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LyondellBasell HDPE 8005M-5

    • Product Name: LyondellBasell HDPE 8005M-5
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
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    Specifications
    HS Code 724724
    Density 0.958 g/cm³
    Melt Flow Rate 190 C 21 6 Kg 5.0 g/10 min
    Tensile Modulus 1100 MPa
    Tensile Stress At Yield 25 MPa
    Tensile Strain At Yield 9%
    Tensile Stress At Break 30 MPa
    Tensile Strain At Break >600%
    Charpy Notched Impact Strength 23 C 20 kJ/m²
    Charpy Notched Impact Strength 30 C 10 kJ/m²
    Vicat Softening Temperature A 50 128°C
    Melting Temperature 134°C
    Crystallization Temperature 118°C
    Environmental Stress Crack Resistance 10 Igepal >1000 h
    Thermal Conductivity 0.40 W/m·K
    Coefficient Of Linear Thermal Expansion 1.5 × 10⁻⁴ /°C
    Specific Heat Capacity 1.9 J/g·°C
    Volume Resistivity >10¹⁵ Ω·cm
    Dielectric Constant 1 Mhz 2.3
    Dissipation Factor 1 Mhz 2 × 10⁻⁴
    Shore D Hardness 62

    As an accredited LyondellBasell HDPE 8005M-5 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing LyondellBasell HDPE 8005M-5 typically packaged in 25 kg polyethylene bags, 40 bags per pallet, totaling 1,000 kg.
    Container Loading (20′ FCL) 20′ FCL loaded with LyondellBasell HDPE 8005M-5: 25 kg bags, palletized, stretch-wrapped; approx. 20 MT net per container.
    Shipping LyondellBasell HDPE 8005M-5 is a non-hazardous high-density polyethylene resin. It is typically shipped in 25-kg bags, 1,000-kg supersacks, or bulk trucks/railcars. No DOT/IATA/IMDG hazardous classification is required. Store dry, clean, and away from heat, moisture, contamination, and direct sunlight. Follow applicable transport regulations.
    Storage Store LyondellBasell HDPE 8005M-5 indoors in a cool, dry, well-ventilated area, away from direct sunlight, heat, sparks, and open flames. Keep original bags, boxes, or octabins closed to prevent moisture and contamination. Avoid prolonged UV exposure, excessive stacking, and physical damage. Use first-in, first-out stock rotation. Maintain normal ambient temperatures; no special chemical storage is required.
    Shelf Life Shelf life is 12 months when stored in unopened original packaging, in a cool, dry place, away from direct sunlight.
    Application of LyondellBasell HDPE 8005M-5

    On accumulator-head extrusion blow molding lines producing UN-rated jerry cans, the first observable failure mode is not body-wall rupture but pinch-off weld thinning at the bottom seam. LyondellBasell HDPE 800M5-5 is run through a barrier screw with L/D 24:1–30:1 and a Maddock mixer, with melt temperature limited to 190–210 °C measured at the die by an immersion thermocouple. The parison is programmed with a 64-point radial wall-thickness controller; higher wall thickness of 1.9–2.4 mm is set at the ears and a thinner 1.2–1.5 mm at the centre because the pinch zone draws down during mould closing. Mould water temperature is held at 10–25 °C, and blow air pressure is controlled between 0.45 MPa and 0.70 MPa. Drop qualification follows UN 6.1.3 drop heights of 1.8 m for Packing Group I, 1.2 m for Packing Group II and 0.8 m for Packing Group III, with leakproofness testing at a minimum internal pressure of 20 kPa and hydrostatic pressure testing per ADR 6.1.3.3 and 49 CFR §178.500. Formulation addition ratios are set as follows: carbon black masterbatch at 2.0–3.0 wt% for outdoor UV exposure, colour masterbatch at 0.5–2.0 wt%, and fluoropolymer processing aid at 0.02–0.05 wt% to suppress melt fracture on narrow die gaps. Production output includes 5 L, 10 L, 20 L and 25 L jerry cans, 20 L open-head pails and 30 L drum liners. The operational boundary is resin temperature: above 210 °C, parison sag becomes measurable on accumulator-head machines with a shot weight above 2.5 kg, increasing bottom flash thickness and reducing pinch-off weld reliability under UN drop impact.

    How Do Crop-Protection Formulation Solvents Alter Drop-Test Margins in Six-Layer Coextruded HDPE Containers?

    A crop-protection container qualified under ADR 6.1.3.2 for a Packing Group II solvent is not automatically fit for a different solvent system without repeating the four-step compatibility evaluation: permeation rate, stress cracking, swell, and loss of mechanical integrity. In six-layer coextrusion, 800M5-5 forms the structural outer and inner HDPE layers, while a polyamide or EVOH barrier layer represents 3–5% of total wall thickness and tie resins 2–3%. The addition ratios by mass are: carbon black masterbatch at 2.0–2.5 wt% for light protection, antioxidant masterbatch at 0.1–0.3 wt% where long-term storage exceeds 24 months, and fluoropolymer processing aid at 0.02–0.04 wt%. Process settings on a six-layer spiral mandrel die include melt temperatures of 190–215 °C for the HDPE layers, barrier layer melt temperature of 210–230 °C, die head pressure of 25–35 MPa, and blow air of 0.5–0.8 MPa. Drop-test failures observed in production-scale qualification rarely occur at the body wall; they concentrate at the handle pinch-off and bottom weld, so the parison programmer is biased +25% wall thickness at those zones. Terminal products are 1 L, 5 L, 10 L and 20 L agricultural chemical bottles, including glyphosate, 2,4-D and pyrethroid formulation pack sizes. Published data for fluorinated barrier performance on 800M5-5 in 1250 L IBC liners is limited; qualification requires full-volume permeation testing according to ISO 16101:2020 and cannot be interpolated from smaller pack sizes. Monolayer HDPE constructions without fluorination or a coextruded barrier are not recommended for ester-based or aromatic solvent formulations above 10% by volume.

    Thermoformed dairy cups and lids are produced from HDPE sheet where the edge bead is slit and recycled at 15–25 wt% back into the main resin feed. Food-contact compliance is established under FDA 21 CFR 177.1520(c) for olefin polymers intended for aqueous, acidic and dairy foods, and under EU Regulation 10/2011 with an overall migration limit of 10 mg/dm² or 60 mg/kg for articles above 500 mL. The sheet extrusion line uses a 2.0–2.5 mm flex lip die, chill roll temperatures of 70–95 °C, and a polishing stack with 8–12 N/mm² nip pressure. Melt temperature is maintained at 200–220 °C, and the air gap is kept below 120 mm to limit neck-in. Additive letdown ratios are: food-grade slip/antiblock masterbatch at 0.5–1.5 wt%, titanium dioxide white concentrate at 1.0–3.0 wt%, and fluoropolymer processing aid at 0.02–0.04 wt%. Thermoforming downstream runs at 145–165 °C surface temperature with plug-assisted heating; sheet formed below 140 °C develops radial stress whitening at the plug contact ring. Terminal products include 150 mL to 500 mL dairy cups, margarine tubs, portion packs and thermoformed lids. Grades used in this sector require documented extraction testing; lot-change quarantine is standard when the supplier changes antioxidant package or the sheet line regrind fraction exceeds 25 wt%, because migration is governed by the full formulation, not only the base resin.

    When 220-Litre IBC Inner Bottles Run on Accumulator-Head Machines Without Melt Pumps

    When a 220 L or 1250 L IBC inner bottle is blown on an accumulator-head line, the parison can exceed 12 kg shot weight and remain suspended for 20–40 s before mould closing. Melt temperature is kept between 185 °C and 205 °C; at 215 °C the low-shear viscosity decreases sufficiently to cause sag-induced wall thinning in the upper sidewall, and at 175 °C the extrusion pressure on a 120 mm annular accumulator rises above 35 MPa, triggering head pressure alarms. Blow air is introduced at 0.6–0.8 MPa with preblow starting after 8–15 s of parison extrusion to maintain hoop orientation. Additive formulation: UV-stabilized black masterbatch at 1.5–3.5 wt%, carbon black masterbatch at 2.0–2.5 wt%, and fluoropolymer processing aid at 0.02–0.05 wt%. Mould cooling water is held at 8–15 °C, and post-mould cooling fixtures are cycled for 180–360 s to prevent post-shrinkage which would distort the top-frame sealing surface. Compliance testing includes UN 31A/Y composite IBC design-type tests under ISO 16106:2020, 49 CFR §178.703, and IMDG Code 6.5.2 for stack, drop, leakproofness and bottom lift. Terminal products are 220 L IBC inner bottles, 1000 L inner bottles with steel mesh outer frames, and 1250 L bottles for non-hazardous process liquids. Hydrostatic conditioning at 100 kPa for 30 min is used as a production-line confirmation for pinhole defects before the outer frame is assembled.

    Application scenarioPrimary qualification standardCritical process windowAdditive letdown range
    UN-rated jerry cansUN 6.1.3, ADR 6.1.3.3Melt 190–210 °C; pinch weld 1.9–2.4 mmCarbon black 2.0–3.0 wt%; PPA 0.02–0.05 wt%
    Agricultural chemical containersADR 6.1.3.2, ISO 16101:2020Barrier layer 3–5%; die head 25–35 MPaRegrind 15–25 wt%; antioxidant MB 0.1–0.3 wt%
    Food-contact sheetFDA 21 CFR 177.1520, EU 10/2011Chill roll 70–95 °C; forming 145–165 °CSlip/antiblock 0.5–1.5 wt%; regrind 15–25 wt%
    IBC inner bottlesISO 16106:2020, UN 31A/YMelt 185–205 °C; cooling 180–360 sUV masterbatch 1.5–3.5 wt%; PPA 0.02–0.05 wt%

    Monolayer Extrusion Blow Molding of Pharmaceutical and Personal-Care Bottles, a Controlled-Cleanroom Operation

    Injection blow molding preforms from 800M5-5 are rarely run as the sole operation; the grade’s rheology is more commonly exploited in continuous-extrusion blow molding where shuttle or rotary wheel machines handle 50 mL to 1 L formats. Compliance for pharmaceutical containers obliges extractables testing under USP <661.1> and USP <661.2>, with polyolefin monograph Ph. Eur. 3.1.3 and FDA 21 CFR 177.1520 used for drug product packaging intended for United States and European regulatory submissions. Cleanroom classification is typically ISO Class 8 at the blow station, with flash removal moved outside the primary fill envelope. Process settings: melt temperature 185–205 °C, die head temperature 190–210 °C, blow air 0.4–0.6 MPa filtered through 0.22 µm membranes, and mould water at 12–20 °C. The addition ratio is intentionally narrow: slip/anti-static masterbatch at 0.2–0.8 wt% where automatic filling lines require surface lubricity, and colour masterbatch at 0.5–1.5 wt%; no release agents are added to avoid extractables. Terminal products are 50 mL to 1000 mL high-density polyethylene medicine bottles, ophthalmic irrigating solution bottles, and oral care containers. A documented operational boundary is relative humidity: resin in open gaylords above 60% RH must be pre-dried at 70–80 °C to a dew point of -30 °C for 2–3 h to avoid surface splay caused by moisture evolution at the die exit.

    Cosmetic Squeeze-Bottle ESCR Limits and Hinge-Closure Torque Retention

    Cosmetic squeeze bottles blown from 800M5-5 are tested for environmental stress cracking resistance because the pack is frequently exposed to ethanol-water systems, low-molecular-weight esters and surfactant-based body washes. ESCR data are generated according to ASTM D1693-21 condition B, with failure defined as 50% of specimens cracked after 250 h in 10% Igepal CO-630 at 50 °C; production lots below 200 h are segregated for non-solvent-containing cosmetic products. Extrusion blow molding is run on shuttle machines with 2–8 moulds, die gaps of 0.8–1.2 mm, melt temperature 190–210 °C, and blow air 0.4–0.6 MPa. Addition ratios include pearlescent or colour masterbatch at 0.5–2.0 wt%, slip/anti-static masterbatch at 0.2–0.8 wt%, and UV absorber masterbatch at 0.2–0.6 wt% where shelf lighting is high. Terminal products are 30 mL to 500 mL squeeze tubes and bottles for shampoos, body washes, lotions and liquid soaps. The closure thread short-term creep is measured by torque decay after capping at 1.0–1.5 N·m; caps installed on HDPE threads above 40 °C during filling exhibit torque loss of more than 15% after 24 h at 25 °C because the polymer relaxes around the thread root.

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    Certification & Compliance
    More Introduction

    LyondellBasell HDPE 8005M-5 is a high-density polyethylene grade identified by the manufacturer code 8005M-5 and assigned the CAS registry number 9002-88-4. The material is supplied in pellet form for extrusion blow moulding and is normally specified by a density of 0.956 g/cm³ and a melt flow rate of 0.55 g/10 min at 190 °C under 2.16 kg load. Density is tested to ISO 1183-1:2019 or ASTM D1505, and melt flow rate is tested to ISO 1133-1:2022 or ASTM D1238-23. Lot-level density is typically controlled within ±0.001 g/cm³. The grade is positioned for rigid packaging and technical blow mouldings that require a balance of stiffness, environmental stress crack resistance, and parison stability under commercial processing conditions.

    Primary applications are extrusion blow-moulded containers in the 1 L to 60 L volume range, including household chemical bottles, agrochemical containers, automotive ducts, and industrial packaging. On accumulator-head machines, the high melt strength of the grade permits larger parison diameters without excessive sag. On continuous extrusion machines, neck calibration and pinch-off performance are controlled by die geometry rather than by the melt alone.

    Representative physical property profile for LyondellBasell HDPE 8005M-5
    PropertyNominal valueTest method
    Density0.956 g/cm³ISO 1183-1:2019 / ASTM D1505
    Melt flow rate0.55 g/10 minISO 1133-1:2022 / ASTM D1238-23
    Tensile stress at yield24 MPaISO 527-2 / ASTM D638-14
    Tensile strain at break>600%ISO 527-2 / ASTM D638-14
    Flexural modulus1050 MPaISO 178 / ASTM D790-17
    Charpy notched impact strength at 23 °C20 kJ/m²ISO 179-1/1eA
    Vicat softening temperature A120126 °CISO 306/A120
    Shore D hardness63ISO 868 / ASTM D2240
    Environmental stress crack resistance, F50, 100% Igepal CO-63035 hASTM D1693-15b

    Values in this table are representative and are not to be read as lot-release minima. The certificate of analysis for the specific production lot supplies the controlling data. Specimens are conditioned at 23 °C and 50% relative humidity unless otherwise stated.

    What processing conditions are required for stable parison formation?

    In continuous extrusion blow moulding, HDPE 8005M-5 is processed on single-screw extruders equipped with grooved feed sections and barrier screws. Screw L/D ratios between 25:1 and 30:1 and compression ratios from 2.5:1 to 3.0:1 are typical. Barrel temperature profiles are set from 170 °C in the feed zone to 200–210 °C in the metering zone, with die-head temperatures of 195–210 °C. At sustained melt temperatures above 220 °C, thermo-oxidative chain scission reduces parison sag resistance and increases the risk of odour in the finished container.

    With grooved-feed extruders, the feed zone pressure is normally maintained above 80 MPa to ensure barrel fill and stable throughput. Melt pressure at the die entrance commonly ranges from 20 MPa to 35 MPa. A screen pack of 20/40/60 mesh is installed to remove gels and unmelted particles; the presence of fine screens increases backpressure and can shift melt temperature upward by 2–3 °C.

    Blow moulds are operated at 10–30 °C, and blow pressure is normally 0.6–0.8 MPa. The pressure must be sufficient to reproduce surface grain without causing flash at the pinch-off line. Wall-thickness programming is required when the shot-to-parison length ratio exceeds 2:1; without programming, production-scale accumulator-head blow moulders commonly record wall-thickness deviations of 0.2 mm or more in the container shoulder.

    The die swell of HDPE 8005M-5 is higher than that of a narrow-molar-mass injection grade. Die swell ratios of 1.5–2.0 are common in blow moulding, requiring parison dies with smaller clearances than the intended container wall thickness. Screw speed is usually limited to 40–80 min⁻¹ to avoid shear-induced melt fracture at the die lip.

    At ambient relative humidity below 60%, predrying is not normally required. If pellets have been exposed to condensation or stored in uncontrolled conditions, a desiccant dryer with air dew point below -20 °C and a residence time of 2–3 h at 60–70 °C is recommended. Clean, unpigmented regrind can be incorporated at 20 wt%; higher regrind fractions raise the measured melt flow rate and reduce the notched Charpy impact strength. Batch-to-batch variation in melt flow rate on production lines is typically controlled within ±0.05 g/10 min.

    Field experience on twin-station blow moulders indicates that a melt flow rate drift of 0.05 g/10 min can shift the parison length by 3–5% at constant die gap. Operators should therefore verify melt flow rate at shift start and adjust barrel temperature or screw speed only after die gap compensation is ruled out.

    Comparative property profile and adjacent grade limitations

    The differentiation of 8005M-5 from other HDPE grades begins with the molar mass distribution. Blow moulding grades with melt flow rates below 1.0 g/10 min exhibit higher die swell and parison sag resistance than injection-moulding grades with melt flow rates of 8–20 g/10 min. Direct substitution into thin-wall injection moulding is therefore limited by flow length and injection pressure.

    Representative comparison with adjacent HDPE processing families
    ParameterHDPE 8005M-5HDPE injection gradeHDPE film grade
    Melt flow rate0.55 g/10 min8 g/10 min0.2 g/10 min
    Density0.956 g/cm³0.960 g/cm³0.948 g/cm³
    Flexural modulus1050 MPa1450 MPa900 MPa
    ESCR, F5035 h<5 h>100 h

    Adjacent grade values are representative of commercial high-density polyethylene families and are not lot-specific data for a named LyondellBasell grade.

    Compared with HDPE film grades based on ethylene copolymers with density below 0.950 g/cm³, 8005M-5 provides higher top-load strength and stiffness but lower Elmendorf tear resistance and dart drop. Compared with PE100 pipe grades, 8005M-5 does not possess a hydrostatic design basis established under ISO 9080 and should not be specified for pressure piping.

    Molecular architecture also separates 8005M-5 from pipe-grade HDPE. Pipe grades are commonly bimodal copolymers with high-molecular-weight fractions for slow crack growth resistance. In contrast, 8005M-5 is optimised for blow moulding, with a molecular architecture that supports melt strength but does not provide the same long-term hydrostatic strength. A resin with a density of 0.956 g/cm³ and melt flow rate of 0.55 g/10 min is therefore not automatically a PE100 material.

    When 8005M-5 is considered for a non-blow-moulded application

    When injection moulding is evaluated, the low melt flow rate requires melt temperatures of 220–240 °C and injection pressures above 100 MPa. Thin-wall sections below 1.5 mm frequently exhibit short shots on machines with clamp force below 150 t. Published data for this specific configuration is limited, and mould-fill simulation should be validated with a pilot trial before tool construction.

    For food-contact containers, compliance with EU Regulation No 10/2011 and FDA 21 CFR 177.1520 must be confirmed on the finished article. The base olefin polymer is not sufficient for compliance; migration testing under the intended time–temperature conditions is required. Additive packages containing unsaturated amides or certain ester-based slip agents may alter organoleptic behaviour and should be assessed for their effect on environmental stress crack resistance.

    If the article is intended for chemical packaging, the environmental stress crack resistance data from ASTM D1693-15b should be supplemented with container-level testing using the specific filling medium, because ESCR values obtained in 100% Igepal CO-630 do not directly predict resistance to alcohols, esters, or surfactants.

    Regulatory conformity is typically documented through REACH and RoHS declarations for the supplied pellet. The grade does not contain intentionally added phthalates or heavy metals, but the final article manufacturer remains responsible for confirming that printing inks, adhesives, closures, and colourants do not change the migration profile.

    Storage life is generally 24 months from the date of manufacture when the material is kept in unopened packaging at ≤40 °C and protected from direct sunlight. Extended storage at elevated temperatures can increase yellowness index and shift melt flow rate through oxidative chain scission or chain extension.

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