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HS Code |
158440 |
| Chemical Name | Polychlorotrifluoroethylene |
| Product Code | JD-16 |
| Appearance | White or translucent solid |
| Density | 2.10–2.17 g/cm³ |
| Melting Point | 210–215°C |
| Thermal Stability | Up to 260°C |
| Water Absorption | <0.03% |
| Dielectric Constant | 2.2 (at 1 MHz) |
| Volume Resistivity | >1 x 10^17 Ω·cm |
| Tensile Strength | 35–45 MPa |
| Elongation At Break | 200–300% |
| Coefficient Of Friction | 0.25 |
| Flammability | Non-flammable |
| Chemical Resistance | Excellent, especially to acids and bases |
| Solubility | Insoluble in water and most organic solvents |
As an accredited Polychlorotrifluoroethylene JD-16 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Polychlorotrifluoroethylene JD-16 is packaged in a 25 kg blue HDPE drum, featuring a sealed lid and clear product labeling. |
| Shipping | Polychlorotrifluoroethylene JD-16 is securely packaged in sealed, chemical-resistant drums or containers to prevent contamination and leakage. Packages are clearly labeled with hazard information, compliant with relevant transportation regulations. Shipping conditions require protection from heat, moisture, and physical damage. Material Safety Data Sheet (MSDS) accompanies all shipments for safe handling instructions. |
| Storage | Polychlorotrifluoroethylene JD-16 should be stored in tightly sealed containers in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible substances such as strong oxidizers. Keep the storage area free from moisture and ensure all handling equipment is non-sparking. Label containers clearly, and implement measures to prevent environmental contamination or accidental release. |
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Purity 99.5%: Polychlorotrifluoroethylene JD-16 with purity 99.5% is used in semiconductor insulation films, where superior dielectric strength and minimal contamination are achieved. Molecular weight 120,000 g/mol: Polychlorotrifluoroethylene JD-16 with molecular weight 120,000 g/mol is used in high-performance gasket manufacturing, where enhanced mechanical stability and longevity are provided. Melting point 210°C: Polychlorotrifluoroethylene JD-16 with melting point 210°C is used in wire coating applications, where reliable thermal resistance and flame retardancy are ensured. Particle size <10 µm: Polychlorotrifluoroethylene JD-16 with particle size less than 10 µm is used in precision powder coatings, where uniform surface finish and improved processability are obtained. Viscosity grade 1,000 Pa·s: Polychlorotrifluoroethylene JD-16 with viscosity grade 1,000 Pa·s is used in chemical pump linings, where excellent chemical inertness and reduced leakage risk are demonstrated. Stability temperature up to 250°C: Polychlorotrifluoroethylene JD-16 with stability temperature up to 250°C is used in high-temperature valve seals, where consistent sealing performance and minimal degradation are maintained. Low permeability: Polychlorotrifluoroethylene JD-16 with low permeability is used in fuel system components, where extended barrier efficiency and improved environmental safety are realized. Dielectric constant 2.1: Polychlorotrifluoroethylene JD-16 with a dielectric constant of 2.1 is used in high-frequency cable insulation, where signal loss is reduced and transmission reliability is enhanced. |
Competitive Polychlorotrifluoroethylene JD-16 prices that fit your budget—flexible terms and customized quotes for every order.
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After decades producing engineered fluoropolymer resins, we have always prioritized steady performance over marketing jargon. Every batch of JD-16 leaves our reactors because we know what engineers, fabricators, and quality managers tried and failed to achieve with standard options. We don’t write about things we haven’t seen or troubleshot ourselves. Real-world feedback has shown us that this grade does not simply check technical boxes; it fills gaps that many users might not realize exist until other solutions fall short.
JD-16 is a polychlorotrifluoroethylene resin that offers its own set of physical properties, dialed in through careful control of polymerization steps. In our facility, each reactor is monitored with direct human oversight, not just automation. Finer details in agitation, temperature, and feed rate are adjusted based on our operators’ experience—sometimes you catch something no computer can predict. The powder resulting from these decisions gives JD-16 a level of consistency that gives machinists and molders predictable results. If you work the resin day in and day out, you notice fewer flow anomalies and fewer out-of-tolerance parts. In melt processing, the low softening point compared to alternatives keeps energy consumption down and reduces wear on tooling.
JD-16 typically arrives in fine powder or granular form, clean and free-flowing. We keep particle size distribution within a tight range not just because the lab asks for it, but because we have seen poor pours clog hoppers and non-uniform powders cause bridging. Bulk density, melt index, and thermal stability aren’t just items on our test sheets—they connect straight to the headache of rework or rejected batches. With a density hovering around 2.1 g/cm3 and tested thermal stability beyond 200°C, JD-16 gives processors confidence in multi-stage extrusion or high-shear molding.
Polychlorotrifluoroethylene is never chosen based on price alone. Practical users order JD-16 to avoid line stoppages and maintenance from chemical degradation. The resin shrugs off mineral oils, hydraulic fluids, and a range of aggressive chlorinated solvents. Over years, we’ve witnessed tanks and linings made from JD-16 last well beyond warranty periods, even in alkali manufacturing or semiconductor coating lines. Industrial plumbers and plant engineers often share that where PTFE linings have swollen or allowed micro-cracks, JD-16 stands up better under a combination of heat and corrosion.
A construction supply company once explained that standard PCTFE grades kept failing quick mechanical seal tests. We worked directly with their line crew to swap in JD-16, where better elongation at break and modest impact strength allowed the fittings to pass. The toughness comes from our refined crystallinity control during production, which is the result of turning a few valves and making careful micro-adjustments at key points—a process still influenced by our floor team, not just recipe sheets. Over time, less embrittlement and a lower fracture rate under cycling have reduced warranty claims at several customer sites.
Many commercial PCTFE grades claim broad temperature windows or similar surface smoothness. We approach this differently. Several extruder operators noticed that JD-16 gives less shrinkage during cooling, causing fewer cracks and smoother internal surfaces during precision tube manufacturing. Some resins shed powder more easily and cut down on labor hours needed for post-fabrication cleaning—a benefit seen clearly at a few filter cartridge plants using JD-16. A legacy valve manufacturer spent weeks comparing our JD-16 to other commercial options, specifically tracking changes in tensile yield and glass transition temperature after repeated heating cycles. They reported tighter tolerances and fewer material property shifts across batches of JD-16.
JD-16 has earned its place in applications where replacement costs run high and downtime is not an option. Our customers include large refrigeration system manufacturers, who cite JD-16’s extreme low gas permeability as key to reducing charge losses in cold storage piping. Fluoropolymer gaskets cut from JD-16 sheets withstand both polar and non-polar fluids over thousands of hours, keeping process plants compliant and leak-free. Medical device specialists have managed to achieve thinner, more flexible diaphragms without trading away resistance to high-purity cleaning chemicals.
Sometimes, the material is used in things we could not have predicted decades ago: radiation-resistant insulation layers for nuclear sensors or highly dimensionally stable films for aerospace window seals. In each case, our feedback loops run both directions. We get on the phone with operators—sometimes in the middle of the night—to work through strange noise issues in high-RPM vacuum pumps or minor color shift complaints from labware producers. These front-line stories drive our continuous improvement. We rarely see a design challenge where JD-16’s chemical resistance and dimensional stability don’t provide an edge, but when something new arises, we adjust our process to solve it head-on.
Anyone can promise ‘greener’ chemicals, but we have invested in closed-loop gas recovery for chlorotrifluoroethylene monomer and work to minimize vented emissions. JD-16 does not off-gas troublesome compounds during molding, cutting down on operator exposure and ventilation burdens. The powder’s shelf life stretches well past typical timelines if stored properly—no early yellowing or caking. This means less waste for our customers, some of whom measure scrap rates down to one-tenth of a percent. Our logistics team tracks lot numbers closely, helping customers trace the lifecycle of the resin from pellet to part.
If you have a problem on a compounding line or see poor bonding with a new substrate, we don’t leave you guessing. Our technical staff, many of whom started in production before moving to QC and process troubleshooting, answer your questions with details from real trial runs and past customer fixes. We don’t believe in hiding trade tricks; we have shared troubleshooting guides for common process snags such as incomplete sintering or surface pitting. Several times, we had operators from customer sites visit our plant to learn JD-16 handling first-hand. Over lunch breaks and plant tours, practical knowledge gets shared—what ramp rates work, which cleaning steps keep die heads unclogged, and which additives have the least degradation impact.
We know one size never fits all. Orders for JD-16 have included everything from single lots in specialty bins to multi-ton volumes for continuous extrusion. Switching up batch sizes on the fly without changing quality profile has taken years of tweaking. By training our veteran plant crew in new mixing and drying techniques, we keep the resin’s flow and molding character consistent. It’s common for customers to send us new part geometries or call to clarify how JD-16 acts in novel processing conditions. We test with their actual molds when possible, integrating lessons into both our product and theirs. This open communication has helped us supply polymer for critical medical devices, low-outgassing aerospace tubes, and flame retardant wire coatings.
Lab tests reveal one thing, cumulative field service tells another story. We have parts out in oil and gas metering devices exposed to arctic temperatures and outdoor UV. JD-16’s stable molecular structure has stood up where less refined grades warped or cracked with repeated freeze-thaw cycles. Facilities using acid baths rely on tank liners made from JD-16 for uninterrupted operation, sometimes for years beyond the intended lifespan. These savings on replacement and plant downtime make up any higher up-front cost in material purchase. Financial managers at several multi-national chemical plants traced significant maintenance savings back to switching to JD-16 years ago, which keeps procurement requests steady even through budget reviews.
We have built JD-16 by listening to process engineers, operators, and maintenance departments—not from boardroom strategies. Years of shipping feedback have driven us to cut dust concentrations, tweak powder drying times, and train every employee who handles the product. Warehouse staff, line supervisors, and QC inspectors all contribute small changes that add up to a resin that is easier to move, measure, and process. Even packaging—now moisture sealed with practical easy-open linings—grew out of customer shipping incidents. We treat every lot as a chance to improve, not just to repeat yesterday’s results. This mindset has seen JD-16 used in everything from cryogenic seals to precision valves and heavy-duty environmental monitoring equipment.
Materials science never stands still. Our R&D team runs pilot blends based on new requests, documenting every batch and feeding back lessons to our production floor. Engineers looking for large-area film extrusion or miniature cable coatings will often call us not just for a product, but for production advice based on our tweaks to the JD-16 formulation. We have supported application trials where the customer works directly with us to test color concentrates or new fillers, checking for dispersion and additive compatibility. These joint projects have led to improvements that end up helping all our customers—not just the original requestor.
JD-16 resists radiation—a point that has not changed despite advances in alternative materials. Nuclear power customers keep specifying our grade once they trust the repeatability. Meanwhile, electronics manufacturers detail their own fine-tuned cleaning and inspection routines, taking advantage of JD-16’s low extractables in high-purity environments. Each of these applications adds to our knowledge base, allowing us to refine not just performance but manufacturability at every stage.
Some buyers think all PCTFE resins behave the same; this does not match what we have seen in the field. A few early users worried about moisture pick-up during long shipping routes. Our team worked with their logistics staff to revise packaging and taught warehouse managers optimal storage conditions to avoid caking and premature aging. We have faced questions about processing window limitations, since some non-specialist resins narrow the margin for error. Hands-on training, shipped mold samples, and direct troubleshooting on the shop floor meant our customers locked in repeatable runs without constant fines or corrective shutdowns.
Other users hesitated out of concern for raw material chain disruptions. Our purchasing contracts secure monomer feedstock multiple quarters in advance—something we built into our planning after seeing global fluoropolymer markets tighten. Customers ask tough questions about long-term supply; we give them direct visibility on inventory and realistic lead times to avoid surprises.
The market for high-performance fluoropolymers grows only more complex. We see customers facing higher purity requirements, stricter environmental standards, and more demanding end-user expectations every year. JD-16 lets them move forward with proven performance that minimizes the risk of costly recalls or unexpected failures. We continue developing alongside our users, ready to tailor JD-16 to new shapes, processes, or environmental regulations. Our focus remains the same as it always has: create a material that real-world users trust, backed by experience earned one batch at a time.
If you have met limitations with traditional PCTFE or need a material with proven resistance to both harsh chemicals and extreme climates, JD-16 stands out because we stand behind every kilogram we produce. Our partnerships rely on transparent dialogue, field visits, and a refusal to leave quality to luck. Each success story and each adjustment begins with a direct call or detailed feedback from the end user. The product’s evolution is a record of these shared efforts, and every improvement links back to the skills and insights of those who actually use, ship, cut, and mold the resin. We are committed to listening and refining, keeping JD-16 at the forefront of durable, chemically resistant applications across industries.