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Indian Oil (IOC) HDPE G-LENE I60U080

    • Product Name: Indian Oil (IOC) HDPE G-LENE I60U080
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
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    VTB
    Specifications
    HS Code 489061
    Density G Cm3 0.960
    Melt Flow Rate G 10min 190c 2 16kg 0.8
    Tensile Strength At Yield Mpa 28
    Elongation At Break Percent >600
    Flexural Modulus Mpa 1200
    Vicat Softening Point C 124
    Melting Point C 134
    Escr Igepal F50 H >1000
    Notched Izod Impact Strength J M 80
    Shore D Hardness 65
    Water Absorption Percent <0.01
    Volume Resistivity Ohm Cm >1e16
    Dielectric Constant 1mhz 2.3
    Thermal Conductivity W Mk 0.45
    Coefficient Of Linear Thermal Expansion Per C 1.2e-4
    Brittleness Temperature C <-70

    As an accredited Indian Oil (IOC) HDPE G-LENE I60U080 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Indian Oil (IOC) HDPE G-LENE I60U080 is supplied in 25 kg polyethylene-lined woven bags, palletized for industrial handling and storage.
    Container Loading (20′ FCL) 20' FCL loaded with 25 kg bags of Indian Oil HDPE G-LENE I60U080, palletized, stretch-wrapped, and secured for ocean freight.
    Shipping Indian Oil (IOC) HDPE G-LENE I60U080 is shipped as a non-hazardous thermoplastic in 25 kg PP woven bags, stacked on pallets and stretch-wrapped. It is transported in dry containers, trucks, or rail cars under ambient conditions, protected from moisture, sunlight, and contamination. Not classified as dangerous goods.
    Storage Store Indian Oil (IOC) HDPE G-LENE I60U080 in a cool, dry, well-ventilated warehouse, away from direct sunlight, heat, sparks, and flames. Keep original bags tightly closed on pallets, protecting from moisture, dust, oils, and other contaminants. Avoid prolonged UV exposure and excessive stacking. Follow first-in, first-out stock rotation, maintain a clean handling area, and do not store near strong oxidizers.
    Shelf Life Shelf life: generally 12 months from date of manufacture when stored in cool, dry conditions in original packaging.
    Application of Indian Oil (IOC) HDPE G-LENE I60U080

    Indian Oil HDPE G-LENE I60U080 is specified for injection-moulded articles with nominal walls from 0.6 mm to 3.5 mm; its melt mass-flow rate of 8.0 g/10 min at 190 °C under 2.16 kg, tested to ISO 1133-1:2022, and nominal density of 0.960 g/cm³ tested to ISO 1183-1:2019 are the primary lot-release values that govern downstream parameter selection. Downstream conversion is restricted to injection moulding because the narrow molecular-weight distribution does not provide the melt strength required for blown film, sheet extrusion followed by thermoforming, or rotational moulding. The application scenarios below are documented on production-scale toggle or hydraulic injection machines with clamping forces from 150 t to 1,200 t; laboratory-scale test results are not accepted as a substitute for tool-specific qualification. Where published data for a specific I60U080 configuration is absent, that absence is stated instead of extrapolating from other polyethylene grades.

    Material Handling Crate Moulding and Stacking Load Stress Concentrations

    On production lines using toggle-clamp injection machines of 650–1,200 t clamp force, I60U080 is processed at melt temperatures between 210 °C and 230 °C and steel mould temperatures between 15 °C and 25 °C. The gate-to-flow length ratio in ventilated crates typically exceeds 150:1, which forces a three-stage injection velocity profile to avoid jetting at sub-runner junctions and to prevent flow marks on ribbed surfaces. Holding pressure is set at 50–70 MPa for 4–8 s, and cooling time is calculated at 0.9–1.2 s/mm of nominal wall thickness rather than on total part mass. Mould shrinkage in the flow direction falls between 1.5 % and 2.5 %, while transverse shrinkage spans 2.0–3.0 %; tooling cut for stackable crates therefore requires asymmetric allowances. Stacking performance of filled crates is verified according to ISO 12048:1994 or in-house top-load protocols because no universal material-level standard predicts foot stress concentrations in ventilated side walls. Compliance for food-contact crate service is governed by EU 10/2011 with an overall migration limit of 10 mg/dm², by FDA 21 CFR 177.1520 for olefin polymers in the United States, and by IS 10146:1982 for polyethylene in contact with foodstuffs in India. Outdoor-logistics crates receive 1.5–2.5 wt% UV stabiliser masterbatch containing hindered amine light stabiliser and titanium dioxide via gravimetric dosing at the machine throat; colour masterbatch is used at 1.0–2.0 wt%. Where converters reintroduce post-industrial regrind from runners and rejected crates, an additional antioxidant masterbatch at 0.15–0.25 wt% is used only when regrind exceeds 20 wt%; below that level the base resin antioxidant package is sufficient under normal residence times. Weathering validation is conducted under ISO 4892-3:2016 or ASTM D2565-21 on finished crates, and notched impact retention is measured to ISO 180:2023 or ASTM D256-23. End products include ventilated bottle crates, closed-wall stacking crates, collapsible bulk bins, and pallet boxes with side-wall thicknesses from 2.5 mm to 4.0 mm.

    The manufacture of tamper-evident polyolefin closures on 48- to 72-cavity hot-runner tooling uses the same base resin, but the critical control variable shifts from cooling-dominated section thickness to gate-sealing time and non-return valve leakage. For beverage and personal-care closures, I60U080 is processed at 215–240 °C melt temperature with mould temperatures of 10–20 °C; the higher melt temperature is needed to fill valve-gated cavities of 0.8–1.2 mm nominal wall at injection speeds of 120–200 mm/s. The injection screw is configured with an L/D ratio of 20:1–25:1 and a compression ratio of 2.5:1–3.5:1; the melt cushion is held between 3 mm and 6 mm to buffer check-ring wear. Cushion loss below 2 mm on a clean screw indicates non-return valve leakage and produces part-mass variation that cannot be corrected by adjusting holding time alone. A typical closure formulation contains 1.0–2.0 wt% colour masterbatch, 500–1,000 ppm erucamide slip additive for opening-torque control, and 0.05–0.10 wt% phenolic antioxidant when in-house regrind exceeds 10 %. Nucleating agent addition is confined to 0.05–0.15 wt% where cycle-time reduction is targeted; higher loadings embrittle tamper-evident bands and living hinges. The relevant migration framework is EU Regulation No 10/2011 with an overall migration limit of 10 mg/dm², and FDA 21 CFR 177.1520 in the United States. For pharmaceutical closures, the finished article is additionally assessed against the relevant pharmacopoeial chapter for plastic container systems; published data for this specific IOC grade under all pharmacopoeial test conditions is limited, so lot-specific verification is mandatory. End products include non-carbonated beverage screw caps, pharmaceutical closures, personal-care flip-top caps, and tamper-evident spout caps.

    Table 1: Closure additive loading and deviation thresholds for conversion of I60U080
    Additive typeLoading rangeReference testDeviation failure mode
    Erucamide slip500–1,000 ppmOpening torque test; ISO 8317:2015 if child-resistantPlate-out on mould core; torque drift
    Colour masterbatch1.0–2.0 wt%Visual inspection; ISO 1133-1:2022 melt-flow checkStreaking; gate block
    Nucleating agent0.05–0.15 wt%ISO 180:2023 notched IzodTamper band cracking
    Phenolic antioxidant0.05–0.10 wt%ISO 11357-6:2018 oxidative induction timeYellowing after regrind

    Three separate production routes converge in the manufacture of industrial pails: injection moulding of the body on 600–1,000 t machines, injection moulding of the lid on smaller 250–400 t machines, and subsequent insertion or overmoulding of wire or plastic handles. The body is gated from the base or multiple hot drops to place weld lines away from the handle hinge area. I60U080 is processed at 200–230 °C melt temperature and 10–20 °C mould temperature; wall thicknesses between 1.2 mm and 2.0 mm are used for 5–20 L containers. The formulation comprises 1.0–3.0 wt% colour masterbatch; outdoor grades receive 1.0–2.0 wt% UV stabiliser masterbatch with hindered amine light stabiliser. For pails intended for dangerous goods, the finished package must satisfy UN performance tests under ADR 6.1.5 or IMDG 6.1.5 as applicable; the test battery includes drop testing at 0.8 m, 1.2 m, or 1.8 m depending on packing group after conditioning to -18 °C, leakproofness testing at 20 kPa internal air pressure for design-type qualification, and stacking for 28 days at 40 °C under a calculated load. The exact test values depend on filling substance and packing group; published data for this specific I60U080 configuration under all UN hydraulic test regimes is limited, so certification testing on the intended production tool is required. End products include open-top paint pails, grease and lubricant pails, adhesive containers, and UN-marked 1H2 plastics drums for low-viscosity liquids.

    Table 2: Typical UN performance test matrix for injection-moulded HDPE pails
    TestReference regimeTypical severityObserved failure location on production pails
    Drop testADR/IMDG 6.1.50.8–1.8 m depending on packing group after conditioning at -18 °CBase corner or handle boss weld line
    LeakproofnessADR/IMDG 6.1.520 kPa internal air pressureWeld line at multi-gate junction
    Internal pressureADR/IMDG 6.1.5 if required by design type100 kPa for 30 min or UN-specified valueLid/body seal creep
    StackingADR/IMDG 6.1.528 days at 40 °C under stacking loadSidewall buckling

    Why Does Thin-Wall Housewares Moulding Demand Unequal Shrinkage Allowances?

    The answer is not found in the polymer alone but in the interaction between molecular orientation and cooling rate across the length of a thin-wall cavity. Storage boxes, desk organisers, utility trays, and food storage containers are moulded from I60U080 on 150–350 t machines with nominal section thicknesses of 1.0–2.0 mm. Melt temperature is maintained at 190–220 °C; the steel temperature remains between 15 °C and 20 °C. The injection phase uses a stepped velocity profile that decelerates from 80–120 mm/s in the main cavity to 30–50 mm/s during the last 10 % of stroke to prevent overpacking at the gate. The colour masterbatch addition is 0.5–2.0 wt%; where flat lids exceed 1.0 mm warp over a 250 mm span, a nucleating agent at 0.05–0.10 wt% is used to compress the difference between longitudinal and transverse shrinkage. Nucleated material can lower notched Izod impact, so trade-off validation under ISO 180:2023 or ASTM D256-23 becomes mandatory before tooling release. Food-contact housewares fall under EU 10/2011 overall migration limit of 10 mg/dm², FDA 21 CFR 177.1520, and IS 10146:1982. The upper continuous service temperature is below that of polypropylene; sustained exposure to boiling water or steam sterilisation above 75–80 °C can distort thin-walled containers, making the grade unsuitable for repeated dishwasher sanitation cycles. End products include moulded drawers, household utility baskets, food containers, and flat-pack storage boxes.

    When Lead-Acid Battery Containers Require Carbon Black Dispersion and Weld-Line Integrity

    This downstream route is technically viable only when the moulding plant controls carbon black dispersion and weld-line placement. I60U080 is injection-moulded into battery containers, lids, and vent-plug components on 300–500 t machines with melt temperatures of 210–240 °C and mould temperatures of 20–30 °C. The formulation for battery containers uses 1.5–2.5 wt% carbon black masterbatch for opacity and UV screening, 0.1–0.3 wt% antioxidant masterbatch to protect against thermal degradation during multiple regrind loops, and no acid-scavenging filler. The main quality risk is a weld line at the bottom corner or partition intersection; weld-line flexural strength can fall 15–30 % below bulk flexural strength measured by ISO 178:2019. Tool designs therefore position weld lines in low-stress end regions and use multiple hot drops to reduce flow-front temperature loss. Compliance for automotive components is less harmonised than food-contact regulations; flammability is frequently tested to ISO 3795:1989 or UL 94 HB, while OEM specifications govern acid resistance, thermal shock, and leak-tightness. Published data for this specific IOC grade under all battery OEM test regimes is limited; qualification must be performed on production tooling because weld-line strength and acid resistance are tool-dependent rather than resin-only properties. End products include lead-acid battery containers for two-wheeler and four-wheeler starting-lighting-ignition batteries, lids, and vented plugs.

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    Certification & Compliance
    More Introduction

    Indian Oil (IOC) HDPE G-LENE I60U080 is a high-density polyethylene injection-moulding grade supplied in pellet form by Indian Oil Corporation Limited. The grade designation places the material in a density class of 0.960 g/cm³ with a nominal melt flow rate of 8.0 g/10 min at 190 °C under 2.16 kg load. The polymer is manufactured by low-pressure ethylene polymerisation and is stabilised for conventional thermoplastic conversion. The product is specified for rigid packaging, caps and closures, crates, appliance components, houseware, and thin-wall containers. In these part categories, the high crystalline fraction contributes to stiffness, creep resistance under stacking load, and low water absorption. The same crystallinity also imposes mould shrinkage, anisotropic dimensional change, and reduced low-temperature ductility relative to lower-density ethylene polymers.

    What Do the Melt Flow Rate and Density Specifications Control in Injection Moulding?

    For injection-moulding grades, melt flow rate is the primary control on cavity filling, pressure transmission, and gate freeze timing. The nominal value of 8.0 g/10 min measured under 2.16 kg load at 190 °C is higher than that of typical HDPE blow-moulding and pipe grades, allowing thin-wall sections to fill before the flow front solidifies. The density value of 0.960 g/cm³ is a bulk consequence of higher crystallinity; it governs shrinkage, flexural stiffness, permeation resistance, and top-load strength. Table 1 consolidates the nominal physical properties reported for this grade.

    PropertyTest methodNominal value
    Melt flow rate (190 °C, 2.16 kg)ASTM D1238 / ISO 1133-1:20228.0 g/10 min
    Density (23 °C)ASTM D792 / ISO 1183-1:20190.960 g/cm³
    Tensile yield stressASTM D638 / ISO 527-2:201230 MPa
    Tensile elongation at yieldASTM D638 / ISO 527-2:20128%
    Flexural modulusASTM D790 / ISO 178:20191400 MPa
    Notched Izod impact (23 °C)ASTM D256 / ISO 180:20194.0 kJ/m²
    Vicat softening point (1 kg)ASTM D1525 / ISO 306:2013125 °C
    Heat deflection temperature (0.45 MPa)ASTM D648 / ISO 75-2:201380 °C
    Hardness, Shore DASTM D2240 / ISO 868:200365
    Mould shrinkage (flow/crossflow)ASTM D955 / ISO 294-4:20181.5–2.5%

    The single-point values in Table 1 apply to natural pellets without colour masterbatch, regrind, or processing aids. They are not to be interpreted as specification limits; lot-to-lot variation is established through the certificate of analysis. Tensile yield stress near 30 MPa is measured at 23 °C; at 60 °C the load-bearing capability is lower. The mould shrinkage range of 1.5–2.5% indicates that cavity dimensions must be non-uniformly scaled, because shrinkage is generally higher in the flow direction than in the crossflow direction.

    On single-screw reciprocating injection machines with 20:1 to 25:1 L/D general-purpose screws, barrel set temperatures from feed to nozzle are commonly arranged as 190 °C, 210 °C, 225 °C, and 230 °C. Melt temperature is held between 220 °C and 260 °C. A reverse-taper or general-purpose check valve is required; excessive check-ring clearance reduces cushion control and produces inconsistent packing. Clamp force is generally estimated at 3–5 kN/cm² of projected area for thin-wall parts, but deep-draw containers may require 5–7 kN/cm² because of higher cavity pressure near the gate. Injection velocity is profiled rather than fixed: high velocity for the first 60–80% of fill prevents premature freeze-off in wall sections below 1.5 mm, while a reduced velocity at the end of fill avoids flash and gate jetting. Hold pressure is set at 50–70% of peak injection pressure and maintained until gate freeze. For 2 mm wall thickness, gate freeze time is typically 3–6 s; releasing hold pressure earlier creates sink marks near ribs, bosses, and screw bosses. Back pressure between 0.5 MPa and 1.5 MPa with screw speed between 60 rpm and 120 rpm is adequate for colour dispersion without excessive shear heating. Mould temperatures of 20 °C to 50 °C produce short cycle times; mould temperatures above 60 °C reduce internal stress and improve flatness in flat-walled crates but extend cooling time.

    Weld-line integrity is controlled by flow-front temperature and packing within the weld zone. In high-density polyethylene parts with a flow-length-to-thickness ratio above 120:1, the flow front may cool below 120 °C before fusion, producing a visible weld line with low elongation. Tool designers often place a vent or overflow tab at the weld region to remove entrapped air and raise local temperature. For crates with internal ribbing, the rib-to-wall thickness ratio should generally be kept below 60% to avoid sink marks; higher ratios require gas-counterpressure or foam-assist when available.

    Regrind use in moulding operations for this grade is common but requires control of particle size and contamination. A regrind level of 20–30% by weight is often tolerated when combined with natural pellets, provided the regrind is free of fines, oil, and paper dust. Higher levels reduce notched impact and can increase melt viscosity variability. The regrind fraction should be generated from the same grade to avoid density shifts and thermal-history variation.

    When Melt Dwell Time Exceeds 300 Seconds at 260 °C

    Thermal-oxidative degradation is the main operating boundary. At melt temperatures above 260 °C, stabiliser consumption accelerates. Residence times beyond 300 s can reduce complex viscosity, shift apparent melt flow rate upward, and produce a yellow tint or off-odour in moulded articles. The most severe consequence is loss of notched impact and tensile elongation at break, even when visual appearance remains acceptable. Production interruptions longer than 10–15 min should be managed by reducing barrel temperatures to 150–170 °C and by emptying the screw after a few minutes of shutdown. Purging with a high-viscosity HDPE or a dedicated purge compound is required before and after coloured, filled, or recycled material changes. The grade should not be processed with PVC, acetal, or fluoropolymer residues in the same screw assembly; mixed melts can release acidic decomposition products that corrode tooling and degrade impact performance.

    Pre-drying is not automatically required. Pellets stored in closed silos or sealed bags below 60% relative humidity are generally processed without drying. If surface moisture is suspected from outdoor storage or condensation, drying for 2–4 h at 80 °C in a desiccant or hot-air hopper dryer removes splay and surface defects. HDPE does not absorb significant water; the dominant moisture issue is surface condensation when cold pellets are introduced into a warm plant. Food-contact compliance associated with the base resin is typically assessed under IS 10146 and, where applicable, EU Regulation No 10/2011; the base olefin polymer may also be evaluated under 21 CFR 177.1520 for US food-contact applications, but final article compliance is converter-dependent because masterbatch, regrind, and processing aids can change specific migration behaviour.

    Quality control for incoming material frequently includes melt flow rate by ISO 1133-1:2022, density by ISO 1183-1:2019, and moisture content by Karl Fischer or oven method. A shift in melt flow rate of more than ±0.5 g/10 min from the certificate of analysis can indicate contamination, thermal history, or a different grade. A density shift of more than ±0.002 g/cm³ may affect mould shrinkage and top-load performance.

    Storage stability of the moulding grade is maintained by keeping bulk silos below 50 °C and avoiding long outdoor storage where UV stabiliser depletion may occur. The stabiliser package in the base grade is intended for standard melt processing; it does not provide long-term UV resistance for outdoor furniture or geomembrane applications unless a separately compounded UV package is added.

    Selection Against Lower-Density Injection Grades in the Same Series

    Compared with lower-density injection-moulding HDPE grades in the same melt-flow series, I60U080 increases flexural modulus and resistance to creep under sustained top load while reducing notched impact and environmental stress-crack resistance. The higher crystallinity also lowers oxygen and water-vapour transmission, which is relevant for barrier packaging but may not eliminate the need for a separate barrier layer. A converter requiring snap-fit flexural recovery or repeated drop impact should evaluate a lower-density grade; a closure or crate application with high stacking load generally favours the 0.960 g/cm³ density class. Published data for all comparative configurations is limited; selection should be based on top-load, drop-impact, and ESCR testing performed on the actual part geometry and gate configuration.

    Grade within seriesDensity classNominal melt flow rateRelative flexural modulusRelative ESCRTypical part category
    G-LENE I40U0800.940 g/cm³8.0 g/10 minmoderatehigherlarge thin-wall houseware, pails
    G-LENE I50U0800.950 g/cm³8.0 g/10 minelevatedmoderatecrates, caps, general closures
    G-LENE I60U0800.960 g/cm³8.0 g/10 minhighestlowerclosures, thin-wall food containers, high-stiffness crates

    When replacing polypropylene in a closure or crate, the processor must account for the lower melt temperature of HDPE and the higher mould shrinkage of polypropylene. The HDPE grade offers better resistance to stress cracking in contact with some polar liquids, but polypropylene may provide higher stiffness at equivalent density. Tooling cut for polypropylene typically requires re-cutting for HDPE because of differences in crystallisation shrinkage; this grade typically requires shrinkage allowances of 1.5–2.5%, whereas unfilled polypropylene may require 1.0–1.5% depending on crystallinity and filler content.

    For hot-filled or continuous-load service above 80 °C, the heat deflection temperature at 0.45 MPa indicates that deformation may occur under load. The grade is not recommended for continuous exposure above 90 °C in load-bearing parts or for prolonged contact with strong oxidising acids, certain hydrocarbons, or halogenated solvents. Weld-line strength in moulded crates and closures is sensitive to melt-front temperature at the meeting point; gate placement must prevent the weld line from falling on snap-fit flexural areas or the tamper-evident band hinge.

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