| HS Code | 726952 |
| Chemical Formula | (C2H4)n |
| Molecular Weight | Approximately 28.05 g/mol per repeat unit |
| Density | 0.91–0.97 g/cm³ |
| Melting Point | 105–135°C |
| Glass Transition Temperature | -125°C |
| Appearance | Translucent to opaque solid |
| Solubility In Water | Insoluble |
| Tensile Strength | 10–50 MPa |
| Elongation At Break | 90–950% |
| Thermal Conductivity | 0.33–0.52 W/m·K |
| Electrical Resistivity | 10^17 Ω·cm |
| Flammability | Highly flammable |
As an accredited Polyethylene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Polyethylene, 25 kg, is typically packaged in sturdy white woven plastic bags, featuring clear labeling, batch number, and handling instructions. |
| Container Loading (20′ FCL) | For Polyethylene, a 20' FCL typically holds about 22-25 metric tons, packed in 25 kg bags or jumbo bags, palletized. |
| Shipping | Polyethylene is shipped in various forms such as pellets, powders, or resins, typically packed in multi-layered bags, drums, or bulk containers. It is non-hazardous but should be stored and transported in cool, dry conditions, away from direct sunlight and incompatible materials to prevent contamination and degradation. Ensure packaging is secure. |
| Storage | Polyethylene should be stored in a cool, dry, well-ventilated area away from direct sunlight, heat sources, and strong oxidizing agents. Containers should be tightly sealed to prevent contamination and dust accumulation. Storage areas must be free from ignition sources, as polyethylene is combustible. Avoid exposure to mechanical stress or strong acids to maintain material integrity and safety. |
| Shelf Life | Polyethylene generally has an indefinite shelf life under proper storage conditions, remaining stable and usable for many years without significant degradation. |
Polyethylene, as produced in our facility, supports high-volume manufacturing across diverse downstream segments. Its chemical consistency, customizable grades, and processability make it fundamental to industries that demand reliable material performance. Below we outline key application domains, including compliance reference, usage approach, production fit, and typical end-product class for each.
Modern packaging manufacturers rely on polyethylene to produce thin films and laminates for fresh food, pharmaceutical, industrial, and retail packaging. Its chemical inertness and controlled physical properties are crucial for preserving product quality and facilitating high-speed conversion lines. Blown or cast film processes integrate specific grades designed for puncture strength, clarity, and heat-sealing, resulting in a range of flexible packaging formats widely adopted by FMCG and logistics companies.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Container manufacturers use polyethylene grades tailored for extrusion blow molding and injection blow molding to produce durable bottles, drums, and jerrycans. Properties such as chemical resistance, environmental stress crack resistance, and moldability are essential for holding a broad range of contents, from beverages to industrial cleaners. Material selection covers different melt indices and densities for applications requiring specific wall strength or flexibility, while additives may optimize UV and impact resistance in outdoor exposure.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Utility infrastructure and irrigation network manufacturers depend on pressure-rated polyethylene grades to produce water supply pipes, cable protection conduit, and agricultural drip tubing. Polyethylene's toughness, flexibility, and corrosion-proof nature ensure operation under wide-ranging field conditions. Pipe extruders adjust formulation for impact, slow crack growth, and weatherability, meeting potable water or buried conduit standards as required in municipal and industrial installations.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Injection molding operations utilize polyethylene for precision-molded parts such as closures, caps, storage containers, and consumer houseware goods. Formulation depends on requirements for tensile strength, clarity, food safety, and dimensional stability under load. Cycle time reduction and mold release additives may be used to maximize productivity in high-cavity tooling used for fast-moving consumer goods industries.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Wire and cable producers select polyethylene grades formulated for electrical insulation and jacketing due to their superior dielectric properties, moisture resistance, and processing consistency. Processing parameters focus on the extrusion of uniform, pinhole-free coatings, and manufacturers may add flame retardants or UV stabilizers based on end-use requirements. Compliance with electrical safety and environmental directives is stringently controlled in automated cable manufacturing environments.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Manufacturers in the rotational molding sector utilize polyethylene in powdered form for large, seamless, hollow items where impact resistance, chemical inertness, and uniform wall thickness are vital. Thermal cycle consistency and compound dispersion within the mold define product strength and longevity, which is critical in agricultural, industrial, and water storage sectors subject to environmental exposure.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Competitive Polyethylene prices that fit your budget—flexible terms and customized quotes for every order.
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For decades, we have poured our expertise and resources into mastering the production of polyethylene. Our teams work every shift right at the reactor line, tuning process conditions to get the resin quality customers count on. We design our LDPE, LLDPE, and HDPE models for specific and proven uses, based on what end users tell us works well on their lines. Chemistry drives performance, but there’s no shortcut for listening to processors and plastic product makers, tracking melt flow rates, flexural modulus, clarity, or environmental stress crack resistance. Each resin batch gets sampled, inspected, and tested across properties to ensure consistency.
Our location gives us access to reliable feedstocks, and we control supply every step from catalysis, to pelletizing, to packaging. The experience of running these reactors turns up every difference among base grades. By tuning catalysts and process parameters, we maintain batch-to-batch uniformity, cut down on gels and inclusions, and keep the physical properties targeted to customer demand—not what happened to come out of the reactor that day.
Polyethylene gets chosen for daily products because it balances flexibility, toughness, and simplicity of processing. It flows efficiently during film casting and blow molding, cools quickly, seals cleanly, and resists most chemicals in typical consumer and industrial environments. Polyethylene does not absorb much moisture, so finished parts keep dimensional stability from shipment to final use. Our approach, informed by real feedback from bagmakers, bottle manufacturers, sheet extruders, and pipe fabricators, means we can adjust melt index, density, or chemical stabilizers depending on the final job. Polypropylene runs stiffer and at higher temperatures, but polyethylene gives better impact at cold temperatures and easier weldability—it’s the backbone in milk bottles, shrink films, and storage tanks because it simply does the job, time after time.
PVC and polystyrene have steeper learning curves on processing and need more complicated stabilizers. Polyethylene, built from only ethylene monomers, offers mostly one variable—the branching and molecular weight. That means fewer surprises during extrusion or molding. That reliability matters when customers schedule a large volume production run where one batch holds up delivery for a branded retail product line. In our factory, consistent resin density and melt flow come directly from controlling the process, not guessing what a supplier upstream sent over.
From the outset, we recognized that converters need both versatility and reliability. That’s why our LDPE grades focus on clarity and heat seal properties, particularly for film converting lines. Grocery bags, bread packaging, and dry cleaning covers depend on precise melting and low “gel” counts. We also manufacture LLDPE with higher puncture and tear strength, prized in stretch wrap and heavy-duty agricultural films. HDPE makes up our largest capacity—here, density and molecular weight win out because customers demand stiffness, chemical resistance, and a predictable balance of stress crack resistance and processability. Each of these grades comes in several models, tuned for slip, anti-block, or clarity naturally through the base resin, not a handful of extraneous additives.
Our HDPE lines supply bottle makers looking for good environmental stress crack resistance at lower wall thickness. For high-strength pipe, we select resins with higher molecular weight distribution to maximize long-term pressure ratings. Our LLDPE goes into courier bags, where toughness and sealability must coexist for automated packing lines. LDPE from our low-pressure autoclave reactors runs clear, seals at low temperature, and resists pinholing, which is crucial for food packaging. Our lineup directly reflects real-world processing experience, testing, and feedback from the field—not just theoretical values in a lab.
We invest in continuous upgrades to catalyst technology, measuring every metric from drawdown behavior to pellet shape. That’s how our chemical structure remains on-target every week of the year, providing processors with melt indexes that don’t drift out of spec mid-campaign. Knowing customers expect resin that just works, we keep structural consistency first, well above cosmetic claims or unmeasured marketing points.
The daily pace on an extrusion floor gives little room for guesswork. Our operations recognize this, so we ship only resins that have been through repeated process simulation: blown film lines, cast film, tubing, injection molding, or rotational molding. Each series comes tailored for its job, eliminating the need for extra modification on customer equipment. Polyethylene must deliver expected performance under real-world conditions—maximum load during shipping, impact from drops at low temperature, or continuous flex during use.
For packaging converters, consistent clarity, fast sealing, resistance to splits, and predictable slip are the result of close collaboration between our R&D team and plant operators. Our pellet sizing and conditioning allow for fast, uniform melting, short start-up scrap, and reliable throughput on newly started or aging extruders alike. HDPE customers, especially in industrial settings, value not just resistance to corrosive chemicals, but also rigorous traceability of each batch; we embed quality checkpoints throughout production to ensure this. Polyethylene’s overall reputation for safety, ease of recycling, and food contact suitability rests, in large part, on everything built into our process.
We talk daily with customers running pipe lines, agricultural film, or blow-molded containers, learning which small flaws slow down their process. We then work to root out sources, be it dust from pelletizing, altered molecular weight, or a shift in gel counts. No spec sheet will teach what one hour on the plant floor shows—and that perspective has shaped how we refine both models and logistics. We run our own in-house packaging lines, putting our resin to the same test as any customer, learning alongside them, not just shipping and forgetting the product at the dock.
LDPE, LLDPE, and HDPE differ in structure, but also in the small things that affect processing every shift. LDPE brings excellent optical clarity. LLDPE’s chain structure delivers more puncture resistance without sacrificing drawdown at lower thickness. High-density grades resist environmental chemicals, offer rigidity, and withstand long-term exposure to stress or load. Food packaging lines lean on LDPE and LLDPE for low seal initiation temperature and strong, flexible films that stay tough in freezers or on heated trays. HDPE shows its strength in containers, drums, tanks, and pipes—applications needing both toughness and shape retention.
Where polypropylene might fit some applications requiring rigidity and higher thermal tolerance, polyethylene shines under repeated stress, impact at lower temperatures, and its forgiving nature during workmanship. Polypropylene often demands higher processing temperatures and lacks the impact stability when subject to sudden knocks—important in cartons that might slip during shipping or bottles squeezed in a grocery bag. PVC brings chemical resistance and use in rigid forms, but requires more additives and can give off volatiles during processing or disposal. Polyethylene’s structure, lacking chlorine or phthalates, gives a cleaner environmental profile and easier recycling.
Polyethylene grades also differ in how additives are managed. We design ours with polymer structure as the keystone, using minimal external slip agents, anti-block, or antioxidants. This means films or pipes fabricated from our resins require less adjustment during blending and offer better long-term aging under field conditions. Customers confirm this with project after project that stays in spec over years rather than just days.
Polyethylene makes up the backbone of applications most people use daily, from shopping bags to medical tubing. We see our customers converting resin to blown film for shrink wrap or produce bags, running high-speed lines that cannot afford jamming or uneven film quality. Food companies depend on clean, low-odor, contaminant-free resins every shift—this pushes us to keep an even tighter watch on every batch, verifying migration limits, odor profiles, and clarity in every finished lot.
Industrial users turn to HDPE for pipe systems, tanks, and heavy-duty pallets because it resists stress, holds up in the sun, and shrugs off aggressive cleaning chemicals. We produce resins meeting pressure rating demands for potable water or gas piping. Producers mold medical components from our cleanroom HDPE, knowing the resin will not change properties or introduce unwanted chemistry. LLDPE sees heavy use in stretch wrap for pallets, silage films, and flexible liners, where toughness at low gauge provides value, not just tolerance for cracks or pinholes.
From our first year manufacturing polyethylene, customers taught us how quickly production can come to a halt from the wrong resin choice. It is not just about physical properties, but also the way pellets feed, the tendency for gels to cause weak zones in film, or the balance of anti-static behavior. Every application tests limits—food wraps needing no taste transfer, medical tubes requiring purity, geomembranes exposed to UV, or cable sheathing demanding insulation with the right softness. Our responsibility remains steady: align resin models directly with these application realities.
We stand in a unique position compared to resellers or generic marketers. Every pellet leaving our plant was monitored from ethylene feedstock through polymerization, reactor tuning, melt filtration, and the final cut—whether shipped in bulk truck or packaged in sacks for small-line converters. Quality is not just about lab sheets but about how quickly a blown film operator can ramp up line speed or a pipe maker can pull in-wall thickness under control. Our technical teams answer direct calls from production facilities, not just sales offices, so feedback returns to the reactor floor where it matters most.
Experience has taught us that small process upsets cause big downstream headaches. For this reason, we put extra investment into sensors, analytic tools, and real-time data collection at every stage. We test each lot for the traits that impact daily processing—gel count, fines content, black specs, color, and melt consistency—because that is where things fall apart in the field. Long after marketing talk or spec sheets come and go, what matters is that processors achieve their planned output without unscheduled downtime or rework.
Even after the resin departs our warehouse, our technical support stays engaged with customers through trials or problem-solving, whether it is resin compatibility with a new color masterbatch or troubleshooting streaking in high-speed blown film. From building in traceability, to customizing resin grades for unique niche markets, we prioritize direct dialogue and shared problem-solving, not just contractual delivery.
With regulations and public demand moving toward greater safety, food contact assurance, and low-environmental impact, our processes evolve constantly. We develop grades with lower extractables, certified for direct food packaging, pharmaceutical contact, or potable water. Sustainability pressures led us to streamline polymerization for reduced emissions, to reuse process water, and to minimize waste by valorizing off-spec resin streams.
Recyclability starts right at the process window; resins designed for easy reprocessing cut waste in converter plants and make finished products easier to recover or blend back into new product cycles. Our close relationships with reclaimers and recyclers inform resin choices, not just for clarity or strength, but also for ease of re-melting and re-extrusion. By avoiding legacy additives that complicate reprocessing—like heavy metal stabilizers or certain flame retardants—we help processors who want to run closed-loop scrap lines or use post-consumer resin in blends.
Many customers focus on minimizing total carbon footprint or certifying bio-attributed resin inputs. We respond by integrating feedstocks from certified, lower-carbon ethylene sources. For green procurement, we make sure life cycle analysis and chain of custody are clear, not just plausible claims. Our plant audits, emission controls, and transparent reporting have earned confidence from converters who must trace raw materials back to the polymerizer.
Processors running LDPE or LLDPE films for food packaging care about easy sealing, consistent roll formation, and minimal start-up waste. We help with processing tips, troubleshooting, and rapid lot traceability, making sure film lines can run continuously and qualify finished goods efficiently. Pharmaceutical and medical device manufacturers often adjust for extractables, leachables, or sterilization stability—properties that we tune directly at the synthesis and finishing stages, then confirm by rigorous external testing.
Pipe and tank producers look to our HDPE for high strength-to-density ratios, confidence in batch traceability, and proven quality in demanding installations. Our teams walk the shop floor, not just the laboratory—tuning process conditions and working to reduce stress cracking, optimize weldability, and ensure that critical pressure pipe or container production runs don’t get interrupted. For agricultural applications, LLDPE’s value lies in ongoing resistance to moisture, sunlight, and field abuse; we upgrade these resins with tailored UV stabilizers and anti-block only after careful field trials, not just laboratory speculation.
Because batch uniformity impacts every downstream process, we continually refine our protocol for additive blending and mixing, using in-line compounding to minimize dust, segregate incompatible additives, and even offer pre-color masterbatch compatibilization when required. This responsiveness and willingness to fine-tune directly with customers differentiates us from “catalog sellers” who cannot adapt fast enough to real-world demands.
Daily production runs surface real-life challenges—jelly content, print defects in films, neck-in problems, slip variability, gel plugging screens, or haze variations under seasonal temperature swings. We approach each by tracking process data, running side-by-side customer trials, and tuning reactor or extruder settings to dial in performance. Many resin issues reveal themselves not in the lab but on line: hanging chads on cut seals, scratchy feel in film, unforeseen plate out during calendaring, or stuck closures on injection-molded bottles.
Instead of only pushing product out the door, we keep our polymerization set-ups flexible, adjusting molecular design or pellet finishing when recurring customer feedback pinpoints trouble. Our line supervisors work hand-in-hand with plant operators on solutions—sometimes even rethinking feeder designs, filtration mesh, or pellet cooling to eliminate the problem at its source. This hands-on, results-driven attitude grows out of years spent building not just product specs, but end-to-end solutions. We do not toss product over the fence but stay engaged as the true partner in quality and reliability.
The marketplace for polyethylene never sits still. Down-gauging trends, recycled content requirements, and new food safety standards all drive our product development. Our labs now focus as much on resin reusability and low-volatile performance as on standard physical properties. Customer conversations lead us to create new models—like high-clarity LLDPE for retail film, or super-clean HDPE for medical transfer containers. With improved catalyst chemistry and process automation, we continue to produce tighter molecular weight distributions and more predictable processing, cutting conversion costs for every processor.
For automobile, wire and cable, and energy markets, our R&D brings in newer grades that resist stress, UV, and moisture, while keeping the throughput and energy-efficiency high. We invest directly in process upgrades so that every model ships with tighter specifications and checked, traceable supply chain documentation. Our field support teams run real-production trials on site, analyzing not just whether a resin “can” work, but how it actually performs on a 24/7 production cycle.
We see a growing demand for resins blending renewable-sourced ethylene or facilitating upcycling—applications where legacy thinking no longer applies. Rather than simply following, our facility upgrades let us respond quickly as applications and requirements shift, keeping our customers ahead in emerging packaging, construction, or durable goods markets.
Looking back across years of production, the core lesson remains unchanged—delivering polyethylene, whether LDPE, LLDPE, or HDPE, takes practical experience guiding technical decisions every day. End-use realties, not distant marketing claims, shape our resin lineup and every improvement we pursue. From the reactor floor to customer troubleshooting, we stay hands-on and results-focused, because that is what keeps films clear, pipes strong, bottles tough, and converters coming back.
We do not rely on guesswork or big promises; our reliability springs from control at every step, knowledge gained by working side-by-side with those using our resin in demanding, ever-changing market conditions. Polyethylene, produced directly and carefully, delivers when you need it. That’s what we stand on and what we build every day for our customers.