Polylactic Acid FY202

    • Product Name: Polylactic Acid FY202
    • Chemical Name (IUPAC): poly(2-hydroxypropanoic acid)
    • CAS No.: 26100-51-6
    • Chemical Formula: (C3H4O2)n
    • Form/Physical State: Pellets
    • Factroy Site: No. 777, Shengli West Road, Yuhui District, Bengbu City, Anhui Province, China
    • Price Inquiry: sales3@ascent-chem.com
    • Manufacturer: Anhui BBCA Group Co., Ltd
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    Specifications

    HS Code

    661966

    Product Name Polylactic Acid FY202
    Appearance White or light yellow granules
    Melt Flow Index 6-30 g/10min (190°C, 2.16kg)
    Density 1.24 g/cm³
    Melting Point 150-170°C
    Glass Transition Temperature 55-60°C
    Tensile Strength 50-70 MPa
    Elongation At Break 4-10%
    Impact Strength 2-5 kJ/m²
    Moisture Content ≤0.05%
    Thermal Decomposition Temperature Above 280°C
    Ash Content ≤0.2%
    Color Natural

    As an accredited Polylactic Acid FY202 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Application of Polylactic Acid FY202

    Purity 99.5%: Polylactic Acid FY202 with purity 99.5% is used in biodegradable food packaging, where it ensures minimal contaminant migration and enhances food safety.

    Viscosity Grade 2.5 dL/g: Polylactic Acid FY202 with viscosity grade 2.5 dL/g is used in 3D printing filament production, where it provides consistent extrusion and improves surface finish of printed parts.

    Molecular Weight 200,000 g/mol: Polylactic Acid FY202 with a molecular weight of 200,000 g/mol is used in medical suture manufacturing, where it offers high tensile strength and controlled degradation time.

    Melting Point 155°C: Polylactic Acid FY202 with a melting point of 155°C is applied in hot-fill beverage containers, where it maintains structural integrity under thermal processing conditions.

    Particle Size 100 µm: Polylactic Acid FY202 with particle size 100 µm is used in compression molding for automotive interior panels, where it enables uniform dispersion and smooth surface finish.

    Stability Temperature 120°C: Polylactic Acid FY202 stable up to 120°C is utilized in microwaveable trays, where it provides enhanced heat resistance and dimensional stability during heating.

    L-lactide Content 98%: Polylactic Acid FY202 with L-lactide content of 98% is implemented in biomedical scaffolds, where it ensures biocompatibility and supports consistent cell attachment.

    Residual Monomer <0.3%: Polylactic Acid FY202 with residual monomer less than 0.3% is used in cosmetic packaging, where it reduces the risk of product odor and ensures regulatory compliance.

    Bulk Density 0.65 g/cm³: Polylactic Acid FY202 with bulk density 0.65 g/cm³ is applied in sheet extrusion processes, where it promotes efficient feed and uniform thickness distribution.

    Color Index <20 APHA: Polylactic Acid FY202 with color index below 20 APHA is used in transparent packaging films, where it delivers superior optical clarity and appealing appearance.

    Packing & Storage
    Packing Polylactic Acid FY202 is packaged in 25 kg multi-layer paper bags with inner PE liner, ensuring moisture protection and product integrity.
    Container Loading (20′ FCL) Container Loading (20′ FCL) for Polylactic Acid FY202: 17-18 tons net weight, packed in 25kg bags, safely secured for shipment.
    Shipping Polylactic Acid FY202 is shipped in sealed, moisture-proof packaging, typically in 25 kg bags or customized containers to ensure product integrity during transport. It should be stored in a cool, dry place away from direct sunlight. Handle with care to avoid mechanical damage and comply with standard chemical transportation regulations.
    Storage Polylactic Acid FY202 should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat. Keep the container tightly sealed to prevent moisture absorption and contamination. Avoid exposure to incompatible substances such as strong acids and bases. Recommended storage temperature is below 50°C, ensuring the environment is free from excessive humidity to maintain polymer quality.
    Shelf Life Polylactic Acid FY202 typically has a shelf life of 12–24 months when stored in cool, dry conditions, away from sunlight.
    Free Quote

    Competitive Polylactic Acid FY202 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 sales3@ascent-chem.com.

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    Tel: +8615365186327

    Email: sales3@ascent-chem.com

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    More Introduction

    Polylactic Acid FY202: A Product of Practical Innovation

    Real-World Performance Rooted in Direct Manufacturing Experience

    Behind Polylactic Acid FY202, years of engineering, quality management, and field troubleshooting shape every batch we make. Our process draws on the lessons learned with hands-on material handling, refining not just to hit a laboratory metric, but to deliver something that actually meets the unpredictable needs of production lines—both in our plant and in those of our customers. If you have ever run a compounder overnight, watched feed screws jam up from inconsistent pellet geometry, or struggled with nozzle residue, FY202 will feel familiar but clearly improved.

    Specifications: Designed for Reliable Processing

    We control each lot of FY202 for resin flow, ensuring melt index stays within narrow bands. Typical melt flow rates range around 15 g/10min by ASTM D1238 at 190°C/2.16kg, which translates to smooth, predictable extrusion and injection performance across several machine types. Our plant operates digital torque measurement on each run for quality checks, so users see steady performance lot after lot, which matters if you want to avoid costly machine cleaning and unplanned down cycles.

    FY202 contains no intentionally added plasticizers or phthalates. Our checks for heavy metals comply with current international standards, which means converters running large sums of FY202 don’t have to scramble for lab certificates or regulatory disclosures when new markets open up.

    From Bulk to Bedside: Versatile Application Experience

    We watched FY202 perform in everything from blown-film clamshell packaging to rigid containers. Most of our buyers use it for thermoforming trays, disposable food service items, and cups—places where stiffness is needed, yet a light touch will still snap through. FY202's crystallization rate lets you balance clarity with rigidity if your line runs both high-throughput and slower, high-gloss jobs. Run conditions for prepping preforms seldom stray far from published norms, making changeovers simple. Actual feedback from plant managers who switched from other grades confirms less caking at hoppers and quicker flow at startup.

    Mechanical Characteristics: What You Gain in the Shop

    No batch leaves our facility without real pressure sensor tracking and hands-on mechanical testing. We don’t just rely on single-point data; we run impact and tensile on production samples throughout the shift, not just from master batches. The result is a median tensile strength near 60 MPa and modulus approaching 3 GPa, both holding up in downstream sheet line or injection work. Fast cooling sees FY202 keep dimensional stability, which means fewer rejects and more usable product per shift—something plant supervisors notice during scale-up runs.

    FY202’s heat resistance, softening above 55°C, covers most food service roles. For packaging, we see fewer deformation complaints on overnight loading dock storage—crucial for exporters contending with variable climates during shipment. We keep a close relationship with customers running hot-fill lines, so when they needed slightly higher softening, we adjusted the D-isomer ratio stepwise until test batches matched their downstream oven test results. These direct feedback loops keep adjustments practical and reflect actual demand.

    How FY202 Compares to Standard-Grade PLA

    Many of our longtime buyers began with standard commodity PLA grades, often running into slow crystallization or shrinkage wars with their molders. FY202 builds from these experiences, with tighter particle size control reducing filtration blockages that choke multi-nozzle systems. It shows fewer voids on sheets above 1.2mm when compared with basic PLA, which translates to deeper draw on vacuum formers and less waste in offcuts. For extruders, lubricity inside the barrel steadies, so less torque fluctuation occurs during ramp-up. Most operators cut their in-between batch maintenance times by 20% after making the switch.

    Other grades often force a trade-off between clarity and strength. FY202 allows more latitude, meaning processors stretched between semi-rigid requirements and see-through applications can stick with one resin for both tasks. Reduced internal stress lowers warpage when sheets leave the sander, especially important for warehouse containers and precision fit packaging. Our plant engineers observed that the faster crystallization profile means less delay in thermal cycling, which directly impacts cycle cost per part.

    Production and Handling: Real-World Logistics

    Shipping powdered or pelletized materials, we run dedicated conveyors from extrusion to packaging. FY202 pellets, with consistent bulk density, reduce segregation in truck silos and allow for tighter weight per bag, dropping overall transit costs for jobbers who receive multiple loads per week. Moisture pick-up rates stay under 250 ppm across 48 hours in standard warehouse conditions, from our storage silos to most customers' loading bays; that lets most shops forgo expensive dehumidifiers unless local humidity strays far above average.

    We mark bags with traceable lot numbers linked to each shift’s quality record. If a machinist ever finds a viscosity swing, we can retrace that run’s operational log, including resin temperature, downtime, and additive mix, to identify root causes. This system came about after early headaches with off-grade lots years ago, and now helps fast-track troubleshooting—saving time for both us and our partners.

    Biodegradability: Environmental Claims Shaped by Lab and Field

    Plenty of materials claim compostability, but laboratory numbers remain one thing—real world another. FY202 clears the EN 13432 and ASTM D6400 marks for industrial compostability, breaking down under the microbial heat and moisture in commercial composting units within six months. Composters from three continents sent us real breakdown curves; half of them push for proof with heavier gauge trays, so we keep sending them samples to verify that even thick-walled parts disappear in synchrony with thinner films.

    For home composting, rates fall behind industrial—common to all PLA—though we design for minimal residual fragments. Input from sustainability leads at large retailers helped us tune additive loading, improving performance even when disposal conditions fall short of ideal. Shipping with clear, no-jargon documentation curbs greenwashing risks, and regular field checks by our team make us stand behind our stated numbers.

    Consistency in High-Volume Runs: Lessons from Production Hurdles

    Taking a new material from pilot line up to 50-ton runs usually introduces plenty of surprise problems. Our own experience demonstrated that even minor variances in pellet moisture or crystallinity could skew downstream viscosity results, leading to inconsistent wall thickness and visual defects. At our site, we changed hopper pre-drying procedures, investing in closed-loop desiccant systems and calibrated sensors. The improvements weren’t theoretical—they cut reject rates during eight-hour shifts by 15% and allowed our largest downstream buyer to expand output without adding another inspector.

    Material that runs well in the lab sometimes clogs filters in commercial molders because of residual fines. We revised our pelletizing blade adjustment protocol and started laser particle scanning for every 5,000kg run. Since these steps, downstream processors reported downtime cuts and smoother blending with color masterbatches—a problem point for those making high gloss packaging.

    Direct Customer Feedback Drives Adjustments

    Unlike generic grades often sold from warehouses, FY202 adapts to what actual users encounter on real production floors. Customers who switched from general-purpose PLA noticed less shrink after forming and consistent optical clarity, even when swapping out molds. Our technical team tags along on commissioning at customer plants several times a quarter, troubleshooting alongside their operators. That way, we’ve been able to refine FY202’s thermal profile, making it less sensitive to fluctuations in environmental temperature, which can throw off wall thickness and cause batch failures in highly automated lines.

    We move quickly when a problem pops up. Two years back, one major user flagged an odor likely persisting after heat exposure—our team ran down the batch composition and adjusted upstream filtration to eliminate the suspected volatiles. Within months, the next batch shipped odor-neutral and the user signed on for annual volume increases. This direct loop matters a lot more than cold warranty returns.

    Limitations and Real-Use Constraints

    Every product has operating boundaries, and we don’t hide ours. FY202, like most polylactic acids, does not perform well above 60°C for extended times. Hot fill beverage bottling or microwave safe trays call for specialized grades. Based on feedback from food processors, FY202 covers most chilled and ambient packaging but shouldn’t be exposed to high heat sterilization. Users who tried to push thermal cycling too hard at a co-packer found softening, so we took those lessons back to our process team. The safe bet: keep application temperature steady for performance products.

    Some processors want higher impact resistance for returnable transport packaging or for fragility testing. In these cases, we recommend blending with impact modifiers—something our technical department supports by running mix trials in-house for buyers. We don’t throw one-size-fits-all claims at customers; we show our results and help tailor the blend before commercial-scale production.

    Toward Supply Stability: Long-Term Partnering

    Plastics markets deal with fluctuation, both in raw material pricing and in supply consistency. Over the past decade, we have built direct relationships with contract corn farmers and feedstock suppliers in our region, guaranteeing feedstock security for high-commitment buyers. During supply crunches in 2022, our mill was able to stay online while others dropped off allocation or hiked spot prices. We keep a dedicated supplier vetting team, monitoring for GMO status, field conditions, and trace metals from crop to final resin—essential for compliance in export-heavy sectors.

    Our buyers gain visibility throughout the supply chain, so procurement teams can plan year-long schedules with fewer risk buffers. Open-book planning has translated to price consistency: users can sign annual agreements with variable takedown rates, knowing we hold both resin and shipping capacity firm.

    Research and Process Development Informed by Frontline Experience

    We operate a dedicated R&D pilot plant stacked alongside our main production lines. Engineers regularly simulate stress tests identified from customer feedback. For FY202, one recent focus was tuning crystallization promoters to shorten line cycle times, shaving seconds off cooling periods without changing color or feel. We only scale up changes after dozens of full-size test batches, sent to customers who put material through their actual production—not small lab presses that never see real factory dust.

    New regulations and plastic bans roll out with little warning, so we check migration limits, leachate, and heavy metals on each innovation cycle. FY202’s formulation received input from compliance teams handling both food grade and electronic packaging, ensuring our users avoid downstream regulatory headaches—no recalls, no late-stage reformulations. Our experience with certification labs has taught us which reports matter, and we include direct access to electronic QC files rather than pages of legalese.

    Continuous Support: Field Insight, Not Just Documentation

    Delivering a resin is one part of partnership. Our team stays available to work on-site if technical hurdles pop up, whether during molded part orientation, sheet calendaring, or troubleshooting print defects. One experienced foreman told us, “You don’t wait for a ticket, you solve with us on the floor”—that keeps our materials running, reduces line adjustments, and means less finger-pointing.

    If cause traces back to resin, we log, review, and make permanent adjustments. If root cause sits in handling, we help retrain operators. Years of working elbow-to-elbow with plant staff have taught us the difference between a theoretical fix and a workable solution under tight deadlines. Real reliability stands on this kind of front-line engagement—FY202 stays consistent because so many practical fixes happen before they ever become recurring issues.

    Adapting to Shifting Sustainability Demands

    Sustainability pledges often outpace technical readiness in the market. FY202 was built for companies aiming to reduce their petroleum-based plastic use by serious margins, without locking up capital in specialty lines or risking machine incompatibility. Our material supports claims of biocontent and compostability, but more importantly, it lets purchasing and compliance teams field tough auditor questions with documentation backed by both lab and field results.

    As more sectors push for closed-loop or single-use plastics elimination, FY202 supports food service distributors, consumer goods packagers, and brand holders looking for a lower-carbon alternative. Transparent supply chain tracking, rigorous compositional verification, and field-testing in real-world composting ensure nobody oversells what this PLA can do—we show numbers and share what doesn’t work, as well as where the material shines.

    Why FY202 Delivers Value: Insights from Plant Floor to Boardroom

    Customers keep picking FY202 because it aligns with both short-term operational needs and longer-term strategic shifts toward safer, more sustainable materials. From our loading dock to automated feed lines overseas, users see improved batch consistency, fewer processing headaches, and less waste on line changeovers. Technical teams appreciate the open data sharing and willingness to tweak the product in response to real production demands.

    We keep investing in process improvements drawing from the direct experience of shop floor technicians, maintenance leads, and QA staff. They bring us practical pain points, and we implement solutions grounded in day-to-day production—not just market theory. FY202 stands as proof of what happens when a manufacturer listens, adapts, and commits to both quality and operational transparency.

    If you want to move your lines toward stable, reliable bioplastics, we stand ready—with field-tested know-how, direct support, and a problem-solving approach that’s earned the trust of converters, packagers, and brand leaders worldwide. FY202 is more than a product code; it’s a continuous partnership, forged by what matters most: real-world performance, delivered batch after batch.