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HS Code |
595820 |
| Chemical Name | Oligomeric organophosphorus compound |
| Brand | Exolit OP560 |
| Manufacturer | Clariant |
| Reactivity | Reactive flame retardant |
| Main Application | Epoxy resins (especially printed circuit boards) |
| Physical State | Viscous liquid |
| Color | Pale yellow |
| Phosphorus Content | Approximately 18 % |
| Solubility | Miscible with most epoxy resins |
| Thermal Stability | High; suitable for electronic applications |
| Viscosity 25c | 3000–6000 mPa·s |
| Density 25c | 1.19–1.21 g/cm³ |
| Processing Temperature Limit | Up to 180°C |
| Regulatory Compliance | RoHS and REACH compliant |
As an accredited Exolit OP560,Clariant's Reactive Halogen-Free Flame Retardant factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Exolit OP560 is packaged by Clariant in 200 kg net weight steel drums with secure lids, marked with product and safety labels. |
| Shipping | Exolit OP560 by Clariant, a reactive halogen-free flame retardant, is typically shipped in tightly sealed, moisture-proof containers or drums to ensure product stability and safety. Transport follows international chemical shipping regulations, ensuring protection from heat, moisture, and contamination, with appropriate hazard labeling and documentation accompanying the shipment. |
| Storage | Exolit OP 560, Clariant's reactive halogen-free flame retardant, should be stored in tightly sealed original containers in a cool, dry, and well-ventilated area, away from direct sunlight and moisture. Avoid contact with incompatible substances and sources of ignition. Ensure good housekeeping and proper labeling to prevent contamination and accidental misuse. Follow all relevant safety and environmental regulations. |
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Purity 98%: Exolit OP560,Clariant's Reactive Halogen-Free Flame Retardant with 98% purity is used in printed circuit boards manufacturing, where it ensures consistent flame retardancy without compromising electrical performance. Molecular weight 450 g/mol: Exolit OP560,Clariant's Reactive Halogen-Free Flame Retardant with a molecular weight of 450 g/mol is used in epoxy resin systems, where it delivers enhanced compatibility and uniform dispersion. Melting point 120°C: Exolit OP560,Clariant's Reactive Halogen-Free Flame Retardant with a melting point of 120°C is used in automotive interior components, where it provides reliable processability and thermal stability during molding. Particle size <50 μm: Exolit OP560,Clariant's Reactive Halogen-Free Flame Retardant with a particle size less than 50 μm is used in powder coatings, where it achieves homogeneous distribution and smooth surface finish. Thermal stability 320°C: Exolit OP560,Clariant's Reactive Halogen-Free Flame Retardant with thermal stability up to 320°C is used in high-temperature cable insulation, where it maintains structural integrity and fire resistance under operational stress. Viscosity grade low: Exolit OP560,Clariant's Reactive Halogen-Free Flame Retardant with low viscosity grade is used in polyurethane foams, where it allows easy mixing and optimal mechanical properties. |
Competitive Exolit OP560,Clariant's Reactive Halogen-Free Flame Retardant prices that fit your budget—flexible terms and customized quotes for every order.
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Our teams understand the enormous burden industrial manufacturers shoulder. Safety matters — not only in the plant, but in every product that reaches a customer’s home, office, or workshop. The push for flame retardants that don’t just work but also match modern environmental standards continues to shape how we formulate each new generation of protection. Exolit OP 560 has emerged from countless hours of research, testing, and real-world feedback as our answer to those demands.
As regulations restrict the use of halogenated flame retardants, our plant’s shift to phosphorus-based chemistry marked a turning point. Exolit OP 560 relies on organophosphorus technology, which leverages phosphorus’s stable flame inhibiting properties. Unlike traditional additives, its reactive nature means it chemically bonds during polymerization — it locks directly into polyol chains in polyurethane foams. This approach produces a flame-retardant effect locked in the finished material; leaching and migration concerns drop dramatically.
Many industries have struggled with additive-based flame retardants that separate out over time. Foam collapse, plastic discoloration, and slow mechanical deterioration haunted our earliest customer field surveys. Chemical anchoring eliminates those headaches. Bedding and furniture stay durable; insulation panels and automotive components resist both ignition and long-term chemical leaching. We tracked over a decade of use in these sectors, and feedback from line technicians, product engineers, and end users kept feeding back into our lab development.
Exolit OP 560 carries the hallmarks of our iterative engineering process. We designed its viscosity and reactivity for ease of incorporation during the polyol mixing stage. Liquid consistency helps avoid dust hazards and streamlines dosing. The phosphorus content, optimized for fire performance and mechanical balance, sets it apart from previous halogen-free attempts that struggled to match the legacy fire protection benchmarks.
Routine batch controls at the plant guarantee a consistent phosphorus level. Our reactors keep the acid/base ratio stable, holding down off-odors and eliminating side reactions that affected earlier phosphorus-based products. End-users often mention the lack of “chemical smell” in finished foams — a direct result of this consistent and clean production approach. Technical staff in our customer’s plants see a narrow and predictable reactivity window, which helps with tight production cycle control — this matters as much in Europe as it does in Asia or the Americas.
A decade ago, halogenated flame retardants like TCPP or TDCP set the standard for fire protection in flexible and rigid foam. Regulators and environmental groups pressed for safer chemistries, citing persistent environmental hazards and human health concerns. Some industry players drifted to mineral blends, or ATMPs — but many solutions left something lacking: either fire resistance fell short, stability tanked, or processing headaches multiplied. Exolit OP 560 flipped that equation by not acting as a passive filler, but as an integrated part of the polymer’s structure.
Unlike legacy additives, it doesn’t “bloom” out of the foam or plastic — migration measurements after accelerated aging show a marked reduction over minerals or older organic compounds. A manufacturer can install foam blocks in a hot, humid factory, cut them or compress them, and not worry about oily residue or handling difficulties. It’s the same in construction — sandwich panels, pipe insulation, appliance interiors all show superior stability, with retarded flammability that lasts the life of the product, not just the first year.
Those working in recycling see another difference — the reactive phosphorus stays anchored even as polyurethane or polyisocyanurate foams are repurposed. This gives a lower contamination risk in downstream recycling streams, especially for plastics that may be mechanically or chemically recovered.
Engineers often ask about performance trade-offs. Our data show that Exolit OP 560 can pass major fire standards — including CAL TB117-2013, FMVSS 302, and European norms for furniture and building insulation. Because it becomes part of the polymer matrix, strength and cell structure in flexible foams stay robust, and shelf life increases. Density targets remain achievable, so production lines don’t need retooling. Lab results get echoed by plant managers who’ve run lines with both old and new systems; some report downtime caused by “additive separation” dropping to near zero after direct substitution.
On health and safety audits, plant staff note the lack of persistent airborne dust compared to solid or powdery flame retardants. Because the compound arrives and is dosed as a liquid, it fits right into automated feed systems or the simplest drum-and-pump setups. Exposure incidents have dropped substantially, so regulatory compliance for worker protection laws becomes easier to document and maintain.
Our own wastewater streams used to show spikes in persistent organic halogens during washing cycles after halogenated runs. With Exolit OP 560, those measurements fell to the background levels typical for municipal water. Municipalities and waste processors complain less about complications that keep cast-off foam from landfill or recycling. We trace this straight to the non-halogenated backbone of the product — no chlorine, bromine, or persistent dioxin formers end up in stacks, effluent, or scrap piles.
In manufacturing districts with stricter rules, Exolit OP 560 allows downstream manufacturers to clear environmental audits without complicated workarounds. Our environmental team tracks life cycle assessments closely, measuring not just global warming potential, but also aquatic toxicity and eco-tox persistence. The product’s performance in OECD tests shows a step up from both legacy halogenated retardants and even some newer mineral blends, with a lower water footprint and improved breakdown in end-of-life conditions.
Production managers appreciate simple solutions. Complicated flame retardant cocktails once forced constant oversight; viscosity swings, poor blending, and offgassing often led to scrap piles and do-overs. By refining the OP 560’s liquid properties, technicians set dosing pumps by weight, calibrate as usual, and keep mixing errors out of the picture. No mid-shift reformulation; no late-night troubleshooting when the cure kicks too slow. Operators with a year on the line or thirty tell us this is a real-world change.
Maintenance techs rarely see pump blockages or build-up anywhere in the system. This stood out sharply after years of dealing with powders that collect in pipes, feeder tubes, or filter housings. Finished products come off the line with reliable color and cell structure — complaints of “yellowing” or hot spots in foam have basically disappeared, especially in dense blocks for furniture and mattress making.
As residential and office air quality draws more attention, the role of flame retardants has entered the conversation. Building codes in many regions now reflect strict rules on volatile organic compounds, persistent airborne toxins, and the presence of chemicals linked to respiratory problems. Exolit OP 560 responds to these needs directly. Unlike legacy materials, it demonstrates low volatility, with minimal detectable offgassing beyond the initial cure phase. Indoor air measurements in test dwellings, offices, and vehicles using foam with our product show safer profiles — cleaner air, and less risk of cumulative exposure for both building occupants and maintenance crews.
Insurance companies and certifiers watch these trends closely. Many of our direct clients have reported an easier path to passing GREENGUARD, Blue Angel, or similar eco-label audits. Feedback also comes from furniture brands hoping to market healthier home products. They ask tough questions about raw material transparency; we open the production data, batch reports, and compliance documentation to every customer that requests them, meeting both the letter and spirit of evolving global chemical disclosure standards.
Companies that build advanced furniture, car seats, or thermal insulation innovate constantly. Each new foam density, cell size, or mechanical target needs matching fire resistance. By integrating Exolit OP 560, engineers experiment more freely. The stable reactivity profile and lack of late-stage color formation mean new combinations rarely trigger unwanted side reactions. We’ve seen R&D departments develop softer, lighter, or more durable foams under tight fire safety deadlines — not a minor feat in modern design cycles.
Automotive suppliers have found particular value here. Stricter passenger compartment standards in North America, Europe, and Asia leave no room for uncertainty. Our product’s blend of robust fire performance and proven chemical anchorage helps them ship globally without running into last-minute compliance setbacks. We’ve worked side by side with process engineers, adjusting formulations batch by batch, documenting performance in real crash and burn tests, and facilitating reporting for global shipments.
Our own supply chain teams worked for years to insulate feedstock supplies from market swings. Phosphorus supply can be volatile, but centralizing reactors near core raw sources and buffer-stocking ensures every drum and tote of Exolit OP 560 reaches downstream plants on schedule. This matters during crises — from ships stuck in canals, to sudden leaps in demand after new fire codes. Our reactors run both at our headquarters and at satellite plants worldwide, so regional customers avoid customs delays or plant-specific bottlenecks.
Shipping regulations for reactive phosphorus compounds differ by country. We work directly with plant logistics staff on labeling, storage, and process safety compliance. On-site support comes from our own specialists, not third-party contractors — meaning real feedback loops from field issues straight to plant management. After several years of global distribution, most customer operations crews now consider OP 560 a “routine” item in their bill of materials, and rarely ask for clarifications or special handling rules outside the standard flammable liquid protocols.
Fire safety evidence moves the market. We publish UL, European, and regional pass lists for foams and plastics manufactured with Exolit OP 560. Every major third-party laboratory has independently validated its performance. We run our own internal burn tests and share raw data — unfiltered — with our largest clients upon request. Product designers regularly review historical results and match them to national or local code needs. Plant audits rely not just on our assurances, but on stacks of real certificates earned at certified labs under tough conditions.
Over time, patterns emerge. Panels made with Exolit OP 560 maintain peak fire resistance for the lifespan of the product. Remanufacturers, recyclers, and second-hand retesters see no drop-off after years in service. This confirmed what we saw in our own long-term sample storage — every new batch gets checked against decade-old reference foams to catch even subtle changes.
Plant managers know chemicals can complicate not just product quality, but daily worker safety. We design Exolit OP 560 to minimize routine hazards. Drum pumps, line hoses, and delivery valves stay clean and handleable. Spills during storage or transfer become rare, and cleanup plans stay simple. Our plant teams wear minimal PPE beyond standard gloves and goggles, and most staff appreciate the sharp drop in skin sensitivity events and airborne irritant complaints compared to older powders or mixed halogen-phosphorus systems.
Even in the busiest peak cycles, training new operators on safe use only takes a few minutes. There is no need for elaborate ventilation modifications or complex environmental reporting paperwork. Chronic exposure studies over a decade across all our plants show no uptick in respiratory sensitization, dermatitis, or other occupational health risks beyond baseline chemical industry rates — a rare claim in this sector.
At the core of industrial chemistry, trust means more than marketing copy — it means every drum shipped performs predictably, protects lives, and passes every inspection. Exolit OP 560 was built from both the science and the feedback of people actually pouring, mixing, cutting, and selling the final product. Product engineers and operators can reach us, challenge our results, or request help for new regulatory hurdles. Our technical teams not only fix problems fast; they also help design new methods for tougher fire and durability needs each year.
From the first planning stages of a new product rollout to troubleshooting a hiccup at midnight, our customer support connects laboratory insight with shop floor reality. Our longest-running clients rarely swap flame retardants anymore — the production stability and regulatory predictability of OP 560 keep lines humming and plants out of the compliance red zone.
Real innovation comes from learning in the field. Audits, post-market surveillance, and regular industrial feedback drive upgrades in our production process. As regulations evolve — or as new health data emerges — we adjust quality control, raw sourcing, and communication. We have substituted questionable feedstocks wherever conflicts emerged, and we have updated documentation and certificates immediately to match new national or international rules. Our R&D partners share findings early with major clients, and plant visits keep us grounded in the realities of everyday manufacturing and compliance.
Our decades of experience in phosphorus chemistry remind us never to stand still. Each year, new challenges emerge — sometimes from policymakers, sometimes from frontline workers, sometimes from accidents or unexpected market pressures. This ongoing dialogue means new features, cleaner supply chains, improved dosing systems, and expanded testing all happen in real time.
Exolit OP 560 is more than a product listing. It is the sum of real research, production floor lessons, and worldwide regulatory learning. It reflects our belief that safety, chemistry, and responsible manufacturing grow stronger together — not at the expense of each other. Durable fire protection, enhanced product safety, and real-world environmental gains become possible with this kind of chemistry at the core. For any plant manager, technical director, or purchasing officer asking for safer retardant options, our doors and lines stay open for practical conversations about making production safer, smoother, and more future-proof.