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HS Code |
983005 |
| Chemical Name | Poly(Vinylidene Fluoride) |
| Product Name | JHS 3018 Resin |
| Appearance | White powder or granules |
| Molecular Formula | (C2H2F2)n |
| Density | 1.76-1.78 g/cm³ |
| Melting Point | 165-175°C |
| Glass Transition Temperature | -35°C |
| Water Absorption | <0.04% |
| Tensile Strength | 40-55 MPa |
| Elongation At Break | 10-50% |
| Dielectric Constant | 8.4 (at 1 kHz) |
| Thermal Decomposition Temperature | >350°C |
| Solubility | Insoluble in water, soluble in polar solvents |
| Color | White |
| Particle Size | Typically 20-100 μm |
As an accredited Poly(Vinylidene Fluoride) JHS 3018 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 3018 Resin with a purity of 99.5% is used in high-performance lithium-ion battery binders, where it enhances electrochemical stability and cycle life. Molecular Weight 350,000 g/mol: Poly(Vinylidene Fluoride) JHS 3018 Resin with a molecular weight of 350,000 g/mol is used in membrane fabrication, where it provides superior mechanical strength and barrier properties. Melting Point 170°C: Poly(Vinylidene Fluoride) JHS 3018 Resin with a melting point of 170°C is used in wire and cable insulation, where it ensures thermal resistance and long-term durability. Particle Size D50 25 μm: Poly(Vinylidene Fluoride) JHS 3018 Resin with a particle size D50 of 25 μm is used in powder coatings, where it achieves uniform coverage and excellent surface finish. Viscosity Grade 25 mPa·s: Poly(Vinylidene Fluoride) JHS 3018 Resin with a viscosity grade of 25 mPa·s is used in architectural coatings, where it imparts smooth film formation and weathering resistance. Stability Temperature up to 120°C: Poly(Vinylidene Fluoride) JHS 3018 Resin with stability temperature up to 120°C is used in chemical process equipment linings, where it maintains mechanical integrity under corrosive conditions. Crystallinity 52%: Poly(Vinylidene Fluoride) JHS 3018 Resin with crystallinity of 52% is used in medical device housings, where it delivers dimensional stability and chemical inertness. Water Absorption <0.04%: Poly(Vinylidene Fluoride) JHS 3018 Resin with water absorption below 0.04% is used in semiconductor fabrication components, where it minimizes contamination risk and ensures reliability. |
| Packing | The Poly(Vinylidene Fluoride) JHS 3018 Resin is packaged in a 25 kg white polyethylene bag with blue printed labeling. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Poly(Vinylidene Fluoride) JHS 3018 Resin: typically 16-18 metric tons packed in 25kg bags. |
| Shipping | Poly(Vinylidene Fluoride) JHS 3018 Resin is securely packaged in moisture-resistant, sealed bags or drums, typically in 25 kg units. It should be shipped by covered transport, protected from direct sunlight, moisture, and physical damage. Store in a cool, dry, well-ventilated area. Comply with relevant local and international chemical regulations during transit. |
| Storage | Poly(Vinylidene Fluoride) JHS 3018 Resin should be stored in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and moisture. Keep the container tightly closed to prevent contamination. Store away from incompatible substances, such as strong oxidizers. Proper storage ensures product quality and safety during handling and use. |
| Shelf Life | Poly(Vinylidene Fluoride) JHS 3018 Resin typically has a shelf life of at least 12 months when stored in original, unopened containers. |
Competitive Poly(Vinylidene Fluoride) JHS 3018 Resin prices that fit your budget—flexible terms and customized quotes for every order.
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Poly(Vinylidene Fluoride), known around our shop floors as PVDF, has always punched above its weight. Over the years, plenty of businesses—from cable makers to battery engineers—have relied on PVDF for the type of performance that doesn’t back down under demanding chemistry or weather extremes. Our JHS 3018 Resin carries that legacy into the next generation. Decades of running reactors, tuning process lines, and troubleshooting customer challenges have shaped its development. We designed JHS 3018 not because the industry called for more choices, but because people needed real solutions to evolving technical problems.
We began with the places where PVDF already earned its stripes: lithium battery binders, wire and cable jacketing, filtration membranes, and specialty coatings. Each of those fields brings a unique set of headaches—aggressive solvents that chew up lesser plastics, long-term sun exposure, tight purity demands, ultrathin extrusion for finer wires. For JHS 3018, we zeroed in on the blend of molecular weight, particle size, and crystallinity that lets our customers push up against those limits. Lithium-ion battery manufacturers, for instance, often tell us polymer dispersibility ruins throughput if it varies from batch to batch. In producing JHS 3018, we keep particle distribution in a narrow band, so operators can sit through a 24-hour run without readjusting the mill every two hours. It’s not about fancy marketing claims—it’s about days saved on the floor.
Some resin suppliers prioritize absolute yield or short polymerization cycles, betting on price above all. We recognized early on that customers burn up raw material cost in rework and downtime if their resin is unpredictable. Our JHS 3018 Resin comes off the line with consistent melt flow, so film extrusion or wire coating never bogs down from clogging or blown surfaces. The resin offers solid thermal stability, keeping mechanical strength stable past 150°C—vital for cable insulation and automotive wiring that sees engine heat or outdoor exposure. Our own exposure tests in humid, sun-baked yards show that it resists rapid degradation for years after PE or PP jackets fail.
Chemically, JHS 3018 avoids unwanted impurities—metals, halide residues, rogue monomers—by refining monomer sourcing and washing steps. Our QA team has seen firsthand how escaping traces can spike battery impedance or filtration device failures. Even a small drop in ionic contaminants helps customers reduce early-life cell rejections or meet international standards. We do not see this as box-ticking but as a matter of pride that our resin doesn’t come back in complaints.
JHS 3018 Resin arrives as a white granular powder. We keep batch-to-batch average grain size within industry targets, which means pneumatic conveying runs smoothly whether vacuuming to a silo or hand-feeding a smaller compounding line. The resin carries a specific ratio of crystalline to amorphous domains, balancing easy processability with solvent resistance demanded in lithium battery slurries. Some competitors have chased maximum crystallinity, but we’ve found users pay the price with poor adhesion or cracking at low load levels. The mid-range melt viscosity allows both solution and melt processing approaches—an important call-out, since not every plant follows a single path to finished goods.
We test JHS 3018 against international PVDF standards, running the same gear our customers use: twin-screw extruders, vacuum ovens, precision mixers, and pilot coating lines. We measure glass transition temperature, dielectric strength, and elongation in-house. This routine has hammered in the lesson that one rogue bag in a truckload can turn into thousands of meters of defective film by mid-week production. So, we check each batch for moisture uptick, ash levels, and intrinsic viscosity before it crosses the shipping dock.
Lithium-ion manufacturers know how a binder can break cell consistency; time after time, JHS 3018’s tight impurity control has offered a safer foundation. Film processors trace fewer pinholes and burn marks back to our melt-flow tuning down the line. Coating technicians value the ease of pigment dispersion, the way suspension comes together without waiting or repeated re-dispersion. Once processed, the resin’s finished articles resist acids, bases, and a broad band of organic solvents. This performance edge doesn’t just come from the formula, but from every step—monomer prep, emulsion polymerization, granulation, drying, packing—down to the way a warehouse stores bags off the ground.
Battery binders aren’t glamorous, but they make the difference between a cell that cycles 500 times and one that dies in 100. JHS 3018 solves a few critical problems. Its particle surface chemistry sticks evenly to active materials and current collectors, so slurries hold together without clumping up or leaving voids. The resin’s clean profile slashes the risk of transition metal contamination, which can spike impedance or drop cell safety. Process teams value the resin’s consistent viscosity for keeping automated mixing and coating equipment online, run after run. And, during drying, sheets cure evenly—cutting the defect rate before stacking and winding even starts.
Our plant teams often walk customers through line commissioning, especially as battery specs shift with new cathode chemistries or faster cycle targets. Feedback from these front lines gave us real-world benchmarks for further refining particle control and sizing to minimize slurry settling during storage or transfer. It’s these tweaks—not big pronouncements—that give JHS 3018 customers tangible improvements over commodity PVDF resins.
PVDF jackets from JHS 3018 meet tough cable spec standards. We worked with cable manufacturers to ensure tight diameter control and reliable surface finish for insulation that holds up under flexing, wet conditions, and high-voltage stress. We pressure-test sample runs with water immersion and thermal cycling to make sure downstream cables don’t show cracking or embrittlement. You’ll see these jackets in critical telecom, aerospace, and submarine cables where short circuits or maintenance failures simply aren’t an option. JHS 3018 resists chemicals and fungal growth, which helps keep buried or outdoor cables running for years with little upkeep.
The experience we’ve shared tracing production challenges upstream means we don’t wait for customers to complain about brittle jackets or inconsistent extrusion rates. We walk their lines, review their run data, and adjust homogeneity and plasticizer compatibility during our design cycle, not after batches are delivered. JHS 3018 wasn’t designed in a lab alone—it grew out of thousands of long days keeping high-speed extruders productive.
Filtration device makers depend on every batch of resin showing up with razor-sharp purity. JHS 3018 holds consistent pore size formation under demanding phase inversion or TIPS processes. Its clarity and chemical stability suit water treatment, pharmaceutical, and food-grade systems that can’t accept leachable organics, and its mechanical strength doesn’t collapse under pressure cycling. We routinely verify each drum of JHS 3018 for low extractables, because the last thing any filtration maker wants is an end-user report of off-taste or plugged cartridges. The resin’s molecular architecture reliably translates into strong, flexible membranes, with minimal curling or warping after production.
Operating as a manufacturer, we often step in when filter plants push their line speeds or change humidity controls, advising on resin temperature conditioning or storage approaches. This goes far beyond selling a bag—it’s about keeping plants running without product recalls or endless filter returns.
Across industry sectors, reliability starts with material that arrives as promised every time. Our decades of firsthand troubleshooting have taught us that the biggest improvements come in the smallest details: eliminating off-grade batches, watching for dust contamination, packing material so that it handles well on everything from 25kg bags to bulk bins. JHS 3018 Resin ships with moisture content below defined ceilings, so film and sheet producers avoid gel formation and unexpected pinholes. Every year, our QA team works through months of outdoor and stress testing, exposing films and cables to real UV, humidity, and mechanical cycling before they earn our label.
We keep detailed records for each lot. Should a customer flag a run, we pull retention samples, rerun lab analysis, and track each shipment. Many in the industry see this as extra work. We see it as part of creating real trust. Our production doesn’t end when the resin leaves the warehouse; we remain involved as customers scale up lines or adjust recipes for new finished products.
Sustainability remains front and center in our process improvements. PVDF itself stands out for its long service life—measured in decades, not months—at lower maintenance frequencies. That translates to fewer replacements, reduced downtime, and less material sent to landfills. JHS 3018 reaches this durability benchmark through careful control of polymer end groups and the exclusion of plasticizers or fillers that shorten life cycles. Our facility recovers process heat during polymerization, manages solvent recovery with high-efficiency capture systems, and continuously tunes our emissions footprint. We’re not perfect, but we keep pushing unit costs down and lifecycle responsibility up with each improvement.
Every manufacturing challenge brings its own surprises. It isn’t enough to ship resin and expect customers to figure things out. Over years visiting customer plants, adjusting formulations, and helping troubleshoot, we’ve shaped JHS 3018 with a practical understanding of what goes wrong—and how to avoid it. We keep a team of application engineers on hand who know these problems from the ground up, because many spent their own careers in battery, wire, or filter shops before joining us. We believe that real support means being ready to help—not just taking calls, but having people on-site, hands dirty, getting lines back in shape.
We treat process control as a path, not a destination. Our lines run under continuous DCS monitoring, with historical data trending so we can trace even minute shifts in polymerization yield, gel particle count, or residual monomer release. This constant feedback loop lets us refine JHS 3018 from week to week, adapting not just to equipment upgrades, but to customer feedback and real-world end-use reports.
Over the years, this approach has meant JHS 3018 keeps evolving. As raw material trends shift, we stay flexible—adjusting upstream procurement, reformulating for tighter regulatory regimes, and phasing in cleaner process chemistry. Several clients include us in their new product development teams, using our know-how to tune formulations for the next wave of filtration, energy storage, or cable products.
Many resins look identical until trouble strikes. JHS 3018 stands out in three key ways, born of real-world production—not lab dreams. Consistency: No surprises between lots, batch quality you can check against months of old run tickets. Purity: Lower ionic and organic impurities, supporting safer battery and water use with fewer rejects or warranty claims. Performance: Tuned melt flow and molecular configuration to match both traditional and high-throughput extruders, letting teams hit spec no matter their setup. Technical backup: Support doesn’t stop after purchase; our team calls from factory lines, reviewing run data, and tweaking for edge-case trouble.
Our JHS 3018 catches fewer sheet splits, less off-gauge cable, lower membrane fouling, and more stable binder dispersions—issues that cut profit and damage reputation. Each difference grew from customer struggles, close-up troubleshooting, and thousands of production hours at real plant speeds.
Markets never stand still, and neither do regulatory standards. As countries tighten purity thresholds for battery and water applications, and as OEMs adopt stricter QC audits, we shape JHS 3018 specifications accordingly. We’ve navigated REACH, RoHS, and a range of food or pharma contact rules by redesigning upstream sourcing and implementing in-line detection for halogens and persistent compounds. It’s not enough to meet minimums—one recall or import delay can cost more than upgrading process in the first place.
Many customers draw us in as standards tighten, seeking advice not just on compliance but on process adaptation. We maintain partnerships with independent labs and standards organizations, verifying our resin meets global benchmarks. We vet changes at every scale, from 20kg pilot drums to annual volume contracts, before shifting our standard specs.
Recent years have put new pressure on resin markets, from sudden demand spikes to transport slowdowns and unexpected plant outages. We hedge those risks with buffer stocks and multi-stage quality review, carrying extra raw material and holding finished goods near transport hubs. Our logistics team doesn’t just ship the day an order comes in—they work with customers to forecast demand, confirm storage conditions downstream, and schedule deliveries for real-world production cycles.
We answer production hiccups by cross-training our process engineers to flex between lines, preventing bottlenecks or skill gaps. Downstream, when customers face their own outages or raw material mismatches, we help adapt process parameters or suggest alternative grades from our own lineup. Every unforeseen event teaches us to improve; each cycle of quick response and customer-side adaptation has hardened our systems against the next shakeup.
Choosing PVDF resin isn’t just about picking a number off a datasheet. The way a manufacturer thinks—about process, about reliability, about backing customers after the sale—carries straight through to your lines and your customers’ satisfaction. JHS 3018 was shaped not in a vacuum, but alongside operators, engineers, and plant managers who know every bottleneck. In PVDF, small tweaks create major differences in wire yield, cell safety, filter integrity, and field service calls. Most users stick with what works, and JHS 3018 keeps building that trust through consistency, technical backing, and a commitment to pushing for better. That’s how we manufacture polymer that delivers in the real world, not just at the lab bench.