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HS Code |
999728 |
| Chemical Name | Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture |
| Appearance | Clear to pale yellow liquid |
| Odor | Mild, characteristic odor |
| Solubility | Insoluble in water, soluble in organic solvents |
| Boiling Point | Above 250°C (varies with composition) |
| Density | 1.15–1.35 g/cm³ (at 20°C) |
| Flash Point | Above 180°C (Closed cup) |
| Viscosity | High viscosity, varies with grade |
| Stability | Stable under recommended handling conditions |
| Applications | Used as flame retardant and plasticizer in industrial formulations |
As an accredited Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 25 kg net weight, packed in HDPE drums with sealed lids, labeled for Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture. |
| Shipping | The shipping of **Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture** requires handling as a hazardous material. It must be packed in approved, leak-proof containers, labeled according to international regulations (such as UN, IMDG, or DOT). Transport must ensure safety from heat, ignition sources, and accidental release, following appropriate documentation and emergency procedures. |
| Storage | The chemical mixture of Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin should be stored in tightly sealed containers, away from direct sunlight, heat, and moisture. Store in a cool, well-ventilated area, away from incompatible materials such as strong acids, bases, and oxidizing agents. Ensure containers are clearly labeled and access is limited to trained personnel to prevent accidental exposure or spills. |
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Purity 98%: Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture with 98% purity is used in metalworking fluid formulations, where it enhances lubricity and reduces wear on tooling surfaces. Viscosity Grade 400 cSt: Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture of 400 cSt viscosity grade is used in plasticizer blends for PVC processing, where it improves plastic flexibility and processing stability. Molecular Weight 450 g/mol: Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture with molecular weight of 450 g/mol is used in industrial adhesive systems, where it promotes optimal bond strength and solvent resistance. Melting Point 65°C: Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture with 65°C melting point is used in cable insulation manufacturing, where it ensures consistent thermal performance and prevents deformation at elevated temperatures. Stability Temperature 140°C: Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture with a stability temperature of 140°C is used in synthetic rubber compounding, where it maintains compound performance during vulcanization. Particle Size <50 μm: Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture with particle size less than 50 μm is used in coatings for industrial machinery, where it produces a uniform surface finish and enhances abrasion resistance. Sulfur Content 12%: Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture with 12% sulfur content is used in extreme-pressure lubricant formulations, where it provides superior anti-seizure properties under heavy load conditions. Chlorine Content 40%: Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture with 40% chlorine content is used in fire-retardant polymer production, where it increases flame retardancy and reduces smoke emission. |
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Navigating the field of specialty chemicals often brings up a list of blend products, but few packages stir up as much curiosity as the Phenyl Chloroalkyl Sulfonate and Chlorinated Paraffin Mixture. Bags of this stuff routinely land on the loading docks of metalworking shops, plastics manufacturers, and lubricant blenders around the world. Once you start to understand why industries lean on this combination, there’s quite a bit to talk about.
Ask anyone who’s wrestled with industrial formulation issues — reducing friction, managing heat, or stopping corrosion — and you'll probably hear them mention sulfonate chemistry. Phenyl chloroalkyl sulfonates offer more than just surface-level utility. The special thing about adding chlorinated paraffin to the mix comes down to performance under pressure, literally. Together, the combination steps in where single-function additives can’t keep up, especially during tough jobs like deep-drawing metal or running cutting fluids on high-speed machines.
The model of this mixture often depends on its applicational focus, but typical specifications balance percentages of active sulfonate with mid-chain length chlorinated paraffins. This pairing works almost like a tag-team, where the sulfonate brings in detergency and metal affinity, and the paraffin boosts load resistance and increases lubricity. I remember the first time I saw operators switch from a generic cutting oil to a batch containing this blend. Production speed picked up, and maintenance hours dropped. That isn’t just sales talk — it’s what happens when the right molecule sequence faces down challenging work.
Phenyl chloroalkyl sulfonate by itself offers impressive benefits, especially if you’re after strong emulsification or detergent qualities. Blend it with chlorinated paraffin, and the product changes altogether. There’s real science behind it. Chlorinated paraffins, especially those with medium-to-long chains, slip into metalworking settings because their chlorine atoms help build a protective film on surfaces, avoiding welding of tool and workpiece under frictional heat. Sulfonates, on the other hand, don’t just float around in solution; they create an active interface, cleaning and protecting at the same time.
Take an operator adjusting rolling mill lubricants. They notice a smoother feel and an obvious noise drop, not because the machines suddenly improved, but because the lubricant can take harsher pressures before breakdown. There’s less tool wear and the quality of the finish comes up noticeably. The reason lies with both the stability the sulfonate backbone gives and the lubricity offered by the paraffin. This isn’t lost on those responsible for plant maintenance: a few percentage points’ gain in tool life saves big over time.
This mixture does more than keep machines running. Many sectors—plastics extrusion, leather processing, even flame retardancy work—pick it up for the same balance. Companies in the wire industry, for example, count on it for drawing oils, keeping copper strands from fusing at high speeds. Chemists looking for slip agents in PVC compounding benefit from the way this blend interacts with polymers, softening the edge between too-stiff plastics and those prone to tearing.
It can be tough comparing blend products, but the difference stands out in practice. Traditional single-sulfonate or paraffin-only formulas often run into stubborn problems: cleanliness drops, residue builds up, or lubrication falls short when it counts. Here’s where this mixture marks its territory. It performs in places regular or older formulations just can’t keep up. I’ve sat through plenty of troubleshooting sessions where switching to this blend solved issues previously chalked up to “process quirks.” Neither component works alone as well as they function together for these specific challenges.
One more thing that shouldn’t go unsaid: formulas based solely on straight-chain paraffin tend towards high smoke, volatile emissions, and sometimes sticky residue. With this combination, you shave down each of those drawbacks. Emission numbers improve, which matters when operators are exposed on a daily basis. It’s easy to see that companies caring about occupational health pay close attention to these differences. In tight spaces with poor air flow, cutting fumes from lubricants can affect productivity and worker well-being. Using a blend that reduces volatility and high-temperature smoke just makes sense from a risk management point of view.
A closer look at specifications brings up targeted benefits. Industry tends to lean toward a sweet spot where the active sulfonate content sits between twenty and thirty percent, with mid-level chlorine content in the paraffin component. You get balance: enough sulfonate to guard surfaces and support cleaning, and enough paraffin to reduce friction. Actual numbers vary by application, but each adjustment pays off under the microscope and on the production line.
You won’t just find this mixture in heavy industry. It turns up in some niche sectors, like shoe sole compounding and technical textiles. I recall a case with a rubber goods producer struggling with surface tackiness and muddled mixing. Once their suppliers swapped in this blend, the final products came off the line drier, more pliable, and without the tell-tale surface smears that cause headaches down the quality control chain. Such performance gains don’t get lost on purchasing managers, either; fewer defects mean less scrap and lower rework rates.
Every chemical product today faces scrutiny — rightly so. Users care about compliance, from North America to Europe and beyond. Chlorinated paraffins, in particular, spark conversations about longevity in the environment and bioaccumulation. Sourcing should focus on mid-chain types with improved degradation characteristics. Blenders increasingly look toward suppliers who can guarantee lower impurities and tighter controls, not just for regulatory paperwork, but for peace of mind when sending lubricants and process aids into wide circulation.
Sulfonate chemistry brings its own pluses. It tends to break down more readily once released, and its popularity in detergency stems from repeatable results across water treatment and discharge testing. Operators must still invest in oversight, but newer blends take care to align with current environmental standards, which helps everyone—users, local communities, and downstream consumers.
No matter the technical specs, at the end of the day, it’s people who handle these additives, run the mixers, judge the residue, and solve the real-world problems that show up during a long production shift. Operators remember which formulation gummed up the works and which one kept the pour smooth at the changeover. It’s these experiences, logged shift after shift, that build loyalty to a blend. In my own work, I’ve chatted with machinists who’ve watched years shaved off of old machines by something as simple as changing an additive package. That kind of story matters more than a bullet-point comparison on a technical data sheet.
In an age when every supplier makes grand claims, the value in this mixture lies in its performance history. Reports from the field matter more than marketing. Trend data from big manufacturing users, those who’ve logged everything from downtime to cleaning cycles, put this blend ahead of comparable single-additive options. Less foam, cleaner discharge points, improved finish on pressed metals—real results, not just claims. Fact-checking through plant logs gives a better sense of which blends deliver, and this mixture stays in the running for a reason.
Trust comes from transparency. If you ask for a certificate of analysis, you want real chemistry, not just boilerplate compliance language. Confirming chlorine content, checking for sulfonate purity, reviewing production lineage—these details set top-tier suppliers apart. The best facilities back up their product with clear traceability from raw chemical to finished package. Users who ask smart questions during procurement wind up dealing with fewer surprises and less waste.
Research groups and industrial chemists haven’t stopped refining this mixture. There’s an ongoing push to reduce residuals and further improve breakdown products. Matching specific chain lengths and optimizing the coupling between sulfonate and paraffin compounds pushes the chemistry further, unlocking new applications in high-speed processes and adding value to operations under stricter environmental regulation. Watching shifts in research reinforces that chemistry, as a field, moves not just out of academic curiosity, but from the drive of operators demanding more reliable, cleaner, and safer products.
One path some users take is upcycling spent lubricant and re-processing residue. Blends like this, especially when designed for controlled breakdown, lend themselves to in-plant recycling setups. Factories running high-volume presses see direct cost savings by reclaiming lubricant after filtering out metal fines. Since this blend forms stable emulsions, separation is made easier, which simplifies disposal downstream and sometimes lets operators reuse the base stock after minimal refining.
One lesson learned from years in industrial support roles is that success with complex formulations like these doesn’t just come down to the mix itself. Success grows from the relationships built between supplier and user, trialing variations, bouncing feedback back and forth, and gradually dialing in the perfect ratio for a specific line or machine. The best results come where the client trusts their representative enough to report hiccups quickly, and the supplier responds with adjusted samples and on-site support.
It's easy to underestimate the value of legacy knowledge. Techs who’ve been with plants for decades know the quirks of each machine. They bring up details like “bluing on punch dies” or “micro-pitting in extrusion barrels” that look like footnotes in a lab study but keep operations afloat day to day. Those techs remember, and they’re the ones who spot early signs that a tweak in additive blend is overdue or that a poor substitute is leading to persistent fouling. It’s this hands-on cycle of feedback and adjustment that keeps plants running profitably and safely.
The industry keeps shifting. Electric vehicles, new lightweight metals, tighter emission rules, and ever-higher production targets all demand more from additives than ever. Research keeps evolving on both the phenyl chloroalkyl sulfonate and chlorinated paraffin sides. Innovations in chain design, improved reactivity, and synergy with other specialty molecules promise even greater stability and performance.
Specialty blends are making inroads into sectors once thought off-limits, like food-grade machinery and certain medical tool production (with appropriate approvals and modifications to the blend, of course). Product managers evaluate total process impact, from raw material sourcing to emissions at end of life. As industry moves to lower-impact, safer blends, formulations like this one are benchmarks—clear, tested, and ready for review against new regulations.
Chemical products need more than the right blend to win user confidence. They must withstand daily grind, pass the scrutiny of environmental oversight, and ultimately help people do their jobs better. Phenyl chloroalkyl sulfonate and chlorinated paraffin mixtures have a proven track record not because of clever marketing, but from years of trial, success, and adaptation. There are always tweaks and upgrades on the horizon, but the push to balance chemistry, people, and productivity never loses relevance. Whether in a foundry, a plastics plant, or a maintenance closet, this combination keeps proving its worth where it counts most: on the floor, among people who know good performance when they see it.