|
HS Code |
129496 |
| Chemical Name | Polychlorotrifluoroethylene |
| Product Grade | MPC-10S |
| Appearance | White powder |
| Density G Cm3 | 2.1 |
| Melting Point C | 210 |
| Particle Size Um | ≤25 |
| Chlorine Content Percent | 17 |
| Fluorine Content Percent | 59 |
| Solubility | Insoluble in most solvents |
| Thermal Decomposition Temp C | 415 |
| Tensile Strength Mpa | 34 |
| Elongation At Break Percent | 90 |
As an accredited Polychlorotrifluoroethylene MPC-10S factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Polychlorotrifluoroethylene MPC-10S is packaged in a 25 kg fiber drum with a secure plastic inner liner for safety. |
| Shipping | Polychlorotrifluoroethylene MPC-10S is typically shipped in sealed, chemical-resistant drums or bags to protect from moisture and contamination. Packaging complies with relevant transportation and safety regulations. The containers are clearly labeled with hazard information, and shipping is managed by certified carriers specializing in chemical logistics to ensure safe and secure delivery. |
| Storage | Polychlorotrifluoroethylene (PCTFE) MPC-10S should be stored in a cool, dry, and well-ventilated area away from direct sunlight, heat sources, and incompatible chemicals. Keep the containers tightly sealed to prevent contamination and moisture ingress. Store away from strong oxidizing agents and acids. Ensure proper labeling and adhere to relevant safety and regulatory guidelines for chemical storage. |
| Purity 99.8%: Polychlorotrifluoroethylene MPC-10S with purity 99.8% is used in semiconductor fabrication, where minimal contamination ensures high-yield wafer processing. Molecular Weight 120,000 g/mol: Polychlorotrifluoroethylene MPC-10S with molecular weight 120,000 g/mol is used in wire insulation extrusion, where superior mechanical strength and flexibility are achieved. Melting Point 210°C: Polychlorotrifluoroethylene MPC-10S with melting point 210°C is used in chemical-resistant coatings, where stable adhesion and performance under heat cycles are maintained. Particle Size D50=5μm: Polychlorotrifluoroethylene MPC-10S with particle size D50=5μm is used in high-performance powder coatings, where uniform dispersion provides consistent surface finish. Stability Temperature 260°C: Polychlorotrifluoroethylene MPC-10S with stability temperature 260°C is used in gaskets and seals, where prolonged thermal stability extends service life in harsh environments. Viscosity Grade 30 mPa·s: Polychlorotrifluoroethylene MPC-10S with viscosity grade 30 mPa·s is used in precision lubrication systems, where controlled flow ensures effective lubrication without residue. Dielectric Strength 80 kV/mm: Polychlorotrifluoroethylene MPC-10S with dielectric strength 80 kV/mm is used in high-voltage electrical insulation, where reliable insulation prevents breakdown and improves device safety. Bulk Density 1.8 g/cm³: Polychlorotrifluoroethylene MPC-10S with bulk density 1.8 g/cm³ is used in compression molding applications, where high material packing density enhances molding efficiency. Surface Energy 18 mN/m: Polychlorotrifluoroethylene MPC-10S with surface energy 18 mN/m is used in anti-adhesive coating formulations, where low surface energy reduces sticking and fouling. Water Absorption 0.01%: Polychlorotrifluoroethylene MPC-10S with water absorption 0.01% is used in moisture-sensitive electronic encapsulation, where minimal water uptake ensures long-term electrical reliability. |
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Manufacturing fluoropolymers is a journey marked by trial, feedback, and hands-on process improvement. Over several years, our experience refining polychlorotrifluoroethylene (PCTFE) led to the development of MPC-10S—a product that carves its own space in the market not through marketing gimmicks, but through the way it performs in day-to-day applications. MPC-10S stands as our latest step forward, designed for engineers, quality control supervisors, and end-users who demand more than just a commodity polymer.
PCTFE is not a new material; it has seen use in wire insulation, coatings, laminates, and seals for decades. Older models served effectively in certain applications but tended to hit snags with processability, resilience, or handling. MPC-10S improves on these areas through considered chemical modifications and tighter process control during production. Technicians routinely report lower occurrence of surface defects and reduce scrap rates by switching to our latest grade.
The physical structure of MPC-10S sets it apart from other PCTFE resins. Particle size and chain regularity drive real-world processing characteristics, from mold flow to the finish on cut pieces. Over the years, industry feedback made it clear that particle size plays a big role in extrusion stability and final part reliability. Too coarse, and voids or inclusions crop up in thick-wall applications; too fine, and feeding equipment clogs or the resin exhibits “dusting,” causing worker discomfort and increased housekeeping.
Our process focuses specifically on controlling particle morphology and distribution. MPC-10S’s particle size range sits well within what most continuous extrusion and injection molding systems can handle. Melt flow characteristics remain consistent batch after batch because we keep a close eye on reactor conditions and post-processing. Stability carries forward into final parts: shrinkage rates show less variability, and the surface finish on seals or insulation stays brigher, smoother, and without pinholes or orange-peel textures. Both production line workers and quality inspectors notice these differences immediately.
Spec sheets only tell part of the story. Flexural modulus, melt index, tensile strength—these numbers might look similar between brands at first glance. Yet, anyone spending years extruding PCTFE can list subtle discrepancies that never appear on datasheets. MPC-10S shows its strengths during continuous operation runs, where real-world pressures, temperatures, and contamination throw curveballs. Consistent lots break the pattern of everyday headaches: fewer unscheduled downtimes, clearer, brighter extruded wire jackets, more reliable sealing on valves made from compression-molded PCTFE stock.
Our formulation for MPC-10S contains ultra-low residual hydrogen chloride, which supports stable color and long-term aging, especially in optical uses where clarity or color retention counts. Every batch goes through multiple filtration and degassing steps to remove fines and volatile contaminants. Machine operators no longer run into unexpected fuming during start-up or maintenance, cutting back need for extended venting cycles.
Direct feedback from customers steers product development at our plant. For wire and cable, MPC-10S meets the drawdown, die swell, and surface finish requirements for telecom data wire and power cable insulation. Feedback from cable extrusion lines shaped our targeting of pellet size, conveying rate, and melt processing temperature. Operators no longer have to fight inconsistent draw tension or clear blockages in side feeders, which reduces the hidden labor costs that eat into margins.
Sealing parts, especially in aerospace and compressor applications, served as another key test case. O-rings made from PCTFE deserve a clean, void-free interior and stable diameter under compression and chemical exposure. Prior generations sometimes left machinists frustrated at high chip rates or irregular tolerances. By tightening the control over monomer feed ratios and hold times within reactors, we reduced unreacted monomer to negligible levels. This translates into lower outgassing and improved fatigue resistance in seals and gaskets over years of use.
We spent months working alongside fabricators specializing in transparent sight glasses and laboratory equipment. PCTFE’s famed resistance to water vapor and aggressive chemicals matters most where leaching or fogging is unacceptable. Insight gained from these collaborations led us to filter each batch more carefully, so sheet extrusions come through with better optical clarity and fewer rejection points for bubbles or gels.
Production lines run best with raw materials that act predictably. Our differing approach to polymerization and finishing steps results in a resin that feeds reliably, holds up under heat, and releases from molds cleanly. In large-diameter pipe or block stock production, mold filling becomes smoother, and cooling proceeds more evenly, lowering internal stress gradients. Downstream machinists then see easier chip formation, less chipping on thin edges, and reduced burring around complex contours.
Technicians extruding insulation or forming pipes need to adjust fewer parameters to hit spec, even when switching resins between lots. The greater retention of mechanical strength under continuous load means design engineers can rely on published values, not build in high safety margins to compensate for batch swings. Cost savings include not just material usage, but fewer process interruptions, maintenance events, and off-spec runs.
Side-by-side tests stack MPC-10S favorably against both legacy resins and imported alternatives. With traditional grades, part quality could typically vary from batch to batch, especially in thick-walled applications or where blending with pigments increased viscosity. Irregular flow leads to surface blemishes or warping. MPC-10S maintains dimensional stability even under higher pigment loads, supporting end users who need colored or marked extrusions without surface roughness.
A number of high-volume customers report a reduction in consumable wear on die surfaces and screw tips compared to standard PCTFE resins. Less abrasive action means fewer replacements and longer maintenance intervals, especially valuable in 24/7 operations where uptime sets the tone for profitability. Field service teams confirm easier troubleshooting when diagnosing product quality issues, as the resin’s behavior stays consistent over large production runs, rather than requiring constant tuning to handle property fluctuations.
Internationally sourced PCTFE sometimes shows uneven melt flows or odd odor profiles due to differing purification protocols. This can cause headaches when scaling up pilot runs or qualifying new materials for regulatory approval. With each lot of MPC-10S, every SME in production can trace upstream to a single reactor campaign, cross-checking test results before any resin leaves the site. Our plant’s vertical integration closes the gap between production, QA, and shipping, and our team sees this reflected in fewer customer returns and less troubleshooting during plant trials.
Users handling fluid containment, valve manufacturing, or aerospace-grade insulation need more than a datasheet promise. MPC-10S earned its reputation by holding up to quality audits, physical stress tests, and real-life installation. Chemical resistance ranks high in applications subject to halogenated solvents, oxygen, or cryogenic conditions. By reformulating for reduced extractables and designing out unreacted residual species, we minimized downstream contamination risks.
Every manufacturer wrestles with the tradeoffs between cost, throughput, and field performance. The mark of a well-designed PCTFE resin sits in its ability to pass accelerated aging tests, to offer reproducible shrinkage patterns, and to avoid stress cracking—even across large production intervals. Customers switching to MPC-10S often relay that new product lines ramp up faster, with less scrap, and fewer bottlenecks during scale-up trials. Not only does this speed up time-to-market for their own customers, but it also cuts down total cost of quality.
There’s no substitute for building to customer need rather than chasing abstract specifications. The input of plant engineers, machine setters, tool designers, and field service teams weighs into every aspect of MPC-10S. Tooling changes are costly, so we tweak viscosity and melt tension to mesh with existing hardware. Paper specs only tell a partial story: how resin draws through a die, holds clarity, takes a weld, deburrs, or accepts a laser-etched batch code all matter more to the daily realities of manufacturing.
Certain users focus on demanding regulatory spaces—like medical or food contact. Every order ships traceable to a specific production campaign, sealing the link between initial monomer lot and final part. We make no shortcuts during batch approval. Each campaign receives creeping stress and burst pressure evaluation, dynamic fatigue testing, and chemical resistance indices under harsh chemical and thermal cycling conditions. All these results get shared directly with customers, closing the loop between production site and line operator so buyers trust what they’re receiving batch after batch.
Industry never stands still. Lead times have tightened. International supply chains carry uncertainty. Requirements for traceability, batch reliability, and technical support only increase. We anchor our manufacturing of MPC-10S on transparency and flexibility. On-the-ground process engineers receive advance notice of lot changes, and technical data updates push swiftly into our customer knowledge base. This partnership cuts out risk in unexpected product variance, reducing risk of recalls or long, expensive root-cause investigations.
Environmental standards for fluoropolymers have come under increasing scrutiny. MPC-10S is designed with process yield in mind. Filtered venting, closed-loop reactor off-gas recovery, and exhaust cleaning systems all feed back into our main line, lowering both emissions and production waste rates. This filters forward into customer applications, where products may have to meet evolving chemical safety and lifecycle impact demands. Reliable sourcing from a manufacturer focused on both process efficiency and downstream compliance gives buyers assurance during procurement and regulatory review.
Resin development never halts. Every year brings new process feedback—a change in pigment, a new extruder geometry, a tighter end-use spec in a qualification test. MPC-10S continues to evolve, with improvements building directly on customer input and our own observation. We channel real plant-floor insights, not just test-lab experimentation, back into process parameter revisions and product upgrades.
One recent partnership with an energy storage fabricator, for example, highlighted the need for controlled dielectric properties at cryogenic temperatures. Applications in liquid oxygen transport, hydrogen containment, or environmental chambers set specific barriers PCTFE must clear, and they do not allow for subpar consistency or brittle failures. Our application specialists work directly with system designers to identify root causes for product failures, looping findings into the next production campaign and tweaking polymerization details. These incremental changes merge into each new batch of MPC-10S.
Material selection means little if batches bring headaches downstream. “Plug-and-play” only applies if small changes don’t snowball into bigger problems on line. Issues like “sharkskin” defects, wall thinning, or surface pitting can lose a week of throughput, costing thousands in lost production. With MPC-10S, operators report less downtime spent clearing jams, recalibrating die heads, or stripping out accumulations in feeder screws. Surface finish improves right away. Faster, more stable startup curves make switching between product lines straightforward, lowering the learning curve for new staff or shift teams.
Some customers question whether the higher standards on contamination and lot-to-lot variability translate into cost savings at the end of the pipe. After running their own cost-of-quality audits, most highlight returns not just through less material lost to nonconforming parts but through dramatic drops in unplanned downtime and scrap generation. A few hours saved in unblocking a line or repairing a mold pays off long after the first resin order. Technical teams partner upfront with plant engineers to speed troubleshooting and support.
Polychlorotrifluoroethylene is a mature, trusted polymer, but each new step in its refinement eliminates another source of line frustration. The drive to reduce processing time, guarantee dimensional regularity, and keep colors bright and clear stems from daily real-world plant experience. In serving the needs of technical operators and process managers, MPC-10S becomes more than another commodity— it’s a manufactured solution, carrying forward lessons learned side by side with field users.
Countless hours spent listening to operators, inspecting line rejects, and investigating failures gave MPC-10S its shape. Rather than chasing trends, we double down on consistent particle size, color stability, and chemical resistance, because these factors link directly to end-use performance. This approach means fewer disruptions, a faster pace on new product qualification, and the flexibility to expand applications into tougher, more risk-sensitive areas.
Manufacturing high-grade PCTFE keeps us grounded in the daily demands of users. MPC-10S reflects years of hands-on work, iterative improvement, and direct customer partnership. Our plant team stands behind every lot, tracking each batch to its source, and adapting to new industry needs as they arise. Those results matter most to people running machines, trying to keep product rolling, and watching quality standards grow ever tighter. Real-world performance, not abstract promise, keeps our resins moving out the door and into successful applications across the globe.