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HS Code |
550833 |
| Chemical Name | Poly(Vinylidene Fluoride) |
| Product Code | JHS 1020 |
| Appearance | White granular resin |
| Density | 1.77 g/cm³ |
| Melt Flow Index | 10-20 g/10min (230°C, 5kg) |
| Crystallinity | 50-60% |
| Tensile Strength | 38 MPa |
| Elongation At Break | 15-20% |
| Melting Point | 170-175°C |
| Thermal Decomposition Temperature | 420°C |
| Dielectric Constant | ≥ 8.4 (at 1 kHz) |
| Water Absorption | < 0.04% |
| Solubility | Insoluble in water, soluble in polar solvents at high temperature |
As an accredited Poly(Vinylidene Fluoride) JHS 1020 Resin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 99.5%: Poly(Vinylidene Fluoride) JHS 1020 Resin with purity 99.5% is used in lithium-ion battery binders, where it ensures high ionic conductivity and minimal impurities. Molecular Weight 500,000 g/mol: Poly(Vinylidene Fluoride) JHS 1020 Resin with molecular weight 500,000 g/mol is used in membrane production, where it provides excellent mechanical strength and chemical resistance. Melting Point 170°C: Poly(Vinylidene Fluoride) JHS 1020 Resin with melting point 170°C is used in wire and cable insulation, where it delivers superior thermal stability and flame retardance. Particle Size D50 12 μm: Poly(Vinylidene Fluoride) JHS 1020 Resin with particle size D50 12 μm is used in powder coatings, where it enables uniform dispersion and smooth film formation. Viscosity Grade 1100 mPa·s: Poly(Vinylidene Fluoride) JHS 1020 Resin with viscosity grade 1100 mPa·s is used in extrusion processes, where it ensures consistent melt flow and high output rates. Stability Temperature 150°C: Poly(Vinylidene Fluoride) JHS 1020 Resin with stability temperature 150°C is used in chemical process equipment linings, where it maintains integrity under prolonged thermal exposure. Crystallinity 50%: Poly(Vinylidene Fluoride) JHS 1020 Resin with crystallinity 50% is used in filtration membrane applications, where it results in high porosity and enhanced filtration efficiency. Water Absorption <0.04%: Poly(Vinylidene Fluoride) JHS 1020 Resin with water absorption less than 0.04% is used in electronic device housings, where it provides exceptional moisture resistance and dimensional stability. Dielectric Strength 75 kV/mm: Poly(Vinylidene Fluoride) JHS 1020 Resin with dielectric strength 75 kV/mm is used in electrical insulation films, where it offers reliable insulation performance in high-voltage applications. UV Resistance: Poly(Vinylidene Fluoride) JHS 1020 Resin with advanced UV resistance is used in outdoor architectural coatings, where it delivers long-term color retention and weatherability. |
| Packing | Poly(Vinylidene Fluoride) JHS 1020 Resin is packaged in a 25 kg white polyethylene bag with printed product and safety labels. |
| Container Loading (20′ FCL) | **Container Loading (20′ FCL) for Poly(Vinylidene Fluoride) JHS 1020 Resin:** Net weight: 10 metric tons, packed in 25 kg bags, 400 bags per container, palletized, suitable for export. |
| Shipping | Poly(Vinylidene Fluoride) JHS 1020 Resin is shipped in sealed, moisture-proof packaging, such as polyethylene-lined kraft bags or drums, typically in 25 kg units. During transport, it should be kept dry and away from direct sunlight, heat, and incompatible substances to ensure product stability and quality upon delivery. |
| Storage | Poly(Vinylidene Fluoride) JHS 1020 Resin should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and moisture. Keep containers tightly closed to prevent contamination. Avoid exposure to strong acids, bases, and oxidizing agents. Store at room temperature and handle with care to maintain material integrity and prevent dust generation. |
| Shelf Life | Poly(Vinylidene Fluoride) JHS 1020 Resin typically has a shelf life of 12 months when stored in cool, dry conditions. |
Competitive Poly(Vinylidene Fluoride) JHS 1020 Resin prices that fit your budget—flexible terms and customized quotes for every order.
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Sourcing reliable materials forms the backbone of every successful manufacturing operation. Here at the plant, each batch of Poly(Vinylidene Fluoride) JHS 1020 Resin leaves our production lines after rigorous checks and trusted process control. Years of experience along with direct feedback from battery engineers, cable makers, and coating specialists have shaped every adjustment in our production protocol. Our commitment extends from careful raw material selection right through to packaging, all geared to deliver consistency with every shipment.
JHS 1020 Resin brings together our collective learning from working directly with converters and technical end-users. In practical terms, this resin stays stable under thermal cycling, resists most chemicals in aggressive industrial setups, and lays down a tough, long-lasting barrier. We learned early on that PVDF sometimes fails under stress if purity fluctuates. Through investment in integrated filtration and advanced polymerization, we maintain a high level of fluorescence stability, which our clients in lithium-ion battery separators and membranes value deeply.
Real-world tests in fluoropolymer extrusion, compounding, and film casting have shown JHS 1020 handles shear and heat without early chain scission. The melt flow characteristics facilitate extrusion, minimizing operator intervention and waste. We see fewer clogged dies, lower downtime, and reduced color streaking, all of which we tracked through collaborative troubleshooting with our partners’ lines.
Processors appreciate the absence of ‘off-gassing’ odors and minimal die buildup, especially during high-speed cable and pipe manufacturing. Our input from extruder operators pointed to the importance of predictable pellet shape and feed performance for automated systems. We maintain tight moisture levels and use direct on-site storage, preserving the attributes required for optimal performance in pellet-fed systems. JHS 1020 arrives clean, without dust fines, and minimizes filter change intervals, even in continuous high-throughput setups.
Coating specialists using JHS 1020 in membrane processing highlight the importance of narrow molecular weight distribution, which ensures even pore structure and breathability in filtration membranes. Through years of measuring viscosity changes, we have been able to confirm long-term stability in the product, leading to repeat orders from major industrial players. Whether cast as a film, extruded as a tube, or applied as a powder coating, our clients report that JHS 1020 enables them to set precise process controls and reduce batch-to-batch variations.
Battery and electronics applications require resin that contains minimal ionic contamination and very low trace metals. That means we can’t cut corners on purification or let cross-contamination slip through at any production step. Because of this priority from our customers, we run in-line real-time elemental checks and collaborate closely with our upstream suppliers to minimize transition metal and halide backgrounds. Routine lab confirmations ensure the resin maintains clarity in optical film and stays within battery-grade purity thresholds. Installation of closed-loop vacuum transfer and nitrogen blanketing throughout our production chain secures the quality customers have come to rely on.
Customers shifting from generic PVDF notice a cleaner melt, fewer gel specks, and less defect formation. Internal vertical integration lets us handle the resin from monomer to pellet without reliance on outside processing. This control over each step means the finished JHS 1020 meets the toughest standards set by international battery makers, composite system integrators, and ultrafiltration membrane manufacturers.
Years on the job have taught us that consistency in PVDF comes from sticking to well-proven process windows and refusing to trade long-term reliability for short-term savings. JHS 1020 is processed under controlled temperature and agitation regimes, monitored by both automated sensors and hands-on technicians with years of practical knowledge. Frequent feedback cycles between production, QA, and even end technicians on customer sites keep us alert to any minor shifts.
It’s the subtle details—like achieving steady granule size, tightening residual monomer targets, and monitoring viscosity swing—that keep complaints at bay and ensure operators can move seamlessly between lots. By keeping customer lines running without last-minute process changes due to resin variability, we help partners avoid overtime hours and scrap rates that eat into margins.
Generic PVDF resins often come from tolled production or batch sources, where raw material variation, older reactors, or soft process discipline can inject unpredictable shifts in molecular structure and enhance impurity pickup. JHS 1020 comes exclusively from our sites, with direct line-of-sight control from the first polymerization step to the final packaging. This approach allows us to meet high-level requirements like consistently low potassium and sodium content, which guard against performance drift in critical applications.
Unlike multi-grade or blended offerings, JHS 1020 maintains a distinctive profile. Users will find improved pellet regularity, with melt index variations held within single-digit percentage points across months of production. This translates in the field to smoother melt flow during high-volume lamination and foam extrusion, where split-second control keeps equipment uptime high. Technical service teams compare not on marketing claims, but by tracking the in-field measurements reported by line supervisors and quality labs.
Feedback from cable coating facilities shows fewer instances of electrical discharge breakdown and pinhole defects, especially after large-scale rollouts. Coaters processing hundreds of kilometers per day have given specific credit to JHS 1020’s processing stability—resin stays evenly dispersed in solvent blends, reducing rework. This has a direct knock-on effect: lower solvent usage and steadier coating thickness over long production runs.
Battery packagers often weigh cost per kilogram carefully. Still, they’ve told us the downstream yield and performance reliability matter more when costly electrode materials and cell safety ride on the outcome. JHS 1020 consistently records low swelling and shrinkage when used as a binder in cathode and anode slurries. Here, quantitative feedback from cell test lots provides the foundation for ongoing resin improvement, with electrode adhesion and electrolyte wetting at the center of our focus.
Every project brings its own unique hurdles. Installers and plant engineers working in corrosive chemical lines or architectural cable runs have highlighted material breakdown as a recurring challenge. After fielding these concerns, we refined JHS 1020’s processing profile to enhance resistance to halogenated solvents, acids, and ozone environments. It now sees regular deployment in demanding chemical transfer hoses, fuel line barriers, and architectural cladding.
Facility managers praise the manageable processing temperatures that help keep energy use down. Maintenance logs show that lines run more hours between die cleans and replacement, cutting downtime and letting technicians focus on continuous operation instead of frequent troubleshooting. Operators often share the value of fewer impurities and stable extrusion, especially under tough production targets.
Working side-by-side with technical teams in filtration and water treatment, we’ve seen how stringently controlled resin structure directly supports pore structure precision in final membrane filters. Operators have noted increases in filtration efficiency and longer service intervals. In these settings, JHS 1020’s reliability over extended use makes a measurable difference, giving peace of mind and allowing manufacturers to promise high-quality results to their customers.
Outdoor and high-temperature applications expose materials to severe UV and thermal cycling. Over time, these elements test the true quality of any fluoropolymer. Long-term field measurements from infrastructure installations have proven that JHS 1020 maintains its mechanical properties without undue chalking or embrittlement. Reports from cable sheath manufacturers and architectural fabricators confirm that our resin stands up to relentless sun, wind, and industrial fumes. This robustness stems from tightly managed polymerization chemistry and precise incorporation of proprietary stabilizers, developed after observing the long-term performance of early product generations.
Through extensive aging trials and accelerated lab testing, we saw firsthand that formulation shortcuts and uncontrolled impurities in competitive offerings tend to accelerate yellowing and mechanical breakdown. Our learning led to improvements in reactor control and post-treatment, ensuring every lot of JHS 1020 delivers the resilience demanded by professionals building the infrastructure of tomorrow.
We operate under strict local, national, and international chemical safety standards, not just to meet rules, but because we want to protect our teams and our customers. Every batch of resin features full traceability back to its reactor run. Regulations around fluoropolymers have grown tighter in recent years, especially for applications in potable water, food handling, and critical electrical insulation. Ongoing investment in compliance and oversight keeps JHS 1020 qualified for high-stakes installations, and helps customers demonstrate their compliance to their own auditors.
Routine third-party tests back up our in-house analytics, providing the kind of accountability that builds trust up and down the supply chain. By taking responsibility at every stage—and welcoming customer audits—we minimize the risk of unplanned disruptions or recalls. Experience shows that this approach fosters strong, long-term relationships and opens the door to deeper technical collaboration.
The path to dependable resin isn’t paved by gut instinct or marketing campaigns. At our facility, our technical and production teams spend hours evaluating each step: from monomer purification, through polymerization, stabilization, and pelletizing, to handling and shipping. Alongside routine jobs, team members often run pilot lines just to double-check compounding response or process changes suggested by customer feedback. These on-the-floor lessons feed directly into our production and quality protocols.
For JHS 1020, we track not just how lab samples perform, but also operator comments on visual appearance, ease of clean blanking, and color consistency. When a problem is flagged—such as occasional rough surface finish or minor fisheye in thin films—everyone from plant engineering to technical service gets involved until we resolve it. Sustaining this feedback loop pays off in the reduction of line callouts or failed rolls, which lets our customers focus on broadening their own business instead of firefighting resin problems.
Buyers and engineers need more than a material spec; they count on real people who stand behind each shipment. Whether it’s an unexpected shift in processing temperature, questions about solids content in a slurry, or the finer points of regulatory reporting, our onsite technical service team answers directly, often visiting plants for hands-on troubleshooting. This approach lets us catch issues quickly and share practical tactical advice grounded in daily working reality.
Some customers face steep learning curves moving to PVDF from other fluoropolymers or stepping up from general-grade plastic. We walk them through tool changes, purging tips, and processing line tweaks, often saving trial-and-error cycles that can delay major launches. The result is a collaborative learning process that minimizes headaches and maximizes value from day one.
Decades of practical feedback point to three main attributes—steady processability, chemical resistance, and long service life—as the minimum requirements for resin adoption in high-visibility applications. JHS 1020 stands up to this scrutiny by maintaining all three over repeated analysis and FTIR validation on production lines. Customers shifting away from resins with inconsistent granulation or uncontrolled additive loading tell us they notice a marked reduction in unplanned maintenance and callouts.
As new fields—like renewable energy, high-performance urban architecture, and advanced filtration—push the limits of material performance, production crews and design engineers need peace of mind backed by field data. We support these efforts with years of accumulated batch records, case histories, and product improvement files, giving users the evidence they need to build, ship, and certify ambitious new installations.
Demands on fluoropolymers continue to rise. Electronics miniaturization, environmental exposures, tighter regulatory frameworks, and ongoing cost control keep pushing for better performance and reliability. Our development teams explore new approaches in fine-particle dispersion, microstructure control, and sustainable raw material sourcing. Importantly, we don’t experiment at the expense of established reliability; every suggested change is piloted, validated, and customer-tested before it becomes part of routine runs.
Resin isn’t just a commodity—every roll, spool, or sheet made using JHS 1020 carries with it a story of technical dedication, operator proficiency, and close communication up and down the value stream. When users choose this resin, they gain a partner firmly grounded in the realities of tough production environments—a partner determined to offer not just materials, but day-by-day peace of mind grounded in hard experience.