melt adhesives rely on both tack and open-time control for reliability on packaging lines. A poorly chosen wax in the adhesive system may create tack loss, overheating, or carbonization at the nozzle. Over the years, direct feedback from users running high-speed, automated lines has led us to adjust melting profiles and control oil content in our mid- and high-melt grades. By maintaining very tight tolerances on melt point and viscosity, we help packaging companies avoid downtime and achieve tight application windows.
Manufacturers often ask about the differences and tradeoffs between PE wax and other common synthetic or natural waxes. As producers, we have experimented with a range of raw materials, including paraffin, Fischer-Tropsch wax, and montan wax. Each wax type has unique density, hardness, and chemical composition. Paraffin waxes, which are petroleum-based, come with softness and solubility that limits their use in high-temperature or chemical-resistant applications. Fischer-Tropsch wax shows increased hardness and higher melting points, but typically has a more brittle profile and a pricing structure prone to volatility due to shifts in gas-to-liquid plants’ operating schedules.
Montan wax, of vegetable origin, offers lower polarity, limiting its function as a dispersant in polymer systems loaded with metal pigments or polar fillers. Beeswax and carnauba add flexibility and gloss in specific coatings, but break down faster under process heat, which isn’t ideal for continuous polymer lines.
Our decades of hands-on production show that PE wax—especially models built with high-density feedstocks and tailored polymerization—balance processing temperature, surface quality, and recyclability. The chemical resistance and abrasion strength of our PE waxes remain stable across a broad range of plastics and rubbers. This means less change-over on lines and less product falling outside spec.
Customers expect reliable, repeatable results. We put a lot of focus on controlling raw inputs and processing variables. The linearity of the polyethylene chain, side-group content, and residual oligomers all influence melting characteristics. Over the years we’ve found that even minor fluctuations in catalyst conditions or reactor pressure make a difference at the compounding stage. A batch that’s just a few degrees off in melt flow ends up causing sticking, uneven dispersion, or pigment striping. By tracking these variables from the reactor all the way through post-polymerization treatments, we reduce batch-to-batch variability, which keeps the material functioning the same way week after week.
Our labs run melt flow and penetration index testing on every lot. These direct metrics tell us if there are outliers and help catch anomalies before material reaches the converter. We use real feedback: a failed extrusion run, a sticky compound, or a pigment settling issue—each gets traced back to the processing variables on our end, not blamed on the downstream user. This direct line from factory to end user supports a transparent, improvement-driven partnership.
Sustainability is not pie-in-the-sky public relations—it's part of our daily operations. Starting with raw material sourcing, we look for feedstocks with lower contamination and traceability back to responsible operations. Polyethylene itself, being widely recyclable and usable in both virgin and recycled streams, gives us more flexibility than waxes sourced from limited or heavily polluting reserves.
Manufacturing process optimization cuts down waste and emissions at several steps. Using closed-loop water cooling, in-process recovery of off-spec wax, and efficient catalyst systems, we’ve trimmed energy use and waste generation year after year. Many of our clients push for compliance with strict local and international standards. Our products meet these demands by undergoing periodic reviews; analytical certification is more than a paper form—it’s a real check on our production discipline.
We invest in R&D work on bio-based blends, testing additions of renewable plant waxes into the PE backbone where application permits. Some results have shown promise, particularly in short-cycle coatings, though challenges in thermal stability remain before full commercialization. We see real movement in the sector as clients, especially those in packaging and consumer goods, ask for greater recycled content while expecting no loss in process performance. That’s a technical challenge, not just a supply chain puzzle.
The real world doesn’t always match the design specs, and waxes are never “fire and forget.” Extruders jam, films block, or coatings fish-eye—often traced back to subtle chemical or physical mismatches in the wax system. Over the years we’ve learned that hands-on, on-site troubleshooting beats abstract theorizing. Working side-by-side with line operators, we test blends, tweak addition rates, and monitor scrap or downtime until the process stabilizes.
We address variable sources of raw resin to keep consistency, even as global supply chains throw surprises our way. We actively test across processing equipment from single-screw extruders to twin-screw compounders, ensuring that no grade is too finicky for industrial throughput. Our technical support team includes engineers who have run batches themselves, not just remote laboratory analysts. We find that troubleshooting starts by listening, not instructing, and by bringing practical experience—not just theory—into every adjustment.
In the field of PVC processing, processors face regular build-up on extrusion dies, yellowing, and increased barrel torque. Our PE Wax Series, particularly mid-melt versions, allow for lower processing temperatures without compromising finish or through-line speed. We run comparative tests that show our wax can reduce energy demand and tool maintenance, leading to higher uptime. Hands-on experience has shown that cheaper, lower-grade waxes actually increase downtime, increasing maintenance and energy costs in the long run.
Masterbatch users need fast, even pigment dispersion and minimal compound loss to dust or fines. Feedback from our partners helped us realize that ultra-fine PE waxes, with controlled micron sizes, encourage stronger pigment bonding and better color transfer. Less dust means cleaner lines and improved worker safety. We keep hearing from operators who moved from non-PE waxes that baghouse or dust collector costs have dropped, a direct savings that doesn’t show up in lab data but means a lot to factory managers.
In hot-melt adhesive manufacturing, application tools must remain free-flowing for long runs, and the adhesive must keep hold after application without excess residue. Our controlled cut-point PE waxes balance open time with set speed, letting processors match adhesive to packaging speed without risking pop-off or delayed set. Long-term users mention fewer shutdowns for nozzle purge, which flows right into greater daily output and less scrap.
On the shop floor, no feedback is too small to consider. We’re not removed from customer problems; our technical team visits downstream plants, collects samples, and analyzes performance in actual process environments. This direct pipeline between user and manufacturer closes the loop, making each series update and every specification adjustment born from use, not guesswork.
We bring feedback back to our continuous improvement meetings. A pigment dispersion issue in one region led to a change in particle size distribution. Reports of excessive smoke during PVC compounding led to a further cut in volatile content through improved distillation. It’s a back-and-forth process, rarely one and done.
We host application seminars and hands-on training for clients who want to get the most from our PE Wax Series, diving deep into day-to-day processing, troubleshooting, and product adaptation for non-standard processes. By offering real discussion and process transparency, we promote an atmosphere where honesty about problems results in better products and less downtime. Open information exchange strengthens both technical and ethical trust, where shortcuts and passive learning don’t cut it.
Clients in high-value applications such as automotive interiors, high-clarity packaging, and medical-grade plastics ask for tighter tolerances, a narrower window on melt point, and a low volatile content. We see increasing demands for traceability, certifications, and green chemistry—all moves that raise the bar not just on performance, but on responsible sourcing and transparency.
On the manufacturing side, new catalyst systems and process automation let us hold even closer tolerances than a decade ago. With bigger emphasis on sustainable and circular chemistry, we invest in R&D ventures alongside pilot lines for biodegradable or bio-based modifications, sometimes blending them in small lots for custom requests. The bulk of market need still favors classic, synthetic PE waxes, but the market evolves as consumer expectations and regulatory frameworks push forward.
Global shifts in resin pricing and supply chain volatility challenge all chemical manufacturers. Our answer remains tied directly to traceable quality, stable sourcing, and a hands-on approach to every lot produced. We maintain diversified upstream relationships and predictive inventory planning, so sudden shocks ripple less through our production schedules. Customers relying on regular shipments benefit from a production partner attuned to market reality, not just laboratory targets.
Producing PE Wax Series products gives us real ownership over supply chain, batch quality, and response to market change. We draw on decades of practical troubleshooting, chemical engineering, and daily feedback from converters, processors, and line operators to keep improving. By staying close to actual use-cases, listening to process engineers, and maintaining a high degree of in-house production control, our PE waxes reflect down-to-earth experience rather than abstract claims. Every improvement—whether in melt performance, batch stability, or sustainability—grows out of the feedback loop shared with those who run the lines, not just those who design the molecules.