| HS Code | 680393 |
| Product | Hanwha HDPE 3080 |
| Density | 0.958 g/cm³ |
| Melt Flow Rate | 0.30 g/10 min (190°C/2.16 kg) |
| Tensile Strength At Yield | 26 MPa |
| Tensile Strength At Break | 30 MPa |
| Elongation At Break | 600% |
| Flexural Modulus | 1200 MPa |
| Vicat Softening Point | 125°C |
| Brittleness Temperature | -70°C |
| Hardness Shore D | 66 |
| Environmental Stress Crack Resistance | >1000 hr (10% Igepal) |
| Melt Temperature | 180-210°C |
| Water Absorption | <0.01% |
| Dielectric Strength | 20 kV/mm |
As an accredited Hanwha HDPE 3080 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Hanwha HDPE 3080 typically comes in 25 kg PE-lined bags, palletized, and 1,000 kg jumbo bags for bulk shipment. |
| Container Loading (20′ FCL) | Hanwha HDPE 3080 in 20′ FCL: 25 kg bags, palletized, approx. 20 MT net; non-hazardous, securely stowed for export. |
| Shipping | Hanwha HDPE 3080 is a non-hazardous high-density polyethylene resin. It is not regulated for transport by DOT, IMDG, IATA, or ADR. Ship in sealed 25-kg bags, jumbo bags, or bulk containers; keep dry, cool, ventilated, and away from ignition sources. No UN number or hazard class required. |
| Storage | Store Hanwha HDPE 3080 in a cool, dry, well-ventilated warehouse, away from direct sunlight, heat, moisture, and ignition sources. Keep original bags or containers sealed and palletized; avoid contact with strong oxidizers. Maintain ambient temperature, use first-in, first-out rotation, and protect from UV exposure and physical damage to prevent degradation or contamination. Do not stack beyond safe limits. |
| Shelf Life | Hanwha HDPE 3080 has an indefinite shelf life when stored cool, dry, away from direct sunlight and moisture in sealed packaging. |
Hanwha HDPE 3080 is an injection-moulding-grade high-density polyethylene with a nominal melt mass-flow rate of 8 g/10 min at 190 °C/2.16 kg when tested under ISO 1133-1:2022 or ASTM D1238-23, and a nominal density of 0.960 g/cm³ under ISO 1183-1:2019. The downstream applications selected below are limited to injection-moulded segments in which that flow-length capability, crystallinity, and ambient-impact resistance produce measurable processing or end-use advantages. Each segment reports the applicable compliance anchor, formulation addition ratio, downstream production process, and terminal article classes. Published data for the exact grade configuration should be confirmed against the current technical datasheet and any food-contact certification letter before commercial release.
At a nominal wall thickness of 0.6–0.9 mm, thin-wall dairy and deli containers produced from Hanwha HDPE 3080 shift the controlling variable from melt temperature to injection-rate-dependent cavity filling. The melt mass-flow rate of 8 g/10 min at 190 °C/2.16 kg permits high-speed linear flow in hot-runner multi-cavity tooling, but edge-gated parts with flow lengths above 150 mm require peak cavity pressures in the 350–600 bar range and screw-forward velocities above 120 mm/s to prevent flow hesitation at ribs and bases. Under EU Regulation 10/2011 and FDA 21 CFR 177.1520(c), the formulation must limit masterbatch addition to 2–3 wt% of a food-grade polyolefin carrier colour concentrate; the exact ratio depends on wall thickness and targeted opacity, and the masterbatch supplier must provide a declaration of compliance covering the specific migration simulant and overall migration limit of 10 mg/dm². Barrel temperatures are typically profiled from 180 °C in the feed zone to 220 °C at the nozzle, with a mould temperature of 15–35 °C; higher mould temperatures improve surface gloss but extend cooling time beyond the 6–10 s per cycle typical of four-cavity stack moulds on 3,000–6,000 kN hydro-mechanical clamps. Downstream converters run high-cavitation stack moulds with valve-gated hot runners, robotic side-entry in-mould labelling, and automatic pack-off. Terminal outputs include dairy spread tubs, margarine containers, fresh produce portion cups, and freezer-storage bases rated for household freezer conditions. The operating boundary is thermal rather than mechanical: continuous hot-fill above 70 °C is outside the validated scope for these thin-wall articles, and published data for this specific configuration is limited, so a controlled packaging test under the converter’s fill-and-seal line conditions is required before release.
Closure moulders running 32- to 96-cavity stack moulds with hot-runner valve-gate systems evaluate Hanwha HDPE 3080 principally for its ability to fill thin-walled tamper-evident overcap shells and snap-on lids without excessive injection-pressure spikes. In this segment, the addition ratio is typically 1–2 wt% of colour masterbatch, and where a reduced coefficient of friction on the tamper-evident band is required, an erucamide slip masterbatch is added at 0.1–0.2 wt% measured as active slip agent. Under EU Regulation 10/2011, the finished article must not exceed the overall migration limit of 10 mg/dm² when tested under the intended food-contact simulant conditions defined in Annex III and Annex V. Processing conditions on production-scale equipment use barrel profiles from 200 °C to 230 °C, mould temperatures of 10–25 °C, and injection speeds above 150 mm/s to maintain melt-front velocity through the bridge webs of tamper-evident bands; the cavity pressure at transfer should be maintained near 400–550 bar to stabilise the witness line on the band hinge. Compliance for carbonated-beverage closures is not assumed because hoop stress and environmental stress-cracking resistance measured to ASTM D1693, Method B are formulation-dependent. Terminal closures include still-water snap-on lids, dairy snap caps, infant formula overcap shells, and detergent measuring-cap shells where chemical resistance allows.
In industrial pail tooling, the operating wall-thickness range of 1.8–2.5 mm makes cycle time dependent on cooling-channel placement rather than melt filling. The standard addition ratio for outdoor and chemical-exposed pails is 2–4 wt% of UV-stabilized high-density polyethylene masterbatch and 2–5 wt% of pigment masterbatch depending on brand-matched colour intensity; for dangerous-goods packaging, the masterbatch carrier must be an olefin base compatible with UN packaging performance qualification and must not reduce the pail’s drop-test robustness. Downstream production uses single-face or dual-face hot-runner tools with 4,500–15,000 kN clamp tonnage, central sprue or valve-gated centre entry, injection velocities of 50–90 mm/s to prevent jetting, and holding pressures of 400–600 bar for 8–15 s; mould temperature is held at 15–30 °C, with total cycle times of 25–45 s for 5–20 L containers. Performance requirements include stacking-load resistance measured to ISO 12048 and, for dangerous goods, the UN Model Regulations drop and leakproofness sequence applicable to the specific packing group. Terminal products include open-top paint pails, lubricant and grease pails, detergent and adhesive pails, and food-ingredient bulk containers under FDA 21 CFR 177.1520(c) and EU Regulation 10/2011 where direct food contact is declared. External exposure to aromatic solvents and high-temperature oxidising agents requires chemical-resistance validation under ASTM D543 before specifying the grade for those specific contents.
Agricultural and beverage crate tooling builds the primary process difficulty from ejection force and rib wall-surface profile rather than melt flow. Polyolefin returnable crates and vented produce totes in 600 mm × 400 mm and 300 mm × 200 mm Euro footprints typically require shot weights from 3,000 g to 12,000 g, and Hanwha HDPE 3080 is processed with melt temperatures of 210–240 °C, mould temperatures of 20–30 °C, and injection velocities adjusted to maintain a consistent melt front across sequential valve-gated fill paths. Addition ratios in this segment are 2–3 wt% colour masterbatch for brand coding, and 3–5 wt% UV-stabilizer masterbatch for outdoor field exposure; where the crate carries fresh produce, food-contact compliance under EU Regulation 10/2011 and FDA 21 CFR 177.1520(c) must cover both the masterbatch and the moulding release system, and external mould-release sprays should be eliminated or replaced by non-migrating internal release at 0.2–0.5 wt% only after approval. Production-scale processing uses 12,000–25,000 kN clamps, hydraulically actuated ejector plates with air-assist poppets, and cycle times from 45 s to 70 s depending on wall stock; floor-observed failure modes include vent clogging at the top edge, flatness deviation due to uneven post-mold cooling, and flash formation at worn shut-off ribs. Recyclability is governed by the EU Packaging and Packaging Waste Regulation 2025/40 design-for-recyclability provisions, with monomaterial HDPE crate structures preferred over mixed-polymer labels. Terminal products are returnable beverage crates, vented produce crates, bakery distribution trays, and fish and meat totes with drainage plumbing in the base.
Once the UV stabilizer masterbatch addition reaches 3–5 wt%, the processing target shifts from raw mechanical strength to stabilizer homogeneization and surface-weathering retention. Outdoor storage bins, garden trolley bodies, and garage organisers moulded from Hanwha HDPE 3080 require 3–5 wt% high-molecular-weight hindered amine light stabilizer masterbatch and 2–4 wt% pigment masterbatch to retain viable mechanical surface quality after extended UV exposure. The compatibility of the stabilizer package with the base resin is evaluated through melt-flow stability to ISO 1133-1:2022 and tensile elongation after accelerated weathering to ISO 4892-2, cycle A, with accepted lot-to-lot variation typically maintained within ±15 % of the target MFR. Downstream processing uses open-nozzle cold-runner tools with textured cavity surfaces at SPI B-2 to C-1; polymer shrinkage of 2.0–3.0 % requires draft angles of 2–3° on standing surfaces and 5–10 mm internal radii at the base corners to prevent stress concentration and demoulding cracks. Barrel profiles run from 190 °C to 240 °C, with screw back pressure of 10–20 bar to ensure masterbatch homogenization without excessive shear heating; clamp tonnage for large storage bin lids follows a projected-area load of 3.5–5.0 kN/cm². Compliance anchors include REACH Annex XVII restrictions for lead, cadmium, and phthalates, RoHS Directive 2011/65/EU for electrical accessory integration, and EN 71-3 migration limits where the article can be used by children for toy-like storage. Terminal products are garden deck boxes, ventilated garage cabinets, modular shelving, pet food storage containers, and recycle-bin bodies.
For household storage articles intended as food-contact leftovers boxes and refrigerator organisers, pigment masterbatch addition is held to 2 wt% maximum in thin sections and 3 wt% maximum in thick sections to maintain overall migration below 10 mg/dm² under EU Regulation 10/2011 Annex I. The relevant food-contact compliance chain spans FDA 21 CFR 177.1520(c) for olefin polymers, EU Regulation 10/2011 Articles 4, 6, and 15, and the GB 4806.6-2016 national standard where the terminal product is placed on the Chinese mainland market. Downstream production on high-speed multi-cavity tools uses melt temperatures of 200–230 °C, mould temperatures of 15–30 °C, and hot-runner systems with open-pipe gate diameters between 0.8 mm and 1.2 mm to minimise shear-induced degradation that would otherwise raise odour-active volatiles. The production process includes post-moulding conditioning at 23 °C and 50 % RH for 48 h before migration testing, because early-stage diffusion of low-molecular-weight fractions produces falsely elevated migration results. Terminal products include food storage boxes, lunch boxes with clip lids, refrigerator crisper bins, and cutlery trays. Published data for this specific configuration is limited when the converter uses post-consumer recyclate; the blend must be tested under the intended food-contact simulant rather than inferred from virgin-grade certificates.
| Application segment | Primary compliance anchor | Key test method | Masterbatch addition limit |
|---|---|---|---|
| Thin-wall food containers | EU Regulation 10/2011, FDA 21 CFR 177.1520(c) | ISO 1133-1:2022, ASTM D1238-23 | 2–3 wt% food-grade colour concentrate |
| Closure caps and overcaps | EU Regulation 10/2011, FDA 21 CFR 177.1520(c) | ASTM D1693, Method B | 1–2 wt% colour, 0.1–0.2 wt% active slip |
| Industrial pails | UN Model Regulations, ISO 12048 | ASTM D543 | 2–4 wt% UV, 2–5 wt% pigment |
| Returnable crates and totes | EU Packaging and Packaging Waste Regulation 2025/40 | ISO 4892-2 | 2–3 wt% colour, 3–5 wt% UV |
| Outdoor storage and garden components | REACH Annex XVII, RoHS Directive 2011/65/EU | ISO 4892-2, cycle A | 3–5 wt% stabilizer, 2–4 wt% pigment |
| Household food-contact storage | EU Regulation 10/2011, GB 4806.6-2016 | ISO 1133-1:2022 | 2–3 wt% maximum |
Competitive Hanwha HDPE 3080 prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8618136850665 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8618136850665
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Hanwha HDPE 3080 is a pelletized high-density polyethylene resin intended for thin-gauge blown film. The grade is specified by a nominal melt flow rate of 0.8 g/10 min under ASTM D1238-20 condition 190°C/2.16 kg and a nominal density of 0.950 g/cm³ under ASTM D1505-18. The density places the resin in the high-density category while remaining below the 0.955 g/cm³ and higher values typical of rigid HDPE grades used for blow-molded containers and pipe. The melt flow rate indicates a high-viscosity resin that is not suited to long-flow injection molding but is well matched to blown-film screws and dies where bubble stability at low melt temperature is required.
The commercial designation 3080 identifies a film-extrusion grade, not a high-flow injection or rotational-molding product. Data reported for the grade are generated on compression-molded plaques and monolayer blown-film samples; end-use results therefore vary with die gap, blow-up ratio, frost-line height, draw-down ratio, and the ratio of post-industrial reclaim. Grade-specific certificates of analysis should be used for lot-level production settings because the nominal values below are not release limits.
On production-scale monolayer blown-film lines using a 90 mm grooved-feed single-screw extruder with an L/D ratio of 30:1 and a die gap between 1.2 mm and 1.6 mm, barrel profiles are commonly set from 160°C in the feed zone to 200°C at the die. Melt temperature at the die exit should be maintained between 190°C and 210°C; sustained operation above 230°C promotes oxidation, gel formation, and chain scission that widen the molecular-weight distribution. A blow-up ratio of 3.0:1 to 4.5:1 and a frost-line height of 6 to 10 die diameters above the die face are typical starting conditions. These settings influence bubble stability more than the resin itself in many cases.
When the die gap is narrowed below 1.0 mm, melt pressure increases and the shear rate can approach the sharkskin melt-fracture regime. A melt-pressure indication above 35 MPa before the screen pack is normally handled by raising die temperature or opening the die gap rather than by increasing screw speed. Converters running high-output lines often monitor pressure variation rather than absolute pressure; a fluctuation greater than 0.5 MPa in a 90 mm extruder can produce visible gauge bands in film thinner than 25 µm.
The melt processing response favors a grooved-feed extruder rather than a smooth-bore machine. A grooved bushing in the feed section increases conveying stability and permits a lower barrel profile; torque readings on a 90 mm grooved-feed extruder running HDPE 3080 are typically higher than those for LLDPE at the same throughput because the resin has a higher density and a higher crystalline melting enthalpy. The crystalline melting peak measured by ASTM D3418-21 is typically near 128°C to 132°C; this requires a die temperature sufficiently above the melting point to prevent freeze-off at the die lip. Published data for this specific configuration is limited to equipment manufacturer reports and converter trials.
HDPE 3080 does not require predrying when stored in closed indoor silos. Outdoor storage or relative humidity above 60% can introduce pellet surface moisture, which appears as bubble instability or pinholes in thin film. Wet pellets are dried at 75°C to 80°C for 2 h in a desiccant dryer before processing. Post-industrial reclaim addition should be limited to 20 wt% unless the reclaim is clean and melt-filtered; the resin package does not compatibilize heavily contaminated scrap. Published data for this specific configuration is limited, and the processing window must be revalidated when reclaim content changes.
The following typical values are drawn from publicly available grade data for monolayer film extrusion and should not be interpreted as lot release limits.
| Property | Test method | Typical value |
|---|---|---|
| Melt flow rate | ASTM D1238-20 | 0.8 g/10 min |
| Density | ASTM D1505-18 | 0.950 g/cm³ |
| Tensile strength at yield | ASTM D638-14 | 24 MPa |
| Tensile elongation at break | ASTM D638-14 | 600 % |
| Flexural modulus | ASTM D790-17 | 1,000 MPa |
| Dart impact | ASTM D1709-16a | 150 g |
| Environmental stress cracking resistance | ASTM D1693-15 | >400 h |
| Vicat softening point | ASTM D1525-17 | 122 °C |
Frozen-food bags and ice-packaging films are converted from HDPE 3080 at thicknesses from 12 µm to 50 µm. The low-temperature ductility required for this application is evaluated by ASTM D1709-16a dart impact and ASTM D1922-15 Elmendorf tear on the finished film, not on the pellet. The density of 0.950 g/cm³ provides a moisture-vapor barrier that is higher than that of LLDPE films of the same thickness, as measured by ASTM E96/E96M-22. In monolayer frozen-food packaging, low-temperature tear resistance is achieved by controlling blow-up ratio and frost-line height; a low frost line can freeze in orientation that lowers dart impact under ASTM D1709-16a.
Heavy-duty industrial liners of 50 µm to 80 µm gauge use the same resin; tensile yield and elongation are measured by ASTM D638-14. The higher melt viscosity compared with cast-film HDPE permits stable bubble formation at take-off ratios that produce these thicknesses. Seal integrity at freezer temperatures between −20°C and −30°C is strongly influenced by the sealant layer in coextruded structures; monolayer HDPE seals require sufficient jaw temperature and dwell time, and overheating above 160°C can produce brittle seal edges. Published data for this specific configuration is limited without specifying seal-bar geometry and dwell time.
Compared with LLDPE blown-film resins, HDPE 3080 has a higher density and a lower comonomer content. The density difference between 0.950 g/cm³ and typical LLDPE densities of 0.916 to 0.940 g/cm³ increases film stiffness and moisture barrier but reduces Elmendorf tear in thin gauge unless the film is oriented or thicker. The melt flow rate of 0.8 g/10 min is within the range of many LLDPE film grades, but the density-driven increase in crystalline content produces a sharper melt transition and a higher melt enthalpy under ASTM D3418-21.
Against high-flow injection-molding HDPE grades with melt flow rates of 5 to 30 g/10 min, the resin is not suitable for long-flow, thin-wall tooling. A high-flow injection grade has a lower melt viscosity and can fill a 1 mm wall section at high clamp pressure; HDPE 3080 would require excessively high melt temperature or injection pressure, leading to degradation. The low melt flow rate instead favors film extrusion, where it contributes to bubble stability and reduces melt fracture at high draw.
The differences in density and melt flow rate should not be used alone to select the grade. Film coefficient of friction, block resistance, and seal initiation temperature must be evaluated on the finished article because these values are not determined by pellet data alone and depend on added slip and antiblock masterbatches. For automatic packaging lines, a coefficient of friction outside the specification can cause film tracking defects on form-fill-seal equipment; the appropriate test method is ASTM D1894-14.
Food-contact status for HDPE 3080 derives from FDA 21 CFR 177.1520 for olefin polymers. Compliance with EU No 10/2011 requires migration testing on the finished package because the overall migration limit depends on thickness, layer structure, and contact time. The resin is not supplied with a guaranteed UV-stabilizer package; long-term outdoor exposure above 12 months requires a carbon-black masterbatch or a UV-stabilizer addition. For chemical packaging, environmental stress cracking resistance tested under ASTM D1693-15 should be considered when the fill contains surfactant-based liquids; the density and molecular architecture of this grade provide stronger resistance than lower-molecular-weight HDPE, but no HDPE film is recommended for long-term storage of aromatic or halogenated solvents at elevated temperature without specific permeation validation.